Janitza UMG 96 RM-E Power Analyser User Manual
- June 3, 2024
- janitza
Table of Contents
UMG 96 RM-E Power Analyser
www.janitza.com
Item no. 33.03.207
Power Analyser
UMG 96 RM-E
Residual current monitoring (RCM)
User manual and technical data
10/2021
Doc. no. 1.040.129.0.q
Janitza electronics GmbH Vor dem Polstück 6 D-35633 Lahnau Support tel. +49 6441 9642-22 E-mail: [email protected] www.janitza.com
Power Analyser
UMG 96RM-E
Content
General
4
Inspection on receipt
8
Available accessories
9
Product description
10
Proper use
10
Performance characteristics UMG 96RM-E 12
Measuring process
13
Operating concept
13
GridVis network analysis software
13
Connection variants
14
Mounting
15
Installation
17
Power supply
17
Measuring voltage
18
Current measurement via I1 to I4
24
Residual current measurement (RCM)
33
Temperature measurement input
37
RS485 interface
38
Ethernet interface
41
Digital in-/outputs
42
LED status bar
47
Operation
48
Display mode
48
Programming mode
48
Parameters and measured values
50
Configuration
52
Connecting the supply voltage
52
Current and voltage transformers
52
Programming the current transformer for I1 to I354
Programming the voltage transformer
55
Programming parameters
56
TCP/IP configuration
57
RS485 device address (Addr. 000)
60
RS485 baud rate (Addr. 001)
60
MODBUS gateway (Addr. 002)
61
User password (Addr. 050)
61
Parameter
62
Mean value
62
Averaging method
62
Min. and max. values
62
Mains frequency (Addr. 034)
63
Energy meter
64
Reset energy meter (Addr. 507)
64
Harmonics
65
Measured value rotation
66
Measured value indocations
66
Phase sequence
68
LCD contrast (Addr. 035)
68
Backlight
68
Time recording
69
Operating hours meter
70
2
UMG 96RM-E
Serial number (Addr. 754) “Drag indicator” Recordings Putting into service Connecting the supply voltage Applying the measuring-circuit voltage Applying the measuring-circuit current Phase sequence Check phase assignment Checking the energy measurement Applying the residual current Failure monitoring (RCM) for I5, I6 Checking the measurement Checking the individual outputs Checking the total power outputs RS485 interface Digital outputs Impulse output Device homepage Measured values RCM – residual current monitoring Display Apps Device information Downloads Error correction
70
Service and maintenance
71
Service
72
Device calibration
73
Calibration intervals
73
Firmware update
73
Battery
73
Battery monitoring function
74
Replacing the battery
74
Error/warning messages
74
Technical data
74
Function parameters
75
Table 1 Parameter list
77
Table 2 – Modbus address list
77
Number formats
77
Dimension diagrams
78
Measured value displays overview
80
Connection example 1
82
Connection example 2
88
Basic functions quick guide
89
TCP/IP addressing quick guide
89
89
90
90
91
91
92 92 92 92 93 93 94 95 96 102 110 112 116 119 120 122 128 129 130 131
3
UMG 96RM-E
General
Comments on the operating manual
Copyright
This operating manual is subject to the legal requirements for copyright
protection and may not be, either in whole or in part, photocopied, reprinted,
or reproduced by mechanical or electronic means, or in any other manner be
duplicated or redistributed without the legally binding, written agreement of
We welcome your comments. In the event that anything in this operating manual seems unclear, please let us know and send us an EMAIL to: [email protected]
Janitza electronics GmbH, Vor dem Polstück 1, D 35633 Lahnau, Germany.
Trademarks
All trademarks and their resulting rights belong to the respective holders of these rights.
Disclaimer
Janitza electronics GmbH takes no responsibility for errors or defects within this operating manual and takes no responsibility for keeping the contents of this operating manual up to date.
4
Meaning of the symbols
The following pictograms are used in the operating manual at hand:
c m
Dangerous voltage! Danger to life or risk of serious injury. Disconnect system
and device from power supply before beginning work.
Caution! Please follow the documentation. This symbol warns of possible
dangers that can arise during installation, commissioning and use.
C Note!
UMG 96RM-E
5
UMG 96RM-E
Instructions for use
Please read the operating manual at hand as well as all other publications
that must be drawn from for working with this product (in particular for the
installation, operation or maintenance).
Follow all safety regulations and warning information. If you do not follow
the information, it can result in bodily injury and/or damage to the product.
Any unauthorized changes or use of this device, which transcend the
mechanical, electrical or otherwise stated operating limitations, can result
in bodily injury or/and damage to the product.
Specialized personnel are persons, that based on their respective training and
experience, are qualified to recognize risks and prevent potential dangers
that can be caused by the operation or maintenance of the device.
Additional legal and safety regulations required for the respective
application are to be following during the use of the device.
Any of such unauthorized changes constitute “misuse” and/or “negligence” in terms of the warranty for the product and therefore eliminates the warranty for covering any potential damage resulting from this.
This device is to be operated and maintained exclusively by specialized personnel.
6
UMG 96RM-E
c
m m
If the device is not operated according to the operating manual, protection is
no longer ensured and danger can come from the device.
Conductors made from single wires must be fitted with wire-end ferrules.
Only pluggable screw terminals with the same number of poles and the same type
of construction are permitted to be connected together.
m
Disregarding the connection conditions of the Janitza measurement devices or
their components can lead to injuries and even death or to material damage! ·
Do not use Janitza measurement devices
or components for critical switching, control or protection applications where
the safety of persons and property depends on this function. · Do not carry
out switching operations with the Janitza measurement devices or components
without prior inspection by your plant manager with specialist knowledge! In
particular, the safety of persons, material assets and the applicable
standards must be taken into account!
7
UMG 96RM-E
Concerning these operating instructions
Inspection on receipt
These operating instructions are a part of the product. · Read the operating
instructions before using
the device. · Keep the operating instructions throughout the entire
service life of the product and have them readily available for reference. ·
Pass the operating instructions on to each subsequent owner or user of the
product.
The prerequisites of faultless, safe operation of this device are proper transport and proper storage, setup and assembly, as well as careful operation and maintenance. If it can be assumed that risk-free operation is no longer possible, the unit must be immediately put out of operation and secured against being put back into operation again. The packing and unpacking must be carried out with the customary care without the use of force and only using suitable tools. The devices should be visually checked for flawless mechanical condition. It can be assumed that risk-free operation is no longer possible if the device, for example,
· has visible damage · no longer works despite the mains power supply
being intact · has been exposed to long-term adverse conditions
(e.g. storage outside the permissible climate limits without being adapted to
the room climate, condensation etc.) or rough handling during transportation
(e.g. fall from a height, even if there is no visible external damage etc.) ·
Please check the delivered items for completeness before you start installing
the device.
8
Available accessories
Number 2 1 1 1 1 1 1 1 1 1 1 1 1 1
Part no. 52.22.251 10.01.855 10.01.849 10.01.871 10.01.875 10.01.865 10.01.857 10.01.859 08.01.505 52.00.008 21.01.058 29.01.065 15.06.015 15.06.025
UMG 96RM-E
Description Mounting clips Screw-type terminal, pluggable, 2-pole (auxiliary
power) Screw-type terminal, pluggable, 4-pole (voltage measurement) Screw-type
terminal, pluggable, 6-pole (current measurement I1-I3) Screw-type terminal,
pluggable, 2-pole (current measurement I4) Screw-type terminal, pluggable,
10-pole (digital/analogue inputs/outputs) Screw-type terminal, pluggable,
2-pole (RS 485) Screw-type terminal, pluggable, 3-pole (Digital/impulse
output) Patch cable 2m, coiled, grey (connection UMG 96RM-PC/Switch) RS485,
external terminating resistor, 120 ohm Lithium battery CR2032, 3V (approval
i.a.w. UL 1642) Silicone seal, 96 x 96 Interface converter RS485 <-> RS232
Interface converter RS485 <-> USB
9
UMG 96RM-E
Product description
Proper use The UMG 96RM-E is intended for the measurement and calculation of
electrical parameters such as voltage, current, power, energy, harmonics etc.
in building installations, on distribution units, circuit breakers and busbar
trunking systems. The UMG 96RM-E is suitable for integration into fixed and
weatherproof switch panels. Conductive switch panels must be earthed.
Measured voltage and measured current must derive from the same network. The
measurement results can be displayed and can be read out and further processed
via the RS485 interface.
By continuously monitoring the residual currents (RCM) of an electrical system
via the inputs I5 and I6, warning pulses can be triggered if a response
threshold is exceeded. Using these, the system operator can be alarmed before
a protective equipment reacts. The UMG 96RM-E does not provide protection
against and electric shock!
The residual current measuring is done via the current measurement inputs I5
and I6 via an external residual current transformer with a rated current of 30
mA.
Measurements in medium and high-voltage networks is always done via current
and voltage transformers.
The voltage measurement inputs are designed for measurements in low voltage
networks, in which rated voltages of up to 300V relative to earth and surges
in overvoltage category III can occur.
The current measurement inputs I1I4 of the UMG 96RME are connected via
external ../1A or ../5A current transformers.
m
The residual current measuring monitors residual currents via external current transformers and can trigger a warning impule when a response threshold is exceeded. Thus, the device is NOT an independent protective device!
10
UMG 96RM-E
For Janitza measurement devices and components, use only current transformers
intended for measuring purposes (“transformers”)!
“Transformers”, unlike “protection transformers”, go into saturation at high
current peaks. “Protection transformers” do not have this saturation behavior
and can therefore significantly exceed the rated values in the secondary
circuit. This can overload the current measurement inputs of the measurement
devices!
Furthermore, please note that Janitza measurement devices and components are
not to be used for critical switching, control or protection applications
(protective relays)! Observe the safety and warning information in the
“Installation” and “Product safety” chapters!
The UMG 96RM-E can be used in industrial and domestic settings.
Device characteristics
· Supply voltage:
Option 230V: 90V – 277V (50/60Hz) or
DC 90V – 250V; 300V CATIII
Option 24V:
24 – 90V AC / DC; 150V CATIII
· Frequency range: 45 – 65Hz
Device functions · 3 voltage measurements, 300V · 4 current measurements
(via current transformers ../5A or ../1A) · 2 residual current measurements
(via residual current transformers ../30mA) or optionally 2 temperature
measurements · RS485 interface, Ethernet · 2 digital outputs and additional 3
digital inputs/outputs · Clock and memory function
11
UMG 96RM-E
Performance characteristics UMG 96RM-E
General · Front panel integration device with dimensions
96×96 mm. · Connection via pluggable screw terminals · LCD display with
backlighting · Operation via 2 buttons · 3 voltage and 4 current measurement
inputs · Optional 2 residual current or
temperature measurement inputs · 2 digital outputs and 3 digital
inputs/outputs · RS485 interface
(Modbus RTU, slave, up to 115 kbps) · Ethernet (web server) · 256 MB flash
memory
(200 MB available for records) · Clock and bettery (with battery monitoring
function) · Working temperature range -10°C .. +55°C
Uncertainty in measurement · Active energy uncertainty in measurement class
0.5 for ../5A transformer · Active energy uncertainty in measurement class 1
for ../1A transformer · Reactive energy, class 2
Measurement · Measurement in IT, TN and TT networks · Measurement in networks
with nominal voltage
up to L-L 480V and L-N 277V · Measuring range current 0 to 5A eff. · True RMS
(TRMS) · Continuous sampling of the voltage and current
measurement inputs · Continuous monitoring of residual currents with
failure monitoring · Temperature measurement · Frequency range of the
fundamental oscillation
45Hz .. 65Hz · Measurements of the harmonic components 1st
to 40th for ULN and I · Uln, I, P (reference/del.), Q (ind./cap.) · Collection
of well over 1000 measured values · Fourier analyses 1st to 40th harmonic
component
for U and I · 7 energy counters for
active energy (reference), active energy (supply), active energy (without
return barrier), reactive energy (ind.), reactive energy (cap.), reactive
energy (without return barrier), apparent energy, each for L1, L2, L3 and
total
12
UMG 96RM-E
Measuring process
GridVis network analysis software
The UMG 96RM-E measures continuously and calculates all effective values over a 10/12 period interval. The UMG 96RM-E measures the real effective value (TRMS) of the voltage and current connected to the measurement inputs.
The UMG 96RM-E can be programmed and read out using the GridVis network analysis software (Download: www.janitza.com). For this a PC must be connected to the UMG 96RM-E via a serial interface (RS485) or via Ethernet.
Operating concept
GridVis features
You can program and call up the measured values via · Programming the UMG 96RM-E
many routes using the UMG 96RM-E.
· Graphical representation of measured values
· Directly on the device via 2 buttons. · Using the GridVis programming
software. · Through the device’s home page. · Using the Modbus protocol.
You can modify and call up the data using the Modbus address list. The list
can be called up via the device’s home page and can be found on the enclosed
CD.
This manual only describes how to operate the UMG 96RM-E using the two buttons. The GridVis programming software has its own online help system.
13
UMG 96RM-E
Connection variants
Connection of a UMG 96RM-E to a PC via a interface Direct connection of a UMG 96RM-E to a PC via
converter:
Ethernet.
UMG 96RM-E
(g(TewdrisethetdespaPtacthchckaabble)l)
UMG 96RM-E
UMG 96RM-E
Connection of a UMG 96RM via a UMG 96RM-E Connecting a UMG 96RM-E to a PC via Ethernet. as a gateway.
UMG 96RM-E
UMG 96RM
UMG 96RM-E
UMG 96RM
Switch
14
Mounting
Position of installation
The UMG 96RM-E is suitable for integration into fixed and weatherproof switch
panels. Conductive switch panels must be earthed.
Mounting position
To ensure adequate ventilation, the UMG 96RM-E must be installed vertically.
There should be separation above and below of at least 50mm with 20mm space to
the sides.
Front panel section
Cut-out size: 92+0.8 x 92+0.8 mm.
UMG 96RM-E
Fig. mounting position UMG 96RM-E (View from rear)
m
Failure to meet the minimum clearances can destroy the UMG 96RM-E at high ambient temperatures!
15
UMG 96RM-E
Mounting
The UMG 96RM-E is fixed using the mounting clips found on the side of the
switch panel. Before inserting the device, they should be moved out of the way
in a horizontal lever using a screwdriver, for example.
Fig. side view UMG 96RM-E with mounting clips. Loosening the clips is done
using a screwdriver and a horizontal lever effect.
The fastening is then done when the device is pushed in an the clamps lock in
place when the screws are tightened.
· Please tight the fixing screws until they contact the mounting plate easily.
· Tighten with two further turns, the clamping screws (are the screws
tightened too much, the mounting bracket will be destroyed)
Mounting plate
Fixing screw
Mounting clips
Screwdriver
Contacting of the fixing screws to the mounting plate: Tighten with maximum
two further turns for the installation
16
UMG 96RM-E
Installation
Power supply
L
The 96RM-E needs a supply voltage to operate.
N
The supply voltage is connected on the rear of the device
via terminal blocks.
Fuse
Before connecting the supply voltage, ensure that the voltage and frequency correspond to the details on the ratings plate!
m
· The supply voltage must be connected through a fuse according to the
technical data.
· If installed in a building, a disconnector or circuit-breaker must be
provided for the supply voltage.
· The disconnector must be installed near the device and easily accessible to
the user.
· The switch must be marked as the circuit breaker for this device.
· Voltages which are over the permitted voltage range can destroy the device.
Circuit breaker
Fig. connection example of the supply voltage to a UMG 96RM
17
UMG 96RM-E
Measuring voltage
You can use the UMG 96RM-E to measure voltage in TN-, TT-, and IT systems. The voltage measurement in the UMG 96RM-E is designed for the overvoltage category 300V CAT III (rated impulse voltage 4 kV).
In systems without N, the measurements which require an N are to a calculated N.
4M 4M 4M 4M 4M 4M 4M 4M
L1 277V/480V 50/60Hz L2 L3 N PE
L1
240V 50/60Hz N
V1 V2 V3 VN
AC/DC
DC
Measuring voltage
UMG 96RM
Auxiliary energy
L1
L2
480V 50/60Hz
L3
Impedance
V1 V2 V3 VN
AC/DC
System earthing
DC
Measuring voltage
UMG 96RM
Auxiliary power
Fig. schematic diagram – measurements in three-phase 4-wire systems.
18
Fig. schematic diagram – measurements in three-phase 3-wire systems.
UMG 96RM-E
Network nominal voltage
Lists of networks and their nominal network voltages in which the UMG 96RM-E
can be used.
Three-phase, 4-wire systems with earthed neutral Three-phase, 3-wire systems, unearthed. conductor.
UL-N / UL-L
66V / 115V 120V / 208V 127V / 220V 220V / 380V 230V / 400V 240V / 415V 260V /
440V 277V / 480V
Maximum system nominal voltage
Fig. table for network nominal voltages i.a.w. EN60664-1:2003 suitable for the voltage measurement inputs.
UL-L
66V 120V 127V 220V 230V 240V 260V 277V 347V 380V 400V 415V 440V 480V
Maximum system nominal voltage
Fig. table for network nominal voltages i.a.w. EN60664-1:2003 suitable for the
voltage measurement inputs.
19
UMG 96RM-E
Voltage measurement inputs
The UMG 96RM-E has three voltage measurement inputs (V1, V2, V3).
Surge voltage The voltage measurement inputs are suitable for use in networks
where overvoltages of overvoltage category 300V CATIII (rated impulse voltage
4kV) can occur.
Frequency For the measurement and calculation of measured values, the UMG
96RM-E needs the network frequency. The UMG 96RM-E is suitable for
measurements on systems in a frequency range from 45 to 65Hz.
L1 L2 L3 N
Fuse Circuit breaker
Fig. Example connection for measuring voltage 20
UMG 96RM-E
When connecting the voltage to be measured, the following must be observed:
Isolation device · A suitable circuit breaker must be fitted to disconnect
and de-energise the UMG 96RM-E. · The circuit breaker must be placed in the
vicinity of
the UMG 96RM-E, be marked for the user and easily accessible. · The circuit
breaker must be UL/IEC certified.
c c
Overcurrent protection device · An overcurrent protection device must be used
for
line protection. · For line protection, we recommend an overcurrent
protection device as per the technical specifications. · The overcurrent
protection device must be suitable
for the line cross section used. · The overcurrent protection device must be
UL/IEC
certified. · A circuit breaker can be used as an isolating and line
protection device. The circuit breaker must be UL/IEC certified. · Measured
voltages and measured currents must derive from the same network.
c
Caution! Voltages which exceed the permitted networkrated voltage must be
connected via a voltage transformer.
Caution! The UMG 96RM-E is not suitable for measuring DC voltages.
Caution! The voltage measurement inputs on the UMG 96RM-E are dangerous if
touched!
21
UMG 96RM-E
Wiring diagrams, voltage measurement · 3p 4w (Addr. 509= 0), factory setting
L1 L2 L3 N
V1 V2 V3 VN Fig. System with three line conductors and neutral conductor.
· 3p 4u (Addr. 509 = 2)
L1 L2 L3
V1 V2 V3 VN Fig. System with three line conductors without neutral conductor.
Measurements which require a N are based on a calculated N.
22
· 3p 4wu (Addr. 509 = 1)
L1 L2 L3 N
V1 V2 V3 VN
Fig. System with three line conductors and neutral conductor. Measurement
using a voltage transformer.
· 3p 2u (Addr. 509 = 5)
L1 L2 L3
V1 V2 V3 VN
Fig. System with three line conductors without neutral conductor. Measurement
using a voltage transformer. Measurements which require a N are based on a
calculated N.
· 1p 2w1 (Addr. 509 = 4)
L1
N
V1 V2 V3 VN Fig. The values obtained from the voltage measurement inputs V2
and V3 are taken to be null and not calculated.
· 1p 2w (Addr. 509 = 6)
L1 L2
V1 V2 V3 VN Fig. TN-C system with single-phase three-wire connection. The null
is taken from the voltage measurement input V3’s measured value and not
calculated.
· 2p 4w (Addr. 509 = 3)
L1 L2 L3 N
UMG 96RM-E
V1 V2 V3 VN
Fig. System with uniform phase loading. The measured values for the voltage
measurement input V2 are calculated.
· 3p 1w (Addr. 509 = 7)
L1 L2 L3 L1 L2 L3 L1 L2 L3 N
V1 V2 V3 VN
Fig. 3 systems with uniform phase loading. The not connected measured values
L2/L3, L1/ L3, and L1/L2 of each system are calculated.
23
UMG 96RM-E
Current measurement via I1 to I4
The UMG 96 RM-E is designed to have current transformers with secondary currents from ../1A and ../5A attached cia terminals I1-I4. The factory default for the current transformer ratio is 5/5A and must be adapted to the current transformer employed if necessary. Direct measurement without a current transformer is not possible using the UMG 96RM-E. Only AC currents can be measured – DC currents cannot.
Via the current measurement input I4 only an apparent
current measurement is carried out thanks to the lack of a multiplier. Power measurements are therefore not
Load
L1
possible using the I4 input.
L2
L3
c
Caution! The test leads must be designed for an
Fig. Current measurement (I1-I3) via current
N
operating temperature of at least 80°C.
transformers (connection example)
c
24
Caution! The current measurement inputs are dangerous to touch.
m
The attached screw terminal has to be fixed sufficiently with two screws on the device!
c
Earthing of current transformers! If a connection is provided for the earthing of secondary windings then this must be connected to the earth.
m
Caution! The UMG 96RM-E is not suitable for measuring DC voltages.
C
It is not necessary to configure a connection schematic for the I4 measurement input.
L1
L2
L3
N
UMG 96RM-E
Load
Fig. Current measurement (I4) via current transformer (connection example)
25
UMG 96RM-E
Current direction
The current direction can be individually corrected via the existing serial interface or on the device for each phase. If incorrectly connected, a subsequent re-connection of the current transformer is not required.
c
When residual current measurements (RCM) are being carried out, there is no direction sensitive difference in the residual currents on the network or load side (not directionally sensitive).
c
Caution! A residual current measurement is done using the terminals I5 and I6
(see page 30). There is no directional sensitivity of the residual currents on
the network or load sides (not directionally sensitive).
Earthing of current transformers! If a connection is provided for the earthing
of secondary windings then this must be connected to the earth.
c
26
Current transformer connections! The secondary connection of the current transformer must be short-circuited on this before the current feed to the UMG 96RME is disconnected! If a test switch, which automatically shortcircuits the secondary wires of the current transformer, is available then it is sufficient to set this to the “Test” position insofar as the short-circuiting device has been checked beforehand.
c
Open-circuit current transformers! High voltage spikes that are dangerous to touch can occur on current transformers that are driven with open-circuit secondary windings! With “safe open-circuit current transformers” the winding insulation is rated such that the current transformer can be driven open. However, even these current transformers are dangerous to touch when they are driven open-circuit.
UMG 96RM-E
c
Caution! The UMG96RM is only approved for a current measurement using the current transformer.
c
Disregard of the connection conditions of the transformers to Janitza
measurement devices or their components can lead to injuries or even death or
to material damage! · Do not use Janitza measurement devices
or components for critical switching, control or protection applications
(protective relays)! It is not permitted to use measured values or measurement
device outputs for critical applications! · For Janitza measurement devices
and their components use only “Transformers for measurement purposes” which
are suitable for the energy monitoring of your system. Do not use
“Transformers for protection purposes”! · Observe the information, regulations
and limit values in the usage information on “Transformers for measuring
purposes”, specifically during testing and commissioning of the Janitza
measurement device, the Janitza component and your system.
27
UMG 96RM-E
Wiring diagrams, current measurement (I1-I3) · 3p 4w (Addr. 510= 0), factory
setting
L1 L2 L3 N
I1 I2 I3 Fig. Measurement in a three-phase network with non-uniform load.
· 3p 2i0 (Addr. 510 = 2)
L1 L2 L3
· 3p 2i (Addr. 510 = 1)
L1 L2 L3 N
I1 I2 I3
Fig. System with uniform phase loading. The measured values for the current
measurement input I2 are measured.
· 3p 3w3 (Addr. 510 = 3)
L1 L2 L3
I1 I2 I3
Fig. The measured values for the current measurementinput I2 are calculated.
28
I1 I2 I3
Fig. Measurement in a three-phase network with non-uniform load.
· 3p 3w (Addr. 510 = 4)
L1 L2 L3 N
I1 I2 I3 Fig. System with uniform phase loading. The measured values for the
current measurement inputs I2 and I3 are calculated.
· 1p 2i (Addr. 510 = 6)
L1 L2
I1 I2 I3 Fig. The null is taken from the current measurement input I3’s
measured value and not calculated.
UMG 96RM-E
· 2p 4w (Addr. 510 = 5)
L1 L2 L3 N
I1 I2 I3 Fig. System with uniform phase loading. The measured values for the
current measurement input I2 are calculated.
· 1p 2w (Addr. 510 = 7)
L1
N
I1 I2 I3 Fig. The null is taken from the current measurement inputs I2 and I3
measured values and not calculated.
29
UMG 96RM-E
Wiring diagrams, current measurement (I1-I3)
· 3p 1w (Addr. 510 = 8)
L1 L2 L3 L1 L2 L3 L1 L2 L3
I1 I2 I3
Fig. 3 systems with uniform phase loading. The not connected measured values
I2/I3, I1/I3 and I1/I2 of the respective systems are calculated.
Ammeter
If you wish to measure the current not just using the UMG 96RM, rather also
with a ammeter, the ammeter must be connected to the UMG 96RM-E in series.
UMG
I S1 S2
A
Einspeisung Supply
(k)S1 (K)P1
S2(l) P2(L)
Verbraucher Consumer
Fig. Current measurement with an additional ammeter (example).
30
UMG 96RM-E
Total current measurement
If the current measurement is done via two current transformers, the overall transformation ratio of the current transformers must be programmed into the UMG 96RM-E.
Example: The current is measured via two current transformers. Both current transformers have a transformation ratio of 1000/5A. The total measurement is done using a total current transformer 5+5/5A.
UMG
I S1 S2
The UMG 96RM-E must then be setup as follows:
Primary current: 1000A + 1000A = 2000A
Secondary current:
5A
Einspeisung 1
Supply 1 P1
Einspeisung 2
Supply 2 P2
1P1 1S1 (K) (k) (L) (l)
1P2 1S2
1S1 1S2 2S1 2S2
2S1 2P1 (k) (K) (l) (L)
2S2 2P2
Verbraucher A Consumer A
Verbraucher B Consumer B
Fig. Current measurment using a total current transformer (example).
31
UMG 96RM-E
Analog inputs
The UMG 96RM-E has 2 analog inputs which can be used for one residual current
measurement or one temperature measurement. The measurement is done using
terminals 32-34 (input 1) or 35-37 (input 2).
c
Attention! Operating equipment connected to the analogue inputs must exhibit reinforced or double insulation from mains supply circuits!
The analog inputs can be used for residual current or temperature measurement in accordance with the following table:
Measurement Temperature
Residual current
Terminal
32/34 (input 1) and 35/37 (input 2)
32/33/34 (input 1) and 35/36/37 (input 2)
Example – temperature sensor: A temperature sensor in close proximity to non-
isolated mains cables should measure within a 300V CAT III network. Remedy:
The temperature sensor must be equipped with reinforced or double insulation
for 300V CAT III. This equates to a test voltage for the temperature sensor of
3000V AC (duration 1 min.).
Example – residual current transformer: A residual current transformer should
measure on isolated mains cables within a 300V CAT III network. Remedy: The
insulation of the mains cables and the insulation of the residual current
transformer must fulfil the basic insulation requirements for 300V CAT III.
This equates to a test voltage of 1500V AC (duration 1 min.) for the insulated
mains cables and a test voltage of 1500 V AC (duration 1 min.) for the
residual current transformer.
32
UMG 96RM-E
Residual current measurement (RCM) via I5, I6
The UMG 96RM-E is for use as a residual current monitoring device (RCM), suitable for monitoring AC, pulsing DC, and DC.
The UMG 96RM-E can measure residual currents in accordance with IEC/TR 60755 (2008-01)
of type A and
type B.
*1
*1
The connection from suitable external residual current transformers with a
rated current of 30 mA is done via the residucal current transformer inputs I5
(terminals 33/34) and I6 (terminals 36/37).
Load
C
Residual current transformer ratio The GridVis software can be used to individually program the residual current transformer inputs’ transformer ratios.
PE N L1 L2 L3 Fig. Connection example residual current measurement via current
transformers
*1 Please note: Jumpers between connectors 32-33 respectively 35-36 are only required from hardware-release 104! 33
UMG 96RM-E
Example connection for measuring residual currents of type B and A.
230 V AC
24 V DC
4-20 mA DC
for Example: Residual current transformer from the series CT-AC/DC type B+ RCM
*1 0-30 mA AC
for Example: Residual current transformer from the series CT-AC-RCM
m
The residual current measurement inputs must be galvanically separated from each other!
Example connection for measuring residual currents of type B and A. (Mains
adapter with U = 24V DC, residual ripple < 5%, power: 24W)
34
*1 Please note: Jumper between connector 35-36 are only required from hardware-release 104!
Example connection for measuring residual currents of type B
230 V AC
24 V DC
4-20 mA DC
230 V AC
24 V DC
4-20 mA DC
UMG 96RM-E
z.B. Differenzstromwandler CT-AC/DC Typ B+
z.B. Differenzstromwandler CT-AC/DC Typ B+
Example connection for measuring residual currents of type B. Every residual current transformer from the series CT-AC/DC type B+ RCM requires its own mains adapter (with U = 24V DC, residual ripple < 5%, power: 24W). The secondary sides of the mains adapters (24V DC) must be galvanically separated from each other!
m
The residual current measurement inputs must be galvanically separated from
each other!
35
UMG 96RM-E Connection example, residual current monitoring
L1 L2 L3 PEN
N
PE
Residual current transformer
Residual current transformer
Fig. Example
L1 L2 L3 N
I1 I2 I3 I4
I5 I6
UMG96RM-E with
M
residual current
UMG 96RM-E (RCM)
3~
monitoring via
measuring inputs i5/I6.
C
It is not necessary to configure a connection schematic for residual current inputs I5 and I6.
36
Temperature measurement input
The UMG 96RM-E has two temperature measuring inputs. The temperature is
measured via terminals 32/34 (input 1) and 35/37 (input 2).
Do not exceed the total resistance load (sensor + cable) of 4kOhm.
UMG 96RM-E
PT100 PT100
m
Use a shielded cable to connect the temperature sensor.
Fig. Example, temperature measurement with a Pt100
37
UMG 96RM-E
RS485 interface
In UMG 96RM-E, the RS485 interface is designed as a 2 pin plug contact, which
communicates via the Modbus RTU protocol (also see Parameter programming).
Termination resistors
The cable is terminated with resistors (120Ohm, 1/4W) at the beginning and at
the end of a segment.
The UMG 96RM-E does not contain any termination resistors.
Correct
RS485 bus
RS485 interface, 2-pole plug contact
A B
Incorrect
120 38
RS485 interface, 2-pole plug contact with terminating resistor (Item no.
52.00.008)
A RS485 bus
B
Terminal strip in the cabinet.
Device with RS485 interface. (without terminating resistor)
Device with RS485 interface. (with terminating resistor on the device)
UMG 96RM-E
Screening
Cable type
Twisted screened cable should be used for connections The cable used must be suitable for an environmental
via the RS485 interface.
temperature of at least 80°C.
· Earth the screens of all cables that lead to the cabinet, upon entering the
cabinet.
· Connect the screens over a generous area and in a manner that will conduct
well, to a low-noise earth.
· Gather the cables mechanically above the earthing clamp in order to avoid
damage due to cable movements.
· Use suitable cable glands to feed the cables into the cabinet – for example
armoured conduit couplings.
Recommended cable type: Unitronic Li2YCY(TP) 2x2x0.22 (from Lapp Kabel)
Maximum cable length 1200m at a baud rate of 38.4k.
Cable Strain relief
Screen braid of the cable Earthing clamp
C
For the wiring of the Modbus connection, CAT cables are not suitable. Please use the recommended cables.
Low-noise earth Fig. Screening procedure at cabinet entry.
39
UMG 96RM-E
Bus structure
· All devices are connected in a bus structure (line) and each device has its
own address within the bus (also see programming parameters).
· Up to 32 stations can be interconnected in one segment.
· The cable is terminated with resistors (bus termination, 120 ohm 1/4 W) at
the beginning and end of a segment.
· If there are more than 32 stations, repeaters (line amplifiers) must be used
in order to connect the individual segments.
· Devices with activated bus termination must be supplied with power.
· It is recommended to set the master at the end of a segment.
· The bus is inoperative if the master is replaced with an activated bus
termination.
· The bus can become unstable if the slave is replaced with an activated bus
termination or is dead.
· Devices that are not involved in the bus termination can be exchanged
without making the bus unstable.
· The shield has to be installed continuously and needs to be broadly and well
conducting connected to an external low voltage (or potential) ground at the
end.
Master T
Slave
T Slave
Slave
40
Power supply necessary
T Bus terminator on
Slave
Slave
T Repeater
T
Slave
Slave
Fig. Bus structure
UMG 96RM-E
Ethernet interface
The Ethernet network settings should be specified by the network administrator
and set on UMG 96RM-E accordingly. If the network settings are not known, the
UMG 96RME may not be integrated into the network through the patch cable.
m
Ethernet Connection
PC / Switch
C m
Note! The Ethernet interface is connected to GND (Ground) via a 0.1 M
resistor.
Caution! The UMG 96RM-E is factory-programmed for the dynamic allocation of
the IP settings (DHCP mode). Settings can be changed as described in TCP/IP
Configuration or, for example, via an appropriate Ethernet connection by means
of GridVis software.
Attention! Property damage due to security vulnerabilities in programs, IT
networks and protocols. Security vulnerabilities can result in data misuse,
faults and even cause your IT infrastructure to shut down. To protect your IT
system, network, data communications and measurement devices: · Notify your
network administrator
and/or IT manager. · Always keep the measurement device
firmware up to date and protect the communication to the measurement device
with an external firewall. Close any unused ports. · Take protective measures
against viruses and cyber attacks from the Internet, e.g. through firewall
solutions, security updates and antivirus programs. · Eliminate security
vulnerabilities and update or renew existing protection for your IT
infrastructure.
41
UMG 96RM-E
Digital in-/outputs
The UMG 96RM-E has 2 digital outputs and 3 optional digital inputs or outputs, which are divided into two groups (see figure). This means that only entire group 2 (connection 28 to 31) operate either as input or output; a different allocation within the group is not possible!
Digital outputs, Group 2 · The status of the inputs and outputs in Group 2 is
indicated by the associated LED (cf. chapter LED status bar).
Digital outputs, Group 1 · The status indicator appears on the display at K1
or
K2 · The status indicator on the display is not dependent
on an inversion being activated (NC / NO)
Source
e.g. Comparator group
Inverter
Digital output 3
K1/K2 display status indicator
Source
e.g. Comparator group
Inverter
Digital output 1
C
The digital outputs of group 2 are not AC compatible.
42
Digital outputs
These outputs are galvanically separated from the analysis electronics using
optocouplers. The digital outputs have a joint reference.
· The digital outputs of group 1 can switch DC and AC loads. The digital
outputs of group 2 can not switch AC loads.
· The digital outputs are not short-circuit proof. · Connected cables that are
longer than 30m must
be shielded when laid. · An external auxiliary voltage is required. · The
digital outputs can be used as impulse outputs. · The digital outputs can be
controlled via Modbus. · The digital outputs can display the results
of comparators.
UMG 96RM-E
Group 2
~
~
Group 1
Fig. Connection digital / pulse outputs
43
UMG 96RM-E
m C
Caution! Digital outputs are not short-circuit proof.
Functions for the digital outputs can be adjusted clearly in the GridVis
software (Download: www.janitza.com). A connection between the UMG 96RM-E and
the PC via an interface is required for the use of the GridVis software.
DC connection example
UMG 96RM-E
13 Digital Ouput 1 14
Group 1:
Digital Ouput 2 15
External Auxiliary voltage
24V DC
+-
K1
K2
C
When using the digital outputs as pulse outputs the auxiliary voltage (DC) must have a max. residual ripple of 5%.
LED
28
DC
Digital Ouput 3 29
LED
Group 2:
C
44
To prevent the measurement device from
DC
Digital Ouput 4 30
displaying a residual voltage, connect
terminal ,,13″ of the digital outputs of your
LED
measurement device as the functional earth (FE) to the PE conductor of your system. Use
Digital Ouput 5 31
the color ,,pink” (DIN EN 60445/VDE 0197)
for the functional earth lead.
Fig. Example for two relays connected to
the digital outputs
UMG 96RM-E
Digital inputs
When allocating Group 2 as inputs, the UMG96 RM-E has three digital inputs to
each of which you can connect one signal transducer. When a signal is present,
the corresponding LED lights up green.
An input signal is detected on a digital input if a voltage of at least 10V
and maximum 28V is applied and where a current of at least 1mA and maximum 6mA
flows at the same time. Wiring longer than 30m must be screened. Note the
correct polarity of the supply voltage!
-+
Group 2
UMG 96RM-E Digital inputs 1-3
External Auxiliary voltage
24V DC
–
28
2k21 29
Digital S1
Input 1 2k21
2k21 30
Digital S2
Input 2 2k21
2k21 31
Digital S3
Input 3 2k21
2k21
Fig. Connection
example for digital Fig. Example for the connection of external switch
inputs.
contacts S1 and S2 to digital inputs 1 and 2.
45
UMG 96RM-E
S0 pulse input
You can connect an S0 pulse transducer per DIN EN62053-31 to any digital
input.
This requires an auxiliary voltage with an output voltage in the range 20 ..
28V DC and a resistor of 1.5kOhm.
External Auxiliary voltage
24V DC
UMG 96RM-E
Digital inputs 1-3
28
2k21 2k21
29
Digital Input 1
–
1.5k
S0 pulse transducer
2k21 2k21
30
Digital Input 2
2k21 2k21
31
Digital Input 3
2k21
Fig. Example for the connection of an S0 pulse transducer to digital input 1.
46
LED status bar
LED status bar
The different statuses of the inputs and outputs are displayed via the LED
status bar on the rear of the device.
Digital inputs The LED assigned to a respective input lights up green when a
signal of at least 1mA flows on this interface.
Digital in-/output 1 Digital in-/output 2 Digital in-/output 3
Digital outputs The LED assigned to a respective output lights up red when the output is set as enabled – regardless of whether there is a continuing connection to this interface.
Fig. LED status bar for inputs and outputs
UMG 96RM-E
47
UMG 96RM-E
Operation
Programming mode
The UMG 96RM-E is operated via buttons 1 and 2 with the following functions: ·
briefly pressing button 1 and 2:
next step (+1) · pressing and holding button 1 and 2:
previous step (-1) Measured values and programming data are displayed on an
LCD display.
There are display and programming modes. You can avoid an unintentional change
of programming data by entering a password.
Display mode
In display mode, you can scroll through the programmed measured values by
pressing buttons 1 and 2. When the device is delivered, all measured value
indications of profile 1 can be retrieved. For each measured value, up to
three measured values are indicated. The measured value rotation can display
selected measured value indications one after the other with a selectable
changing time.
You can view and change the necessary settings of the UMG 96RM-E in
programming mode. Press button 1 and 2 simultaneously for about 1 second to
switch to programming mode after entering the password. If no password is
programmed, you get directly to the programming mode menu. Programming mode is
marked by the text ,,PRG” on the display.
Press button 2 to switch between the following menus:
– Current transformer, – Voltage transformer, – Parameter list, – TCP/IP
device address, – Subnet mask, – Gateway address, – Dynamic TCP/IP addressing
(in/out).
If no button was pressed for about 60 seconds when you are in programming
mode, or button 1 and 2 are pressed simultaneously for about 1 second, the UMG
96RM-E will switch back to display mode.
48
Supply
Max. value, HT/reference Min. value, NT/supply
Mean value
Programming mode Total measurement External conductor External conductor
Password CT: current transformer VT: voltage
transformer
K1: output 1 K2: output 2
Button 2 Button 1
UMG 96RM-E
49
UMG 96RM-E
Parameters and measured values
Parameter indication example
All necessary parameters for the use of UMG 96RM-E, such as current
transformer data and frequently required measured values are provided in the
table. Use the UMG 96RM-E buttons to retrieve the contents of most of the
addresses via serial interface.
You can only enter the first 3 significant digits of a value on the device.
Values with more digits can be entered using GridVis. The first 3 significant
digits of a value are displayed on the device.
Selected measured values are summarized in measured value profiles and can be
indicated in display mode by pressing button 1 and 2.
The current measured value profile, the display change profile, plus date and
time can be read and changed via the RS485 interface only.
In this example, the contents of address “000” is indicated by the value “001”
on display of the UMG 96RM-E. This parameter specifies the device address (in
this case “001”) according to the list of the UMG 96 RM-E within a bus.
Measured value indication example
In this example, the voltage L-N is indicated by 230V on the display of the
UMG 96RM-E. The transistor outputs K1 and K2 are active, which ensures the
current flow.
50
Button functions Display mode Select mode
simultaneously
Scroll short
long
Measured value A(+1)
Measured value Measured value
A(-1)
B …
long
short
For an overview of the measured value indications, see chapter “Overview of measured value indications”.
Password
UMG 96RM-E
Programming mode Select mode
short long
simultaneously
Scroll Programming
menu +1 …
Programming menu -1
Programming menu 1
(flashing)
(flashing)
Program
Confirm selection
short: Number +1 long: Number -1
short: Value x 10 (Decimal point to the right) long: Value/10 (Decimal point
to the left)
51
UMG 96RM-E
Configuration
Connecting the supply voltage The supply voltage must be
connected
for
c
the configuration of the UMG 96RM-E .
The level of the supply voltage for the UMG 96RM-E is specified on the rating
plate.
If no display appears, check whether the operating voltage lies within the
nominal voltage range.
C
Caution! If the supply voltage does not correspond to the voltage indicated on
the rating plate, this may lead to malfunctions severe damage to the device.
The adjustable value 0 for the primary current transformer does not produce
any useful work data, and should not be used.
Current and voltage transformers
When the device is delivered, a current transformer ratio of 5/5A is entered.
The voltage transformer ratio must only be changed if a voltage transformer is
connected.
m
When connecting a voltage transformer, please note the measurement voltage of UMG 96RM-E given on the rating plate.
C
Devices with an automatic frequency detection require about 5 seconds to
determine the mains frequency. In the meantime, measured values do not
maintain the guaranteed measurement uncertainty.
Prior to commissioning potential production dependant contents of the energy
counter, min/max values and records have to be deleted.
52
UMG 96RM-E
C
Current and voltage transformers The GridVis software can be used to
individually program the current and voltage transformer input transformer
ratios.
Only the transformer ratio of the respective group of the current inputs I1-I3
and the voltage measurement inputs V1-V3 can be adjusted on the device.
The transformer ratio of the current transformer input I4 and the residual
current transformer inputs I5, I6 should be set in the GridVis software.
Current transformer input I4 Thus, with a voltage only an apparent current can
be measured at the current converter input l4 due to the multiplier being
missing. This input can not be used for power measurements. The transformer
ratio can be adjusted in the GridVis software.
Fig. Indication to configure the current and voltage transformers in the GridVis software.
53
UMG 96RM-E
Programming the current transformer for I1 to I3
Switch to the programming mode · Press button 1 and 2 simultaneously to switch
to the programming mode. If a user password was programmed, the password menu
appears in display with the indication ,,000″. The first digit of the user
password is flashing and can be changed by pressing button 2. Press button 2
to select the next digit while it is flashing. You can get to the programming
mode after entering the correct code, or if no user password was programmed. ·
The symbols for the programming mode PRG and the current transformer mode CT
appear on the display. · Press button 1 to confirm the selection. · The first
digit of the input field for the primary current is flashing.
Input of the current transformer secondary current · Only 1A or 5A can be set
as secondary current. · Press button 1 to select the secondary current. ·
Press button 2 to change the flashing digit.
Exit programming mode · Press both buttons simultaneously to exit
the programming mode.
Input of the current transformer primary current · Press button 2 to change
the flashing digit. · Press button 1 to select the next digit to be changed.
The selected digit to be changed is flashing. If the entire number is
flashing, press button 2 to move the decimal point.
54
Programming the voltage transformer
· Select in the programming mode as described. The symbols for the programming
mode PRG and the current transformer mode CT appear on the display.
· Press button 2 to go to the voltage transformer settings.
· Press button 1 to confirm the selection. · The first digit of the input
field for the primary voltage
is flashing. The voltage transformer ratio can be set from primary to
secondary voltage in a way similar to the allocation of the current
transformer ratio.
UMG 96RM-E
Current transformer, primary Programming mode Display of units Current
transformer, secondary Current transformer symbol
Voltage transformer, primary Programming mode Display of units Voltage
transformer, secondary Voltage transformer symbol
55
UMG 96RM-E
Programming parameters
Switch to the programming mode · Select in the programming mode as described.
The symbols for the programming mode PRG and the current transformer mode CT
appear on the display. · Press button 2 to go to the voltage transformer
settings. Press button 2 repeatedly to view the first parameter in the list.
Changing parameters · Press button 1 to confirm the selection. · The last
selected address and the corresponding
value is indicated. · The first digit of the address is flashing and can
be changed by pressing button 2. Press button 1 to select and change the digit
with button 2.
Change value · If the desired address is set, press button 1 to select
a number of the value and change it by pressing button 2.
Exit programming mode · Press both buttons simultaneously to exit
the programming mode.
56
Fig. Password query Use button 1 and 2 to enter a password (if any).
Fig. Current transformer programming mode Use button 1 and 2 to change primary
and secondary current (see page 50).
Fig. Programming mode Voltage converter Use button 1 and 2 to change primary
and secondary voltage (see page 51).
Fig. Programming mode Parameter indication Use button 1 and 2 to change
individual parameters (see page 46).
TCP/IP configuration
Within an Ethernet, each device has a unique TCP / IP address that can be
assigned manually or from a DHCP server. The 4-byte device address (0 to 3
byte) can be extended in the TCP / IP configuration using the subnet mask and
gateway data.
Setting the TCP / IP device address (addr) manually · Select in the
programming mode as described.
The symbols for the programming mode PRG and the current transformer mode CT
appear on the display. · Press button 2 three times to get to the TCP / IP
settings for the device addressing. · Press button 1 to select the desired
digit. The selection is indicated by a flashing digit. · Press button 2 to
adjust the selected digit. · Use button 1 to select the next digit and set it
again by pressing button 2.
· If byte is set to 0, the TCP / IP address can be set from 1 to 3 by pressing
button 1. Then the display jumps back to Byte 0 (no digit is flashing).
UMG 96RM-E
Description Byte identification (e.g. byte 0) of the address Address value,
byte 0 Fig. TCP/IP address, byte 1 A TCP / IP address consists of 4 bytes with
the following structure:
Byte 0 Byte 1 Byte 2 Byte 3
xxx.xxx.xxx.xxx Example:1 9 2 . 168.003. 1 7 7
Fig. TCP / IP address, byte 2, value 003
Fig. TCP / IP address, byte 3, value 177
57
UMG 96RM-E
Manual setting of the subnet mask (SUb) · When in the programming mode, press
button 2 to get
to the subnet mask settings (SUb display). · Use button 1 to select the
desired digit and set
it by pressing button 2. Repeat this step for each digit in bytes 0 to 3 in a
way similar to setting the TCP / IP device address. · After repeated display
of byte 0 (no digit is flashing) one can set the gateway address.
Manual setting of the gateway address (GAt) · When in the programming mode,
press button 2 to get
to the gateway address settings (GAt display). · Press buttons 1 and 2 to set
the desired gateway
address in bytes 0 to 3 as described above.
Disable the dynamic IP allocation (dYN IP, oFF) to ensure that the manual
settings of the TCP / IP device address, subnet mask and gateway address are
not overwritten by a DHCP server.
Dynamic IP allocation (dyn) The dynamic allocation of the TCP / IP settings
(device/ gateway address and subnet mask) provides for a fully automated
integration of the device into an existing network with a DHCP server. TCP /
IP settings do not need to be configured manually as they are automatically
assigned by the DHCP server when the device is started.
Addresses are read out in the programming mode the same way as in the manual
settings.
· Switch to the programming mode as described. The symbols for the programming
mode PRG and the current transformer mode CT appear on the display.
· Press button 2 several times to display the dynamic IP allocation (dYn IP).
· Press button 1 to enable the parameter “on” or “oFF” (parameter is
flashing).
· Press button 2 to select the parameter and confirm by pressing button 1.
Exit the programming mode or wait about 60 seconds.
C
58
Changes will only take effect after you exit the programming mode.
If the key symbol is displayed, the dynamic IP allocation is enabled. Device / gateway address and subnet mask are provided and automatically accepted by the DHCP server.
Fig. Subnet mask (Sub), byte 0, value 255
Fig. Gateway (GAt), byte 0, value 192
UMG 96RM-E
m
Caution! Connection of the UMG96RM-E to the Ethernet may only be carried out after discussion with the network administrator!
m
Caution! The UMG 96RM-E is factory-programmed for the dynamic allocation of the IP settings (DHCP mode). Settings can be changed as described in TCP/IP Configuration or, for example, via an appropriate Ethernet connection by means of GridVis software.
Fig. Enabled dynamic allocation (dYn IP) of the TCP / IP address
Fig. Disabled dynamic allocation (dYn IP) of the TCP / IP address
59
UMG 96RM-E
RS485 device address (Addr. 000)
RS485 baud rate (Addr. 001)
If multiple devices are connected to each other via the RS485 interface, a master device can only identify the devices by their device address. Within a network, each device must have its own device address. Addresses can be set in the range of 1 to 247.
A common baud rate can be adjusted for the RS485 interfaces. The baud rate must be uniform for all devices on the network. Address 003 can be used to set the number of stop bits (0=1bit, 1= 2bits). Data bits (8) are fixed default values.
C
The adjustable range of the device address is between 0 and 255. Values 0 and 248 through 255 are reserved and may not be used.
Setting 0 1 2 3 4
Baud rate 9.6kbps 19.2kbps 38.4kbps 57.6kbps 115.2kbps (factory setting)
60
UMG 96RM-E
MODBUS gateway (Addr. 002)
User password (Addr. 050)
Set address 002 as described in the table below to use the UMG 96RM-E Modbus Gateway function:
Setting 0 1
Baud rate
Modbus Gateway disabled (OFF) (Factory setting) Modbus Gateway enabled (ON)
A user password can be programmed to prevent accidental change of the
programming data. Changes in the programming menu below can only be made after
entering the correct user password. User password is not factory-programmed.
In this case, the password menu is skipped and you get directly to the current
transformer menu.
If a user password was programmed, the password menu appears on the display
with the indication ,,000″. The first digit of the user password is flashing
and can be changed by pressing button 2. Press button 1 to select the next
digit while it is flashing. You can only get to the current transformer
programming menu after entering the correct code.
Forgot my password
If you do not remember your password, you can only delete it using the GridVis
PC software. In order to do so, connect the UMG96RM-E to the PC with a
suitable interface. More information can be found in the GridVis assistant.
61
UMG 96RM-E
Parameter
Averaging method
Mean value
Mean values are averaged over an adjustable period for the current, voltage
and power measured values. The mean values are indicated by a bar over the
measured value. The averaging time can be selected from a list with 9 fixed
averaging times.
Averaging time, current (Addr. 040) Averaging time, power (Addr. 041)
Averaging time, voltage (Addr. 042)
Setting
0 1 2 3 4 5 6 7 8
62
Averaging time/sec.
5 10 15 30 60 300 480 (factory setting) 600 900
The applied exponential messaging method reaches at least 95% of the
measurement value once the reporting time has run its course.
Min. and max. values
All measured values are measured and calculated during all 10/12 periods.
Minimum and maximum values are determined for most measured values. The min.
value is the smallest measured value determined since the last deletion. The
max. value is the highest measured value determined since the last deletion.
All minimum and maximum values are compared with the corresponding measured
values and overwritten when exceeded or fallen short of. The minimum and
maximum values are saved every 5 minutes in an EEPROM without date and time.
Thus, the minimum and maximum values of the past 5 minutes may be lost due to
an operating voltage failure.
Delete min. and max. values (Addr.506)
If ,,001″ is set for address 506, all minimum and maximum values can be
deleted simultaneously.
UMG 96RM-E
Mains frequency (Addr. 034)
For automatic ascertainment of the mains frequency, an L1-N voltage larger
than 10Veff must be applied to the voltage measurement input V1.
The sampling frequency is computed for the current and voltage inputs based on
the mains frequency.
Setting range: 0, 45 .. 65 0 = automatic frequency determination. The mains frequency is determined based on the measurement voltage. 45..65 = fixed frequency The mains frequency is pre-selected as a fixed value.
If the test voltage is missing, neither the network nor the sampling frequency can be computed. An acknowledgeable error message “500” will be displayed. Voltage, current and all resulting values are calculated and displayed based on the most recent frequency measurement and/or possible power couplings. The measured values that have been determined can no longer guarantee the declared precision.
When another measurement of frequency can be carried out, the error message will automatically disappear in about 5 seconds after the voltage returns.
The error is not displayed when a fixed frequency is set.
63
UMG 96RM-E
Energy meter
Reset energy meter (Addr. 507)
The UMG 96RM-E has power meters for active energy, The real, apparent and reactive energy meters can only
reactive energy and apparent energy.
be reset simultaneously.
Set “001” for address 507 to reset the energy meter.
Active energy reading Total active energy
The active energy given in this example is 12 345 678 kWh
The active energy given in this example is 134 178 kWh
64
C
Prior to commissioning potential production dependant contents of the energy counter, min/max values and records have to be deleted.
C
If you reset the energy meter, the data will be lost. To avoid data loss, you should read and save the measured values before deletion using the GridVis software.
UMG 96RM-E
Harmonics
Total harmonic distortion THD
Harmonics are integer multiples of a fundamental oscillation. The fundamental
oscillation of the voltage for UMG 96RM-E must range between 45 and 65Hz. The
calculated harmonic voltages and currents relate to this fundamental
oscillation. Harmonics up to 40 times the fundamental frequency are detected.
The harmonics of the currents and of the voltages are displayed in amperes and
volts, respectively.
THD is the ratio of the rms value of the harmonics to the rms value of the
fundamental oscillation. Total harmonic distortion of the current THDI:
Total harmonic distortion of the voltage THDU:
Number of the harmonic component
Phase L3
Current harmonics
Value
Fig. Indication of the 15th harmonics of the current in phase L3 (example).
C
Harmonics are not displayed in the default factory setting.
Phase L3
Voltage Value
Fig. Indication of the total harmonic distortion THD of the voltage of phase
L3 (example).
65
UMG 96RM-E
Measured value rotation
Rotation time (Addr. 039)
All 10/12 periods the measured values are calculated and the readings are
displayed on a per second basis. There are two ways to retrieve the
measurement readings:
· The automatically changing indication of the selected measurement readings
is referred to herein as measured value rotation.
· Press button 1 and 2 to select measured value indication from a pre-selected
display profile.
Both methods are available simultaneously. The measured value rotation is
enabled when at least one measured value indication change time is over 0
seconds. Press a button to scroll the measured value indications of selected
display profile. If no button is pressed for about 60 seconds, the device will
switch to the measured value rotation to display the programmed measured value
indications from the selected rotation profile in succession.
Setting range : 0 .. 60 seconds If 0 seconds are set, the measured value
indications selected will not be rotated. The rotation time set applies to all
display rotation profiles.
Display rotation profile (Addr. 038)
Setting range: 0 .. 3 0 – Display rotation profile 1, pre-programmed. 1 –
Display rotation profile 2, pre-programmed. 2 – Display rotation profile 3,
pre-programmed. 3 – Display rotation profile, customizable.
Measured value indocations
Following a power resumption, the UMG 96RM-E displays the first measurement
value table in the current display profile. To keep the selection to a
manageable size, only a fraction of the available measurement values was
preprogrammed in the factory for retrieval in the measured value display.
Select another display profile to view other measured values on the UMG 96RM-E
display.
66
Display profile (Addr. 037)
Setting range: 0 .. 3 0 – Display profile 1, default value. 1 – Display
profile 2, default value. 2 – Display profile 3, default value. 3 – Display
profile, customizable.
C The customizable profiles (display rotation profile and display profile) can
only be programmed using the GridVis software.
C
Profile setting Both profiles (display rotation profile and display profile) are illustrated in the GridVis software. The profiles can be adjusted using the Device Configuration function of the software; customizable display profiles are programmed individually. A connection between the UMG 96RM-E and the PC via an interface is required for the use of the GridVis software
UMG 96RM-E Fig. Profile setting in the GridVis software.
67
UMG 96RM-E
Phase sequence
LCD contrast (Addr. 035)
The voltage phase sequence and the phase L1 frequency are displayed on the
screen.
The phase sequence shows the three-phase system sequence. The rotary field
usually rotates to the “right”. The voltage measurement input phase sequence
is checked and displayed in the UMG 96RM-E. If the string moves in a clockwise
direction, this means that the rotary field rotates to the “right”; if the
string moves in a counter-clockwise direction, this means that the rotary
field rotates to the “left”. The field rotation can only be determined when
the measurement and operating voltage inputs are fully connected. If a phase
is missing or two equal phases are connected, then the phase sequence is not
determined and the string is not moving.
The preferred view for the LCD display is from “below”. The LCD display
contrast can be adapted by the user. The contrast can be set stepwise in the
range from 0 to 9.
0 = very bright 9 = very dark
Factory default setting: 5
Backlight
The LCD backlight allows the display to be read easily even in poor light. The
brightness can be controlled by the user in stages from 0 to 9.
The UMG 96RM has two different types of backlight:
– the operation backlight – the standby backlight
Fig. Indication of the supply frequency (50.0) and the phase sequence.
68
Fig. Rotary field direction can not be determined.
UMG 96RM-E
Operation backlight (addr. 036) The operation backlight is activated by
pushing the appropriate button, or with a restart.
Standby backlight (addr. 747) This backlight is activated after an adjustable
period of time (addr. 746). If no button is pressed within this period, then
the device switches to the standby backlight. If buttons 1 – 3 are pressed,
the device switches to the operation backlight and the defined period of time
begins again.
If the brightness settings for the two backlights are set to the same value,
then no change is discernible between the operation and standby backlights.
Addr. Description
Setting range
036 Brightness for operation backlight
0 .. 9
746 Period of time after
60 .. 9999
which the backlight will Sek.
switch to standby
Default setting 6
900 Sek.
Time recording
The UMG 96RM-E records the operating hours and the overall runtime of each
comparator,
· where the operating period is measured and displayed in hours with a
resolution of 0.1 h
· and the overall runtime of the comparators is displayed in seconds (when
reaching 999999s is displayed in hours).
The periods are marked by the digits 1 to 6 for the measured value display
enquiry:
keine = operating hours meter 1 = Overall runtime, comparator 1A 2 = Overall
runtime, comparator 2A 3 = Overall runtime, comparator 1B 4 = Overall runtime,
comparator 2B 5 = Overall runtime, comparator 1C 6 = Overall runtime,
comparator 2C
In the measured value display, a maximum of 99999.9 h (= 11.4 years) can be
displayed.
747 Brightness for
0 .. 9
0
standby backlight
0 = min. brightness, 9 = max. brightness 69
UMG 96RM-E
Operating hours meter
Serial number (Addr. 754)
The operating hours meter measures the UMG 96RM-E recording and displaying
time. The operating period is measured and displayed in hours with a
resolution of 0.1 h. The operating hours meter cannot be reset.
Overall runtime of comparators
The overall runtime of a comparator is the sum of the runtimes exceeding the
comparator result limit value. The total running time of the comparators can
only be reset by the GridVis software. All running times are reset
simultaneously.
Fig. Measured value indications Operating hours meter The UMG 96RM-E operating
hours meter reading is 140.8h. This corresponds to 140 hours and 80 industrial
minutes. 100 industrial minutes = 60 minutes. In this example, 80 industrial
minutes = 48 minutes.
The serial number displayed by the UMG 96RM-E consists of 6 digits and is a
part of the serial number given on the rating plate. The serial number cannot
be changed.
Serial number
The serial number is on the rating plate: XX00-0000
Software release (Addr. 750) The UMG 96RM-E software is continuously improved
and extended. The software status in the device is identified with a 3 digit
number, the software release. The software release cannot be changed by the
user.
70
UMG 96RM-E
“Drag indicator” Max. value of the mean value over n minutes
The “drag indicator” describes a maximum mean value of a measured value over a
defined period.
The period duration is set via a parameter, via the GridVis software or via
the digital input 1. In the process, synchronisation is triggered via the
internal clock (which can be set via parameter 206 or to a full hour) or
optionally via digital input 1. If synchronisation via the digital input is
selected, the capture time must be set!
C
Please note that even before averaging, the values are divided between positive and negative ones! During totalisation, first the totals for the single phases are calculated, then divided into positive and negative values!
The maximum values are reset via the “Delete min./max. values” function with the GridVis program, via Modbus or on the display by setting the corresponding parameters (parameter 506: set from 0 to 1).
The thee highest values of 15 variables with time stamp are saved. The maximum
values of the variables can also be viewed in the device display.
Variables: · Current in the single phases L1.. L3 · Effective power
(consumption/export) in the
single phases L1.. L3 · Effective power (consumption/export), total. ·
Apparent power the single phases L1…L3 · Apparent power, total
Addr. Description
Setting range Presetting
206 Period duration 300 .. 3600 sec. 900
207 Capture time 1 .. 20 sec.
10 sec.
208 Configuration 0 .. 2
0
digital input 1
0 = internal synchronisation 1 = external synchronisation (NO) 2 = external synchronisation (NC)
506 Resetting
0, 1
0
71
UMG 96RM-E
Recordings
2 recordings are preconfigured in the default factory setting of the UMG
96RM-E. Recordings can be adjusted and extended via GridVis.
· The min. recording time base is 1 minute. · Maximum 4 recordings, each with
100 measured
values, are possible.
Recording 1: The following measured values are recorded with the time base of
15 minutes: · Effective voltage L1 · Effective voltage L2 · Effective voltage
L3 · Effective current L1 · Effective current L2 · Effective current L3 ·
Effective current sum L1..L3 · Effective power L1 · Effective power L2 ·
Effective power L3 · Effective power sum L1..L3 · Apparent power L1 · Apparent
power L2 · Apparent power L3 · Apparent power sum L1..L3
· cos phi(math.) L1 · cos phi(math.) L2 · cos phi(math.) L3 · cos phi(math.)
sum L1..L3 · Reactive power fundamental oscillation harmonic L1 · Reactive
power fundamental oscillation harmonic L2 · Reactive power fundamental
oscillation harmonic L3 · Reactive power fundamental oscillation harmonic
sum L1..L3
The mean value, minimum value and maximum value are also recorded for each
measured value.
Recording 2: The following measured values are recorded with the time base of
1 hour: · Effective energy sum L1..L3 · Inductive reactive energy sum L1..L3
72
UMG 96RM-E
Putting into service
Applying the measuring-circuit current
Connecting the supply voltage
· The power supply voltage level for the UMG 96RM-E is given on the rating
plate.
· After applying the power supply voltage the device switches on to display
the first measured value.
· If no display appears, check whether the power supply voltage is within the
rated voltage range.
Applying the measuring-circuit voltage
· Measurement of voltages in the mains with over 300VAC to earth must be
connected via voltage transformers.
· After connecting the measurement-current voltages, the measured values
displayed by the UMG 96RM-E for the L-N and L-L voltages must correspond to
those at the voltage measurement input.
m
Caution! Voltages and currents that are outside the permissible measuring range can lead to personal injury and damage the device.
The UMG 96RM-E is designed for the connection of .. /1A and .. /5A current transformers. Only AC currents can be measured via the current measurement inputs – DC currents cannot. Short circuit all current transformer outputs except for one. Compare the currents displayed by the UMG 96RM with the applied current. Bearing in mind the current transformer conversion ratio, the current displayed by the UMG 96RM-E must correspond with the input current. The UMG 96RM-E must display approx. zero amperes in the short-circuited current measurement inputs. The current transformer ratio is factory set to 5/5A and must be adapted to the current transformer used if necessary.
m m
Caution! If the supply voltage does not correspond to the voltage indicated on
the rating plate, this may lead to malfunctions severe damage to the device.
Caution! The UMG 96RM is not suitable for measuring DC voltages.
73
UMG 96RM-E
Phase sequence
Applying the residual current
Check the direction of the voltage rotating field in the measured value
display of the UMG 96RM-E. A “right” rotating field usually exists.
Check phase assignment
The assignment of the outer conductors to the current transformer is correct,
if a current transformer is short circuited on the secondary, and the current
indicated by the UMG 96RM-E drops to 0A in the corresponding phase.
Checking the energy measurement
Connect residual current transformer only to the I5 and I6 inputs with a rated
current of 30mA! Both residual current inputs can measure AC currents, pulsing
direct currents and DC currents.
Bearing in mind the current transformer conversion ratio, the residual current
displayed by the UMG96RM-E must correspond with the input current.
The current transformer ratio is factory set to 5/5A and must be adapted to
the residual current transformer used if necessary.
Short-circuit all current transformer outputs except for one and check the displayed power outputs. The UMG 96RM-E may only display one power output in the phase with a non short-circuited current transformer input. If this is not the case, check the connection of the measuring-circuit voltage and the measuringcircuit current.
C
If the power output amount is correct but the sign of the power output is
negative, · S1(k) and S2(l) could be inverted at the current
transformer · or they supply active energy back into the network.
74
C
The UMG 96RM-E requires the mains frequency to measure the residual current.
For this purpose, the measuringcircuit voltage should be applied or a fixed
frequency should be set.
It is not necessary to configure a connection schematic for residual current
inputs I5 and I6.
UMG 96RM-E
Failure monitoring (RCM) for I5, I6
The UMG96RM-E enables continuous monitoring of the connection to the residual current transformer on inputs I5 and I6.
m
Activation of failure monitoring is performed by setting address 21264 for the
residual-current measurement input I5 and 21265 for I6.
If there is an interruption in the connection to the current transformer, this
state is recorded in certain registers or indicated in the GridVis software:
m
The failure monitoring is only available from firmware-ver. 202 and hardware-
release 104!
Monitoring of the connection to the residual current transformer is only
available in AC mode!
Modbus addr. Value / Function
21264 (I5) 21265 (I6)
Failure monitoring for I5 / I6 0 = Deactivate monitoring 1 = Activate monitoring
Modbus addr. Value / Function
11623 (I5) 11624 (I6)
0 = Connection to the residual current transformer on to I5 or I6 error-free
1 = Error in the current transformer connection to I5 or I6
75
UMG 96RM-E
Alarm status for I5, I6
Using bit-by-bit coding inside the alarm register (addr. 21095, 21096), it is
possible to read out different alarm statuses:
Bit: 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15
00000000 00000000
Unused Failure monitoring Alarm Overcurrent Warning
Example: Interruption of the connection to the residual current transformer.
The alarm bit is also set and must be acknowledged!
Bit: 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15
00110000 00000000
Warning: Overcurrent: Alarm:
Failure monitoring
Unused Failure monitoring Alarm Overcurrent Warning
76
The residual current has exceeded the set warning limit value
The measurement range has been exceeded
Alarm bit is set for: warning, overcurrent or connection error to the
transformer. The alarm bit must be reset or acknowledged manually.
Connection error to the transformer
UMG 96RM-E
Checking the measurement
Checking the total power outputs
If all voltage and current inputs are correctly connected, the individual and
cumulative outputs are computed and displayed correctly.
Checking the individual outputs
In case that a current transformer is assigned to the wrong outer conductor,
the corresponding power output will be measured and indicated incorrectly. The
assignment of the outer conductor and the UMG 96RM-E current transformer is
correct, if no voltage is measured between the outer conductor and the
corresponding current transformer (primary). In order to ensure that an outer
conductor at the voltage measurement input is assigned to the correct current
transformer, the respective current transformer can be short-circuited on the
secondary side. The apparent power displayed by the UMG 96RM-E must then be
approx. zero in this phase.
If all voltages, currents and outputs for the respective outer conductors are correctly displayed, the total power outputs measured by the UMG 96RM must also be correct. To confirm this, the total outputs measured by the UMG 96RM should be compared with the work of the active and reactive power meters located in the incoming supply.
If the apparent power is correctly displayed but the active power is displayed with a ,,-” sign, then the current transformer terminals are reversed or power is supplied to the power supply company.
77
UMG 96RM-E
RS485 interface
The MODBUS RTU protocol with CRC check
on the RS485 interface can be used to access the data
from the parameter and the measured value lists.
Address range:
1 .. 247
Factory default setting:
1
The device is factory set to address 1 and the baud rate of 115,2 kbps.
Number format: short float
16 bit (-215 .. 215 -1. 32 bit (IEEE 754)
C
Broadcast (address 0) is not supported by the device.
Modbus functions (slave) 03 Read Holding Registers 04 Read input registers 06 Preset single register 16 (10Hex) Preset multiple registers 23 (17Hex) Read/write 4X registers
C
The message length must not exceed 256 bytes.
The sequence of bytes is high before low byte (Motorola format).
Transmission parameters: Data bits: 8 Parity: no Stop bits (UMG 96RM): 2 External stop bits: 1 or 2
78
UMG 96RM-E
Example: Reading the L1-N voltage The L1-N voltage is saved in the measured value list at address 19000. The L1-N voltage is available in the FLOAT format. Address = 01 is approved as the UMG 96RM-E device address.
The Query Message appears as follows:
The Response of the UMG96 RM-E can appear as follows:
Description
Hex
Device address 01
Function
03
Start Addr. Hi
4A
Start Addr. Lo
38
Ind. Value Hi
00
Ind. Value Lo
02
Error Check
–
Note UMG 96RM, address= 1 ,,Read Holding Reg.” 19000dez = 4A38hex
2dez = 0002hex
Description
Hex
Device address 01
Function
03
Byte meter
06
Data
00
Data
E6
Error Check (CRC) –
Note UMG 96RM, address= 1
00hex = 00dez E6hex = 230dez
The L1-N voltage read by address 19000 is 230V.
79
UMG 96RM-E
Digital outputs
The UMG 96RM-E features two digital outputs in group 1. Three further outputs
can be used in group 2.
The User can allocate different functions to the digital outputs
The functions can be programmed by using the configuration menu of the GridVis
software.
–
24V =
DC +
K1 K2
-
=
– S1 S2 S3
– -
K3 K4 K5
13 14 15
GGruropuppe11
28 29 30 31
GGruropuppe2 2
DigitalD-Eigiintagl äinnpguets//Aouutspguätsnge
Fig.: Digital inputs of group 1 and digital in- / outputs of group 2
80
Fig.: Software GridVis, configuration menu
UMG 96RM-E
Digital outputs – Status displays
The status of the switching outputs of group 1 is indicated by circular symbols in the display of the UMG 96RM-E.
C
Since the indication is updated once per second, faster status changes of the outputs can not be displayed.
Group 1 Status digital output 1 Status digital output 2
Digital output stati The current flow can be <1mA. Digital output 1: Addr. 608
= 0 Digital output 2: Addr. 609 = 0 The current flow can up to 50mA. Digital
output 1: Addr. 608 = 1 Digital output 2: Addr. 609 = 1
81
UMG 96RM-E
Impulse output The digital outputs can be used for the output of pulses for
the computation of power consumption. For this purpose, a pulse of defined
length is applied on the output after reaching a certain, adjustable amount of
power. You need to make various adjustments in the software GridVis
(configuration menu) to use a digital output as a pulse one. · Digital output,
· Selection of source, · Selection of measured value, · Pulse length, · Pulse
value.
Fig.: Software GridVis, configuration menu
82
UMG 96RM-E
Pulse length
The pulse length applies to both pulse outputs and is set by the software
GridVis.
The typical pulse length of S0 pulse is 30ms.
Pulse interval The pulse interval is at least as large as the selected pulse
length. The pulse interval depends on the measured power, for example, and can
take hours or days.
Pulse length 10ms .. 10s
Pulse interval >10ms
The values in the table are based on the minimum pulse length and the minimum pulse interval for the maximum number of pulses per hour.
Pulse length Pulse interval
Max. pulse/h
10 ms
10 ms
180 000 pulse/h
30 ms
30 ms
60 000 pulse/h
50 ms
50 ms
36 000 pulse/h
100 ms
100 ms
18 000 pulse/h
500 ms
500 ms
3600 pulse/h
1 s
1 s
1800 pulse/h
10 s
10 s
180 pulse/h
Examples of the maximum possible number of pulses per hour.
C
Pulse interval The pulse interval is proportional to the power output within the selected settings.
C
Measured value selection When programming with GridVis you have a selection of work values which are derived from the power output values.
83
UMG 96RM-E
Pulse value
The pulse value is used to indicate how much energy (Wh or varh) should
correspond to a pulse. The pulse value is determined by the maximum connected
load and the maximum number of pulses per hour.
If you check the pulse value with a positive sign, the pulses will only be
emitted when the measured value has a positive sign.
If you check the pulse value with a negative sign, the pulses will only be
produced when the measured value has a negative sign.
Pulse value =
max. connected load max. number of pulses/h
[Wh/pulse]
C C
84
Since the active energy meter operates with a backstop, pulses will only be
generated when drawing electricity.
Since the reactive energy meter operates with a backstop, pulses will only be
generated with inductive load applied.
UMG 96RM-E
Determine the pulse value
Set the pulse length Set the pulse length in accordance with the requirements of the connected pulse receiver. At a pulse length of 30 ms, for example, the UMG96RM generates a maximum number of 60,000 pulses (see Table “maximum number of pulses” per hour.
Determining the maximum connected load
Example:
Current transformer
= 150/5A
Voltage L-N
= max. 300 V
Power per phase
Power at 3 phases Max. connected load
= 150 A x 300 V = 45 kW = 45kW x 3 = 135kW
Calculating the pulse value
External 230V AC operating voltage
UMG 96RM-E Switch and pulse outputs
13 +24V=
14
24V DC +-
Data logger
1.5k
15
Fig.: Connection example for the circuit as pulse output.
Pulse value =
max. connected load max. number of pulses/h
[Wh/pulse]
Pulse value Pulse value Pulse value
= 135kW / 60,000 pulses/h = 0,00225 kWh/pulse = 2,25 Wh/pulse
C
When using the digital outputs as pulse outputs the auxiliary voltage (DC) must have a max. residual ripple of 5%.
85
UMG 96RM-E
Comparators and monitoring threshold values Five comparator groups (1-5) and
10 comparators per group (A J) can be selected in order to monitor/control
the thresholds. The results of the comparators A to J can be linked with AND
or OR operators The result of the AND and OR operator can be allocated to the
respective digital output. The function “display blinking” can be additionally
assigned to every comparator group. The effect is the change of the display
backlight between maximum and minimum brightness when the comparator output is
active.
Fig.: Software GridVis, configuration menu
86
Comparator running times
Comparator running times are time counters, which are added together at a set
comparator output. i.e. if the condition of the comparator is fulfilled and
the lead time has elapsed, the counter is increased by the corresponding
amount of time – this does not take account of the min. switch-on time!
Comparator with set limit value violation
Limit value
Limit value violation (e.g. exceedance)
· The set limit value is compared to the measured value. · If the limit value
violation occurs for at least the
duration of the lead time, the comparator result is changed. · The result is
retained for at least the duration of the min. switch-on time and for no
longer than the duration of the limit value violation. If there is no longer a
limit value violation and the min. switch-on time has elapsed, the result is
reset.
Lead time
Minimum switch-on time
Comparator result
Comparator running time
UMG 96RM-E
Measured value
2 seconds 6 seconds
87
UMG 96RM-E
Device homepage
Your measurement device features an integrated web server with its own homepage. You can use this device home page to access your measurement device from any end device via a standard web browser. You can access the homepage for your device by entering the measuring device’s PI address in a web browser on your end device.
Please compare with TCP/IP Konfiguration (page 55) You can execute the
following functions via the homepage without prior software installation:
· Retrieve measured values · Control your device remotely · Access installed
apps
Note: Please observe that a measurement duration of at least two hours are required to display energy values.
Fig. “Home” screen with depiction of power and energy values
88
UMG 96RM-E
Measured values
The menu point “measured values” represents different views of the measured
value indications
· Short overview · Detailed measured values · RCM – residual current
monitoring · Display
Short overview Display the most important measured values for each phase, e.g. the current voltage values, power values and current strength.
Detailed measured values Display comprehensive information:
· Voltage · Current · Power · Harmonic oscillations · Energy · Periphery
(digital inputs/outputs)
Fig. Device homepage RCM
RCM – residual current monitoring Overview of the current values and absolute threshold values of the RCM channels. For more information about residual current monitoring, see chapter RCM difference power measurement (page 31).
Display Device display with real display: it’s possible to control the device remotely by clicking the control buttons using the mouse.
89
UMG 96RM-E
Apps
Information
You have the option of extending the functions on your device retrospectively by installing the “measured value monitor” app. Use “measured values monitor” to display historical and real-time measurements via easily readable, web- based graphics. External servers and additional software are not required for this. Additional information about the “measured values monitor” are provided on our homepage.
Device information Information about · device name and description · HP/Lib version · Firmware status · Serial number · Current and voltage converter conditions · IP address and subnet mask
Fig. Device homepage device information 90
Downloads
Link to the download area of the Janitza homepage with the option to load
catalogues and technical documentation.
Help
Error correction Additional information about possible error causes and the
associated help methods.
UMG 96RM-E
91
UMG 96RM-E
Service and maintenance
Service
The device is subjected to several different safety tests before leaving the factory and is labelled with a seal. If a device is opened then the safety checks must be repeated. Warranty claims will only be accepted if the device is unopened.
Should questions arise, which are not described in this manual, please contact
the manufacturer directly.
We will need the following information from you to answer any questions:
Repair and calibration
Repair work and calibration can be carried out by the manufacturer only.
Front film
The front film can be cleaned with a soft cloth and standard household
cleaning agent. Do not use acids and products containing acid for cleaning.
Disposal
– Device name (see rating plate), – Serial number (see rating plate), –
Software release (see measured value display), – Measuring-circuit voltage and
power supply voltage, – Precise description of the error.
Device calibration
The devices are calibrated by the manufacturer at the factory – it is not
necessary to recalibrate the device providing that the environmental
conditions are complied with.
The UMG 96RM can be reused or recycled as electronic scrap in accordance with the legal provisions. The permanently installed lithium battery must be disposed of separately.
Calibration intervals
It is recommended to have a new calibration carried out by the manufacturer or
an accredited laboratory every 5 years approximately.
92
UMG 96RM-E
Firmware update
Battery
If the device is connected to a computer via Ethernet, then the device
firmware can be updated via the GridVis software.
Select a suitable update file (menu Extras / Update device) and the device and
the new firmware will be transferred.
The internal clock is fed from the supply voltage. If the supply voltage fails
then the clock is powered by the battery. The clock provides date and time
information, for the records, min. and max. values and results, for example.
The life expectancy of the battery is at least 5 years with a storage
temperature of +45°C. The typical life expectancy of the battery is 8 to 10
years.
The battery is replaced via the battery insert provided on the rear of the device. Make sure that the correct type of battery is used and correct polarity is observed when inserting the battery (positive pole faces the rear of the device; negative pole faces the front).
See chapter “Changing the battery” for more information.
Fig. GridVis firmware update assistant
C
Firmware may NOT be updated via the RS485 interface.
93
UMG 96RM-E
Battery monitoring function The device indicates the condition of the battery
via the “EEE” symbol followed by “bAt” and the status number. Depending on the
status number a confirmation of the information by the operator may be
required. It is recommended that the battery be replaced.
Fault message symbol
Battery fault status
Fault number
Status EEE bAt 321
EEE bAt 322
EEE bAt 330 EEE bAt 331
EEE bAt 332
Status description · Battery capacity is <85% · Operator confirmation required
· Message appears weekly after
confirmation · Battery should be replaced
· Battery capacity is <75% · Battery capacity is too low · Can only be
detected after resumption
of mains power · Battery should be replaced
· Battery capacity OK · Message can be acknowledged · Clock is stopped and
must be set
· Battery capacity is <85% · Clock is stopped and must be set · Operator
confirmation required · Message appears weekly after
confirmation · Battery should be replaced
· Battery capacity is <75% · Clock is stopped and must be set · Operator
confirmation required · Message appears daily after confirmation · Battery
should be replaced
94
UMG 96RM-E
Replacing the battery
If the battery capacity is shown as < 75 %, we recommend that the battery be replaced.
Procedure 1. Disconnect system and device from power supply
before beginning work. 2. Discharge any electrostatic charge in your body,
e. g. by touching an earthed cabinet or metal part (radiator) connected to the
earth of the building. 3. Remove the battery from the battery compartment,
–e.g. using long-nose pliers–. The device does not need to be opened to do
this as the battery compartment can be accessed from the outside (see figure
on the right). 4. Make sure that the polarity is as shown on the insertion
opening of the battery compartment and slide the replacement battery into the
battery compartment. For this, use a battery compliant with the description in
the technical data. The battery must fulfil the safety requirements of UL1642.
Otherwise, there is a risk of combustion or explosion. 5. Dispose of the old
battery according to the legal regulations. 6. Start up the system and the
device again and check the functionality of the UMG 96-RM. Set the date and
time.
m c m
Fig. Battery insertion on the rear
Grease or dirt on the contact surfaces form a transfer resistance that will
shorten the life of the battery. Only touch the battery at the edges.
Dangerous voltage! Danger to life or risk of serious injury. Disconnect system
and device from power supply before beginning work.
Make sure that the correct type of battery is used and observe correct
polarity when changing it.
95
UMG 96RM-E
Error/warning messages
Warnings
The UMG 96RM-E can display four different error messages:
· warnings, · clock/battery errors, · fatal errors and · overranges.
In the case of warnings and fatal errors, the error message is followed by the
“EEE” symbol and an error number.
Warnings are minor errors that can be acknowledged by buttons 1 or 2. The measured values continue to be retrieved and displayed. This error is displayed after each voltage return.
Fig. Warning message with number 500 (mains frequency)
The three-digit error number consists of the error description and – if set from the UMG 96RM – one or more error causes.
Fig. Error message
Symbol for a error message Fault number
Errors EEE 500
Error description
The mains frequency could not be determined. Possible causes:
The voltage at L1 is too small. The mains frequency does not range between 45
and 65Hz. Remedy: Check the mains frequency. Select fixed frequency on the
device.
96
Clock/battery errors
Clock or battery errors are displayed together with the “EEE” symbol followed
by “bAt” and a status number. For a more detailed description please refer to
“Baterry control function” and “Replacing the battery”.
UMG 96RM-E
Fig. Clock / battery error number 330 (clock does not run and has to be set.
Major errors
When a major error occurs, the device must be sent to the manufacturer’s service center for inspection and adjustment.
Errors EEE 910
Error description Error while reading the calibration.
Internal causes: The UMG 96RM-E sometimes determines the cause of a major internal error with the following error code.
Errors 0x01 0x02 0x04 0x08
Error description EEPROM does not respond. Address overrange. Checksum error. Error in the internal I2C bus.
Example, error message 911:
The error number consists of major error 910 and internal error cause 0x01.
In this example an error occurred while reading the calibration data from
EEPROM. The device has to be returned to the manufacturer for inspection and
adjustment.
97
UMG 96RM-E
Overranges
Overranges are displayed as long as they exist and cannot be acknowledged. An overrange exists if at least one of the four voltage or current measurement inputs lies outside their specified measuring range. The “upwards” arrow indicates the phase where the overrrange occured. The appropriate error message for current path I4 is generated as shown below. The “V” and “A” symbols indicate whether the overrange occurred in the current or in the voltage path.
Examples
A = current path V = voltage path
Indication of the phase (L1/ L2/L3) with overrange. The current phase l4
overranges occur as shown in the figure below.
Overrange limits:
I UL-N
= 7 Aeff = 300 Vrms
98
A = current path
Fig.: Indication of the overrange in the current path of phase 2 (l2).
V = voltage path
Fig.: Indication of the overrange in voltage path L3.
Fig.: Indication of the overrange in current path l4
Parameter overrange
A detailed description of the error is coded in the parameter overrange (Addr. 600) in the following format:
0x F F F F F F F F
Phase 1:
1
1
Phase 2:
2
2
Phase 3:
4
4
Phase 4 (I4):
8
8
Current: U L-N
Example: Error in phase 2 in the current path: 0xF2FFFFFF Example: Error in phase 3 in the voltage path UL-N: 0xFFF4FFFF
UMG 96RM-E
99
UMG 96RM-E
Procedure in the event of faults
Possible fault
Cause
Remedy
No display No current display
External fusing for the power supply voltage has tripped.
Measurement voltage is not connected.
Replace fuse. Connect the measuring-circuit voltage.
Measurement current is not connected.
Connect measuring-circuit current.
Current displayed is too large or too small.
Voltage displayed is too large or too small. Voltage displayed is too small.
Current measurement in the wrong phase.
Check connection and correct if necessary.
Current transformer factor is incorrectly programmed.
Read out and program the current transformer transformation ratio at the current transformer.
The current peak value at the measurement input Install current transformer with a larger
was exceeded by harmonic components.
transformation ratio.
The current at the measurement input fell short of.
Install current transformer with a suitable transformation ratio.
Measurement in the wrong phase.
Check connection and correct if necessary.
Voltage transformer incorrectly programmed. Overrange.
Read out and program the voltage transformer transformation ratio at the
voltage transformer.
Install voltage transformers.
The peak voltage value at the measurement input Caution! Ensure the measurement inputs are not has been exceeded by harmonic components. overloaded.
Phase shift ind/cap.
A current path is assigned to the wrong voltage Check connection and correct if necessary. path.
Effective power, consumption/supply At least one current transformer connection
reversed.
is mixed up/reversed.
Check connection and correct if necessary.
A current path is assigned to the wrong voltage Check connection and correct if necessary. path.
100
UMG 96RM-E
Possible fault Effective power too large or too small.
An output is not responding. “EEE” in the display “EEE bAt” in the display No
connection with the device.
Device still does not work despite the above measures.
Cause
The programmed current transformer transformation ratio is incorrect. The
current path is assigned to the wrong voltage path. The programmed voltage
transformer transformation ratio is incorrect. The output was incorrectly
programmed.
The output was incorrectly connected.
See error messages.
Battery capacity is too low
RS485 – Device address is incorrect. – Different bus speeds
(Baud rate). – Wrong protocol. – Termination missing. Ethernet – IP address is
incorrect. – Incorrect addressing mode
Device defective.
Remedy Read out and program the current transformer transformation ratio at
the current transformer Check connection and correct if necessary.
Read out and program the voltage transformer transformation ratio at the
voltage transformer. Check the settings and correct if necessary. Check
connection and correct if necessary.
See “Battery control function” and “Replacing the battery”
– Adjust the device address. – Adjust speed (baud rate).
– Select the correct protocol. – Close bus with termination resistor.
– Adjust IP address at the device. – Adjust the IP address assignment mode
Send the device to the manufacturer for inspection and testing along with an
accurate fault description.
101
UMG 96RM-E
Technical data
General information Net weight (with attached connectors) Packaging weight
(including accessories) Battery Service life of background lighting
approx. 370g approx. 950g Lithium battery CR2032, 3V (approval i.a.w. UL 1642)
40000h (after this period of time the background lighting
efficiency will reduce by approx. 50 %)
Transport and storage The following information applies to devices which are transported or stored in the original packaging.
Free fall
1m
Temperature
K55 (-25°C to +70°C)
Relative humidity
0 to 90 % RH
Ambient conditions during operation The UMG 96RM is intended for weather-
protected, stationary use. Protection class II i.a.w. IEC 60536 (VDE 0106,
Part 1). Operating temperature range Relative humidity Operating altitude
Degree of pollution Mounting position Ventilation Protection against ingress
of solid foreign bodies and water – Front side – Rear side – Front with seal
102
K55 (-10°C .. +55°C) 0 to 75 % RH 0 .. 2000m above sea level 2 vertical Forced
ventilation is not required.
IP40 i.a.w. EN60529 IP20 i.a.w. EN60529 IP54 i.a.w. EN60529
UMG 96RM-E
Power supply voltage
Option 230V
Nominal range
90V – 277V (50/60Hz) or DC 90V – 250V; 300V CATIII
Power consumption
max. 7.5VA / 4W
Option 24V
Nominal range
24V – 90V AC / DC; 150V CATIII
Power consumption
max. 7.5VA / 5W
Operating range
+-10% of nominal range
Internal fuse, not replaceable
Typ T1A / 250V/277V according IEC 60127
Recommended overcurrent protection device for line protection (certified under UL)
Option 230V: 6 – 16A Option 24V: 1 – 6A (Char. B)
Recommendation for a maximum number of devices on a circuit breaker: Option 230V : Circuit breaker B6A: max. 4 devices / Circuit breaker B16A: max. 11 devices Option 24V : Circuit breaker B6A: max. 3 devices / Circuit breaker B16A: max. 9 devices
103
UMG 96RM-E
Digital outputs 2 and 3 optional digital outputs, semiconductor relays, not short-circuit proof.
Switching voltage
max. 33V AC, 60V DC
Switching current
max. 50mAeff AC/DC
Response time
10/12 periods + 10ms *
Pulse output (energy pulse)
max. 50Hz
- Response time e.g. at 50Hz: 200ms + 10ms = 210 ms
Digital inputs 3 optional digital inputs, semiconductor relays, not short- circuit proof.
Maximum counter frequency
20Hz
Input signal present
18V .. 28V DC (typical 4mA)
Input signal not present
0 .. 5V DC, current less than 0.5mA
104
UMG 96RM-E
Temperature measurement input 2 optional inputs. Update time
Connectable sensors
Total burden (sensor + cable)
1 second PT100, PT1000, KTY83, KTY84 max. 4 kOhm
Sensor type KTY83 KTY84 PT100 PT1000
Temperature range -55°C … +175°C -40°C … +300°C -99°C … +500°C -99°C … +500°C
Resistor range 500Ohm … 2,6kOhm 350Ohm … 2,6kOhm 60Ohm … 180Ohm 600Ohm … 1,8kOhm
Uncertainty in measurement ± 1,5% rng ± 1,5% rng ± 1,5% rng ± 1,5% rng
Cable length (digital inputs and outputs, temperature measurement input)
Up to 30m
Unshielded
More than 30m
Shielded
105
UMG 96RM-E
Serial interface RS485 – Modbus RTU/Slave Stripping length
9.6kbps, 19.2kbps, 38.4kbps, 57.6 kbps, 115.2kbps 7mm
Measuring voltage
Three-phase 4-conductor systems with nominal voltages up to
277V/480V (+-10%)
Three-phase 3-conductor systems, unearthed, with nominal voltages up to
IT 480V (+-10%)
Overvoltage category
300V CAT III
Measurement surge voltage
4kV
Measurement range L-N
- .. 300Vrms (max. surge voltage 520Vrms )
Measurement range L-L
- .. 520Vrms (max. surge voltage 900Vrms )
Resolution
0.01V
Crest factor
2,45 (related to the measurement range)
Impedance
3M/phase
Power consumption
apporx. 0,1VA
Sampling frequency
21.33kHz (50Hz); 25.6 kHz (60Hz) per measurement channel
Frequency range of the basic oscillation – Resolution
45Hz .. 65Hz 0.01Hz
- The UMG 96RM-E can only detect measurements when a voltage L1-N greater than 20V eff (4-wire measurement) at voltage input V1 or a voltage L1-L2 greater than 34V eff (3-wire measurement) is applied.
106
Current measurement I1 – I4 Rated current Measurement range Crest factor
Resolution Overvoltage category Measurement surge voltage Power consumption
Overload for 1 sec. Sampling frequency
Residual current measurement I5 / I6 Rated current Measurement range Operating
current Resolution Crest factor Burden Overload for 1 sec. Sustained overload
Overload for 20 ms Residual current measurement
UMG 96RM-E
5A 0 .. 6Arms 1.98 0.1mA (Display 0.01A) 300V CAT II 2kV approx. 0.2 VA
(Ri=5mOhm) 120A (sinusoidal) 20kHz
30mArms 0 .. 40mArms 50µA 1µA 1.414 (related to 40mA) 4 Ohm 5A 1A 50A i.a.w.
IEC/TR 60755 (2008-01), Type A
Type B
107
UMG 96RM-E
Ethernet connection Connection Functions Protocols
RJ45
Modbus gateway, embedded web server (HTTP)
TCP/IP, DHCP-Client (BootP), Modbus/TCP (Port 502), ICMP (Ping), NTP, Modbus
RTU over Ethernet (Port 8000), FTP, SNMP
Terminal connection capacity (power supply voltage) Conductors to be connected. Only one conductor can be connected per terminal!
Single core, multi-core, fine-stranded
0.2 – 2.5mm2, AWG 26 – 12
Terminal pins, core end sheath
0.2 – 2.5mm2
Tightening torque
0.4 – 0.5Nm
Stripping length
7mm
108
UMG 96RM-E
Terminal connection capacity (voltage and current measurement) Conductors to be connected. Only one conductor can be connected per terminal!
Current
Single core, multi-core, fine-stranded
0.2 – 2.5mm2, AWG 26-12
Terminal pins, core end sheath
0.2 – 2.5mm2
Tightening torque
0.4 – 0.5Nm
Stripping length
7mm
Voltage 0.08 – 4.0mm2, AWG 28-12 0.2 – 2.5mm2 0.4 – 0.5Nm 7mm
Terminal connection capacity (residual current or temperature measurement inputs and digital inputs / outputs)
Rigid/flexible
0.14 – 1.5mm2, AWG 28-16
Flexible with core end sheath without plastic sleeve 0.20 – 1.5mm2
Flexible with core end sheath with plastic sleeve
0.20 – 1.5mm2
Tightening torque
0.20 – 0.25Nm
Stripping length
7mm
Terminal connection capacity: serial interface Single core, multi-core, fine- stranded Terminal pins, core end sheath Tightening torque Stripping length
0.20 – 1.5mm2 0.20 – 1.5mm2 0.20 – 0.25Nm 7mm
109
UMG 96RM-E
Function parameters
Function Total effective power Total reactive power Total apparent power Total
active energy
Symbol P QA, Qv SA, Sv Ea
Total reactive power
ErA, ErV
Total apparent energy
EapA, EapV
Frequency
f
Phase current I1 – I3
I
Measured neutral conductor current l4 IN
Residual currents I5, I6
IRes
Computed neutral conductor current INc
Voltage
U L-N
Voltage
U L-L
Power factor
PFA, PFV
Short-term flicker, long-term flicker Pst, Plt
Voltage drops (L-N)
Udip
Voltage increases (L-N)
Uswl
Transient overvoltages
Utr
Voltage drops
Unit
Voltage unbalance (L-N) 1)
Unba
Voltage unbalance (L-N) 2)
Unb
Voltage harmonics
Uh
THD of the voltage 3)
THDu
THD of the voltage 4)
THD-Ru
110
Precision class
0.55) (IEC61557-12)
1
(IEC61557-12)
0.55) (IEC61557-12)
0.55) (IEC61557-12) 0.5S5) (IEC62053-22)
1
(IEC61557-12)
0.55) (IEC61557-12)
0.05 (IEC61557-12)
0.2 (IEC61557-12)
1
(IEC61557-12)
1
(IEC61557-12)
1.0 (IEC61557-12)
0.2 (IEC61557-12)
0.2 (IEC61557-12)
0.5 (IEC61557-12)
–
–
–
–
–
–
–
Kl. 1 (IEC61000-4-7)
1.0 (IEC61557-12)
–
Measurement range 0 .. 5.4 kW 0 .. 5.4 kvar 0 .. 5.4 kVA 0 .. 5.4 kWh
0 .. 5.4 kvarh 0 .. 5.4 kVAh 45 .. 65Hz 0 .. 6 Arms 0 .. 6 Arms 0 .. 40 mArms
0.03 .. 25 A 10 .. 300 Vrms 18 .. 520 Vrms 0.00 .. 1.00 up to 2.5 kHz up to
2.5 kHz –
Display range 0 W .. 999 GW 0 varh .. 999 Gvar 0 VA .. 999 GVA 0 Wh ..
999 GWh
0 varh .. 999 Gvarh 0 VAh .. 999 GVAh 45.00Hz .. 65.00Hz 0 A .. 999 kA 0 A
.. 999 kA 0 A .. 999 kA 0.03 A .. 999 kA 0 V .. 999 kV 0 V .. 999 kV 0.00 ..
1.00 0 V .. 999 kV 0 % .. 999 % –
UMG 96RM-E
Function Current harmonics THD of the current 3) THD of the current 4) Mains signal voltage
Symbol Ih THDi THD-Ri MSV
Precision class Kl. 1 (IEC61000-4-7) 1.0 (IEC61557-12) –
Measurement range up to 2.5 kHz up to 2.5 kHz –
Display range 0 A .. 999 kA 0 % .. 999 % –
- Referred to amplitude. 2) Referred to phase and amplitude. 3) Referred to
mains frequency. 4) Referred to root mean square value. 5) Accuracy class
0.5/0.5S with ../5 A transformer.
Accuracy class 1 with ../1 A transformer.
- The display returns to 0 W when the maximum total energy values are reached.
111
UMG 96RM-E
Parameter and modbus address list
The following excerpt of the parameter list provides the settings that are
necessary for the proper operation of the UMG 96RM-E, such as current
transformer and device addresses. The valuesin the parameter list can be set
and read.
The excerpt of the measured value list includes the measured and calculated
values, output status data and recorded values to be read.
C C
Table 1 Parameter list
A complete overview of the parameters and measured values as well as
explanations regarding the selected measured values is filed in the document
“Modbus Address List” on the CD or Internet.
The addresses contained in the description can be adjusted directly on the
device in the range from 0 to 800. The address range above 1000 can only be
processed via modbus!
Address
0 1
format
SHORT SHORT
2
SHORT
3
SHORT
10
FLOAT
12
FLOAT
112
RD/WR
Unit
Note
Adjustment range Default
RD/WR
–
Device address
0..255 (*1)
1
RD/WR
kbps
Baud rate (0=9.6kbps, 1=19.2kbps, 0..7
4
2=38.4kbps, 3= 57.6kbps
(5..7 only for
4=115.2kbps)
internal use)
RD/WR
–
Modbus Master
0, 1
0
0=Slave, 1=Master (if Ethernet is provided)
RD/WR
–
Stoppbits
0..3
0
0 = 1 Bit, none parity
1 = 2 Bits, none parity
2 = 1 Bit, even parity
RD/WR
A
3 = 1 Bit, uneven parity
Current transformer I1, primary
0..1000000 (*2)
5
RD/WR
A
Current transformer l1, sec.
1..5
5
(1) Values 0 and 248 through 255 are reserved and may not be used. (2) The adjustable value of 0 does not produce any useful work values and must not be used.
UMG 96RM-E
Address format
RD/WR
Unit
14
FLOAT
RD/WR
V
16
FLOAT
RD/WR
V
18
FLOAT
RD/WR
A
20
FLOAT
RD/WR
A
22
FLOAT
RD/WR
V
24
FLOAT
RD/WR
V
26
FLOAT
RD/WR
A
28
FLOAT
RD/WR
A
30
FLOAT
RD/WR
V
32
FLOAT
RD/WR
V
34
SHORT RD/WR
Hz
35
SHORT RD/WR
–
36
SHORT RD/WR
–
37
SHORT RD/WR
–
38
SHORT RD/WR
–
39
SHORT RD/WR
s
40
SHORT RD/WR
–
41
SHORT RD/WR
–
42
SHORT RD/WR
–
Note
Voltage transformer V1, prim. Voltage transformer V1, sec. Current transformer
I2, primary Current transformer I2, sec. Voltage transformer V2, prim. Voltage
transformer V2, sec. Current transformer I3, primary Current transformer I3,
sec. Voltage transformer V3, prim. Voltage transformer V3, sec. Frequency
estimation 0=Auto, 45 .. 65=Hz Display contrast 0 (low), 9 (high) Background
lighting 0 (dark), 9 (bright) Display profile 0=preset display profile
1=preset display profile 2=preset display profile 3=customizable display
profile Display rotation profile 0..2=preset display rotation profile
3=customizable display rotation profile Rotation time Reporting time, I
Reporting time, P Reporting time, U
Adjustment range
0..1000000 (2) 100, 400 0..1000000 (2) 1..5 0..1000000 100, 400 0..1000000
1..5 0..1000000 100, 400 0, 45 .. 65
Default
400 400 5 5 400 400 5 5 400 400 0
0 .. 9
5
0 .. 9
6
0 .. 3
0
0 .. 3
0
0 .. 60
0
0 .. 8*
6
0 .. 8*
6
0 .. 8*
6
- 0 = 5sec.; 1 = 10sec.; 2 = 15sec.; 3 = 30sec.; 4 = 1min.; 5 = 5min.; 6 = 8min.; 7 = 10min.; 8 = 15min. 113
UMG 96RM-E
Address format
RD/WR
Unit
Note
Adjustment range Default
45 USHORT RD/WR
mA
50 SHORT RD/WR
–
Response threshold of current measuring I1 .. I3 Password
0 .. 200 0 .. 999
5 0 (No password)
100 SHORT RD/WR
101 SHORT RD/WR
102 FLOAT
RD/WR
104 FLOAT
RD/WR
106 SHORT RD/WR
206 SHORT RD/WR 207 SHORT RD/WR 208 SHORT RD/WR
–
–
Wh
Wh
10ms
s s –
500 SHORT RD/WR
–
501 SHORT RD/WR
–
502 SHORT RD/WR
–
503 SHORT RD/WR
–
504 SHORT RD/WR
–
505 SHORT RD/WR
–
506 SHORT RD/WR
–
507 SHORT RD/WR
–
508 SHORT RD/WR
–
Measured value address, Digital output 1 Measured value address, Digital output 2 Pulse value, Digital output 1 Pulse value, Digital output 2 Min. pulse length (1=10ms) Digital output 1/2 “Drag indicator” period duration “Drag indicator” capture time Config. Digital input 1 0= internal synchronisation 1= external synchronisation (NO) 2= external synchronisation (NC) Connector pin assignment, I L1 Connector pin assignment, I L2 Connector pin assignment, I L3 Connector pin assignment, U L1 Connector pin assignment, U L2 Connector pin assignment, U L3 Min- und Reset max. values Reset energy meter force EEPROM descr.
0..32000
874
0..32000
882
-1000000..+1000000 1000
-1000000..+1000000 1000
1..1000 300..3600 1..20 0 .. 2
5 (=50ms) 900 10 0
-3..0..+3 1)
+1
-3..0..+3 1)
+2
-3..0..+3 1)
+3
0..3 1)
1
0..3 1)
2
0..3 1)
3
0..1
0
0..1
0
0..1
0
Note: Energy values and min-max values are recorded into the EEPROM every 5 minutes.
- 0 = No measurement of the current or voltage path.
114
- The setting 8 is equal setting 0.
UMG 96RM-E
Address format
RD/WR
Unit
Note
509 SHORT RD/WR
–
510 SHORT RD/WR
–
511 SHORT RD/WR
–
Voltage connection diagram Current connection diagram Relevant voltage for THD and FFT
The THD and FFT voltages can be displayed as L-N or L-L values. 0=LN, 1=LL
512 SHORT RD/WR
–
513 SHORT RD/WR
–
514 SHORT RD/WR
–
515 SHORT RD/WR
–
516 SHORT RD/WR
–
517 SHORT RD/WR
–
Year Month Day Hour Minute Second
600 UINT
RD/WR
–
Overrange
750 SHORT RD
–
754 SERNR RD
–
756 SERNR RD
–
Software release Serial number Production no.
Adjustment range
0..8 2) 0..8
0, 1
Default
0 0
0
0..99 0..12 0..31 0..24 0..59 0..59
0..0xFFFFFFFF
746 SHORT RD/WR
s
Period of time after which the
backlight will switch to standby
60 .. 9999
900
747 SHORT RD/WR
s
Brightness of the standby backlight 0 .. 9
0
C
Only the first 3 digits (###) of a value are displayed on the screen. Values greater than 1000 are marked with “k”. Example: 003k = 3000
115
UMG 96RM-E
Table 2 – Modbus address list (frequently needed measured values)
C
The addresses contained in the description can be adjusted directly on the device in the range from 0 to 800. The address range 800-999 is available for programming comparators on the device. The addresses above 1000 can only be processed via modbus!
C
A complete overview of the parameters and measured values as well as explanations regarding the selected measured values is filed in the document “Modbus Address List” on the CD or Internet.
Modbus Address
19000 19002 19004 19006 19008 19010 19012 19014 19016 19018 19020 19022 19024
19026 19028 19030
116
address via Display
808 810 812 814 816 818 860 862 864 866 868 870 872 874 884 886
Format RD/WR Unit
float
RD
V
float
RD
V
float
RD
V
float
RD
V
float
RD
V
float
RD
V
float
RD
A
float
RD
A
float
RD
A
float
RD
A
float
RD
W
float
RD
W
float
RD
W
float
RD
W
float
RD
VA
float
RD
VA
Note
Voltage L1-N Voltage L2-N Voltage L3-N Voltage L1-L2 Voltage L2-L3 Voltage
L3-L1 Current, L1 Current, L2 Current, L3 Vector sum; IN=I1+I2+I3 Real power
L1 Real power L2 Real power L3 Sum; Psum3=P1+P2+P3 Apparent power S L1
Apparent power S L2
UMG 96RM-E
Modbus address
19032 19034 19036 19038 19040 19042 19044 19046 19048 19050 19052 19054 19056
19058 19060 19062 19064 19066 19068 19070 19072 19074 19076 19078 19080 19082
19084 19086 19088 19090 19092
Address via Display
888 890 876 878 880 882 820 822 824 800 –
Format RD/WR Unit
float
RD
VA
float
RD
VA
float
RD
var
float
RD
var
float
RD
var
float
RD
var
float
RD
–
float
RD
–
float
RD
–
float
RD
Hz
float
RD
–
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
Wh
float
RD
VAh
float
RD
VAh
float
RD
VAh
float
RD
VAh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
Note
Apparent power S L3 Sum; Ssum3=S1+S2+S3 Fund. reactive power (mains frequ.) Q
L1 Fund. reactive power (mains frequ.) Q L2 Fund. reactive power (mains
frequ.) Q L3 Sum; Qsum3=Q1+Q2+Q3 Fund.power factor, CosPhi; U L1-N IL1
Fund.power factor, CosPhi; U L2-N IL2 Fund.power factor, CosPhi; U L3-N IL3
Measured frequency Rotation field; 1=right, 0=none, -1=left Real energy L1
Real energy L2 Real energy L3 Real energy L1..L3 Real energy L1, consumed Real
energy L2, consumed Real energy L3, consumed Real energy L1..L3, consumed,
rate 1 Real energy L1, delivered Real energy L2, delivered Real energy L3,
delivered Real energy L1..L3, delivered Apparent energy L1 Apparent energy L2
Apparent energy L3 Apparent energy L1..L3 Reactive energy L1 Reactive energy
L2 Reactive energy L3 Reactive energy L1..L3
117
UMG 96RM-E
Modbus address
19094 19096 19098 19100 19102 19104 19106 19108 19110 19112 19114 19116 19118
19120
Address via Display
836 838 840 908 910 912
Format RD/WR Unit
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
varh
float
RD
%
float
RD
%
float
RD
%
float
RD
%
float
RD
%
float
RD
%
Modbus address
20006 20008 20010 20012 20014 20016 20018
Address via display
–
Format RD/WR Unit
float
RD/WR A
float
RD/WR A
float
RD/WR A
float
RD/WR A
float
RD/WR A
float
RD/WR A
float
RD/WR A
Note
Reactive energy, inductive, L1 Reactive energy, inductive, L2 Reactive energy,
inductive, L3 Reactive energy L1..L3, ind. Reactive energy, capacitive, L1
Reactive energy, capacitive, L2 Reactive energy, capacitive, L3 Reactive
energy L1..L3, cap. Harmonic, THD, U L1-N Harmonic, THD, U L2-N Harmonic, THD,
U L3-N Harmonic, THD, I L1 Harmonic, THD, I L2 Harmonic, THD, I L3
Note
Adjustment range Default
TDD I4, full-load current
0…1000000
150
current transformer I4, primary 0…1000000
5
current transformer I4, secondary 1..5
5
current transformer I5, primary 0..1000000
5
current transformer I5, secondary 0,001…5
5
current transformer I6, primary 0…1000000
5
current transformer I6, secondary 0,001…5
5
118
Number formats
Type short ushort int uint float
Size 16 bit 16 bit 32 bit 32 bit 32 bit
UMG 96RM-E
Minimum -215 0 -231 0 IEEE 754
Maximum 215 -1 216 -1 231 -1 232 -1 IEEE 754
NOTE
Note on saving measured values and configuration data: Since the following
measured values are saved in a non-volatile memory every 5 minutes, the
recording may be interrupted for a maximum of 5 minutes in case the operating
voltage fails: · Comparator timer · S0 counter statuses · Min. / Max. / mean
values
(without the date and time) · Energy values Configuration data is saved
immediately. A detailed Modbus address and parameter list can be found at
www.janitza.de
119
UMG 96RM-E Dimension diagrams All dimensions provided in mm
Rear view
View from below
120
91,5
110,5
Side view
ca. 90 72 (depth without connector)
UMG 96RM-E
Cut-out size
92+0,8
9 6 91,5 104 92+0,8
6
57
78
121
UMG 96RM-E
Measured value displays overview
A01
Measured values L1-N voltage L2-N voltage L3-N voltage
A02
Measured values L1-L2 voltage L2-L3 voltage L3-L1 voltage
A03
Measured values L1 current L2 current L3 current
A04
B01
Mean values L1-N voltage L2-N voltage L3-N voltage
B02
Mean values L1-L2 voltage L2-L3 voltage L3-L1 voltage
B03
Mean values L1 current L2 current L3 current
B04
C01
Maximum values L1-N voltage L2-N voltage L3-N voltage
C02
Maximum values L1-L2 voltage L2-L3 voltage L3-L1 voltage
C03
Maximum values L1 current L2 current L3 current
C04
Measured value Sum
Current in the N line
Mean value Sum
Current in the N line
Maximum value Measured value sum Current in the N line
A05
Measured values L1 active power L2 active power L3 active power
A06
Measured value Sum
Active power
B05
Mean value L1 active power L2 active power L3 active power
B06
Mean value Sum
Active power
C05
Maximum values L1 active power L2 active power L3 active power
C06
Maximum value Sum
Active power
A07
Measured values L1 apparent power L2 apparent power L3 apparent power
B07
Mean values L1 apparent power L2 apparent power L3 apparent power
C07
Maximum values L1 apparent power L2 apparent power L3 apparent power
122
D01 Minimum values
L1-N voltage L2-N voltage L3-N voltage
D02 Minimum values
L1-L2 voltage L2-L3 voltage L3-L1 voltage
D03 Max. values (mean value)
L1 current L2 current L3 current
D04
Maximum values Sum mean value Current in the N line
D06 Maximum value
Sum Active power mean
value
A08
Measured value Sum
Apparent power
B08
Mean value Sum
Apparent power
C08
Maximum value Sum
Apparent power
A09
Measured values L1 reactive power L2 reactive power L3 reactive power
A10
B09
Mean values L1 reactive power L2 reactive power L3 reactive power
B10
C09
Maximum values (ind) L1 reactive power L2 reactive power L3 reactive power
C10
Measured value Sum of reactive power
Mean value Sum of reactive power
Maximum value (ind) Sum of reactive power
A11
Measured value Distortion factor (THD)
U L1
A12
Measured value Distortion factor (THD)
I L1
A13
Maximum value Distortion factor (THD)
U L1
A14
Maximum value Distortion factor (THD)
I L1
B11
Measured value Distortion factor (THD)
U L2
B12
Measured value Distortion factor (THD)
I L2
B13
Maximum value Distortion factor (THD)
U L2
B14
Maximum value Distortion factor (THD)
I L2
C11
Measured value Distortion factor (THD)
U L3
C12
Measured value Distortion factor (THD)
I L3
C13
Maximum value Distortion factor (THD)
U L3
C14
Maximum value Distortion factor (THD)
I L3
UMG 96RM-E
123
UMG 96RM-E
A15 Measured value
L1 cos(phi) L2 cos(phi) L3 cos(phi)
A16
Measured value Sum of cos(phi)
B16
Mean value Sum of cos(phi)
A17 Measured value Frequency L1 Rotation field display
A18 Measured value Total active energy (without a backstop)
A19
Measured value (ind) Reactive energy
A20
B18
Measured value Total active energy
(import)
B19 Measured value
Sum Reactive energy
cap.
B20
C18
Measured value Total active energy
(export)
C19 Measured value
Sum Reactive energy
ind.
Operating hours
Comparator 1A*
meter 1
Total running time
…
A21
B21
Measured value
Measured value
1st. harmonic U L1
3rd. harmonic U L1
…
Marked menus are not displayed in the factory presetting.
124
D18
Measured value Sum
Apparent energy
D19
Measured value Reactive energy L1
ind. (tariff 1)
G20
Comparator 2C* Total running time
E18
Measured value Active energy L1 Import (tariff 1)
E19
Measured value Reactive energy L2
ind. (tariff 1)
H21
Measured value 15th. harmonic
U L1
- Only the first 6 comparators are shown.
F18
Measured value Active energy L2 Import (tariff 1)
F19
Measured value Reactive energy L3
ind. (tariff 1)
G18
Measured value Active energy L3 Import (tariff 1)
A22
Measured value 1st. harmonic
U L2
A23
Measured value 1st. harmonic
U L3
A24
Measured value 1st. harmonic
I L1
A25
Measured value 1st. harmonic
I L2
A26
Measured value 1st. harmonic
I L3
A27
Maximum value 1st. harmonic
U L1
A28
Maximum value 1st. harmonic
U L2
B22
Measured value 3rd. harmonic
U L2
B23
Measured value 3rd. harmonic
U L3
B24
Measured value 3rd. harmonic
I L1
B25
Measured value 3rd. harmonic
I L2
B26
Measured value 3rd. harmonic
I L3
B27
Maximum value 3rd. harmonic
U L1
B28
Maximum value 3rd. harmonic
U L2
H22
Measured value
…
15th. harmonic U L2
H23
Measured value
…
15th. harmonic U L3
H24
Measured value
…
15th. harmonic I L1
H25
Measured value
…
15th. harmonic I L2
H26
Measured value
…
15th. harmonic I L3
H27
Maximum value
…
15th. harmonic U L1
H28
Maximum value
…
15th. harmonic U L2
Marked menus are not displayed in the factory presetting.
UMG 96RM-E
125
UMG 96RM-E
A29 Maximum value 1st. harmonic
U L3
A30 Maximum value 1st. harmonic
I L1
A31 Maximum value 1st. harmonic
I L2
A32 Maximum value 1st. harmonic
I L3
A33
Measured values L4 current
A34
Measured values L5 current
A35
Measured values L6 current
B29 Maximum value 3rd. harmonic
U L3
B30 Maximum value 3rd. harmonic
I L1
B31 Maximum value 3rd. harmonic
I L2
B32 Maximum value 3rd. harmonic
I L3
B33
Mean values L4 current
B34
Mean values L5 current
B35
Mean values L6 current
…
…
…
…
C33 Maximum values
L4 current C34
Maximum values L5 current C35
Maximum values L6 current
Marked menus are not displayed in the factory presetting.
126
H29
Maximum value 15th. harmonic
U L3
H30
Maximum value 15th. harmonic
I L1
H31
Maximum value 15th. harmonic
I L2
H32
Maximum value 15th. harmonic
I L3
D33
Max. values (mean value)
L4 current
D34
Max. values (mean value)
L5 current
D35
Max. values (mean value)
L6 current
Even and odd harmonics up to the 40th order can be called up via the GridVis software and can be viewed in the software.
FCC Compliance Statement
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.
Code of Federal Regulations, Title 47, Part 15, Subpart B Unintentional
Radiators
UMG 96RM-E
127
UMG 96RM-E
Connection example 1 (with residual current measurement IPE / IRES)
–
24V = DC +
K1 K2
-
=
– S1 S2 S3
– -
K3 K4 K5
IDIFF
0-30 mA 4)
IPE
0-30 mA 4)
13 14 15 GGruropuppe 11
28 29 30 31 32 33 34 35 36 37
GGrruopuppe 22
I5
I6
Digitaall-inEpinugtsä/noguetp/Autussgänge
AAnnaalologgi-nEpiuntgsänge
UMG 96RM-E (RCM)
B A
16 17 BA RS485
PC
PVeorwseorrgsunpgpslyspvoalntangueng N/- L/+
12
MSpeansunruinnggsvmoletasgseung V1 V2 V3 VN 3456
CuSrrterontmmmeeasssuurenmg ent
S2 S1
S2 S1
S2 S1
I4
S2 S1
19 18
VerCbornasuucmheerr Ethernet
10/100Base-T RJ45
128
230V/400V 50Hz
S2
S1
L1
S2
S1
L2
S2
S1
L3
S2
S1
N
- UL / IEC approved overcurrent protection system (6A Char. B)
- UL / IEC approved overcurrent protection system (10A Class CC / Char. C)
- Jumpers (external) 4) Jumpers between connectors
32-33 and 35-36 are only required from hardware-release 104!
UMG 96RM-E
Connection example 2 (with temperature and residual current measurement)
–
24V = DC +
K1 K2
-
=
– S1 S2 S3
– -
K3 K4 K5
PT100
IDIFF
0-30 mA 4)
13 14 15 GGruropuppe 1
28 29 30 31 32 33 34 35 36 37
GGrruopuppe 2
I5
I6
Digitaall-inEpinugtsä/noguetp/Autussgänge
AnAanloaglo-gEinpguätnsge
UMG 96RM-E (RCM)
B A
16 17
B
A
RS485
PC
VeCrobrnsaucmherer Ethernet
10/100Base-T RJ45
PVeorwseorrgsupnpglsyspvoalntangueng N/- L/+
12
MSpeansunruinnggsvmoletasgseung V1 V2 V3 VN 3456
S2 S1
CSutrrroemntmmeesassuunregment
S2 S1
S2 S1
I4
S2 S1
19 18
230V/400V 50Hz
S2
S1
L1
S2
S1
L2
S2
S1
L3
S2
S1
N
- UL / IEC approved overcurrent protection system (6A Char. B)
- UL / IEC approved overcurrent protection system (10A Class CC / Char. C)
- Jumpers (external) 4) Jumpers between connectors
35-36 are only required from hardware-release 104!
129
UMG 96RM-E
Basic functions quick guide
Adjusting the current transformer Switch to the programming mode: · Press
button 1 and 2 simultaneously for around
1 second to switch to the programming mode. The symbols for the programming
mode PRG and the current transformer mode CT appear on the display. · Press
button 1 to confirm the selection. · The first digit of the input field for
the primary current is flashing. Adjusting the primary current · Press button
2 to change the flashing digit. · Press button 1 to select the next digit to
be changed. The selected digit to be changed is flashing. If the entire number
is flashing, press button 2 to move the decimal point. Adjusting the secondary
current · Only 1A or 5A can be set as secondary current. · Press button 1 to
select the secondary current. · Press button 2 to change the flashing digit.
Exit programming mode · Press button 1 and 2 simultaneously for around 1
second to switch to the display mode.
View measured values
Adjusting current transformer, primary current
Display Programming mode
Adjusting current transformer, secondary current
Current transformer symbol (in the programming mode only)
Switch to the display mode: · If you are still in the programming mode (PRG
and
CT icons displayed on the screen), press button 1 and 2 simultaneously for
around 1 second to switch to the display mode. · A measured value display
(e.g. voltage) appears
Button controls · Press button 2 to change
the measured value display for current, voltage, power, etc. · Press button 1
to change the mean values, max. values etc. associated with the measured
value.
130
UMG 96RM-E
TCP/IP addressing quick guide
Manual TCP/IP settings Switch to the programming mode: · Press button 1 and 2
simultaneously for around
1 second to switch to the programming mode. The symbols for the programming
mode PRG and the current transformer mode CT appear on the display. Adjust the
TCP/IP address (Adr.) · Press button 2 to select “Adr” · Press button 1 to
enable the first digit (byte 0) of the address (digit is flashing). Press
button 2 to set the digit. · Press button 1 to select the next digit
(flashing) and set the desired digit by pressing button 2. · If byte is set to
0, the address can be set from 1 to 3 by pressing button 1. Then the display
jumps back to Byte 0 (no digit is flashing). Subnet mask (SUb) · Press button
2 to select the subnet mask and set it in a manner similar to adjusting the
address by pressing button 1 and 2. Adjusting the gateway address (GAt) · Use
button 2 and 1 to set the gateway in a manner similar to adjusting the
address. Exit programming mode · Press button 1 and 2 simultaneously to exit
the mode or wait 60 seconds.
Description
Byte identification (e.g. byte 0) of the address Address data, byte 0
Fig. TCP/IP address, byte 1 A TCP / IP address consists of 4 bytes with the
following structure:
Byte 0 Byte 1 Byte 2 Byte 3
xxx.xxx.xxx.xxx
Enable dynamic IP allocation (dyn) Device/gateway address and subnet mask are
assigned by a DHCP server and enable automatic integration of the device into
the existing mains. · When in programming mode, press button 2
repeatedly to display the tab labelled “dYn IP”. · Press button 1 to enable
the parameter “on”
or “oFF” (parameter is flashing). Press button 2 to set the desired status and
press button 1 to confirm the selection. · Exit programming mode.
131
UMG 96RM-E
132