PEY13741950AP Bluetooth Device

Before you start Further information This getting started guide enables you to set up your 950AP in order to connect Bluetooth devices to it wirelessly. For more advanced information, refer to the 950AP User Guide on the Red-M website, www.red-m.com. The getting started guide describes how to complete the installation of typical corporate and home configurations. Follow the procedures that most closely describe your setup. Requirements To complete the installation of your 950AP, you need: ïAn IP Ethernet network. ïCategory 5 Ethernet cables with RJ-45 plugs. ïThe DC 12 V power adapter (included). ïIf mounting to a wall or ceiling: -Two screws -A mounting bracket (included) -A screwdriver Installing the 950AP Decide where you want to position your 950AP(s). We recommend installing to a wall for superior Bluetooth coverage (see Figure 3). For optimum Bluetooth performance, install the 950AP in direct line-of- sight with connecting devices, avoiding obstacles such as walls or partitions. Ensure your wall (or ceiling) can support the 950APís weight (around 200g or 7oz.). Next, install the power cable and the Ethernet cable to connect to the 950AP(s). Cabling requirements depend on whether you have a single 950AP connected to an Ethernet port or multiple 950APs connected in a star-wire configuration. Complete the cable installation before you fix the 950AP to a wall or ceiling. The 950AP is powered by a 12V adapter connected to the mains electricity. You may need to consider this when positioning the 950AP and installing the cables. Corporate installations To connect a single 950AP to the LAN 1.Connect a Category 5 Ethernet cable to the 950APís Network port using RJ-45 connectors. 2.Connect the other end of the cable to the Ethernet port on your LAN. Note: Some jurisdictions require special wiring if installing cables into a ceiling cavity. They may also have special conditions about installing products on a ceiling or installing the power adapter. If in doubt, contact your local authority. Star-wire installations A star-wire connection for multiple 950APs uses an Ethernet switch or hub to connect 950APs to the LAN. Figure 1: Star-wire configuration To connect to the LAN in a star-wire configuration 1.Connect Category 5 Ethernet cables to the Network port of each 950AP using RJ-45 connectors. 2.Connect the other end of each cable into an Ethernet hub/switch. Home installation To connect a single 950AP for home use 1.Connect a Category 5 Ethernet cable to the 950APís Network port using RJ-45 connectors. 2.Connect the other end of the cable to your ADSL/ISDN/cable modem or Broadband router. Refer to your deviceís documentation for more information . -If youíre only going to use a Bluetooth-enabled device, such as a PDA or laptop, to configure and manage your 950AP, the 950AP will be set up as shown in Figure 2. See To configure the 950AP using Bluetooth for more information. Figure 2: Home setup with a Bluetooth-enabled PDA or laptop -If you have a Home Gateway or router with a built-in hub, we recommend connecting the 950AP directly to the hub. This allows you to manage the 950AP with either your PC or Bluetooth-enabled device. Note: If your ISP only provides one IP address, you must have NAT enabled on the 950AP or on your router/modem. See Initial Configuration for home installation to enable NAT on the 950AP. Connecting power The 950AP is connected to the mains electricity supply via a 12V d.c. power adapter and country-specific power cable (both supplied). Depending on your building configuration, you may need to fit the adapter and cable inside a wall or ceiling cavity when you install the 950AP. 1.Connect the power cable to your mains electricity supply and to the 12V adapter. 2.When you are ready to configure the 950AP, insert the end of the 12V adapter cable into the its power port. The 950APís LED indicator will light and display the LED boot sequence (see Reading the LED for more information. Mounting to a wall (or ceiling) The 950AP has a mounting bracket that can be attached to a wall or ceiling using suitable screws and fastenings. See Installing the 950AP for information on where to position the 950AP for optimum performance. Figure 3: Mounting the 950AP to a wall or ceiling To mount to a wall or ceiling 1.Use the mounting bracket as a template to mark out drill positions. 2.Drill two holes 43 mm apart using a 5.5 mm drill bit. The holes must be 75 mm from where the cabling emerges in the wall or ceiling to ensure a flush fitting (or 60 mm from the mounting bracketís edge). 3.Insert suitable fastenings such as wall plugs into the holes. 4.Position the mounting bracket over the two holes and insert the appropriate screws. 5.Connect the cables from the hole in the wall/ceiling to the 950AP. 6.Slide the 950AP over the mounting bracket until it fits into the groove. Continue sliding until it locks into place. Note: The following instructions assume that you have completed the necessary Ethernet and power cable installation explained previously. Configuring the 950AP 950APs are configured and managed via a web browser. Up to 32 users and 32 devices can be configured to connect securely to the 950AP, with up to seven devices connecting simultaneously. Once you have installed the 950AP, you can begin the short configuration process. You can complete the setup over Bluetooth or using an Ethernet connection. To configure the 950AP using Bluetooth: 1.Make a note of the 950APís Bluetooth address, which is displayed on a label underneath the unit. 2.Perform a device discovery on your Bluetooth-enabled PDA or laptop. Refer to your deviceís documentation for more information. 3.Look for the 950APís Bluetooth address and connect to it. 4.Launch your web browser and enter the 950APís default IP address ëhttp://192.168.1.1í. The Initial Configuration screen appears. To configure a 950AP using an Ethernet connection: 1.Visit www.red-m.com and to download the Red-M Setup application from the suppor…

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16 16 P0 USB CPU FLASH 1MByte CSR BC2 SDRAM Memory FLASH Memory PSU & CTRL Ethernet port LNA PA Filter DC Jack

Device Diagram BC212015-ds-001d Production Information Page 14 of 36 _‰Ï...`ÁÍ... ä OJbÒÌ...ÍÂ~‰ Product Data Sheet 5 Device Diagram Microcontroller Interrupt controller Event timer RISC micro-controller Programmable I/O PIO[5]/USB_DETACHPIO[6]/CLK_REQ PIO[7] PIO[2]/USB_PULL_UP PIO[3]/USB_WAKE_UP/RAM_CS B PIO[4]/USB_ON V S S _ M E M V S S _ P A D S V S S _ C O R E Baseband and Logic UART_TXUART_RXUART_RTSUART_CTSSPI_CSBSPI_CLKSPI_MOSISPI_MISOUSB_D+USB_D- Synchronous Serial Interface USB UART Memory management unit Burst mode controller RAM Memorymapped control/ status Physical layer DSP hardware engine R E S E T V D D _ A N A X T A L _ O U T X T A L _ I N Clock generation V D D _ R A D I O RSSI PIO[0]/RXEN RF_IN TX_A TX_B PIO[1]/TXEN PA LNA IQ DEMOD RF synthesiser /N/N+1 VCO L O O P _ F I L T E R ADC Demodulator V S S _ A N A V S S _ R A D I O +45 -45 RF ReceiverRF Transmitter IQ MOD AUX_DAC RF Synthesiser Fref External Memory Driver CSBA[18:0]D[15:0]WEBREBPCM_OUTPCM_INPCM_SYNC Audio PCM Interface V D D _ P A D S V D D _ M E M V D D _ C O R E AUX DAC V S S _ V C O AIO[0] AIO[1] AIO[2] 19 V S S _ P I O 16 PCM_CLK DAC T E S T _ E N PIO[8]PIO[9]PIO[10]PIO[11]VDD_PIO V S S V D D _ V C O Figure 5.1: BlueCore2-External Device Diagram

Response to TCB Findings Q: Has the radiated emission measurements in the test report been taken with Peak Detector above 1Ghz? We can see that the limits in those plots are average limits. Please clarify. Response: I can confirm that all tabulated Radiated emission results above 1GHz (final measurements) that were found within restricted bands were made with an Average detector against an average limit of 54 dBuV/m and a Peak detector against a Peak limit of 74 dBuV/m. All measurements outside of the restricted band were made with a Peak detector only. The preliminary scans were made using a Peak detector against an Average limit. We place the average limit on the preliminary scan in order to represent a worse case, for the purpose of picking emissions for final measurement. Q: On pages 35-38 of the test report in the radiated emissions tables for 2.59 and 2.63GHz frequencies the average limits are shown as 107dBuV/m. Please correct this limit and related margins in those tables. Response: Corrected in the revised test report. Q: Please confirm that the nominal voltage for the power supply of the unit was 110VAC as we can see 115VAC on page 11 of the report. Response: The nominal voltage used has been confirmed as 110V/60Hz. All the testing has been done according to 110VAC. Q: Please confirm that the AC mains conducted emissions tests were performed with 50ohm/50uH LISN Response: Regarding the AC mains Conducted Emissions test, I can confirm that the LISN used was an R & S ESH3 Z5, which is 50 Ohm/50uH. Q: Please supply an MPE calculation with the maximum conducted output power listed in report (0.067Watts) instead of the radiated power. Response: Supplied. Please see the revised MPE Calculation document. Q: Please supply the external pictures of the product. Response: Supplied.

BLUETOOTH APPROVALS. The following exhibit indicates the FCC Spread Spectrum requirements in Section 15.247 for devices meeting the Bluetooth Specifications in the 2.4 GHz band as of Feb 2001 operating in the USA. The purpose of this exhibit is to help expedite the approval process for Bluetooth devices. This exhibit provides items that are common to all Bluetooth devices. The list of common items can be submitted for each application for equipment authorization. Items Common to all Bluetooth Devices. 1. Output power and channel separation of a Bluetooth device in the different operating modes. The different operating modes (data-mode, acquisition-mode) of a Bluetooth device don’t influence the output power and the channel spacing. There is only one transmitter, which is driven by identical input parameters concerning these parameters. Only a different hopping sequence will be used. For this reason the RF parameters in one-op mode is sufficient. 2. Frequency range of a Bluetooth device. The maximum frequency range of the Bluetooth device is 2402 to 2480 MHz. This is according to the Bluetooth Core Specification V 1.0B (+ critical errata) for devices which will be operated in the USA. 3. Co-ordination of the hopping sequence in data mode to avoid simultaneous occupancy of multiple transmitters. Bluetooth units, which want to communicate with other units, must be organised in a structure called a piconet. The piconet consists of a maximum of 8 Bluetooth units. One unit is the master; the other seven are the slaves. The master coordinates frequency occupation in this piconet for all units. As the master hop sequence is derived from its BD address which is unique for every Bluetooth device, additional masters intending to establish new piconets will always use different hop sequences. 4. Example of a hopping sequence in data mode. The following is a sample of a 79 hopping sequence in data mode: 40, 21, 44, 23, 42, 53, 46, 55, 48, 33, 52, 35, 50, 65, 54, 67, 56, 37, 60, 39, 58, 69, 62, 71, 64, 25, 68, 27, 66, 57, 70, 59, 72, 29, 76, 31, 74, 61, 78, 63, 01, 41, 05, 43, 03, 73, 07, 75, 09, 45, 13, 47, 11, 77, 15, 00, 64, 49, 66, 53, 68, 02, 70, 06, 01, 51, 03, 55, 05, 04. 5. Equally average use of frequencies in data mode and short transmissions. The generation of the hopping sequence in connection mode depends essentially on two input values: • LAP/UAP of the master of the connection. • Internal master clock. The LAP (lower address part) are the 24 LSBs of the 48 BD_ADDRESS. The BD_ADDRESS is an unambiguous number of every Bluetooth unit. The UAP (upper address part) are the 24 MSBs of the 48 BD_ADDRESS. The internal clock of a Bluetooth unit is derived from a free running clock, which is never adjusted and is never turned off. For synchronization with other units, only the offsets are used. It has no relation to the time of day. Its resolution is at least half the RX/TX slot length of 312.5 μs. the clock has a cycle of about one day (23h30). In most case it is implemented as a 28 bit counter. For the deriving of the hopping sequence the entire LAP (24 bits), 4 LSBs (4 bits) (1 input) and the 27 MSBs of the clock (input 2) are used. With this input values different mathematical procedures (permutations, additions, XOR-operations) are performed to generate the sequence. This will be done at the beginning of each new transmission. For short transmissions, the Bluetooth system behaves in the following manner. The first connection between the two devices is established; a hopping sequence is generated. For transmitting the wanted data the complete hopping sequence is not used and the connection ends. The second connection is established and a new hopping sequence is generated. Because the Bluetooth clock has a different value, because the period between the two transmissions is longer (and it cannot be shorter) than the minimum resolution of the clock (312.5 μs). The hopping sequence will always differ from the first one. 6. Receiver input bandwidth, synchronization and repeated single or multiple packets. The input bandwidth of the receiver is 1 MHz. In every connection one Bluetooth device is the master and the other is the slave. The master determines the hopping sequence and the slave follows this sequence. Both devices shift between RX and TX time slot according to the clock of the master. Additionally the type of connection (e.g. single or multi-slot packet) is set up at the beginning of the connection. The master adapts its hopping frequency and its TX/RX timing according to the packet type of the connection. Also, the slave of the connection uses these settings. Repeating of a packet has no influence on the hopping sequence. The hopping sequence generated by the master of the connection will be followed in any case. That means, a repeated packet will not be sent on the same frequency, it will be sent on the next frequency in the hopping sequence. 7. Dwell time in data mode. The dwell time of 0.3797 s within a 30 s period in data mode is independent from the packet type (packet length). The calculation for a 30 s period is as follows: Dwell time= time slot length* hop rate/ number of hopping channels * 30 s. For a DH1 packet, dwell time = 0.3797 s, in a 30 s period. For a multi-slot packet the hopping sequence is reduced according to the length of the packet. For example a DH5 packet, dwell time = 0.3797 s, in a 30 s period. This is according to the Bluetooth Core Specification V 1.0B (+ critical errata) for all Bluetooth devices. All Bluetooth devices, therefore, comply with the FCC dwell time requirement in the data mode. This was checked in the Bluetooth Qualification tests. The dwell time in Hybrid mode is approximately 2.6 ms (in a 12.8 s period). 8. Channel separation in hybrid mode. The nominal channel spacing of the Bluetooth system is 1 MHz independent of the operating mode. The maximum initial carrier frequency tolerance which is allowed for Bluetooth is fcenter = 75 kHz. This was…

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FCC ID 13471 - PEY BAP 950AP - Top View FCC ID 13471 - PEY BAP 950AP - Bottom View

ARTWORK All detail within this box to be printed except that shown in RED. Any detail in GREEN to be printed but see notes for specific content. Notes: (1) Serial Numbers increment in steps of 4, with right-hand character being either 2, 6, A or E. Specific range of values will be specified with order. (2) Artwork to be made from CorelDraw (.CDR) format. PDF format for inspection only. (3) Barcode is format Code39 and comprises a 2-Character Prefix as defined above followed by the right-hand 6 characters of “Serial No. / Bluetooth Address” (eg “ZZDDDDDE” where “ZZ” is the 2-Character Prefix). Artwork - Red-M 950AP Access Point, Rating Plate Label 158-287-02 158-131-01 Artwork Revision A RevDateBy 22/5/03NE TITLE: USE BLANK STOCK: VERSION: ARTWORK/LABEL PART NUMBER: Copyright 2002 Red-M© Barcode 2-Character Prefix is “YX” Include North American Approvals Red-M Neptune House Mercury Park Wycombe Lane Wooburn Green Bucks HP10 0HH England “Made in the UK” version Eth Addr Range: 000A1E xxxxxx Serial Number / Bluetooth Address: 000A1E DDDDDE Assembly: 158-286-01 Made in the UK 1 5 8 - 2 8 7 - 0 2 FCC ID: PEY13741 950AP Access Point Network Port DC 12v S a m p le L a b e l A r t w o r k f o r A p p r o v a ls A p p li c a t io n s Patents Pending © 2002 Red-M Communications Ltd.

Radio Frequency Investigation Ltd, Ewhurst Park, Ramsdell, Basingstoke, Hampshire, RG26 5RQ, ENGLAND. Tel: +44 (0) 1256 851193 Fax: +44 (0) 1256 851192 Registered in England, No. 211 7901. Registered Office: Ewhurst Park, Ramsdell, Basingstoke, Hampshire RG26 5RQ TESTING 0644 PHOTOGRAPH SECTION - INTERNAL FOR RFI TEST REPORT SERIAL NO: RFI/EMCB2/RP43844JD02A Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 RADIO FREQUENCY INVESTIGATION LTD. TEST REPORT S.No: RFI/EMCB1/RP43844JD02A EMC Department Page 2 of 4 Issue Date: 25 September 2002 Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 This page has been left intentionally blank. RADIO FREQUENCY INVESTIGATION LTD. TEST REPORT S.No: RFI/EMCB1/RP43844JD02A EMC Department Page 3 of 4 Issue Date: 25 September 2002 Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 Photographs of EUT This appendix contains the following photographs: Photo Reference Number Title PHT/43844JD02/004 Top View of Circuit Board PHT/43844JD02/005 Bottom View of Circuit Board These pages are not included in the total number of pages for this report. RADIO FREQUENCY INVESTIGATION LTD. TEST REPORT S.No: RFI/EMCB1/RP43844JD02A EMC Department Page 4 of 4 Issue Date: 25 September 2002 Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 This page has been left intentionally blank. RADIO FREQUENCY INVESTIGATION LTD. TEST REPORT Photograph Section EMC Department S.No: RFI/EMCB1/RP43844JD02A Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 PHT/43844JD02/001 Top View of Circuit Board RADIO FREQUENCY INVESTIGATION LTD. TEST REPORT Photograph Section EMC Department S.No: RFI/EMCB1/RP43844JD02A Test Of: Red-M (Communications) Ltd. Basic Access Point (BAP950AP) To: F.C.C. Part 15 Subpart C: 2000 (Intentional Radiators) Section 15.247 PHT/43844JD02/002 Bottom View of Circuit Board

BC212015-ds-001d Production Information Page 1 of 36 _‰Ï...`ÁÍ... ä OJbÒÌ...ÍÂ~‰ Product Data Sheet General DescriptionApplications BlueCore2-External is a single chip radio and baseband IC for Bluetooth 2.4GHz systems. It is implemented in 0.18μm CMOS technology. When used with external flash containing the CSR Bluetooth software stack, it provides a fully compliant Bluetooth system for data and voice communications. n PCs n Cellular Handsets n Cordless Headsets n Personal Digital Assistants (PDAs) n Computer Accessories (Compact Flash Cards, PCMCIA Cards, SD Cards and USB Dongles) RAM DSP MCU I/O 2.4 GHz Radio XTAL SPI UART/USB PIO PCM 8Mbit FLASH ROM RF OUT RF IN Up to BlueCore2-External has been designed to reduce the number of external RF components required, which ensures module production costs are minimised. The device incorporates auto calibration and built-in self-test routines to simplify development, type approval and production test. All hardware and device firmware is fully compliant with the Bluetooth specification v1.1. BlueCore2-External Block Diagram Device Features n Low power 1.8V operation n Small footprint in 96-ball VFBGA and LGA packages (6x6mm and 8x8mm) n Fully qualified Bluetooth component n 0.18μ μμ μm CMOS technology n Full speed Bluetooth TM operation with full piconet support n Support for 8Mbit external flash n Minimum external components _‰Ï...`ÁÍ... qj OJbÒÌ...ÍÂ~‰ Single Chip Bluetooth System Production Information Data Sheet for: BC212013 (UART only version) BC212015 (USB and UART version) May 2002 Table of Contents BC212015-ds-001d Production Information Page 2 of 36 _‰Ï...`ÁÍ... ä OJbÒÌ...ÍÂ~‰ Product Data Sheet Table of Contents 1Key Features...................................................................................................................................................3 2Device Pinout Diagram ..................................................................................................................................4 3Device Terminal Functions............................................................................................................................5 4Electrical Characteristics...............................................................................................................................9 5Device Diagram ............................................................................................................................................14 6Description of Functional Blocks ...............................................................................................................15 6.1 RF Receiver ............................................................................................................................................15 6.1.1Low Noise Amplifier ..................................................................................................................15 6.1.2Analogue to Digital Converter ...................................................................................................15 6.2 RF Transmitter ........................................................................................................................................15 6.2.1IQ Modulator .............................................................................................................................15 6.2.2Power Amplifier .........................................................................................................................15 6.3 RF Synthesiser........................................................................................................................................15 6.4 Baseband and Logic................................................................................................................................15 6.4.1Memory Management Unit........................................................................................................15 6.4.2Burst Mode Controller ...............................................................................................................15 6.4.3Physical Layer Hardware Engine DSP......................................................................................16 6.4.4RAM ..........................................................................................................................................16 6.4.5External Memory Driver ............................................................................................................16 6.4.6USB...........................................................................................................................................16 6.4.7Synchronous Serial Interface ....................................................................................................16 6.4.8UART ........................................................................................................................................16 6.4.9Audio PCM Interface .................................................................................................................16 6.5 Microcontroller.........................................................................................................................................17 6.5.1Programmable I/O.....................................................................................................................17 7CSR Bluetooth Software Stacks .................................................................................................................18 7.1 BlueCore HCI Stack ................................................................................................................................18 7.1.1Key Features of the HCI Stack..................................................................................................19 7.2 BlueCore RFCOMM Stack ......................................................................................................................21 7.2.1Key Features of th…

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Bluetooth radio and baseband operation: a summary Bluetooth operates using frequency hopping spread spectrum techniques (FHSS) with Gaussian frequency shift keying (GFSK). The parameters of these techniques are described in more detail below. For more information please refer to the Radio and Baseband specification chapters of the Bluetooth Core specification at http://www.bluetooth.com/developer/specification/Bluetooth_11_Specifications_Book.pdf Bluetooth channel definition The Bluetooth channel is represented by a pseudo-random hopping sequence hopping through 79 RF channels. The hopping sequence is unique for each piconet (a group of units comprising a master and up to 7 slaves all sharing the same channel) and is determined by the Bluetooth device address of the master; the phase in the hopping sequence is determined by the Bluetooth clock of the master. The channel is divided into time slots where each slot corresponds to an RF hop frequency. Consecutive hops correspond to different RF hop frequencies. The nominal hop rate is 1600 hops/s. All Bluetooth units participating in the piconet are time- and hop- synchronized to the channel. Time slots The channel is divided into time slots, each 625 ms in length. The time slots are numbered according to the Bluetooth clock of the piconet master. The slot numbering ranges from 0 to 2 27 -1 and is cyclic with a cycle length of 2 27 . In the time slots, master and slave can transmit packets. A time division duplex scheme is used where master and slave alternatively transmit. The master shall start its transmission in even-numbered time slots only, and the slave shall start its transmission in odd-numbered time slots only. The packet start shall be aligned with the slot start. Packets transmitted by the master or the slave may extend over up to five time slots. The RF hop frequency shall remain fixed for the duration of the packet. For a single packet, the RF hop frequency to be used is derived from the current Bluetooth clock value. For a multi-slot packet, the RF hop frequency to be used for the entire packet is derived from the Bluetooth clock value in the first slot of the packet. The RF hop frequency in the first slot after a multi-slot packet shall use the frequency as determined by the current Bluetooth clock value. If a packet occupies more than one time slot, the hop frequency applied shall be the hop frequency as applied in the time slot where the packet transmission was started. Modulation and bit rate The data transmitted has a symbol rate of 1 Ms/s. A Gaussian-shaped, binary FSK modulation is applied with a BT product of 0.5. A binary one is represented by a positive frequency deviation, a binary zero by a negative frequency deviation. The maximum frequency deviation shall be between 140 kHz and 175 kHz. Modulation and characteristics The Modulation is GFSK (Gaussian Frequency Shift Keying) with a BT=0.5. The Modulation index must be between 0.28 and 0.35. A binary one is represented by a positive frequency deviation, and a binary zero is represented by a negative frequency deviation. The symbol timing shall be better than ±20 ppm. For each transmit channel, the minimum frequency deviation (Fmin = the lesser of {Fmin+, Fmin-}) which corresponds to 1010 sequence shall be no smaller than ±80% of the frequency deviation (fd) which corresponds to a 00001111 sequence. In addition, the minimum deviation shall never be smaller than 115 kHz. The zero crossing error is the time difference between the ideal symbol period and the measured crossing time. This shall be less than ± 1/8 of a symbol period.

Single-Level BOM with Reference Designators for 158-285-03/A Qty:Part Number:Rev:Description:Reference Designators: 1107-990-01ALABEL PCB and SERIAL NUMBER 1158-284-02APCB BLANK BASECARD BAP (SWITCH FIX) 1165-308-01AIC PROGRAMMED 8MBIT APPLIC FLASH FOR BAPU13 120000610CIC SDRAM 4M X 16 125MHZ 3.3V TSOP54U14 120000844AIC 74LVC74 DUAL D FLIP-FLOP SOIC14U10 120000859AIC RF LNA RF2472 3V SOT23-5U2 120000869AIC IP PHONE PROCESSOR AGERE T8302 60MHZ 3.3V 272PBGAU12 120000874AIC RF SPDT SWITCH 3V SC70-6U5 120000877BIC FLASH 512K X 16 90NS 2.7-3.6V TFBGA48U9 120000879AIC RF PA RF2172 3.3V MLF16U4 120000888BIC MIC5219 LDO VOLTAGE REG 3.0V 0.3A SOT23-5U8 120000925CIC BC2-URT CSR BLUECORE02 BLUETOOTH CONTROLLER VFBGA96 8X8MMU7 120000935AIC MIC5207-1.8 LDO VOLTAGE REG 1.8V 0.2A SOT23-5U3 120001058AIC LM2590HV-3.3 SWITCHING REGULATOR 3.3V TO-263U1 521000652BDIODE SCHOTTKY RECT 2A 90V SMBCR1 CR2 CR3 CR4 CR5 121000885ADIODE BZX84C33 ZENER SOT 23CR6 521000958ATR BC847S DUAL NPN BIPOLAR SOT363Q1 Q4 Q5 Q6 Q3 121001010BLED BI-COLOUR VERTICAL REVERSE SMTCR9 121001061ATR P-CH EN-MODE MOSFET 60V 1A SOT-23Q2 122000741ACAP CER 1P8 SM0603 COG 20% 50VC20 622000743ACAP CER X7R 100NF SM1206 100V 20%C4 C8 C62 C67 C72 C77 122000823ACAP CER 3P3 SM0402 COG 8% 50VC60 122000824ACAP CER 5P6 SM0402 COG 9% 50VC38 922000825ACAP CER 10P SM0402 COG 5% 50VC23 C29 C33 C34 C35 C39 C59 C63 C68 222000829ACAP CER 1N SM0402 X7R 10% 50VC26 C27 1822000830BCAP CER 10N SM0402 Y5V +80% -20% 50VC5 C3 C7 C9 C10 C13 C15 C19 C28 C36 C37 C51 C53 C56 C61 C65 C66 C75 222000832ACAP CER 470P SM0603 COG 5% 50…

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