FCC ID: R9O-CONNEX1 Single Wireless Gas Detector

 

Gas Detector Operators Manual Limited Warranty and Limitation Liability BW Technologies by Honeywell LP (BW) warrants the product to be free from defects in material and workmanship under normal use and service for a period of two years, beginning on the date of shipment to the buyer. This warranty extends only to the sale of new and unused products to the original buyer. BWs warranty obligation is limited, at BWs option, to refund of the purchase price, repair or replacement of a defective product that is returned to a BW authorized service center within the warranty period. In no event shall BWs liability hereunder exceed the purchase price actually paid by the buyer for the Product. This warranty does not include:

a. b. c. fuses, disposable batteries or the routine replacement of parts due to the normal wear and tear of the product arising from use;

any product which in BWs opinion, has been misused, altered, neglected or damaged, by accident or abnormal conditions of operation, handling or use;

any damage or defects attributable to repair of the product by any person other than an authorized dealer, or the installation of unapproved parts on the product; or The obligations set forth in this warranty are conditional on:

a. b. c. proper storage, installation, calibration, use, maintenance and compliance with the product manual instructions and any other applicable recommendations of BW;

the buyer promptly notifying BW of any defect and, if required, promptly making the product available for correction. No goods shall be returned to BW until receipt by the buyer of shipping instructions from BW; and the right of BW to require that the buyer provide proof of purchase such as the original invoice, bill of sale or packing slip to establish that the product is within the warranty period. THE BUYER AGREES THAT THIS WARRANTY IS THE BUYERS SOLE AND EXCLUSIVE REMEDY AND IS IN LIEU OF ALL OTHER WARRANTIES, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO ANY IMPLIED WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. BW SHALL NOT BE LIABLE FOR ANY SPECIAL, INDIRECT, INCIDENTAL, OR BASED ON CONTRACT, TORT OR RELIANCE OR ANY OTHER THEORY. Since some countries or states do not allow limitation of the term of an implied warranty, or exclusion or limitation of incidental or consequential damages, the limitations and exclusions of this warranty may not apply to every buyer. If any provision of this warranty is held invalid or unenforceable by a court of competent jurisdiction, such holding will not affect the validity or enforceability of any other provision. ConneX1 Operators Manual i Contacting BW Technologies by Honeywell Corporate Headquarters BW Technologies by Honeywell 2840 2nd Ave. SE Calgary, AB Canada T2A 7X9

+1.403.248.9226 / 1.800.663.4164

+1.403.573.3708 Europe BW Technologies by Honeywell 4 Stinsford Road Nufeld Industrial Estate Poole, Dorset BH17 0RZ

+44 (0) 1295.700.300

+44 (0) 1295.700.301 United States BW Technologies by Honeywell 405 Barclay Blvd. Lincolnshire, IL USA 60069

+1.847.955.8200 / 1.800.538.0363

+1.847.955.8210 info@gasmonitors.com www.gasmonitors.com ii ConneX1 Operators Manual Table of Contents 1. Introduction .......................................................................................... 1 1.1 Intended Use................................................................................... 1 1.2 Product Overview ............................................................................ 2 1.2.1 Parts of the ConneX1 ............................................................. 2 1.2.2 Display Elements ................................................................... 3 1.2.3 Buttons ................................................................................... 4 1.3 Sensor Poisons and Contaminants ................................................. 5 2. Getting Started ..................................................................................... 6 2.1 Activating/Deactivating the Detector ............................................... 6 3. Installing Fleet Manager II................................................................. 11 3.1 Using Fleet Manager II to Configure the Detector ........................ 11 4. User Options ...................................................................................... 12 4.1 General User Options ................................................................... 12 4.1.1 Message Configuration ........................................................ 14 4.1.2 Mandown Configuration ....................................................... 15 4.1.3 Password Configuration ...................................................... 15 4.2 Sensor and Profile Configuration .................................................. 15 4.2.1 Profile Options ..................................................................... 15 4.2.2 Sensor Options .................................................................... 16 4.3 Network Information Options ........................................................ 19 5. Mandown Alarm ................................................................................. 19 5.1 Break Mode................................................................................... 19 6. Panic Alarm ........................................................................................ 20 7. Alarms ................................................................................................ 21 7.1 Alarm Setpoints ................................................................................. 24 7.2 Stopping a Gas Alarm ................................................................... 24 7.2.1 Low and High Alarms ................................................................. 24 7.2.2 TWA and STEL Alarms ........................................................ 24 7.2.3 Acknowledging Latching Alarms .......................................... 24 8. Modes ................................................................................................. 24 8.1 Standard Operation ....................................................................... 24 8.2 Stealth Mode ................................................................................. 24 8.3 Safe Mode ..................................................................................... 24 8.4 Review Mode ................................................................................ 25 8.4.1 Gas Exposure ...................................................................... 25 8.4.2 Sensor Configuration ........................................................... 25 8.4.3 Detector Information ............................................................ 25 8.4.4 Messages ............................................................................. 25 9. Calibration .......................................................................................... 25 9.1 Calibration Using the IntelliDoX .................................................... 25 9.2 Calibration Guidelines ................................................................... 26 9.3 Installing the Calibration Cap ........................................................ 26 ConneX1 Operators Manual iii 9.3.1 Gas Cylinder Connection ..................................................... 26 9.3.2 Calibration Gas Concentration ............................................. 27 9.4 Manual Calibration Procedure ...................................................... 27 10. Bump Test ........................................................................................ 29 10.1 Bump Test Using the IntelliDoX ................................................... 29 10.2 Performing a Manual Bump Test ................................................. 29 11. Datalogs ........................................................................................... 30 12. Event Logs ....................................................................................... 31 13. Messaging ........................................................................................ 31 13.1 Receiving Messages ................................................................... 31 13.2 Reading Messages ..................................................................... 32 13.2.1 Sending a Messages ......................................................... 32 13.3 Panic Alarm Messages ............................................................... 32 14. LocaXion Manager........................................................................... 32 15. Fleet Manager II ............................................................................... 32 15.1 Downloading Data To Fleet Manager II ....................................... 32 15.2 Upgrading the Firmware ............................................................. 33 15.3 Generating Calibration Certificates ............................................. 33 16. Maintenance ..................................................................................... 33 16.1 Charging the Rechargeable Battery............................................ 33 16.1.1 Optimum Battery Operation ..................................................... 34 16.1.2 Rechargeable Battery Capacity ......................................... 34 16.2 Replacing the Sensor and Sensor Filter ..................................... 35 iv 16.2.1 Replacing the Sensor ......................................................... 36 16.2.2 Replacing the Sensor Filter ................................................ 37 17. WEEE Directive and Battery Directive ........................................... 38 17.1 Removal and Disposal of the Rechargeable Battery. ................. 38 18. Troubleshooting .............................................................................. 40 19. Replacement Parts and Accessories............................................. 53 20. Specifications .................................................................................. 54 Appendix A Regional Setpoints ........................................................... 56 A.1 North America .............................................................................. 56 Appendix B Configuration Menu Structure ......................................... 57 Appendix C Review Mode Menu Structure ......................................... 58 Appendix D Datalog Information .......................................................... 59 Appendix E Event Log Information ...................................................... 60 ConneX1 Operators Manual v ConneX1 Operators Manual vi ConneX1 Operators Manual ConneX1 Operators Manual vii performance. If an alarm occurs due to high concentration of combustible gases, calibrate the detector. If necessary, replace the sensor.

 Warning: The lithium battery may present a risk of re or chemical burn hazard if misused. Do not disassemble, heat above 212F (100C), or incinerate.

 Warning: Lithium polymer cells exposed to heat at 266F (130C) for 10 minutes can cause re and/or explosion.

e Warning: This detector contains a lithium polymer battery. Dispose of used lithium cells immediately. Do not disassemble. Do not dispose of in re. Do not mix with the solid waste stream. Spent batteries must be disposed of by a qualied recycler or hazardous materials handler.

Keep lithium cells away from children.

Deactivating the detector by removing the battery pack may cause improper operation and harm the detector.

e Warning: At the end of their working lives, sensors must be disposed of in an environmentally safe manner, in accordance with local waste management requirements and environmental legislation. Do NOT incinerate sensors as they may emit toxic fumes. a Cautions

 Warning: Substitution of components may impair Intrinsic Safety

Before using the detector, refer to Sensor Poisons and Contaminants.

 Caution: For safety reasons, this equipment must be operated and serviced by qualied personnel only. Read and understand the operators manual completely before operating or servicing.

Charge the detector before rst-time use. BW Technologies by Honeywell recommends the detector be charged after every workday.

Calibrate the detector before rst-time use and then on a regular schedule, depending on use and sensor exposure to poisons and contaminants. BW Technologies by Honeywell recommends that the sensor should be calibrated regularly and at least once every 180 days (6 months).

Calibrate only in a safe area that is free of hazardous gas in an atmosphere of 20.9% oxygen.

BW Technologies by Honeywell recommends to bump test the sensor before each days use to conrm its ability to respond to gas by exposing the detector to a gas concentration that exceeds the alarm setpoints. Manually verify that the audible, visual, and vibrator alarms are activated. Calibrate if the readings are not within the specied limits.

Any rapid upscaling reading followed by a declining or erratic reading may indicate a gas concentration beyond upper scale limit, which can be hazardous.

For use only in potentially explosive atmospheres where oxygen concentrations do not exceed 20.9% (v/v).

Extended exposure of the detector to certain concentrations of combustible gases and air may stress an detector element that can seriously affect its viii ConneX1 Operators Manual Intended Use WARNING A sensor which cannot be calibrated or which is found to be out of tolerance should be replaced immediately. 1. Introduction The ConneX1 is a compact, portable gas detector designed to be carried or worn without hindering the user. Its purpose is to continuously monitor the atmosphere continuously for hazardous levels. Audible, visual, and vibratory alarms alert the user to danger when hazardous conditions are detected. 1.1 Intended Use The ConneX1 has been designed to alert the user to potentially hazardous atmospheres while carrying out his/her normal duties. Therefore, the detector must be kept switched on and worn as close to the breathing area as possible, and several accessories are provided to allow the detector to be worn in a number of different ways:

a. b. On the chest On a belt The detector is provided with various methods to enable the user to comply safely and easily with conned space regulations. CAUTION BW recommends that the detector be calibrated at least every 6 months or in accordance with customer site procedures, whichever ISSOONER#ORRECTOPERATIONOFTHEDETECTORSHOULDBECONlRMEDWITH

test gas of known concentration before each use. The use of the IntelliDoX accessory is strongly recommended as it enables a calibration to be performed quickly and easily. ConneX1 Operators Manual 1 Product Overview 1.2 Product Overview 1.2.1 Parts of the ConneX1 12 2 11 10 2 9 3 11 2 6 7 8 Figure 1. Parts of ConneX1 4 5 2 ConneX1 Operators Manual Table 1. Parts of ConneX1 1.2.2 Display Elements Item Description Product Overview 1 2 3 4 5 6 7 8 9 10 11 12

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"EEPER ppm - H2S 10/13/12 11:21 am ConneX1 Operators Manual 3 Product Overview 1.2.3 Buttons Table 2. Pushbuttons Button Description p
4O
POWER
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THE
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PRESS
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FOR

SECONDS p
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$OWN 4 Button 5P Table 2. Pushbuttons Description p
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ConneX1 Operators Manual Sensor Poisons and Contaminants 1.3 Sensor Poisons and Contaminants The following table lists common products to avoid using around sensor. Several cleaners, solvents, and lubricants can contaminate and cause permanent damage to the sensor. Before using cleaners, solvents, and lubricants in close proximity to the sensor, read the following cautions and refer to Table 3. CAUTION Use only the following BW Technologies by Honeywell recommended products and procedures:

s

s

s

s

Use water-based cleaners. Use non-alcohol based cleaners. Clean the exterior of the detector with a soft, damp cloth Do not use soaps, polishes, or solvents Table 3. Sensor Poisons and Contaminants Cleaners and Lubricants

"RAKE
CLEANERS

,UBRICANTS 2UST
INHIBITORS 7INDOW
AND
GLASS
CLEANER

$ISHSOAPS

#ITRUS BASED
CLEANERS

!LCOHOL BASED
CLEANERS

(AND
SANITIZERS

!NIONIC
DETERGENTS

-ETHANOL
FUELS
AND

ANTIFREEZES Silicones 3ILICONE
CLEANERS
AND

PROTECTANTS 3ILICON
BASED
ADHESIVES

SEALANTS
AND
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MEDICINAL

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,UBRICANTS 2UST
INHIBITORS ConneX1 Operators Manual 5 Activating/Deactivating the Detector 2. Getting Started 2.1 Activating/Deactivating the Detector CAUTION Only activate the detector in a fresh air environment. Activate: Press and hold for 3 second Deactivate: Press and hold for 5 seconds. The Segment Testing screen displays. 1. 6 2. The Splash screen displays. At this time the detector is running a self-test and auto zero on the sensor. The rmware version, hardware version, and serial number displays. 3. ConneX1 Operators Manual 4. If a startup message is enabled in Fleet Manager, the text displays. 6. 5. The current prole, operation mode, and Wi-Fi mode display. For more information on proles, refer to 4.2 Sensor and Prole Conguration on page 15. 7. Activating/Deactivating the Detector The detector presents the opportunity to select a different operator. To to select a different operator. conrm the selection, press and then or The detector presents the opportunity to select a new location. To conrm the selection, press to select a different location. and then or ConneX1 Operators Manual 7 Activating/Deactivating the Detector 8. The screen then displays the measuring range, TWA Alarm, STEL Alarm, Low Alarm, and High Alarm. 9. The detector then completes the sensor self-test. 10. If Auto Zero is enabled, the sensor begins to auto zero. 8 ConneX1 Operators Manual 11. If the last calibration failed, press acknowledged, the detector powers off. to acknowledge. If the failure is not If Force Calibration is enabled, a calibration must be completed before entering normal operation. If a calibration is not performed, the detector automatically powers off. Activating/Deactivating the Detector 12. If the calibration is overdue, press overdue, proceed to step #13. to acknowledge. If calibration is not 13. If Cal Reminder is enabled, the screen displays the number of days before a calibration should be performed.

(Note:

To start alternates with To continue every 4 seconds.) If Cal Reminder is not enabled, the Calibration Interval displays. Proceed to step #14. ConneX1 Operators Manual 9 Activating/Deactivating the Detector 14. If the last bump test failed, press acknowledged, the detector powers off. to accept. If the failure is not If Force Bump Test is enabled, a bump test must be completed before entering normal operation. If a bump test is not performed, the detector automatically powers off. 16. The screen displays the number of days until the next bump test. If the last bump test was successful, proceed to step #16. 15. If the bump test is overdue, press proceed to step #16. to accept. If bump test is not overdue, 17. The detector displays a startup summary.

(Note:

To start alternates with To continue every 4 seconds.) 10 ConneX1 Operators Manual 18. If the startup summary is error-free, the screen displays that the startup sequence is nished. The detector then enters normal operation. 3. Installing Fleet Manager II Fleet Manager II is required to congure the detector. To install Fleet Manager II, refer to the Fleet Manager II CD-ROM that includes the installation wizard, and

Fleet Manager II Operators Manual (located under Help) 3.1 7UKPI(NGGV/CPCIGT++VQ%QPIWTGVJG

Detector To install Fleet Manager, refer to the Fleet Manager II 7UKPI(NGGV/CPCIGT++VQ%QPIWTGVJG&GVGEVQT 1 3 2 4 Figure 2. Connecting the IR Link Table 4. Connecting the IR Link Description Item 1 2 3 4

$ETECTOR

)2
,INK
INTERFACE

)2
,INK 53"
CABLE ConneX1 Operators Manual 11 General User Options Activate the detector and wait for the startup sequence to complete. Connect the USB cable to the USB port of the computer. 1. 2. NOTE Plug the USB into the same USB port where the USB drivers were installed. 3. 4. 5. Connect the USB cable to the IR Link. Insert the IR Link into the IR interface on the back of the detector. From the PC, open Fleet Manager II. The following screen displays when the IR Link is connected to the detector. Click Administration. From the Administration toolbar, click Login / Logout to access the Enter Password dialog box. Enter Admin and click OK (password is case sensitive). From the Devices toolbar, click %QPIWTG&GXKEGXKC+4.KPM. The Device selection popup displays. Select ConneX1 and click OK. 6. 7. 8. 9. 12 10. From the conguration window, click Retrieve from Device at the bottom of the window. The elds automatically populate with the detectors current conguration settings. 11. Refer to 4. User Options on page 12 for descriptions about how to enter data, enable/disable, and dene settings. 12. When all settings are dened, click Save to Device at the bottom of the window. The detector is now updated with the new settings. 4. User Options User options can be congured using Fleet Manager II. 4.1 General User Options

$CEMNKIJVVKOGQWV

UGEQPFU Dene how long (0-30 seconds) the backlight will stay lit after pressing a button. The default value is 10 seconds. This does not affect the backlight behaviour during alarms, startup sequence, critical system faults, and powering off. Default is XX seconds.

'PCDNG%CNKDTCVKQP.QEM If enabled, the sensor can only be calibrated when calibration is initiated from Fleet Manager II or with the IntelliDoX.

%QPFGPEG $GGR(NCUJ +PVGTXCN

UGEQPFU The eld denes how often the condence beep (5-255 seconds) and condence ash (1-120 seconds) occur

(The default condence beep interval is 10 seconds. The default ash interval is 1 second). Enter the desired value. Date Format: Choose how the date will display, either day/month/year or month/

day/year. Select dd/mm/yyyy or mm/dd/yyyy. Default is mm/dd/yyyy. Distributor Contact Information: Contact information (phone number or email) of the distributor. ConneX1 Operators Manual Distributor Name: Name of the distributor company. Enable Force Bump: If Force Bump is enabled and the sensor is past due for a bump test, the following screen displays during the startup self-tests. NOTE General User Options BW Technologies by Honeywell recommends to bump test the SENSORBEFOREEACHDAYSUSETOCONlRMITSABILITYTORESPOND

to gas by exposing the detector to a gas concentration that exceeds the alarm setpoints. Verify that the audible and visual alarms activate. Calibrate if the readings are not within the SPECIlEDLIMITS

(Note:

The sensor must be bump tested to continue and enter normal operation. Press To start alternates with the progress bar every 4 seconds.)

, and refer to 9.2 Performing a Manual Bump Test on page 29. Or to deactivate the detector. Press and hold A value must be entered in the $WOR +PVGTXCN

FC[U eld in the Sensor Conguration section before enabling Force Bump. CAUTION

)FISENTEREDINTHE"UMP)NTERVALDAYS lELDTHE&ORCE"UMP

option is automatically disabled. For complete instructions to perform a bump test, refer to 9.2 Performing a Manual Bump Test on page 29. The detector is shipped with the Force Bump option disabled. Enable Force Calibration: If enabled and a sensor is past due for calibration or the last calibraiton failed, the following screen displays during the startup self-tests. The sensor must be calibrated to continue and enter normal operation. Press and refer to 10.4 Manual Calibration Procedure on page 27. Or

, Press and hold to deactivate the detector. ConneX1 Operators Manual 13 General User Options A value must be entered in the %CN+PVGTXCN

FC[U eld in the Sensor Conguration section before enabling Force Calibration. CAUTION CAUTION

)FZERO ISENTEREDINTHE#AL)NTERVALDAYS lELDTHE&ORCE

Calibration option is automatically disabled. The detector is shipped with the Force Calibration option disabled. Language: Choose the display language. All screens are displayed in that language. Currently, only English is available. Later releases of rmware will have other languages. Locations: List of locations that can be assigned as the default location. Up to 20 locations can be customized. QI +PVGTXCN

UGEQPFU This eld denes how often the detector records a datalog (1 to 600 seconds). The total number of 8-hour days datalogs that can be recorded is assuming 90%

of the day has no gas concentrations. Table 5. Datalog Storage Capacity Datalog Interval Total Number of Days Datalogs Can Be Recorded


SECONDS


SECONDS UP
TO

DAYS UP
TO

DAYS


SECONDS

UP
TO

DAYS When the memory is full, the detector replaces the oldest datalogs with the most recent datalogs. The detector is shipped with the default setting of 5 seconds. Operators Name: List of names that can be assigned as the default operator. Up to 10 operator names can be customized. Owner Name: Name of the detector owner. Field can be used to identify personnel responsible for detector upkeep. 2TQNG0COG&GHCWNV Choosing a prole pre-selects user options appropriate to the working condition. Refer to Fleet Manager II Operators Manual to set up proles. Refer to Appendix A Regional Setpoints on page 56. Serial Number: Displays the unique serial number of the detector. This is a read-

only eld. Serial number is factory dened Time Format: Select the 12-hour clock or 24-hour clock in time stamps. Select from 12 (12-hour clock) or 24 (24-hour clock). Default is 12-hour clock. Wireless Mode Selection: If enabled, the user can enable or disable WiFi. The detector is shipped with Wireless Mode Selection enabled. 4.1.1 /GUUCIG%QPIWTCVKQP 2TG%QPIWTGF/GUUCIG Create messages to respond to received messages sent from LocaXion Manager (20 characters maximum). These messages are used to communicate with LocaXion Manager. Enable Startup Message: When checked, a message will display on the detector LCD during startup. 14 ConneX1 Operators Manual Startup Message: Enter text to display on the detector LCD during startup (25 characters maximum). 4.1.2 /CPFQYP%QPIWTCVKQP For more information, refer to 5. Mandown Alarm on page 19. Enable Mandown Feature: If enabled, the detector alarms if movement is not detected after a certain time period. The time period is dened in Mandown Timeout. Mandown Idle Time: Denes how long no motion must be detected before a Mandown alarm (10 to 240 seconds). The default value is 10 seconds. Mandown Sensitivity: Dene the sensitivity of the detector accelerometer. 100 equals high sensitivity and 0 equals low sensitivity. 4.1.3 2CUUYQTF%QPIWTCVKQP

'PCDNG7UGT%QPI2CUUYQTF When enabled, a password must be entered to to enter Conguration Menu on the detector. The detector is shipped with the password disabled. Enable Password Protection for Device Shutdown: When enabled, a password must be entered to deactivate the detector. The detector is shipped with the password disabled. Password: Set the 4-digit password. 4.1.3.1 Entering a Password To enter the password on the detector. Complete the following procedure. 5GPUQTCPF2TQNG%QPIWTCVKQP 2. When at the last digit and the correct number is selected, press enter the password. to 4.2 5GPUQTCPF2TQNG%QPIWTCVKQP A prole is a set of conguration options which allows the user to quickly change the conguration and behaviour of the instrument, depending on the situation. 4.2.1 2TQNG1RVKQPU

$GGRRGTMG[RTGUU If enabled, every time a button is pressed, the beeper sounds. The detector is shipped with the beep per key press enabled. Beep per key press is disabled if Stealth Mode is enabled.

%QPFGPEG$GGR If enabled, the Condence Beep provides continuous audible conrmation that the detector is operating correctly. Frequency of the beep is dened with Condence Beep/Flash Interval (seconds). 1. Change the digit by pressing the digit. Move the cursor to the next digit by pressing to the previous digit by pressing to increment the digit and

. to decrement

. Move the cursor ConneX1 Operators Manual 15 5GPUQTCPF2TQNG%QPIWTCVKQP NOTE NOTE 4HECONlDENCEBEEPAUTOMATICALLYDISABLESIFTHEBUMPTESTIS

overdue, low battery, calibration is overdue, watchdog timer, self-test fail, any alarm condition, any warnings or faults. The detector is shipped with condence beep disabled. IntelliFlash: If enabled, a green LED ashes to indicate the detector is operating correctly. The Condence Flash deactivates during a low battery alarm, calibration fail, bump test fail, self-test fail, and during an alarm condition. Frequency of the ash is dened with Condence Beep/Flash Interval (seconds). Latching Alarms: If enabled, during an alarm condition the Latching Alarms option causes the low and high gas alarms (audio, visual, and vibrator) to persist until the alarm is acknowledged and the alarm condition no longer exists. The LCD displays the peak concentration until the alarm no longer exists. Local regulations in your region may require the Latching Alarms option be enabled. The detector is shipped with the Latching Alarms option disabled. Default Operation Mode Selection: Denes the operation mode as Standard, Stealth, or Safe. Refer to 8. Modes on page 24 for more information. WiFi: Enable/disable WiFi. If WiFi is disabled, detector is shipped with the WiFi enabled. 4.2.2 Sensor Options display on the LCD. The and 4.2.2.1 Alarm Settings by Prole 4HEALARMSETPOINTSAREDIFFERENTBETWEENTHETWOPROlLES

Low Alarm: Dene the low alarm setpoints for each sensor. Refer to Appendix A Regional Setpoints on page 56 for alarm setpoints. High Alarm: Dene the high alarm setpoints for each sensor. Refer to Appendix A Regional Setpoints on page 56 for alarm setpoints. STEL Alarm: The short-term exposure limit (STEL) is the maximum permissible gas concentration a worker can be safely exposed to for short periods of time

(5-15 minutes maximum). For toxic sensors only. Refer to Appendix A Regional Setpoints on page 56 for alarm setpoints. NOTE Standard factory alarm setpoints may vary by region. Refer to Appendix A Regional Setpoints on page 56. TWA Alarm: The time-weight average (TWA) is a safety measure used to calculate accumulated averages of gases. Using the US Occupational Safety and Health Administration (OSHA) method or the American Conference of Governmental Hygienists (ACGIH) method, an average is calculated to ensure the detector alarms when the TWA has accumulated. For toxic sensors only. Refer to Appendix A Regional Setpoints on page 56 for alarm setpoints. 4.2.2.2 Sensor Conguration 16 ConneX1 Operators Manual NOTE 4HE SENSOR CONlGURATION SETTINGS ARE THE SAME BETWEEN THE

TWOPROlLES

20.8 based: When enabled, the detector assumes 20.8% O2 as ambient air (factory default is 20.9% O2). Applicable to the O2 sensor only. The detector is shipped with the 20.8 based option disabled. Auto Zero on Startup: When enabled, the sensor automatically zeros during the startup sequence. The detector is shipped with the Auto Zero on Startup option enabled.

'PCDNG .QY #NCTO #EMPQYNGFIGOGPV If enabled, the audible alarm can be disabled during a low alarm. The LEDs and visual alarm indicators remain active until the gas concentration changes or the detector deactivates. For toxic sensors only. to acknowledge the low alarm and deactivate the audible alarm. If the Press alarm escalates to a high, TWA, or STEL alarm, the audible alarm reactivates. The detector is shipped with the .QY#NCTO#EMPQYNGFIGOGPV disabled. STEL Period: The STEL Interval option provides protection for workers from over exposure to high concentrations of gas, and is based on user-dened 5-15 minute intervals. When the maximum STEL is reached, the detector alarms to notify the worker. For toxic sensors only. CAUTION

&OLLOWALLSAFETYPROCEDURESASDElNEDBYYOUREMPLOYER

5GPUQTCPF2TQNG%QPIWTCVKQP Enter the interval (5-15 minutes) in the 56'.+PVGTXCN

OKPWVGU eld. The detector is shipped with a default setting of 15 minutes. TWA Method: The TWA Method denes the TWA calculating method. Select either the US Occupational Safety and Health Administration (OSHA) or the American Conference of Governmental Industrial Hygienists (ACGIH) TWA calculating method. The detector is shipped with the default method of US OSHA. For toxic sensors only.

 US OSHA Method: 8 hours moving average The US OSHA method is dened as a moving average that accumulates over an 8-hour average. If the worker is in the eld longer, the oldest accumulated values (rst hour) are replaced by the newest values

(ninth hour). This continues for the duration of the work shift until the detector is deactivated.

 ACGIH Method: Innite accumulated average to 8 hours The ACGIH method is dened as the innite (total) accumulated average, where it is 2 hours or 8 hours. TWA Period: The 69#2GTKQF

JQWTU option calculates a time-weighted moving average of accumulated gases over a period of 4-16 hours, to ensure the detector alarms when the dened maximum average is accumulated. For toxic sensors only. Example: The TWA Period option is set to 8 hours. Therefore, the moving average accumulates over a 8-hour average. If the worker is in the eld longer, the oldest accumulated values (rst hour) are replaced by the newest values (ninth hour). This continues for the duration of the work shift until the detector is deactivated. ConneX1 Operators Manual 17 5GPUQTCPF2TQNG%QPIWTCVKQP NOTE Regulations may vary depending upon region. Adhere to the REGULATIONSDElNEDFORYOURAREA

Enter the period (4-16 hours) in the 69#2GTKQF

JQWTU eld. The detector is shipped with a default setting of 8 hours. 4.2.2.3 Calibration and Bump Setup NOTE The calibration and bump test settings are the same between THETWOPROlLES

Bump Interval: Dene how often the sensor should be calibrated. 1. 2. Enter the value (0-365 days) for the sensor. Enter 0 to disable the bump interval option. The detector is shipped with the factory default setting of 0 days.

$WOR4GURQPUG6KOG

UGEQPFU Dene the maximum response time for the detector to react to bump test gas.

$WOR6JTGUJQNF

: Dene the minimum bump test gas concentration that must be registered by the detector to pass the bump test.

%CN)CUEQPEGPVTCVKQP

RRO

WARNING 4HEGASCONCENTRATIONVALUEENTEREDIN&LEET-ANAGER))MUSTMATCH

the gas concentration value on the gas cylinder. Enter the gas concentration value in the %CNKDTCVKQPICU

RRO eld.

%CN+PVGTXCN

FC[U Dene how often the sensor should be calibrated. 1. 2. Enter the value (0-365 days) for the sensor. Enter 0 to disable the calibration interval option. Entering 0 automatically deactivates the Force Calibration option. The detector is shipped with the factory default setting of 180 days. CAUTION BW Technologies by Honeywell recommends that the sensor be calibrated at least once every 180 days (6 months).

%CN4GOKPFGT

FC[U A reminder for the next calibration will display a number of days before the calibration is due. The reminder can appear anywhere from 0-365 days before the calibration due date. Enter 0 automatically deactivates the Cal Reminder option. The detector is shipped with a default setting of 10 days.

$WOR+PVGTXCN

FC[U Dene how often a bump test should be performed for each sensor in the $WOR+PVGTXCN

FC[U eld. A different bump interval can be dened for each sensor. 1. 2. Enter the value (1-365 days) for each sensor. Enter 0 to disable the bump interval option. Enter 0 automatically deactivates the Force bump option. The detector is shipped with the factory default setting of 0 days. 18 ConneX1 Operators Manual 0GVYQTM+PHQTOCVKQP1RVKQPU Security Key: Enter the password to access the network. SSID: Enter the name of the network. LocaXion Manager IP Address: Enter the IP address of the computer running LocaXion Manager. LocaXion Manager UDP Port: Leave as default 50009. 5. Mandown Alarm The Mandown feature allows sueprvisors to take action if no motion is detected. If no motion is detected for a user-dened period, the Mandown notication screen displays for 10 seconds. If the alarm is not cancelled by pressing

, the Panic Alarm activates and a Help message is sent to LocaXion Manager. Mandown Alarm is temporarily disabled while the detector is in IntelliDoX, communicating with Fleet Manager via IR Link, and charging. For more information on Panic Alarm, refer to 7.4 Panic Mode on page 22 NOTE BW Technologies by Honeywell recommends to bump test the SENSORBEFOREEACHDAYSUSETOCONlRMITSABILITYTORESPONDTO

gas by exposing the detector a gas concentration that exceeds the alarm setpoints. Verify that the audible and visual alarms ACTIVATE#ALIBRATEIFTHEREADINGSARENOTWITHINTHESPECIlED

limits. 4.3 0GVYQTM+PHQTOCVKQP1RVKQPU NOTE

&ORBESTRESULTSCONSULTWITHYOUR)4DEPARTMENTFOROPTIMAL

settings. Use DHCP: When enabled, a dynamic IP address is assigned to the detector. Use a Static IP Address: When enabled, a static IP address is assigned to the detector.

Static IP Address: Assign a static IP address to the detector

Gateway: Enter the Gateway address

Subnet Mask: Enter the Subnet Mask Scan Channel List: Lists the channels the detector will scan for a signal. Click Edit to add more channels to the list. Default is all channels. Security Mode: Select the type of security. Choose from WEP, WPA-Personal, WPA2-Personal, and WPA2-Mixed. Select disabled for no security. ConneX1 Operators Manual 19

$TGCM/QFG 5.1 $TGCM/QFG If the Mandown Alarm needs to be temporarily disabled, press and hold

. The detector will ash, beep, and vibrate once to indicate Break Mode is active. The LCD indicates that Break Mode is active. and 6. Panic Alarm Break Mode will deactivate after 30 minutes. When Panic Alarm is activated, the detector activates the LEDs and audible alarm to maximum volume to alert nearby personnel for help. The detector sends a message to LocaXion Manager so the operator can send assistance. The detector will continue to send a message to LocaXion Manager until the operator acknowledges that the message has been received. LocaXion Manager cannot be operated until the message has been acknowledged. To enter Panic Mode, press and hold for 3 seconds. To activate the Panic Alarm, press and hold Panic Alarm warning. Continue to hold Follow the same procedure to deactivate the alarm. for 2 seconds. This will prompt the for 3 more seconds to activate the alarm. 20 ConneX1 Operators Manual 7. Alarms Gas alarms are one of four cautionary notications for the detector. See Table 7 for information on severity of the cautionary notications. When an alarm occurs the heartbeat icon disappears, and if enabled, the condence beep and condence beep discontinue. Table 6 describes the detector alarm and corresponding behaviour. Table 6. Alarms Alarm Screen Alarm Screen

$TGCM/QFG Low Alarm p
3LOW
SIREN
UPWARD
TONE p
3LOW
,%$
ASH p
6IBRATOR
ALARM
ACTIVATES p
"ACKLIGHT
ACTIVATES TWA Alarm p
&AST
SIREN
DOWNWARD
TONE p
&AST
,%$
ASH p
6IBRATOR
ALARM
ACTIVATES p
"ACKLIGHT
ACTIVATES High Alarm p
&AST
SIREN
DOWNWARD
TONE p
&AST
,%$
ASH p
6IBRATOR
ALARM
ACTIVATES p
"ACKLIGHT
ACTIVATES STEL Alarm p
&AST
SIREN
DOWNWARD
TONE p
&AST
,%$
ASH

p
6IBRATOR
ALARM
ACTIVATES p
"ACKLIGHT
ACTIVATES ConneX1 Operators Manual 21

$TGCM/QFG Alarm Screen Alarm Screen Over Limit (OL) Alarm p
/,
DISPLAYS
IN
GAS
CHANNEL

p
&AST
SIREN
DOWNWARD
TONE p
&AST
ASH

p
6IBRATOR
ALARM
ACTIVATES p
"ACKLIGHT
ACTIVATES p
Note: LCD may also display an underlimit reading (-OL) Mandown


!
SEQUENCE

CONSECUTIVE
BEEPS
F


!LTERNATING
,%$
ASHES
AND
VIBRATOR


3ILENCE
FOR

SECONDS
THEN
THE
CYCLE

REPEATS

Low Battery Alarm p
3EQUENCE
OF

RAPID
SIRENS
AND

ALTERNATING
ASHES
WITH

SECONDS

3EQUENCE
LASTS
FOR

MINUTES p
%MPTY
BATTERY
ICON
ASHES p
6IBRATOR
ALARM
PULSES p
"ACKLIGHT
ACTIVATES p
!FTER

MINUTES
OF
THE
LOW
BATTERY

ALARM
SEQUENCE
THE
DETECTOR

ENTERS
CRITICAL
BATTERY
ALARM
SEE

#RITICAL
"ATTERY
!LARM
BELOW Critical Battery Alarm p

MINUTES
AFTER
THE
LOW
BATTERY

ALARM
ACTIVATES
A
SEQUENCE
OF


RAPID
SIRENS
AND
ALTERNATING
ASHES

WITH

SECOND
OF
SILENCE
IN
BETWEEN

SEQUENCE
REACTIVATES
SEVEN
TIMES p
6IBRATOR
ALARM
PULSES p
&AST
ASH

p
"ACKLIGHT
ACTIVATES 22 ConneX1 Operators Manual Alarm Screen Alarm Screen

$TGCM/QFG Panic Alarm p
-AXIMUM
BEEPER
VOLUME p
&AST
ASH p
6IBRATOR
PULSES p
"ACKLIGHT
ACTIVATES An alarm stops when the gas concentration is below the low alarm setpoint. If the alarms are set to latch, press to reset the alarms. ConneX1 Operators Manual 23 Alarm Setpoints 7.1 Alarm Setpoints To change the alarm setpoints, refer to 4.2.2 Sensor Options on page 16. To see the regional alarm setpoints, refer to Appendix A Regional Setpoints on page 56. 7.2 Stopping a Gas Alarm 7.2.1 Low and High Alarms The low and high gas alarms stop when the gas concentration is below the alarm setpoints. If the Latching Alarm option is enabled in Fleet Manager II, refer to 7.2.3 Acknowledging Latching Alarms on page 24. 7.2.2 TWA and STEL Alarms WARNING

&OLLOWALLSAFETYPROCEDURESASDElNEDBYYOUREMPLOYER#ONlRM

with your supervisor before clearing the TWA and STEL alarms. TWA and STEL alarms can be stopped either by

deactivating and then reactivating the detector, or

clearing the TWA/STEL/peak exposure readings. Refer to 8.4 Review Mode on page 24. 7.2.3 #EMPQYNGFIKPI.CVEJKPI#NCTOU If the Latching Alarm option is enabled, during an alarm the low and high gas alarms (audible, visual, and vibrator) persist until the alarm is acknowledged and the gas concentration is below the low alarm setpoint. to acknowledge a latched alarm. Press Local regulations in your region may require the Latching Alarms option be enabled. 8. Modes Selecting one of ve modes determines how the detector behaves during alarms and during gas-free conditions. 8.1 Standard Operation In standard operation is the default mode. It displays the gas channels and icons. When an alarm occurs, the audible, visual and vibrator alarms activate. 8.2 Stealth Mode In Stealth Mode, the audible and visual alarms are disabled. The icon display on the LCD. When an alarm does occur, the vibrator alarm activates and the LCD displays the alarm condition, and the audible and visual alarms do not activate. 8.3 Safe Mode If there is no alarm, the LCD displays Safe instead of real time gas readings, gas name, or measurement units. When an alarm occurs it will exit safe mode and display the alarm icon and peak gas reading, The audible, visual, and vibrator alarms activate normally. 24 ConneX1 Operators Manual 8.4 Review Mode In Review Mode, the user can view the

8.4.1 Gas Exposure on page 25

8.4.2 Sensor Conguration on page 25

8.4.3 Detector Information on page 25

8.4.4 Messages on page 25 to enter Review Mode. Press 8.4.1 Gas Exposure Viewing gas exposure readings for the sensor, shows the

peak reading

minimum reading

STEL reading (only applicable for toxic sensor)

TWA reading (only applicable for toxic sensor) or to scroll through the gas exposures. Press To reset the peak gas exposures, press 8.4.2 Sensor Details when prompted. The information can also be viewed/altered in Fleet Manager II.

Measuring range

Low Alarm setpoint

High Alarm setpoint

TWA alarm setpoint ConneX1 Operators Manual Review Mode

STEL Alarm setpoint

Calibration due date

Bump test due date 8.4.3 Detector Details The following information details the detector settings. The following information can also be viewed or changed in Fleet Manager.

Current operator and location

Current prole and operation mode

Owner and WiFi status

Software version, hardware revision, and serial number

MAC address, IP address, and WiFi network name

Distributor details

Date format

Time format 8.4.4 Messages

Messages received from LocaXion Manager

Messages sent to LocaXion Manager 9. Calibration A calibration is performed to adjust the sensitivity levels of the sensor to ensure accurate responses to gas. 9.1 Calibration Using the IntelliDoX 25 Calibration Guidelines If %CN +4 .QEM is enabled, calibration must be completed with the IntelliDoX. Refer to Calibration Lock on page 12 in 4. User Options on page 12 or the IntelliDoX Technical Reference Guide for more information. 9.2 Calibration Guidelines

Calibrate only in a fresh air environment. Do not calibrate in a hazardous area.

The maximum hose length for calibration is 1 ft. (30 cm).

To cancel the calibration or zero sensor, press

For calibration troubleshooting, refer to

. 9.3 Installing the Calibration Cap 9.3.1 Gas Cylinder Connection Gas Cylinder Guidelines

To ensure accurate calibration, use a premium-grade calibration gas. Use gases approved by the National Institute of Standards and Technology or equivalent. If a certied calibration is required, contact BW Technologies by Honeywell. Do not use a gas cylinder past its expiration date .

Read the following steps prior to initiating a calibration or a bump test. 1. Verify the calibration gas being used matches the span concentration ConneX1 Operators Manual 26 2. 3. value(s) that are set for the detector. Connect the calibration hose to the 0.5 l/min regulator on the gas cylinder. Connect the calibration hose to the intake inlet on the calibration cap. Begin the calibration or bump test procedure. Do not attach the calibration cap until instructed to apply gas. 4. When instructed, place the calibration cap on the detector When calibration is complete, turn off the gas, and disconnect the hose from the calibration cap and the regulator. Remove the calibration cap from the detector. 9.3.2 Calibration Gas Concentration Refer to the table below for recommended gas concentrations for calibrations:

Table 7. Recommended Calibration Gas Concentration Gas Type Allowable Range

#ARBON
MONOXIDE

(YDROGEN
SULDE

/XYGEN 3ULFUR
DIOXIDE


PPM
TO

PPM


PPM
TO

PPM


VOL


PPM
TO

PPM 9.4 Manual Calibration Procedure To cancel calibration at any time, press

. ConneX1 Operators Manual Manual Calibration Procedure 1. From normal operation, press to select Calibration. to enter Conguration Mode. Press 2. 3. In the Calibration menu, scroll down and select Calibration. The detector zeroes the sensor before the calibration. 4. When the zero calibration is complete, attach the calibration cap and apply the calibration gas at a ow rate of 0.25-0.50 L/min. If Cal IR Lock is enabled, the following screen displays to indicate calibration can only be performed using an IR device (IntelliDoX or IR Link Adapter). Once the detector has detected a sufcient amount of gas, the detector 5. 27 Manual Calibration Procedure begins calibration of the sensor. 6. When the following screen displays, close the valve on the gas cylinder and remove the calibration cap from the detector. 8. The calibration due date resets to the number of days dened in the Cal Interval eld in Fleet Manager II. 7. When calibration is complete, the following screen displays. 9. The detector now enters normal operation. 28 ConneX1 Operators Manual 10. Bump Test 3. Press to enter Conguration Mode. Scroll down to Bump Test. Press

. Bump Test Using the IntelliDoX A bump test is the process of applying a small amount of test gas to force the detector into alarm. A bump test should be performed daily to conrm the sensor is responding correctly to gas, and that the audible, visual, and vibrator alarms activate during an alarm condition. Calibrate if the readings are not within specied limits. 10.1 Bump Test Using the IntelliDoX The IntelliDoX can peform bump tests. Refer to the IntelliDoX Technical Reference Guide for more information. 10.2 Performing a Manual Bump Test CAUTION BW Technologies by Honeywell recommends to bump test the sensor BEFOREEACHDAYSUSETOCONlRMITSABILITYTORESPONDTOGASBY

exposing the sensor to a gas concentration that exceeds the alarm setpoints. Follow this procedure when Force Bump is enabled and a bump test is required during startup. To perform a bump test with the IntelliDoX, refer to the IntelliDoX Technical Reference Guide. 1. 2. Connect the calibration hose to the 0.3 l/min regulator on the gas cylinder. Connect the calibration hose to the intake inlet on the calibration cap. Refer to 11.3 Installing the Calibration Cap on page 26. 4. When the following screen displays, attach the calibration cap and apply bump test gas at a ow rate of 250-500 mL/min. Refer to 10.3 Installing the Calibration Cap on page 26. 5. As the sensor detects gas, it will go into alarm. ConneX1 Operators Manual 29 Performing a Manual Bump Test Depending on the setpoints, the low or high alarm displays. 8. The LCD returns to the Bump Test Conguration Menu screen. 6. When the following screen displays, close the valve on the gas cylinder and remove the calibration cap from the detector. If the bump test failed, repeat the bump test again or refer to 18. Troubleshooting on page 40. 7. When calibration is complete, the following screen displays. 11. Datalogs The detector records datalog samples that can be compiled to create a report using Fleet Manager II. Using Fleet Manager II, dene the logging interval from 1 to 600 seconds. Default is 5 seconds. The total number of 8-hour days of datalogs that can be recorded, assuming 90%

of the day has no gas concentrations. 30 ConneX1 Operators Manual Table 8. Datalog Storage Capacity 13.1 Receiving Messages Receiving Messages When the detector receives a message, an envelope appears and a brief portion of the message appears on the LCD. Press After 10 seconds, if the message is not read, appears in the at the top of the screen. The detector will beep and vibrate to alert the user that there is an unread message . 13.2 Reading Messages to read the full message. When reading a message, press scroll to the beginning of the message. to scroll through the message and press to Datalog Interval


SECONDS


SECONDS


SECONDS

Total Number of 8-Hour Days Datalogs Can Be Recorded UP
TO

DAYS UP
TO

DAYS UP
TO

DAYS When the memory is full, the detector replaces the oldest datalogs with the most recent datalogs. The detector is shipped with the default setting of 5 seconds. For more information on what is recorded in a datalog, refer to Appendix D Datalog Information on page 59. 12. Event Logs An event log is recorded when the user changes the instrument status such as activating/deactivating the detector, prole change, or activation of a gas alarm. Event logs are downloaded via Fleet Manager II and can be viewed with the program. Up to 30 event logs can be recorded. When event log memory is full, the newer event logs overwrites the oldest event logs. Refer to Appendix E Event Log Information on page 60. 13. Messaging ConneX1 Operators Manual 31 Panic Alarm Messages To exit from the message, press

. To reply to a message, press 13.2.1 Sending a Messages and refer to 13.2.1 Sending a Messages on page 32 A message can be sent as a reply or as a new message to a LocaXion Manager operator. Refer to the following to send messages or reply to received messages. 1. If replying to a recieved message, press from the full message screen. If sending a new message, press and scroll to Send message. Select the pre-congured message and press 2. 3. When the message has been sent, the following screen displays. to send the message. For more information, refer to 6. Panic Alarm on page 20. 14. LocaXion Manager For more information, refer to the Network Settings section. 15. Fleet Manager II Go to www.gasmonitors.com for information about Fleet Manager II. 15.1 Downloading Data To Fleet Manager II The datalog and event log les can be downloaded to a PC using the IR Link or IntelliDoX. Refer to either the

Fleet Manager II Operators Manual

IntelliDoX Technical Reference Manual When downloading event logs and datalogs from the detector, the following screen displays. The detector returns to normal operation. 4. 13.3 Panic Alarm Messages When Panic Alarm is activated, a message is automatically sent to LocaXion Manager. For more information on what is recorded in a datalog, refer to Appendix F Datalog Information on page 68. 32 ConneX1 Operators Manual 15.2 Upgrading the Firmware The detector rmware can be upgraded using the IR Link or IntelliDoX. For more information, refer to the Fleet Manager II Operators Manual or IntelliDoX Technical Reference Manual. 15.3 )GPGTCVKPI%CNKDTCVKQP%GTVKECVGU A calibration certicate can be generated from any calibration done manually or with the IntelliDoX. A certicate is generated using Fleet Manager II. WARNING 4HISISNOTACERTIlEDCALIBRATIONCERTIlCATE)FACERTIlEDCALIBRATIONIS

required, contact BW Technologies by Honeywell. 16. Maintenance To maintain the detector in good operating condition, perform the following basic maintenance as required.

Calibrate, bump test, and inspect the detector at regular intervals

Maintain an operations log of all maintenance, bump tests, calibrations, and alarm event s

Upgrading the Firmware WARNING To avoid personal injury and/or property damage, adhere to the following:

s

s

s

s

s

s

Charge the battery immediately when the detector emits a low battery alarm. Charge the battery in a safe area that is free of hazardous gas in temperatures RANGINGFROM#TO#&TO& 

Charge the battery using BW Technologies by Honeywell charger adapters DESIGNEDFORTHE#ONNE8ONLY$ONOTUSEANYOTHERCHARGERADAPTERS&AILURE

TOADHERETOTHISCAUTIONCANLEADTOlREANDOREXPLOSION

4HECHARGINGADAPTERISVOLTAGESPECIlCTOYOURREGION5SEOFTHECHARGING

adapter outside your region will damage the charger and the detector. 4HE#ONNE8USESALITHIUMBATTERYTHATMAYPRESENTARISKOFlREORCHEMICAL

BURNHAZARDIFMISUSED$ONOTDISASSEMBLEHEATABOVE#& OR

incinerate.

,ITHIUMPOLYMERCELLSEXPOSEDTOHEATAT#& FORMINUTESCAN

CAUSElREANDOREXPLOSION

s e Dispose of used lithium cells immediately. Do not disassemble and do NOTDISPOSEOFINAlRE$ONOTMIXWITHTHESOLIDWASTESTREAM3PENTBATTERIES

MUSTBEDISPOSEDOFBYAQUALIlEDRECYCLERORHAZARDOUSMATERIALSHANDLER

Keep lithium cells away from children.

Clean the exterior with a soft damp cloth. Do not use solvents, soaps, or polishes. Refer to 1.3 Sensor Poisons and Contaminants on page 5. CAUTION 16.1 Charging the Rechargeable Battery ConneX1 Operators Manual s When charging, the detector will not detect gas. s 7HENCHARGINGTHEDETECTORWILLNOTCOMMUNICATEWITH,OCA8ION-ANAGER

33 Charging the Rechargeable Battery WARNING The battery must be charged in a safe area that is free of hazards and INTEMPERATURESOF#TO#&TO& 

If the battery is charged outside of the charging temperature SPECIlCATIONSACHARGINGERRORWILLRESULT

To charge the battery, refer to Figure 13 and the following procedures. Press and hold 1. NOTE to deactivate the detector. The time required to charge will increase if the detector is activated. 2. Plug the charger into an AC outlet. CAUTION 4HECHARGINGADAPTERISVOLTAGESPECIlCTOYOURREGION5SEOFTHE

charging adapter outside your region will damage both the charger and the detector. 16.1.1 Optimum Battery Operation To ensure maximum use of the battery, perform the following:

34

To obtain full operating capacity, allow the battery to fully charge and discharge.

To achieve the maximum number of charges, ensure the battery is charged between 5C and 40C (41F and 104F). Do not charge the battery in temperatures above 40C (104F) or below 5C (32F). If the battery is charged outside of the charging temperature specications, a charging error will result. 16.1.2 Rechargeable Battery Capacity A rechargeable batterys runtime decreases approximately 20% over a two-year period of typical use. To maximize the batterys capacity over its lifetime, charge the battery at 20C. ConneX1 Operators Manual 16.2 Replacing the Sensor and Sensor Filter WARNING To avoid personal injury and/or property damage, use only SENSORSTHATARESPECIlCALLYDESIGNEDFORTHEDETECTOR2EFERTO19. Replacement Parts and Accessories on page 53. CAUTION s

s

The sensor has a high degree of resistance to common vapours and gases. To clear a sensor, move the detector to a clean environment and wait 10 to 30 minutes. To prevent accidental poisoning of the sensor, refer to 1.3 Sensor Poisons and Contaminants. 1. 2. Press and hold Remove the four machine screws from the rear shell. to deactivate the detector. Replacing the Sensor and Sensor Filter 3. 4. Remove the rear shell. Simultaneously push on the PCB release tab while lifting the PCB up by the battery. ConneX1 Operators Manual 35 Replacing the Sensor and Sensor Filter 5. Gently remove the PCB by sliding out and then up. Place the PCB on a clean surface. To replace the sensor, refer to 16.2.1 Replacing the Sensor on page 36. To replace the sensor lter, refer to 16.2.2 Replacing the Sensor Filter on page 37. 16.2.1 Replacing the Sensor 1. Remove the spent sensor from the PCB. 36 ConneX1 Operators Manual Replacing the Sensor and Sensor Filter Replace the sensor lter as required. Environments with more airborne particulates may require more frequent lter changes. 1. 2. 3. Gently remove the PCB by sliding out and then up. Remove the sensor lter. Insert the new lter. Ensure the black side of the lter faces the sensor grill. The white back of the sensor lter should face the sensor. 2. 3. 4. 5. 6. 7. Insert the new sensor. Reassemble the detector. Ensure the antenna is inserted rst before the PCB. Press the PCB down until a click is heard. Replace the rear shell. Ensure the front and rear shells have a tight, uniform 1 mm (1/16 in.) seal on all sides of the detector. Replace the four machine screws using 3-4 in. lbs of torque. Do not overtighten the screws. New sensor should be calibrated prior to use. Calibrate the new sensor immediately. Refer to 10. Calibration on page 25. 16.2.2 Replacing the Sensor Filter ConneX1 Operators Manual 4. 5. Reassemble the detector. Ensure the antenna is inserted rst before the PCB. Press the PCB down until a click is heard. 37 Removal and Disposal of the Rechargeable Battery. 6. 7. Replace the rear shell. Ensure the front and rear shells have a tight, uniform 1 mm (1/16 in.) seal on all sides of the detector. Replace the four machine screws using 3-4 in. lbs of torque. Do not overtighten the screws. 17. WEEE Directive and Battery Directive Warning: At the end of their working lives, sensors must be disposed of in e an environmentally safe manner, in accordance with local waste management requirements and environmental legislation. Do NOT incinerate sensors as they may emit toxic fumes. Failure to comply with the following battery removal and disposal instructions may result in battery shorting, battery leakage, and/or other damage. Ensure a qualied technician completes the following procedure. Warning: This detector contains a lithium polymer battery. Dispose of used e lithium cells immediately. Do not disassemble. Do not dispose of in re. Do not mix with the solid waste stream. Spent batteries must be disposed of by a qualied recycler or hazardous materials handler. 17.1 Removal and Disposal of the Rechargeable Battery. 1. 2. Press and hold Remove the four machine screws from the rear shell. to deactivate the detector. 3. 4. Remove the rear shell. Simultaneously push on the PCB release tab while lifting the PCB up by the battery. 38 ConneX1 Operators Manual Removal and Disposal of the Rechargeable Battery. 5. 6. 7. 8. Gently remove the PCB by sliding out and then up. Lift the battery straight up by its sides. Disconnect the female connector of the battery. Dispose of the battery in accordance with the local laws. ConneX1Operators Manual Appendix 39 Removal and Disposal of the Rechargeable Battery. 18. Troubleshooting If a problem occurs, refer to the solutions provided in this section. Refer to Table 11. Detector Operation on page 42, Table 12. Charging Troubleshooting on page 44, and Table 13. Startup Error Screens on page 45. If the problem persists, contact BW Technologies by Honeywell. Table 9. Startup Troubleshooting Problem Possible Cause Solution 4HE
DETECTOR
DOES
NOT
ACTIVATE

$EPLETED
BATTERY 2ECHARGE
BATTERIES
2EFER
TO


#HARGING
THE
2ECHARGEABLE
"ATTERY
0ACK

ON
PAGE
33.

$ETECTOR
AUTOMATICALLY
DEACTIVATES

$AMAGED
DETECTOR

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL

!UTOMATIC
DEACTIVATION
DUE
TO
CRITICAL

LOW
BATTERY

2EPLACE
ALKALINE
BATTERIES
2EFER
TO

#HARGING
THE
2ECHARGEABLE
"ATTERY
0ACK. 3ENSOR
REQUIRES
CALIBRATION 2EFER
TO

#ALIBRATION
ON
PAGE
25 40 ConneX1 Operators Manual Removal and Disposal of the Rechargeable Battery. Table 9. Startup Troubleshooting Problem Possible Cause Solution 4HE
DETECTOR
ENTERS
ALARM
IMMEDIATELY

WHEN
ACTIVATED

4HE
ACTIVATION
STARTUP
SELF TEST
FAILS 3ENSOR
NEEDS
TO
STABILIZE

(AZARDOUS
ENVIRONMENT

,OW
BATTERY
OR
CRITICAL
LOW
BATTERY
ALARM 5SED
SENSOR
7AIT

SECONDS

.EW
SENSOR
7AIT

MINUTES

,EAVE
THE
AREA
IMMEDIATELY
$EACTIVATE

AND
REACTIVATE
THE
DETECTOR
IN
SAFE
AREA
IN

A
FRESH
AIR
ENVIRONMENT

#HARGE
THE
RECHARGEABLE
BATTERY
PACK

2EFER
TO

#HARGING
THE
2ECHARGEABLE

"ATTERY
0ACK
ON
PAGE
33

!
NEW
SENSOR
HAS
BEEN
INSERTED

#ALIBRATE
THE
SENSOR

'ENERAL
FAULT 3ENSOR
ERROR

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL ConneX1 Operators Manual 41 Removal and Disposal of the Rechargeable Battery. Table 10. Detector Operation Problem Possible Cause Solution

$ETECTOR
DOES
NOT
DISPLAY
NORMAL
GAS

READING
AFTER
STARTUP
SEQUENCE

$ETECTOR
DOES
NOT
RESPOND
TO
PUSHBUTTON

3ENSOR
NOT
STABILIZED 5SED
SENSOR
7AIT

SECONDS

.EW
SENSOR
7AIT

MINUTES 3ENSOR
REQUIRES
CALIBRATION 2EFER
TO

#ALIBRATION
ON
PAGE
25 4ARGET
GAS
IS
PRESENT

"ATTERY
IS
IN
CRITICAL
LOW
BATTERY
STATE
OR
IS

COMPLETELY
DEPLETED

$ETECTOR
IS
OPERATING
PROPERLY
5SE
CAUTION

IN
SUSPECT
AREAS

#HARGE
THE
RECHARGEABLE
BATTERY
PACK

2EFER
TO

#HARGING
THE
2ECHARGEABLE

"ATTERY
0ACK
ON
PAGE
33

$ETECTOR
IS
PERFORMING
OPERATIONS
THAT
DO

NOT
REQUIRE
USER
INPUT 0USHBUTTON
OPERATION
RESTORES

AUTOMATICALLY
WHEN
THE
OPERATION
ENDS 3ENSOR
REQUIRES
CALIBRATION 2EFER
TO

#ALIBRATION
ON
PAGE
25

$ETECTOR
DOES
NOT
ACCURATELY
MEASURE
GAS

$ETECTOR
IS
COLDERHOTTER
THAN
GAS

TEMPERATURE

!LLOW
THE
DETECTOR
TO
ATTAIN
AMBIENT

TEMPERATURE
BEFORE
USE 3ENSOR
LTER
IS
BLOCKED 2EFER
TO

2EPLACING
THE
3ENSOR

&ILTER
ON
PAGE
37 42 ConneX1 Operators Manual Removal and Disposal of the Rechargeable Battery. Table 10. Detector Operation Problem Possible Cause Solution

!LARM
SETPOINTS
ARE
SET
INCORRECTLY

$ETECTOR
DOES
NOT
ENTER
ALARM

!LARM
SETPOINTS
SET
TO
ZERO 2EFER
TO

!LARM
3ETPOINTS
ON
PAGE
24

4HE
ALARM
SETPOINTS
ARE
DENED
IN
&LEET

-ANAGER
)) 2EFER
TO

!LARM
3ETPOINTS
ON
PAGE
24

4HE
ALARM
SETPOINTS
ARE
DENED
IN
&LEET

-ANAGER
))

$ETECTOR
IS
IN
CALIBRATION
MODE

#OMPLETE
CALIBRATION

!MBIENT
GAS
LEVELS
ARE
NEAR
ALARM

SETPOINT
OR
THE
SENSOR
IS
EXPOSED
TO
A
PUFF

OF
HAZARDOUS
GAS

$ETECTOR
IS
OPERATING
NORMALLY
5SE

CAUTION
IN
SUSPECT
AREAS
#HECK
PEAK
GAS

EXPOSURE
READING

$ETECTOR
INTERMITTENTLY
ENTERS
ALARM

WITHOUT
REASON

!LARM
SETPOINTS
ARE
SET
INCORRECTLY 2EFER
TO

!LARM
3ETPOINTS
ON
PAGE
24

4HE
ALARM
SETPOINTS
ARE
DENED
IN
&LEET

-ANAGER
)) 3ENSOR
REQUIRES
CALIBRATION 2EFER
TO
#ALIBRATION
ON
PAGE
25

-ISSING
OR
FAULTY
SENSOR

&EATURES
AND
OPTIONS
ARE
NOT
OPERATING

AS
EXPECTED

#HANGES
IN
&LEET
-ANAGER
)) 2EFER
TO
2EPLACING
THE
3ENSOR
AND
3ENSOR

&ILTER
ON
PAGE
35 6ERIFY
THAT
THE
SETTINGS
IN
&LEET
-ANAGER

))
ARE
CORRECT ConneX1 Operators Manual 43 Removal and Disposal of the Rechargeable Battery. Table 11. Charging Troubleshooting Problem Possible Cause Solution

"ATTERY
HAS
BEEN
CHARGING
FOR
6
HOURS

#HARGING
INDICATOR
ON
,#$
SHOWS
THE

BATTERY
IS
STILL
CHARGING

"ATTERY
IS
TRICKLE
CHARGING

"ATTERY
INDICATOR
DOES
NOT
DISPLAY
WHEN

CHARGING

"ATTERY
IS
DEPLETED
BELOW
NORMAL
LEVELS

"ATTERY
IS
FULLY
CHARGED
AND
IS
READY
FOR

OPERATION

#HARGE
THE
BATTERY
FOR

HOURS
)F
THE
BATTERY

INDICATOR
DOES
NOT
LIGHT
AFTER
CHARGING

CONTACT
(ONEYWELL
!NALYTICS

"ATTERY
DOES
NOT
CHARGE 44 ConneX1 Operators Manual Error Screen Problem Solution Table 12. Startup Error Screens Removal and Disposal of the Rechargeable Battery. Critical Low Battery

"ATTERY
IS
IN
CRITICAL
LOW
BATTERY
STATE
OR
IS
COMPLETELY
DEPLETED

#HARGE
THE
RECHARGEABLE
BATTERY
PACK
2EFER
TO
#HARGING
THE

2ECHARGEABLE
"ATTERY
0ACK
ON
PAGE
33 Self-test Failed 3ENSOR
FAILED
THE
SELF TEST
DURING
STARTUP

2EPLACE
THE
SENSOR
2EFER
TO

2EPLACING
THE
3ENSOR
ON

PAGE
36.

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL Auto-zero Error 3ENSOR
FAILED
TO
AUTO ZERO

#ALIBRATE
THE
SENSOR

ConneX1 Operators Manual 45 Removal and Disposal of the Rechargeable Battery. Error Screen Problem Solution Table 12. Startup Error Screens Force Calibration

)F
THE
Force Calibration
OPTION
IS
ENABLED
THE
SENSOR
MUST
BE

CALIBRATED
TO
ENTER
NORMAL
OPERATION

0RESS

AND
CALIBRATE
THE
SENSOR
IMMEDIATELY
2EFER
TO

#ALIBRATION

ON
PAGE
25
)F
THE
Calibration Lock
OPTION
IS
ENABLED
AN
)2
DEVICE

)2
,INK
OR
)NTELLI$O8
MUST
BE
USED
TO
CALIBRATE

Last Calibration Failed

$ISPLAYS
WHEN
THE
LAST
CALIBRATION
FAILED
)F
THE
Force Calibration

OPTION
IS
ENABLED
THE
SENSOR
MUST
BE
CALIBRATED

0RESS

AND
CALIBRATE
THE
SENSOR
IMMEDIATELY
2EFER
TO

#ALIBRATION

ON
PAGE
25
)F
THE
Calibration Lock
OPTION
IS
ENABLED
AN
)2
DEVICE

)2
,INK
OR
)NTELLI$O8
MUST
BE
USED
TO
CALIBRATE

Calibration Overdue

$ISPLAYS
WHEN
CALIBRATION
IS
OVERDUE
)F
THE
Force Calibration

OPTION
IS
ENABLED
THE
SENSOR
MUST
BE
CALIBRATED
TO
ENTER
NORMAL

OPERATION

AND
CALIBRATE
THE
SENSOR
IMMEDIATELY
2EFER
TO

#ALIBRATION

0RESS

ON
PAGE
25
)F
THE
Calibration Lock
OPTION
IS
ENABLED
AN
)2
DEVICE

)2
,INK
OR
)NTELLI$O8
MUST
BE
USED
TO
CALIBRATE

46 ConneX1 Operators Manual Error Screen Problem Solution Table 12. Startup Error Screens Removal and Disposal of the Rechargeable Battery. Calibration Due Today

$ISPLAYS
WHEN
CALIBRATION
IS
DUE
TODAY
)F
THE
Force Calibration

OPTION
IS
ENABLED
THE
SENSOR
MUST
BE
CALIBRATED
TO
ENTER
NORMAL

OPERATION

0RESS

AND
CALIBRATE
THE
SENSOR
IMMEDIATELY
2EFER
TO

#ALIBRATION

ON
PAGE
25
)F
THE
Calibration Lock
OPTION
IS
ENABLED
AN
)2
DEVICE

)2
,INK
OR
)NTELLI$O8
MUST
BE
USED
TO
CALIBRATE

Last Bump Test Failed

)F
THE
LAST
BUMP
TEST
FAILED
AND
THE
&ORCE
"UMP
OPTION
IS
ENABLED

A
BUMP
TEST
MUST
BE
PERFORMED

AND
AND
PERFORM
A
BUMP
TEST
IMMEDIATELY
2EFER
TO


0RESS

"UMP
4EST
ON
PAGE
29

Force Bump Test

)F
THE
Force Bump
OPTION
IS
ENABLED
A
BUMP
TEST
MUST
BE

PERFORMED
TO
ENTER
NORMAL
OPERATION

AND
AND
PERFORM
A
BUMP
TEST
IMMEDIATELY
OR
PLACE
THE

0RESS

DETECTOR
INTO
THE
)NTELLI$O8
2EFER
TO

"UMP
4EST
ON
PAGE
29

ConneX1 Operators Manual 47 Removal and Disposal of the Rechargeable Battery. Error Screen Problem Solution Table 12. Startup Error Screens Bump Test Overdue 3CREEN
DISPLAYS
WHEN
THE
SENSOR
IS
OVER
DUE
FOR
A
BUMP
TEST
)F
THE

Force Bump OPTION
IS
ENABLED
A
BUMP
TEST
MUST
BE
PERFORMED
TO

ENTER
NORMAL
OPERATION

AND
PERFORM
A
BUMP
TEST
IMMEDIATELY
2EFER
TO

"UMP

0RESS

4EST
ON
PAGE
29

/R 0RESS

AND
PROCEED
TO
THE
NEXT
STEP
IN
THE
START UP
SEQUENCE

Bump Test Due Today 3CREEN
DISPLAYS
WHEN
THE
SENSOR
IS
DUE
FOR
A
BUMP
TEST
TODAY

)F
THE
Force Bump
OPTION
IS
ENABLED
A
BUMP
TEST
MUST
BE

PERFORMED
TO
ENTER
NORMAL
OPERATION

AND
PERFORM
A
BUMP
TEST
IMMEDIATELY
2EFER
TO

"UMP

0RESS

4EST
ON
PAGE
29

/R 0RESS

AND
PROCEED
TO
THE
NEXT
STEP
IN
THE
START UP
SEQUENCE

48 ConneX1 Operators Manual Error Screen Problem Solution Table 13. Calibration Error Screens Removal and Disposal of the Rechargeable Battery. Zeroing Error 3ENSOR
FAILED
TO
ZERO

:ERO
THE
SENSOR
IN
FRESH
AIR. Force Calibration

)F
THE
Force Calibration
OPTION
IS
ENABLED
THE
SENSOR
MUST
BE

CALIBRATED
TO
ENTER
NORMAL
OPERATION

0RESS

AND
CALIBRATE
THE
SENSOR
IMMEDIATELY
2EFER
TO

#ALIBRATION

ON
PAGE
25
)F
THE
Calibration Lock
OPTION
IS
ENABLED
AN
)2
DEVICE

)2
,INK
OR
)NTELLI$O8
MUST
BE
USED
TO
CALIBRATE

Calibration Lock

)2
,OCK
ENABLED
SCREEN
DISPLAYS

!N
)2
$EVICE
MUST
BE
USED
TO
PERFORM
A
CALIBRATION
)2
,INK
OR

)NTELLI$O8 
&OR
MANUAL
CALIBRATION
REFER
TO

#ALIBRATION
5SING

THE
)NTELLI$O8
AND
)2
,INK
ON
PAGE
25
&OR
AUTOMATED
CALIBRATION
REFER

TO
THE
)NTELLI$O8
4ECHNICAL
2EFERENCE
'UIDE

ConneX1 Operators Manual 49 Removal and Disposal of the Rechargeable Battery. Error Screen Problem Solution Table 13. Calibration Error Screens Calibration Error

!N
ERROR
OCCURED
DURING
CALIBRATION

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL Calibration Gas Not Detected

)NSUFCIENT
AMOUNT
OF
GAS
DETECTED

Calibration Error

!N
ERROR
OCCURED
DURING
CALIBRATION 6ERIFY
THE
SPAN
GAS
VALUES
ON
THE
GAS
CYLINDER
MATCH
THE
SPAN
GAS

VALUES
DENED
FOR
THE
DETECTOR

%NSURE
GAS
IS
APPLIED
AT
A
OW
RATE
OF
 
,MIN

%NSURE
THE
GAS
CYLINDER
IS
NOT
EMPY
NOR
EXPIRED
2EPLACE
IMMEDIATELY

IF
REQUIRED

2EPLACE
THE
REGULATOR

2ETRY
CALIBRATION

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL 50 ConneX1 Operators Manual Error Screen Problem Solution Table 14. Bump Test Error Screens Removal and Disposal of the Rechargeable Battery. Bump Test Gas Not Detected

)NSUFCIENT
AMOUNT
OF
GAS
DETECTED

6ERIFY
THAT
THE
"UMP
4HRESHOLD
AND
"UMP
4EST
GAS
CONCENTRATION

IN
&LEET
-ANAGER
))
IS
CORRECT Bump Test Error

!N
ERROR
OCCURED
DURING
BUMP
TESTN 2ETRY
CALIBRATION

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL ConneX1 Operators Manual 51 Removal and Disposal of the Rechargeable Battery. Error Screen Problem Solution Table 15. Other Error Screens Charging Error 4HE
AMBIENT
TEMPERATURE
IS
OUTSIDE
THE
RECOMMENDED
CHARGING

TEMPERATURE

#HARGE
THE
DETECTOR
IN
AN
ENVIRONMENT
BETWEEN
#
TO
#
&

TO
& 
4HE
DETECTOR
WILL
NOT
CHARGE
OUTSIDE
THESE
TEMPERATURES

4HE
RECOMMENDED
CHARGING
TEMPERATURE
IS
#
& 

Firmware Update Error 6ERIFY
THAT
THE
UPDATE
LE
IS
VALID

#ONTACT
"7
4ECHNOLOGIES
BY
(ONEYWELL

52 ConneX1 Operators Manual 19. Replacement Parts and Accessories Part Number Description Qty Sensors 32 8 # #8

32 (/ 3# #8

03 23 #8

03 2- #8

Sensor Filters

#/..%8 33 +

/XYGEN
/2
SENSOR

(YDROGEN
SULDE
(23
SENSOR 3ULFUR
DIOXIDE
3/2
SENSOR

#ARBON
MONOXIDE
#/
SENSOR 3ENSOR
LTERS
KIT
OF


Gas Cylinders and Kits

#/..%8 #!, #!0 

#ALIBRATION
CAP Chargers and Power Options

#ONNE8
MULTI UNIT
POWER
ADAPTER

#/..%8 #2!$,% +

#ONNE8
MULTI UNIT
CRADLE
CHARGER
WITH
POWER
SUPPLY

#/..%8 #2!$,% 

#ONNE8
MULTI UNIT
CRADLE
CHARGER
CRADLE
ONLY ConneX1 Operators Manual 1 1 1 1 1 1 1 1 Removal and Disposal of the Rechargeable Battery. Part Number IR Devices Description Qty

'! 53" )2

#ONNE8
)2
CONNECTIVITY
KIT IntelliDoX Accessories

)NTELLI$O8
#ONNE8
MODULE
WITH
CHARGING
CABLE

(OLSTER 0ROTECTIVE
BOOT 1 1 1 1 1 53 Removal and Disposal of the Rechargeable Battery. 20. 5RGEKECVKQPU Detector dimensions: 4.5 in. H x 2.5 in. W x 1.5 in. D Weight: <150 g Operating temperatures and lithium battery operating times:

Parameter Normal Operating Range Temperature Range

-20C to +55C

-4F to +122F Time 1 hour Rechargeable battery: -20C to +55C (-4F to 122F) Storage temperature: -20C to +80C (-4F to +176F) Operating humidity: 20% to 90% relative humidity continuous, 0% to 95% relative humidity intermittent Dust and moisture ingress: IP 20 Detection range:

Carbon monoxide: 0 to 500 ppm Hydrogen sulde: 0 to 250 ppm Oxygen: 0 to 25.0% vol. Sulfur dioxide: 0.0 to 50.0 ppm Sensor type: oxygen and electrochemical O2 measuring principle: capillary-controlled concentration sensor Alarm conditions: Gas alarm, fault alarm, warning alarm, critical system fault alarm Audible alarm: >95 dB at 30 cm Visual alarm: Red LEDs in 3 locations

%QPFGPEGEQORNKCPEGDGGR One short beep at a user-congurable interval of 1 to 120 seconds Display: LCD with scratch-resistant

$CEMNKIJVAutomatic in alarm conditions and upon keypress Self-test: initiated at activation and tested continuously Calibration: Manual and automated via a docking station Nominal voltage: 4.2 volts Warranty: 2 years (monitor), 1 or 2 years (sensors, depending on type) Approvals: C22.2 No. 152, x12.13 Intrinsically safe:

Class: I Gas Groups: A, B, C, and D Division: 1 Temperature Code: T4 AEX ia IIC T4 Approved by CSA to both U.S. and Canadian Standards Standards: CAN/CSA C22.2 No. 157 and C22.2 152 ANSI/UL 913 and ANSI/ISA S12.13 Part 1 CSA Class I, Division 1, Group A, B, C, and D Class 1, Zone 1, Group IIC ATEX: (EX symbol) II 1 G Ex ia IIC T4 CE0539 SIRA 12 ATEX ????X EN60079-0, EN 60079-1, EN 60079-11 IECEx: Ex ia IIC IECEx CSA 12.????X IEC 60079-0, IEC 60079-1, IEC 60079-11 Open Source Code: BW Technologies by Honeywell is subject to the terms and conditions of the Gnu General Public License, Version 3 (29 June 2007), available at http://gasmonitors.com/software/opensource. 54 ConneX1 Operators Manual FCC Statement: This device complies with Part 15 of the FCC Rules. Operation is subject to the following two conditions:

1. 2. This device may not cause harmful interference, and This device must accept any interference received, including interference that may cause undesired operation. FCC Caution: Any changes or modications not expressly approved by the party responsible for compliance could void the users authority to operate this equipment. IC - DFS Statements:

i. ii. iii. The device for operation in the band 2400-2483.5 MHz is only for indoor use to reduce the potential for harmful interference to co-

channel mobile satellite systems;

The maximum antenna gain permitted for devices in the bands 2400-

2483.5 MHz shall comply with the e.i.r.p. limit; and the maximum antenna gain permitted for devices in the band 2400-

2483.5 MHz shall comply with the e.i.r.p. limits specied for point-to-

point and non point-to-point operation as appropriate. Operation is subject to the following two conditions:

this device may not cause interference, and this device must accept any interference, including interference that may cause undesired operation of the device. 1. 2. Under Industry Canada regulations, this radio transmitter may only operate using an antenna of a type and maximum (or lesser) gain approved for the transmitter by Industry Canada. To reduce potential radio interference to other users, the antenna type and its gain should be so chosen that the equivalent isotropically radiated power (e.i.r.p.) is not more than that necessary for successful communication. This device complies with Industry Canada licence-exempt RSS standard(s). Operation is subject to the following two conditions: (1) this device may not cause ConneX1 Operators Manual Removal and Disposal of the Rechargeable Battery. interference, and (2) this device must accept any interference, including interference that may cause undesired operation of the device. This radio transmitter has been approved to operate only with the built-in antenna. Replacement antennas are not available. The 802.11 transmitter has a xed conguration assigned by the factory. 802.11 operational parameters can be adjusted through the FleetManager-II software. Conformment la rglementation dIndustrie Canada, le prsent metteur radio peut fonctionner avec une antenne dun type et dun gain maximal (ou infrieur) approuv pour lmetteur par Industrie Canada. Dans le but de rduire les risques de brouillage radiolectrique lintention des autres utilisateurs, il faut choisir le type dantenne et son gain de sorte que la puissance isotrope rayonne quivalente (p.i.r.e.) ne dpasse pas lintensit ncessaire ltablissement dune communication satisfaisante. Le prsent dispositif est conforme aux normes du CNR sur les appareils radio exempts de licence dIndustrie Canada. Son opration est soumise aux conditions suivantes : (1) Le dispositif ne doit pas causer de brouillage radiolectrique et (2) le dispositif doit accepter tout brouillage, y compris du brouillage qui peut causer un mauvais fonctionnement de lappareil. Le prsent metteur radio a t approuv pour fonctionner uniquement avec lantenne intgre. Aucunes antennes de remplacement sont disponibles. Lmetteur dispose dune conguration xe attribue par lusine. Les paramtres oprationnels 802.11 peuvent tre ajusts via le logiciel FleetManager-II. 55 Removal and Disposal of the Rechargeable Battery. Appendix A Regional Setpoints A.1 North America Sensor Measuring range Resolution STEL TWA Low Alarm

#ARBON
MONOXIDE

(YDROGEN
SULDE

(YDROGEN
SULDE
LOW
RANGE

/XYGEN 3ULFUR
DIOXIDE 3ULFUR
DIOXIDE
LOW
RANGE


TO

PPM 
PPM


TO

PPM


PPM


PPM


TO

PPM


TO

VOL


TO

PPM


TO

PPM


VOL


PPM


PPM


PPM


PPM


PPM NA


PPM


PPM High Alarm


PPM


PPM


PPM


PPM


PPM


PPM NA


PPM


PPM


PPM


VOL


VOL


PPM


PPM


PPM


PPM


PPM


PPM 56 ConneX1 Operating Operators Manual Appendix Appendix B %QPIWTCVKQP/GPW5VTWEVWTG Removal and Disposal of the Rechargeable Battery. Calibration Calibration Zero Sensor Network WiFi Bump test Configuration Operator Location User profile Operation mode Network Send Messages Normal Stealth Safe ConneX1 Operators Manual Appendix 57 Removal and Disposal of the Rechargeable Battery. Appendix C Review Mode Menu Structure or Gas Exposures Sensor Details Detector Details Peak reading Measuring range Operation Details TWA STEL Low alarm setpoint High alarm setpoint Reset readings TWA setpoint Messages Received Sent STEL setpoint Profile/Operation mode Next cal date Owner/WiFi status Next bump test date Device details Messages Received Sent MAC address Distributor details Date format Time format 58 ConneX1 Operating Operators Manual Appendix Removal and Disposal of the Rechargeable Battery. Appendix D Datalog Information The following information is recorded in a datalog Instrument status and sensor status ags

Date and time

TWA readings

STEL readings

Sensor readings

Type of sensor installed

Date of last successful calibration

Date of last successful bump test

Low alarm setpoint

High alarm setpoint

TWA alarm setpoint

TWA interval

STEL alarm setpoint

STEL interval

Calibration interval

Bump test interval

User congurations

Operator Name

Location Name

Selected Prole

Peripheral sensor readings

Environmental data ConneX1 Operators Manual Appendix 59 Removal and Disposal of the Rechargeable Battery. Appendix E Event Log Information The following events create an event log. Up to 60 event logs are stored. When event log memory is full, the newer event logs overwrites the oldest event logs.

Activation

Deactivation

Auto-power off (e.g. critical low battery alarm)

Conguration change

Battery status (e.g. low battery alarm)

Calibration due ignored

Bump test due ignored

Low alarm acknowledge

Date/Time change

LocaXion Manager message received

Replies to LocaXion Manager messages

Location change

Operator change 60 ConneX1 Operating Operators Manual Appendix D6657/0 50104992-032 BW Technologies by Honeywell 2012. All Rights reserved.

 

 

InternalPhotos ProductionModelofConneX1withRadiomodulepotted PreproductionmodelofConneX1withRadiomoduleuncovered

 

 

 

 

 

 

LABEL ARTWORK as printed @ 150%

NA - H2S LABEL ARTWORK as printed @ 150%

NA - CO Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia IIC T4 Haz locs.

-20C Ta +55C 4.2 Vdc Battery powered WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. Model:

NA Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia IIC T4 Haz locs.

-20C Ta +55C 4.2 Vdc Battery powered WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. Model:

NA M1 LABEL ARTWORK as printed @ 150%

NA - SO2 LABEL ARTWORK as printed @ 150%

NA - O2 Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia IIC T4 Haz locs.

-20C Ta +55C 4.2 Vdc Battery powered WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. Model:

S1 NA Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia IIC T4 Haz locs.

-20C Ta +55C 4.2 Vdc Battery powered WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. Model:

X1 NA 02A 04-23-12 50104703-001 01A 04-23-12 50104703-001 A 04-16-12 50104703-001 Rev Date:

Approved:

24-Feb-2012 PS Part #

Date:

Removed IEC labels. Updated artwork Changed M: for Model:

Individual labels per gas type, per region ECO # Description BW Technologies by Honeywell Calgary, Alberta NA / IEC labels. SN / MN location File: CONX1D-64_certification_labels.ai Dwg #:CONX1D-64 Scale: As Noted. Sheet: 1 of 1 321 Drawn by: AG 7654 Layer by Honeywell

 

 

LABEL ARTWORK @ 100%

ConneX1 label location Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 D E M O C22.2 No. 152, x12.13 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia II T4 Haz locs. 0 4 2 4

.

-20C Ta +50C 4.2 Vdc WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. 23.94 23.91 AS PRINTED @ 100%

LABEL ARTWORK @ 150%

Understand manual before operating Canada T2A 7X9 FCC ID: R90-CONNEX1 IC: 5164A-CONNEX1 C22.2 No. 152, x12.13 Intrinsically safe CI. I Div. I Gr. A,B,C,D T4 AEx ia II T4 Haz locs.

-20C Ta +50C 4.2 Vdc WARNING: Battery must be charged in a non-hazardous area and may only be replaced by the manufacturer. Noncompliance might cause explosion danger. ConneX1 Model # Legend CONNEX1-H Sensor (see Table A) Product Date Code & Serial # Legend 5345CNX01112201000 Plant code Product ID Revision #

Serial number Week of manufacture Year of manufacture Notes:

1. 2. 3. 3M 7872, 2.0 mil Thermal Transfer Polyester Label material Black thermal print on matte platinum background. 3M 350, 1.8 mil acrylic Sony TR5070 Blank:

Colour:

Adhesive:

Ribbon:

ERP# 50104701-001 Barcodes to be printed Data Matrix All dimensions in mm. 08A 02-24-12 50104703-001 07A 02-07-12 50104703-001 06A 02-02-12 50104703-001 05A 26-10-12 50104703-001 04A 16-10-12 50104703-001 Rev Date:

Approved:

24-Feb-2012 PS Part #

Date:

FCC and IC numbers updated as per Paul S. Part num. revised. Type point size and leading increased Update Ex to AEx, temperature changed to 50C Resized CE, FCC and C-tick. Add A-tick and Gost-R Split into NA, EU and IEC labels ECO # Description BW Technologies by Honeywell Calgary, Alberta Connex1 Americas Certification Label File: CONX1A-01_certification_America.ai Dwg #:CONX1A-01 Drawn by: AG Scale: As Noted. Sheet: 1 of 1 321 7654 Layer by Honeywell

 

 

Agent Authorization letter for radio certification FCC ID: R9O-CONNEX1; IC: 5461-CONNEX1 To whom so ever it may concern, Please be advised that BW Technologies, authorizes Suresh Kondapalli of TUV Rheinland of North America 1279 Quarry Lane, Suite A, Pleasanton California 94566 USA to act as agent on our behalf on all matters relating to applications for equipment authorizations before the Federal Communication Commission, including signing of documents related to these matters.

 

 

Exposure to RF Energy THIS MODEL DEVICE MEETS U.S. AND INTERNATIONAL REQUIREMENTS FOR EXPOSURE TO RADIO FREQUENCY RADIATION. The CONNEX1 is a radio transmitter and receiver. It is designed and manufactured not to exceed the emission limits for exposure to radio frequency (RF) energy set by the Federal Communications Commission of the U.S. Government and by the International Commission on Non-Ionizing Radiation Protection (ICNIRP). The device also meets the European Radio and Telecommunications Terminal Equipment (R&TTE) directive, for protecting the health and safety of the user and other persons. These limits are part of comprehensive guidelines that establish permitted levels of RF energy for the general population. The guidelines are based on standards that were developed by independent scientific organizations through periodic and thorough evaluation of scientific studies. The standards include a substantial safety margin designed to assure the safety of all persons, regardless of age and health. Before a device model is available for sale to the public, it must be tested and certified to operate within the limits for safe exposure established by the FCC and international organizations. The tests are performed in positions and locations (e.g., next to the body) as required by the FCC for each model. The FCC has granted an Equipment Authorization for this model device with all reported SAR levels (see below) evaluated as in compliance with the FCC RF emission guidelines. This device meets RF exposure guidelines when the antennas are positioned at a minimum distance from the body. In order to transmit data or messages, this device requires a quality connection to the network. In some cases, transmission of data or messages may be delayed until such a connection becomes available. Be sure that the recommended distance is observed until the transmission is complete. The exposure standard for wireless devices employs a unit of measurement known as the Specific Absorption Rate, or SAR. Tests for SAR are conducted using standard operating positions specified by the FCC with the device transmitting at its highest certified power level in all tested frequency bands. The SAR limit set by the FCC is 1.6 W/kg. The international guidelines state that the SAR limit for mobile devices used by the public is 2.0 W/kg averaged over 10 grams of body tissue. SAR values may vary depending on national reporting requirements and the network band. Although the SAR is determined at the highest certified power level, the actual SAR level of the device while operating can be well below the maximum value because the device operates at multiple power levels and uses only the power required to reach the network. SAR information on this model device is on file with the FCC and can be found under the Display Grant section a n d http://www.fcc.gov/oet/fccid after searching on FCC ID: R9O-CONNEX1 and IC: 5164A-CONNEX1 ____________________________________________________________________________________ ConneX1 Operators Manual

 

 

Subject: Confidentiality request FCC ID: R9O-CONNEX1 IC: 5164A-CONNEX1 Type of Confidentiality Requested Short Term Short Term Short Term Short Term Short Term Short Term Permanent Permanent Permanent Permanent Permanent Permanent Exhibit Block Diagrams Internal Photos Operation Description/Theory of Operation Tune-Up Procedure Schematics Users Manual

 

 

FCC ID: R9O-CONNEX1; IC: 5461-CONNEX1

 

 

http://www.rfexposurelab.com SAR EVALUATION TEL (760) 471-2100 FAX (760) 471-2121 Dates of Test:

Test Report Number:

March 22, 2012 SAR.20120303 CERTIFICATE OF COMPLIANCE 802 N. Twin Oaks Valley Road, Suite 105 San Marcos, CA 92069 U.S.A. FCC ID:

IC Certificate:

Model(s):

Test Sample:

MAC Address:

Equipment Type:

Classification:

TX Frequency Range:

Frequency Tolerance:

Maximum RF Output:

Signal Modulation:

Antenna Type:

Application Type:

FCC Rule Parts:

KDB Test Methodology:

Industry Canada:

Maximum SAR Value:

Separation Distance:

BW Technologies 2840 2nd Avenue SE Calgary, Alberta, Canada T2A 7X9 This wireless mobile and/or portable device has been shown to be compliant for localized specific absorption rate (SAR) for uncontrolled environment/general exposure limits specified in ANSI/IEEE Std. C95.1-1992 and had been tested in accordance with the measurement procedures specified in IEEE 1528-2003, and OET Bulletin 65 Supp. C (See test report). I attest to the accuracy of the data. All measurements were performed by myself or were made under my supervision and are correct to the best of my knowledge and belief. I assume full responsibility for the completeness of these measurements and vouch for the qualifications of all persons taking them. RF Exposure Lab, LLC certifies that no party to this application is subject to a denial of Federal benefits that includes FCC benefits pursuant to Section 5301 of the Anti-Drug Abuse Act of 1988, 21 U.S.C. 853(a). R90-CONNEX1 5164A-CONNEX1 ConneX1 Engineering Unit Same as Production 5345CNX01114300181 Wireless Gas Detector Portable Transmitter Next to Body 2412 2462 MHz 2.5 ppm 2450 MHz (b) 18.31 dB Peak Conducted DSSS, OFDM Internal Certification Part 2, 15C KDB 447498, KDB 248227 RSS-102, Safety Code 6 0.840 W/kg 0 mm Jay M. Moulton Vice President Certificate # 2387.01 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. FCC ID: R90-CONNEX1 Table of Contents 1. Introduction ........................................................................................................................... 3 SAR Definition [5] ...................................................................................................................... 3 2. SAR Measurement Setup ..................................................................................................... 4 Robotic System ......................................................................................................................... 4 System Hardware ..................................................................................................................... 4 System Description ................................................................................................................... 4 E-Field Probe ............................................................................................................................ 5 3. Robot Specifications ............................................................................................................. 7 4. Probe and Dipole Calibration ................................................................................................ 8 5. Phantom & Simulating Tissue Specifications ........................................................................ 9 SAM Phantom ........................................................................................................................... 9 Head & Body Simulating Mixture Characterization ................................................................... 9 Device Holder ........................................................................................................................... 9 6. ANSI/IEEE C95.1 1992 RF Exposure Limits [2] ............................................................... 10 Uncontrolled Environment ....................................................................................................... 10 Controlled Environment .......................................................................................................... 10 7. Measurement Uncertainty ................................................................................................... 11 8. System Validation ............................................................................................................... 12 Tissue Verification ................................................................................................................... 12 Test System Verification ......................................................................................................... 12 9. SAR Test Data Summary .................................................................................................... 13 Procedures Used To Establish Test Signal ............................................................................. 13 Device Test Condition ............................................................................................................. 13 SAR Data Summary 2450 MHz Body 802.11b .................................................................... 14 Test Equipment List ........................................................................................................ 15 11. Conclusion ...................................................................................................................... 16 12. 13. References ...................................................................................................................... 17 Appendix A System Validation Plots and Data ........................................................................ 18 Appendix B SAR Test Data Plots ............................................................................................. 22 Appendix C SAR Test Setup Photos ....................................................................................... 30 Appendix D Probe Calibration Data Sheets ............................................................................. 33 Appendix E Dipole Calibration Data Sheets ............................................................................ 44 Appendix F Phantom Calibration Data Sheets ........................................................................ 55 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 2 of 56 FCC ID: R90-CONNEX1 Introduction 1. This measurement report shows compliance of the BW Technologies Model ConnecX1 FCC ID: R90-CONNEX1 with FCC Part 2, 1093, ET Docket 93-62 Rules for mobile and portable devices and IC Certificate: 5164A-CONNEX1 with RSS102 & Safety Code 6. The FCC have adopted the guidelines for evaluating the environmental effects of radio frequency radiation in ET Docket 93-62 on August 6, 1996 to protect the public and workers from the potential hazards of RF emissions due to FCC regulated portable devices. [1], [6]

The test results recorded herein are based on a single type test of BW Technologies model ConnecX1 and therefore apply only to the tested sample. The test procedures, as described in ANSI C95.1 1999 Standard for Safety Levels with Respect to Human Exposure to Radio Frequency Electromagnetic Fields, 3 kHz to 300 GHz [2], ANSI C95.3 2002 Recommended Practice for the Measurement of Potentially Hazardous Electromagnetic Fields [3], FCC OET Bulletin 65 Supp. C 2001 [4], IEEE Std.1528 2003 Recommended Practice [5], and Industry Canada Safety Code 6 Limits of Human Exposure to Radiofrequency Electromagnetic Fields in the Frequency Range from 3kHz to 300 GHz were employed. SAR Definition [5]

Specific Absorption Rate is defined as the time derivative (rate) of the incremental energy (dW) absorbed by (dissipated in) an incremental mass (dm) contained in a volume element (dV) of a given density (). d dt dW dV dW dm

=

SAR d dt

=

SAR is expressed in units of watts per kilogram (W/kg). SAR can be related to the electric field at a point by SAR =

2|

| E where:

= conductivity of the tissue (S/m)

= mass density of the tissue (kg/m3) E = rms electric field strength (V/m) 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 3 of 56 FCC ID: R90-CONNEX1 2. SAR Measurement Setup Robotic System The measurements are conducted utilizing the ALSAS-10-U automated dosimetric assessment system. The ALSAS-10-U is designed and manufactured by Aprel Laboratories in Nepean, Ontario, Canada. The system utilizes a Robcomm 3 robot manufactured by ThermoCRS located in Michigan USA. System Hardware The system consists of a six axis articulated arm, controller for precise probe positioning

(0.05 mm repeatability), a power supply, a teach pendent for teaching area scans, near field probe, an IBM Pentium 4 2.66 GHz PC with Windows XP Pro, and custom software developed to enable communications between the robot controller software and the host operating system. An amplifier is located on the articulated arm, which is isolated from the custom designed end effector and robot arm. The end effector provides the mechanical touch detection functionality and probe connection interface. The amplifier is functionally validated within the manufacturers site and calibrated at NCL Calibration Laboratories. A Data Acquisition Card (DAC) is used to collect the signal as detected by the isotropic e-field probe. The DAC manufacturer calibrates the DAC to NIST standards. A formal validation is executed using all mechanical and electronic components to prove conformity of the measurement platform as a whole. System Description The ALSAS-10-U has been designed to measure devices within the compliance environment to meet all recognized standards. The system also conforms to standards, which are currently being developed by the scientific and manufacturing community. The course scan resolution is defined by the operator and reflects the requirements of the standard to which the device is being tested. Precise measurements are made within the predefined course scan area and the values are logged. The user predefines the sample rate for which the measurements are made so as to ensure that the full duty-cycle of a pulse modulation device is covered during the sample. The following algorithm is an example of the function used by the system for linearization of the output for the probe. UUV

+

=

i i i 2 cf dcp i 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 4 of 56 FCC ID: R90-CONNEX1 the diode to establish is evaluated The Aprel E-Field probe compression point. A complex algorithm is then used to calculate the values within the measured points down to a resolution of 1mm. The data from this process is then used to provide the co-ordinates from which the cube scan is created for the determination of the 1 g and 10 g averages. Cube scan averaging consists of a number of complex algorithms, which are used to calculate the one, and ten gram averages. The basis for the cube scan process is centered on the location where the maximum measured SAR value was found. When a secondary peak value is found which is within 60% of the initial peak value, the system will report this back to the operator who can then assess the need for further analysis of both the peak values prior to the one and ten-gram cube scan averaging process. The algorithm consists of 3D cubic Spline, and Lagrange extrapolation to the surface, which form the matrix for calculating the measurement output for the one and ten gram average values. The resolution for the physical scan integral is user defined with a final calculated resolution down to 1mm. In-depth analysis for the differential of the physical scanning resolution for the cube scan analysis has been carried out, to identify the optimum setting for the probe positioning steps, and this has been determined at 8mm increments on the X, & Y planes. The reduction of the physical step increment increased the time taken for analysis but did not provide a better uncertainty or return on measured values. The final output from the system provides data for the area scan measurements, physical and splined (1mm resolution) cube scan with physical and calculated values

(1mm resolution). The overall uncertainty for the methodology and algorithms the ALSAS-10-U used during the SAR calculation was evaluated using the data from IEEE 1528 f3 algorithm:

(

f 3 Azy,x,

=

) 2 a y

++

x 2 2z a e

+

2 a

+

2 2z

) 2

(

a2 a 2 4 The probe used during the measurement process has been assessed to provide values for diode compression. These values are calculated during the probe calibration exercise and are used in the mathematical calculations for the assessment of SAR. E-Field Probe The E-field probe used by RF Exposure Lab, LLC, has been fully calibrated and assessed for isotropic, and boundary effect. The probe utilizes a triangular sensor arrangement as detailed in the diagram below right. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 5 of 56 FCC ID: R90-CONNEX1 DIPOLE SENSOR HIGH-

LINES DETECTOR DIODE The SAR is assessed with the probe which moves at a default height of 4mm from the center of the diode, which is mounted to the sensor, to the phantom surface (Z height). The diagram above right shows how the center of the sensor is defined with the location of the diode placed at the center of the dipole. The 4mm default in the Z axis is the optimum height for assessing SAR where the boundary effect is at its least, with the probe located closest to the phantom surface (boundary). The manufacturer specified precision of the robot is 0.05 mm and the precision of the APREL bottom detection device is 0.1 mm. These precisions are calibrated and tested in the manufacturing process of the bottom detection device. A constant distance is maintained because the surface of the phantom is dynamically detected for each point. The surface detection algorithm corrects the position of the robot so that the probe rests on the surface of the phantom. The probe is then moved to the measurement location 2.44 mm above the phantom surface resulting in the probe center location to be at 4.0 mm above the phantom surface. Therefore, the probe sensor will be at 4.0 mm above the phantom surface 0.1 mm for each SAR location for frequencies below 3 GHz. The probe is moved to the measurement location 1.44 mm above the phantom surface resulting in the probe center location to be at 2.0 mm above the phantom surface. Therefore, the probe sensor will be at 2.0 mm above the phantom surface 0.1 mm for each SAR location for frequencies above 3 GHz. The probe boundary effect compensation cannot be disabled in the ALSAS-10U testing system. The probe tip will always be at least half a probe tip diameter from the phantom surface. For frequencies up to 3 GHz, the probe diameter is 5 mm. With the sensor offset set at 1.54 mm (default setting), the sensor to phantom gap will be 4.0 mm which is greater than half the probe tip diameter. For frequencies greater than 3 GHz, the probe diameter is 3 mm. With the sensor offset set at 0.56 mm (default setting), the sensor to phantom gap will be 3.0 mm which is greater than half the probe tip diameter. The separation of the first 2 measurement points in the zoom scan is specified in the test setup software. For frequencies below 3 GHz, the user must specify a zoom scan resolution of less than 6 mm in the z-axis to have the first two measurements within 1 cm of the surface. The z-axis is set to 4 mm as shown on each of the data sheets in Appendix B. For frequencies above 3 GHz, the user must specify a zoom scan resolution of less than 3 mm in the z-axis to have the first two measurements within 5 mm of the surface. The z-axis is set to 2 mm as shown on each of the data sheets in Appendix B. The zoom scan volume for devices 3 GHz with a cube scan of 5x5x8 yields a volume of 32x32x28 mm3. For devices >3 GHz and <4.5 GHz, the cube scan of 9x9x9 yields a volume of 32x32x24 mm3. For devices 4.5 GHz, the cube scan of 7x7x12 yields a volume of 24x24x22 mm3. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 6 of 56 FCC ID: R90-CONNEX1 3. Robot Specifications ThermoCRS, Robot Model: Robocomm 3 0.05 mm 6 Data Acquisition Card (DAC) System Specifications Positioner:

Repeatability:

No. of axis:

Cell Controller Processor:

Clock Speed:

Operating System:

Data Converter Features:

Software:

E-Field Probe Model:

Serial Number:

Construction:

Frequency:

Phantom Phantom:

Pentium 4 2.66 GHz Windows XP Pro Signal Amplifier, End Effector, DAC ALSAS 10-U Software Various See Probe Calibration Sheet Various See Probe Calibration Sheet Triangular Core Touch Detection System 10MHz to 6GHz Uniphantom, Right Phantom, Left Phantom 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 7 of 56 FCC ID: R90-CONNEX1 4. Probe and Dipole Calibration See Appendix D and E. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 8 of 56 FCC ID: R90-CONNEX1 5. Phantom & Simulating Tissue Specifications SAM Phantom from the anthropomorphic data of The Aprel system utilizes three separate phantoms. Each phantom for SAR assessment testing is a low loss dielectric shell, with shape and the 90th dimensions derived percentile adult male head dimensions as tabulated by the US Army. The SAM phantom shell is bisected along the mid sagittai plane into right and left halves. The perimeter sidewalls of each phantom half is extended to allow filling with liquid to a depth of 15 cm that is sufficient to minimize reflections from the upper surface [5]. The Uni-Phantom is used to conduct body measurements and held to face measurements. The depth of the phantom allows for 15 cm of tissue material to be filled within the phantom. See photos in Appendix C. Head & Body Simulating Mixture Characterization The head and body mixtures consist of the material based on the table listed below. The mixture is calibrated to obtain proper dielectric constant (permittivity) and conductivity of the desired tissue. Body tissue parameters that have not been specified in P1528 are derived from the issue dielectric parameters computed from the 4-Cole-Cole equations. Table 5.1 Typical Composition of Ingredients for Tissue Ingredients Mixing Percentage Water Sugar Salt HEC Bactericide DGBE Dielectric Constant Target Conductivity (S/m) Target Simulating Tissue 2450 MHz Body 73.20 0.00 0.04 0.00 0.00 26.70 52.70 1.95 Device Holder In combination with the SAM phantom, the mounting device enables the rotation of the mounted transmitter in spherical coordinates whereby the rotation point is the ear opening. The devices can easily, accurately, and repeatably be positioned according to the FCC specifications. The device holder can be locked at different phantom locations (left head, right head, and uni-phantom). 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 9 of 56 FCC ID: R90-CONNEX1 6. ANSI/IEEE C95.1 1992 RF Exposure Limits [2]

Uncontrolled Environment Uncontrolled Environments are defined as locations where there is the exposure of individuals who have no knowledge or control of their exposure. The general population/uncontrolled exposure limits are applicable to situations in which the general public may be exposed or in which persons who are exposed as a consequence of their employment may not be made fully aware of the potential for exposure or cannot exercise control over their exposure. Members of the general public would come under this category when exposure is not employment-related; for example, in the case of a wireless transmitter that exposes persons in its vicinity. Controlled Environment Controlled Environments are defined as locations where there is exposure that may be incurred by persons who are aware of the potential for exposure, (i.e. as a result of employment or occupation). In general, occupational/controlled exposure limits are applicable to situations in which persons are exposed as a consequence of their employment, who have been made fully aware of the potential for exposure and can exercise control over their exposure. This exposure category is also applicable when the exposure is of a transient nature due to incidental passage through a location where the exposure levels may be higher than the general population/uncontrolled limits, but the exposed person is fully aware of the potential for exposure and can exercise control over his or her exposure by leaving the area or by some other appropriate means. Table 8.1 Human Exposure Limits SPATIAL PEAK SAR1 Head SPATIAL AVERAGE SAR2 Whole Body SPATIAL PEAK SAR3 Hands, Feet, Ankles, Wrists UNCONTROLLED ENVIRONMENT General Population

(W/kg) or (mW/g) 1.60 0.08 4.00 CONTROLLED ENVIROMENT Professional Population

(W/kg) or (mW/g) 8.00 0.40 20.00 1 The Spatial Peak value of the SAR averaged over any 1 gram of tissue (defined as a tissue volume in the shape of a cube) and over the appropriate averaging time. 2 The Spatial Average value of the SAR averaged over the whole body. 3 The Spatial Peak value of the SAR averaged over any 10 grams of tissue (defined as a tissue volume in the shape of a cube) and over the appropriate averaging time. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 10 of 56 FCC ID: R90-CONNEX1 7. Measurement Uncertainty Exposure Assessment Measurement Uncertainty Source of Uncertainty Tolerance Value Probability Distribution Divisor ci1

(1-g) ci1

(10-g) Standard Uncertainty

(1-g) %

Standard Uncertai nty (10-

g) %

normal rectangular rectangular rectangular rectangular rectangular normal rectangular rectangular rectangular rectangular rectangular rectangular normal normal rectangular rectangular rectangular normal rectangular normal RSS Normal(k=2) 1 3 3 3 3 3 1 3 3 3 3 3 3 1 1 3 3 3 1 3 1 1 0.7 0.7 1 1 1 1 1 1 1 1 1 1 1 1 1 1 0.7 0.7 0.6 0.6 1 0.7 0.7 1 1 1 1 1 1 1 1 1 1 1 1 1 1 0.5 0.5 0.5 0.5 3.5 1.5 4.4 0.6 2.7 0.6 1.0 0.5 1.0 1.7 0.2 1.7 2.1 4.0 2.0 2.4 2.0 2.0 0.4 1.7 0.6 9.6 19.1 3.5 1.5 4.4 0.6 2.7 0.6 1.0 0.5 1.0 1.7 0.2 1.7 2.1 4.0 2.0 2.4 2.0 1.4 0.3 1.4 0.5 9.4 18.8 Measurement System 3.5 Probe Calibration 3.7 Axial Isotropy 10.9 Hemispherical Isotropy 1.0 Boundary Effect 4.7 Linearity 1.0 Detection Limit 1.0 Readout Electronics Response Time 0.8 1.7 Integration Time RF Ambient Condition 3.0 Probe Positioner 0.4 Mech. Restriction 2.9 Probe Positioning with respect to Phantom Shell Extrapolation and Integration Test Sample Positioning Device Holder Uncertainty Drift of Output Power Phantom and Setup Phantom Uncertainty(shape &

thickness tolerance) Liquid Conductivity(target) Liquid Conductivity(meas.) Liquid Permittivity(target) Liquid Permittivity(meas.) Combined Uncertainty Combined Uncertainty

(coverage factor=2) 3.7 4.0 2.0 4.2 3.4 5.0 0.5 5.0 1.0 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 11 of 56 vi 7 2 5 5

>500

>500 FCC ID: R90-CONNEX1 8. System Validation Tissue Verification Table 8.1 Measured Tissue Parameters Date(s) 2450 MHz Body Mar. 22, 2012 Liquid Temperature (C) 20.0 Target Measured Dielectric Constant:

Conductivity:

52.70 1.95 51.84 1.96 See Appendix A for data printout. Test System Verification Prior to assessment, the system is verified to the 10% of the specifications at the test frequency by using the system kit. Power is normalized to 1 watt. (Graphic Plots Attached) Table 8.2 System Dipole Validation Target & Measured Test Frequency 22-Mar-2012 2450 MHz See Appendix A for data plots. Targeted SAR1g

(W/kg) 51.50 Measure SAR1g (W/kg) Tissue Used for Verification Deviation (%) 52.79 Body

+ 2.50 z y x 3D Probe positioner Field probe Flat Phantom Dipole x Cable Att1 PM1 Spacer s Signal Generato Amp Low Pass 3dB Att3 Dir.Coupler Att2 PM3 PM2 Figure 8.1 Dipole Validation Test Setup Note: KDB 450824 was applied for probe calibration frequencies greater than or equal to 50 MHz of the DUT frequencies. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 12 of 56 FCC ID: R90-CONNEX1 9. SAR Test Data Summary See Measurement Result Data Pages See Appendix B for SAR Test Data Plots. See Appendix C for SAR Test Setup Photos. Procedures Used To Establish Test Signal The device was either placed into simulated transmit mode using the manufacturers test codes or the actual transmission is activated through a base station simulator or similar equipment. See data pages for actual procedure used in measurement. Device Test Condition In order to verify that the device was tested at full power, conducted output power measurements were performed before and after each SAR measurement to confirm the output power unless otherwise noted. If a conducted power deviation of more than 5%

occurred, the test was repeated. The power drift of each test is measured at the start of the test and again at the end of the test. The drift percentage is calculated by the formula ((end/start)-1)*100 and rounded to three decimal places. The drift percentage is calculated into the resultant SAR value on the data sheet for each test. The EUT was programmed to be allow the changing of channels.. The EUT was configured continuously transmit at a maximum output power on the channel specified in the test data. The data rates used when evaluating the WiFi transmitter were the lowest data rates for each mode. The device was operating at its maximum output power at the lowest data rate for all measurements. The device is a belt worn device. It was tested on in the normal position with the clip touching the flat part of the phantom. The following is a pictorial drawing of the locations. The device has a maximum of 255 bits (49 ms) transmitted every 1 second. Therefore, the maximum duty cycle in 100 ms is 49%. The SAR values have been scaled to 49%

for all data. 802.11b Freq Channel Data Rate Antenna Power 2412 18.21 18.31 2437 2462 18.26 Chain 1 Chain 1 Chain 1 1 6 11 1 1 1 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 13 of 56 FCC ID: R90-CONNEX1 SAR Data Summary 2450 MHz Body 802.11b MEASUREMENT RESULTS Gap Position 0 mm Side A Frequency Ch. MHz 2412 1 6 2437 2462 11 Modulation Antenna DSSS DSSS DSSS Main Main Main End Power

(dBm) 18.21 18.31 18.26 Measured SAR (W/kg) Scaled SAR (W/kg) 0.784 0.840 0.780 0.384 0.412 0.382 Body 1.6 W/kg (mW/g) averaged over 1 gram ERP EIRP Conducted 1. Battery is fully charged for all tests. Power Measured 2. SAR Measurement Phantom Configuration SAR Configuration 3. Test Signal Call Mode 4. Test Configuration 5. Tissue Depth is at least 15.0 cm Left Head Head Test Code With Belt Clip Right Head Uniphantom Body Base Station Simulator Without Belt Clip N/A Jay M. Moulton Vice President Note: SAR Tested on the middle channel. When the measured channel is 3 dB or more below the limit the remaining channels are not required to be tested per KDB 447498 V04 page 2 section 1) e). The device has a maximum of 255 bits (49 ms) transmitted every 1 second. Therefore, the maximum duty cycle in 100 ms is 49%. The SAR values have been scaled to 49% for all data. The testing was conducted on back of the device. All testing was conducted per KDB 447498 v04, 248227 v01r02 and OET Bulletin 65. See the photo in Appendix C for a pictorial of the setup. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 14 of 56 FCC ID: R90-CONNEX1 11. Test Equipment List Table 11.1 Equipment Specifications Type ThermoCRS Robot ThermoCRS Controller ThermoCRS Teach Pendant (Joystick) IBM Computer, 2.66 MHz P4 Aprel E-Field Probe ALS-E020 Aprel E-Field Probe ALS-E030 Aprel Dummy Probe Aprel Left Phantom Aprel Right Phantom Aprel UniPhantom Aprel Validation Dipole ALS-D-450-S-2 Head Aprel Validation Dipole ALS-D-450-S-2 Body Aprel Validation Dipole ALS-D-750-S-2 Head Aprel Validation Dipole ALS-D-750-S-2 Body Aprel Validation Dipole ALS-D-835-S-2 Head Aprel Validation Dipole ALS-D-835-S-2 Body Aprel Validation Dipole ALS-D-900-S-2 Head Aprel Validation Dipole ALS-D-900-S-2 Body Aprel Validation Dipole ALS-D-1900-S-2 Head Aprel Validation Dipole ALS-D-1900-S-2 Body Aprel Validation Dipole ALS-D-2450-S-2 Head Aprel Validation Dipole ALS-D-2450-S-2 Body Aprel Validation Dipole RFE-D-2600-S-2 Body Aprel Validation Dipole RFE-D-BB-S-2 Head Aprel Validation Dipole RFE-D-BB-S-2 Body Agilent (HP) 437B Power Meter Agilent (HP) 8481B Power Sensor Agilent N1911A Power Meter Agilent N1922A Power Sensor Advantest R3261A Spectrum Analyzer Agilent (HP) 8350B Signal Generator Agilent (HP) 83525A RF Plug-In Agilent (HP) 8753C Vector Network Analyzer Agilent (HP) 85047A S-Parameter Test Set Agilent (HP) 8960 Base Station Sim. Anritsu MT8820C Aprel Dielectric Probe Assembly Head Equivalent Matter (450 MHz) Head Equivalent Matter (835/900 MHz) Head Equivalent Matter (1900 MHz) Head Equivalent Matter (2450 MHz) Body Equivalent Matter (450 MHz) Body Equivalent Matter (750 MHz) Body Equivalent Matter (835/900 MHz) Body Equivalent Matter (1900 MHz) Body Equivalent Matter (2450 MHz) Body Equivalent Matter (2600 MHz) Body Equivalent Matter (5200 MHz) Body Equivalent Matter (5800 MHz) Calibration Due Date Calibration Done Date Serial Number N/A N/A N/A N/A 09/07/2012 07/15/2012 N/A N/A N/A N/A 01/12/2013 01/19/2013 01/14/2013 11/15/2012 01/14/2013 11/16/2012 01/12/2013 11/19/2012 01/15/2013 11/16/2012 01/12/2013 11/18/2012 01/18/2013 01/12/2013 02/09/2013 03/30/2012 03/30/2012 03/30/2012 03/30/2012 03/30/2012 03/31/2012 03/31/2012 03/30/2012 03/31/2012 03/25/2012 03/23/2012 N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A RAF0338198 RCF0338224 STP0334405 8189D8U KCPR08N RFE-217 E030-001 023 RFE-267 RFE-268 RFE-273 RFE-362 RFE-362 177-00501 177-00501 180-00561 180-00561 RFE-275 RFE-275 210-00713 210-00713 RFE-278 RFE-278 RFE-121 235-00801 235-00801 3125U08837 3318A05384 GB45100254 MY45240464 31720068 2749A10226 2647A01172 3135A01724 2904A00595 MY48360364 6200837710 0011 N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A 09/07/2011 07/15/2011 N/A N/A N/A N/A 01/12/2010 01/19/2011 01/14/2010 11/15/2010 01/14/2010 11/16/2010 01/12/2010 11/19/2010 01/15/2010 11/16/2010 01/12/2010 11/18/2010 01/18/2010 01/12/2010 02/09/2011 03/30/2011 03/30/2011 03/30/2011 03/30/2011 03/30/2011 03/31/2011 03/31/2011 03/30/2011 03/31/2011 03/25/2011 03/23/2011 N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A N/A 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 15 of 56 FCC ID: R90-CONNEX1 12. Conclusion The SAR measurement indicates that the EUT complies with the RF radiation exposure limits of the FCC. These measurements are taken to simulate the RF effects exposure under worst-case conditions. Precise laboratory measures were taken to assure repeatability of the tests. The tested device complies with the requirements in respect to all parameters subject to the test. The test results and statements relate only to the item(s) tested. Please note that the absorption and distribution of electromagnetic energy in the body is a very complex phenomena that depends on the mass, shape, and size of the body; the orientation of the body with respect to the field vectors; and, the electrical properties of both the body and the environment. Other variables that may play a substantial role in possible biological effects are those that characterize the environment (e.g. ambient temperature, air velocity, relative humidity, and body insulation) and those that characterize the individual (e.g. age, gender, activity level, debilitation, or disease). Because innumerable factors may interact to determine the specific biological outcome of an exposure to electromagnetic fields, any protection guide shall consider maximal amplification of biological effects as a result of field-body interactions, environmental conditions, and physiological variables. 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 16 of 56 FCC ID: R90-CONNEX1 13. References for Federal Communications Commission, ET Docket 93-62, Guidelines

[1]

Evaluating the Environmental Effects of Radio Frequency Radiation, August 1996

[2]

ANSI/IEEE C95.1 1992, American National Standard Safety Levels with respect to Human Exposure to Radio Frequency Electromagnetic Fields, 300kHz to 100GHz, New York: IEEE, 1992.

[3]

ANSI/IEEE C95.3 1992, IEEE Recommended Practice for the Measurement of Potentially Hazardous Electromagnetic Fields RF and Microwave, New York: IEEE, 1992.

[4]

Federal Communications Commission, OET Bulletin 65 (Edition 97-01), Supplement C (Edition 01-01), Evaluating Compliance with FCC Guidelines for Human Exposure to Radio Frequency Electromagnetic Fields, June 2001.

[5]

IEEE Standard 1528 2003, IEEE Recommended Practice for Determining the Peak-Spatial Average Specific Absorption Rate (SAR) in the Human Head from Wireless Communication Devices: Measurement Techniques, October 2003.

[6]

Radiocommunication Apparatus (All Frequency Bands), March 2010.

[7]

Electromagnetic Fields in the Frequency Range from 3kHz to 300 GHz, 2009. Health Canada, Safety Code 6, Limits of Human Exposure to Radiofrequency Industry Canada, RSS 102e, Radio Frequency Exposure Compliance of 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 17 of 56 FCC ID: R90-CONNEX1 Appendix A System Validation Plots and Data

************************************************************

Test Result for UIM Dielectric Parameter Thu 22/Mar/2012 08:43:25 Freq Frequency(GHz) FCC_eH FCC_sH FCC_eB FCC_sB Test_e Test_s

************************************************************

Freq 2.4000 2.4050 2.4100 2.4120 2.4200 2.4300 2.4370 2.4400 2.4500 2.4600 2.4620 2.4700 2.4800

*Values were interpolated based on the two values on either side. FCC Bulletin 65 Supplement C ( June 2001) Limits for Head Epsilon FCC Bulletin 65 Supplement C (June 2001) Limits for Head Sigma FCC Limits for Body Epsilon FCC Limits for Body Sigma Epsilon of UIM Sigma of UIM FCC_eB 52.77 52.76 52.75 52.75 52.74 52.73 52.72 52.71 52.70 52.69 52.67 52.67 52.66 FCC_sB 1.90 1.91 1.91 1.91 1.92 1.93 1.94 1.94 1.95 1.96 1.98 1.98 1.99 Test_e 51.92 51.91 51.90 51.90 51.89 51.87 51.86 51.85 51.84 51.82 51.81 51.81 51.80 Test_s 1.91 1.92*

1.92 1.92*

1.93 1.94 1.95*

1.95 1.96 1.97 1.98*

1.98 1.99 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 18 of 56 FCC ID: R90-CONNEX1 SAR Test Report By Operator : Jay Measurement Date : 22-Mar-2012 Starting Time : 22-Mar-2012 09:09:13 AM End Time : 22-Mar-2012 09:22:07 AM Scanning Time : 774 secs Product Data Device Name : Validation Serial No. : 2450 Type : Dipole Model : ALS-D-2450-S-2 Frequency : 2450.00 MHz Max. Transmit Pwr : 0.1 W Drift Time : 0 min(s) Length : 51.5 mm Width : 3.6 mm Depth : 30.4 mm Antenna Type : Internal Orientation : Touch Power Drift-Start : 6.215 W/kg Power Drift-Finish: 6.280 W/kg Power Drift (%) : 1.050 Phantom Data Name : APREL-Uni Type : Uni-Phantom Size (mm) : 280 x 280 x 200 Serial No. : System Default Location : Center Description : Uni-Phantom Tissue Data Type : BODY Serial No. : 2450 Frequency : 2450.00 MHz Last Calib. Date : 22-Mar-2012 Temperature : 20.00 C Ambient Temp. : 23.00 C Humidity : 45.00 RH%

Epsilon : 51.84 F/m Sigma : 1.96 S/m Density : 1000.00 kg/cu. m Probe Data Name : Probe 217 - RFEL Model : E020 Type : E-Field Triangle Serial No. : 217 Last Calib. Date : 07-Sep-2011 Frequency : 2450.00 MHz Duty Cycle Factor: 1 Conversion Factor: 3.94 Probe Sensitivity: 1.20 1.20 1.20 V/(V/m)2 Compression Point: 95.00 mV Offset : 1.56 mm 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 19 of 56 FCC ID: R90-CONNEX1 Measurement Data Crest Factor : 1 Scan Type : Complete Tissue Temp. : 20.00 C Ambient Temp. : 23.00 C Set-up Date : 22-Mar-2012 Set-up Time : 7:40:13 AM Area Scan : 5x5x1 : Measurement x=10mm, y=10mm, z=4mm Zoom Scan : 5x5x8 : Measurement x=8mm, y=8mm, z=4mm Other Data DUT Position : Touch Separation : 10 mm Channel : Mid 1 gram SAR value : 5.279 W/kg 10 gram SAR value : 2.312 W/kg Area Scan Peak SAR : 6.274 W/kg Zoom Scan Peak SAR : 11.190 W/kg 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 20 of 56 FCC ID: R90-CONNEX1 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 21 of 56 FCC ID: R90-CONNEX1 Appendix B SAR Test Data Plots 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 22 of 56 FCC ID: R90-CONNEX1 SAR Test Report By Operator : Jay Measurement Date : 22-Mar-2012 Starting Time : 22-Mar-2012 12:07:16 PM End Time : 22-Mar-2012 12:27:08 PM Scanning Time : 1192 secs Product Data Device Name : BW Technologies Serial No. : 5345CNX01114300181 Mode : 802.11b Model : Connex1 Frequency : 2412.00 MHz Max. Transmit Pwr : 0.067 W Drift Time : 0 min(s) Length : 80 mm Width : 116 mm Depth : 35 mm Antenna Type : Internal Orientation : Side A Power Drift-Start : 0.279 W/kg Power Drift-Finish: 0.275 W/kg Power Drift (%) : -1.640 Phantom Data Name : APREL-Uni Type : Uni-Phantom Size (mm) : 280 x 280 x 200 Serial No. : System Default Location : Center Description : Uni-Phantom Tissue Data Type : BODY Serial No. : 2412 Frequency : 2412.00 MHz Last Calib. Date : 22-Mar-2012 Temperature : 20.00 C Ambient Temp. : 23.00 C Humidity : 45.00 RH%

Epsilon : 51.90 F/m Sigma : 1.92 S/m Density : 1000.00 kg/cu. m Probe Data Name : RFEL 217 Model : E020 Type : E-Field Triangle Serial No. : 217 Last Calib. Date : 07-Sep-2011 Frequency : 2450.00 MHz Duty Cycle Factor: 1 Conversion Factor: 3.94 Probe Sensitivity: 1.20 1.20 1.20 V/(V/m)2 Compression Point: 95.00 mV Offset : 1.56 mm 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 23 of 56 FCC ID: R90-CONNEX1 Measurement Data Crest Factor : 1 Scan Type : Complete Tissue Temp. : 20.00 C Ambient Temp. : 23.00 C Set-up Date : 22-Mar-2012 Set-up Time : 12:06:42 PM Area Scan : 7x9x1 : Measurement x=15mm, y=15mm, z=4mm Zoom Scan : 5x5x8 : Measurement x=8mm, y=8mm, z=4mm Other Data DUT Position : Side A Separation : 0 mm Channel : Low 1 gram SAR value : 0.784 W/kg 10 gram SAR value : 0.437 W/kg Area Scan Peak SAR : 0.915 W/kg Zoom Scan Peak SAR : 1.321 W/kg 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 24 of 56 FCC ID: R90-CONNEX1 SAR Test Report By Operator : Jay Measurement Date : 22-Mar-2012 Starting Time : 22-Mar-2012 11:41:16 AM End Time : 22-Mar-2012 12:01:46 PM Scanning Time : 1230 secs Product Data Device Name : BW Technologies Serial No. : 5345CNX01114300181 Mode : 802.11b Model : Connex1 Frequency : 2437.00 MHz Max. Transmit Pwr : 0.067 W Drift Time : 0 min(s) Length : 80 mm Width : 116 mm Depth : 35 mm Antenna Type : Internal Orientation : Side A Power Drift-Start : 0.212 W/kg Power Drift-Finish: 0.212 W/kg Power Drift (%) : 0.304 Phantom Data Name : APREL-Uni Type : Uni-Phantom Size (mm) : 280 x 280 x 200 Serial No. : System Default Location : Center Description : Uni-Phantom Tissue Data Type : BODY Serial No. : 2437 Frequency : 2437.00 MHz Last Calib. Date : 22-Mar-2012 Temperature : 20.00 C Ambient Temp. : 23.00 C Humidity : 43.00 RH%

Epsilon : 51.86 F/m Sigma : 1.95 S/m Density : 1000.00 kg/cu. m Probe Data Name : RFEL 217 Model : E020 Type : E-Field Triangle Serial No. : 217 Last Calib. Date : 07-Sep-2011 Frequency : 2450.00 MHz Duty Cycle Factor: 1 Conversion Factor: 3.94 Probe Sensitivity: 1.20 1.20 1.20 V/(V/m)2 Compression Point: 95.00 mV Offset : 1.56 mm 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 25 of 56 FCC ID: R90-CONNEX1 Measurement Data Crest Factor : 1 Scan Type : Complete Tissue Temp. : 20.00 C Ambient Temp. : 23.00 C Set-up Date : 22-Mar-2012 Set-up Time : 11:40:27 AM Area Scan : 7x9x1 : Measurement x=15mm, y=15mm, z=4mm Zoom Scan : 5x5x8 : Measurement x=8mm, y=8mm, z=4mm Other Data DUT Position : Side A Separation : 0 mm Channel : Mid 1 gram SAR value : 0.840 W/kg 10 gram SAR value : 0.463 W/kg Area Scan Peak SAR : 1.017 W/kg Zoom Scan Peak SAR : 1.421 W/kg 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 26 of 56 FCC ID: R90-CONNEX1 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 27 of 56 FCC ID: R90-CONNEX1 SAR Test Report By Operator : Jay Measurement Date : 22-Mar-2012 Starting Time : 22-Mar-2012 12:52:31 PM End Time : 22-Mar-2012 01:12:42 PM Scanning Time : 1211 secs Product Data Device Name : BW Technologies Serial No. : 5345CNX01114300181 Mode : 802.11b Model : Connex1 Frequency : 2462.00 MHz Max. Transmit Pwr : 0.067 W Drift Time : 0 min(s) Length : 80 mm Width : 116 mm Depth : 35 mm Antenna Type : Internal Orientation : Side A Power Drift-Start : 0.376 W/kg Power Drift-Finish: 0.363 W/kg Power Drift (%) : -3.451 Phantom Data Name : APREL-Uni Type : Uni-Phantom Size (mm) : 280 x 280 x 200 Serial No. : System Default Location : Center Description : Uni-Phantom Tissue Data Type : BODY Serial No. : 2462 Frequency : 2462.00 MHz Last Calib. Date : 22-Mar-2012 Temperature : 20.00 C Ambient Temp. : 23.00 C Humidity : 45.00 RH%

Epsilon : 51.81 F/m Sigma : 1.98 S/m Density : 1000.00 kg/cu. m Probe Data Name : RFEL 217 Model : E020 Type : E-Field Triangle Serial No. : 217 Last Calib. Date : 07-Sep-2011 Frequency : 2450.00 MHz Duty Cycle Factor: 1 Conversion Factor: 3.94 Probe Sensitivity: 1.20 1.20 1.20 V/(V/m)2 Compression Point: 95.00 mV Offset : 1.56 mm 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 28 of 56 FCC ID: R90-CONNEX1 Measurement Data Crest Factor : 1 Scan Type : Complete Tissue Temp. : 20.00 C Ambient Temp. : 23.00 C Set-up Date : 22-Mar-2012 Set-up Time : 12:29:57 PM Area Scan : 7x9x1 : Measurement x=15mm, y=15mm, z=4mm Zoom Scan : 5x5x8 : Measurement x=8mm, y=8mm, z=4mm Other Data DUT Position : Side A Separation : 0 mm Channel : High 1 gram SAR value : 0.780 W/kg 10 gram SAR value : 0.423 W/kg Area Scan Peak SAR : 0.976 W/kg Zoom Scan Peak SAR : 1.020 W/kg 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 29 of 56 FCC ID: R90-CONNEX1 Appendix C SAR Test Setup Photos System Body Configuration Body Tissue Depth 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 30 of 56 FCC ID: R90-CONNEX1 Test Position Side A 0 mm Gap Front of Device 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 31 of 56 FCC ID: R90-CONNEX1 Back of Device 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 32 of 56 FCC ID: R90-CONNEX1 Appendix D Probe Calibration Data Sheets 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 33 of 56 NCL CALIBRATION LABORATORIES Calibration File No.: PC1333-1350 Client.: RFEL C E R T I F I C A T E OF C A L I B R A T I O N It is certified that the equipment identified below has been calibrated in the NCL CALIBRATION LABORATORIES by qualified personnel following recognized procedures and using transfer standards traceable to NRC/NIST. Equipment: Miniature Isotropic RF Probe Record of Calibration Head and Body Manufacturer: APREL Laboratories Model No.: E-020 Serial No.: 217 Calibration Procedure: D01-032-E020-V2, D22-012-Tissue, D28-002-Dipole Project No: RFEL-PC-5620 Calibrated: 7th September 2011 Released on: 7th September 2011 Approved By: Stuart Nicol NCL CALIBRATION LABORATORIES 303 Terry Fox Drive, Suite 102 Division of APREL Kanata, Ontario TEL: (613) 435-8300 CANADA K2K 3J1 FAX: (613) 435-8306 NCL Calibration Laboratories Division of APREL Inc. Introduction This Calibration Report reproduces the results of the calibration performed in line with the references listed below. Calibration is performed using accepted methodologies as per the references listed below. Probes are calibrated for air, and tissue and the values reported are the results from the physical quantification of the probe through meteorgical practices. Calibration Method Probes are calibrated using the following methods.

<1000MHz TEM Cell for sensitivity in air Standard phantom using temperature transfer method for sensitivity in tissue

>1000MHz Waveguide* method to determine sensitivity in air and tissue

*Waveguide is numerically (simulation) assessed to determine the field distribution and power The boundary effect for the probe is assessed using a standard flat phantom where the probe output is compared against a numerically simulated series of data points References IEEE Standard 1528 (2003) including Amendment 1 IEEE Recommended Practice for Determining the Peak Spatial-Average Specific Absorption Rate (SAR) in the Human Head from Wireless Communications Devices: Measurement Techniques o o EN 62209-1 (2006) o Human Exposure to RF Fields from hand-held and body-mounted wireless communication devices - Human models. instrumentation, and procedures-Part 1: Procedure to measure the Specific Absorption Rate (SAR) for hand-held mobile wireless devices IEC 62209-2 Ed. 1.0 (2010-03) Human exposure to RF fields from hand-held and body-mounted wireless devices - Human models, instrumentation, and procedures - Part 2: specific absorption rate (SAR) for wireless communication devices (30 MHz - 6 GHz) o TP-D01-032-E020-V2 E-Field probe calibration procedure o D22-012-Tissue dielectric tissue calibration procedure o D28-002-Dipole procedure for validation of SAR system using a dipole o IEEE 1309 Draft Standard for Calibration of Electromagnetic Field Sensors and Probes, Excluding Antennas, from 9kHz to 40GHz Page 2 of 10 This page has been reviewed for content and attested to on Page 2 of this document. 22 C +/- 1.5C 21 C +/- 1.5C

< 60%

NCL Calibration Laboratories Division of APREL Inc. Conditions Probe 217 was a re-calibration. Ambient Temperature of the Laboratory:

Temperature of the Tissue:

Relative Humidity:

Primary Measurement Standards Instrument Power meter Anritsu MA2408A Power Sensor Anritsu MA2481D Attenuator HP 8495A (70dB) Network Analyzer Anritsu MT8801C Secondary Measurement Standards Signal Generator Agilent E4438C -506 MY55182336 June 7, 2011 Attestation The below named signatories have conducted the calibration and review of the data which is presented in this calibration report. Cal date Serial Number 90025437 Nov.4, 2010 103555 Nov 4, 2010 1944A10711 Sept. 14, 2010 MB11855 Feb. 8, 2011 Page 3 of 10 This page has been reviewed for content and attested to on Page 2 of this document. E-Field Probe E020 217 1.56 750MHz NCL Calibration Laboratories Division of APREL Inc. Probe Summary Probe Type:

Serial Number:

Frequency:

Sensor Offset:

Sensor Length:

Tip Enclosure:

Tip Diameter:

Tip Length:

Total Length:

*Resistive to recommended tissue recipes per IEEE-1528 Sensitivity in Air Channel X:

Channel Y:

Channel Z:

Diode Compression Point:

Composite*

< 2.9 mm 289 mm 55 mm 2.5 1.2 V/(V/m)2 1.2 V/(V/m)2 1.2 V/(V/m)2 95 mV Page 4 of 10 This page has been reviewed for content and attested to on Page 2 of this document. NCL Calibration Laboratories Division of APREL Inc. Calibration for Tissue (Head H, Body B) Frequency 450 H 450 B 650 B 750 H 750 B 835 H 835 B 900 H 900 B 1450 H 1450 B 1500 H 1500 B 1640 H 1640 B 1735 H 1735 B 1800 H 1800 B 1900 H 1900 B 2000 H 2000 B 2100 H 2100 B 2300 H 2300 B 2450 H 2450B 2600 H 2600 B 3000 H 3000 B 3600 H 3600 B 5200 H 5200 B 5600 H 5600 B 5800 H 5800 B Tissue Type Head Body Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Head Body Measured Epsilon 45.31 56.77 57.42 42.16 55.54 42.5 56.37 41.89 53.68 X X X X 39.0 52.03 X 51.68 38.38 51.54 38.4 52.08 X X X X X X 38.2 51.74 51.18 X X X X X X X X X X X Measured Sigma 0.91 0.99 0.91 0.87 0.94 0.93 0.954 1.0 1.05 X X X X 1.25 1.39 X 1.5 1.39 1.56 1.43 1.59 X X X X X X 1.82 1.96 X 2.16 X X X X X X X X X X Calibration Uncertainty 4.1 4.1 3.96 3.94 3.94 3.5 3.5 3.5 3.5 X X X X 3.5 3.5 X 3.5 3.5 3.5 3.5 3.5 X X X X X X 3.5 3.5 X 3.5 X X X X X X X X X X Tolerance Uncertainty for 5%*

3.6 3.6 3.5 3.5 3.4 3.4 3.4 3.4 3.4 X X X X 2.7 2.7 X 2.7 2.7 2.7 2.7 2.7 X X X X X X 3.5 3.5 X 3.5 X X X X X X X X X X Page 5 of 10 This page has been reviewed for content and attested to on Page 2 of this document. Conversion Factor 5.8 6.0 6.2 6.2 6.3 6.4 6.4 6.1 6.1 X X X X 5.2 5.0 X 5.2 4.9 5.1 4.9 4.8 X X X X X X 3.91 3.94 X 4.0 X X X X X X X X X X NCL Calibration Laboratories Division of APREL Inc. Boundary Effect:

Uncertainty resulting from the boundary effect is less than 2.1% for the distance between the tip of the probe and the tissue boundary, when less than 0.58mm. Spatial Resolution:

The spatial resolution uncertainty is less than 1.5% for 4.9mm diameter probe. The spatial resolution uncertainty is less than 1.0% for 2.5mm diameter probe. DAQ-PAQ Contribution To minimize the uncertainty calculation all tissue sensitivity values were calculated using a load impedance of 5 M. Boundary Effect:

For a distance of 0.58mm the worst case evaluated uncertainty (increase in the probe sensitivity) is less than 2.1%. NOTES:

*The maximum deviation from the centre frequency when comparing the lower to upper range is listed. The probe was received in good condition. Probe was calibrated on new DAC-PAQ. Page 6 of 10 This page has been reviewed for content and attested to on Page 2 of this document. NCL Calibration Laboratories Division of APREL Inc. Receiving Pattern Air Receiving Pattern Probe E020 S/N 217 330 320 310 300 290 280 270 260 250 240 230 220 210 0 340 350 1.2 10 20 1 0.8 0.6 0.4 0.2 0 200 190 180 160 170 30 40 50 60 70 80 90 100 110 120 130 140 150 Ch1 Ch2 Ch3 Tot Page 7 of 10 This page has been reviewed for content and attested to on Page 2 of this document. NCL Calibration Laboratories Division of APREL Inc. Isotropy Error Isotropy Error Probe S/N 217

]

rror [dB E 10 9 8 7 6 5 4 3 2 1 0

-1

-2

-3

-4

-5

-6

-7

-8

-9

-10 0 100 200 300 Isotropy Plot Probe S/N 217 0.8 0.7 0.6

) V 0.5 oltage (m 0.4 V 0.3 0.2 0.1 0 0 Isotropicity Tissue:

100 Degrees (x10) Ch1 Ch3 200 Ch2 0.12 dB 300 Page 8 of 10 This page has been reviewed for content and attested to on Page 2 of this document. NCL Calibration Laboratories Division of APREL Inc. Dynamic Range Dynamic Range Probe S/N 217 V]

icro e [m ltag o V 10000 1000 100 10 1 0.1 0.01 1.00 10.00 100.00 1,000.00 10,000.00 100,000.00 1,000,000.00 10,000,000.00 Electric Field [(V/m)^2]

Page 9 of 10 This page has been reviewed for content and attested to on Page 2 of this document. Uncompensated Compensated NCL Calibration Laboratories Division of APREL Inc. Video Bandwidth Probe Frequency Characteristics 1 0

) Probe output level (dB

-1

-2

-3

-4

-5

-6 1 10 100 1000 10000 Frequency (Hz) Video Bandwidth at 500 Hz Video Bandwidth at 1.02 KHz:

Test Equipment The test equipment used during Probe Calibration, manufacturer, model number and, current calibration status are the main APREL server R:\NCL\Calibration listed and Equipment\Instrument List May 2011. located on 1 dB 3 dB Page 10 of 10 This page has been reviewed for content and attested to on Page 2 of this document. FCC ID: R90-CONNEX1 Appendix E Dipole Calibration Data Sheets 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 44 of 56 NCL CALIBRATION LABORATORIES Calibration File No: DC-1182 Project Number: RFEB-5552 C E R T I F I C A T E OF C A L I B R A T I O N It is certified that the equipment identified below has been calibrated in the NCL CALIBRATION LABORATORIES by qualified personnel following recognized procedures and using transfer standards traceable to NRC/NIST. Validation Dipole Manufacturer: APREL Laboratories Part number: ALS-D-2450-S-2 Frequency: 2450 MHz Body Serial No: RFE-278 Customer: RFEL Body Calibration Calibrated: 18th November 2010 Released on: 19th November 2010 NCL CALIBRATION LABORATORIES 51 SPECTRUM WAY Division of APREL Lab. NEPEAN, ONTARIO TEL: (613) 820-4988 CANADA K2R 1E6 FAX: (613) 820-4162 NCL Calibration Laboratories Division of APREL Laboratories. Conditions Dipole RFE-278 was a new calibration. Ambient Temperature of the Laboratory:

Temperature of the Tissue:

We the undersigned attest that to the best of our knowledge the calibration of this device has been accurately conducted and that all information contained within this report has been reviewed for accuracy. 22 C +/- 0.5C 21 C +/- 0.5C This page has been reviewed for content and attested to by signature within this document. NCL Calibration Laboratories Division of APREL Laboratories. Calibration Results Summary The following results relate the Calibrated Dipole and should be used as a quick reference for the user. Mechanical Dimensions Length:

Height:

Electrical Specification SWR:

Return Loss:

Impedance:

System Validation Results @ 100mW 1.249 U

-19.170 dB 42.223 51.5 mm 30.4 mm Frequency 1 Gram 10 Gram Peak 2450 MHz 10.01 5.15 2.31 This page has been reviewed for content and attested to by signature within this document. 3 NCL Calibration Laboratories Division of APREL Laboratories. Introduction This Calibration Report has been produced in line with the SSI Dipole Calibration Procedure SSI-TP-018-ALSAS. The results contained within this report are for Validation Dipole RFE-278. The calibration routine consisted of a three-step process. Step 1 was a mechanical verification of the dipole to ensure that it meets the mechanical specifications. Step 2 was an Electrical Calibration for the Validation Dipole, where the SWR, Impedance, and the Return loss were assessed. Step 3 involved a System Validation using the ALSAS-10U, along with APREL E-020 130 MHz to 26 GHz E-Field Probe Serial Number 226. References SSI-TP-018-ALSAS Dipole Calibration Procedure SSI-TP-016 Tissue Calibration Procedure IEEE 1528 Recommended Practice for Determining the Peak Spatial-Average Specific Absorption Rate to Wireless Communications Devices: Experimental Techniques Conditions Dipole RFE-278 was a re-calibration. Ambient Temperature of the Laboratory:

Temperature of the Tissue:

Dipole Calibration uncertainty The calibration uncertainty for the dipole is made up of various parameters presented below. Mechanical 1%

Positioning Error 1.22%

Electrical 1.7%

Tissue 2.2%

Dipole Validation 2.2%

TOTAL 8.32% (16.64% K=2) 22 C +/- 0.5C 20 C +/- 0.5C the Human Body Due

(SAR) in This page has been reviewed for content and attested to by signature within this document. 4 APREL Length 51.5 mm APREL Height 30.4 mm Measured Length 52.1 mm Measured Height 31.0 mm NCL Calibration Laboratories Division of APREL Laboratories. Dipole Calibration Results Mechanical Verification Tissue Validation Body Tissue 2450 MHz Dielectric constant, r Conductivity, [S/m]

Measured 52.0 1.92 This page has been reviewed for content and attested to by signature within this document. 5 NCL Calibration Laboratories Division of APREL Laboratories. Electrical Calibration Test S11 R/L SWR Impedance Result

-19.170 dB 1.249 U 42.223 The Following Graphs are the results as displayed on the Vector Network Analyzer. S11 Parameter Return Loss This page has been reviewed for content and attested to by signature within this document. 6 NCL Calibration Laboratories Division of APREL Laboratories. SWR This page has been reviewed for content and attested to by signature within this document. 7 NCL Calibration Laboratories Division of APREL Laboratories. Smith Chart Dipole Impedance This page has been reviewed for content and attested to by signature within this document. 8 NCL Calibration Laboratories Division of APREL Laboratories. System Validation Results Using the Electrically Calibrated Dipole Results @ 100mW Body Tissue Frequency 2450 MHz 1 Gram 10 Gram Peak Above Feed Point 5.15 2.31 10.01 This page has been reviewed for content and attested to by signature within this document. 9 NCL Calibration Laboratories Division of APREL Laboratories. Test Equipment The test equipment used during Probe Calibration, manufacturer, model number and, current calibration status are listed and located on the main APREL server R:\NCL\Calibration Equipment\Instrument List May 2010. Usage of SAR dipoles calibrated less than 2 years ago but more than 1 year ago were confirmed in maintaining return loss (< -20 dB, within 20% of prior calibration) and impedance (within 5 ohm from prior calibration) requirements per extended calibrations in KDB Publication 450824:

This page has been reviewed for content and attested to by signature within this document. 10 FCC ID: R90-CONNEX1 Appendix F Phantom Calibration Data Sheets 2012 RF Exposure Lab, LLC This report shall not be reproduced except in full without the written approval of RF Exposure Lab, LLC. Page 55 of 56

 

 

Emissions Test Report EUT Name: Single Wireless Gas Detector Model No: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA CFR 47 Part 15.247 2009 and RSS 210: 2010 Prepared for:

Prepared by:

Paul Silva BW Technologies, LTD. 2840 2nd Avenue SE Calgary, Alberta, Canada T2A 7X9 Tel: 781-708-6777 TUV Rheinland of North America, Inc. 1279 Quarry Lane Pleasanton, CA 94566 Tel: (925) 249-9123 Fax: (925) 249-9124 http://www.tuv.com/

Report/Issue Date: March 31, 2012 Report Number:

31153356.001 Report Number: 31153356.001 EUT: Single Wireless Gas Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 1 of 75 Manufacturer:

Requester / Applicant:

Name of Equipment:

Model No. Type of Equipment:

Application of Regulations:

Test Dates:

Guidance Documents:

Statement of Compliance BW Technologies, LTD. 2840 2nd Avenue SE Calgary, Alberta, Canada T2A 7X9 Paul Silva Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-

S1-Y-NA Intentional Radiator CFR 47 Part 15.247 2009 and RSS 210: 2010 February 01 to Feb 29, 2012 Emissions: ANSI C63.10-2009 Test Methods:

Emissions: ANSI C63.10-2009 The electromagnetic compatibility test and documented data described in this report has been performed and recorded by TUV Rheinland, in accordance with the standards and procedures listed herein. As the responsible authorized agent of the EMC laboratory, I hereby declare that the equipment described above has been shown to be compliant with the EMC requirements of the stated regulations and standards based on these results. If any special accessories and/or modifications were required for compliance, they are listed in the Executive Summary of this report. This report must not be used to claim product endorsement by NVLAP or any agency of the U.S. Government. This report contains data that are not covered by NVLAP accreditation. This report shall not be reproduced except in full, without the written authorization of TUV Rheinland of North America. Suresh Kondapalli March 31, 2012 Conan Boyle March 31, 2012 Test Engineer Date NVLAP Signatory Date Industry Canada 500011-0 US5254 2932M-1 Report Number: 31153356.001 EUT: Single Wireless Gas Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 2 of 75 Index of Tables 1 Executive Summary _______________________________________________________ 6 1.1 1.2 Scope______________________________________________________________________ 6 Purpose____________________________________________________________________ 6 1.3 Summary of Test Results _____________________________________________________ 6 1.3.1 Measured values of key parameters ____________________________________________________ 7 1.4 1.5 Special Accessories __________________________________________________________ 7 Equipment Modifications _____________________________________________________ 7 2 Laboratory Information ____________________________________________________ 8 2.1 Accreditations & Endorsements _______________________________________________ 8 2.1.1 US Federal Communications Commission _______________________________________________ 8 2.1.2 NIST / NVLAP ____________________________________________________________________ 8 2.1.3 Canada Industry Canada ___________________________________________________________ 8 2.1.4 Japan VCCI _____________________________________________________________________ 8 2.1.5 Acceptance by Mutual Recognition Arrangement _________________________________________ 9 2.2 Test Facilities _______________________________________________________________ 9 2.2.1 Emission Test Facility ______________________________________________________________ 9 2.2.2 Immunity Test Facility ______________________________________________________________ 9 2.3 Measurement Uncertainty ___________________________________________________ 10 2.3.1 Sample Calculation radiated & conducted emissions ____________________________________ 10 2.3.2 Measurement Uncertainty ___________________________________________________________ 10 2.4 Calibration Traceability _____________________________________________________ 11 3 Product Information ______________________________________________________ 12 3.1 3.2 Product Description ________________________________________________________ 12 Equipment Configuration ___________________________________________________ 12 3.3 Operating Mode ___________________________________________________________ 13 3.4 Duty Cycle: _______________________________________________________________ 13 3.5 Unique Antenna Connector __________________________________________________ 14 3.5.1 Results _________________________________________________________________________ 14 4 Emission Requirements 2400 MHz to 2483.5 MHz Band _______________________ 15 4.1 Output Power Requirements _________________________________________________ 15 4.1.1 Test Method _____________________________________________________________________ 15 4.1.2 Results _________________________________________________________________________ 16 4.2 Occupied Bandwidth _______________________________________________________ 20 4.2.1 Test Method _____________________________________________________________________ 20 4.2.2 Results _________________________________________________________________________ 21 4.3 Band-edge Requirements ____________________________________________________ 25 4.3.1 Results _________________________________________________________________________ 25 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 3 of 75 Index of Tables 4.4 Peak Power Spectral Density _________________________________________________ 30 4.4.1 Test Method _____________________________________________________________________ 30 4.4.2 Results _________________________________________________________________________ 31 4.5 Transmitter Spurious Emissions ______________________________________________ 35 4.5.1 Test Methodology _________________________________________________________________ 35 4.5.2 Transmitter Spurious Emission Limit __________________________________________________ 36 4.5.3 Test Results ______________________________________________________________________ 36 4.5.4 Sample Calculation ________________________________________________________________ 53 4.6 Receiver Spurious Emissions _________________________________________________ 54 4.6.1 Test Methodology _________________________________________________________________ 54 4.6.2 Receiver Spurious Emission Limit ____________________________________________________ 55 4.6.3 Test Results ______________________________________________________________________ 55 4.7 AC Conducted Emissions ____________________________________________________ 60 4.7.1 Test Methodology _________________________________________________________________ 60 4.7.2 Test Results ______________________________________________________________________ 60 4.7.3 Test Setup Photos _________________________________________________________________ 65 5 Test Equipment Use List ___________________________________________________ 69 5.1 Equipment List ____________________________________________________________ 69 6 EMC Test Plan __________________________________________________________ 70 Introduction _______________________________________________________________ 70 Customer _________________________________________________________________ 70 Equipment Under Test (EUT) ________________________________________________ 71 Test Specifications __________________________________________________________ 75 6.1 6.2 6.3 6.4 Table 1: Summary of Test Results ............................................................................................................... 6 Table 2: RF Output Power at the Antenna Port Test Results .................................................................. 16 Table 3: Occupied Bandwidth Test Results ............................................................................................ 21 Table 4: Band-Edge Requirements Test Results ..................................................................................... 25 Table 5: Out of band Conducted Emission Test Results ......................................................................... 26 Table 6: Peak Power Spectral Density Test Results ............................................................................... 31 Table 7: Transmit Spurious Emission at Band-Edge Requirements .......................................................... 37 Table 8: AC Conducted Emissions Test Results ..................................................................................... 60 Table 9: Customer Information .................................................................................................................. 70 Table 10: Technical Contact Information .................................................................................................. 70 Table 11: EUT Specifications .................................................................................................................... 71 Table 12: EUT Channel Power Specifications ........................................................................................... 72 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 4 of 75 Index of Tables Table 13: Interface Specifications: None .................................................................................................. 72 Table 14: Supported Equipment : None ..................................................................................................... 72 Table 15: Description of Sample used for Testing ..................................................................................... 72 Table 16: Description of Test Configuration used for Radiated Measurement. ....................................... 73 Table 17: Final Test Mode for 2400 MHz to 2483.5 MHz Band ............................................................... 74 Table 18: Test Specifications ..................................................................................................................... 75 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 5 of 75 TUV Rheinland Scope 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 1 Executive Summary 1.1 Scope This report is intended to document the status of conformance with the requirements of the CFR 47 Part 15.247 2009 and RSS 210: 2010 based on the results of testing performed on Feb 01 to Feb 29, 2012 on the Single Wireless Gas Detector Models CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA manufactured by BW Technologies, LTD. This report only applies to the specific samples tested under the stated test conditions. It is the responsibility of the manufacturer to assure that additional production units of this model are manufactured with identical or EMI equivalent electrical and mechanical components. This report is further intended to document changes and modifications to the EUT throughout its life cycle. All documentation will be included as a supplement. 1.2 Purpose Testing was performed to evaluate the EMC performance of the EUT in accordance with the applicable requirements, procedures, and criteria defined in the application of regulations and application of standards listed in this report. 1.3 Summary of Test Results Table 1: Summary of Test Results Test Test Method ANSI C63.4 2400 MHz to 2483.5 MHz Band Test Parameters

(from Standard) Class B Class B Result Complied Complied Complied Complied Complied Complied Complied Complied Spurious Emission in Received Mode CFR47 15.109, RSS-GEN Sect.7.2.3 Spurious Emission in Transmitted Mode Restricted Bands of Operation AC Power Conducted Emission Occupied Bandwidth Maximum Transmitted Power Peak Power Spectral Density CFR47 15.205, RSS 210 Sect.2.6 CFR47 15.207, RSS-GEN Sect.7.2.2 CFR47 15.247 (a2), RSS GEN Sect.4.4.1 500 kHz CFR47 15.247 (b3), RSS 210 Sect. A.8.4 CFR47 15.247 (e), RSS 210 Sect. A.8.2 CFR47 15.209, RSS-GEN Sect.7.2.3 Class B Class B 30 dBm 8 dBm/ 3 kHz. Bandedge Measurement CFR47 15.247 (d), RSS 210 Sect. A.8.5

-30 dBr Note: Since EUT is portable device where the end user will have the direct contact, RF Exposure/ SAR test requirements are evaluated separately Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 6 of 75 TUV Rheinland Special Accessories 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 1.3.1 Measured values of key parameters Test Test Method ANSI C63.4 2400 MHz to 2483.5 MHz Band Measured value Result Maximum Transmitted Power CFR47 15.247 (b3), RSS 210 Sect. A.8.4 12.12 dBm

(16.30 mWatts) Complied Occupied Bandwidth CFR47 15.247 (a2), RSS GEN Sect.4.4.1 10.23 MHz (6 dB BW) Complied 15.97 MHz

(99% OCBW) Peak Power Spectral Density CFR47 15.247 (e), RSS 210 Sect. A.8.2

-8.30 dBm Complied 53.37 dBuV@

12.06 GHz 32.15 dBuV@

5.48 GHz Complied Complied Spurious Emission in Transmitted Mode CFR47 15.209, RSS-GEN Sect.7.2.3 Spurious Emission in Received Mode CFR47 15.109, RSS-GEN Sect.7.2.3 Note: These are final results after applying duty cyvcle factor of -6.19dB 1.4 Special Accessories No special accessories were necessary in order to achieve compliance. 1.5 Equipment Modifications None Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 7 of 75 TUV Rheinland Accreditations & Endorsements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 2 Laboratory Information 2.1 Accreditations & Endorsements 2.1.1 US Federal Communications Commission TUV Rheinland of North America at 1279 Quarry Ln, Pleasanton, CA 94566 is recognized by the commission for performing testing services for the general public on a fee basis. These laboratory test facilities have been fully described in reports submitted to and accepted by the FCC (US5254). The laboratory scope of accreditation includes: Title 47 CFR Parts 15, 18, and 90. The accreditation is updated every 3 years. 2.1.2 NIST / NVLAP TUV Rheinland of North America is accredited by the National Voluntary Laboratory Accreditation Program, which is administered under the auspices of the National Institute of Standards and Technology. The laboratory has been assessed and accredited in accordance with ISO Guide 17025:1999 and ISO 9002 (Lab Code 500011-0). The scope of laboratory accreditation includes emission and immunity testing. The accreditation is updated annually. 2.1.3 Canada Industry Canada TUV Rheinland of North America at the 1279 Quarry Ln, Pleasanton, CA 94566 address is accredited by Industry Canada for performing testing services for the general public on a fee basis. This laboratory test facilities have been fully described in reports submitted to and accepted by Industry Canada (File Number 2932M-1). This reference number is the indication to the Industry Canada Certification Officers that the site meets the requirements of RSS 212, Issue 1 (Provisional). The accreditation is updated every 3 years. 2.1.4 Japan VCCI The Voluntary Control Council for Interference by Information Technology Equipment

(VCCI) is a group that consists of Information Technology Equipment (ITE) manufacturers and EMC test laboratories. The purpose of the Council is to take voluntary control measures against electromagnetic interference from Information Technology Equipment, and thereby contribute to the development of a socially beneficial and responsible state of affairs in the realm of Information Technology Equipment in Japan. TUV Rheinland of North America at 1279 Quarry Ln, Pleasanton, CA 94566 has been assessed and approved in accordance with the Regulations for Voluntary Control Measures. (Registration Nos. R-3715, G-460, C-4161, C-4162, T-1176, T-1189). Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 8 of 75 TUV Rheinland Test Facilities 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 2.1.5 Acceptance by Mutual Recognition Arrangement The United States has an established agreement with specific countries under the Asia Pacific Laboratory Accreditation Corporation (APLAC) Mutual Recognition Arrangement. Under this agreement, all TUV Rheinland at 1279 Quarry Lane, Pleasanton, CA 94566 test results and test reports within the scope of the laboratory NIST / NVLAP accreditation will be accepted by each member country. 2.2 Test Facilities All of the test facilities are located at 1279 Quarry Lane, Pleasanton, California 94566, USA. The 2305 Mission College, Santa Clara, 95054, USA location is considered a Pleasanton annex. 2.2.1 Emission Test Facility The Semi-Anechoic chamber and AC Line Conducted measurement facility used to collect the radiated and conducted data has been constructed in accordance with ANSI C63.7:1992. The site has been measured in accordance with and verified to comply with the theoretical normalized site attenuation requirements of ANSI C63.4-2009, at a test distance of 3 and 5 meters. The site is listed with the FCC and accredited by NVLAP (Lab Code 500011-0). The 3/5-meter semi-anechoic chamber used to collect the radiated data has been verified to comply with the theoretical normalized site attenuation requirements of ANSI C63.4-2009, at a test distance of 3 meter and 5 meters. A report detailing this site can be obtained from TUV Rheinland of North America. 2.2.2 Immunity Test Facility ESD, EFT, Surge, and PQF: These tests are performed in an environmentally controlled room with a 3.7 m x 4.8 m x 3.175 mm thick aluminum floor connected to PE ground. For ESD testing, tabletop equipment is placed on an insulated mat with a surface resistivity of 109 Ohms/square on a 1.6 m x 0.8 m x 0.8 m high non-conductive table with a 3.175 mm aluminum top

(Horizontal Coupling Plane). The HCP is connected to the main ground plane via a low impedance ground strap through two 470-k resistors. The Vertical Coupling Plane consists of an aluminum plate 50 cm x 50 cm x 3.175 mm thick. The VCP is connected to the main ground plane via a low impedance ground strap through two 470-k resistors. For EFT, Surge, PQF, the HCP and VCP are removed. RF Field Immunity testing is performed in a 7.3m x 4.3m x 4.1m anechoic chamber. RF Conducted and Magnetic Field Immunity testing is performed on a 4.8m x 3.7m x 3.175mm thick aluminum ground plane. All test areas allow a minimum distance of 1 meter from the EUT to walls or conducting objects. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 9 of 75 TUV Rheinland Measurement Uncertainty 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 2.3 Measurement Uncertainty Two types of measurement uncertainty are expressed in this report, per ISO Guide To The Expression Of Uncertainty In Measurement, 1st Edition, 1995. The Combined Standard Uncertainty is the standard uncertainty of the result of a measurement when that result is obtained from the values of a number of other quantities; it is equal to the positive square root of the sum of the variances or co-variances of these other quantities, weighted according to how the measurement result varies with changes in these quantities. The term standard uncertainty is the result of a measurement expressed as a standard deviation. 2.3.1 Sample Calculation radiated & conducted emissions The field strength is calculated by subtracting the Amplifier Gain and adding the Cable Loss and Antenna Correction Factor to the measured reading. The basic equation is as follows:

Field Strength (dBV/m) = RAW - AMP + CBL + ACF Where: RAW = Measured level before correction (dBV) AMP = Amplifier Gain (dB) CBL = Cable Loss (dB) ACF = Antenna Correction Factor (dB/m) Sample radiated emissions calculation @ 30 MHz V/m =

Measurement +Antenna FactorAmplifier Gain+Cable loss=Radiated Emissions

(dBuV/m) 25 dBuV/m + 17.5 dB 20 dB + 1.0 dB = 23.5 dBuV/m 2.3.2 Measurement Uncertainty Radiated Disturbance Ulab 30 MHz 40,000 MHz 3.2 dB Conducted Disturbance @ Mains Terminals 150 kHz 30 MHz Disturbance Power 30 MHz 300 MHz 2.4 dB 3.92 dB Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Ucispr 5.2 dB 3.6 dB 4.5 dB Page 10 of 75 20/10mVdB TUV Rheinland Calibration Traceability 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Measurement Uncertainty Immunity Testing The estimated combined standard uncertainty for ESD immunity measurements is 4.1%. The estimated combined standard uncertainty for radiated immunity measurements is 2.7 dB. The estimated combined standard uncertainty for conducted immunity measurements is 1.4 dB. The estimated combined standard uncertainty for damped oscillatory wave immunity measurements is 8.8%. The estimated combined standard uncertainty for harmonic current and flicker measurements is 0.45%. Measurement Uncertainty Radio Testing The estimated combined standard uncertainty for frequency error measurements is 3.88 Hz The estimated combined standard uncertainty for carrier power measurements is 1.59 dB. The estimated combined standard uncertainty for adjacent channel power measurements is 1.47 dB. The estimated combined standard uncertainty for modulation frequency response measurements is 0.46 dB. The estimated combined standard uncertainty for transmitter conducted emission measurements is 4.01 dB The expanded uncertainty at a level of 95% confidence is obtained by multiplying the combined standard uncertainty by a coverage factor of 2. Compliance criteria are not based on measurement uncertainty. 2.4 Calibration Traceability All measurement instrumentation is traceable to the National Institute of Standards and Technology (NIST). Measurement method complies with ANSI/NCSL Z540-1-1994 and ISO Standard 17025:2005. Equipment calibration records are kept on file at the test facility. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 11 of 75 TUV Rheinland Product Description 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 3 Product Information 3.1 Product Description The ConneX1* wireless gas detector is a new single gas portable gas detector with wireless communication/location features compatible with the current wireless infrastructure mode developed under the Impact Xtreme project (software / firmware / security methods / location engine). The product is primarily designed to meet the refinery (H2S) / chemical plant markets. It safety function is to drive a safety alarm when the monitored gas exceeds its threshold limit set. ConneX1 employs approved radio module with FCC ID: U30-G2M5477. New Inverted F antenna built on to the host PCB and connects to the Udot FL port available on the Transmitter module. Product was modified to transmit at >99% duty cycle for test purpose. BW Technologies declares that all four models have identical electronics except for gas sensor employed. The diffrences and silmilarities of four models are as documented as below CNX1-X1-Y-NA CNX1-H1-Y-NA CNX1-M1-Y-NA CNX1-S1-Y-NA ConneX1, O2 Sensor ConneX1, H2S Sensor ConneX1, CO Sensor ConneX1, SO2 Sensor Model CNX1-H1-Y-NA was used for testing

.*Note: ConneX1 is generic name to represent all four models 3.2 Equipment Configuration A description of the equipment configuration is given in the Test Plan Section. The EUT was tested as called for in the test standard and was configured and operated in a manner consistent with test standards. The EUT was programed to rated power and allowed to reach intended operating conditions. The placement of the EUT system components was guided by the test standard and selected to represent typical installation conditions. In the case of EUT that can operate in more than one configuration, preliminary testing was performed to determine the configuration that produced maximum radiation. The final configuration was selected to produce the worst case radiation for emissions testing and to place the EUT in the most susceptible state for immunity testing. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 12 of 75 TUV Rheinland Operating Mode 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 3.3 Operating Mode A description of the operation mode is given in the Test Plan Section. In the case of an EUT that can operate in more than one state, preliminary testing was performed to determine the operating mode that produced maximum radiation. EUT was programed to operate at > 99% duty for the purpose of testing. This operating mode was selected to produce the worst case radiation for emissions testing and to place the EUT in the most susceptible state for immunity testing. 3.4 Duty Cycle:

ConneX1 operates with worst case duty cycle of 49%, ON time of 49ms in 100ms. Duty calculated as follows 20log (0.49) = -6.19. See the manufactures description of duty cycle placed under test plan Para 6.0 and table 15.0 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 13 of 75 TUV Rheinland Unique Antenna Connector 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 3.5 Unique Antenna Connector An intentional radiator shall be designed to ensure that no antenna other than that furnished by the responsible party shall be used with the device. The use of a permanently attached antenna or of an antenna that uses a unique coupling to the intentional radiator shall be considered sufficient to comply with the provisions of this Section. The manufacturer may design the unit so that a broken antenna can be replaced by the user, but the use of a standard antenna jack or electrical connector is prohibited. This requirement does not apply to carrier current devices or to devices operated under the provisions of CFR47 Parts 15.211, 15.213, 15.217, 15.219, or 15.221. 3.5.1 Results The Single Wireless Gas Detector has one internal antenna. The antenna is Inverted F antenna and is integral part of Host PCB. EUT is compliant. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 14 of 75 TUV Rheinland Output Power Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4 Emission Requirements 2400 MHz to 2483.5 MHz Band Testing was performed in accordance with CFR 47 Part 15.247: 2009 and RSS 210 Annex 8: 2010. These test methods are listed under the laboratorys NVLAP Scope of Accreditation. This test measures the levels emanating from the EUT, thus evaluating the potential for the EUT to cause radio frequency interference to other electronic devices. Procedures described in section 8 of the standard were used. 4.1 Output Power Requirements The maximum output power requirement is the maximum equivalent isotropic radiated power delivering at the transmitting antenna under specified conditions of measurements in the presence of modulation. The maximum output power and harmonics shall not exceed CFR47 Part 15.247 (b3):2009 and RSS 210 A.8.4: 2010 The maximum transmitted power is +30 dBm or 1 Watt. 4.1.1 Test Method The conducted method was used to measure the channel power output according to ANSI C63.10:2009 Section 6.10.3.1. The measurement was performed with modulation per CFR47 Part 15.247 (b3):2009 and RSS 210 A.8.4. This test was conducted on 3 channels in each operating range. The worst mode result indicated below. Test Setup:

RF Shielded Chamber Spectrum Analyzer 16 dB Coupler EUT Power Meter and Sensor Method #1 of Measurement of Digital Transmission Systems Operating under Section 15.247applies since the EUT continuously transmit; where T, Transmission Duration Pulse, is greater than analyzer sweep time. Peak detector was used. Each chain was measured individually and applied the measure-and-sum approach per KDB662911. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 15 of 75 TUV Rheinland Output Power Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.1.2 Results As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Table 2: RF Output Power at the Antenna Port Test Results Test Conditions: Conducted Measurement, Normal Temperature Antenna Type: Internal Power Setting: See test plan Max. Antenna Gain: + 0.0 dBi Signal State: Modulated @ 99%

Ambient Temp.: 21 C Relative Humidity:39%

Operating Channel 2412 MHz Limit

[dBm]

+30.00 2437 MHz

+30.00 2462 MHz

+30.00 802.11b Mode

[dBm]

Duty Cycle 18.29 18.31 18.31

-6.19

-6.19

-6.19 Corrected Power [dBm]

12.09 12.12 12.12 Margin

[dB]

-17.91

-17.82

-17.82 Note: EUT has duty cycle EUT was modified to transmit at 99% for test purpose. EUT normal data rate is1Mbps. Note: Power measurements were performed as indicated in the above table. Only worst case/ limited number of plots are placed in the report. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 16 of 75 TUV Rheinland Output Power Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 1: Maximum Transmitted Power, 2412 MHz at 802.11b, Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 17 of 75 TUV Rheinland Output Power Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 2: Maximum Transmitted Power, 2437 MHz at 802.11b, Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 18 of 75 TUV Rheinland Output Power Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 3: Maximum Transmitted Power, 2462 MHz at 802.11b, 1 Mbps Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 19 of 75 TUV Rheinland Occupied Bandwidth 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.2 Occupied Bandwidth The occupied bandwidth is measured at an amplitude level reduced from the reference level by a specified ratio. The reference level is the level of the highest amplitude signal observed from the transmitter at the fundamental frequency. The 99% bandwidth is the bandwidth in which 99% of the transmitted power occupied. The 6 dB bandwidth is defined the bandwidth of 6 dBr from highest transmitted level of the fundamental frequency. The bandwidth shall be at least 500 kHz per Section CFR47 15.247(a2) 2009 and RSS Gen Sect. 4.4.1:

2010. 4.2.1 Test Method The conducted method was used to measure the occupied bandwidth. The measurement was performed with modulation per CFR47 15.247(a2) 2009 and RSS Gen Sect. 4.4.1:2010. Initial investigation was performed at different data rates and TX chains. The narrowest bandwidths at each operational mode were measured on 3 operating channels. The worst sample result indicated below. Test Setup:

RF Shielded Chamber Spectrum Analyzer 16 dB Coupler EUT Power Meter and Sensor Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 20 of 75 TUV Rheinland Occupied Bandwidth 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.2.2 Results As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Table 3: Occupied Bandwidth Test Results Test Conditions: Conducted Measurement, Normal Temperature and Voltage only Antenna Type: Internal Power Setting: See test plan Max. Antenna Gain: + 0.0 dBi Signal State: Modulated Ambient Temp.: 21 C Relative Humidity:33%

Bandwidth (MHz) for 802.11b Freq.

(MHz) 2412 2437 2462 Limit (kHz) 99% BW 6 dB BW Results 500 500 500 15.95 15.96 15.97 10.23 10.23 10.23 Pass Pass Pass Note: The bandwidth was measured at 1 Mbps for 802.11b mode. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 21 of 75 TUV Rheinland Occupied Bandwidth 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 4: 6 dB Bandwidth at 1Mbit/s Operating Channel 2412 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 22 of 75 TUV Rheinland Occupied Bandwidth 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 5: 6 dB Bandwidth at 1Mbit/s Operating Channel 2437 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 23 of 75 TUV Rheinland Occupied Bandwidth 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 F Figure 6: 6 dB Bandwidth at 1Mbit/s Operating Channel 2462 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 24 of 75 TUV Rheinland Band-edge Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.3 Band-edge Requirements The setup was identical to RF output power measurement. Intentional radiators operating under the alternative provisions to the general emission limits, must be designed to ensure that the 20 dB bandwidth of the emission, or whatever bandwidth may otherwise be specified in the specific rule section under which the equipment operates, is contained within the frequency band designated in the rule section under which the equipment is operated. The requirement to contain the designated bandwidth of the emission within the specified frequency band includes the effects from frequency sweeping, frequency hopping and other modulation techniques that may be employed as well as the frequency stability of the transmitter over expected variations in temperature and supply voltage. If the frequency stability is not specified in the regulations, it is recommended that the fundamental emission be kept within at least the central 80%

of the permitted band in order to minimize the possibility of out-of-band operation. Any frequency outside the band of 2400 MHz to 2483.5 MHz, the power output level must be below 30 dB from the in-band transmitting signal; CFR 47 Part 15.215, 15.247(d) and RSS 210 A8.5 4.3.1 Results The Out of band emission was performed on the conducted test Sample. As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Table 4: Band-Edge Requirements Test Results Test Conditions: Conducted Measurement, Normal Temperature and Voltage only Antenna Type: Internal Power Setting: See test plan Max. Antenna Gain: + 0.0 dBi Signal State: Modulated Ambient Temp.: 21 C Relative Humidity:39%

-30 dB Band-Edge Results Operating Freq. Mode 2412 MHz 1Mbps 2437 MHz 1Mbps 2462 MHz 1Mbps Limit

(dBm)

-23.2

-23.2

-23.4 Measured Value

(dBm)

-31.96

-30.20

-30.10 Result Pass Pass Pass Note: The stated limits for -30 dBr are relative to each individual output per KDB 662911 Method. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 25 of 75 TUV Rheinland Band-edge Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Note: All bandedge measurements were performed as indicated in the above table. Only worst case/

limited number of plots are placed in the report. Table 5: Out of band Conducted Emission Test Results Operating Freq. 2412 MHz 2437 MHz 2462 MHz Mode 1Mbps 1Mbps 1Mbps Result Pass Pass Pass Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 26 of 75 TUV Rheinland Band-edge Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Note: Green Limit Line -20dBr Red Limit line -30dBr Figure 7: Band-edge Requirement at Operating Channel 2412 MHz, Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 27 of 75 TUV Rheinland Band-edge Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Note: Green Limit Line -20dBr Red Limit line -30dBr Figure 8: Band-edge Requirement at Operating Channel 2437 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 28 of 75 TUV Rheinland Band-edge Requirements 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Note: Green Limit Line -20dBr Red Limit line -30dBr Figure 9: Band-edge Requirement at Operating Channel 2462 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 29 of 75 TUV Rheinland Peak Power Spectral Density 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.4 Peak Power Spectral Density According to the CFR47 Part 15.247 (e) and RSS 210 (A8.2), the spectral power density output of the antenna port shall be less than 8 dBm in any 3 kHz band during any time interval of continuous transmission. 4.4.1 Test Method The conducted method was used to measure the channel power output per ANSI C63.10:2009 Section 6.11.2 The measurement was performed with modulation per CFR47 Part 15.247 (e) and RSS 210 (A8.2). This test was conducted on 3 channels in each mode. The worst sample result indicated below. Test Setup:

RF Shielded Chamber Spectrum Analyzer 16 dB Coupler EUT Power Meter and Sensor Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 30 of 75 TUV Rheinland Peak Power Spectral Density 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.4.2 Results As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Table 6: Peak Power Spectral Density Test Results Test Conditions: Conducted Measurement, Normal Temperature and Voltage only Antenna Type: Internal Power Setting: See test plan Max. Antenna Gain: 0.0 dBi Signal State: Modulated Ambient Temp.: 21 C Relative Humidity:39%

Peak Power Spectral Density Freq.

(MHz) Mode

[dBm]

Duty Cycle CF

[dB]

Max. PPSD

[dBm]

Limit

[dBm]

Margin

[dB]

2412 1Mbps 2437 1Mbps 2462 1Mbps

-2.11

-2.92

-2.87

-6.19

-8.30 8.00

-16.30

-6.19

-6.19

-9.11 8.00

-17.11

-9.06 8.00

-17.06

. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 31 of 75 TUV Rheinland Peak Power Spectral Density 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 10: Peak Power Spectral Density for Operating Channel 2412 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 32 of 75 TUV Rheinland Peak Power Spectral Density 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 11: Peak Power Spectral Density for Operating Channel 2437 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 33 of 75 TUV Rheinland Peak Power Spectral Density 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 12: Peak Power Spectral Density for Operating Channel 2462 MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 34 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.5 Transmitter Spurious Emissions Transmitter spurious emissions are emissions outside the frequency range of the equipment when the equipment is in transmitting mode; per requirement of CFR47 15.205, 15.209, 15.247(d), RSS 210 Sect. A.8.5 4.5.1 Test Methodology 4.5.1.1 Preliminary Test A test program that controls instrumentation and data logging was used to automate the preliminary RF emission test procedure. The frequency range of interest was divided into sub-ranges to yield a frequency resolution of approximately 120 kHz and provide a reading at each frequency for no more than 12 of turntable rotation. For each frequency sub-range the turntable was rotated 360 while peak emission data was recorded and plotted over the frequency range of interest in horizontal and vertical antenna polarizations. Preliminary emission profile testing was performed inside the anechoic chamber. The EUT was placed on a 1.0m x 1.5m non-conductive table 80cm above the floor. The EUT was positioned as shown in the setup photographs. The receiving antenna was placed at a distance of 3m at a fixed height of 1m. Measurement equipment was located outside of the chamber. A video camera was placed inside the chamber to view the EUT. 4.5.1.2 Final Test For each frequency measured, the peak emission was maximized by manipulating the receiving antenna from 1 to 4 meters above the ground plane and placing it at the position that produced the maximum signal strength reading. The turntable was then rotated through 360 while observing the peak signal and placing the EUT at the position that produced maximum radiation. The six highest emissions relative to the limit were measured unless such emissions were more than 20 dB below the limit. If less than six emissions are within 20 dB of the limit, than the noise level of the receiver is measured at frequencies where emissions are expected. Multiples of all oscillator and microprocessor frequencies were also checked. Final testing was performed on an NSA compliant test site. The EUT was placed on a 1.0m x 1.5m non-

conductive table 80cm above the ground plane. The placement of EUT and cables were the same as for preliminary testing and is shown in the setup photographs. The final scans performed on the worst axis, Y-Axis, for three operating channels;

2412 MHz, 2437 MHz, and 2462 MHz at 1Mbit/s for 802.11b mode, Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 35 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.5.1.3 Deviations None. 4.5.2 Transmitter Spurious Emission Limit The spurious emissions of the transmitter shall not exceed the values in CFR47 Part 15.205, 15.209: 2009 and RSS 210 A1.1.2 2010.

------------------------------------------------------------------------

Measurement Frequency (MHz) Field strength distance

(microvolts/meter) (meters)

------------------------------------------------------------------------

0.009-0.490...................... 2400/F(kHz) 300 0.490-1.705...................... 24000/F (kHz) 30 1.705-30.0....................... 30 30 30-88............................ 100 ** 3 88-216........................... 150 ** 3 216-960.......................... 200 ** 3 Above 960........................ 500 3 All harmonics and spurious emission which are outside of the restricted band shall be 20 dB below the in-

band emission. 4.5.3 Test Results The final measurement data was taken under the worst case operating modes, configurations, and/or cable positions. It also reflects the results including any modifications and/or special accessories listed in Sections 1.4 and Test Plan. As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 36 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Table 7: Transmit Spurious Emission at Band-Edge Requirements Test Conditions: Radiated Measurement, Normal Temperature and Voltage only Antenna Type: Internal Power Setting: See test plan Max. Antenna Gain: + 0 dBi Signal State: Modulated at 99%

Ambient Temp.: 22 C Relative Humidity:34%

Band-Edge Results Pol ari ty Peak Field Strength Measured Correct ed level Peak Limit dBuV dBuV dBuV Margi n dB Avg Field Strength Measured dBuV Correc ted level dBuV Avg Margi Limit dBuV n dB 64.07 57.88 74.0

-16.12 54.08 51.59 54.00

-6.11 61.35 55.16 74.0

-18.84 48.68 46.19 54.00

-11.51 Result Pass Pass 63.59 57.4 74.0

-16.60 53.41 50.92 54.00

-6.78 Pass 62.69 56.5 74.0

-17.50 50.69 48.2 54.00

-9.50 Pass Operating Channel MHz 2412 2412 2462 2462 H V H V Note: All bandedge measurements were performed as indicated in the above table. Only worst case/

limited number of plots are placed in the report. Duty Cycle correction factor of -6.19dB was applied to the measured field strength. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 37 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 13: Radiated Emission at the Edge for Channel 2412 MHz at 1Mbps Horizontal (Peak) Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 38 of 75 RBW 1 MHzRF Att 0 dB 32.8 dB Offset A UnitdBVVBW 3 MHzSWT 5 msIN11MARef Lvl 119.8 dBVRef Lvl 119.8 dBV10 MHz/Center2.4 GHzSpan100 MHz 1VIEW1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 64.07 dBV 2.38607214 GHzF1D1 74 dBVDate: 1.FEB.2012 15:50:59 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 14: Radiated Emission at the Edge for Channel 2412 MHz at 1Mbps Horizontal (Avg) Band edge after duty cycle correction 54.08- 6.19 = 47.89dBuV Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 39 of 75 RBW 1 MHzRF Att 0 dB 32.8 dB Offset A UnitdBVRef Lvl 119.8 dBVRef Lvl 119.8 dBV10 MHz/Center2.4 GHzSpan100 MHz VBW 10 HzSWT 25 sIN11MA1MAX1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 54.08 dBV 2.38567134 GHzF1D1 54 dBVDate: 1.FEB.2012 15:52:41 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 14: Radiated Emission at the Edge for Channel 2412 MHz at 1 Mbps Vertical (Peak) Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 40 of 75 Center2.4 GHzSpan100 MHz10 MHz/Ref Lvl 109.8 dBVRef Lvl 109.8 dBVRBW 1 MHzRF Att 0 dB 32.8 dB Offset A UnitdBV VBW 3 MHzSWT 5 msIN11MA1VIEWD1 74 dBV1MA 20 30 40 50 60 70 80 90 100 9.8 1091Marker 1 [T1] 61.35 dBV 2.38406814 GHzD1 74 dBVF1Date: 1.FEB.2012 15:42:11 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Figure 14: Radiated Emission at the Edge for Channel 2412 MHz at 1 Mbps Vertical (Avg) Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 41 of 75 Center2.4 GHzSpan100 MHz10 MHz/Ref Lvl 109.8 dBVRef Lvl 109.8 dBVRBW 1 MHzRF Att 0 dB 32.8 dB Offset A UnitdBV VBW 10 HzSWT 25 sIN11MA1MAXD1 74 dBV1MA 20 30 40 50 60 70 80 90 100 9.8 1091Marker 1 [T1] 48.68 dBV 2.38607214 GHzD1 74 dBVF1Date: 1.FEB.2012 15:44:17 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 42 of 75 RBW 1 MHz 32.8 dB Offset A UnitdBVCenter2.4835 GHzSpan100 MHz10 MHz/Ref Lvl 119.8 dBVRef Lvl 119.8 dBVRF Att 0 dB VBW 3 MHzSWT 5 msIN11MA1VIEW1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 63.59 dBV 2.48780862 GHzF1D1 74 dBVDate: 1.FEB.2012 16:12:10 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 43 of 75 RBW 1 MHz 32.8 dB Offset A UnitdBVCenter2.4835 GHzSpan100 MHz10 MHz/Ref Lvl 119.8 dBVRef Lvl 119.8 dBVRF Att 0 dB VBW 10 HzSWT 25 sIN11MA1MAX1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 53.41 dBV 2.48780862 GHzF1D1 54 dBVDate: 1.FEB.2012 16:13:50 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 44 of 75 RBW 1 MHz 32.8 dB Offset A UnitdBVCenter2.4835 GHzSpan100 MHz10 MHz/Ref Lvl 119.8 dBVRef Lvl 119.8 dBVRF Att 0 dB VBW 3 MHzSWT 5 msIN11MA1VIEW1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 62.69 dBV 2.48780862 GHzF1D1 74 dBVDate: 1.FEB.2012 16:19:46 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 45 of 75 RBW 1 MHz 32.8 dB Offset A UnitdBVCenter2.4835 GHzSpan100 MHz10 MHz/Ref Lvl 119.8 dBVRef Lvl 119.8 dBVRF Att 0 dB VBW 10 HzSWT 25 sIN11MA1MAX1MA 30 40 50 60 70 80 90 100 110 19.8 1191Marker 1 [T1] 50.69 dBV 2.48780862 GHzF1D1 54 dBVDate: 1.FEB.2012 16:21:34 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Gas wireless detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Comfit. Y-Axis, 18dBm, 802.11b at 1 Mbps Standard Dist/Ant Used 3m / EMCO3115 / 1m - RA42-K-F-4B-C CFR47 Part 15 Subpart C Tracking # 31153356.001 Page 1 of 6 Date Feb 06, 2012 Temp / Hum in 23C / 39%rh Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 1 MHz/ 3 MHz Performed by Suresh Kondapalli Emission FIM FIM Total E-Field Spec Spec Table ANT ANT Type Freq MHz Pk dBuV Ave dBuV CF dB Ave dBuV Limit dBuV Margin dB Pos deg Pos cm Pola Transmitted Data at 2412 MHz 1329.03 45.78 28.8

-7.61 21.19 53.98

-32.79 173 136 1332.58 47.59 27.97

-7.61 20.36 53.98

-33.62 154 100 2040.03 56.88 38.16

-4.59 33.57 53.98

-20.41 124 150 2120.02 51.87 40.29

-4.42 35.87 53.98

-18.11 184 100 2120.02 52.99 41.49

-4.42 37.07 53.98

-16.91 176 198 4824.09 46.78 43.15 2.42 45.57 53.98

-8.41 280 121 7235.04 43.52 31.66 8.02 39.68 53.98

-14.3 178 175 9648.03 40.86 31.24 10.59 41.83 53.98

-12.15 208 110 V V H V H H H H Spurious Spurious Spurious Spurious Spurious Harmonic Harmonic Harmonic 53.37 14.01 39.36 46.74 12060.9 Spec Margin = E-Field QP - Limit, E-Field QP = FIM QP+ Total CF Uncertainty Total CF= Amp Gain + Cable Loss + ANT Factor Combined Standard Uncertainty uc(y) = 3.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence Notes: Worst case was observed on Y-axis, 1 Mbps. No duty cycle reduction was applied. Low, mid and high channels were evaluated for 30 MHz to 26MHz, only worst case results are reported here. 53.98

-0.61 180 124 H Harmonic Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 46 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Tracking # 31153356.001 Page 2 of 6 SOP 1 Radiated Emissions EUT Name EUT Model Single Gas Wireless Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Y-Axis, 18dBm, 1 Mbps CFR47 Part 15 Subpart C EUT Serial EUT Config. Standard Dist/Ant Used 3m - EMCO3115 / 1m - RA42-K-F-4B-C Date Temp / Hum in 23C / 39%rh Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac 60Hz 1MHz / 3MHz Suresh Kondapalli Above 1 GHz Plots for Transmit Mode at 2412 MHz, 802.11b 1Mbit/s Notes: Limit was extrapolated to 1m distance for 18GHz 25 GHz range. 1 GHz 25 GHz Setting: RBW = 1MHz/ VBW = 3MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 47 of 75 TUV Rheinland of North America1GHz to 18GHz Radiated Emission at 3 MeterCFR47 Part 151.0G3.0G5.0G7.0G9.0G11.0G13.0G15.0G17.0GFrequency (GHz)010.020.030.040.050.060.070.080.090.0100.0Amplitude (dBuV/m)12:08:15 PM, Monday, February 06, 2012FCC 15.247 Ch#1TX ON_ feb 06.TILOperator: Suresh KCompany - BW Technologies, IncProduct - Gas SensorModel - Connex 1Vertical DataPart 15.209 (Pk)Part 15.209 (Ave.)Horizontal Data TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Gas detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 18dBm, 802.11b at 1 Mbps Standard Dist/Ant Used 3m / EMCO3115 / 1m - RA42-K-F-4B-C CFR47 Part 15 Subpart C Tracking # 31153356.001 Page 3 of 6 Date Feb 06, 2012 Temp / Hum in 23C / 39%rh Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 1 MHz/ 3 MHz Performed by Suresh Kondapalli Emission FIM FIM Total E-Field Spec Spec Table ANT ANT Type Freq Pk QP/Ave CF QP/Ave Limit Margin Pos Pos Pola MHz dBuV dBuV dB dBuV dBuV dB deg cm Transmitted Data at 2437 MHz 62.048 56.19 49.23

-16.45 32.78 40.00

-7.22 159 100 240.05 54.28 50.17

-10.33 39.84 46.02

-6.18 21 100 374.97 48.79 47.62

-7.46 40.16 46.02

-5.86 163 156 406.00 45.11 44.52

-6.57 37.94 46.02

-8.08 15 106 1128.56 40.69 27.81

-8.55 19.26 53.98

-34.72 173 136 1225.2 44.97 28.61

-7.95 20.66 53.98

-33.32 154 100 1956.71 40.14 25.76

-4.73 21.03 53.98

-32.95 124 150 2144.26 51.63 39.65

-4.25 35.4 53.98

-18.58 184 100 4873.95 45.93 41.14 2.52 43.66 53.98

-10.32 176 198 4874.03 45.63 40.81 2.52 43.33 53.98

-10.65 280 121 7310.16 45.47 35.57 8.29 43.86 53.98

-10.12 178 175 7312.08 44.35 33.52 8.29 41.81 53.98

-12.17 208 110 9747.97 44.28 37.74 10.66 48.4 53.98

-5.58 180 124 12185.8 41.2 33.64 14.37 48.01 53.98

-5.97 173 136 14622.0 38.51 31.8 18.75 50.55 53.98

-3.43 154 100 19495.9 55.04 39.38 11.55 50.93 53.98

-3.07 175 100 19495.9 53.82 37.25 11.55 48.8 53.98

-5.18 227 100 V V V H H H H H H H H V H H H V H Spurious Spurious Spurious Spurious Spurious Spurious Spurious Spurious Harmonic Harmonic Harmonic Harmonic Harmonic Harmonic Harmonic Harmonic Harmonic Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 48 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Spec Margin = E-Field QP - Limit, E-Field QP = FIM QP+ Total CF Uncertainty Total CF= Amp Gain + Cable Loss + ANT Factor Combined Standard Uncertainty uc(y) = 3.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence Notes: Worst case was observed on Y-axis, 1 Mbps. No duty cycle reduction was applied. Low, mid and high channels were evaluated for 30 MHz to 26MHz, only worst case results are reported here. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 49 of 75 TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 18dBm, 1 Mbps Standard Dist/Ant Used 3m - EMCO3115 / 1m - RA42-K-F-4B-C CFR47 Part 15 Subpart C Tracking # 31153356.001 Page 5 of 6 Date Temp / Hum in Feb 06, 2012 23C / 39%rh Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac 60Hz 1MHz / 3MHz Suresh Kondapalli Above 1 GHz Plots for Transmit Mode at 2437 MHz, 802.11b 1Mbit/s Notes: Limit was extrapolated to 1m distance for 18GHz 25 GHz range. 1 GHz 25 GHz Setting: RBW = 1MHz/ VBW = 3MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 50 of 75 TUV Rheinland of North America1GHz to 18GHz Radiated Emission at 3 MeterCFR47 Part 151.0G3.0G5.0G7.0G9.0G11.0G13.0G15.0G17.0GFrequency (GHz)010.020.030.040.050.060.070.080.090.0100.0Amplitude (dBuV/m)12:08:15 PM, Monday, February 06, 2012FCC 15.247 Ch#1TX ON_ feb 06.TILOperator: Suresh KCompany - BW Technologies, IncProduct - Gas SensorModel - Connex 1Vertical DataPart 15.209 (Pk)Part 15.209 (Ave.)Horizontal DataTUV Rheinland of North AmericaRadiated Emissions 18 to 26 GHz at 1 meter DistanceFCC Class 15.20918.0G20.0G22.0G24.0G26.0GFrequency (GHz)010.020.030.040.050.060.070.080.090.0100.0Amplitude (dBuV)03:13:12 PM, Thursday, February 16, 2012Ch#6 18 to 26GHz.TILOperator: Suresh KCompany - BW Technologies, Inc Product - Wireless Gas DetectorModel - ConneX1Mode - CH#6VerticalHorizontalFCC Class AAverage TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Gas detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 18dBm, 802.11b at 1 Mbps Standard Dist/Ant Used 3m / EMCO3115 / 1m - RA42-K-F-4B-C CFR47 Part 15 Subpart C Tracking # 31153356.001 Page 5 of 6 Date Feb 06, 2012 Temp / Hum in 23C / 39%rh Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 1 MHz/ 3 MHz Performed by Suresh Kondapalli Emission FIM FIM Total E-Field Spec Spec Table ANT ANT Type Freq Pk Ave CF Ave Limit Margin Pos Pos Pola Transmitted Data at 2472 MHz 1329.75 46 29.22

-7.61 21.61 53.98

-32.37 124 100 2142.41 56.05 42.06

-4.26 37.79 53.98

-16.19 220 121 4923.97 47.34 43.12 2.6 45.72 53.98

-8.26 97 110 7385.34 44.88 36.03 8.24 44.27 53.98

-9.71 103 108 9848.09 45.52 38.48 11.13 49.61 53.98

-4.37 128 178 12309.1 40.71 33.9 14.39 48.29 53.98

-5.69 141 156 12310.9 44.91 36.2 14.39 50.59 53.98

-3.39 138 182 H H H H H V H Spurious Spurious Harmonic Harmonic Harmonic Harmonic Harmonic 34.8 42.07 19.05 23.02 14772.2 Spec Margin = E-Field QP - Limit, E-Field QP = FIM QP+ Total CF Uncertainty Total CF= Amp Gain + Cable Loss + ANT Factor Combined Standard Uncertainty uc(y) = 3.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence Notes: Worst case was observed on Y-axis, 1 Mbps. No duty cycle reduction was applied. Low, mid and high channels were evaluated for 30 MHz to 26MHz, only worst case results are reported here.

-11.91 53.98 100 94 H Harmonic Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 51 of 75 SOP 1 Radiated Emissions EUT Name EUT Model TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Tracking # 31153356.001 Page 6 of 6 Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Y-Axis, 1 Mbps CFR47 Part 15 Subpart C EUT Serial EUT Config. Standard Dist/Ant Used 3m - EMCO3115 / 1m - RA42-K-F-4B-C Date Temp / Hum in February 08, 2012 23C / 40%rh Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac 60Hz 1MHz / 3MHz Suresh Kondapalli Above 1 GHz Plots for Transmit Mode at 2462 MHz, 802.11b 1Mbit/s Notes: Limit was extrapolated to 1m distance for 18GHz 25 GHz range. 1 GHz 25 GHz Setting: RBW = 1MHz/ VBW = 3MHz Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 52 of 75 TUV Rheinland of North America1GHz to 18GHz Radiated Emission at 3 MeterCFR47 Part 151.0G3.0G5.0G7.0G9.0G11.0G13.0G15.0G17.0GFrequency (GHz)010.020.030.040.050.060.070.080.090.0100.0Amplitude (dBuV/m)02:42:41 PM, Monday, February 06, 2012FCC 15.247 Ch#11 TX ON_ feb 06.TILOperator: Suresh KCompany - BW Technologies, IncProduct - Gas SensorModel - Connex 1Vertical DataPart 15.209 (Pk)Part 15.209 (Ave.)Horizontal Data TUV Rheinland Transmitter Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.5.4 Sample Calculation The field strength is calculated by subtracting the Amplifier Gain and adding the Cable Loss and Antenna Correction Factor to the measured reading. The basic equation is as follows:

Field Strength (dBV/m) = FIM - AMP + CBL + ACF Where: FIM = Field Intensity Meter (dBV) AMP = Amplifier Gain (dB) CBL = Cable Loss (dB) ACF = Antenna Correction Factor (dB/m) V/m =

Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 53 of 75 20/10mVdB TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.6 Receiver Spurious Emissions Receiver spurious emissions are emissions at any frequency when the equipment is in receive mode. The spurious emissions of the receiver shall not exceed the values in CFR47 Part 15.109 and RSS GEN Sect 6.1. 4.6.1 Test Methodology 4.6.1.1 Preliminary Test A test program that controls instrumentation and data logging was used to automate the preliminary RF emission test procedure. The frequency range of interest was divided into sub-ranges to yield a frequency resolution of approximately 120 kHz and provide a reading at each frequency for no more than 12 of turntable rotation. For each frequency sub-range the turntable was rotated 360 while peak emission data was recorded and plotted over the frequency range of interest in horizontal and vertical antenna polarizations. Preliminary emission profile testing was performed inside the anechoic chamber. The EUT was placed on a 1.0m x 1.5m non-conductive table 80cm above the floor. The EUT was positioned as shown in the setup photographs. The receiving antenna was placed at a distance of 3m at a fixed height of 1m. Measurement equipment was located outside of the chamber. A video camera was placed inside the chamber to view the EUT. 4.6.1.2 Final Test For each frequency measured, the peak emission was maximized by manipulating the receiving antenna from 1 to 4 meters above the ground plane and placing it at the position that produced the maximum signal strength reading. The turntable was then rotated through 360 while observing the peak signal and placing the EUT at the position that produced maximum radiation. The six highest emissions relative to the limit were measured unless such emissions were more than 20 dB below the limit. If less than six emissions are within 20 dB of the limit, than the noise level of the receiver is measured at frequencies where emissions are expected. Multiples of all oscillator and microprocessor frequencies were also checked. Final testing was performed on an NSA compliant test site. The EUT was placed on a 1.0m x 1.5m non-

conductive table 80cm above the ground plane. The placement of EUT and cables were the same as for preliminary testing and is shown in the setup photographs. 4.6.1.3 Deviations None. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 54 of 75 TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.6.2 Receiver Spurious Emission Limit The spurious emissions of the receiver shall not exceed the values in CFR47 Part 15.109: 2009 and RSS GEN Sect 6.1 2010.

------------------------------------------------------------------------

Measurement Frequency (MHz) Field strength distance

(microvolts/meter) (meters)

------------------------------------------------------------------------

0.009-0.490...................... 2400/F(kHz) 300 0.490-1.705...................... 24000/F(kHz) 30 1.705-30.0....................... 30 30 30-88............................ 100 ** 3 88-216........................... 150 ** 3 216-960.......................... 200 ** 3 Above 960........................ 500 3 4.6.3 Test Results The final measurement data indicates the worst case operating modes, configurations, and/or cable positions. It also reflects the results including any modifications and/or special accessories listed in Sections 1.4 and 1.5. As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). 4.6.3.1 Final Data The data recorded in this section contains the final results under the worst-case conditions and without any modifications or special accessories implemented as the manufacturer intends. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 55 of 75 TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 802.11b, RX at Ch6, 1 Mbps Standard Dist/Ant Used 3m / EMCO3115 / 1m - RA42-K-F-4B-C CFR47 Part 15 Subpart C Tracking # 31153356.001 Page 1 of 3 Date Temp / Hum in 23C / 39%rh February 13, 2012 Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 1 MHz/ 3 MHz Performed by Suresh Kondapalli Emission FIM FIM Total E-Field Spec Spec Table ANT ANT Type Freq Pk QP/Ave CF Ave Limit Margin Pos Pos Pola 32.9238 23.19 19.47

-6.49 12.98 40.00

-27.02 201 100 52.2725 28.38 21.04

-17.35 3.69 40.00

-36.31 126 224 125.299 22.85 19.09

-9.41 9.68 43.52

-33.84 204 150 137.579 22.66 19.29

-10.19 9.1 43.52

-34.42 126 209 170.898 22.19 18.95

-11.05 7.90 43.52

-35.62 325 258 545.137 23.1 19.06

-4.88 14.18 46.02

-31.84 220 110 898.904 21.36 18.27 0.68 18.95 46.02

-27.07 184 120 1328.94 45.25 29.32

-7.61 21.71 53.98

-32.27 220 134 2116.25 40.97 26.29

-4.45 21.84 53.98

-32.14 325 100 V V V H V V V H H Spurious Spurious Spurious Spurious Spurious Spurious Spurious Spurious Spurious 4.28 32.15 27.87 29.16 5486.87 Spec Margin = E-Field QP - Limit, E-Field QP = FIM QP+ Total CF Uncertainty Total CF= Amp Gain + Cable Loss + ANT Factor Combined Standard Uncertainty uc(y) = 3.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence Notes: Worst case was observed on Y-axis, 1 Mbps. Notes: Tested on the Y-Axis at Ch 6. 30 MHz 1 GHz: RBW=120 kHz,VBW=300 kHz 1 GHz 25 GHz:

RBW=1MHz, VBW=3MHz

-21.83 53.98 124 100 H Spurious Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 56 of 75 TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 1 Radiated Emissions EUT Name EUT Model Single Wireless gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 802.11b, RX at Ch6 Standard CFR47 Part 15.109, Class A Dist/Ant Used 3m / JB3 & EMCO3115 Tracking # 31153356.001 Page 2 of 3 Date Temp / Hum in 22C / 40%rh February 13, 2012 Temp / Hum out N/A Line AC / Freq 120Vac 60Hz RBW / VBW Performed by See Note Suresh Kondapalli Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 57 of 75 TUV Rheinland of North AmericaMeasured at 3 meter distanceHorizontal30.00M230.00M430.00M630.00M830.00MFrequency MHz05.010.015.020.025.030.035.040.045.050.055.060.065.070.075.080.0Amplitude dBuV04:39:15 PM, Friday, February 17, 2012RE 30 -1000MHz FCC Class B at 3 meters.TILOperator: Suresh KCompany - BW TechnologiesProduct - Wireless Gas DetectorModel # - ConneX1Horizontal ScanFCC Class BTUV Rheinland of North AmericaMeasured at 3 meter distanceVertical30.00M230.00M430.00M630.00M830.00MFrequency MHz05.010.015.020.025.030.035.040.045.050.055.060.065.070.075.080.0Amplitude dBuV04:39:16 PM, Friday, February 17, 2012RE 30 -1000MHz FCC Class B at 3 meters.TILOperator: Suresh KCompany - BW TechnologiesProduct - Wireless Gas DetectorModel # - ConneX1Vertical ScanFCC Class B TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Notes : None SOP 1 Radiated Emissions EUT Name Single Wireless Gas Detector EUT Model CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA EUT Serial EUT Config. Y-Axis, 802.11b, RX at Ch6 Standard CFR47 Part 15.109, Class A Dist/Ant Used 3m / JB3 Tracking # 31153356.00 Page 3 of 3 1 Date February 13, 2012 Temp / Hum in 22C / 40%rh Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac 60Hz 120 kHz / 300 kHz Suresh Kondapali Above 1 GHz Plot for Receive Mode Notes: All emission above 18GHz are at least 20dB below the limit Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 58 of 75 TUV Rheinland of North America1GHz to 18GHz Radiated Emission at 3 MeterCFR47 Part 151.0G3.0G5.0G7.0G9.0G11.0G13.0G15.0G17.0GFrequency (GHz)010.020.030.040.050.060.070.080.090.0100.0Amplitude (dBuV/m)Operator: Suresh KCompany - BW Technologies, IncProduct - Gas SensorModel - Connex 1Mode - ReceiveVertical DataPart 15.209 (Pk)Part 15.209 (Ave.)Horizontal Data TUV Rheinland Receiver Spurious Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Sample Calculation The field strength is calculated by subtracting the Amplifier Gain and adding the Cable Loss and Antenna Correction Factor to the measured reading. The basic equation is as follows:

Field Strength (dBV/m) = FIM - AMP + CBL + ACF Where: FIM = Field Intensity Meter (dBV) AMP = Amplifier Gain (dB) CBL = Cable Loss (dB) ACF = Antenna Correction Factor (dB/m) V/m =

Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 59 of 75 20/10mVdB TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.7 AC Conducted Emissions Testing was performed in accordance with ANSI C63.4-2009. These test methods are listed under the laboratorys NVLAP Scope of Accreditation. This test measures the levels emanating from the EUTs AC input port, thus evaluating the potential for the EUT to cause radio frequency interference to other electronic devices. The AC conducted emissions of equipment under test shall not exceed the values in CFR47 Part 15.207:

2009 and RSS 210: 2010. 4.7.1 Test Methodology A test program that controls instrumentation and data logging was used to automate the AC Power Line Conducted emission test procedure. The frequency range of interest was divided into sub-ranges such as to yield a frequency resolution of 9 kHz. Each phase and neutral of the AC power line were measured with respect to ground. Measurements were performed using a set of 50H / 50 LISNs. Testing is either performed inLab 5. The setup photographs clearly identify which site was used. The vertical ground plane used in the semi-anechoic chamber is a 2m x 2m solid aluminum frame and panel, and it is bonded to the horizontal ground plane. In the case of tabletop equipment, the EUT is placed on a 1.0m x 1.5m non-conductive table 80cm above the ground plane and 40cm from a vertical ground reference plane. The rear of the EUT was positioned flush with the backside of the table and directly over the LISNs. The power and I/O cables were routed over the edge of the table and bundled approximately 40cm from the ground plane. Support equipment was powered from a separate LISN. 4.7.1.1 Deviations There were no deviations from this test methodology. 4.7.2 Test Results As originally tested, the EUT was found to be compliant to the requirements of the test standard(s). Table 8: AC Conducted Emissions Test Results Test Conditions: Conducted Measurement at Normal Conditions only Antenna Type: Internal Power Level: See Test Plan AC Power: 120 Vac/60 Hz Configuration: Tabletop/ Portable Ambient Temperature: 23 C Relative Humidity: 34% RH Configuration Frequency Range Test Result Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 60 of 75 TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Line 1 (Hot) Line 2 (Neutral) 0.15 to 30 MHz 0.15 to 30 MHz Pass Pass SOP 2 Conducted Emissions EUT Name EUT Model Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Internal Antenna CFR47 Part 15.207 Lab #5 / Com-Power LI-215, Line 1 EUT Serial EUT Config. Standard Lab/LISN Tracking # 31153356.001 Page 1 of 4 Date Temp / Hum in 23 C / 34% rh February 07, 2012 Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 9kHz / 30 kHz Performed by Suresh Kondapalli Frequency Quasi-Peak QP Limit QP Margin Average Ave Limit Ave Margin MHz dBuV dBuV 0.150 0.182 0.372 0.504 0.536 0.915 44.03 42.92 37.85 36.60 36.16 25.54 65.99 65.08 59.65 56.00 56.00 56.00 dB

-21.96

-22.16

-21.80

-19.40

-19.84

-30.46 dBuV 14.05 11.50 6.77 5.21 4.72

-4.52 dBuV 55.99 55.08 49.65 46.00 46.00 46.00 dB

-41.94

-43.58

-42.87

-40.79

-41.28

-50.52 Spec Margin = QP./Ave. - Limit, Uncertainty Combined Standard Uncertainty uc(y) = 1.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 61 of 75 TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 2 Conducted Emissions Tracking # 31153356.001 Page 2 of 4 EUT Name EUT Model EUT Serial EUT Config. Standard Lab/LISN Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Internal Antenna CFR47 Part 15.207 Lab #5 / Com-Paq LI-215, Line 1 Date Temp / Hum in 23 C / 34% rh February 07, 2012 Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac/60Hz 9kHz / 30 kHz Suresh Kondapalli 150 kHz to 30 MHz Plot for Line 1 (Hot) Notes: Met FCC Class B limit. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 62 of 75 TUV Rheinland of North America150kHz to 30MHzFCC Class B (Line 1)100.0K1.0M10.0M100.0MFrequency MHz010.020.030.040.050.060.070.080.090.0100.0Amplitude dBuV03:41:43 PM, Tuesday, February 07, 2012CE _120V 60Hz.TILOperator: Suresh KTest Voltage: 120Vac 60HzUsing CISPR LimitProject - Company - BW Technologies, IncModel Number - Connex1Serial # - Contact - Contact - 120V 60HzAverageQuasi-PeakQP LimitAve LimitPeakPeak TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 2 Conducted Emissions EUT Name EUT Model Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Internal Antenna CFR47 Part 15.107 Lab #5 / Com-Power LI-215, Line 2 EUT Serial EUT Config. Standard Lab/LISN Tracking # 31153356.001 Page 3 of 4 Date Temp / Hum in 23 C / 34% rh February 07, 2012 Temp / Hum out N/A Line AC / Freq 120Vac/60Hz RBW / VBW 9kHz / 30 kHz Performed by Suresh Kondapalli Frequency Quasi-Peak QP Limit QP Margin Average Ave Limit Ave Margin MHz dBuV dBuV dB dBuV dBuV dB 0.151 0.184 0.372 0.498 0.521 45.54 44.09 38.01 36.14 35.69 65.98 65.03 59.66 56.05 56.00

-20.44

-20.94

-21.65

-19.91

-20.31 15.18 12.68 6.61 5.37 4.60 55.98 55.03 49.66 46.05 46.00 27.07 0.610 56.00 Spec Margin = QP./Ave. - Limit, Uncertainty Combined Standard Uncertainty uc(y) = 1.2 dB Expanded Uncertainty U = kuc(y) k = 2 for 95% confidence

-28.93 46.00

-2.40

-40.80

-42.35

-43.05

-40.67

-41.39

-48.40 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 63 of 75 TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 SOP 2 Conducted Emissions EUT Name EUT Model Single Wireless Gas Detector CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-

NA and CNX1-S1-Y-NA CNX1-H1-Y-NA Internal Antenna CFR47 Part 15.107 Lab #5/ Com-Paq LI-215, Line 2 Tracking # 31153356.001 Page 4 of 4 Date Temp / Hum in 23 C / 34% rh February 07, 2012 Temp / Hum out N/A Line AC RBW / VBW Performed by 120Vac/60Hz 9kHz / 30 kHz Suresh Kondapalli EUT Serial EUT Config. Standard Lab/LISN 150 kHz to 30 MHz Plot for Line 2 (Neutral) Note: Meet FCC Class B Limit. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 64 of 75 TUV Rheinland of North America150kHz to 30MHzFCC Class B (Line 2)100.0K1.0M10.0M100.0MFrequency MHz010.020.030.040.050.060.070.080.090.0100.0Amplitude dBuV03:55:55 PM, Tuesday, February 07, 2012CE _120V 60Hz.TILOperator: Suresh KTest Voltage: 120Vac 60HzUsing CISPR LimitProject - Company - BW Technologies, IncModel Number - Connex1Serial # - Contact - Contact - 120V 60HzQuasi-PeakAveragePeakPeakQP LimitAve Limit TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 4.7.3 Test Setup Photos Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 65 of 75 AC Conducted Emissions TUV Rheinland 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 66 of 75 TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 67 of 75 TUV Rheinland AC Conducted Emissions 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 68 of 75 TUV Rheinland Equipment List 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 5 Test Equipment Use List 5.1 Equipment List Equipment Manufacturer Model #

Serial/Inst #

Last Cal dd/mm/yy Next Cal dd/mm/yy Bilog Antenna Sunol Science JB3 A061907 5/14/2010 5/14/2012 Horn Antenna Sunol Scienece DRH-118 A040806 9/29/2010 9/29/2012 Antenna (18-26GHz) CMT RA42-K-F-4B-C 020131-004 1/17/2012 1/17/2013 EMI Receiver Hewlett Packard Preselector Hewlett Packard Amplifier Hewlett Packard Spectrum Analyzer Rhode&Schwarz Amplifier Amplifier Rhode&Schwarz Rhode&Schwarz Signal Generator Anritsu Notch Filter Notch Filter Micro-Tronics Micro-Tronics 8546A 85460A 8447D ESIB TS-PR18 TS-PR26 MG3694A BRM50702 BRC50705 3807A00445 1/17/2012 1/17/2013 3704A00407 1/17/2012 1/17/2013 2944A07996 1/16/2012 1/16/2013 832427/002 1/17/2012 1/17/2013 3545.7008.03 9/29/2010 9/29/2012 100011 1/16/2012 1/16/2013 42803 1/17/2012 1/17/2013 37 9 1/17/2012 1/17/2013 1/17/2012 1/17/2013 High Pass Filter (3.5 GHz) Hewlett Packard 84300-80038 820004 1/17/2012 1/17/2013 High Pass Filter (8.5 GHz) Micro-Tronics HPM50107 4 1/17/2012 1/17/2013 Digital Multimeter LISN Signal Generator Spectrum Analyzer Fluke Com-Paq Anritsu Agilent 177 LI-215 MG3694A E4407B 92780314 1/18/2012 1/18/2013 24548 42803 1/19/2012 1/19/2013 1/17/2012 1/17/2013 SG43330468 10/05/2011 10/05/2012

* Calibration of equipment past due for re-calibration will be performed expeditiously. If any equipment is found to be out of tolerance at that time, affected customers will be notified accordingly. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 69 of 75 TUV Rheinland Introduction 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 6 EMC Test Plan 6.1 Introduction This section provides a description of the Equipment Under Test (EUT), configurations, operating conditions, and performance acceptance criteria. It is an overview of information provided by the manufacturer so that the test laboratory may perform the requested testing. 6.2 Customer Table 9: Customer Information Company Name BW Technologies, LTD Address 2840 2nd Avenue SE City, State, Zip Calgary, Alberta, T2A 7X9 Country Canada Phone 781-708-6777 Fax None Table 10: Technical Contact Information Name E-mail Phone Fax Paul Silva Paul.silva@honeywell.com 781-708-6777 None Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 70 of 75 TUV Rheinland Equipment Under Test (EUT) 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 6.3 Equipment Under Test (EUT) Table 11: EUT Specifications Dimensions AC Adapter (For charging only) Environment EUT Specification 116mm x 72mm x 37mm Input Voltage: 100- 240 Vac, 50-60 Hz Input Current: 600 mA Output Voltage: 3.4 4.2 Vdc Output Current: 400 mA Peak Portable Hoz Loc Operating Temperature Range:

-20 to +55 degrees C Multiple Feeds:

Hardware Version Part Number RF Software Version Yes and how many No None None None Radio Module 802.11-radio module Operating Mode 802.11b, Transmitter Frequency Band Max. Rated Power Output Power Setting @

Operating Channel Antenna Type Modulation Type 2.400 GHz to 2.4835 GHz See Channel Planning Table. See Channel Planning Table. Internal Antenna 0.0 dBi AM Other describe: CCK, FM DSSS OFDM Date Rate 802.11b: 1 Mbps TX/RX Chain (s) 1 Directional Gain Type Type of Equipment Uncorrelated Other describe:

Table Top Wall-mount Other Portable No Beam-Forming Floor standing cabinet Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 71 of 75 TUV Rheinland Equipment Under Test (EUT) 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Table 12: EUT Channel Power Specifications No. Frequency (MHz) 1 2 3 2412 2417 2422 802.11b 18.29 18.31 18.31 Note: 1. The power levels shown here are with 100% duty cycle. Duty cycle factor for a comparison with limits. 2. This report only documents frequency ranges 2400-2483.5 MHz Table 13: Interface Specifications: None Table 14: Supported Equipment : None Table 15: Description of Sample used for Testing Duty cycle description: EUT in actual operation works on duty cycle as described below by BW technologies;

The following text is taken from email received from BW Technologies The software limits set on the radio Normal Operation:

Radio transmits 1(255 bit) transmission every 120 seconds Fault Condition:

Radio transmits 1(255 bit) transmission per second for 10 - 20 seconds every 120 seconds Since the fault condition is our worse case duty cycle. ConneX1 transmitts max 255bits in 1min. Max transmit time 49msec for 100ms. The duty cycle calculated as follows Duty cycle 20log (0.49) = -6.19dB Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 72 of 75 TUV Rheinland Equipment Under Test (EUT) 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Device Model/Serial RF Connection CFR47 Part 15.247 Single wireless Gas Detector CNX1-H1-Y-

NA CNX1-H1-Y-

NA Internal antenna SMA Connector

( This was setup by BW Technologies for test purposes only) TX Emission, RX Emission, AC Conducted Emission RF Power Output, Out of Band Emission, Peak Power Spectral Density, Occupied Bandwidth Table 16: Description of Test Configuration used for Radiated Measurement. Device Antenna Mode Setup Photo Setup Photo Setup Photo

(X-Axis)

(Y-Axis)

(Z-Axis) Single Wireless Gas Detector Internal

* Transmit

* Receive Flat on table EUT set on wall laying on longer side. EUT vertical Note: Pre-scans were performed in 3 orthogonal axes and Y-Axis was worst case. Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 73 of 75 TUV Rheinland 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 Table 17: Final Test Mode for 2400 MHz to 2483.5 MHz Band Equipment Under Test (EUT) Test 802.11b Occupied Bandwidth 2412, 2437, 2462 MHz @ 1 Mbps Output Power 2412, 2437, 2462 MHz @ 1 Mbps Peak Power Spectral Density 2412, 2437, 2462 MHz @ 1 Mbps Out-of-Band

(-20 dBr) 2412, 2437, 2462 MHz @ 11 Mbps Band-Edge (Radiated) 2412, and 2462 MHz @ 1 Mbps Transmitted Spurious Emission 2412, 2437, 2462 MHz @ 1 Mbps Received Spurious Emission 2437 MHz AC Conducted Emission 2437 MHz @ 1 Mbps Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 74 of 75 TUV Rheinland Test Specifications 1279 Quarry Lane, Ste. A, Pleasanton, CA 95466 Tel: (925) 249-9123, Fax: (925) 249-9124 6.4 Test Specifications Testing requirements Table 18: Test Specifications Emissions and Immunity Standard Requirement CFR 47 Part 15.247: 2009 RSS 210 Issue 8, 2010 All All END OF REPORT Report Number: 31153356.001 EUT: Single Gas Wireless Detector Models: CNX1-X1-Y-NA, CNX1-H1-Y-NA, CNX1-M1-Y-NA and CNX1-S1-Y-NA EMC / Rev 3/20/2012 FCCID: R90-CONNEX1; IC: 5164A-CONNEX1 Page 75 of 75

 

 

Test Setup Photos

(FCCID: R90-CONNEX1; IC: 5164A-CONNEX1)