ZATXTAGThe xTag is a development tool for TIs 2.4 GHz xTag BLE System-on-Chip

January 2014 Model: xTAG FCC ID: ZATxTAG IC: 451H-xTAG Web sites: www.ti.com/lprf E2E Forum: www.ti.com/lprf-forum Make sure to subscribe to the Low-Power RF Newsletter to receive information about updates to documentation, new product releases, and more. Sign up on the TI web pages. CC2650 SensorTag Quick Start Guide Opening the Box and Using the SensorTag The SensorTag simplifies development of Bluetooth low energy sensor applications. It allows app developers to quickly and easy write smart phone apps for Bluetooth low energy accessories without any embedded hardware or software development. www.ti.com/sensortag 1. Kit Contents • 1 x CC2650 SensorTag with enclosure • 1 x CR2032 Battery • Quick Start Guide The RF board in this kit is FCC and IC certified and tested/complies with ETSI/R&TTE over temperature from 0 to +35°C 1 . The RF board has an integrated PCB antenna. FCC/IC Regulatory Compliance FCC Part 15 Class A Compliant IC ICES-003 Class A Compliant Caution! Dispose the battery properly and keep out of reach of children. If swallowed, contact a physician immediately. 2. Assembly of the SensorTag Insert the battery 2 in the battery connector and place the printed circuit board in the black plastic cover with the battery facing down. Note that when inserting the battery for the first time, the PCB contact point surface may have a thin layer of solder residue that can prevent contact with the battery. Remove and insert the battery a few times to power the SensorTag. Caution! The kit contains ESD sensitive components. Handle with care to prevent permanent damage. Add the transparent plastic cover to close the inner hard plastic pieces. Complete the assembly of the SensorTag by adding the red plastic cover. 3. Sensors The SensorTag is fitted with several sensors and all sensors are chosen to be small, energy efficient and low cost surface mount devices. The main communication interface with the sensors are two separate I2C interface, one for the low power sensors and one for high power sensors (accelerometer/gyroscope). To minimize total current consumption all sensors are by default disabled and they are in sleep mode between measurements. Each sensor can be enabled and read individually. The SensorTag includes the following sensors: • IR Temperature Sensor (TMP006) from Texas Instruments, http://www.ti.com/product/tmp006 • Ambient Light Sensor (OPT3001) from Texas Instruments • Humidity Sensor (SHT21) from Sensirion, • http://www.sensirion.com/en/products/humidi ty-temperature/humidity-sensor-sht21/ • Pressure Sensor (BMP280) from Bosch, • Accelerometer/Gyroscope (MPU-6500) from Invensense, • Reed Switch (MK24) from Meder • Microphone (SPH0641) from Knowles • Buzzer (HCS0503A) from Changzhou Tianyin Electrical Appliance Co. 4. Downloading the SensorTag app The SensorTag can communicate with any Bluetooth 4.0 enabled devices, for instance a smart phone or a tablet. The Bluetooth SensorTag app is supported for both Bluetooth 4.0 enabled iOS devices and Bluetooth 4.0 supported Android devices running Android 4.3. Download the TI Bluetooth iOS SensorTag app from Apple’s App Store: Or search for SensorTag on App Store. Download the TI Bluetooth Android SensorTag app from http://www.ti.com/tool/sensortag-sw: 5. Connecting to a Bluetooth 4.0 enabled device For a Bluetooth 4.0 device to communicate with the SensorTag, Bluetooth needs to be turned on and the SensorTag needs to be advertising. The SensorTag can enable and disable advertising by pushing the power button (see picture above). When the SensorTag is advertising the red LED will blink. Start the TI Bluetooth SensorTag app. When the app is launched it will search for all Bluetooth low energy devices in the area. Enable advertising by clicking on the power button. The SensorTag icon should appear indicating a successful connection. If no Bluetooth 4.0 devices are detected by the SensorTag within 2 minutes, advertising will stop and the SensorTag will go back to sleep. To re- activate advertising and turning on the SensorTag press the power button once more. 1 Operating temperature for CC2650 is -40° to 85°C 2 Maximum input voltage is 3.6V Action Button Power Button LED 6. Use the SensorTag app The TI Bluetooth SensorTag app allows you to create your “own” app by selecting the different sensors you want to use. When connected to the SensorTag click on the SensorTag tab to see readings from the sensors. Turn on and off the sensors by selecting ‘Profiles’ in the bottom, left corner on iOS or click on ‘Services’ on Android. In the Profiles section on iOS it is possible to adjust the sensor data collection interval by moving the sliding bars, and select which axis to display for the multi-axis sensors. When you click ‘Back’ the TI Bluetooth SensorTag app will display the selected sensor data with the selected data interval. Enable sensor information data by clicking the different sensors, this will also allow for a graph view of the sensor readings. The data collected in the graph view can then be sent to an e-mail address by clicking on the icon in the bottom left corner. 7. Using the app as an attribute and service explorer You can use the Bluetooth SensorTag iOS app to read the services and attributes of any Bluetooth low energy enabled device. Connect the Bluetooth low energy device, and make sure that the Bluetooth low energy device is advertising prior to connecting. When the device is seen in the available device list select ‘Advanced Mode’ in the bottom left corner. In advanced mode an RSSI indicator is available and by clicking on the device it will connect to the iOS device. If you then click and hold on the device name you will be able to; Show Profiles, Show Services & Characteristics, Show Advertisement data or disconnect. Select Show Services & Characteristics to view the services and characteristics of the Bluetooth low energy device. When Show Services & Characteristics is selected, click on the arrow next to the differen…

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xTAG CC2650 f = <2400 MHz – 2480 MHz> LNA PA AAF ADC ADC DEMODULATOR MODULATOR RADIO CONTROLLER AND DATA INTERFACE QI RF_N RF_P I Q CLOCK MUX X O S C _ Q 2 X O S C _ Q 1 48 MHz RC-OSC 32 kHz RC-OSC 24 MHz Crystal OSC 32.768 kHz Crystal OSC BALUN ADC CLOCK RF PLL f_internal = <4800 MHz – 4960 MHz> f_output = <2400 MHz – 2480 MHz> CTRL X 3 2 K _ Q 2 X 3 2 K _ Q 1

Texas Instruments Norway AS Gaustadalléen 21 0349 Oslo Norway (+47) 23 36 98 11 (+47) 23 36 98 01 Page 1 of 1 January 14 th , 2014 The xTAG is a development tool for Bluetooth low energy applications in the 2.4GHz ISM band. The xTAG has an on-board PCB inverted F type antenna. The xTAG is an engineering development board and cannot be used in an end product. Texas Instruments Norway AS requests Nemko AS to do all necessary testing on the xTAG to be FCC certified according to FCC CFR 47 Part 15.247 for systems operating in the 2.4GHz ISM band. _________________ Magnus Wines Tools Manager

INTERNAL PHOTOS Projectno.:250972 FCC ID:ZATXTAG Page1(3) EXTERNALPHOTOS–xTAG xTAG–View from above and bottom INTERNAL PHOTOS Projectno.:250972 FCC ID:ZATXTAG Page2(3) xTAG-Side views–Switch INTERNAL PHOTOS Projectno.:250972 FCC ID:ZATXTAG Page3(3) xTAG–Side view

Texas Instruments Norway AS Gaustadalléen 21 0349 Oslo Norway (+47) 23 36 98 11 (+47) 23 36 98 01 Description of FCC/IC/CE marking on XTAG The FCC/IC/CE labeling of the XTAG is shown below. The required labels are printed in the silk layer directly on the circuit board. Front side view Back side view The board size is 32x42mm. For the first samples there will be a sticker with the FCC/IC label, the sticker dimension is shown below and also shown on the PCB:

INTERNAL PHOTOS Projectno.:250972 FCC ID:ZATXTAG Page1(2) INTERNALPHOTOS–xTAG xTAG INTERNAL PHOTOS Projectno.:250972 FCC ID:ZATXTAG Page2(2) xTAGwithcover–front side xTAGwith cover–rear side

Texas Instruments Norway AS Gaustadalléen 21 0349 Oslo Norway (+47) 23 36 98 11 (+47) 23 36 98 01 Page 1 of 1 Technical Description The xTAG is an evaluation board for the new CC2650 chip from Texas Instruments. The board is powered by a CR2032 battery that delivers 3.0V to the Wireless MCU. The xTAG is intended to be used for development of Bluetooth Smart applications. The CC2650 Wireless MCU has a differential RF output. On the xTAG this differential output is transformed to a single ended, 50 ohm signal through a discrete balun. Additionally, the balun greatly reduces harmonic radiation. The single ended output of the balun is connected to an on-board PCB antenna. The device uses the modulation format and data rate as specified in the Bluetooth core spec version 4.0 for low energy devices, i.e. GFSK, 1 Mbps. The xTAG is an engineering development board and cannot be used in an end product.

Part Reference Quantity Value MPN Manufacturer A1 1 2.4GHz DN007 TEXAS INSTRUMENTS ANT1 1 2nH LQG15HS2N0S02D MURATA ANT2 ANT3 2 1.2pF GRM1555C1H1R2BA01D MURATA ANT4 1 12pF CM05CG120J50AH KYOCERA ANT5 C17 C18 3 DNM_0402 CAPACITOR_0402_DNM_N/A_M MANUFACTURER SELECTION BAT+ 1 BAT+ BAT- 1 BAT- BT1 1 BAT-HLD-001 BAT-HLD-001 LINX BZ1 1 HCS0503B HCS0503B CHANGZHOU TIANYIN C1 1 2.2uF GRM188R61A225ME34D MURATA C2 C3 C4 C6 C19 C20 C21 C22 C23 C24 C25 C27 C28 13 0.1uF GRM033C80J104KE84D MURATA C5 C7 2 4.7uF GRM188R60J475KE19D MURATA C8 C9 2 1uF GRM155R61A105KE15D MURATA C10 1 6.8pF GRM1555C1H6R8CA01D MURATA C11 C13 2 1pF GRM1555C1H1R0CA01D MURATA C12 C16 2 1uF GRM155F50J105ZE01D MURATA C14 C15 2 12pF GRM1555C1H120JA01D MURATA C26 1 10nF GRM033R71A103KA01D MURATA CR1 1 LS L296-P2Q2-1 LS L296-P2Q2-1-Z OSRAM FIDU1 FIDU2 FIDU3 FIDU4 FIDU5 FIDU6 6 FIDU_1.27mm FL1 1 BLM18HE152SN1 BLM18HE152SN1D MURATA J1 1 MS-156HF MS-156HF HIROSE J2 1 LSS-110-01-F-DV-A-TR LSS-110-01-F-DV-A-TR SAMTEC L1 1 10uH CKS2125100M-T TAIYO YUDEN L2 L3 2 2.4nH LQG15HN2N4S02D MURATA P1 1 BB02-BS101-KA8-025B00 BB02-BS101-KA8-025B00 GRADCONN Q1 1 BC846B BC846B,215 NXP R1 1 47k RESISTOR_0402_47k_+/-5%_50V_0.063W_M_+/-200PPM Manufacturer selection R2 R3 R4 R5 4 2.2k CRCW02012K20JNED VISHAY R6 1 200k CRCW0201200KFKED VISHAY DALE R7 1 10k RMCF0201JT10K0 SEI STACKPOLE R8 1 5.1 RMC1/205R1JPA KAMAYA R9 1 2Meg RC0402FR-072ML YAGEO R10 R21 R22 3 270 239040742700 YAGEO R11 1 0 RESISTOR_0201_0_+/-1%_30V_0.05W_M_+/-100PPM Manufacturer selection R12 R16 R17 R26 4 0 RESISTOR_0402_0_+/-5%_50V_0.063W_M_+/-200PPM MANUFACTURER SELECTION R18 R19 R23 3 DNM DNM DO NOT MOUNT R24 R25 2 10k CRCW020110K0JNED VISHAY SW1 SW2 2 MTA2-WNC MTA2-WNC-V-T/R DIPTRONICS SW3 1 MK24-A MK24-A-3 MEDER U1 1 CC26xx-7x7 CC26xx_7x7_QFN48 TEXAS INSTRUMENTS U2 1 TS5A3159AYZPR TS5A3159AYZPR TEXAS INSTRUMENTS U3 1 BMP280 BMP280 BOSCH U4 1 TMP006 TMP006AIYZFR TEXAS INSTRUMENTS U6 1 SPH0641LM4H-1 SPH0641LM4H-1 KNOWLES U7 1 OPT3001 OPT3001 TEXAS INSTRUMENTS U8 1 MPU-6500 MPU-6500 INVENSENSE U9 1 SHT21 SHT21 SENSIRION U10 1 W25X20CLUXIG W25X20CLUXIG WINBOND Y1 1 32.768kHz FC-135 32.7680KA-AC EPSON ELECTRONICS AMERICA Y2 1 24MHz TSX-3225 24MHz Epson Toyocom

SAR Exclusion Justification Test exclusion thresholds for 100 MHz to 6 GHz at test separation distances ≤ 50 mm Guidance document reference: 447498 D01 General RF Exposure Guidance v05r01, page 11, paragraph 4.3.1(1). The 1-g and 10-g SAR test exclusion thresholds for 100 MHz to 6 GHz at test separation distances ≤ 50 mm are determined by: [(max. power of channel, including tune-up tolerance, mW)/(min. test separation distance, mm)] * [ √f(GHz)] ≤ 3.0 for 1 -g SAR and ≤ 7.5 for 10-g extremity SAR, where • f(GHz) is the RF channel transmit frequency in GHz • Power and distance are rounded to the nearest mW and mm before calculation • The result is rounded to one decimal place for comparison • 3.0 and 7.5 are referred to as the numeric thresholds in the step 2 below The test exclusions are applicable only when the minimum test separation distance is ≤ 50 mm and for transmission frequencies between 100 MHz and 6 GHz. When the minimum test separation distance is < 5 mm, a distance of 5 mm according to 5) in section 4.1 is applied to determine SAR test exclusion. SAR test exclusion analysis: Assumptions: Since the exact separation distance may vary from sensor to sensor, the minimum separation distance of 5 mm is assumed per the guidance document. Max. power of channel: 3.42 mW Min. separation distance: 5 mm Max. Frequency: 2.48 GHz [(Pwr/Dist)*√Freq] = 1.08 The result of the above SAR threshold calculation demonstrates that the result is less than the 1-g numeric threshold of 3 and the 10-g numeric threshold of 7.5. Conclusion: The above analysis shows that the evaluated device qualifies for exemption from SAR testing. Signed: , Chief Engineer 2/21/2014

11 22 33 44 55 A A B B C C D D VDD VDD JTAG_TCKJTAG_TMSBUTTON1BUTTON2LED VDD SDA SCL SDA HP SCL HP SCLSDASCL HPSDA HPACC/GYRO INTReed INT nRESET nRESET MIC PWR PDM DATA PDM CLK MIC PWRPDM CLKPDM DATA BUZZER EN BUZZER EN SKIN IDSCLSDAIO_6/PWMIO_7/SCLKIO_0IO_1IO_2IO_3IO_4IO_5IO_8/TDIIO_9/UART_RX/MISOIO_10/UART_TX/MOSIIO_11/CSNIO_12/TDO ACC/GYRO INT Reed INT PDM CH SEL PDM CH SEL SKIN IDIO_6/PWMIO_7/SCLKIO_0IO_1IO_2IO_3IO_4IO_5IO_8/TDIIO_9/UART_RX/MISOIO_10/UART_TX/MOSIIO_11/CSNIO_12/TDO ACC/GYRO PWR ACC/GYRO PWR FLASH_CS FLASH_CS Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 1 4 0.4 A4 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 1 4 0.4 A4 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 1 4 0.4 A4 NNNN Thursday, January 09, 2014 FIDU6 N1Sensors VDDSCLMPU-6500 - INTERUPTSDAReed INTPDM DATAPDM CLKMIC PWRSDA HPSCL HPACC/GYRO PWR FIDU3 H1CC2650 VDD SCL SDA LED Reed INT ACC/GYRO INT Buzzer EN PDM DATA PDM CLK IO_0IO_1IO_2IO_3IO_4 SKIN_ID SDA HP SCL HP MIC PWR JTAG_TCK JTAG_TMS nRESET IO_8/TDI IO_5 IO_11/CSN IO_7/SCLK IO_9/UART_RX/MISO IO_12/TDO IO_10/UART_TX/MOSI ACC/GYRO PWR FLASH_CS BUTTON1BUTTON2 IO_6/PWM FIDU4 FIDU5 K1 Peripheral and Power LEDBUTTON1VDDJTAG_TCKJTAG_TMSBUTTON2nRESETBuzzer ENSKIN_IDSCLIO_0IO_1SDAIO_2IO_3IO_4IO_8/TDIIO_10/UART_TX/MOSIIO_5IO_11/CSNIO_9/UART_RX/MISOIO_7/SCLKIO_12/TDOFLASH_CSIO_6/PWM FIDU1 FIDU2 55 44 33 22 11 D D C C B B A A VDDS Decoupling Capacitors Pin 22 Pin 13 Pin 34 Pin 44 Pin 48 Pin 45 VDDR Decoupling Capacitors Coaxial switch DCDC_SW DCDC_SW VDD IO_4 LED SCL HP ACC/GYRO INT SDA HP Reed INT IO_9/UART_RX/MISOIO_10/UART_TX/MOSI PDM DATA PDM CLK MIC PWR IO_11/CSN SKIN_ID IO_2IO_1IO_0IO_3IO_8/TDIBuzzer ENIO_6/PWMIO_12/TDO IO_7/SCLK SDA SCL IO_5 JTAG_TMSJTAG_TCK nRESET VDD ACC/GYRO PWR FLASH_CS BUTTON2BUTTON1 VDD VDDS VDDS VDDR VDDR VDDS VDD VDD Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 2 4 0.4 A4 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 2 4 0.4 A4 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 2 4 0.4 A4 NNNN Thursday, January 09, 2014 ANT21.2pF C12.2uF U1ACC26xx-7x7 JTAG_TMSC 24 JTAG_TCKC 25 RESET_N 35 DCDC_SW 33 X32K_Q1 3 X32K_Q2 4 DCOUPL 23 VSS 49 VDDS2 13 VDDS3 22 VDDS 44 VDDS_DCDC 34 VDDR 45 VDDR 48 RF_P 1 RF_N 2 X24M_N 46 X24M_P 47 A12.4GHz 3 21 FL1BLM18HE152SN1 1 2 L32.4nH 1 2 J1MS-156HF 1 2 3 4 Y1 32.768kHz C6 0.1uF C74.7uF L22.4nH 12 C4 0.1uF C17 DNM_0402 L110uH 1 2 C131pF C9 1uF C111pF C8 1uF C106.8pF CC26xx-7x7U1B DIO_0 5 DIO_1 6 DIO_2 7 DIO_3 8 DIO_4 9 DIO_5 10 DIO_6 11 DIO_7 12 DIO_8 14 DIO_9 15 DIO_10 16 DIO_11 17 DIO_12 18 DIO_13 19 DIO_14 20 DIO_15 21 DIO_16 26 DIO_17 27 DIO_18 28 DIO_19 29 DIO_20 30 DIO_21 31 DIO_22 32 DIO_23 36 DIO_24 37 DIO_25 38 DIO_26 39 DIO_27 40 DIO_28 41 DIO_29 42 DIO_30 43 C161uF R6200k ANT5DNM_0402 ANT412pF C3 0.1uF C14 12pF R32.2kC2 0.1uF C1512pF C54.7uF C18DNM_0402 R22.2k R52.2k Y224MHz 1 2 4 3 ANT12nH 1 2 R147k R42.2kC12 1uF ANT31.2pF 11 22 33 44 55 A A B B C C D D LED and Buttons Buzzer Debug / JTAG interface SKIN Connector Battery interface POW ER GOOD VDD_BATT Skin->VDD LED JTAG_TCK JTAG_TMS VDD nRESET Buzzer EN VDD IO_6/PW MIO_5 IO_12/TDO IO_7/SCLKIO_0IO_2IO_1 SKIN_ID IO_11/CSN IO_9/UART_RX/MISOIO_10/UART_TX/MOSI IO_3IO_4 IO_8/TDI SDA SCL VDD VDD IO_8/TDI IO_12/TDO IO_7/SCLK IO_10/UART_TX/MOSI FLASH_CS IO_9/UART_RX/MISO VDD VDD BUTTON1BUTTON2 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 3 4 0.4 A3 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 3 4 0.4 A3 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 3 4 0.4 A3 NNNN Thursday, January 09, 2014 R2410k U10W 25X20CLUXIG GND 4 VCC 8 nCS 1 CLK 6 DI/IO0 5 DO/IO1 2 nWP 3 nHOLD 7 EGP 9 R10270 R21270 + + - BT1BAT-HLD-001 1 2 3 U2 TS5A3159AYZPR IN A2 GND B1 NO A1 COM C2 NC C1 V+ B2 R22270 R260 R85.1 CR1 LS L296-P2Q2-1 2 1 R710k R120 R92Meg MTA2-W NCSW 2 1 2 J2LSS-110-01-F-DV-A-TR 13579 1113151719 2468101214161820 Q1BC846B 1 32 R23DNM MTA2-W NCSW 1 1 2 - BAT- + BAT+ C28 0.1uF P1M50-3600542 2468 10 13579 R2510k + - BZ1HCS0503B 21 3 11 22 33 44 55 A A B B C C D D Reed Relay Pressure Sensor Gyroscope and accelerometer Infrared Thermopile Sensor Humidity Microphone Light Sensor VDD VDD SCL HP SDA HP MPU-6500 - INTERUPT VDD VDD Reed INT SCL SDA VDD SCL SDA PDM CLK VDD SCL SDA SCL SDA PDM DATA MIC PW R VDD VDD ACC/GYRO PW R VDD Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 4 4 0.4 A3 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 4 4 0.4 A3 NNNN Thursday, January 09, 2014 Title:Drawn:Checked:Size: Rev: Sheet: of Date: xTAG 4 4 0.4 A3 NNNN Thursday, January 09, 2014 SW 3MK24-A 2 1 R160 C23 0.1uF C20 0.1uF C2610nF U6SPH0641LM4H-1 VDD 5 SELECT 2 CLOCK 4 DATA 1 GND 3 MPU-6500U8 NC_6 6 AUX_DA 21 AUX_CL 7 VDDIO 8 AD0/SDO 9 REGOUT 10 FSYNC 11 INT 12 VDD 13 GND 18 RESV_19 19 NC_1 1 RESV_20 20 nCS 22 SCL/SCLK 23 SDA/SDI 24 EGP 25 NC_14 14 NC_15 15 NC_16 16 NC_17 17 NC_2 2 NC_3 3 NC_4 4 NC_5 5 C22 0.1uF R18DNM U4TMP006 nDRDY C2 SDA C3 DGND A1 AGND A2 V+ A3 ADR1 B1 SCL B3 ADR0 C1 C210.1uF OPT3001U7 nINT 5 ADDR 2 nCLK 4 VDD 1 GND 3 DATA 6 R170 U3BMP280 GND 1 CSB 2 VDDIO 6 GND 7 SDI 3 SCK 4 SDO 5 VDD 8 R19DNM C250.1uF C190.1uF C270.1uF R11 0 U9SHT21 SDA 1 VSS 2 NC_3 3 NC_4 4 SCL 6 VDD 5 EGP 7 C24 0.1uF

Report No. 250972-1 Template version: B Nemko Norway Nemko AS, Instituttveien 6, P.O. Box 96 Kjeller, 2027 Kjeller, Norway TEL +47 22 96 03 30 FAX +47 22 96 05 50 EMAIL [email protected] ENTERPRISE NUMBER NO974404532 nemko.com/no Test Report Product Evaluation Board for 2.4 GHz BT Low Energy System-on-Chip Name and address of the applicant Texas Instruments Norway AS Gaustadalléen 21, NO-0349 Oslo, Norway Name and address of the manufacturer Texas Instruments Norway AS Gaustadalléen 21, NO-0349 Oslo, Norway Model xTAG Rating 3.0Vdc Trademark Texas Instruments Serial number / Additional information Bluetooth Low Energy (BLE) device Tested according to FCC Part 15.247 Digital Transmission Systems Industry Canada RSS-210, Issue 8 Low Power Licence-Exempt Radiocommunications Devices Order number 250972 Tested in period 2014.01.02 to 2014.01.06 Issue date 2014.01.17 Name and address of the testing laboratory Instituttveien 6 Kjeller, Norway FCC No: 994405 IC OATS: 2040D-1 TEL: (+47) 22 96 03 30 FAX: (+47) 22 96 05 50 Prepared by [G.Suhanthakumar] Approved by [Frode Sveinsen] This report shall not be reproduced except in full without the written approval of Nemko. Opinions and interpretations expressed within this report are not part of the current accreditation. This report was originally distributed electronically with digital signatures. For more information contact Nemko. TEST REPORT FCC Part 15.247 Report no.: 250972-1 FCC ID: ZATXTAG Nemko Norway, Instituttveien 6, Kjeller, Norway Page 2 (58) CONTENTS 1 INFORMATION ......................................................................................................................... 3 1.1 Test Item .................................................................................................................................... 3 1.2 Test Environment ....................................................................................................................... 4 1.2.1 Normal test condition ................................................................................................... 4 1.3 Test Engineer(s) ........................................................................................................................ 4 1.4 Test Equipment .......................................................................................................................... 4 2 TEST REPORT SUMMARY ...................................................................................................... 5 2.1 General ...................................................................................................................................... 5 2.2 Test Summary ........................................................................................................................... 6 2.3 Description of modification for Modification Filing ...................................................................... 6 2.4 Comments ................................................................................................................................. 6 2.5 Family List Rational ................................................................................................................... 6 3 TEST RESULTS ........................................................................................................................ 7 3.1 Power Line Conducted Emissions ............................................................................................. 7 3.2 Minimum 6 dB Bandwidth .......................................................................................................... 8 3.3 20 dB Bandwidth ...................................................................................................................... 12 3.4 Peak Power Output .................................................................................................................. 13 3.5 Spurious Emissions (Radiated)................................................................................................ 23 3.6 Power Spectral Density (PSD) ................................................................................................. 53 4 LIST OF TEST EQUIPMENT................................................................................................... 57 5 BLOCK DIAGRAM .................................................................................................................. 58 5.1 Power Line Conducted Emission ............................................................................................. 58 5.2 Test Site Radiated Emission .................................................................................................... 58 TEST REPORT FCC Part 15.247 Report no.: 250972-1 FCC ID: ZATXTAG Nemko Norway, Instituttveien 6, Kjeller, Norway Page 3 (58) 1 INFORMATION 1.1 Test Item Name : Texas Instruments FCC ID : ZATXTAG IC : 451H-XTAG Model/version : xTAG Serial number : - Hardware identity and/or version: Rev.0.4 Software identity and/or version : - Frequency Range : 2402 – 2480 MHz Number of Channels : 40 Type of Modulation : GFSK, 250 kHz deviation (Digital) Conducted Output Power: 3.07 mW (Peak) User Frequency Adjustment : None Type of Power Supply : 3.0V DC (1x CR2032 Lithium Battery) Antenna Connector : N/A Antenna type: PCB antenna Antenna Diversity Supported : No Desktop Charger : None Description of Test Item The xTAG RF-transceiver module is an evaluation board for the xTAG System-on-Chip designed to operate in the 2.4 GHz ISM band. The xTAG radio complies with the BLE PHY requirements. TEST REPORT FCC Part 15.247 Report no.: 250972-1 FCC ID: ZATXTAG Nemko Norway, Instituttveien 6, Kjeller, Norway Page 4 (58) 1.2 Test Environment 1.2.1 Normal test condition Temperature: 21 - 22 °C Relative humidity: 42 - 48 % Normal test voltage: 3.0 V DC The values are the limit registered during the test period. 1.3 Test Engineer(s) G.Suhanthakumar 1.4 Test Equipment See list of test equipment in clause 4. TEST REPORT …

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TEST SET-UPPHOTOS Projectno.:250972 FCC ID:ZATXTAG Page1(2) PHOTOS OF TEST SET-UP Radiated emissions-< 30MHz, 10 meter RadiatedEmissions30-1000 MHz, 3 meter TEST SET-UPPHOTOS Projectno.:250972 FCC ID:ZATXTAG Page2(2) Radiated emissions 1–25 GHz, 3 meter & 1 meter