====== lamaPLC: Communication with Eastron Smart X96 ====== {{ :com:eastron_x96_5a.png?250|lamaPLC: Communication with Eastron Smart X96}} The Smart X96-5 is a high accuracy multifunction power meter that is a traditional wired 1/5A current transformer operated meter. Configurable for 1p2w, 3p3w and 3p4w systems and hosting a vast range of measuring parameters such as Amps, Volts, Power, Power and Current Demand (Sliding and fix scale options), Power Factor, imported and exported kWh, Individual harmonics, Phase sequence and a phase summary page. It is one of the most user-friendly multifunction power meters in the market form installation to end client use. It is typical in most installations that the current transformers are mounted on the left-hand side of the breaker so P1 is facing the correct way. However, it is also possible to mount the current transformer on the right-hand side with P2 facing the breaker. This is possible due to the meter having the option to reverse the flow to correct this type of application. The SMART X96-5 requires mains voltage inputs and external current transformers in order to operate, it is self-supplied via a internal three phase transformer, this means if any of the phases fail the meter will remain powered and does not require an external auxiliary supply. The Smart X96-5 meter comes complete with RS485 Modbus RTU and dual pulsed outputs as standard. * MID Certified to Class C (0.5%) accuracy * Designed and tested in the UK by an independent laboratory * 1/5A Current transformer operated * Individual harmonics up to 63rd level (Class 1) * Internal three phase power supply * Highly visible backlit display from all angles * Programmable reverse flow for right/left side of breaker CT installation. * Built in Modbus and Pulsed outputs ===== Modbus map ===== ^input register^Measurement^Variable^Unit^Note| |**1st Modbus read block**||||| |30000|Phase 1 line to neutral volts|Float|V|**1:** Basis 0, 0x00, 79 words| |30002|Phase 2 line to neutral volts|Float|V|0x02| |30004|Phase 3 line to neutral volts|Float|V|0x04| |30006|Phase 1 current|Float|A|0x06| |30008|Phase 2 current|Float|A|0x08| |30010|Phase 3 current|Float|A|0x0A| |30012|Phase 1 active power|Float|W|0x0C| |30014|Phase 2 active power|Float|W|0x0E| |30016|Phase 3 active power|Float|W|0x10| |30018|Phase 1 apparent power|Float|VA|0x12| |30020|Phase 2 apparent power|Float|VA|0x14| |30022|Phase 3 apparent power|Float|VA|0x16| |30024|Phase 1 reactive power|Float|VAr|0x18| |30026|Phase 2 reactive power|Float|VAr|0x1A| |30028|Phase 3 reactive power|Float|VAr|0x1C| |30030|Phase 1 power factor|Float|None|0x1E \\ Positive: forward current, \\ negative: reverse current| |30032|Phase 2 power factor|Float|None|0x20 \\ Positive: forward current, \\ negative: reverse current| |30034|Phase 3 power factor|Float|None|0x22 \\ Positive: forward current, \\ negative: reverse current| |30036|Phase 1 phase angle|Float|°|0x24| |30038|Phase 2 phase angle|Float|°|0x26| |30040|Phase 3 phase angle|Float|°|0x28| |30042|Average line to neutral volts|Float|V|0x2A| |30046|Average line current|Float|A|0x2E| |30048|Sum of line currents|Float|A|0x30| |30052|Total system power|Float|W|0x34| |30056|Total system volt amps|Float|VA|0x38| |30060|Total system V Ar|Float|VAr|0x3C| |30062|Total system power factor|Float|None|0x3E \\ Positive: forward current, \\ negative: reverse current| |30066|Total system phase angle|Float|Degrees|0x42| |30070|Frequency of supply voltages|Float|Hz|0x46| |30072|Import Wh since last reset|Float|kWh|0x48| |30074|Export Wh since last reset|Float|kWh|0x4A| |30076|Import V Arh since last reset|Float|kVArh|0x4C| |30078|Export V Arh since last reset|Float|kVArh|0x4E| |**2nd Modbus read block**||||| |30080|VAh since last reset|Float|kVAh|Basis 0x50 (80), 31 words| |30082|Ah since last reset|Float|Ah|0x02| |30084|Total system power demand|Float|W|0x04 \\ The power sum demand calculation is for import - export| |30086|Maximum total system power demand|Float|W|0x06 \\ The power sum demand calculation is for import - export| |30088|Import active power demand|Float|W|0x08| |30090|Import active power max. demand|Float|W|0x0A| |30092|Export active power demand|Float|W|0x0C| |30094|Export active power max. demand|Float|W|0x0E| |30100|Total system VA demand|Float|VA|0x14| |30102|Maximum total system VA demand|Float|VA|0x16| |30104|Neutral current demand|Float|A|0x18| |30106|Maximum neutral current demand|Float|A|0x1A| |30108|Total system reactive power demand|Float|VAr|0x1C \\ The power sum demand calculation is for import - export| |30110|Maximum total system reactive power demand|Float|VAr|0x1E| |30160|Voltage phase sequence (normal= 1, reverse=2)|Float|None|| |30162|Current phase sequence (normal= 1, reverse=2)|Float|None|| |30192|Nature of the load (Resistive= 1, inductive= 2, capacitive= 3)|Float|None|| |30194|Nature of L1 load (Resistive= 1, inductive= 2, capacitive= 3)|Float|None|| |30196|Nature of L2 load (Resistive= 1, inductive= 2, capacitive= 3)|Float|None|| |30198|Nature of L3 load (Resistive= 1, inductive= 2, capacitive= 3)|Float|None|| |30200|Line 1 to Line 2 volts|Float|V|| |30202|Line 2 to Line 3 volts|Float|V|| |30204|Line 3 to Line 1 volts|Float|V|| |30206|Average line to line volts|Float|V|| |30224|Neutral current|Float|A|| |30234|Phase 1 LIN volts THD|Float|%|| |30236|Phase 2 LIN volts THD|Float|%|| |30238|Phase 3 LIN volts THD|Float|%|| |30240|Phase 1 Current THD|Float|%|| |30242|Phase 2 Current THD|Float|%|| |30244|Phase 3 Current THD|Float|%|| |30248|Average line to neutral volts THD|Float|%|| |30250|Average line current THD|Float|%|| |30258|Phase 1 current demand|Float|A|| |30260|Phase 2 current demand|Float|A|| |30262|Phase 3 current demand|Float|A|| |30264|Maximum phase 1 current demand|Float|A|| |30266|Maximum phase 2 current demand|Float|A|| |30268|Maximum phase 3 current demand|Float|A|| |30334|Line 1 to line 2 volts THD|Float|%|| |30336|Line 2 to line 3 volts THD|Float|%|| |30338|Line 3 to line 1 volts THD|Float|%|| |30340|Average line to line volts THD|Float|%|| |30342|Total kwh|Float|kWh|Total kWh/ kVarh equals to Import+ export| |30344|Total kvarh|Float|kVArh|Total kWh/ kVarh equals to Import+ export| |30346|L1 import kwh|Float|kWh|| |30348|L2 import kwh|Float|kWh|| |30350|L3 import kWh|Float|kWh|| |30352|L1 export kWh|Float|kWh|| |30354|L2 export kwh|Float|kWh|| |30356|L3 export kWh|Float|kWh|| |30358|L1 total kwh|Float|kWh|| |30360|L2 total kWh|Float|kWh|| |30362|L3 total kwh|Float|kWh|| |30364|L1 import kvarh|Float|kVArh|| |30366|L2 import kvarh|Float|kVArh|| |30368|L3 import kvarh|Float|kVArh|| |30370|L1 export kvarh|Float|kVArh|| |30372|L2 export kvarh|Float|kVArh|| |30374|L3 export kvarh|Float|kVArh|| |30376|L1 total kvarh|Float|kVArh|| |30378|L2 total kvarh|Float|kVArh|| |30380|L3 total kvarh|Float|kVArh|| |30402|Voltage 2st- 63st Harmonic L1|62*Float|%|| |30526|Voltage 2st- 63st Harmonic L2|62*Float|%|| |30650|Voltage 2st- 63st Harmonic L3|62*Float|%|| |30774|Current 2st- 63st Harmonic L1|62*Float|%|| |30898|Current 2st- 63st Harmonic L2|62*Float|%|| |31022|Current 2st- 63st Harmonic L3|62*Float|%|| |31146|Voltage Total Harmonic L1|Float|%|| |31148|Voltage Total Harmonic L2|Float|%|| |31150|Voltage Total Harmonic L3|Float|%|| |31152|Current Total Harmonic L1|Float|%|| |31154|Current Total Harmonic L2|Float|%|| |31156|Current Total Harmonic L3|Float|%||