Texas Instruments FPTVEH Radio Frequency Identification Transponder User Manual 11 09 05 701
Texas Instruments Inc Radio Frequency Identification Transponder 11 09 05 701
Contents
- 1. Hardware Specification
- 2. Software Specification
Software Specification
A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION Originator: Phillip LaCroix Effective Date: July 14, 1999 TEXAS INSTRUMENTS TIRIS SPECIFICATION Internal Data Software Specification for LUHF Vehicle Transponder (U.S.) RI-TRP-VUSA PRINTED COPIES OF THIS SPECIFICATION ARE NOT CONTROLLED DOCUMENTS. VERIFY THEIR CORRECT REVISION BEFORE USING. Revision: Approval: Approval: Function: Engineering Function: Name: Loek D’Hont Name: Date: Date: RI-TRP-VUSA – Software Specification Operations Paul Angelo Page 1 of 16 Date: Approval: Function: Name: Date Software Krishna D. 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data TABLE OF CONTENTS 1. INTRODUCTION … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … . 1 1.1 SCOPE........................................................................................................................... 4 1.2 APPLICABLE DOCUMENTS ................................................................................................ 4 1.3 DEFINITIONS, ACRONYMS AND ABBREVIATIONS .................................................................. 4 2. PROTOCOL … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … … 5 2.1 DOWNLINK ..................................................................................................................... 5 2.1.1 Downlink Formats....................................................................................................................... 5 2.1.2 Downlink Messages Ending ....................................................................................................... 6 2.1.3 Downlink Messages ................................................................................................................... 6 2.1.3.1 2.1.3.2 2.1.3.3 2.1.3.4 Identification (Type 0)..................................................................................................... 6 Authentication (Type 1) .................................................................................................. 6 Account Data (Type 2).................................................................................................... 6 Reserved for Future Use (Types 3-7) .............................................................................. 7 2.1.4 Customer Page ......................................................................................................................... 7 2.1.5 Encryption Key .......................................................................................................................... 7 2.2 UPLINK .................................................................................................................................. 7 2.2.1 Uplink formats ............................................................................................................................ 7 2.2.2 Uplink Message Beginning......................................................................................................... 8 2.2.3 Uplink Messages ........................................................................................................................ 8 2.2.3.1 Identification (Type 0)............................................................................................................. 8 2.2.3.2 Authentication (Type 1) .......................................................................................................... 9 2.2.3.3 Account Data (Type 2).................................................................................................... 9 2.2.3.4 Reserved for Future Use (Types 3 - 15) .......................................................................... 9 3. FUNCTIONAL REQUIREMENTS … … … … … … … … … … … … … … … … … … … … … … … .… ..10 3.1 SOFTWARE OVERVIEW ...................................................................................................10 3.1.1 WAKE-UP................................................................................................................................ 12 3.1.2 WAIT........................................................................................................................................ 12 3.1.3 RECEIVE................................................................................................................................. 12 3.1.4 MESSAGE PROCESSING...................................................................................................... 13 3.1.5 RESPONSE ............................................................................................................................ 13 3.1.5.1 VCO Control .................................................................................................................13 3.1.6 DST ENCODER ...................................................................................................................... 13 3.1.7 SLEEP..................................................................................................................................... 14 MICROCONTROLLER HARDWARE INTERFACE … … … … … … … … … … … … … … … … ..15 QUALITY ASSURANCE PROVISIONS … … … … … … … … … … … … … … … … … … … … … ..16 RI-TRP-VUSA – Software Specification Page 2 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data RI-TRP-VUSA – Software Specification Revision: TIRIS SPECIFICATION Page 3 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data 1. 1.1 INTRODUCTION SCOPE This document describes the LUHF Vehicle Transponder Software Specification definition to implement the TIRIS Automatic Recognition of Consumers (ARC) system. The scope of this document extends from the Vehicle Transponder Hardware Specification. The interrelationships and interfaces between the Vehicle Transponder Hardware Specification and this software specification are defined in detail. The relationships of this software specification within the ARC system are contained in the higher-level specifications (see 1.2 Applicable Documents, below). If anything in this document is ambiguous or incorrect, it should be immediately reported to the Project Managers for the Texas Instruments ARC Team, and corrected. This document is a TI internal document only. 1.2 APPLICABLE DOCUMENTS The hierarchy of documentation pertaining to this specification is depicted below. Document Number 06-01-02-700 11-09-05-700 11-09-05-701 24-09-05-012 TQM 1.3 Document Title ARC System Specification (U.S) Hardware Specification for LUHF Vehicle Transponder Software Specification for LUHF Vehicle Transponder TIRIS Digital Signature Transponder Algorithm and Software Requirement TIRIS QUALITY MANUAL DEFINITIONS, ACRONYMS, AND ABBREVIATIONS ARC CRC Downlink LSB LUHF MSB PLL RFU TIRIS Uplink VCO Automatic Recognition of Consumers Cyclic Redundancy Check RF Data Transmission from Dispenser to Transponder (134 kHz Carrier) Least Significant Bit Low / Ultra High Frequency Most Significant Bit Phase-Locked Loop Reserved for Future Use Texas Instruments Registration and Identification System RF Data Transmission from Transponder to Dispenser (902.8 MHz Carrier) Voltage-Controlled Oscillator RI-TRP-VUSA – Software Specification Page 4 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data 2. PROTOCOL The protocol to be used by the transponder is as follows: Downlink Message Downlink Type Uplink Message Downlink Format Identification Authentication (first challenge) Authentication (second & subsequent) Account Data Reserved for Future Use Identification none Uplink Type Uplink Format Authentication 3-7 Account Data none The Downlink messages are defined in section 2.1 and the Uplink messages are defined in section 2.2 2.1 DOWNLINK The Downlink Messages or Polls shall conform to the defined message types and its associated message format. The messages shall be transmitted most significant bit first. 2.1.1 Downlink Formats Format 1 Data Field Preamble Message type Customer Page Length 12 bits 3 bits 5 bits Station Dispenser ID 3 bits 4 bits Dispenser Side 1 bit CRC 8 bits Total 36 bits RI-TRP-VUSA – Software Specification Description Always E1A16 Always 0002 : Type 0 – Identification Transponder must have corresponding Customer Flag and Customer Mask enabled to answer. Station Number Dispenser ID Number 0 : SIDE A 1 : Side B CRC-8 polynomial (x8 + x2 + x1 + 1) over entire message, excluding preamble. Start value = 0xFF MSB sent first Page 5 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data Format 2 Data Field Preamble Length 12 bits Description Always E1A16 MESSAGE TYPE 3 bits Customer Page 5 bits Station Dispenser ID 3 bits 4 bits 0012 : Type 1 - Authentication 0102 : Type 2 - Account Data Transponder must have corresponding Customer Flag and Customer Mask enabled to answer. Station Number Dispenser ID Number DISPENSER SIDE 1 bit Variable data CRC 40 bits 8 bits Total 76 bits 0 : Side A 1 : Side B Content depends on message type CRC-8 polynomial (x8 + x2 + x1 + 1) over entire message, excluding preamble. Start value = 0xFF MSB sent first 2.1.2 Downlink Messages Ending Upon completion of the last data bit of the defined downlink message, the transmitter shall transition the output and maintain this state for >1/2 bit periods. This 1/2 bit period guard time shall not be considered as part of the message and all timing is reference to this transition at the end of the last bit. 2.1.3 Downlink Messages 2.1.3.1 Identification (Type 0) Poll message type 0 requests only the identification number from the transponder. The Customer Page is set to indicate what transponder Customer this dispenser will accept. The Station/dispenser ID uniquely identifies a dispenser at a single installation. 2.1.3.2 Authentication (Type 1) Poll message type 1 requests the identification number and corresponding authentication data from the transponder. The Customer Page is set to indicate what transponder customer this dispenser will accept. The Station/dispenser ID uniquely identifies a dispenser at a single installation. The variable data is set to a random number that serves as the cryptographic challenge. 2.1.3.3 Account Data (Type 2) Poll message type 2 requests the identification number and account data from the transponder. The Customer Page is set to indicate what transponder customer this dispenser will accept. The Station/dispenser ID uniquely identifies a dispenser at a single installation. RI-TRP-VUSA – Software Specification Page 6 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data Revision: TIRIS SPECIFICATION 2.1.3.4 Reserved for Future Use (Types 3-7) Poll message types 3 through 7 shall be reserved for future use. The transponder shall not respond to these message types. 2.1.4 Customer Page Each transponder shall have one default Customer Page, Page 0, and 31 unique Customer Pages. Each of the 31 unique Customer Pages and the one default Customer Page shall have both a Customer Flag and a Customer Mask. The transponder shall respond to a downlink message only if the message's Customer Page has both the corresponding Customer Flag and the Customer Mask enabled. The Customer Flag shall reside in the unlocked memory portion of the microcontroller, which will always be readable and programmable. This will allow a Customer Flag to be enabled at either the initial activation or anytime in the future at a programming station. Once the Customer Flag has been enabled it can never be disabled. The Customer Mask shall reside in the locked memory portion of the microcontroller, which can not be read or changed after the memory lock bit has been set at a programming station. Assignment of customer specific or customer requested pages, masks and/or flags shall be done by TIRIS - Texas Instruments. Transponders for demonstration and pilot programs will typically use Customer Page 31. Demo Transponders will have Customer Mask 31 enabled and Customer Flag 31 enabled. 2.1.5 Encryption Key Each transponder shall have at least one Encryption Key and may have up to 2 different Encryption Keys. The Encryption Key(s) shall reside in the locked memory portion of the microcontroller which can not be read or changed after the memory lock bit has been set at a programming station. Each of the 32 different Customer Pages will map to a corresponding Encryption Key. The default Customer Page (Page 0) shall use Encryption Key 0. The remaining Customer Pages (Pages 1 through 31) shall all use Encryption Key 1. For processing type 1 Authentication messages, the corresponding Encryption Key shall be used as one of the inputs into the DST Encryption Algorithm. Customer specific encryption keys and their format shall be determined by TIRIS - Texas Instruments. Demonstration transponders will typically have only one Encryption Key used for Customer Page 31. 2.2 UPLINK The Uplink Messages or Responses shall conform to the defined message types and its associated message format. The messages shall be transmitted most significant bit first. 2.2.1 Uplink formats Format 1 Data Field Preamble Length 12 bits Description Always AAC16 MESSAGE TYPE 4 bits 0002 : Type 0 - Identification 0012 : Type 1 - Authentication 0102 : Type 2 - Account Data RI-TRP-VUSA – Software Specification Page 7 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data Station Dispenser ID 3 bits 4 bits Station Number Dispenser ID Number DISPENSER SIDE 1 bit Transponder ID Variable data CRC 32 bits 24 bits 16 bits 0 : Side A 1 : Side B Identification code programmed into transponder Contents depends on message type CRC-CCITT polynomial (x16 + x12 + x5 + 1) over entire message, excluding preamble. start value = 0x0FFF, MSB sent first Total 96 bits 2.2.2 Uplink Message Beginning The microcontroller shall activate the output FSK no less than 500 uS prior to the start of the first data bit. The microcontroller shall output a data '1' (positive frequency deviation) during initial part of the activation period. The microcontroller shall output a series of 8 Manchester-encoded ones during the 400 uS period immediately before the first data bit. Refer to the Vehicle Transponder Hardware Specification, 11-09-05-700, for uplink FSK Oscillator Startup time. During normal operation, the uplink message shall start 1.2 mS +/- 5% after the end of the downlink message. The first uplink after wake-up is used to initialize the PLL frequency settings. During frequency initialization, the uplink message shall start 1.45 mS +/- 5% after the end of the downlink message. All timing is referenced to the beginning of the first transmitted data bit in the uplink message. 2.2.3 Uplink Messages 2.2.3.1 Identification (Type 0) Response message type 0 is used to respond to a poll message type 0. If the transponder has both a Customer Flag and Customer Mask enabled for the corresponding Customer Page in the downlink message, this response is generated. The variable data shall contain the Service Table data. Format of the Service Table: (MSB) aaa bbb nnn nnn nnn nnn nnn nnn (LSB)1 Field ‘aaa’: Message type 1 capabilities (authentication) Value Capability 111 No Authentication 110 DST 101-000 RFU Poll Format Variable Data None None DST Challenge RFU RFU RI-TRP-VUSA – Software Specification Page 8 of 16 Response Format No response RFU Variable Data None DST Response RFU 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data Revision: TIRIS SPECIFICATION Field ‘bbb’: Message type 2 capabilities (Fleet Identification) Value 111 110 Capability Poll Format No Data None Pre-loaded Application 2 Data 101-000 RFU RFU Variable Data Response Format Variable Data None No response None Application Data RFU RFU RFU Field ‘nnn’: Future capabilities Value 111 110-000 Capability Poll Format No Additional None Capability RFU RFU Variable Data None Response Format Variable Data No response None RFU RFU RFU Notes: 1) The default bit value in the service table is a '1', indicating no additional capability. Since a '1' is the un-programmed value in the microcontroller, this allows the service table to be updated if a capability is added. For example, a Fleet Account Identifier could be programmed into the transponder after delivery. In this case, the value for field 2 would be changed from '111' to '110' to indicate the newly added capability. In general, new capabilities will not be added to an existing transponder since it will likely require additional software. 2) Additional entries are available in the service table. This allows future extensions for message types and capabilities not yet defined for the existing transponder. 2.2.3.2 Authentication (Type 1) Response message type 1 is used to respond to a poll message type 1. If the transponder has both a Customer Flag and Customer Mask enabled for the corresponding Customer Page in the downlink message, a response is generated or a pre-calculation is initiated. The variable data is set to the cryptographic response calculated from the challenge and the selected Encryption key. The transponder shall compare the received challenge and Customer Page to the most recent challenge and Customer Page received. If they are identical, the transponder shall respond with the pre-calculated response data. If they are different, the transponder shall not respond and shall calculate and save the cryptographic response. 2.2.3.3 Account Data (Type 2) Response message type 2 is used to respond to a poll message type 2. If the transponder has both a Customer Flag and Customer Mask enabled for the corresponding Customer Page in the downlink message, a response is generated. The variable data consists of the 24 bit account data field. 2.2.3.4 Reserved for Future Use (Types 3 - 15) Response message types 3 through 15 shall be reserved for future use. These message types shall not be transmitted by the transponder. RI-TRP-VUSA – Software Specification Page 9 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data 3. Revision: TIRIS SPECIFICATION FUNCTIONAL REQUIREMENTS When the Vehicle Transponder Software is programmed into the Vehicle Transponder's microcontroller, the software provides the functionality required to: 3.1 Wake-up on DL Data pin transition. Decode a 1 kbps, FM0, poll message. Process the received poll message and generate a response message. Transmit a 20 kbps, Manchester encoded response. Go into a low power sleep mode when transmission ceases. SOFTWARE OVERVIEW A top-level overview of the Vehicle Transponder Software is depicted in Figure 3-1 below. The major blocks of the software are the Wake-up, Wait, Receive, Message Processing, Response, and DST Encoder. The interrelationships of these subsystems are shown in Figure 3-1. RI-TRP-VUSA – Software Specification Page 10 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data S leep Transition Wake-Up > 5 Seconds Wait Transition Invalid FM0 Receive Invalid or Undefined Msg or Invalid CRC Message Processing Valid Message Non DST Type DST Response No 1st DST Yes DST Encoder Figure 3-1. Software Flow Diagram. RI-TRP-VUSA – Software Specification Page 11 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data 3.1.1 WAKE-UP The microcontroller shall transition from a low power sleep mode to an initialized active mode within 150 mS of any transition on the DL Data pin. Upon completion of the initialization, the transponder shall then enter a wait mode. 3.1.2 WAIT The microcontroller shall enter the wait mode after exiting any of the following modes: Wake-up, Receive mode with invalid poll, DST calculation, or Response mode. The microcontroller shall transition to the Receive mode on a transition on the DL Data pin or exit to Sleep mode if there are no transitions within 5 s +/- 15%. 3.1.3 RECEIVE The microcontroller shall enter the Receive Mode after an DL Data pin transition from the Wait mode. In this mode, the microcontroller shall be capable of processing the downlink data with the protocol as defined in section 2 with the characteristics defined in Doc. No. 11-09-05-700 with the following additional constraints: Less than 100 uS transition time from high to low level input. Less than 50 uS transition time from low to high level input. FM0 modulation asymmetrical waveform as shown below. This asymmetry is caused by the transponder detector circuitry, and is not allocated to the Downlink Transmitter. FM0 Modulation Asymmetry Input Data Level Low High Low High Minimum 0.15 mS 0.35 mS 0.65 mS * 0.85 mS * Maximum 0.65 mS * 0.85 mS * 1.20 mS 1.35 mS * Note: Interrelated - Data 0 low maximum <=> Data 1 low minimum Data 0 high maximum <=> Data 1 high minimum The microcontroller shall exit the Receive mode under one of the following conditions: Invalid Data, complete reception of a valid Poll, or the end of DL Data pin transitions for greater than 1.5 bit periods. At any time the microcontroller receives downlink data characteristics that do not conform to the defined requirements, the microcontroller shall return back to the Wait mode within 100 uS. As the downlink message begins, the microcontroller must first identify the last four bits of the preamble (synch). Upon identifying the synch, the message length is set to minimum message length, and the 8 bit CRC is preloaded with 0xFF. As the message continues, the received data bits are decoded and stored, and the CRC value is updated with each bit. When the full Message Type has been received, the message length counter will be updated and control when the full message has been received. If DL Data pin transitions stop for greater than 1.5 bit periods prior to receiving the full message, the microcontroller shall exit to Wait mode. When the full message has been received, the microcontroller shall proceed to the Message Processing mode within 100 uS. RI-TRP-VUSA – Software Specification Page 12 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data 3.1.4 MESSAGE PROCESSING The microcontroller shall complete processing of all received poll information within 400 uS and transition into one of the following Modes: Wait, Response, or DST Encoder. The received downlink message shall be checked for the following: CRC is zero; valid Message Type; and Customer Page has both the Customer Flag and Customer Mask enabled. If any of these are invalid or inactive, the microcontroller shall exit to Wait mode. The Customer Page, Station, Dispenser ID, Side, and Variable Data fields received shall be saved for use in both processing and uplink data message. If an Authentication Poll is received, the Customer Page, Station, Dispenser ID, Side, and Challenge (from Variable Data) fields are compared with the stored values from the last DST Encoded fields. If the fields are different, the microcontroller shall exit to DST Encoder mode. If the fields match, the microcontroller will then create the appropriate response message array using the Uplink format defined in section 2 and exit to Response Mode. If either an Identification or Account Data Poll is received, the microcontroller shall create the appropriate response message array using the Station, Dispenser ID, and Side, received in the downlink message. The Uplink format shall be as defined in section 2 and exit to Response Mode. 3.1.5 RESPONSE The microprocessor shall first activate the VCO in accordance with paragraph 2.2.2 before transmitting the data on the UL Data pin. The transmit data consists of the response message array created during the Message processing mode followed by the calculated CRC. The protocol used shall be as defined in section 2. The transmitted data parameters shall be as specified in the Vehicle Transponder Hardware Specification, 11-09-05-700, with the following additional requirements. Parameter Data Rate Duty Cycle 3.1.5.1 Requirement 20 kbps +/- 4% 50 +/- 0.5 % VCO Control The uplink frequency of the transponder is governed by a PLL and VCO combination. A programmed transponder will contain the appropriate constants to initialize the PLL to the desired uplink frequency. In order to operate the transmitter during an uplink, the VCO and PLL must be placed in an active, or powered, state. This is accomplished by setting a program-controlled output of the PLL to a logic high. When the uplink is complete, the PLL and VCO are set to an inactive, or off, state. This is accomplished by setting a program-controlled output of the PLL to a logic low. The microcontroller sets the state of the program-controlled output by sending a serial command message to the PLL. 3.1.6 DST ENCODER The microcontroller shall use the DST algorithm as specified in TIRIS Digital Signature Transponder Algorithm and Software Requirement, #24-09-05-012, to encode the received message. The microcontroller shall create the encoded response using the challenge data in the variable data field in the received message and the appropriate Encryption Key stored in the microcontroller locked memory area. The encoded DST response along with the original Challenge, Customer Page, Station, RI-TRP-VUSA – Software Specification Page 13 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data Revision: TIRIS SPECIFICATION Dispenser ID, and Side from the received message will then be stored in the DST challenge data area. The microcontroller must complete the full DST encoding routine and return to the Wait mode within 200 mS. The DST Algorithm will use the 8 msb's of the Transponder ID as the Manufacturer's Code specified in the DST specification. 3.1.7 SLEEP The microcontroller shall enter into a low power sleep mode within 100 uS of the start of the sleep mode processing. RI-TRP-VUSA – Software Specification Page 14 of 16 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Revision: TIRIS SPECIFICATION Internal Data 4. MICROCONTROLLER HARDWARE INTERFACE The Microchip PIC12C509 microcontroller interface pin definition from the RF detector and to the PLL and RF FSK transmitter is as follows: Name Vbat Gnd OSC1 OSC2 VPP DL_DATA PLL_LE PLL_CLK UL_DATA PLL_DAT Description Positive Supply Ground Oscillator Input Oscillator Input Programming Power / Downlink Data PLL Latch Enable PLL Serial Clock / Uplink Data / Programming Clock PLL Serial Data / Programming Data Type Power Ground Pin Number I/O I/O I/O Absolute Maximums Signal Vcc DL_DATA, UL_DATA, PLL_LE, PLL_DATA, OSC1, OSC2 Vpp Minimum 0V Gnd –0.6 V Maximum 7.0 V Vcc + 0.6 V Gnd – 0.6 V 13.5 V Digital Voltage Level Digital Value Minimum Maximum 0V 0.2 * Vcc + 1V 0.2 * Vcc Vcc Critical System Parameters Parameter Voh, Ioh=3mA Vol, Iol = -3mA Input Leakage Input Capacitance RI-TRP-VUSA – Software Specification Minimum Vcc - 0.7 V -1 uA Page 15 of 16 Maximum 0.6 V +1 uA 10 pF 11-09-05-701 A92FPTVEH – Attachment 3 TI PROPRIETARY INFORMATION TEXAS INSTRUMENTS Internal Data Revision: TIRIS SPECIFICATION 5. QUALITY ASSURANCE PROVISIONS The Vehicle Transponder Software shall be designed, controlled, and tested in accordance with the TQM. RI-TRP-VUSA – Software Specification Page 16 of 16 11-09-05-701
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