
Text extracted from the exhibit documents filed with the FCC. Open a document above to read the original.
SWRU276a October 2012 1/3 CC1180DB Nodes CC430 Node Edge Router (Gateway) CC430 Node CC1180EM Adapter Card Green LED Switch S7-2 SD Card slot CC-6LOWPAN-DK-868 Quick Start Guide STEP 1 – Introduction This guide describes how to set up a CC-6LOWPAN-DK-868 development kit using the pre-programmed devices of the CC-6LOWPAN-DK-868 Kit. The 6LoWPAN development kit is designed to give a simple introduction to 6LoWPAN wireless networks in the 868/915MHz bands. The hardware consists of an OMAP-L138 based Edge Router equipped with a CC1180EM, 2 CC430F5137 based nodes and 2 CC1180DB nodes. The CC1180DB boards consist of a network processor (CC1180) pre-programmed with a 6LoWPAN software stack, and a MSP430F5438A microcontroller that controls the 6LoWPAN device. The CC430 based nodes consists of a CC430F5137 SoC (RF+MCU) that runs both the 6LoWPAN software stack and the controlling application. The Edge Router board is running Linux and is pre-programmed with Sensinode Nanorouter 2.0 software, which acts as a bridge between IPv6 and 6LoWPAN. The Edge Router is connected to a PC via Ethernet. The Edge Router sets up the network and configures the 6LoWPAN network parameters. The development kit demonstrates an example of a typical sensor network with a simple Network Analyzer software running on the nodes. The nodes are automatically given a unique IPv6 address and can be pinged from a PC using standard tools. Each node in the 6LoWPAN network also has a unique preprogrammed IEEE address. The battery powered nodes can act as routers that on request report their key data to the Edge Router. STEP 2 – Install the PC software and connect the Edge Router Install the Windows IPv6 stack on a Windows XP PC. The IPv6 installation is not needed in Linux and Windows 7, since IPv6 is already installed. Open a command prompt and write ipv6 install Assign the IPv6 address 2001::22 to the PC using the command prompt: (Run in administrator mode in Windows 7) netsh interface ipv6 add address “Local Area Connection” 2001::22 Set up a default route using the command prompt: (Run in administrator mode in Windows 7) netsh interface ipv6 add route ::/0 “Local Area Connection” Note! You must change “Local Area Connection” to the actual name of the Ethernet connection you want to use. You can get it from Windows Network Connections. The IPv6 address 2001::22 has to be unique on your network. Plug in the power cable to the Edge Router and connect the Ethernet cable between the Edge Router and the PC. Make sure that the Edge Router is not powered on. Insert the SD card into the slot on the Edge Router. Connect the CC1180EM to the adapter card and connect an antenna to the CC1180EM. Connect the adapter card to the J30 connector on the Edge Router. The adapter card can be fastened to the Edge Router by the provided M2 screws. Make sure that the switch S7-2 is in position ON, and all other in position OFF. Power on the Edge Router using the S4 switch. It will take approximately 40 seconds to boot the Edge Router. When the green LED on the Adapter Card goes ON it indicates that the Edge Router is up and running. You can connect the provided RS-232 NULL modem cable between the Edge Router and PC to get debug information, use e.g. Windows HyperTerminal with settings; Baud Rate 115200, 8 Data Bits, No Parity, One Stop Bit and No Flow Control. SWRU276a October 2012 2/3 Jumper J1 STEP 3 – Connecting the nodes to the 6LoWPAN network Insert batteries in one or more of the CC1180DB boards and make sure the jumper is connected between P1-1 and P1-2 to power on the node. It will automatically connect to existing network. LEDs D1 and D2 are controlled from the CC1180 network processor and gives status on node connection. When the CC1180DB node is connected to the network the green LED (D2) will be on, if not connected it will be off. The red LED (D1) blink when node is communicating. LEDs D3 and D4 are controlled from the host MCU and displays the RSSI value. Both LEDs off: RSSI above - 40dBm, green LED on red LED off: RSSI between -40 and -65dBm, both LEDs on: RSSI between -65 and -90dBm, green LED off red LED on: RSSI below -90dBm. The red LED toggles with 1 sec interval if 3 concurrent reply messages were missed or Analyzer is not activated on PC. Insert batteries in one or more of the CC430F5137 battery packs and connect an antenna. Connect the battery pack cable to power on the node. LEDs D1 and D2 are controlled from the 6LoWPAN stack in CC430 and gives status on node connection. When the CC430 node is connected to the network the green LED (D1) will be on. The red LED (D2) blink when node is communicating. When nodes are powered on they connect automatically to the 6LoWPAN network, either directly to the Edge Router or via other nodes (Routers) in the network. Upon request from the Edge Router they send messages including network information to the Edge Router. Warning! To minimize risk of personal injury or property damage, never use rechargeable batteries to power the boards. Do not leave the EVM powered when unattended. Note that there should only be one active power source at any one time. STEP 4 – Installing and Using NodeView Network Analyzer software Node View can be used to interact with the nodes in the network. It has several powerful features such as Network Analyzer, message logs, running demo applications and to send custom data to nodes. Download and install the latest Java runtime engine from www.java.com to your Windows PC. Minimum version of Java to run NodeView is 1.6.0 Extract the provided NodeView package to C:\NodeView NodeView package can be found via link on www.ti.com Start NodeView by double-clicking the extracted NodeViewProDyn.jar file in C:\NodeView Connect to your Edge Router by selecting File -> Add NanoRouter IPv6 in the RouterView tab. Enter the IPv6 address of the Edge Router which is 2001::11 The connected Edge Router is then shown in the Routers field. The connected nodes are shown in the Nodes field…
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f = <902MHz – 928MHz> LNA PA FREQUENCY SYNTHESIZER f_internal = <5412MHz – 5568MHz> f_output = <902MHz – 928MHz> AAF ADCADC DEMODULATOR MODULATOR RADIO CONTROLLER AND DATA INTERFACE RF_P RF_N CLOCK MUX P2_4 P2_3 XOSC_Q2 XOSC_Q1 13MHz RC-OSC 34.7kHz RC-OSC 26MHz Crystal OSC 32.768kHz Crystal OSC IQ Q I BALUN DMARAM CPU CTRL
Project no.: 182231-5 Page 1 of 1 EXTERNAL PHOTOS – SmartRFCC1110EM SmartRFCC1110EM
Certification Document Label 1/1 Description of label for CC1180DB FCC/IC/CE labeling of product is shown below. The labels are attached to the backside of the printed circuit board. ~ 1 1 9 m m ~ 40 mm Texas Instruments Model: CC1180DB Rev.: x.x.x MAC.: xx xxxx FCC ID: ZAT1180DB868 IC: 451H-1180DB868
Project no.: 182231-5 Page 1 of 1 INTERNAL PHOTOS – SmartRFCC1110EM SmartRFCC1110EM
Texas Instruments Norway AS Gaustadalléen 21 0349 Oslo Norway (+47) 22 95 85 44 (+47) 22 95 85 46 Technical Description The CC1180DB, see Figure 1, includes Texas Instruments’ CC1180, which is a sub-1 GHz system-on-chip (SoC) designed for low power wireless applications. The CC1180 combines a sub-1 GHz transceiver and a single-cycle 8051 MCU, 32 kB of in-system programmable flash memory and 4 kB of RAM. CC1180 has a balanced output (RF_N and RF_P), which is transformed to a single ended, 50 ohm signal through a passive component (capacitor/inductor) balun. The output of the balun is low pass filtered to attenuate harmonic radiation and then connected to a PCB antenna. For antenna performance please refer to design note DN024 (www.ti.com/lit/swra227). The CC1180 on the CC1180DB needs to be programmed in order to operate within the 915 MHz frequency band, i.e. the user needs to configure the CC1180DB for operation in the 902-928 MHz frequency band using appropriate tools and software provided by TI. Figure 1 CC1180DB
CC1180DB rev 1.1.0 Ref. Part namePcs/unitDescriptionManufacturerPart numberSupplierOrdering codeAlt. ManufacturerAlt. Part numberAlt. SupplierAlt. Ordering codeComments B12XAAA12xAAA battery holder, 2CELL AAA PC MNTKeystone2468Digikey2468K-ND U1CC118016LoWPAN Network ProcessorTICC1180TICC1180 C5;C13;C15;C21;C30;C34;C191;C221;C251;C261;C291C_100N_0402_X5R_K_1011Capacitor, 100n, 0402, X5R, 10%, 10VMurataGRM155R71A104KA01D C234-235C_100P_0402_NP0_J_502Capacitor, 100p, 0402, NP0, 5% 50VMurataGRM1555C1H101JZ01D C2C_100U_1210_X5R_M_6P31Capacitor, 100u, 1210, X5R, 20%, 6.3VMurataGRM32EE70G107ME19L C211;C236C_12P_0402_NP0_J_502Capacitor, 12p, 0402, NP0, 5%, 50VMurataGRM1555C1H120JZ01D C31-32;C171;C181;C201C_15P_0402_NP0_J_505Capacitor, 15p, 0402, NP0, 5%, 50VMurataGRM1555C1H150JZ01D C311C_1N_0402_NP0_J_501Capacitor, 1n, 0402, NP0, 5%, 50VMurataGRM1555C1H102JA01D C231C_1P0_0402_NP0_C_501Capacitor, 1p, 0402, NP0, +/-0.25pF 50VMurataGRM1555C1H1R0CZ01D C232;C241C_1P5_0402_NP0_C_502Capacitor, 1p5, 0402, NP0, +-0.25pF, 50VMurataGRM1555C1H1R5CZ01D C301C_1U_0402_X5R_K_6P31Capacitor, 1u, 0402, X5R, 10%, 6.3VMurataGRM155R60J105KE19D C4C_2N2_0603_X7R_K_501Capacitor, 2n2, 0603, X7R, 10%, 50VMurataGRM188R71H222KA01D C233C_3P3_0402_NP0_C_501Capacitor, 3p3, 0402, NP0, +-0.25pF, 50VMurataGRM1555C1H3R3CZ01D C33C_470N_0402_X5R_K_6P31Capacitor, 470n, 0402, X5R, 10%, 6.3VMurataGRM155R60J474KE19D C7;C12C_4U7_0603_X5R_K_62Capacitor, 4u7, 0603, X5R, 10%, 6.3VMurataGRM188R60J475KE19D D1;D3LED_EL19-21SRC2LED, red, 0603, 1.7V, 19mcdEverlight19-21SDRC/S530-A3/TR8 ELFA75-308-01 D2;D4LED_EL19-21SYGC2LED, green, 0603, 2.0V, 16mcdEverlight19-21SYGC/S530-E1/TR8 ELFA75-312-47 L231;L233-234;L241L_12N_0402_J_LQW4Inductor, 12n, 0402, ±5%, wire-wound typeMurataLQW15AN12NJ00D L235L_15N_0402_J_LQW1Inductor, 15n, 0402, ±5%, wire-wound typeMurataLQW15AN15NJ00D L232;L242L_18N_0402_J_LQW2Inductor, 18n, 0402, ±5%, wire-wound typeMurataLQW15AN18NJ00D L1-2L_BEAD_102_04022EMI filter bead, 0402 1Kohms Tape GHz Band Gen UseMurataBLM15HG102SN1DACTE U4MSP430F5438AIPZ1100 pins microcontrollerTIMSP430F5438AIPZArrow P1PINROW_SMD_2X2_2.54MM12x2 pinrow, 2.54mm pitch, SMD typeGradConnBB02-HP041-KB3-060B00Freber P2PINROW_SMD_2X7_2.54MM_DEBUG1JTAG SMD ConnectorGradConnBB02-HR141-K08-00000Freber S1-5PUSH_BUTTON_SKRK5Momentary push-button, SMD 3.9*2.9*2 mmAlpsSKRKAEE010OXYGENUni-OhmDeltron R1;R5R_04022Resistor, general, 0402; Do not mount R13R_0_06031Resistor, 0 ohm, 0603, ±1%KoaRK73Z1JTTD ELFA60-440-02 R12R_10_0402_J1Resistor, 10 ohms, 0402, 5%KoaRK73H1ETTP10R0F (±1%)ELFA60-470-96 R3-4;R10-11R_270_0402_F4Resistor, 270 ohms, 0402, ±1% KoaRK73H1E270RF-MR or RK73H1ETTP2700FELFA60-885-61 or 60-477-73 R311R_2K7_0402_F1Resistor, 2k7 ohms, 0402, ±1% KoaRK73H1ETTP2701F ELFA60-482-50 R14R_47K_0402_F1Resistor, 47k ohms, 0402, ±1% KoaRK73H1ETTP4702F ELFA60-488-54 R271R_56K_0402_F1Resistor, 56k ohms, 0402, ±1% KoaRK73H1ETTP5602FELFA60-488-96 DEBUGSTL21110 pins connectorMPE-Garry GmbHSTL21-A01XX-010-TRUFreber X1X_26.000/20/40/40/101Crystal, 26.000000MHz, 10.0pF, 50 ohms max, 20/40 ppm, -40C to +85C NDKNX3225GA, EXS00A-CG01972NDKNX3225GA, EXS00A-CG01972 X2-3X_32.768/20/50/40/122Crystal, 32.768 kHz, 12.5pF, 20/50 ppm,SMD packageEpson ToyocomMC-306ACTEQ13MC3061000314 Total number of components 69 0
Nemko AS, Gaustadalléen 30, P.O.Box 73 Blindern, NO-0314 Oslo Norway T +47 22 96 03 30 F +47 22 96 05 50 Enterprise number NO974404532 Visiting address: Nemko Kjeller, Instituttveien 6, P.O.Box 96, NO-2027 Kjeller Norway T +47 64 84 57 00 F +47 64 84 57 05 Test report no. : 215161-4 Item tested : CC1180DB Type of equipment : Low power transceiver module 903.5 – 926.5 MHz FCC ID : ZAT1180DB868 Client : Texas Instruments Norway AS FCC Part 15.249 Low Power Transmitter 902 - 928 MHz Band RSS-210, Issue 8 Low-Power Licence-exempt Radiocommunications devices 902 – 928 MHz Band 23 January 2013 Authorized by : .............................................. Frode Sveinsen Technical Verificator TEST REPORT FCC part 15.249 Ref.: 215161-4 FCC ID: ZAT1180DB868 Nemko AS, NO-2027 Kjeller Page 2 (35) CONTENTS 1 GENERAL INFORMATION ...................................................................................................... 3 1.1 Testhouse info .......................................................................................................................... 3 1.2 Client information ...................................................................................................................... 3 1.3 Manufacturer ............................................................................................................................. 3 2 TEST INFORMATION ............................................................................................................... 4 2.1 Test item ................................................................................................................................... 4 2.2 Test environment ...................................................................................................................... 5 2.3 Test period ................................................................................................................................ 5 3 TEST REPORT SUMMARY ..................................................................................................... 6 3.1 General ..................................................................................................................................... 6 3.2 Test summary ........................................................................................................................... 7 3.3 Description of modification for modification filing ...................................................................... 7 3.4 Comments ................................................................................................................................ 7 3.5 Family list rationale ................................................................................................................... 7 4 TEST RESULTS ....................................................................................................................... 8 4.1 Occupied bandwidth ................................................................................................................. 8 4.2 Peak power output .................................................................................................................. 10 4.3 Spurious emissions (radiated) ................................................................................................ 20 5 LIST OF TEST EQUIPMENT .................................................................................................. 33 6 BLOCK DIAGRAM ................................................................................................................. 34 6.1 System set up for radiated measurements ............................................................................. 34 6.2 Test site radiated emission ..................................................................................................... 35 TEST REPORT FCC part 15.249 Ref.: 215161-4 FCC ID: ZAT1180DB868 Nemko AS, NO-2027 Kjeller Page 3 (35) 1 GENERAL INFORMATION 1.1 Testhouse info Name : Nemko AS Address : Nemko Kjeller Instituttveien 6, Box 96 NO-2027 Kjeller, NORWAY Telephone : +47 64 84 57 00 Fax : +47 64 84 57 05 Email: [email protected] FCC test firm : 994405 IC OATS : 2040D-1 Total Number of Pages: 35 1.2 Client information Name : Texas Instruments Norway AS Address : Gaustadalléen 21, NO-0349 Oslo, Norway Telephone : +47 22 95 85 44 Fax : +47 22 95 85 46 Contact: Name : Dag Grini Telephone : +47 22 95 83 01 E-mail : [email protected] 1.3 Manufacturer Same as client TEST REPORT FCC part 15.249 Ref.: 215161-4 FCC ID: ZAT1180DB868 Nemko AS, NO-2027 Kjeller Page 4 (35) 2 TEST INFORMATION 2.1 Test item Name : Texas Instruments Model/version : CC1180DB FCC ID : ZAT1180DB868 IC : 451H-1180DB868 Serial number : 0x0012 4B00 000E 0C2E (MAC ID) Hardware identity and/or version: 1.1.0 Software identity and/or version : - Frequency Range : 903.5 – 926.5 MHz Number of Channels : 3 Operating Modes : TX and RX Type of Modulation : 2-GFSK Data rate: 200kbit/s User Frequency Adjustment : None, Software controlled Conducted Output Power : 0.16 mW Type of Power Supply : Battery (tested with 2 AAA batteries) Antenna Connector : None Antenna type: PCB antenna Antenna Diversity Supported : None Description of test item The CC1180DB is an RF-transceiver module. TEST REPORT FCC part 15.249 Ref.: 215161-4 FCC ID: ZAT1180DB868 Nemko AS, NO-2027 Kjeller Page 5 (35) 2.2 Test environment 2.2.1 Normal test condition Temperature: 20 – 23 °C Relative humidity: 30 – 44 % Normal test voltage: 3.3 V DC The values are the limit registered during the test period. 2.3 Test period Item received date: 2012-11-22 Test period : from 2012-11-22 -2012-12-20 TEST REPORT FCC part 15.249 Ref.: 215161-4 FCC ID: ZAT1180DB868 Nemko AS, NO-2027 Kjeller Page 6 (35) 3 TEST REPORT SUMMARY 3.1 General Manufacturer: Texas Instruments Model No.: CC1180DB All measurements are traceable to national standards. The tests were conducted for the purpose of demonstrating compliance with FCC CFR 47 Part 15.249 and Indus…
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Project no.: 182231-5 Page 1 of 1 PHOTOS OF TEST SET-UP Radiated emissions 30 - 1000MHz Radiated Emissions Test – 1 - 10GHz
| # | Rule Parts | Frequency Range | Power Output |
|---|---|---|---|
| 1 | 15C | 903.5 MHz - 926.5 MHz | - |
CC2340R5MODAN0MHAR
Equipment Class
DTS - Digital Transmission SystemCC1312PSIP
Equipment Class
DSS - Part 15 Spread Spectrum TransmitterCC1312PSIP
Equipment Class
DSS - Part 15 Spread Spectrum Transmitter
CC1312PSIP
Equipment Class
DSS - Part 15 Spread Spectrum Transmitter
The 7IDEM is a development tool for TIs 2.4 GHz 7ID System-on-Chip
Equipment Class
DTS - Digital Transmission System