Cattron North America 79545 LRM 900 MHz Module User Manual

Laird Controls North America Inc. LRM 900 MHz Module

User Manual

          Product Development        LAIRD    LRM Radio Module – Host Interface Specification  900MHz User Manual   Document p/n: 9S02-7954-A501 Rev. A      CONFIDENTIALITY NOTICE  This correspondence and all information contained within are the exclusive, confidential and proprietary property of Laird. it is not to be reproduced, nor is it or any portion of it to be used by or disclosed to any other individual or legal entity, without the prior, written approval of Laird. Furthermore, the information contained within this correspondence is also to be handled in accordance with any and all confidentiality agreements between Laird and the receiver or user of this information.  .      2015 LAIRD
LRM Radio Module – Host Interface Specification     LAIRD  Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  ii  Revision History  Date Revision Description Signature / Date 2010-10-06 EM1 Initial draft Prepared Pierre Montreuil    Verified     Approved  2010-10-06 EM2 General revision. Removed LQI measurement Updated the configuration section (section 5) Prepared Pierre Montreuil   Verified    Approved  2015-11-10 A Fig 4.8 and 4.9 - Remove remaining references to LQI from drawings. Table 4.2 – Rename ESC_END for ESC_SOF [LaB] Added demodulated analog output on pin 48 and GND on pin 50 Prepared Pierre Montreuil   Verified    Approved     Prepared     Verified     Approved
LRM Radio Module – Host Interface Specification     LAIRD  Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  iii  Table of Contents 1. INTRODUCTION ........................................................................................................................................... 1-1 1.1 PURPOSE ..........................................................................................................................................................1-1 1.2 SCOPE ..............................................................................................................................................................1-1 1.3 APPLICABILITY ................................................................................................................................................1-1 1.4 DEFINITIONS, ACRONYMS ................................................................................................................................1-1 1.4.1 Definitions ..............................................................................................................................................1-1 1.4.2 Acronyms ................................................................................................................................................1-1 2. FEATURES SUMMARY ................................................................................................................................ 2-1 3. HOST INTERFACE DEFINITION ............................................................................................................... 3-2 3.1 PINS ASSIGNMENT ...........................................................................................................................................3-2 3.2 SIGNALS DESCRIPTION .....................................................................................................................................3-3 4. LRM CONFIGURATION CONCEPT .......................................................................................................... 4-4 4.1 I2C ..................................................................................................................................................................4-4 4.2 SPI ..................................................................................................................................................................4-4 4.3 CONSOLE INTERFACE.......................................................................................................................................4-4 4.3.1 “Write” command ...................................................................................................................................4-4 4.3.2 “Read” command ....................................................................................................................................4-5 4.3.3 “Help” command ....................................................................................................................................4-5 4.4 STAND-ALONE TEST MODE .............................................................................................................................4-5 4.5 FIRMWARE DOWNLOAD ...................................................................................................................................4-6 5. REGISTERS MAP SUMMARY .................................................................................................................... 5-7 5.1 REGISTERS DESCRIPTION FIELDS ......................................................................................................................5-7 6. REGISTERS .................................................................................................................................................... 6-8 6.1 SECTION 1 REGISTERS: HARDWARE INFORMATION BLOCK ..............................................................................6-8 6.1.1 HW Part Number ....................................................................................................................................6-8 6.1.2 HW Revision ..........................................................................................................................................6-8 6.1.3 Serial Number .........................................................................................................................................6-8 6.1.4 Default Operation mode ..........................................................................................................................6-8 6.2 SECTION 2 REGISTERS: SOFTWARE INFORMATION BLOCK ...............................................................................6-8 6.2.1 SW Part Number .....................................................................................................................................6-9 6.2.2 SW Revision ...........................................................................................................................................6-9 6.2.3 Register Map Version number ................................................................................................................6-9 6.3 SECTION 5 REGISTERS: RF INTERFACE CONFIGURATION .................................................................................6-9 6.4 SECTION 7 REGISTERS: TEST COMMANDS AND PARAMETERS.........................................................................6-10 7. TEST-SPECIFIC PARAMETERS .............................................................................................................. 7-11
LRM Radio Module – Host Interface Specification     LAIRD  Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  iv  79545 TRX Module meets Part 15 of the FCC rules and regulations. Compliance with the labeling requirements, FCC notices is required. In order to comply with FCC Certification requirements, the Original Equipment Manufacturer (OEM) must fulfill the following requirements.  1.   The system integrator must place an exterior label on the outside of the final product housing the 79545 TRX Module. The figure below shows the contents that must be included in this label. 2.   79545 TRX Module may only be used with the antennas that have been tested and approved for use with the module.   LABEL  The  OEM  must  make  sure  that  FCC  labeling  requirements  are  met.  This  includes  a  clearly visible exterior  label  on  the  outside of the  final  product  housing  that  displays  the  contents  shown  in below.    WARNING: The 79545 TRX Module has been tested by the FCC for use with other products without further certification (as per FCC Section 2.1091). Changes or modifications to this device not expressly approved by Laird could void the user’s authority to operate the equipment.  NOTICE: OEM’s must verify the final end product complies with unintentional radiators (FCC Section 15.107 and 15.109) before providing a declaration of conformity for their final product to Part 15 of the FCC Rules.  RF Exposure WARNING: This equipment complies with FCC radiation exposure limits set forth for an uncontrolled environment. This equipment should be installed and operated with minimum distance 20 cm between the radiator and your body. This transmitter must not be co-located or operating in conjunction with any other antenna or transmitter.  NOTICE: The preceding statement must be included as a CAUTION statement in OEM product manuals in order to alert users of FCC RF Exposure compliance.   79545 TRX is designed for use in countless wireless applications requiring long range communications with low energy consumption.  To ensure that the final product complies with the all of the regulatory requirements for the Modular Grant the following integration instructions should be followed.  79545 TRX is limited to OEM installation ONLY.  The OEM integrator is responsible for ensuring that the end-user has no manual instructions to remove or install the module.
LRM Radio Module – Host Interface Specification     LAIRD  Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  v  FCC Part 15.19 Warning Statement  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. FCC Part 15.21 Warning Statement NOTE:   THE GRANTEE IS NOT RESPONSIBLE FOR ANY CHANGES OR MODIFICATIONS NOT EXPRESSLY APPROVED BY THE PARTY RESPONSIBLE FOR COMPLIANCE. SUCH MODIFICATIONS COULD VOID THE USER’S AUTHORITY TO OPERATE THE EQUIPMENT. FCC Part 15.105(b) Warning Statement- (ONLY Required for 15.109-JBP devices) 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 cause harmful interference to radio communications.  However, there is no guarantee that interference will not occur in a particular installation.  If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures: - Reorient or relocate the receiving antenna. - Increase the separation between the equipment and receiver. -Connect the equipment into an outlet on a circuit different from that to which the receiver is connected. -Consult the dealer or an experienced radio/TV technician for help. IC RSS-GEN, Sec 7.1.3 Warning Statement- (Required for license-exempt devices)   ENGLISH: This device complies with Industry Canada license-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. FRENCH:  Le présent appareil est conforme aux CNR d'Industrie Canada applicables aux appareils radio exempts de licence. L'exploitation est autorisée aux deux conditions suivantes : (1) l'appareil ne doit pas produire de brouillage, et (2) l'utilisateur de l'appareil doit accepter tout brouillage radioélectrique subi, même si le brouillage est susceptible d'en compromettre le fonctionnement. IC RSS-GEN, Sec 7.1.2 Warning Statement- (Required for Transmitters) ENGLISH: Under Industry Canada regulations, this radio transmitter may only operate using an antenna of a type and maximum (or lesser) gain approved for the transmitter by Industry Canada. To reduce potential radio interference to other users, the antenna type and its gain should be so chosen that the equivalent isotropically radiated power (e.i.r.p.) is not more than that necessary for successful communication. FRENCH:  Conformément à la réglementation d'Industrie Canada, le présent émetteur radio peut fonctionner avec une antenne d'un type et d'un gain maximal (ou inférieur) approuvé pour l'émetteur par Industrie Canada. Dans le but de réduire les risques de brouillage radioélectrique à l'intention des autres utilisateurs, il faut choisir le type d'antenne et son gain de sorte que la puissance isotrope rayonnée quivalente (p.i.r.e.) ne dépassepas l'intensité nécessaire à l'établissement d'une communication satisfaisante. IC RSS-GEN, Sec 7.1.2 Warning Statement-(Required for Transmitters w/ detachable antennas) ENGLISH: This radio transmitter (identify the device by certification number, or model number if Category II) has been approved by Industry Canada to operate with the antenna types listed below with the maximum permissible gain and required antenna impedance for each antenna type
LRM Radio Module – Host Interface Specification     LAIRD  Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  vi  indicated. Antenna types not included in this list, having a gain greater than the maximum gain indicated for that type, are strictly prohibited for use with this device. FRENCH:  Le présent émetteur radio (identifier le dispositif par son numéro de certification ou son numéro de modèle s'il fait partie du matériel de catégorie I) a été approuvé par Industrie Canada pour fonctionner avec les types d'antenne énumérés ci-dessous et ayant un gain admissible maximal et l'impédance requise pour chaque type d'antenne. Les types d'antenne non inclus dans cette liste, ou dont le gain est supérieur au gain maximal indiqué, sont strictement interdits pour l'exploitation de l'émetteur.  IC RSS-102, Sec 2.6 Warning Statements ENGLISH: The user manual of devices intended for controlled use shall also include information relating to the operating characteristics of the device; the operating instructions to ensure compliance with SAR and/or RF field strength limits; information on the installation and operation of accessories to ensure compliance with SAR and/or RF field strength limits; and contact information where the user can obtain Canadian information on RF exposure and compliance. Other related information may also be included. FRENCH:  Le mode d'emploi des appareils destinés à l'utilisation contrôlée doit aussi inclure des informations sur les caractéristiques de fonctionnement de l'appareil; les instructions de fonctionnement pour assurer la conformité avec SAR et / ou les limites d'intensité de champ RF; informations sur l'installation et l'exploitation d'accessoires pour assurer le respect des SAR et / ou les limites d'intensité de champ RF; et les coordonnées où l'utilisateur peut obtenir des informations sur l'exposition canadienne de radiofréquences et la conformité. Autres renseignements connexes peuvent également être inclus.    FCC Part 15.203 Warning Statement Only one of the following permanent attached antennas should be used with the module in the final product.  PRT-0000196, 5/8 WAVE COLLINEAR, 50Ohm, 3DB, 896-970 MHZ 485026, ANTENNA, TNC, 1/4 WAVE, 900 MHZ, WHIP, 50 Ohm, 0dBi 2PCA-8339-B501, SPLATCH ANTENNA, 902-928MHZ, 50 Ohm, -5.0dBi 2PCA-7675-B102, UNITY-M ANTENNA BOARD, 915MHZ, 50 Ohm, -5.0dBi 2PCA-7602-E001, MKU PCB Loop Antenna, 50Ohm, -5.0dBi 2OPT-8291-A001, Wire antenna 50Ohm, -6dBi 2PCA-8668-A501, Dipole ANTENNA BOARD, 902-928MHZ, 50 Ohm, 1.75dBi 2PCA-8669-A501, PCB Dipole antenna, 902-928MHZ, 50 Ohm, 1.75dBi  The final product will be shipped with specific antenna installed/equipped permanently by Laird to the end user. Any change/replace/modification RF cable or antenna is prohibited and not possible to the end user.
LRM Radio Module – Host Interface Specification     Introduction Document p/n: 9S02-7954-A501 Rev. A   2015 LAIRD  Proprietary and Confidential  Page  1-1  1. Introduction 1.1 Purpose A new family of RF module, the LRM family, is being developed by Laird.  This family includes high-selectivity radios covering several RF bands used world-wide for remote control applications.  They are built around a common architecture, and present a uniform host interface definition.  The host interface is used for data communication and radio configuration.  1.2 Scope This document describes the host interface signal definitions, timings, operation mode, available functionalities, and provide details about its integration to Unity products.  This document does not cover RF specifications or power supply specifications. 1.3 Applicability Applies to LRM family members, P/N 2PCA-7954-xxxx 1.4 Definitions, Acronyms 1.4.1 Definitions 1.4.2 Acronyms
LRM Radio Module – Host Interface Specification     Features Summary  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  2-1  2. Features Summary   The LRM design addresses in first place Unity applications requirements.  Its interface however is general enough to allow compatibility to other legacy Laird products.    Direct electrical compatibility to Unity RF interface – The interface is defined for natural integration to Unity product line.   On-board CPU – The interface is controlled by an on-board Renesas CPU.  This CPU controls also the details of operation of the RF peripherals.  This approach has several advantages: a. Unified host interface definition – A single host interface can be defined for all LRM family members.   b. Low requirement on Host CPU resources – The on-board CPU takes care of most aspects of RF control and timings.  This allows releasing CPU resources (processing time, ROM/RAM space, hardware timers) that become available for more features addition. c. Simple Host device drivers - Most of driver firmware complexity is transferred on the radio CPU; the Host device driver is much simpler, easier to test, and not as critical in regard to timings.   Minimum buffers/Minimum Delay – Radio CPU firmware is implemented to provide a “almost transparent” operation; transmission and reception delays are kept to a minimum   Several interface modes – Several interface modes are supported in order to allow integration with other Laird legacy products:  a. Data interface - support for synchronous and asynchronous serial link. b. Configuration interface - support for I2C, SPI and asynchronous serial access.  Stand-alone operation for firmware download and production test – The  LRM can interface almost directly to a PC serial port for firmware download and for testing  (no need for CPU board); only a TTL/RS232 translator is required (such as Laird flashbox).   Support for advanced feature – The LRM family is designed to support advanced features such as FHSS (Frequency Hopping Spread Spectrum) and Adaptive Channel Allocation, with minimal impact on Host firmware.  These different aspects are covered in the rest of this document.
LRM Radio Module – Host Interface Specification     Host Interface Definition  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  3-2  3. Host Interface Definition  3.1 Pins Assignment  Description IO Signal Pin Number Signal IO Description    49 50 GND  Ground    47 48 RX_BB O RX Baseband signal    45 46       43 44       41 42    I2C clock /   SPI clock IO/ O I2C_SCL /  SPI_SCK 39 40 SPI_PLE I SPI Strobe SPI data input I SPI_PDI 37 38 I2C_SDA /  SPI_PDO IO /  O I2C Data / SPI data output    35 36       33 34       31 32    Data transfer Handshaking Signal O !READY 29 30    3.3V DC supply I 3V3 27 28    Receive data O RXD 25 26 TXD I Transmit Data RX Enable I !RX_EN 23 24 !TX_EN I Tx Enable Serial port Configuration mode I !CONFIG 21 22 GND  Ground    19 20 DCLK O Data Clock    17 18       15 16       13 14       11 12       9 10    Reset I !RESET 7 8    CPU flash mode I !PGM 5 6    Ground  GND-PA 3 4 GND-PA  Ground Voltage Supply, RF power amplifier I VPA 1 2 VPA I Voltage Supply, RF power amplifier Table 3.1 – Host Interface pins assignment
LRM Radio Module – Host Interface Specification     Host Interface Definition  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  3-3  3.2 Signals Description Pin Nb Signal Name I/O Description Category 1, 2 VPA Input Voltage Supply, RF power amplifier.   This supply is needed when an optional piggy-back power amplifier board is used.  Specifications (voltage, current) depend on piggy-back board used. Power supply 3, 4 GND-PA  GND,  RF power amplifier. This ground is connected internally to the module ground.  It does not need to be connected when the module is used without PA Power supply 22, 50 GND  System ground Power supply 27 3V3 Input 3.3 V power supply voltage input (Vcc) Power supply      5 !PGM Input Used to download on-board CPU firmware.  Connect this signal to GND at power-up to force the CPU to enter firmware programming mode. Otherwise, connect to Vcc or leave unconnected Module control 7 !RESET Input Main reset (active low).  When reset is asserted, the content of the internal registers is lost. Module control      29 !READY Output Handshaking signal for transmit or receive data on the host interface.  Data Transmission 23 !RX_EN Input Receive Enable (active low).  Used to place the RF module in received mode *Note: when !TX_EN and !RX_EN are asserted simultaneously, the module is placed in STANDBY mode (low power consumption, internal registers conservation) Data Transmission 24 !TX_EN Input Transmit Enable (active low).  Used to activate telegram transmit process  Data Transmission 25 RXD Output Receive Data.   Data Transmission 26 TXD Input Transmit Data Data Transmission 20 DCLK Output Data Clock.  Active when serial port is configured in Synchronous Mode Data Transmission 21 !CONFIG Input Used to configure the Data transmission signals RXD and TXD for module configuration. Asserting can be done in IDLE state only.  Active low Configuration interface 37 SPI_PDI Input If configuration interface configured for SPI: PDI (Peripheral Data In) Configuration interface 38 I2C_SDA SPI_PDO Bidi / Output If configuration interface configured for: I2C:  I2C SDA signal (data) SPI:  PDO (Peripheral Data Out) Configuration interface 39 I2C_SCL SPI_SCLK Bidi / Input If configuration interface configured for: I2C: I2C SCL signal (clock) SPI: SCLK (Serial Clock) Configuration interface 40 SPI_PLE Input If configuration interface is configured for SPI PLE: (Peripheral Data Load Enable) Configuration interface 48 RX_BB Output Analog demodulated RX signal Data Transmission Table 3.2 - Host Interface signals description
LRM Radio Module – Host Interface Specification     LRM Configuration Concept  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  4-4  4. LRM Configuration Concept  All LRM configuration and status parameters are accessible through addressable registers. - All parameters can be read in any of the following state: IDLE, RX, TX - All writable parameters can be written in the following state: IDLE only In order to facilitate adaptation to different platforms, the LRM configuration registers can be accessed using anyone of three methods: I2C, SPI or serial asynchronous with ASCII strings. The definition of the configuration registers is given in reference [3].  This section addresses the basic description of all these three methods.  4.1 I2C Signals I2C_SDA and I2C_SCL are used, according to the I2C standard protocol. The LRM I2C configuration interface LRM emulates the behavior of the 1Kbytes I2C E2PROM found in all Unity RF modules.  This way, I2C operation is consistent for all Unity radios.  Device Address: 0xA0 (same as other Unity RF modules)  Device select code:  1 0 1 0 0 A9 A8 R/Wb7 b6 b5 b4 b3 b2 b1 b0  Write operations: supports “Byte write” and “Page write”.  Read operations: supports “Random Address Read” and “Sequential Random Read”.   For more details, refer to the M24C08 serial I2C E2PROM datasheet. 4.2 SPI Signals SPI_PDO, SPI_PDI, SPI_CLK and SPI_PLE are used. [TBD: Timings. (the LRM is a clock consumer)] 4.3 Console Interface The serial interface configuration port is enabled by asserting !CONFIG signal; the serial interface is automatically reconfigured in asynchronous mode, running at 38400bps, 8N1.  All ASCII strings received are interpreted as configuration commands.  This mode is particularly useful for stand-alone testing, when the unit can be controlled from a PC or by an operator/tester using a terminal emulation program.  4.3.1 “Write” command   wrCmd register value ,  where:    wrCmd    =  write command.  w or wr can be used and are equivalent    register    =  register identification. Can use the register name or register address    value       =  value to be written, in decimal or hexadecimal format.  Hexadecimal values are preceded by ‘0x’  Examples: wr txf 915000000  : Write 915000000 to register txf (Tx frequency)
LRM Radio Module – Host Interface Specification     LRM Configuration Concept  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  4-5  wr 0x80 18    : Write 18 to register address 0x80 wr txf 915000000 0x80 18: Concatenate the two writes above in a single instruction    4.3.2 “Read” command   rdCmd reg   where: rdCmd=  read command.  r or rd can be used and are equivalent reg  =  register identification. Can use the register name or register address  Examples: rd txf    : Reads register txf (Tx frequency) rd 0x80  : Reads register address 0x80 rd txf 0x80  : Reads registers txf and 0x80 in a single instruction  4.3.3 “Help” command   helpCmd   where: helpCmd=  help command.  h, help or ? can be used and are equivalent. The LRM responds with the list off all available configuration registers. 4.4 Stand-Alone Test Mode  The LRM can be operated in stand-alone mode for production/service tests.  In this case, only a 3.3VDC supply is needed, and a RS232/TTL transceiver (like Laird FLASHBOX) to connect to a PC serial port.   21LRM, host interface26RXDTXD25!CONFIG3V3GND2722RS232 - TTL transceiver(ex: Laird FLASHBOX)3.3VDCRS232PC, running automated test program, or ANSI terminal emulation software*Note: The LRM !RX_EN, !TX_EN and !RESET all have internal pull-ups, so they can be left unconnected.   Figure 4.1 - LRM connection for stand-alone operation   The LRM will support several built-in test modes to ease testing from a PC.  For example  a. Transmission Tests  - Generation of different type of carrier: unmodulated (CW), or modulated with “101010..” or pseudo-random sequence - Automatic generation of test RF frames with predefined content b. Reception Tests - Measure PER (packet error rate) when receiving the predefined test RF frames - Measure RF input level  More details about the test modes can be found in reference [3].
LRM Radio Module – Host Interface Specification     LRM Configuration Concept  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  4-6  4.5 Firmware Download As shown in Figure 4.2, the LRM firmware can be downloaded using the Laird FLASHBOX, as the rest of Unity products family.  A proper adapter needs to be used to fit to the LRM host interface connector.   5LRM, host interface26RXDTXD25!PGM3V3GND2722Laird FLASHBOX3.3VDCRS232PC running FLASHSTA programming software Figure 4.2 - LRM firmware programming setup using the FLASHBOX
LRM Radio Module – Host Interface Specification     Registers Map Summary  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  5-7  5. Registers Map Summary   5.1 Registers description fields The registers are specified by the following parameters 1. Register address: This address can be used from the console, I2C or SPI accesses. 2. Parameter type:  TYPE Description BOOL Boolean value: 0 or 1 UINT8 8 bits value, unsigned INT8 8 bits value, signed UINT16 16 bits value, unsigned INT16 16 bits value, signed UINT32 32 bits value, unsigned INT32 32 bits value, signed CHAR ASCII-encoded character   3. Array Size: Number of instances of this register.  Each instance is referred to by using the keyword appended with the instance number.  Ex: reg0, reg1, reg2, …. 4. Access Type:  Access Type Description R Read only RW Read/Write WP Write-protected RWP Read/Write-protected “Write protected” registers cannot be written, unless the correct key code has been written in the WP unlock key register. 5. Keyword:  keyword use for console access 6. Description: description printed on the console after a help command.
LRM Radio Module – Host Interface Specification     Registers  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  6-8  6. Registers  6.1 Section 1 Registers: Hardware Information Block  Section 1:  Hardware Information Block   Addr Type Array Size Access Keyword Description Details 0x00 UINT8 1 RWP id RF module ID  0x04 CHAR 14 RWP hwpn HW Part Number  0x12 CHAR 4 RWP hwrev HW Revision  0x16 CHAR 16 RWP sn Serial Number  0x26 UINT8 26 RWP sp Spare Reserved for future usage. 0x40 UINT8 1 RWP cmdef Default operation mode  0x43 UINT16 1 RWP crc HIB CRC (Hardware Info Block)   This section is formatted according the standard Unity RF modules E2PROM data format, described in reference [3].  Hardware Information Block registers are write-protected; writes operations are allowed after the proper key code has been written in the WP unlock key register 6.1.1 HW Part Number Hardware part number is a 14 characters ASCII string formatted according to Laird standard part number format; [4 digits prefix]-[4 digits number]-[4 digits suffix].  Example: “2PCA-7954-A001”  6.1.2 HW Revision This field is a 4 characters ASCII representation of the HW Revision.  Laird hardware parts revision is composed of 2 segments.  The first segment is made of one or two letters followed with one or two optional numerical digits.   revision.  Examples: “PP3”, “A” 6.1.3 Serial Number A 16 digits field is reserved for serial numbers.  Serial numbers format is not predefined. 6.1.4 Default Operation mode    Default value for the LRM operation mode.  LRM operation modes are described in section 6.    6.2 Section 2 Registers: Software Information Block  Section 2: Software Information Block  Addr Type Array Size Access Keyword Description Details 0x46 CHAR 14 R swpn SW Part Number Section 3.2.1
LRM Radio Module – Host Interface Specification     Registers  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  6-9  0x54 CHAR 10 R swrev SW Revision Section 3.2.2 0x5E UINT16 1 R mapver Register map version Section 3.2.3  Software Information Block registers are read-only. 6.2.1 SW Part Number Software part number is a 14 characters ASCII string formatted according to Laird standard part number format; [4 digits prefix]-[4 digits number]-[4 digits suffix].  Example: “3SOF-7954-A001”   6.2.2 SW Revision Software revision is given by 3 segments separated by commas.  The segments are typically but not restricted to numbers.  Ex: “3.12.7”,  “1.2.7B”,    A 10 characters long field is defined.  6.2.3 Register Map Version number This is number is represented by numerical values.  Ex: 1.34; -  The second segment is incremented each time new registers are added to the Register map, and this addition has no impact on backward compatibility.  It is encoded on in the LSB. -  The first segment is incremented each time a change to the Register Map has any impact on backward compatibility. It is encoded in the MSB. For example, “1.34” would be encoded as 0x0122.   6.3 Section 5 Registers: RF Interface Configuration These parameters control the operation of the RF interface.  Section 5: RF Interface Configuration  Addr Type Array Size Access Keyword Description  Details 0x80 UINT32 1 RW txf Tx Frequency (Hz) The new frequency is set at the next transition to Tx mode 0x84 UINT32 1 RW rxf Rx Frequency (Hz) The new frequency is set at the next transition to Rx mode 0x88 INT8 1 RW txp Tx Level(dBm) If the Tx level value is outside the range supported by the radio, the nearest supported value is set and readback. 0x8a INT8 1 R rssi Current RSSI (dBm) Reads current RSSI at frequency rxf.  (Note: the LRM shall be in Rx mode) 0x8b INT8 1 R prssi RSSI of last received packet (dBm)  0x8c UINT8 1 RW psize Max size of received packets In number of bytes
LRM Radio Module – Host Interface Specification     Registers  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  6-10  6.4 Section 7 Registers: Test commands and parameters This section implements tests utilities that can be used for development, production and service.  Section 7: Test Commands and Parameters - Registers content after system reset is zero Addr Type Size Access Keyword Description Details 0xe0 UINT8 1 W test Test Mode  0xe4  UINT32 7 RW testp Test Parameters
LRM Radio Module – Host Interface Specification     Test-Specific Parameters  Document p/n: 9S02-7954-A501 Rev. A  2015 LAIRD  Proprietary and Confidential  Page  7-11  7. Test-Specific Parameters   Test Mode value Parameters NO_TEST 0 None TX_CW 1 None TX_1010 2 None TX_PRBS 3 None TX_PACKETS_PRANDOM 4 None TX_PACKETS_PDEFINED 5 testp0: packet data RX_RSSI 81 None RX_STATS 82 None RX_PACKETS 83 None RX_BER0 84 testp0: Calculation window, in msec (default = 200msec).  Result is printed after each window time. testp1: Calculation result from the last window RX_BER1 85 testp0: Calculation window, in msec (default = 200msec) testp1: Calculation result from the last window

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