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  3. Multiser 04 PC TFT

Kael Multiser 04 PC TFT Modbus register map

Also covers Multiser-04-PC-TFT

Kael Multiser TFT network analyzer with RS-485 (Modbus RTU)

  • Official
  • 2,479 registers
  • Modbus RTU
  • Revision 3 · 2026-10-17

Official: Written from the manufacturer's documentation, but not tested on a device yet. Check the map against the manufacturer's documentation before you write to a live device. Tested it? Report a test.

Communication

Protocol
Modbus RTU
Unit ID
1default
Serial
9600 8E1 · 9600 baud, 8 data bits, even parity, 1 stop bit defaults
Byte / word order
ABCD · bytes big-endian, words high first
Addresses
0-based

Connection values are defaults: the device may be configured differently.

Map

Registers
2479 holding registers
Groups
12
Revision
3 · 2026-10-17
Added
()
File
maps/kael/multiser-04-pc-tft.mbmap.json · 499 KB · history
SHA-256
6f21083b02d743dd871bd9c89cc2776c67f7f35b5674fa7d989489a6495f49ea
Manufacturer
kael.com.tr

Sources and notes

Source: Kael Elektronik, "Multiser-04-PC-TFT Hafıza Tablosu" (Modbus register table), program version V2.04

  • All registers are holding registers, one Modbus address per value. 8-bit values (U8 in the table) occupy a whole register.
  • Most measurements are scaled integers or floats that must also be multiplied by the transformer ratios in the same block: CTRF (current transformer ratio) and VTRFwM (voltage transformer ratio with multiplier, in tenths). The description of each register gives the multiplier printed in the table; the scale is the table's divisor.
  • The Real Time Date registers pack two bytes each: year (from 2000) and month, day and hour, minute and second, high byte first.
  • Energy in watt/second, var/second and VA/second is split into three 16-bit words (EH, H, L, most significant first).
  • The table does not give the word order of 32- and 64-bit values; big-endian is assumed.
  • The special commands at 0xFFFC-0xFFFF are executed by writing 0x55AA.
  • Not in this map: the scope signal buffers and the microSD remote file access area.
AreaAddressNameTypeAccessUnitScaleDescription
HR 0 uint16 R
HR 1 uint16 R
HR 2 uint32 ABCD R
HR 4 uint16 R
HR 5 uint16 R
HR 6 uint16 RW
HR 7 uint16 RW
HR 8 uint16 R
HR 65530 uint16 RW Write 0x55AA
HR 65531 uint16 RW Write 0x55AA
HR 65532 uint16 RW Write 0x55AA
HR 65533 uint16 RW Write 0x55AA
HR 65534 uint16 RW Write 0x55AA
HR 65535 uint16 RW Write 0x55AA
HR 4092 uint16 R
HR 4093 uint16 R
HR 4094 uint16 R
HR 4095 uint16 RW ×0.1
HR 4096 uint16 RW
HR 4097 uint16 R bit0=0 P1 export(-active), 1 import(+active); bit1=0 P2 export(-active), 1 import(+active); bit2=0 P3 export(-active), 1 import(+active); bit3=0 SUM-P export(-active), 1 import(+active); bit4=0 Q1 LE(-reactive), 1 LA (+reactive); bit5=0 Q2 LE(-reactive), 1 LA (+reactive); bit6=0 Q3 LE(-reactive), 1 LA (+reactive); bit7=0 SUM-Q LE(-reactive), 1 LA (+reactive)
HR 4098 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4099 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4100 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4101 uint16 R A ×0.001 Multiply by CTRF
HR 4102 uint16 R A ×0.001 Multiply by CTRF
HR 4103 uint16 R A ×0.001 Multiply by CTRF
HR 4104 int16 R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4105 int16 R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4106 int16 R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4107 int16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4108 int16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4109 int16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4110 uint16 R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4111 uint16 R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4112 uint16 R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4113 int16 R ×0.001
HR 4114 int16 R ×0.001
HR 4115 int16 R ×0.001
HR 4116 int16 R ×0.001
HR 4117 int16 R ×0.001
HR 4118 int16 R ×0.001
HR 4119 int16 R ×0.001
HR 4120 int16 R ×0.001
HR 4121 int16 R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4122 uint16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4123 uint16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4124 int16 R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4125 uint16 R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4126 uint16 R Hz ×0.1
HR 4127 uint16 R
HR 4133 uint16 R bit0=1 Current1 exist; bit1=1 Current2 exist; bit2=1 Current3 exist; bit3=1 Voltage1 exist; bit4=1 Voltage2 exist; bit5=1 Voltage3 exist; bit6=1 Missing Phase Occured; bit7=1 Phase Sequence Error; bit8=1 Phase 1-2 short circuit; bit9=1 Phase 2-3 short circuit; bit10=1 Phase 3-1 short circuit; bit11=1 Phase – Notr connection Error
HR 4134 uint16 R
HR 4135 uint16 R
HR 4136 uint16 R
HR 4137 uint16 R
HR 4138 uint16 R
HR 4139 uint16 R
HR 4140 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4141 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4142 uint16 R V ×0.1 Multiply by (VTRFwM)/10
HR 4143 uint16 R A ×0.001 Multiply by CTRF
HR 4144 uint16 R A ×0.001 Multiply by CTRF
HR 4145 uint16 R A ×0.001 Multiply by CTRF
HR 4146 uint16 R A ×0.001 Multiply by CTRF
HR 4147 int16 R
HR 4148 int16 R
HR 4348 uint16 R
HR 4349 uint16 R
HR 4350 uint16 R
HR 4351 uint16 RW ×0.1
HR 4352 uint16 RW
HR 4353 uint16 R bit0=0 P1 export(-active), 1 import(+active); bit1=0 P2 export(-active), 1 import(+active); bit2=0 P3 export(-active), 1 import(+active); bit3=0 SUM-P export(-active), 1 import(+active); bit4=0 Q1 LE(-reactive), 1 LA (+reactive); bit5=0 Q2 LE(-reactive), 1 LA (+reactive); bit6=0 Q3 LE(-reactive), 1 LA (+reactive); bit7=0 SUM-Q LE(-reactive), 1 LA (+reactive)
HR 4354 float32 ABCD R V Multiply by (VTRFwM)/10
HR 4356 float32 ABCD R V Multiply by (VTRFwM)/10
HR 4358 float32 ABCD R V Multiply by (VTRFwM)/10
HR 4360 float32 ABCD R A Multiply by CTRF
HR 4362 float32 ABCD R A Multiply by CTRF
HR 4364 float32 ABCD R A Multiply by CTRF
HR 4366 float32 ABCD R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4368 float32 ABCD R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4370 float32 ABCD R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4372 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4374 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4376 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4378 float32 ABCD R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4380 float32 ABCD R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4382 float32 ABCD R VA Multiply by ((CTRF)*(VTRFwM))/10
HR 4384 float32 ABCD R
HR 4386 float32 ABCD R
HR 4388 float32 ABCD R
HR 4390 float32 ABCD R
HR 4392 float32 ABCD R
HR 4394 float32 ABCD R
HR 4396 float32 ABCD R
HR 4398 float32 ABCD R
HR 4400 float32 ABCD R W Multiply by ((CTRF)*(VTRFwM))/10
HR 4402 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4404 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4406 float32 ABCD R var Multiply by ((CTRF)*(VTRFwM))/10
HR 4408 float32 ABCD R VA Multiply by ((CTRF)*(VTRFwM))/10

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