Home » Intermec Manuals » Electronics Accessories » Intermec IF2 » Manual Viewer

Intermec IF2 Basic Reader Interface Programmer's Reference Manual (BRI version - Page 92

BRI Extensions for Impinj Monza 4 Tags, READ IMPINJQT

Add to My Manuals
Save this manual to your list of manuals

Page 92 highlights

Chapter 4 - BRI Commands BRI Extensions for Impinj Monza 4 Tags This section lists BRI extensions that are specific Impinj Monza 4 tags. The Impinj Monza 4 tags implement a 16-bit QT status field and a custom command to read and write the QT field. The most significant bit (QT_SR) controls the range of the response of a tag. When set, the tag reduces the strength of its backscattered signal to reduce the range which the tag can be read. The second significant bit (QT_MEM) controls whether the tag presents the public or private memory map to the reader. When set, the tag exposes its public memory map. For more information on the Impinj Monza 4 tags, see the product specification for Impinj Monza 4 tags. READ IMPINJQT Purpose: Syntax: Example: Use this command to read the QT status. The result is a 16-bit hexadecimal value representing the QT status bits from the tag. READ [flex_query_selector]IMPINJQT [TAGTYPE=] [WHERE ] [PASSWORD=] In this example, the first tag has both the QT_SR and the QT_MEM bits cleared (set for normal-range and private memory map). The second tag has both bits set (set for short-range and public memory map). READ IMPINJQT H300833B2DDD901400000000000000000 H0000 H300833B2DDD901400000000000000001 HC000 WRITE IMPINJQT Purpose: Syntax: Example: Use this command to write to the QT status field. WRITE [flex_query_selector]IMPINJQT=H {PERMANENT} [TAGTYPE=] [WHERE ] [PASSWORD=] = Contains a 16-bit value representing the contents of the QT status field to be written. The most significant bit is the QT_SR which controls the short-range/ normal-range setting of the tag. The next most significant bit is the QT_MEM bit which controls the public/private memory map setting of the tag. Example 1: WRITE IMPINJQT=H0000 H300833B2DDD901400000000000000000 WROK Temporarily set the tag for normal range and private memory map. Example 2: WRITE IMPINJQT=HC000 H300833B2DDD901400000000000000000 WROK Temporarily set the tag for short range and public memory map. 80 Basic Reader Interface Programmer Reference Manual

Section	Page
Before You Begin	11
Safety Information	11
Global Services and Support	11
Warranty Information	11
Web Support	11
Send Feedback	11
Telephone Support	12
Who Should Read This Manual	12
Related Documents	12
Chapter 1 - Introducing the Basic Reader Interface	13
Overview of the Basic Reader Interface	14
What’s New?	14
General Features of the BRI Architecture	14
Two Typical BRI Usage Scenarios	14
BRI TCP Applications	15
Choosing a TCP Port for an Application Using TCP	15
Resetting the Reader to the Factory Default Configuration	15
Identifying the Version of BRI on Your Reader	16
Conventions Used in This Manual	17
Chapter 2 - Designing Robust BRI Applications	19
Before You Begin Programming	20
Managing RFID Configuration	20
Using the RFID Resource Kit	21
Recommended Software Structure	21
Programming the BRI Message Layer	23
BRI Message Types	23
BRI Command Processor	24
BRI Asynchronous Event Handler	24
Response Handler	24
Programming the BRI Transport Layer	24
Transport Operation	24
Transport Initialization	25
Multi-Threaded Implementation	25
Chapter 3 - Understanding BRI Programming Elements	27
BRI Logical Interface	28
Using Message Checksums	28
Reserved Keywords	29
Keywords Reserved for BRI Commands	29
Keywords Reserved for Command Parameters	30
Keywords Reserved for Reader Attributes	32
Keywords Reserved for Reader Error and Success Responses	33
Constants	34
Data Field Definitions	34
ANTENNA	34
AFI	35
BIT(memory_bank:startbit, bits)	35
COUNT	35
EPCID	35
HEX(memory_bank:address, length)	36
INT(memory_bank:address, length)	37
ISOUII	38
PC	39
RSSI	39
STRING(memory_bank:address, length)	39
TAGTYPE	40
TIME	40
Data Conditions	40
Using Native Tag Selector Logic in Data Conditions	41
Using AND/OR Logic in Data Conditions	42
Using the AND and OR Keywords	43
Grouping Expressions Without Using Parentheses	44
Using EPCC1G2 Select Logic in Data Conditions	45
Multi-Protocol Condition Usage	46
Chapter 4 - BRI Commands	47
BRI Commands	48
ATTRIBUTE	48
Changing the Reader Attributes	48
Reading the Reader Attributes	50
BLOCKPERMALOCK	50
BLOCKPERMALOCK READ	52
BRIVER	52
CAPABILITIES	53
DIAGNOSTICS	56
ERASE	57
FACDFLT	57
FLEXQUERY	59
HELP	59
HWCC	60
HWID	60
HWPROD	60
HWREGION	60
HWVER	61
KILLTAG	62
LOCK	62
PING	63
PLATDFLT	63
PRESET	64
PRINT	64
PROTECT	64
READ	66
READGPI	72
REPEAT	72
RESET	73
SET	74
SWVER	75
TRIGGER	75
TRIGGERQUEUE	78
TRIGGERREADY	79
TRIGGERWAIT	80
VERSION	80
WRITE	81
WRITEGPO	85
BRI Extensions for NXP Tags	86
NXPALARM	86
NXPCONFIG	87
NXPEAS	87
NXPREADPROTECT	88
BRI Extensions for Fujitsu Tags	88
FJAREAREADLOCK	88
FJAREAWRITELOCK	88
FJAREAWRITELOCKWOPWD	89
FJBURSTERASE	89
FJBURSTWRITE	89
FJCHGAREAGROUPPWD	90
FJCHGBLOCKGROUPPWD	90
FJCHGBLOCKLOCK	91
FJCHGWORDLOCK	91
FJREADBLOCKLOCK	91
BRI Extensions for Impinj Monza 4 Tags	92
READ IMPINJQT	92
WRITE IMPINJQT	92
BRI Extensions for EM Microelectronics Tags	93
READ EMM_GETUID	93
READ EMM_GETSENSOR	93
WRITE EMM_SENDSPI	94
WRITE EMM_RESETALARMS	94
Generic Tag Access Command	94
ACCESSCMD	95
Understanding [READ FIELD] and [WRITE FIELD] Parameters	97
[READ FIELD] Examples	97
[WRITE FIELD] Examples	97
Understanding the <ATTRIBUTE NAME> Parameter	98
ANTENNAS or ANTS	98
ANTTIMEOUT	99
ANTTRIES	99
BAUD	99
BROADCASTSYNC	100
BTPWROFF	100
CHANNEL	100
CHKSUM	100
DENSEREADERMODE	101
ECHO	101
EPCC1G2PARAMETERS	101
FIELDSEP	101
FIELDSTRENGTH	102
IDREPORT	103
IDTIMEOUT	103
IDTRIES	104
INITIALQ	104
INITTRIES	104
LBTCHANNEL	104
LBTSCANENABLE	105
LOCKTRIES	105
NOTAGRPT	105
QUERYSEL	106
QUERYTARGET	106
RDTRIES	106
RPTTIMEOUT	107
SCHEDULEOPT	107
SELTRIES	108
SESSION	108
TAGTYPE	108
TIMEOUTMODE	109
TTY	109
UNSELTRIES	110
UTCTIME	110
XONXOFF	110
WRTRIES	111
Understanding the Timeouts and Tries	111
Setting IDTIMEOUT and ANTTIMEOUT	111
When IDTIMEOUT <= ANTTIMEOUT	111
When IDTIMEOUT > ANTTIMEOUT	112
Setting IDTRIES and ANTTRIES	112
When IDTRIES < ANTTRIES	112
When IDTRIES >= ANTTRIES	113
Setting INITTRIES	114
Understanding the [LITERAL] Parameter	115
Reading and Writing STRING Fields	115
Understanding ACCESS and KILL Passwords	116
Memory Bank 3 User Memory	117
Memory Bank 2 TID Memory	118
Memory Bank 1 EPCID Memory	119
Memory Bank 0 PASSWORD Memory	120
Understanding Error and Success Responses	121
Understanding EVENT Messages	122
Understanding the Format of BRI Command Responses	124
Creating and Using BRI Macros	125
Creating a Command Macro	126
Executing a Command Macro	126
Creating a Parameter Macro	126
Executing a Command With a Parameter Macro	127
Listing All Macros Stored in Memory	127
Displaying the Contents of a Macro	127
Deleting a Macro	127
Chapter 5 - Reader-Specific Platform Specifications	129
Reader-Specific Platform Specifications	130
ITRFxxx01 Readers	130
BRI Disabled by Default	130
Features Not Implemented	130
Buffer Sizes	130
Memory Management	131
Error Responses	131
Antennas	131
GPIO	131
Reader Attributes	131
BRI Commands	132
EVENT Responses	132
Phillips V1.19 TAG Type	132
Readers That Contain the IM5 Module	132
Buffer Sizes	132
Antennas	133
GPIO	133
Reader Attributes	133
FACDFLT Command	133
Readers That Contain the IM4 Module	133
WRITEGPI Command	133
READGPI Command	134
TRIGGER Command	134
Antennas	134
ANTENNA Data Type Definition	134
ANTENNAS or ANTS Attribute	135
Sensing an Over-Temperature Condition	135
Index	137
A	138
B	138
C	139
D	140
E	140
F	140
G	141
H	141
I	141
K	141
L	141
M	141
N	142
O	142
P	142
Q	142
R	142
S	143
T	143
U	143
V	143
W	143

Match case Limit results 1 per page

Chapter 4 — BRI Commands

Basic Reader Interface Programmer Reference Manual

BRI Extensions for Impinj Monza 4 Tags

This section lists BRI extensions that are specific Impinj Monza 4 tags. The Impinj

Monza 4 tags implement a 16-bit QT status field and a custom command to read

and write the QT field.

The most significant bit (QT_SR) controls the range of the response of a tag. When

set, the tag reduces the strength of its backscattered signal to reduce the range which

the tag can be read.

The second significant bit (QT_MEM) controls whether the tag presents the public

or private memory map to the reader. When set, the tag exposes its public memory

map.

For more information on the Impinj Monza 4 tags, see the product specification for

Impinj Monza 4 tags.

READ IMPINJQT

Purpose:

Use this command to read the QT status. The result is a 16-bit hexadecimal value

representing the QT status bits from the tag.

Syntax:

READ [flex_query_selector]IMPINJQT [TAGTYPE=<tagtype list>]

[WHERE <data condition>] [PASSWORD=<"access_password">]

Example:

In this example, the first tag has both the QT_SR and the QT_MEM bits cleared (set

for normal-range and private memory map). The second tag has both bits set (set for

short-range and public memory map).

READ IMPINJQT

H300833B2DDD901400000000000000000 H0000

H300833B2DDD901400000000000000001 HC000

WRITE IMPINJQT

Purpose:

Use this command to write to the QT status field.

Syntax:

WRITE [flex_query_selector]IMPINJQT=H<Data> {PERMANENT}

[TAGTYPE=<tagtype list>] [WHERE <data condition>]

[PASSWORD=<"access_password">]

<Data> = Contains a 16-bit value representing the contents of the QT status field to

be written. The most significant bit is the QT_SR which controls the short-range/

normal-range setting of the tag. The next most significant bit is the QT_MEM bit

which controls the public/private memory map setting of the tag.

Example:

Example 1:

WRITE IMPINJQT=H0000

H300833B2DDD901400000000000000000 WROK

Temporarily set the tag for normal range and private memory map.

Example 2:

WRITE IMPINJQT=HC000

H300833B2DDD901400000000000000000 WROK

Temporarily set the tag for short range and public memory map.