Users Manual

FCC ID: W34UMRR0F1D

Users Manual

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FCCID_2540813

Annex no. 5 Functional Description / User Manual Date: 2014-03-07 Page 1 of 1 Vers. no. 1.14 m. dudde hochfrequenz-technik Rottland 5a D-51429 Bergisch Gladbach/ Germany Tel: +49 2207-96890 Fax +49 2207-968920

Project Documentation | UMRR-0F0002-1D0907-050B00 Radar Sensor Documentation Project Number: ... SMS Project Number: Project Title: General Purpose Radar Sensor Keyword(s): UMRR-0F0002-1D0907-050B00 radar sensor Date: November 13, 2014 Document: UMRR-0F0002-1D0907-050B00 General Purpose USA Version: 1 CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 1 of 23 I November 13, 2014

1 Contents 1 Contents .................................................................................................................... 2 2 Abbreviations ............................................................................................................. 3 3 Introduction ............................................................................................................... 4 4 General description .................................................................................................... 5 4.1 Sensor description................................................................................................ 5 4.2 Transmit Signal .................................................................................................... 7 4.3 General Performance Data .................................................................................... 7 5 Hardware .................................................................................................................. 8 5.1 UMRR sensor ....................................................................................................... 8 5.2 Sensor Dimensions ............................................................................................. 10 6 Cables and connectors.............................................................................................. 12 6.1 Sensor connector ............................................................................................... 12 7 Data interfaces ........................................................................................................ 13 7.1 CAN data interface ............................................................................................. 13 7.2 CAN-Settings ..................................................................................................... 13 7.3 RS485 data interface .......................................................................................... 14 7.4 Transceiver schematics....................................................................................... 17 8 Designated use ........................................................................................................ 19 9 Change the Frequency Band ..................................................................................... 20 10 Frequency Approval .............................................................................................. 22 10.1 Declaration of Conformity for USA .................................................................... 22 10.1.1 FCC Label ................................................................................................. 22 10.2 Declaration of Conformity for CANADA ............................................................. 23 10.2.1 Declaration of Conformity in English ........................................................... 23 10.2.2 Déclaration de conformité en francais ........................................................ 23 10.2.3 Industry Canada (IC) Label ....................................................................... 23 CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 2 of 23 I November 13, 2014

2 Abbreviations ADC Analog-to-digital converter CAN Controller area network DAC Digital-to-analog converter DSP Digital signal processing; digital signal processor EEPROM Electrically erasable programmable read-only memory FMCW Frequency modulated continuous wave MMIC Monolithic microwave integrated circuit RAM Random access memory RS485 Physical communication layer standard EIA RS-485 SPI Serial peripheral interface UMRR Universal medium-range radar CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 3 of 23 I November 13, 2014

3 Introduction This document is a short documentation of the general purpose universal medium range radar (UMRR) UMRR-0F0002 radar sensor with type 29 antenna 1D0907 in the housing version 050B00. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 4 of 23 I November 13, 2014

4 General description 4.1 Sensor description The main task of the UMRR is the detection of any reflectors in the field of view, to measure the distance, the relative speed and the angle to the shortest reflector (and to other reflectors), to detect motion and to track (filter) the results over time. For this general purpose measurement application, range and relative radial speed and the angle value of each reflector inside the antenna beam are measured and the results are reported via the communication links cycle by cycle. For a block diagram of the sensor see Figure 1. DSP board RF transceiver board Radar processor (DSP TMS320F28335) Clock MMIC TX antenna 1 MHz SPI (digital control) McBSP SPI PLL Program Flash DAC VCO internal analog RX antennas MxADC MxAmp Mixer RAM Clock 30 MHz external EEPROM Communic. RAM Processor Clock RS485 CAN Ethernet 16MHz LAN 25MHz Figure 1: Block diagram of the UMRR-0F sensor The UMRR sensor consists of two printed circuit boards: The DSP board and the RF transceiver board. The major component of the DSP board is the DSP TMS320F28335 which integrates flash memory (for program code) and RAM. The DSP provides interfaces to external RAM, EEPROM, CAN bus and RS485 (both for data communication). The Communication Processor provides an Ethernet interface for data communication. The DSP controls the RF transceiver board via an SPI interface. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 5 of 23 I November 13, 2014

The RF transceiver board consists of transmit and receive antennae and the RF circuitry that includes the radar MMIC SC3001.2. The radar MMIC generates the transmit signal and down converts the receive signals into baseband. The analog baseband signals are then routed to the DSP board and digitized by the DSP’s built-in ADC. The digital data are further processed on the DSP. The MMIC also features a PLL circuitry to calibrate and linearize the transmit frequency ramps, a DAC for setting the VCO voltage (corresponding to the transmit frequency) and an SPI interface for receiving the control signals from the DSP. For the time of emission the device is one fixed point to point application. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 6 of 23 I November 13, 2014

4.2 Transmit Signal The UMRR transmit frequency is located in the 24 GHz ISM band (24075 MHz to 24175 MHz), the used bandwidth is smaller than 100 MHz. The maximum transmit power is 24.0dBm. Antenna type 29 is used, consisting of one transmit and two receive antennas, both linear polarized. The 2 way 3 dB cut-off angle in az. +-6deg. And in el. +-4deg. The device uses different FMCW transmit signal waveforms for distance and speed measurement. 4.3 General Performance Data As soon as the device is powered up, the unit (TX and RX) starts operation. In Table 1: General performance data general performance data are given. Table 1: General performance data Environmental Ambient Temperature -40 ... +85 degree C Shock 100 grms Vibration 14 grms IP 67 Pressure / Transport altitude 0…10.000 M Mechanical Weight 320 G Dimensions See 5.2 Housing Identification 050B00 Antenna Identification 1D0907 DSP Board Identification 0F0002 General Power Supply 7 ... 40 V DC 3.7 W Frequency Band 24.075…24.175 GHz Bandwidth < 100 MHz Max. Transmit Power (EIRP) 24.0 dBm Interfaces CAN V2.0b (passive), RS485 half or full duplex 100Base-T Ethernet Connector 12 Pin plug Hirose LF10WBRB- CAN, RS485, 12PD Power, Eth. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 7 of 23 I November 13, 2014

5 Hardware 5.1 UMRR sensor An example picture of a UMRR (universal medium-range radar) sensor (housing type 050B00) is shown in the figures below. Figure 2: UMRR sensor, housing type 050B00, front. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 8 of 23 I November 13, 2014

Figure 3: UMRR sensor housing 050B00 rear CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 9 of 23 I November 13, 2014

5.2 Sensor Dimensions All values given in mm. Figure 4: Sensor Front side. Figure 5: Sensor Top, Left and Right Side. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 10 of 23 I November 13, 2014

Figure 6: Sensor Rear Side. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 11 of 23 I November 13, 2014

6 Cables and connectors 6.1 Sensor connector The used sensor connector is a 12-pin male (plug) circular connector (water proof IP67, LF10, manufacturer Hirose). A female counterpart (socket), e.g. LF10WBP-12S, has to be used to connect to the sensor. The pin numbering of the socket is shown in Figure 7 the pin description is given in Table 2: Sensor connector pin out Model UMRR-0F0002. Figure 7: View on solder cup side of socket (rear view of female counterpart to be connected to sensor) Pin Signal name Wire Pair Function 1 Eth_Tx1_P 1 Ethernet – RJ45 Pin 1 2 Eth_Tx1_N Ethernet – RJ45 Pin 2 3 RS485_IN_N 2 RS485 Input 4 RS485_IN_P 5 RS485_OUT_N 3 RS485 Output 6 RS485_OUT_P 7 GND 4 Ground 8 Vcc 7 .. 40 V DC Supply 9 Eth_Tx2_N 5 Ethernet – RJ45 Pin 6 10 Eth_Tx2_P Ethernet – RJ45 Pin 3 11 CAN Hi 6 CAN Interface 12 CAN Lo Table 2: Sensor connector pin out Model UMRR-0F0002 Please note that in the standard configuration the sensor has no 120Ohms resistor on board (CAN bus termination between CAN_L and CAN_H). The resistor is nevertheless required at either end of a CAN bus and is in most cases integrated in the cable delivered along with the sensor (if cable is manufactured by Smartmicro). For the RS485 data interface there is a 120Ohms resistor on board of the sensor. The RS485 interface is full duplex hardware. Semi-duplex operation is also supported; please refer to the User Manual. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 12 of 23 I November 13, 2014

7 Data interfaces 7.1 CAN data interface This specification gives a detailed description of the CAN data communication used in the UMRR based systems on the sensor CAN. The UMRR is compliant with CAN 2.0B standard. CAN is a very robust full duplex bidirectional interface. 7.2 CAN-Settings Baud Rate: 500kBit/s or lower Tseg1: 8 Tseg2: 7 Tsjw: 1 (SJW: synchronization jump width) Above values for CAN bit timing are illustrated in Figure 8 for the DSP TI TMS320F28335 used in the UMRR radar sensor (note: the eCAN module is integrated in the DSP). For comparison purposes, in Figure 9 the CAN bit timing as defined by the CAN protocol is shown. For the DSP TMS320F28335 the value of SYNCSEG (Figure 8) is always equal to 1 TQ (Time Quantum) and it corresponds to the value Sync in Figure 9. TSEG1 (Figure 8) combines the two time segments Prop and Phase 1 (Figure 9) as defined by the CAN protocol. TSEG2 (Figure 8) corresponds to Phase 2 (Figure 9) The CAN bit timing parts as defined by the CAN protocol (Figure 9) can be described as follows: • Sync: This part of bit time is used to synchronize the various nodes on the bus. An edge is expected to lie within this segment. For the UMRR sensor, this segment is always 1 TIME QUANTUM (TQ). • Prop: This part of the bit time is used to compensate for the physical delay times within the network. It is twice the sum of the signal’s propagation time on the bus line, the input comparator delay, and the output driver delay. For the UMRR sensor, this segment is programmable from 1 to 8 TIME QUANTA (TQ. • Phase 1: This phase is used to compensate for positive edge phase error. For the UMRR sensor, this segment is programmable from 1 to 8 TIME QUANTA (TQ) and can be lengthened by resynchronization. • Phase 2: This phase is used to compensate for negative edge phase error. For the UMRR sensor, this segment is programmable from 2 to 8 TIME QUANTA (TQ) and can be shortened by resynchronization. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 13 of 23 I November 13, 2014

Figure 8: CAN bit timing for UMRR sensor (eCAN module on DSP TMS320F28335) Figure 9: CAN bit timing as defined by the CAN protocol 7.3 RS485 data interface The RS485 interface from the UMRR sensor has a predefined speed of 230400 baud/s. Typical other data rates are between 921.6kBit/s and 56.7kBit/s. The RS485 message payload is identical to the CAN format. The data messages will be sent in several packets of one byte. Every cycle begins with a start sequence and ends with a calculated checksum and an end sequence. The length of the data payload depends on the number of targets and tracked objects. Every cycle has one start sequence one end sequence and one checksum. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 14 of 23 I November 13, 2014

Table 3: RS485 message structure Byte\Bit 7 6 5 4 3 2 1 0 0 0xCA 1 0xCB Start sequence (4 x UINT8) 2 0xCC 3 0xCD x x x x Data payload (n x UINT8) x x x x 0 XOR Checksum (UINT8) 1 0xEA 2 0xEB End sequence (4 x UINT8) 3 0xEC 4 0xED Every data message consists of its own message ID, the number of used data bytes and the data bytes itself. The checksum is calculated on all data except the start sequence and the end sequence. The Checksum is a simple XOR Assignment of all n data bytes. Byte0 XOR Byte1 XOR Byte2 ... XOR Byte (n-1) CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 15 of 23 I November 13, 2014

Table 4: Structure of a RS485 data payload block Byte\Bit 7 6 5 4 3 2 1 0 0 High CAN message ID (UINT16) 1 Low 2 CAN message length (UINT8) 3 4 5 6 CAN data payload (length x UINT8) 7 8 9 10 The sensor receives only one message per cycle. It is important to wait for the end sequence to send an additional command. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 16 of 23 I November 13, 2014

7.4 Transceiver schematics In Figure 10 an extract of the DSP board schematic of the UMRR is given. As can be seen in this figure, the CAN A pins of the DSP TMS320F28335 are connected to a CAN transceiver which is connected to the pins CAN_A_L and CAN_A_H. Similarly, the RS485 pins of the DSP are connected to a RS485 transceiver, which is connected to the pins RS485_IN_P, RS485_IN_N, RS485_OUT_P and RS485_OUT_N. It should be noted that the mentioned pins CAN_A_L and CAN_A_H correspond to the pins 11 and 12 of the sensor connector described in section 6.1 and that the RS485 pins correspond to pins 3, 4, 5 and 6. The Pins CoPro_TX0_P, CoPro_TX0_N, CoPro_TXI_P and CoPro_TXI_N are connected to an Ethernet magnetic module, which is connected to the pins CoPro_TX1_N, CoPro_TX1_P, CoPro_TX2_N and CoPro_TX2_P. (please see Figure 11) These pins lead to the pins 1, 2, 9 and 10 of the connector, described in chapter 6.1. Figure 10: UMRR-0F0002 DSP board schematics, CAN and RS485 transceivers CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 17 of 23 I November 13, 2014

Figure 11: UMRR-0F0002 DSP board schematics, Ethernet CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 18 of 23 I November 13, 2014

8 Designated use The UMRR general purpose medium range radar is suitable for any application where the distance to and relative radial speed of large objects has to be measured. Typical applications are: Automotive: measure shortest distance to obstacle. Robotics: measure shortest distance to obstacle. Security: detect motions and measure distance to moving object. Traffic management: detect moving objects, count those, measure speed and measure distance to moving object. Cranes: measure distance to ground. Aircraft: measure distance to ground. The detection range depends on object size. Very large reflectors can be detected at a range of more than 500 m. CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 19 of 23 I November 13, 2014

9 Change the Frequency Band For some use cases it may be required to run the sensor in a different frequency range than the default one, to avoid interferences in multi sensor system for example. The sensor provides 7 possible frequency bands (FB6 … FB12) between 24.075 GHz and 24.175 GHz. There are two ways to change the sensors frequency band. One way is to change the sensor ID. With the ID the default frequency band changes as well. This change is non-volatile. The other way is to change the frequency band by hand, while the sensor ID remains the same. These changes are volatile and will be reset to default after power down unless you save them in the EEPROM by sending “Action 136”. To change the frequency band by hand send the command: • ParNo.: 36 • Value: 6…12 (=frequency index (FI), default = 6 (FI6), see Table 5) • Action: 65 • Format: Int then reinitialize the software: • ParNo.: don’t care • Value: 1 • Action: 130 • Format: Int Please note that we use a sensor ID dependent frequency offset (25 MHz) by default: Frequency Band = Frequency Index + Sensor ID * Offset Example: (Sensor ID2; Frequency Index 4) FI4 + 2 * 25 MHz = FB8 CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 20 of 23 I November 13, 2014

Table 5: ID dependent frequency offset f [GHz] frequency frequency frequency frequency frequency band index sensor index sensor index sensor index sensor ID0 ID1 ID2 ID3 24.0810 FB6 FI6 FI4 FI2 FI0 24.0935 FB7 FI7 FI5 FI3 FI1 24.1060 FB8 FI8 FI6 FI4 FI2 24.1185 FB9 FI9 FI7 FI5 FI3 24.1310 FB10 FI10 FI8 FI6 FI4 24.1435 FB11 FI11 FI9 FI7 FI5 24.1560 FB12 FI12 FI10 FI8 FI6 If you want to disable the sensor ID dependent frequency offset send the following command: • ParNo.: 8 • Value: 0 (=deactivated, 1= activated (default)) • Action: 20 • Format: Int If you use two sensors in combination we recommend you to choose frequency bands which are not adjacent in order to avoid any interference, for example: FB6 & FB8, FB7 & FB9, … CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 21 of 23 I November 13, 2014

10 Frequency Approval 10.1 Declaration of Conformity for USA 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. Usually this is followed by the following FCC caution: Any changes or modifications not expressly approved by the party responsible for compliance could void the user’s authority to operate this equipment. Note: This equipment 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 radiate radio frequency energy and, if not installed and used in accordance with the instructions, may case harmful interferences 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 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. 10.1.1 FCC Label Figure 12: FCC ID CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 22 of 23 I November 13, 2014

10.2 Declaration of Conformity for CANADA 10.2.1 Declaration of Conformity in English 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 interference, and (2) this device must accept any interference, including interference that may cause undesired operation of the device. IC Radiation Exposure Statement: This equipment complies with IC RSS-102 radiation exposure limits set forth for an uncontrolled environment. This equipment should be installed and operated with the minimum distance 20cm between the radiator & your body. 10.2.2 Déclaration de conformité en francais Le present appareil est conforme aux CNR d’Industrie Canada applicables aus appareils radio exempts de licence. Léxploitation est autorisée aux deux conditions suivantes: (1) l’appareil ne doit pas produire de brouillage, et (2) l’utilisaeur de l’appareil doit accepter tout brouillage radioélectrique subi, même si le brouillage est susceptible d’en compromettre le fonctionnement. DÉCLARATION D’EXPOSITION AUX RADIATIONS Cet equipement est conforme aux limites d’exposition aux rayonnements IC établies pour un environnement non contrôlé. Cetéquipement doit être installé et utilisé avec un minimum de 20cm de distance entre la source de rayonnement et votre corps. 10.2.3 Industry Canada (IC) Label Figure 13: Label IC Model (Sample) Figure 14: Label IC Number CONFIDENTIAL AND PROPRIETARY The Information contained in this document shall remain the sole exclusive property of s.m.s smart microwave sensors GmbH and shall not be disclosed by the recipient to third parties without prior consent of s.m.s smart microwave sensors GmbH in writing. UMRR-0F0002-1D0907-050B00 General Purpose USA Version 1 I Page 23 of 23 I November 13, 2014


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