FCC ID: 2AZIQFS10C Cipia-FS10

CIPIA-FS10 Product Manual Cipia Vision Ltd. Proprietary & Confidential Page 1 of 38 Table of Contents 1. About this Manual .............................................................................................. 3 1.1. Intended Audience ........................................................................................ 3 1.2. Document Scope .......................................................................................... 3 1.3. Related Documentation ................................................................................. 3 2. Cipia-FS10 Overview ........................................................................................... 4 3. Cipia-FS10 Hardware and Interfaces .................................................................... 6 3.1. Cipia-FS10 Device Basics ............................................................................... 6 3.2. System Building Blocks .................................................................................. 9 3.3. Hardware Specification ................................................................................ 10 3.4. Cable Pinouts and Requirements .................................................................. 13 3.5. Environmental Standards ............................................................................ 14 3.6. Certification ................................................................................................ 14 4. Using Fleet-Sense ............................................................................................. 15 4.1. Solution Architecture ................................................................................... 15 4.2. Operation States and Modes ........................................................................ 15 4.3. Provisioning and Maintenance ...................................................................... 18 4.4. Standard Mode ........................................................................................... 23 4.5. Cipia-FS10 Events ....................................................................................... 27 4.6. Configuration Settings ................................................................................. 30 4.7. Telematics GPIO Signaling ........................................................................... 30 4.8. RS232 Connection ...................................................................................... 30 4.9. Bluetooth ................................................................................................... 31 4.10. Wi-Fi ....................................................................................................... 31 5. Cipia-FS10 HMI ................................................................................................ 33 6. Test and Evaluation Kit ..................................................................................... 36 7. Standards and regulations notices ..................................................................... 37 7.1. FCC ............................................................................................................ 37 7.2. IC .............................................................................................................. 37 7.3 . RED ........................................................................................................... 38 Cipia Vision Ltd. Proprietary & Confidential Page 2 of 38 1. About this Manual 1.1. Intended Audience This product manual is intended for use by product development, technical support, and professional services teams within Telematics Service Providers (TSPs) and software platform providers, who plan to utilize Cipia-FS10 video telematics capabilities as part of their product offering. 1.2. Document Scope The main objectives of this document are to describe the value, purpose, functionality, features and user interfaces of the Cipia-FS10 device. 1.3. Related Documentation The following documents should be used in conjunction with this manual to provide the teams with the full picture covering the scope of work, tools, and resources available and/or required for the successful integration process. Cipia-FS10 Integration Manual Cipia-FS10 EVK quick start Manual Cipia-FS10 OTA Protocols Description Installer App API Description Installer App Manual Server API Document Middleware Description Document Cipia Vision Ltd. Proprietary & Confidential Page 3 of 38 2. Cipia-FS10 Overview Cipia-FS10 is a driver monitoring device with embedded computer vision capabilities. It is designed to improve driver and fleet safety through video telematics applications. The Cipia-FS10 device detects driver drowsiness, distractions, and dangerous actions, providing real-time driver alerts, as well as tailored fleet manager alerts and insights via your fleet management server. The Cipia-FS10 device is an in-cab device which incorporates Cipias driver monitoring software engine and is intended for sales in the fleet management aftermarket segment. Target customers include Telematics Service Providers (TSPs), distributers, resellers, and integrators, as well as big commercial fleets with their own Telematics solution. The system has embedded machine vision hardware resources and is intended to provide real-time monitoring, alerting, and reporting capabilities whenever the driver is drowsy, asleep, or not attentive to the road. The system can optionally connect to an onboard telematics system, or other WAN-connected device in the vehicle, to report real time safety events to the back-end application (in case it is not equipped with its own cellular connectivity resources). The main features and functions of the Cipia-FS10 system include:

Driver state analysis Cipia-FS10 driver state analysis capabilities include detection of:

Driver Distraction based on gaze direction and the analysis of other facial features, alerts when the driver is not looking at the center of the road. Alerts are correlated with the vehicle status (speed, gear, etc.) Driver Drowsiness (fatigue) reporting and alerting when the driver is drowsy or asleep. phone. Mobile phone usage alerting when the driver is holding his mobile Smoking alerting when the driver is identified as smoking. Seat belt usage alerting when the vehicle is moving but the driver is not wearing seatbelt. Cipia Vision Ltd. Proprietary & Confidential Page 4 of 38 Driver identity detection After a short enrollment process, which enables adding a specific driver to the device database, when a driver is recognized, the system reports his ID. This information can be used for driver authentication policies within the fleet. Tamper proofing The system can report when the camera has different faults such as over exposure, blocked camera, cable-disconnect, device displacement etc. Video capture Cipia-FS10 enables the capture of video in the following ways:

Autonomously trigger video capture of the driver during few seconds before and after a safety event detected by the machine vision algorithms. From connected device trigger video capture of the driver during few seconds before and after a safety event detected by a connected device. Server command (Instantaneous) trigger predefined length, immediate video capture of the driver once a command is received from the backend. Server command (DVR) Retrieve footage from on-going digital video recording buffer in SD card, according to the time frames defined in the command. Alerting and reporting methods Cipia-FS10 reports on detected behaviors and events to the:

Driver auditory (both signals and speech), visual and/or haptic (e.g., seat or seatbelt vibration) alerts upon detection of undesired behavior. Fleet manager real-time alerts of hazardous events with or without video footage captured around the time of the detected event. Cipia Vision Ltd. Proprietary & Confidential Page 5 of 38 Cipia-FS10 Hardware and Interfaces 3. 3.1. Cipia-FS10 Device Basics The Cipia-FS10 device is designed to be both functional and attractive. It is professional and robust and suits the vehicle environment. Figure 1: Cipia-FS10 Device Size The dimensions of the product are (excluding mounting accessories) 120mm (L) x 95mm (W) x 30mm (T). The Cipia-FS10 device does not compromise the drivers field of view in an inconvenient or illegal way. Weight The device weights ~390g including harness and mounting arm. Device orientation tuning The device has a mounting arm that allows for 3D movement and provides for the highest installation flexibility while keeping drivers face within the internal camera frame. The mounting arm is lockable and can be installed on the dashboard or windshield, using double-sided adhesive and/or screws. The special screw heads are for professional use only. Cipia Vision Ltd. Proprietary & Confidential Page 6 of 38 In the diagram, X axis is pointing at the driver. Installation cable The installation cable is connected/soldered to the inner-board and comes out of the enclosure surface through a silicone strain-relief that ensures elasticity and strength against pulling. All wires are covered by a single jacket coming out of the device enclosure. Camera & IR LEDs window The enclosure includes an IR-transparent cover for the camera lens and IR LEDs. IR illumination is not visible to the driver. User Interfaces The following mechanical interfaces exist for the MMI features. Figure 2: Cipia-FS10 Device Interfaces Cipia Vision Ltd. Proprietary & Confidential Page 7 of 38 Table: User Interfaces Description SIM/SD cards. Used by technicians and installers during installation or service. Activation/HW reset/Event triggering. Red LED used to provide visual feedback to the driver. For audible signals and speech alerts. Used to record cabin voice (Programmable). Tricolor used to designate system status. Volume control. Micro USB port for debugging servicing and data upload in case events and video footage cannot be uploaded wirelessly. Interface Card door Functional Button Driver Indicator Speaker Mic System LED Volume button USB port Cipia Vision Ltd. Proprietary & Confidential Page 8 of 38 3.2. System Building Blocks The following diagram depicts the Cipia-FS10 devices main building blocks, interconnections, and interfaces. Figure 3: System Building Blocks Cipia Vision Ltd. Proprietary & Confidential Page 9 of 38 3.3. Hardware Specification Figure 4: Cipia-FS10 Device Table: Hardware Specifications Component Description Platform Core Main Processor

(SOC) RAM ROM 1GB 8GB Ambarella CV25 Memory Card Micro SD card slot up to 256GB, exFAT, SDHC/SDXC Watchdog SW controlled for application recovery HW controlled for system recovery Motion Sensor OS 3D Accelerometer / (16g, 12bit, 100Hz or better) Linux v4.14 Cipia Vision Ltd. Proprietary & Confidential Page 10 of 38 Component Description Driver Interface HW Keys LEDs Internal Microphone Cellular1 Wireless Communication 1 x Configurable, multi-purpose 2 +/- Volume keys 1 x System status (3 color) 1 x Driver feedback High sensitivity, omnidirectional LTE CAT4 FDD 1/2/3/4/5/7/8/12/13/17/20/28 (Territories/apps not supported: Japan, FirstNet) GSM 850/900/1800/1900 WCDMA 1/2/4/5/8 (DC-HSPA+) 3FF, Micro SIM (Internal) Band Max power(dBm) Highest Output Power (dBm) GSM 900 GSM 1800 WCDMA Band I WCDMA Band VIII LTE Band 1 LTE Band 3 LTE Band 7 LTE Band 8 LTE Band 20 LTE Band 28 LTE Band 38 LTE Band 40 35 32 25 25 25 25 25 25 25 25 25 25 25.97 22.97 25 25 25 25 25 25 25 25 25 25 GNSS module Wireless LAN 50 Channel, NMEA 0183, AGPS support Satellite Systems Support: GPS, GLONASS, Galileo Wi-Fi 802.11 b/g/n/ac Frequency bands - 2.4G (B1-13) /5G (B36-165) Dual mode support AP and/or Hotspot Band Frequency(MHz) Max Power

(dBm) Highest Output Power

(dBm) 1 FS-LTE-000/ADS only Cipia Vision Ltd. Proprietary & Confidential Page 11 of 38 17 16 13 7.5 8.5 8.5 6 6.5 11.5 Highest Output Power

(dBm) 7 7 Component Description 2412 2412 2412 5150 2462 2462 2462 5250 5150 5250 5150 5250 5725 5850 5725 5850 17 16 13 7.5 8.5 8.5 6 6.5 WI-FI2.4G 802.11b WI-FI2.4G 802.11g WI-FI2.4G 802.11n WI-FI5G U-NII-1 802.11a WI-FI5G U-NII-1 802.11n WI-FI5G U-NII-1 802.11ac WI-FI5G U-NII-3 802.11a WI-FI5G U-NII-3 802.11n WI-FI5G U-NII3 802.11ac 5725 5850 11.5 BT/BLE Dual mode V5.0 Bluetooth Band Frequency(MHz) Max Power

(dBm) Integrated Cameras Driver Facing

(DMS) BT 5.0 BLE 2402 2402 2480 2480 7 7 IR 940nm global shutter 1.25MP monochrome image sensor Fixed focus. Depth of view 40-111cm min 30fps F# 2.05 IR LEDs x 2 Road Facing

(Optional) Preparation only FAKRA CONNECTOR Interface type FPD-LINK III Communication Interfaces RS-232 USB 1 x RS-232 (Tx, Rx, GND) 1 x USB 2.0 Device/host (Micro-USB port) Peripherals Control GPIO Power 1 x Ignition sense. 1 x Input (0 32V). Digital or analog. 1 x Open collector output. 1 x I/O Fully configurable by SW. Input Power Direct vehicle battery connection (7-32V) Cipia Vision Ltd. Proprietary & Confidential Page 12 of 38 Component Description ISO 7637 & 16750 Compliant Li-Ion 3.7V/550mAh - Supports one minute of full functionality and ordered shutdown on power cut-off. Internal Battery Current @ Sleep Mode Current @

System Active

<5mA @ 12V/24V.

<250mA @12V/24V. 3.4. Cable Pinouts and Requirements The Cipia-FS10 device cable is:

Length 2 meters Interface Internal. Pigtail style Table: Cable Pinouts Pin#

1 2 3 4 5 6 7 8 9 10 Signal PWR_IN PWR_GND IGN RS232_TxD RS232_RxD COM_GND GP_IN GP_OUT GP_IO Spare Remarks Red Black Purple Green/Red Yellow/Red Green/Yellow Green Blue Grey Red/Black Cipia Vision Ltd. Proprietary & Confidential Page 13 of 38 3.5. Environmental Standards The Cipia-FS10 device complies with the environmental standards detailed in the table below. Table: Environmental Standards Measure Descriptions Temperature Range Humidity 95% 5%RH @ +40C, non-condensing Operating temp (boot/wakeup): -30C to +70C From battery: -20C to +60C Storage: -30C to +80C IP40 ASTM/ ISTA RoHS II ISO16750 ISO16750 REACH/POPs compliant (European union) Compliant with conflict minerals law UV resistant plastic material IP Drop RoHS REACH / POPs Conflict Minerals Vibration Mechanical Shock UV 3.6. Certification The Cipia-FS10 device meets the following certification standards:

IC (Industrial Canada) FCC CE/RED RCM E-mark RSSC (State Radio Monitoring and Testing Center) PTCRB (for cellular model only) GCF (for the cellular model only) Cipia Vision Ltd. Proprietary & Confidential Page 14 of 38 Using Fleet-Sense 4. 4.1. Solution Architecture The following diagram depicts the various building blocks and optional interfaces of the Cipia-FS10 when integrated into a Telematics solution environment. Figure 5: Solution Architecture Diagram 4.2. Operation States and Modes The Cipia-FS10 application has three operational modes:

1. Installation & Calibration mode used during installation by a professional/certified technician. application engineers. 2. Maintenance mode used during debug or maintenance by technicians or field 3. Standard mode used during normal system operation. Cipia Vision Ltd. Proprietary & Confidential Page 15 of 38 The following table defines the main attributes for each of these operational modes. The Cipia-FS10 device maintains two flags in its non-volatile memory to designate whether the device was ever professionally installed and whether it was calibrated. These flags are set/cleared according to the mode transition events described in the diagram below and can be queried by the server side as part of the device properties query (refer to the Cipia-FS10 Integration Manual). The different operation modes and attributes per each, are detailed in the table below. Figure 6: States and Modes Diagram Cipia Vision Ltd. Proprietary & Confidential Page 16 of 38 Table: Operations Modes

1 Mode Installation and Calibration 2 Maintenance Vehicle state and driver monitoring logic is Activities and Attributes Vehicle and driver monitoring logic engine is inactive. All communication modules are enabled regardless of config settings. Physical installation angles acquisition and store for later detection of tampering. Config file management by installer/technician. Camera calibration process. Face ID enrolment. active. All communication channels are enabled regardless of config settings. Full access to NVM, RAM, SD card. Full access to debug resources. Config file management. Face ID enrolment. Pre-recorded video injection. OS/App/DMS library upgrades. active. settings. System operates according to config file Config file management from Server via defined protocols. 3 Standard Vehicle state and driver monitoring logic is Cipia Vision Ltd. Proprietary & Confidential Page 17 of 38 4.3. Provisioning and Maintenance The features and capabilities of the Cipia-FS10 device typically used during the provisioning and maintenance phases of the device life cycle are described below. Config File Changes It is possible to alter the configuration file parameters, before or after installation using one of the following connection modes:

Backend application over cellular/Wi-Fi networks (entire file only). Mobile app via BT/Wi-Fi connectivity (either discrete parameter or as a PC via USB (either discrete parameter or as a complete file). Backend application through Telematics device connected via RS232 (entire complete file). file only). Upon loading of a new configuration file, the device applies the changes immediately. Some parameter changes require a device reboot for the change to take effect. Refer to M manual for more information about the configuration file management. Debug Environment A desktop connected to a device using the USB interface allows the user or technician to fully debug the device and observe its properties (ID, MAC, settings), operation states and modes, events generated, I/O status, connection status, error messages etc. Upon detection of a USB master device connection (via the micro-USB port) while the device is powered, the Cipia-FS10 device immediately enters maintenance mode and is ready for communication with the PCs CLI for the following purposes:

Video buffers download/delete. Configuration file review/change. Debug (error/activity logs). Versions upgrade both the OS and Cipia-FS10 app. Video streaming to PC for evaluation and debug purposes. Refer to the Cipia-FS10 Command Line Interface Manual for further information about the use of the Cipia-FS10 USB interface. Cipia Vision Ltd. Proprietary & Confidential Page 18 of 38 Installation and Calibration Process On first boot of the device, it enters Installation and Calibration mode. There are two main processes that should be completed during installation and calibration:

Camera calibration allows the Cipia-FS10 to set its relative position in the passengers compartment compared to the drivers position and via that provide accurate head pose and gaze calculations. Installation angles capture allows the Fleet-Sense device to remember its 3D installation orientation and to detect physical tampering. Once the installation and calibration process has successfully completed, the installer exits calibration mode (using the mobile app) and enters standard operation mode. Calibration settings are saved in the device NVM and passed by the application to the Driver Sense engine on startup. If the calibration process fails, the installer is alerted in the installation application. While in Standard mode, it is possible to recalibrate the device by sending an appropriate command from the backend or from a mobile application. The commands above are also supported by the server middlewares API and protocols. See the Installation Manual for detailed description of the Cipia-FS10 installation and calibration process. Driver ID Enrollment There are a few options to add driver face information to the Cipia-FS10 device database:

By sending a command from the mobile app to capture face attributes currently looking at the camera. By sending a command from the backend application to capture the face attributes currently looking at the camera. By sending enrolled user data (features vector) to the Cipia-FS10 device, of face attributes captured and saved in another location (using the same camera as used in the vehicle). Each entry in the devices driver database, managed by the Cipia-FS10 main app, holds the following attributes:

Global Driver ID A unique identifier, assigned by the TSP or by the Installer Mobile application (this is not the private ID assigned by the DMS library upon successful driver enrollment) and reported as the Driver-ID for any event generated by Cipia-FS10. Cipia Vision Ltd. Proprietary & Confidential Page 19 of 38 Private ID The Drivers ID assigned by the DMS library upon successful enrollment. This is the ID that is reported by the DMS upon successful driver identification to the main application. Face-ID features vector file Generated by the DMS library upon successful enrollment. This file is also reported to the server side, upon successful enrollment procedure, for later remote driver enrollment into other installed Cipia-FS10 devices within the fleet operation. Permission State The permission state:

0 Blacklist (Unauthorized) 1 Whitelist (Authorized) 2 Recognized default permission in case not predefined A closed enrollment loop means that both the Cipia-FS10 device and the Fleet management DB hold the global driver ID, the permission state, and the vector file per each enrolled driver. When a driver is enrolled from the mobile app, the following flow is supported:

1. Installer inserts the drivers license number (Global Driver ID). 2. Installer performs the enrollment process in the mobile app. 3. Installer app uploads the driver license number (Global Driver ID), the photo and the features vector file, at the end of the installation/enrollment process, as part of the Installation report data structure. When a driver is enrolled while seated in the vehicle, through a backend command, the following flow is supported (this is also applicable when enrolling drivers in the office):

1. Server sends command to the device with the assigned Global ID and permission state (this process is only done when the vehicle engine is running and there is a sync between the driver and the operator) to enroll a new driver. 2. Once the command is received and executed successfully, Cipia-FS10 sends the drivers image (photo), and the features vector file back to the server. 3. The FMS app retrieves the image and vector files to close the loop. When the FMS app enrolls an already enrolled driver, into other vehicles:

1. Per vehicle (Cipia-FS10 device), the middleware API is called with the Global ID number, vector file and permission status. This process is not necessarily done when the vehicle engine is running, and the device might therefore be unavailable for a period. Cipia Vision Ltd. Proprietary & Confidential Page 20 of 38 2. When the device is available, the server sends the command to the Cipia-FS10 device to enroll a new driver along with the features vector file, the permission state, and the Global Driver ID. The process described above is also the process used when the fleet manager wants to update the permission status of a driver in a specific vehicle - they simply override the existing record with a new data set for the same Global Driver ID. The Cipia-FS10 main app checks if the Global Driver ID already exists in the driver DB, and if so, overrides it with the new data set. Audio Files Management Cipia-FS10 triggers sound effects and voice messages. There is a fixed NMV space allocation for a sound effects folder, independent of the voice messages language defined by the user. There is a fixed NVM space allocation for 128 different folders of voice messages, varying by language, dialect, voice gender or tone and indexed between 0 (default) and 127. It is possible to modify/add a voice messages folder without the need to upgrade the OS or the Main Application of the Cipia-FS10 device. It is possible to update or add voice folders via the OTA protocol or a USB connection to a PC. The Cipia-FS10 app triggers the proper file according to the event type and configuration file parameters (active language). The default set of sound effect and voice messages folders are loaded on the production line. The voice messages packages are versioned, to allow for identifying the default loaded packages (for production purposes only). Device Reset The Cipia-FS10 devices supports different system reset options including:

1. HW reset initiated by pressing the main button. 2. Self-reset triggered by the device watchdog mechanisms. 3. OTA reset command which is defined as part of the device bi-directional OTA protocol (secured and authenticated). Each reset event is assigned with a different reason identifier, reported by the device to the backend upon boot. Cipia Vision Ltd. Proprietary & Confidential Page 21 of 38 Device Properties It is possible to send a device properties query to the Cipia-FS10 device through OTA

(both server side and installer application) or via the USB connection. After it receives the query report, and after system boot, the Cipia-FS10 device reports its properties with the following fields in standard JSON format:

Table: Device Properties Field Description Unit ID 10-char string assigned in production line. Hardware Version An identifier that uniquely designates the version of the devices main PCB. This should include specification for the MCU model, memory sizes, and revisions. OS version Including boot loaded, if separate. Main App version DMS library version Modem Version Hardware and software revisions. GPS Version Hardware and software revisions. Production date Date of successful production line test. Test bench ID 10. Config file version 11. Audio package Note: If specific parameters were changed rather than the entire file via the installer app, the original config file name is patched with the date and time of the update. Attributes of each available set in json schema including: "id", "language", "description" and

"version". 12. SD card Size and type, if available. 13. SIM card number ICCID. 14. IMSI 15. IMEI SIM card identifier. Cellular modem identifier. 16. Wi-Fi/BT module version Hardware and software revisions. 17. Wi-Fi/BT MAC address 18. Device installed Time and date of last installation or NULL. 19. Device calibrated Time and date of last calibration or NULL.

1. 2. 3. 4. 5. 6. 7. 8. 9. Cipia Vision Ltd. Proprietary & Confidential Page 22 of 38 4.4. Standard Mode The following table lists all features and functions supported by the Cipia-FS10 device while in standard operation mode. Table: Standard Mode Functions Function Description Vehicle & driver monitoring logic

1 2 Events management in memory The Cipia-FS10 device monitors all parameters and conditions as listed in the Events section of the configuration file and triggers events when conditions are met. Every event generated by the Cipia-FS10 application is associated with a unique numeric identifier and is logged in NVM until an ACK is received from the servers communication GW that the message was received successfully. The maximum number of logged events before the system starts to override is set in the config file. Upon detection of an Ignition On event (Logic Rise of IGN line), or upon detection of a driver change without turning off the engine, the Cipia-FS10 device sets a new TRIP ID as the number of the previous trip + 1. Every event generated by the Cipia-FS10 device is sent to the FMS backend with the Trip ID as part of the message structure. The Trip ID is a 3Byte integer and is reset to 0 upon reaching D16,777,215. The DMS library uses vehicle data to properly activate, deactivate, or adapt inattentiveness monitoring algorithms. If vehicle information is available, the main application reports the following parameters to the DMS library:

Vehicle speed (from GPS) Whenever GPS data is unavailable or not up to date, or inaccurate (low quality score) the main app transfers an agreed value that designates unavailable speed to the library. The main app applies the movement detection algorithm while GPS data is unavailable and if vehicle is not moving, speed=0 is reported to the library to prevent unneeded events reporting by the library. Vehicle direction (forward /reverse gear status) If the reverse switch indicator is connected to one of the devices inputs. Turn indicator status (blinkers) If the turn indicator is connected to one of the devices inputs. 3 Trip ID 4 Vehicle Data Management Cipia Vision Ltd. Proprietary & Confidential Page 23 of 38

Function 5 Time management 6 Location management 7 Video capturing and upload Description Vehicle yaw rate Designates the change in vehicle heading angle compared to the previous heading angle received from GPS receiver, whenever GPS data is available and accurate. The Cipia-FS10 OS maintains accurate system time in GMT based on available clock sources like the cellular network and/or GPS. If neither of the two exist or are up to date, the Cipia-

FS10 device manages accurate time (using the internal real-time clock) with a maximum deviation of 86 seconds per 24 hours (0.1%). The Cipia-FS10 main application updates the accurate location register (RAM) at least every 1 second throughout the entire trip. The first location in a new trip is logged only after an accurate FIX is acquired by the system GNSS. The location register is not updated if the FIX quality parameter is not higher than the programmed threshold. Every new location record is registered along with its <fix quality parameter>, <location acquisition time>, <speed

(m/sec)> and <heading angle>

Whenever the location register is not updated for longer than the TH configuration parameter, the Cipia-FS10 device generates a GPS loss event. The Cipia-FS10 application manages two video cyclic buffers, for each connected camera (DMS & ADAS-

optional), if enabled in configuration (See ContRecording parameter):

Event video buffer in RAM, intended to save a few seconds of video before and after the occurrence of a safety event. Global cyclic buffer in SD card, intended to allow retrieval of video footage upon request from mobile app or server. Video in the global cyclic buffer is compressed using H.264 codec which can be used also by the FMS to play the video. The event video buffer from RAM is captured and saved into NVM when the event occurs and according to configuration file settings. It is possible to instruct the Cipia-FS10 device to start recording NOW a footage with a certain length, on receiving such a command from the server. The captured video includes the pre-buffer that was in RAM at the time the command was received. The Cipia-FS10 device supports uploading of video footage from the global cyclic buffer, according to the time frame Cipia Vision Ltd. Proprietary & Confidential Page 24 of 38

Function 8 Power Management Description defined in a command, if the time frame is still available in the devices memory and if the requested time frame is no longer than 10 minutes. The OTA bi-directional protocol supports the described video capturing commands:

Start recording now command. Retrieve footage from Memory command. The Cipia-FS10 app distinguishes between 3 power modes:

(1) ON, (2) OFF, (3) Standby/sleep Ignition line is the usual trigger for transitions between ON and SLEEP modes. OFF mode is the power state of the device during shipment or after loss of external power and depletion of internal backup battery. In normal operation, after the device is connected to an 8-32V power source, it would never go OFF, unless main power source is disconnected. If Main Button settings_Param1 is set to enabled, pressing on the main button for between 5 and 10 seconds, while the Cipia-FS10 device is ON, triggers the device to enter sleep mode. If Main Button settings_Param1 is set to disabled, the user is never able to put the device into SLEEP mode. Regardless of the setting of the Main Button settings_Param1, if the device is powered, it monitors the Ignition line and moves between SLEEP and ON modes accordingly. Transitions between power modes is reported to the server if the corresponding events are enabled. Upon detection of power drop below 7V, on the power input line, for longer than the time set in config file parameter, the Cipia-FS10 device generates an error event with the appropriate reason (and the cyclic video buffer) and commences a shutdown procedure that is completed in less than 20 seconds. The Cipia-FS10 device wakes up again once reconnected to a stable 7-32V power source. If there is no connection to the server at the time of the power loss, the event is stored in NVM and uploaded upon the next successful power-up. The Cipia-FS10 application continuously monitors the installation angles of the device using it embedded 3D Accelerometer, and if a deviation from the original installation is identified (as was acquired during calibration), an error event with the appropriate reason

(device shifted) is generated. In addition, if the image is lost (camera is blocked), or no activity is detected, during DRIVE state for more than 30 9 Tampering detection Cipia Vision Ltd. Proprietary & Confidential Page 25 of 38

Function 10 Battery charge management 11 Inner Core Temperature management 12 FOTA 13 Output activation Description seconds, an error event with the appropriate reason

(camera blockage) is generated. The internal Li-Ion battery charging is managed by the Cipia-FS10 main application or a parallel service managed by the OS according to known charging best practices for Li-Ion batteries (temperature, aging, usage profile) to achieve longest possible effective lifetime without compromising the ability of the battery to power the device for at least one minute upon power loss. Since the internal battery is used only as backup for power loss incidents and in normal use case scenarios the battery will not go through charge/discharge cycles, the main app manages the battery voltage in the range of 3.9V to 4.05V always. The Cipia-FS10 application monitors the temperature on critical components of the device (PMIC, MCU) and takes actions such as cores or communication modules shutdown to prevent permanent damage if overheating is identified. In the event of an overheating incident, the system generates and sends an event in advance before a potential shutdown in communication. The main application or a service background agent manages Firmware-Over-The-Air (FOTA) update capabilities using a 3rd partys off-the shelf service. The FOTA agent maintains periodic connection with the OTA server to check for available updates and can upgrade/downgrade, if instructed to, three different layers of the SW: OS, Main application and DMS libraries. For devices connected using BLE or RS232, FOTA update should be done using Wi-Fi hotspot, either locally in the vehicle or in some hub to which the vehicle arrives. The fleet-Sense main app should be able to activate General Purpose Outputs in one of the following cases:

1. When the DMS library output requires such activation as a measure to warn the driver or draw his attention

(for example when the output is connected to seat buzzer) 2. When a command is received from the server (MQTT) or from the serial port (T-Box) or from the BT link (T-

Box) or from CLI. A few Output activation application notes:

Server command has higher priority over DMS activation if a conflict between two activations exists. GPIO can only be activated by the server while GPO can be activated either by internal logic or by the server. Cipia Vision Ltd. Proprietary & Confidential Page 26 of 38

Function 14 Drivers DB update Description Default output state is Normally open (disconnected). Once activated, output is connected to GND. Upon acquisition of an improved picture/vector file of a driver face who already exists in the Cipia-FS10 database, Cipia-FS10 generates an appropriate event and sends it to the backend along with the improved data file. 4.5. Cipia-FS10 Events The following table describes the various event types which can be detected and reported to the backend application by the Cipia-FS10 device as a function of the vehicle status

(ignitions switch/speed/heading angle change), external triggers, driver behavior or system status changes. Each event generated by the Cipia-FS10 device state machine is sent to the server application (if enabled in the configuration file) with the following event attributes2:

Device ID A unique ten-character string, across all manufactured fleet-

sense devices. Message ID A 13-digit Unix timestamp, millisecond resolution. Self-IP IP address if connected through cellular modem or hotspot

(should be 0.0.0.0 if connected through BT/RS232). Trip ID A numerator which allows the server side to group events within a single trip performed by a certain driver. Driver ID The driver ID number if identified. If the driver is not identified by the Cipia-FS10 device, this field holds zeros. Driver ID is sent along with the permission state of the specific driver (if enrolled). Event date & time Upon event detection by the DMS algorithm, the Cipia-FS10 App fetches the system accurate time and associates it with the generated event. Last known location Upon event detection by the DMS algorithm, the Cipia-FS10 App fetches the system location (LAT/LONG, decimal angle representation) and associates it with the generated event. 2 For detailed information about the OTA protocol attributes, including data formats, types, lengths, and handshake mechanism, refer to the Cipia-FS10 Integration Manual. Cipia Vision Ltd. Proprietary & Confidential Page 27 of 38 Location time Upon event detection by the DMS algorithm, the Cipia-

FS10 App fetches the last location time and associates it with the generated event. If the location time is different from the event time, it means that the event location/speed/heading are not necessarily accurate. Speed (m/sec) Upon event detection by the DMS algorithm, the Cipia-

FS10 App fetches the speed register and associates it with the generated event. Heading angle Upon event detection by the DMS algorithm, the Cipia-

FS10 App fetches the heading-angle register and associates it with the generated event. Location quality Upon event detection by the DMS algorithm, the Cipia-

FS10 App fetches the FIX quality (HDOP) and associate it with the generated event. If the FIX quality is higher or close to threshold

(HDOP<3), it means that there might be a significant deviation in the Last know location from the actual location of the device at the time of the event generation. Ext Power (mV) External input voltage at the time of the event detection. Internal battery Power (mV) Internal backup battery voltage at the time of the event detection. I/O array status An object representing the status of all discrete/analog inputs and outputs of the Cipia-FS10 device including:

PortID (IGN/GPI/GPIO/GPO), Type (In / Out), Current logic state (Active / Inactive) Port voltage level (Integer) Event ID A string designating the event type as listed in the table below. Event Attr1 Additional information related to the event type provided, such as system boot failure type, reset type, safety event reason, external triggering reason etc. If the generated event does not have additional info, this field is zeroed. Snapshot/Footage/Vector exists A field designating whether image or footage was captured for this event. The Cipia-FS10 protocol supports device authentication and has an error detection mechanism to verify the validity and authenticity of the message. Cipia Vision Ltd. Proprietary & Confidential Page 28 of 38 Each type of event is controlled by configuration parameters defining:

Whether the event is enabled or disabled. The data sets which should be sent to the server upon event generation

(data/image/footage). The user feedback patterns activated on event detection. Cipia Vision Ltd. Proprietary & Confidential Page 29 of 38 4.6. Configuration Settings The Cipia-FS10 JSON configuration file allows for simple customizations of the product behavior to comply with different customer needs and use cases. All configuration file parameters are saved in NVM and survive power loss. Also, the last state of the GPIOs is restored once the system is reconnected to external power. It is possible to change parameters or the entire configuration file. The first parameter in each configuration file is the files name ("ConfigurationName") used by the TSP or the software integrator to manage the various configuration types and versions across his operation. The configuration file name is a string which its convention can be defined by the user to achieve effective configuration files inventory management. Please refer to the Fleet-Sense integration manual for detailed information about configuration file management. 4.7. Telematics GPIO Signaling It is possible to define (in the config file) that one of the digital inputs of the Cipia-FS10 device be used by the T-Box whenever a driver behavior event is detected by the Telematics box. On activation of this input, the Cipia-FS10 device triggers an event and captures an image or video footage as defined in the config file (with pre- and post-

buffers). The Cipia-FS10 device sends the event data followed by the image/video file. The image/video filename includes an ID that is also included in the event data for easy association on the server side. 4.8. RS232 Connection The RS232 port may be used to connect the Cipia-FS10 device to a Telematics box whenever a more advanced link (BT, Wi-Fi) is not available. The RS232 connection complies with EIA-232. The default port settings are 115200, 8, 1, None. It is possible to change the RS232 port settings in the configuration file (a slower communication rate will lengthen the data transfer time and system latency). Cipia Vision Ltd. Proprietary & Confidential Page 30 of 38 The RS232 link is used by the Cipia-FS10 device to transmit event data or snapshots to the server-side. The RS232 link should not be used to transfer video footage unless the data packet size is lower than the maximum defined by the Telematics box datasheet. The RS232 link is used to receive event meta data when the Telematics box signals the Cipia-FS10 to capture snapshot or footage due to a safety event detected by the Telematics box. 4.9. Bluetooth Cipia-FS10 supports BLE version 4.2. BLE is used for connection to a BLE-supported Telematics box or dongle. Proximate devices discovery (scanning) and pairing takes place in Installation and Calibration mode or Maintenance mode. During these modes, the device is always discoverable. If no device was paired while in these modes, BLE is disabled (turned off) during Standard mode and only turned on (discoverable) during 2-minutes after the Ignition on event, to check whether a pairing request was issued. The pairing method is set in the configuration file: Just Works or Passkey. If set to Passkey, the 6-digit key, which is in the configuration file must be used. The same passkey must be configured in the paired device. While connected with a Telematics box, the BLE link may be used for:

Signaling as if it was a digital input (up to 2 inputs may be defined in the protocol). Data exchange (serial port profile): Events, snapshot or video footage forwarding to the Telematics box or reception of events meta data from the Telematics box when a safety event was detected by the Telematics box (for example: type of event and event ID for easy association with the Telematics box generated event). After the first pairing performed between the Cipia-FS10 device and another device/mobile application, the Cipia-FS10 automatically pairs with the other device on power-up/wakeup event. 4.10. Wi-Fi The Wi-Fi interface should be used as the main communication link with the server GW whenever LTE is not supported by the Cipia-FS10 device itself and there is another WAN-connected device through which (a hotspot) the Cipia-FS10 device can establish a connection with the server GW. Cipia Vision Ltd. Proprietary & Confidential Page 31 of 38 Another use of the Wi-Fi interface is for video streaming to the Cipia-FS10 mobile app for installation, calibration and debugging purposes. In this scenario, the mobile app connects to the Cipia-FS10 devices access point. While in Installation and Calibration mode, the Wi-Fi network is turned on by the Cipia-

FS10 app and accept connection attempts with the correct PIN and sign-in procedure. While in Standard mode, and if set accordingly in the configuration file, the Cipia-FS10 device attempts to establish a connection with the network whose attributes are defined in the config file. If Wi-Fi is defined as the primary link with the server, the Wi-Fi connection is established immediately after the detection of the IGN on event and is maintained continuously during the entire trip according to communication watchdog settings. Cipia Vision Ltd. Proprietary & Confidential Page 32 of 38 5. Cipia-FS10 HMI The following table describe the audible and visual feedback provided by the Cipia-FS10 system LED and its speaker in various states of system operation. Table: Audible & Visual Feedback System LED Sound Speech

# Event/State 1. Power-up (S) 2. 3. 4. 5. 6. 7. 8. 9. Calibration on (S) HW problem detected (S) GPS problem detected (S) COM problem detected (S) CAM problem detected (S) Calibration failed (S) System on (S) System error (S) 10. Sleep mode (S) 11. External power loss (S) 12. Entered/exit Maintenance mode (E) 13. Maintenance mode (S) 14. Button confirmation (E) 15. Volume key confirmation (E) 16. Volume key rejection (E) The LED patterns are specified in the table below. Table: LED Patterns Powering up System CAM problem System GPS problem System Yes Yes Yes Event / State LED Time Continuous Cipia Vision Ltd. Proprietary & Confidential Page 33 of 38 Event / State LED Time Continuous COMM problem Other HW problem System OK

(standard mode) GPS location unavailable System System System System System error System Sleep System Powering down System Maintenance mode System Calibration mode System Calibration error Button pressed

(Confirmation

) Driver identified System Driver Unidentified driver Driver Driver image loss Driver Yes Yes Yes Yes Yes Yes Yes Yes Yes No No No Yes Configuratio n Yes Configuratio n Cipia Vision Ltd. Proprietary & Confidential Page 34 of 38 Event / State LED Time Continuous No No No No No - Pattern stops earlier if driver is attentive again Yes configuration Driver distracted Driver Light drowsiness Driver Drowsiness Driver Driver asleep Driver Safety event detected

(Seatbelt, Smoking, Phone) Tbox event triggered Driver Driver repeated. If sound effects and voice messages are both active in the configuration file, the message is played right after the sound effect. All voice messages are only played once. LED and sound effects may be Cipia Vision Ltd. Proprietary & Confidential Page 35 of 38 6. Test and Evaluation Kit You can use the Cipia-FS10 Evaluation Kit (EVK) with a test server provided by Cipia

(Middleware Server and basic cloud), to test the Cipia-FS10 device behavior, features and functions, without having to professionally install the device or to develop a single line of code. The EVK Quick Start Manual guides your technical team, providing instructions for the short-term installation of the device using the vacuum mounting arm, predefined default configuration file (only the SIMs APN data must be provided), special harness adapter for 12V power connection to cigarette lighter socket, and authenticated access to Cipia's cloud support pages. The Cipia Technical Support/Professional Services Team can setup your test environment within a couple of hours of you receiving the EVK. The EVK comes with default configuration parameters. It is possible to modify this system configuration remotely using the server API or using a mobile application communicating with the device through BLE /Wi-Fi. Using the EVK, you can test the systems real-time driver feedback as well explore the information uploaded to the Middleware Server. This includes the ability to watch snapshots and video footage associated with the events generated by the test device. Cipia Vision Ltd. Proprietary & Confidential Page 36 of 38 7. Standards and regulations notices 7.1. FCC This device complies with part 15 of the FCC Rules. Operation is subject to the following two conditions:

(1) This device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation. This device has been tested and found to comply with the limits for a Class B digital device, pursuant to Part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful interference in a residential installation. This equipment generates, uses and can radiated radio frequency energy and, if not installed and used in accordance with the instructions, may cause harmful interference to radio communications. However, there is no guarantee that interference will not occur in a particular installation If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures:

Reorient or relocate the receiving antenna. Increase the separation between the equipment and receiver. Connect the equipment into an outlet on a circuit different from that to which the receiver is connected. Consult the dealer or an experienced radio/TV technician for help. Caution: Changes or modifications not expressly approved by the party responsible for compliance could void the user's authority to operate the equipment. This equipment must be installed and operated in accordance with provided instructions and the antenna(s) used for this transmitter must be installed to provide a separation distance of at least 20cm from all persons and must not be co-located or operating in conjunction with any other antenna or transmitter. FS10-LOC/FS10-LOC-ADS: 2AZIQFS10L FS10-LTE/FS10-LTE-ADS: 2AZIQFS10C FCC ID:

7.2. IC

(EN)This device complies with the applicable industry Canada) License exempt radio apparatus, the operation is authorized under the conditions as follows: (1) this device may not cause interference, and (2) the user of this device must accept any interference caused, even if the interference is likely to affect its performance.

(FR)Le prsent appareil est conforme aux CNR d'Industrie Canada applicables aux appareils radio exempts de licence. L'exploitation est autorise aux deux conditions suivantes : (1) l'appareil ne doit pas produire de brouillage, et (2) l'utilisateur de l'appareil doit accepter tout brouillage radiolectrique subi, mme si le brouillage est susceptible d'en compromettre le fonctionnement.

(EN)Radio frequency (RF) Exposure Information The radiated output power of the Wireless Device is below the industry Canada (IC) radio frequency exposure limits. The Wireless Device should be used in such a manner such that the potential for human contact during normal operation is minimized. The device has also been evaluated and shown compliant with the IC RF Exposure limits under mobile exposure conditions (antennas at least 20cm from a persons body). Cipia Vision Ltd. Proprietary & Confidential Page 37 of 38

(FR) informations sur l'exposition de radiofrquences (rf) la puissance de rayonnement de l'appareil sans fil est infrieure la frquence radio d'industrie canada (ic) limites d'exposition.l'appareil sans fil devrait tre utilis de faon telle que le potentiel de contact pendant le fonctionnement normal est rduit au minimum. le dispositif a t valu et qui semble conforme l'ic des limites d'exposition aux rf sous des conditions d'exposition mobile. (antennes d'au moins 20 cm du corps d'une personne).

(EN)The following statement the following statement must be included with all versions of this document supplied to an OEM or integrator, but should not be distributed to the end user. This device is intended for OEM integrators only. Please see the full Grant of Equipment document for other restrictions

(FR) l'nonc suivant la dclaration suivante doit tre incluse dans toutes les versions de ce document fourni un oem ou intgrateur, mais ne devrait pas tre distribues l'utilisateur final. ce dispositif est destin aux intgrateurs de oem. voir le document de subvention d'quipement d'autres restrictions.

(EN)For indoor use only.

(FR) pour une utilisation en intrieur uniquement IC FS10-LOC/FS10-LOC-ADS: 27633-FS10L FS10-LTE/FS10-LTE-ADS: 27633-FS10C 7.3. RED Hereby, Cipia Vision Ltd. declares that the radio equipment type is in compliance with Directive 2014/53/EU. The full text of the EU declaration of conformity is available at the following internet address: https://cipia.com Notice: The device complies with RF specifications when the device used at least 20cm from human body. The device operates on the 51505350 MHz frequency range. It is restricted indoor environment only. This product can be used across EU member states. AT BE BG HR CY CZ DK EE FI FR DE EL HU IT LV LT LU MT NL IE PL PT RO SK SI ES SE UK(NI) Cipia Vision Ltd. Proprietary & Confidential Page 38 of 38

Date: 2021/11/06 Subject: Confidentiality Request for: 2AZIQFS10C Request for Confidentiality Pursuant to FCC 47 CRF 0.457(d) and 0.459 and IC RSP-100, Section 10, the applicant requests that a part of the subject FCC application be held confidential. Type of Confidentiality Requested Short Term Short Term Short Term Short Term Short Term Short Term Short Term Short Term Short Term Permanent Permanent*1 Permanent Permanent Permanent Permanent*

Permanent Exhibit Block Diagrams External Photos Internal Photos Operation Description/Theory of Operation BOM Schematics Test Setup Photos Users Manual Software Security Info

*Note: (Insert Explanation as Necessary) Cipia Vision Ltd has spent substantial effort in developing this product and it is one of the first of its kind in industry. Having the subject information easily available to "competition" would negate the advantage they have achieved by developing this product. Not protecting the details of the design will result in financial hardship. Permanent Confidentiality:

The applicant requests the exhibits listed above as permanently confidential be permanently withheld from public review due to materials that contain trade secrets and proprietary information not customarily released to the public. Short-Term Confidentiality:

The applicant requests the exhibits selected above as short term confidential be withheld from public view for a period of (180)2 days from the date of the Grant of Equipment Authorization and prior to marketing. This is to avoid premature release of sensitive information prior to marketing or release of the product to the public. Applicant is also aware that they are responsible to notify TIMCO in the event information regarding the product or the product is made available to the public. TIMCO will then release the documents listed above for public disclosure pursuant to FCC Public Notice DA 04-1705. NOTE for Industry Canada Applications:

The applicant understands that until such time that IC distinguishes between Short Term and Permanent Confidentiality, either type of marked exhibit above will simply be marked Confidential when submitted to IC. Sincerely, By:

Director of Operations and Quality Ifat Kaufman

(Signature/Title3) Director of Quality and Operations

(Print name) 1 - The asterisked items (*) require further justification before permanent confidentiality will be allowed. These also currently require review by the FCC under their Permit-But-Ask policy before the grant is issued and can delay completion of an application. Further justification should be added to the note above. One such example for a potted device would be: The EUT is FULLY potted using a non-removable epoxy based material. Removal of potting material causes irreparable damage to internal circuitry. See photographs exhibits that outline the device before and after potting. 2 - Please refer to http://acbcert.com/documents/misc-docs/Memo-Short-Term-Vs-Standard-Confidentiality.pdf for complete details. 3 - Must be signed by applicant contact given for applicant on the FCC site, or by the authorized agent if an appropriate authorized agent letter has been provided. Letters should be placed on appropriate letterhead.

Cipia Vision Ltd Maskit 8th st. Hertzelia, Israel Federal Communications Commission Authorization and Evaluation Division 1435 Oakland Mills Road Columbia, MD 21046 Date: 2021-11-06 SUBJECT: FCC Application for (2AZIQFS10C) To Whom It May Concern:

We, the undersigned, hereby state a certified module (FCC ID:2AZIQFS10L, Test Report number: C21T00027-SRD01-V00-BT,C21T00027-SRD02-V00-BLE, C21T00027-

SRD03-V00-2.4GWLAN, C21T00027-SRD04-V00-5GWLAN ,C21T00027-SRD05-

V00-5.8GWLAN) was installed in our product (FCC ID:2AZIQFS10C), the module installed in our product is identical, and in the same configuration with the original module. The RF output power is verified to be the same, thus, test data (Except for Band Edges Compliance and Transmitter Spurious Emission-Radiated, all other conduction tests) were re-used from the original test report to the new test report. Regards, By:

On behalf of:

(Signature) Cipia Vision Ltd

(Company Name) Telephone:

+972-77-5047760 Date:

2021.11.06 Ifat Kaufman

(Print Name) https://eyesight-my.sharepoint.com/personal/ifat_k_cipia_com/Documents/Desktop/Data Re-use Explanation Letter-FCC - signed.docx

Authority to Act as Agent TCF: FS10-LTE / FS10-LTE-ADS FCC ID: 2AZIQFS10C IC ID: 27633-FS10C To Whom It May Concern:

We, the undersigned, hereby authorize Chen Minfei of Industrial Internet Innovation Center (Shanghai) Co.,Ltd. to act on our behalf as our agent in the following matters related to the RED/FCC/IC request: testing report submittal, related technological documents submittal. This authorization shall expire 6 months from original date, if you have any question regarding the authorization, please dont hesitate to contact us, thank you. Ifat Kaufman

(Print Name) By:

On behalf of:

(Signature) Cipia Vision Ltd

(Company Name) Telephone:

+972-77-5047760 Date:

2021.11.06

Product Change Description As the applicant of the below model, Cipia Vision Ltd. declares that the product, FS10-LTE is the variant of the initial certified product, FS10-LTE-ADS SOFTWARE MODIFICATIONS:

Protocol Stack changes: No MMS/SUPL changes: No STK/USAT changes: No Browsing changes: No Other changes detailed: No HARDWARE MODIFICATION:

Band changes: NO Power Amplifier changes: NO Antenna changes: NO PCB Layout changes: NO Components on PCB changes: FAKRA connector and a de-serializer IC are not assembled. LCD changes: NO Speaker changes: NO Camera changes: NO Vibrator changes: NO Bluetooth changes: NO FM changes: NO Other changes: NO MECHANICAL MODIFICATIONS:

Use new metal front/back cover or keypad: No Mechanical shell changes: Yes - connector Hole covers with sticker. Other changes detailed: No ACCESSORY MODIFICATIONS:

Battery changes: No Sin AC Adaptor changes: No Earphone changes: No MECHANICAL MODIFICATIONS:

Use new metal front/back cover or keypad: No Mechanical shell changes: No Other changes detailed: No APPROVED BY: Ifat Kaufman Sef we Date: Nov 15, 2021 c&

Company: Cipia Vision Ltd Address: Maskit 8, Herzelia, Israel Tel: +972-77-5047760

Cipia Vision Ltd Date: 2021/11/06 DTS-UNll Device Declaration Letter To whom it may concern:

We have declared below featured for FCC equipment authorization, Device FCC ID: 2AZIQFS10C IC ID: 27633-FS10C

(1) DFS Device -Master , Client with Radar detection capability Client without radar detection capability, N/A

(2) Active I Passive Scanning, adhoc mode access point capability FrequencyBand

(MHz) Active Scanning (the device can transmit a probe (beacon)) Passive scanning

(where the device is can listen only with no probes) Ad Hoc Mode or WIFI Direct capability Access point capability 2412-2462MHz Yes, No Yes, No Yes,No Yes, No 5150-5250MHz Yes, No Yes, No Yes,No Yes, No 5250-5350MHz Yes, No Yes, No Yes,No Yes, No 5470-5725MHz Yes, No Yes, No Yes,No Yes, No 5725-5850MHz Yes, No Yes, No Yes,No Yes, No

(3) Country code selection ability - Yes, No If yes, pls explain how it was implemented: (pls also help to provide detail of options for each country selection)

(4) Meet 15.202 requirement - Yes, No,pls check below:

A master device is defined as a device operating in a mode in which it has the capability to transmit without receiving an enabling signal. In this mode it is able to select a channel and initiate a network by sending enabling signals to other devices A client device is defined as a device operating in a mode in which the transmissions of the device are under control of the slave. A device in client mode is not able to initiate a network.

(5) For client devices that have software configuration control to operate In different modes (active scanning in some and passive scanning in others) in different bands (devices with multiple equipment classes or those that operate on non-DFS frequencies) or modular devices which configure the modes of operations through software, the application must provide software and operations description on how the software and / or hardware is implemented to ensure that proper operations modes cannot be modified by end user or an installer. Apply, "Yes, please see SW security Description". No Apply, (If apply, pls help to provide explanation on it was implement. and how software was controlled) Name: Ifat Kaufman Signature:

Date: 2021/11/06