The modularity of the MSD Single-Axis Servo Drive Compact guarantees you optimum
integration into the machine process. Whether in high-speed eld bus communication
with the central multi-axis machine controller or with distributed programmable Motion
Control intelligence in the servo drive, the MSD Single-Axis Servo Drive Compact is a
master o
The German version is the original of this Operation Manual.
We reserve the right to make technical changes.
This Operation Manual has been prepared based on DIN EN 82079-1. The content
was compiled with the greatest care and attention, and based on the latest information
available to us.
We should nevertheless point out that this document cannot always be updated in line
with ongoing technical developments in our products.
Information and specications may be subject to change at any time. For information on
the latest version please visit drives-support@moog.com
Table of contents
1 General .................................................................................... 5
1.1 Target group ............................................................................................................. 5
The product CD from Moog contains the complete documentation for the related
product series. The documentation for a product series includes the Operation Manual
(hardware description), Device Help (software description) as well as further User
Manuals (e.g. field bus description) and Specifications. They are available in the formats
PDF, HTML or chm.
1.1 Target group
Dear user,
the documentation forms part of the device and contains important information on
operation and service. It is aimed at all persons who undertake mounting, installation,
commissioning and servicing work on the product.
1.2 Prerequisites
Prerequisites for the usage of devices from Moog:
yThe documentation on the devices is to be stored so it legible, accessible at all times and for the
entire life of the product.
yRead and ensure you under Date the documentation on your device.
yQualication: to prevent injury or damage, personnel may only work on the device if they have
electrical engineering qualications.
yKnowledge required:
− National health and safety regulations (e.g. VBG 4 in Germany)
− Mounting, installation, commissioning and operation of the device
Work in other areas, for example transport, storage and disposal is only allowed to be
undertaken by trained personnel.
NOTE
This Operation Manual applies to the MSD Single-Axis Servo Drive Compact
(referred to in the following as the servo drive). This manual does not replace the
Operation Manuals for the MSD Single- and Multi-Axis Servo Drive.
MSD Power Supply Unit
Multi-Axis SystemOperation Manual
MSD Servo Drive
SERCOS II User Manual
MSD Servo Drive
SERCOS III User Manual
MSD Servo Drive Field bus
systems CANopen/EtherCAT User Manual
MSD Servo Drive
Field bus systems
Profibus/Profine
User Manual
Modular Multi-Axis Servo
Drive System - MSD Ordering Catalog
MSD Servo Drive - Device
Help
Program help
D
riveADminsitrAtor 5
Moog
PC user software
Safety, mechanical installation, electrical installation,
commissioning, diagnostics, specifications certification and
applicable standards, technical data
Safety, mechanical installation, electrical installation,
commissioning, diagnostics, specifications certification and
applicable standards, technical data
Safety, mechanical installation, electrical installation, commissioning,
diagnostics, STO, operation with AC-AC Servo Drive as supply,
planning, application example, specifications certification and
applicable standards, technical data
Safety, mechanical installation, electrical installation, commissioning,
diagnostics, specification certification and applicable standards
technical data
Safety, commissioning, communication phases, parameter interface,
error, warning and status messages, operation modes, weighting,
referencing, touchprobe, parameter lists
Safety, installation and connection, commissioning and configuration
parameterisation, data transmission, scaling and weighting,
functionality, error message and diagnostics, parameter lists
Safety, commissioning, data transmission, operation modes,
referencing, parameters, technical data
Description and configuration of the parameters for the MSD Se vo
Drive on the PROFIBUS/PROFINET field bus syste
Information, notes on ordering, specifications and
technical data on:
MSD Single-Axis Servo Drive Compact, MSD Single-Axis System,
MSD Multi-Axis System, safety technology, communication,
technology, function packages, accessories and motors
Description of the software functionality MSD Servo Drive,
firmware versions
- MSD Single-Axis Servo Drive Compact from V1.30-xx
- MSD Single-Axis System from V3.25-xx
- MSD Multi-Axis System from V3.25-xx
Context-sensitive help for Moog DriveADministrAtorversion 5.x
graphic PC user software for initial commissioning and serial
commissioning, operation, diagnostics and project management
The MSD Single-Axis Servo Drive Compact has the article designation
G394-xxx-xxx-xxx. The provides information on the related variant of the supplied
MSD Servo Drive. The signicance of the individual characters of the article designation
is given in the following order code.
You will nd the complete order code with all values in the MSD Ordering Catalog.
G394 -
Rated current
Option 1 (Communication)
Option 2 (Technology)
Option 3 (Safety)
Option 4 (Function package)
Modificatio
Variants
--
1.5 Production data
On rating plates for the MSD Single-Axis Servo Drive Compact you will nd the serial
number, from which you can identify the date of manufacture based on the following
key. For the location of the rating plate on the servo drive refer to "Figure 4.1 Layout
MSD Single-Axis Servo Drive Compact C2 to C4" and "Figure 4.2 Layout MSD SingleAxis Servo Drive Compact C5".
MOOG
D-71034 Böblingen
www .moog.com/industrial
Made in Germany
The pictograms used in this Operation Manual signify the following for the user:
NOTE
Useful information or reference to other documents.
1.
(digit)
You will nd the pictogram used in this Operation Manual for "General safety instructions and warnings" in chapter "2 Safety".
ACTION TO BE TAKEN
Processing step undertaken by the user or the system.
1.8 Disclaimer
Following the documentation on the devices from Moog GmbH is a prerequisite:
yFor safe operation.
yTo achieve stated performance features and product characteristics.
Moog GmbH does not accept any liability for injuries, damage or nancial losses that
result from the failure to follow the documentation.
1.9 Disposal
Follow the applicable national regulations! If necessary, dispose of individual parts,
depending on their characteristics and existing national regulations, e.g. as:
yElectrical waste
yPlastic
yMetal
Or engage a certied disposal organisation with scrapping
Our Helpline will help you with fast, specic assistance if you have any technical queries
relating to project planning or commissioning your device.
Address: Moog GmbH
Hanns-Klemm Straße 28
D-71034 Böblingen
The Helpline is available by e-mail, telephone or telefax:
E-Mail: drives-support@moog.com
Phone: +49 7031 622 0
Telefax: +49 7031 622 100
If you need further assistance, our specialists at the Service & Support Center will be
Our devices are state-of-the-art and comply with recognised safety regulations,
nevertheless hazards can arise. In this chapter:
yWe provide information on residual risks and hazards that can emanate from
our devices on usage as intended.
yWe warn about the foreseeable misuse of our devices.
yWe refer to the necessary care and measures to be taken to prevent risks.
2.2 For your safety
NOTE
Only install and place in operation your device taking into account the
documentation for the related device family!
Our devices are quick and safe to operate. For your own safety and for the safe
functioning of your device, please be sure to observe the following points:
3.
4.
5.
Protection against magnetic and/or electromagnetic fi lds during
installation and operation.
Persons t ted with heart pacemakers, metallic implants and hearing aids etc. must not be allowed
access to the following areas:
• Areas in the immediate vicinity of electrical equipment!
• Areas in which electronics components and Ser vo Drives are installed,
repaired and operated!
• Areas where motors are installed, repaired and operated!
Motors with permanent magnets pose particular hazards.
During installation observe the following:
• Comply with connection conditions and technical data as per the documentation and the
rating plate!
• Comply with standards and directives on electrical installation, such as cable cross-section,
shielding, etc.!
• Do not touch electronic components and contacts!
Electrostatic discharge can harm people and destroy components!
• Take protection measures and use protective devices as per the applicable regulations
(e.g. IEC/EN60204 or IEC/EN 61800-5-1)!
• Take "device earthing" protection measure!
Ambient conditions
Follow the instructions on the transport, storage and correct operation of the devices stated in
•
the Operation Manual in "A Appendix".
1.
2.
Follow safety instructions for the devices:
Follow all safety instructions and warnings in the entire documentation related to the device series.
Electric drives are dangerous:
• Due to electrical voltages up to 480V AC and up to 800 V DC
• Dangerously high voltages of ≥50V may still be present 10min. after the power is cut
(capacitor charge). So check that electrical power is not present! See also the warning label on
the front panel on the device.
Hazards may emanate from our devices. For this reason it is imperative you follow the
safety instructions and warnings in this document.
DANGER!Risk of injury due to electrical power!
• Carelessness will result in serious injuries or death.
Follow safety instructions and warnings in this document and on the device.
WARNING! Risk of injury due to electrical power!
• Carelessness may result in serious injuries or death.
Follow safety instructions and warnings in this document and on the device.
CAUTION! Risk of injury or damage to the device due to incorrect operation!
• Carelessness may result in minor injuries or
damage.
Follow safety instructions and warnings in this document and on the device.
WARNING! Risk of injury due to hot surfaces and components!
• Carelessness may result in serious burns.
Electronic components may become hot during operation!
Follow safety instructions and warnings in this document and on the device!
Caution!Damage due to electrostatic discharge!
• Electrostatic discharge can destroy components.
Do not touch electronic components and contacts!
Follow safety instructions and warnings in this document and on the device!
DANGER!Risk of injury due to rotating par ts on the motor!
• Carelessness will result in serious injuries or death.
Follow safety instructions and warnings in this document.
Pay attention to special safety instructions and warnings that are given here in the document
before a specic action and that warn the user about a specic hazard!
NOTE:
The pictograms may also be used on their own with the signal word, e.g.
in the connection diagrams, however they have the same function as in the
complete warning.
DANGERWARNINGCAUTION
2.4 Intended use
Our devices are components intended for stationary electrical systems and machines in
the industrial and commercial sector.
The devices in the product range MSD Single-Axis Servo Drive Compact conform to the
Machinery Directive 2006/42/EC
Tested and certied in accordance with applicable standards (see declaration of conformity
in chap. 2.8).
When installed in machines it is prohibited to start-up intended operation until it has
been ascertained that the completed machine fully complies with the provisions of
the Machinery Directive (2006/42/EC); compliance with IEC/EN60204 is mandatory.
Starting up intended operation is only permitted on compliance with the EMC Directive
2014/30/EU.
The devices full the demands of the harmonised product standard IEC/EN61800-5-1.
You will find information on the installation of your device in chapter "3 Mechanical
installation".
2.4 .1 Repair
Only have repairs undertaken by authorised repair shops. Unauthorised opening and
incorrect intervention could lead to death, physical injury or material damage. The
warranty provided by Moog would thereby be rendered void.
2.5 Usage contrary to intended use
Our devices are:
yNot intended for installation in vehicles. Deployment of the device in non-
stationary equipment is classed as non-standard ambient conditions, and is
permissible only by special agreement.
yNot intended for installation in environments with harmful oils, acids, gases,
vapours, dusts, radiation etc.
yNot approved for usage in special applications (e.g. in potentially explosive
atmospheres or areas in which there is a risk of re).
yNot approved for usage outside a cabinet
yNot approved for the generation of high-frequency onboard
networks for which the device is not designed
2.6 Responsibility
Pay attention to the topic of “Electrical equipment of machines” in IEC/EN60204-1:
2006 “Safety of machinery”. The safety requirements on electrical machines dened
there are intended to protect personnel and machinery or systems.
The emergency stop function (as per IEC/EN 60204) shuts down the supply of power
to a machine, which results in the drives coasting down in an uncontrolled manner. To
avert hazards, check whether it is appropriate:
− To keep individual drives in operation
− To initiate specic safety procedures
− To incorporate a Safe Torque Off function (Safe Torque Off: movement stop
by "switching off the electrical supply" - STO)
2.7 Relevant laws, standards and directives
applied
For information on the laws, Dateards and directives applied by Moog, refer to the
declaration of conformity.
NOTE:
Depending on the specic application for the devices, other laws, standards
and directives with provisions on "Safety" may apply. If necessary, contact
the machine or system manufacturer.
Electronic devices are fundamentally not fail-safe. The installer and/or operator of a
complete machine or system is responsible for ensuring:
yThat the drive is rendered safe if the device fails
yThe safety of personnel and machinery
yThe complete machine is in correct working order
For the risk assessment on the complete machine or system according to
y
EN ISO 12100 (formerly EN ISO 14121) and EN ISO 13849-1
(formerly DIN EN 954-1)
CAUTIONDamage to the device due to incorrect installation conditions!
The device may be destroyed
For this reason
• Moisture must not be allowed to enter the device
• There must not be any aggressive or conductive substances in the ambient air
• Foreign bodies such as drilling chips, screws, washers etc. must not be allowed to enter
the device
• The ventilation openings must not covered
Note the following points:
yCooling air must be able to ow through the device without restriction.
yFor mounting in switch cabinets with convection (= heat loss is discharged to the outside via the
cabinet walls), always t an internal air circulation fan.
yThe backing plate must be well-earthed.
yThe device is designed only for vertical installation in switch cabinets. The switch cabinet must
as a minimum provide IP4x protection.
yTo attain the best result for EMC-compatible installation you should use a chromated or
galvanized backing plate. If backing plates are varnished, remove the coating from the contact
area! The devices themselves have an aluminium back panel.
yMaximum pollution degree 2
NOTE
According to ENISO13849-2 the switch cabinet must have IP54 protection
or higher on using the STO (Safe Torque OFF) safety function.
Further information on environmental conditions can be found in the appendix.
Mark out the position of the tapped holes on the
backing plate.
1.
Cut a thread for each xing screw in the backing plate.
Mount the servo drive vertically on the backing
2.
3.
4.
Table 3.1 Mechanical installation
.
plate
Mount the other components, suchas the mains lter,
mains choke etc., on the backing plate.
Continue with the electrical installation in chapter 3.
NOTE
Forced cooling by external air ow is necessary
for all sizes of the MSD Single-Axis Servo
Drive Compact. The air must be able to ow
unhindered through the device. If a temperature
cut-out occurs, the cooling conditions must be
improved.
Air ow: minimum 1.2 m/s (3.93 ft/s)
Dimensional drawings/hole spacing see
Figure 3.1, Figure 3.2
The thread sur face area will provide you
with good, full-area contact.
Observe the mounting clearances! The
contact area must be bare metal.
The cable between mains lter and servo
drive may be 300mm (11.81in) long.
Weight 1.0 kg (2.2 lb)1.5 kg (3.3 lb)2.8 kg (6.2 lb)5.9 kg (13 lb)
B (width)55 ( 2.17 )90 (3.54)
1)
H (height)
1)
T (depth)
A27.5 (1. 0 8)20 (0.79)
A1--40 (1.57)50 (1. 97)
C225 (8.86)30 5 (12.01)313 (12.32)
C15 (0.20)6 (0. 24)
DØ4. 8 (0.19)
H1235 (9.25)315 (12.40)324 (12 .76)
Screws2 x M44 x M4
All dimensions in mm (in)
1) without terminals/connections
Table 3.2 MSD Single-A xis Ser vo Drive Compact dimensions - see Figure 3.1 and Figure 3.2
G394-030
G394-020
210 (8.27)29 0 (11.42 )29 1 (11.47)
142 (5.59)18 9 ( 7. 4 4)235.5 (9.27)
G394-059
G394-035
G394-080
G394-065
G394-120
G3 9 4 -16 0
C
H1
C
C2 + C3
C4
D
A
B
C1
A
B
Figure 3.1 Dimensional drawing C2, C3, C4
T
H
H1
C2 + C3 + C4
D
NOTE
A1A
C
D
T
If MSD Single-Axis Servo Drive Compact devices are attached to other
product ranges, corresponding measures must be taken to prevent the
devices affecting each other thermally.
SizeC2C3C4C5
H1
MSD Single-Axis Servo
Drive Compact
EDirect butt mounting
1)
F
1)
G
H
Drawing:
Dimensions in mm (in)
G394-030
G394-020
≥100 (3.94)≥150 ( 5.9 0 )
≥235 (9.25)≥2 8 0 (11. 0 2)
G394-059
G394-035
G394-080
G394-065
F
E
G394-120
G3 9 4 -16 0
G
C1
Figure 3.2 Dimensional drawing C5
B
H2
F
3.2.2 Mounting clearances
The minimum distances specied in the table apply for devices of the same power.
1) The bend radius of the c onnecti ng cables must be take n into acco unt
When butt mounting devices with different drive power you should arrange the devices
according to their power (e.g., viewed from the left, C5-C4-C3-C2). This arrangement
will minimise the thermal interaction.
• Carelessness will result in serious injuries or death.
Never wire or disconnect electrical connections while these are live! Always disconnect the power
before working on the device. Dangerously high voltages of ≥50V may still be present 10min.
after the power is cut (capacitor charge). So check that electrical power is not present!
Work on the device must only be carried out after the DC link voltage has dropped below a
residual voltage of 50V (indicated by monitoring LED H1 and to be measured on terminals X1/Land L+).
A dangerous voltage may be present at the device, even if the device does not emit any visual
or audible signals/indications (e.g. with mains voltage applied to terminal X3 and missing control
supply +24 V on X2)!
The following general guidelines apply for the installation of Servo Drives:
yCompliance with the EMC product standard
− Commissioning (i.e. starting intended operation) is only permitted on compliance with the
EMC product standard IEC/EN61800-3. The installer/operator of a machine and/or system
must provide proof of compliance with the protection targets stipulated in the standard.
yCable type
− Use only shielded mains, motor and signal lines with double copper braiding with 60 to 70%
coverage.
yCable laying
− Route mains, motor and signal cables separated from one another. If possible, keep a
distance of at least 0.2 m (0.66 ft), otherwise use separators. They should not run in parallel.
If crossovers are unavoidable, they should wherever possible be configured perpendicular (at
a 90° angle).
− Always route the motor cable without interruptions and the shortest way out of the control
cabinet. When using a motor contactor for example, the component should be directly
mounted to the servo drive and the shielding of the motor cable should not be stripped back
too far.
− If possible signal lines should only enter from one side into the switch cabinet.
− Lines of the same electric circuit must be twisted.
− Avoid unnecessary cable lengths and loops.
Earthing measures
y
− Earthing measures of relevance for the servo drive are described in section “4.6 Protective
earth conductor connection”.
yShielding measures
− Do not strip the cable shields back too far, and lay them with large area connections both on
the component and on the backing plate or on the PE rail (main earth) for the backing plate.
yExternal components
− Place larger loads near the supply.
− Contactors, relays, solenoid valves (switched inductances) must be wired with suppressors.
The wiring must be directly connected to the respective coil.
− Any switched inductance should be at least 0.2 m (0.66 ft) away from the process controlled
assemblies.
yAdditional information can be found in the corresponding connection description.
If you require further detailed information on installation you should consult the Moog Helpline
(see “Commissioning” on page 45).
The following shows the layout with the corresponding positions of plugs and terminals.
For better orientation we have identified the designations of plugs and terminals with an
abbreviation.
H1
X1
X8
X7
X6
D1, D2
T1, T2
X9
X2
X5
X13
X3
X4
TS-Software
NumberDesignation
D1, D27-segment display
H1DC link voltage indicator LED (only size C2 to C4)
OP1Installation space for option 1 (Communication)
T1, T2Button
X1Power connections (only size C2 to C4)
X2Connection for control supply U
X3AC power connection
PE (bottom)Device protective earth conductor connection
X4Control terminals
X5Motor temperature monitoring
X6Resolver connection
X7Connection for high-resolution encoder
X8Option 2 (Technology)
X9Ethernet interface
X13Connection for motor brake
Table 4.1 Key to layout MSD Single-Axis Servo Drive Compact C2 to C4
This is a restricted availability product in accordance with IEC/EN 61800-3.
This product may cause radio interference in domestic environments; in such
cases the operator may need to take appropriate countermeasures.
External radio frequency interference suppression filters (CB09937-001 to CB09940
001, CB09942-00, for C5 provisional CA71185-001) are available for the Servo Drives.
With the measurement method specified and the exte nal mains filte , these Servo
Drives conform to the EMC product standard IEC/EN 61800-3 for "First environment"
(residential C2) and "Second environment" (industrial C3).
4.5.2 Specimen setup
The specimen setup presented on the following pages is intended to illustrate the key
measures necessary to ensure an effective EMC installation.
NOTE
The specimen setup merely presents a recommendation, and does not
automatically guarantee compliance with applicable EMC directives.
The installer/operator of a machine and/or system must provide proof of
compliance with the protection targets stipulated in the standard.
Overview
A
Detail 1
Detail 2
B
Detail 3
Detail 4
C
D
Figure 4.5 presents an overview of the minimum components required:
Backing plate with cable ducts
A.
B.
MSD Single-Axis Servo Drive Compact
Mains filter
C.
D.
Mains choke
E.
Distributor rail for AC power supply and control supply (+24VDC)
The layout and cabling are based on the requirements in section4.1 The numbered red
arrows refer to four very important detailed notes presented on the following pages.
E
Figure 4.5 Specimen setup - Overview
Detail1: Motor cable
Make sure that on devices C2 to C4 the motor connection is connected to terminal (X1)
and on devices C5 to terminal (X1a, X1b, X1c):
yFasten the shield connection plate supplied (shield plate for C2 to C4 see Figure 4.6, shield plate
for C5 see Figure 4.7) to the top of the device. Ensure the plate is in contact over a large area
with the heat sink on the MSD Single-Axis Servo Drive Compact and with the backing plate. Use
a serrated washer.
At the connection for the control voltage (X2) pay attention to:
ySecure the second of the two shield connection plates supplied to the mount on the bottom of
the unit using the screw. Ensure the plate is in contact over a large area with the heat sink on the
MSD Single-Axis Servo Drive Compact and with the backing plate. Use a serrated washer.
yPull a shielding sleeve over the control supply cable and strip it back only as short as necessary
before the control supply connection (X2).
yConnect the shielding sleeve on the control supply cable with a large area connection to the
shield connection plate using the clamp supplied.
X2
Detail3: Mains filter and mains connection
At the output of the mains filter and the AC mains connection X3):
yConnect the litz wire on the output of the mains filter directly to the AC mains connection (X3) on
the MSD Single-Axis Servo Drive Compact. The litz wires must not be extended, so the mains
filter should be installed correspondingly close to the MSD Single-Axis Servo Drive Compact. But
be sure to maintain the necessary minimum clearance (see “Table 3.3 MSD Single-Axis Ser
Drive Compact mounting clearances”).
yFix the litz wire to the shield connection plate using a cable tie as necessary.
yThe leakage current of the MSD Single-Axis Servo Drive Compact is >3.5mA. So:
− Connect the protective earth conductor from the output of the mains filter to conne tion (X3)
on the MSD Single-Axis Servo Drive Compact C2 to B4 or to the housing of the
MSD Single-Axis Servo Drive Compact C5 and
− One of the PE connections on the heat sink on the MSD Single-Axis Servo Drive Compact
using a cable of at least the same cross-section to the main earth for the distributor rail.
X3
vo
Figure 4.10 Specimen setup - Detail 2: Control supply
At the control terminals (X4) of the MSD Single-Axis Servo Drive Compact:
yStrip the shielding of the control cables back only as short as absolutely necessary.
yConnect the shield on the control cables with a large area connection to the shield connection
tab on the mains filter using the clamp supplied If this is not possible, connect the control cable
shield directly to the backing plate with a large area connection directly adjacent to the
MSD Single-Axis Servo Drive Compact.
X4
4.6 Protective earth conductor connection
StepAction
Earth each of the Servo Drives!
Connect the terminal in a star configuration
1.
and with a large area connection to the PE
bar (main earth) in the control cabinet.
Also connect the PE conductor terminals on all other
components, such as mains choke, filte , etc. in a
star configuration and with a large a ea
2.
connection to the PE bar (main earth) in the control
cabinet.
PE mains connection
according to IEC/EN 61800-5-1
For the PE connection the following
applies (as leakage current >3.5mA):
Use protective earth conductors with the
same cross-section as the mains power
cables, though at least 10mm
²
Also comply with local and national
regulations and conditions.
(0.02in²).
Figure 4.12 Specimen setup - Detail4: Control cables
moog
ID no.:CA97555-001 Date:04/2018
U1
V2
U2
V1
U1
V2
U2
W1
W2
W1
V1
W2
PE
Figure 4.13 Star configuration layout for the PE conducto
The control electronics, with their logic (µP), the encoder terminals and the inputs and
outputs, are electrically isolated from the power section (power supply/DC link). All
control terminals are designed as safety extra-low voltage/protective extra-low voltage
(SELV/PELV) circuits and must only be operated with such SELV/PELV voltages, as per
the relevant specification. This p ovides reliable protection against electric shock on the
control side.
A separate control supply, compliant with the requirements of a SELV/PELV, is therefore
needed.
The overview opposite shows the potential references for the individual connections in
detail.
This concept also delivers higher operational safety and reliability of the servo drive.
SELV = Safety Extra Low Voltage
PELV = Protective Extra Low Voltage
4.8 Connection of the supply voltages
X3
L1
X3
L1
Device 1 (e.g. C2)Device 2 (e.g. C2)
The supply of power to the MSD Single-Axis Servo Drive Compact is separate for the
control and power sections. The control supply should always be connected firs , so
that the device parameters can be set with Moog
device set to the correct supply for the power section.
CAUTION! Damage to the device due to incorrect operation!
• Carelessness can cause damage to the device.
Only when the mains voltage has been pre-set in the device firmware and the device has been
restarted (if the mains voltage or switching frequency has been changed) may the mains power
supply for the supply for the power section be activated.
4.8.1 Connection of control supply (+24VDC)
DriveADministrAtor5 and, above all, the
NOTE
Suitable measures must generally be applied to provide adequate cable
protection.
DANGERRisk of injury due to electrical power!
• Carelessness will result in serious injuries or death.
When the mains voltage is switched on at terminal X3 and there is no control supply (+24V DC at
X2), a dangerous voltage is present on the device with no visual signal on the display or acoustic
indication by fan noise. If visible in the installed state, LED H1 (see Figure 4.1) indicates whether
voltage is present on the device. Even if H1 is completely off, X1 must be checked to ensure no
electrical power is present.
NOTE
The start-up current for the supply voltage for the C2 to C5 may be two to
three times the operation current.
X2
+++
Figure 4.15 Connection of control supply MSD Single-Axis Servo Drive Compact
maximum 10 A gG
24 V DC ±10 %
external power
supply
next servo drive
Control supply (Specication)
= +24VDC ±10%, stabilised and filtered
• U
V
• I
= 2A (C2 to C5)
Control
supply
Table 4.5 Specification of control supply MSD Single-Axis Servo Drive Compact
X2/+
X2/-
moog
V
• Internal polarity reversal protection
• The power supply unit used must have a safe and reliable isolation against
the mains system acc. to EN50178 or IEC/EN61800-5-1
Specify the cable cross-section depending on the maxi-
1.
mum current and ambient temperature.
Wire the servo drive with the mains filte *), maximum cable
2.
length 0.3 m (1.0 ft) (with non-shielded cable)!
Wire the mains choke
3.
(if installed)
Install a mains isolating device K1
4.
(power circuit breaker, contactor, etc.).
Use mains fuses
(duty class gG) to isolate all poles of the servo drive from
5.
the mains supply.
*) optional
DANGER!Risk of injury due to electrical power!
• Carelessness will result in serious injuries or death.
Never wire or disconnect electrical connections while these are live! Always disconnect the power
before working on the device. Dangerously high voltages of ≥50V may still be present 10min.
after the power is cut (capacitor charge). So check that electrical power is not present!
CAUTION!
1) residual current protective device
2) residual current monitor
Risk or injury or damage to the device due to incorrect
earth leakage circuit breaker!
• Carelessness may result in injuries or damage.
If local regulations require the installation of an earth leakage circuit breaker, the following
applies: In case of a fault the servo drive is able to generate DC leakage currents without zero
crossing. Servo Drives therefore must only be operated with (RCDs) 1) type B for AC fault currents,
pulsating or smooth DC fault currents, which are suitable for servo drive operation, see
IEC60755. RCMs 2) can also be used for monitoring purposes.
*)
Cable cross-section according to local
regulations and conditions.
Reduces the distortion (THD) in the system
and prolongs the life of the servo drive.
Do not switch on the power!
For compliance with equipment safety
requirements laid down in IEC/EN61800-
5-1
Note the following points:
Switching the mains power:
yIn the event of excessively frequent switching the device protects itself by means of high-
resistance decoupling from the mains. After a rest phase of a few minutes the device is ready to
start once again.
TN and TT system: Operation is permitted if:
yIn the case of single-phase devices for 1x230VAC the supply system conforms to the
maximum overvoltage category III as per IEC/EN61800-5-1.
yIn the case of three-phase devices with phase conductor voltages 3x230VAC, 3x400VAC,
3x460VAC and 3x480VAC
yThe star point of the supply system is earthed and
yThe supply system conforms to the maximum overvoltage category III as per IEC/EN61800-5-1
at a system voltage (phase conductor →neutral point) of maximum 277V.
IT system: Operation is not permitted!
yIn case of an earth fault the voltage is approx. twice as high. Clearances and creepages to
IEC/EN61800-5-1 are no longer maintained.
Connection of the servo drives via a mains choke is imperative:
yWhere the servo drive is used in applications with disturbance variables corresponding to
environment class 3, as per IEC/EN 61000-2-4 and above (harsh industrial environment)
yIn the case of single-phase mains supply
yFor compliance with IEC/EN61800-3
For further information on permissible current loads, technical data and ambient
conditions please refer to the appendix.
NOTE
Please be aware that the MSD Single-Axis Servo Drive Compact is not
rated for environment class 3. Further measures are essential to achieve
this environment class! For further information please consult your project
engineer.
C2 and C3
Mains
1-phase
C2 and C3
4.8.3 Connected load and mains fuse
Mains supply for C2 and C3 devices
2)
Specied mains
fuse, duty class
3)
gG [A]
Servo
Drive
Device rated power
With mains
choke (4% u
)
mains choke
K
1)
[kVA]
Without
Maximum cable cross-section
of the terminal [mm²]
Ferr. with
3)
insul
Ferr. w/o
insul
1x16 maximum
G394-0301.31.6
2.52.5
(1-phase)
3x16 maximum
(3-phase)
G394-0201.51.93x. 6 maximum
1x16 maximum
G394-0592.63.2
2.52.5
(1-phase)
3x16 maximum
(3-phase)
G394-0352.73.33x10 maximum
1x20 maximum
G394-0803.54.3
44
(1 phase)
3x20 maximum
(3 phase)
G394-0655.06.13x16 maximum
G394-1208.110.5
46
3 x 32 maximum
G394-16010.213.23 x 40 maximum
1) At 3x230VAC or 3x400VAC mains voltage and FT ≥ 8 kHz
The minimum cross-section of the mains power cable depends on the local regulations and conditions, as well as on the rated current of the servo drive.
2)
3) Ferr. with insul. = Ferrule with plastic insulation, Ferr. w/o insul. = Ferrule without plastic insulation
Table 4.6 Connected load and mains fuse
NOTE
Before commissioning, the value of the connected mains voltage must be
set on the servo drive (factory setting = 3x230VAC / 3x400VAC).
X2
+
Mains
Mains
3-phase
L1
L2
L3
K1F1
Figure 4.16 Connection C2 and C3 mains supply 3x230V (G394-030, G394-059) or 3x400V
(G394-020, G394-035) depending on device design
Before commissioning, the value of the connected mains voltage must be
set on the servo drive (factory setting = 3x230VAC / 3x400VAC).
X2
X3
X2
+
L3
L2
L1
+
Mains
3-phase
L3
L2
L1
K1F1
Figure 4.18 Connection of C4 to mains supply 3x230V (G394-080) or 3x400V (G394-065)
depending on device design
Mains
1-phase
Mains
choke
Mains
ÿlter
Mains supply for C5 devices
NOTE:
Before commissioning, the value of the connected mains voltage must be
set on the servo drive (factory setting = 3x400VAC).
Mains
Mains
K1F1
Figure 4.20 Connection of C5 to mains supply 3x400V (G394-120, G394-160) depending on
device design
choke
ÿlter
X2
+
L3
L2
X3
L1
N
L1
K1F1
Figure 4.19 Connection of C4 to mains supply 1x230V (G394-080)
Mains
choke
Mains
ÿlter
X3
L3
L2
L1
CAUTION!Shutdown of the pre-charging!
To protect the servo drive from thermal overload, make sure that the pre-charging of the DC
link is not switched on for more than 2 minutes without the main contactor is active.
The pre-charging of the DC link is not designed for high power consumption during the
operation.
Ignoring of this rule may destroy the device!
REL
REL
ISDSH
ISD06
ISD05
ISD04
ISD03
ISD02
ISD01
ISD00
+24V
DGND
RSH
RSH
ENPO
OSD02
OSD01
OSD00
ISA1-
ISA1+
ISA0-
ISA0+
+24V
DGND
X4
4.9 Control connections
4.9.1 Specification of cont ol connections
StepActionComment
Check whether complete device settings are already
1.
available, i.e. whether the drive has already been
configured
If this is the case, a special control terminal assign-
2.
ment applies.
Please contact your project engineer to obtain the
terminal assignment!
3.
Choose a terminal assignment.Initial commissioning
Wire the control terminals with shielded cables.
4.
The following is imperative: STO request X4/22,
ENPO X4/10 and a start signal (with control via
terminal).
5.
6.
Keep all contacts open (inputs inactive).
Check all connections again!Continue with chapter “5 Commissioning”
Note the following points:
yAlways wire the control terminals with shielded cables.
yLay the control cables separately from the mains power and motor cables.
yA cable type with double copper braiding, with 60 to 70% coverage, must be used for all
shielded connections.
moog
ID no.:CA97555-001 Date:04/2018
Earth the cable shields over a large area at
both ends.
Rigid conductor sizes: 0.2 to 1.5 mm²
(0.0003 to 0.0023 in²)
Flexible conductor sizes:
= UV-∆U (∆U typically approx. 1.2V), no destruction
+24V
X4/2
X4/14
H
in case of short circuit (+24VDC -> DGND), but
device may briefly shut down
• I
= 80mA (per pin) with self-resetting circuit
max
breaker (polyswitch)
Digital ground
DGND
X4/1
Reference ground for +24VDCyes
X4/13
Table 4.7 Specification of control connections X4
= +24VDC +20%
) for feeding the digital
H
yes
yes
yes
4.9.2 Connection of motor brake X13
Connector X13 is intended for connection of a motor brake.
Des.Term.ConnectionSpecication
GND
GND
V+
X13/2
X13/1
X13/3
X13/4
< 2.0 A
BR
Front
X13
OSD03
Motor
3
~
4
24 V DC ext.
V+
supply
3
GND
2
Brake (+)
1
GND
Brake (-)
• Short-circuit proof
• External control supply +24VDC
(I
= 2.1 A) required via X13/3 (GND) and X13/4
IN
(V+)
• U
= UV-∆U` (∆U` typically approx. 1.4 V)
BR
• To actuate a motor holding brake up to
IBR = 2.0A maximum
• Overcurrent causes cyclic shutdown
• Also usable as configurable digital outpu
> 2.0 A
BR
Front
X13
OSD03
Motor
3
~
4
24 V DC ext.
V+
supply
3
GND
2
24 V DC
1
GND
Brake (-)
Brake (+)
• Cable break monitor:
With the brake driver switched on, cable break
is detected at output currents <200mA.
The cable break monitoring can be disabled.
NOTE:
For brakes with higher current requirements (> 2.0 A), a relay must be
provided. The cable break monitoring on X13 is then no longer usable and
must be provided externally.
OSD03
24
12
23
11
22
10
21
9
20
8
19
7
18
6
17
5
16
4
15
3
14
2
13
1
Table 4.8 Specification of the terminal connections X13
4.10 Specification, Ethernet interface
4.12 Option 2
The service and diagnostic interface X9 is designed as a TCP/IP Ethernet interface. It
is suitable for connection of a PC for commissioning, service and diagnostics and for
programming of the servo drive.
The following software can communicate with the servo drive via the Ethernet interface:
yMoog DriveADministrAtor5 for commissioning, service and diagnostics on the MSD Single-Axis
Servo Drive Compact
y
CoDeSys 3.x programming system for programming the MSD Single-Axis Servo Drive Compact
in the languages of IEC61131-3. For this purpose a servo drive licence is required.
Specification of interface
yTransfer rate 10/100 Mbits/s BASE
yLine protocol IEEE802.3 compliant
yConnection via standard commercially available crosslink cable, CAT5
4.11 Option 1
Depending on the MSD Single-Axis Servo Drive Compact variant, Option 1 is factoryconfigu ed with various options. Field bus options such as EtherCAT or SERCOS are
available.
You will find all available options in the MSD O dering Catalog. The user manuals for the
respective options provide detailed information on commissioning.
Option 2 can be factory-configu ed with various technology options. Additional or special
encoders can be evaluated here for example.
You will find all available options in the MSD O dering Catalog. The user manuals for the
respective options provide detailed information on commissioning.
All encoder connections are located on the top of the unit.
Encoder connection for synchronous motors
Please use the ready made motor and encoder cables from Moog to connect the
synchronous motors (see Servo Motors Ordering Catalog).
Assignment of servo
Compare the rating plates of the components. Make absolutely sure you are using the
correct components according to variant A, B or C!
7
X
X
(optional
6
1
X
drive motor-encoder connection
Variant
C
8
X
Variant
)
Variant
A
B
high-resolution encode
high-resolution encoder
NOTE:
Do not split the encoder cable, for example to route the signals via terminals in
the switch cabinet. The knurled screws on the D-Sub connector housing must
be tightly locked!
Motor (with installed encoder)Encoder cable
Variant A
Variant B
Variant C
Table 4.9 Variants of motors, encoder type and encoder cable
With resolver
without further options
Sin/Cos single-/multi-turn encoder
with SSI/EnDat interface
Sin/Cos single-/multi-turn encoder
with HIPERFACE® interface
C08335-013-yyyX6
CA58876-002-yyyX7
CA58877-002-yyyX7
Servo drive
connection
4.13.1 Ready made encoder cables
The specifications can only be assu ed on the usage of Moog system cables.
The interface X7 enables evaluation of the following encoder types.
FigureFunction
Sin/Cos encoder with zero pulse
e.g. Heidenhain ERN1381, ROD486
Heidenhain Sin/Cos encoder with EnDat interface
e.g. 13 bit single-turn encoder (ECN1313.EnDat01) and 25 bit multi-turn encoder
(EQN1325-EnDat01)
Heidenhain encoder with digital EnDat interface
Encoder/ SSI
Table 4.12 Suitable encoder types on X7
NOTE:
y The usage of encoders not included in the range supplied by Moog
y The maximum signal input frequency is 500kHz.
y Encoders with a power supply of 5V ±5% must have a separate sensor
Select the cable type specified by the motor or encoder manufactu er. During this
process bear in mind the following:
yAlways used shielded cables. The shield is to be connected at both ends.
yConnect the differential track signals A/B, R or CLK, DATA to each other using twisted pairs.
yDo not split the encoder cable, for example to route the signals via terminals in the switch
cabinet.
Single- or multi-turn encoder
Sin/Cos encoder with SSI interface
e.g. 13 bit single-turn and 25 bit multi-turn encoder (ECN413-SSI, EQN425-SSI)
Sick-Stegmann Sin/Cos encoder with HIPERFACE® interface
Single- and multi-turn encoder, e.g. SRS50, SRM50
requires special approval by Moog.
cable connection. The encoder cable detects the actual supply voltage
at the encoder, thereby compensating for the voltage drop on the cable.
Only use of the sensor cable ensures that the encoder is supplied with the
correct voltage. The sensor cable must always be connected.
Sin/Cos
X7 Pin
Sin/Cos
and TTL
absolute value
encoder
SSI/EnDat
1A-A--REFCOS
2A+A+-+COS
+5VDC ±5%, IOUT maximum=250mA (150mA for
3
4R+Data +Data +Data +
5R-Data -Data -Data -
6B-B--REFSIN
7---U
8GNDGNDGNDGND
9
10
11B+B+-+SIN
12Sense + Sense + Sense + U
13Sense - Sense - Sense - -
14-CLK+ CLK+ -
15-CLK -CLK --
1) Be sure to pay attention to the note headed "ATTENTION" in Table 4.14!
Table 4.13 Pin assignment of the X7 terminal connection
hardware versions 0..1), monitoring via sensor cable
ϑ- (PTC, KTY, Klixon) internally connected to X6/9
ϑ+ (PTC, KTY, Klixon) internally connected to X6/5
Absolute value
encoder EnDat
(digital)
Absolute value
encoder HIPER-
maximum 100mA
1)
1)
NOTE:
The encoder supply on X7/3 is short-circuit proof on both 5V and 11V
operation. The drive remains in operation enabling the generation of a
corresponding error message on evaluating the encoder signals.
FACE®
7 to 12V
(typ. 11V)
switch
S
switch
S
The sum of the currents tapped at X7/3
and X6/4 must not
exceed the specified
value!
After connecting
pin 7 to pin 12, a
voltage of 11.8 V is
set on X7, pin3!
4.14 Motor connection
1.
2.
3.
StepActionComment
Specify the cable cross-section depending on the
maximum current and ambient temperature.
Connect the shielded motor cable to terminals X1/
U, V, W and connect the motor to earth at .
Cable cross-section according to local
and country-specific regulations and
conditions
Connect the shield at both ends to
reduce
interference emissions.
CAUTIONDamage to the device due to incorrect insulation of the motor winding!
• Carelessness can cause damage to the motor/device
The motor temperature sensor must, in relation to the motor winding, on connection to X5 be
provided with basic insulation, on connection to X6 or X7 with reinforced insulation
as per IEC/EN61800-5-1.
NOTE:
In the event of a short-circuit or earth fault in the motor cable, the power stage
is disabled and an error message is issued.
Wire the motor temperature sensor and activate
temperature evaluation using
Moog DriveADministrAtor. See also related note.
Connect the shield at both ends to
reduce interference emissions.
4.14.1 Motor temperature sensor
Connection
servo drive
X5Temperature switch (Klixon), PTCSensor with basic insulation
X6Temperature switch (Klixon), PTC, KTYSensor with reinforced insulation
X7Temperature switch (Klixon), PTC, KTYSensor with reinforced insulation
Table 4.14 Motor temperature sensor terminal configuratio
1) yyy sta nds for le ngth in m eters; sta ndard l ength: 1 m (3.28 ft), 5 m (16.40 ft), 10 m (32.80 ft), 15 m (49 ft), 20 m (65 f t), 50 m (164 ft). Further len gth on request
2) xxx-001 for standard conguration option, further options on request
Table 4.15 Technical data motor cab
1),2)
Monitor
CB00076-xxx-yyy
1),2)
4 x 10mm² + 2 x 1,5mm²
(4 x 0.00155 in² + 2 x 0.0023 in²)
TBDTBD
Connector
housing
Monitor
Size 1Size 1
CA98676-xxx-yyy
1),2)
4 x 16mm² + 2 x 1,5mm²
(4 x 0.0248 in² + 2 x 0.0023 in²)
Connector
housing
Monitor
NOTE:
Cores 5 and 6 (PTC) are required only for motors in which the motor PTC
cannot be connected via the encoder cable. In the case of servomotors with
resolver, the PTC is connected via the resolver cable.
CAUTION! Damage to the device due to switching in the motor cable!
• Carelessness can cause damage to the device
Switching in the motor cable must take place with the power cut and the power stage disabled,
as otherwise problems such as burned contactor contacts or power stage damage may occur.
To ensure unpowered switch-on, you must make sure that the contacts of the motor
contactor are closed before the servo drive power stage is enabled. At the moment the
contactor is switched off it is necessary for the contact to remain closed until the servo
drive power stage is shut down and the motor current is 0. This is done by inserting
appropriate safety times for the switching of the motor contactor in the control sequence
of your machine.
NOTE:
Despite these measures, the possibility cannot be ruled out that the servo
drive may malfunction during switching in the motor cable.
4.15 Brake chopper connection
In regenerative operation, e.g. when braking the drive, the motor feeds energy back to
the servo drive. This increases the voltage in the DC link. If the voltage exceeds a
threshold value, the internal braking transistor is activated and the r
converted into heat by means of a braking resistor.
4.15.1 Protection in case of brake chopper fault
WARNING! Risk of injury due to hot surfaces caused by a faulty brake chopper!
• Carelessness may result in serious burns or damage.
If the brake chopper is overloaded the internal brake chopper transistor may be switched on continuously, which will result in the overheating of the device and the braking resistor. Temperatures
of up to +250 (+482 °F) may be reached. To prevent more serious damage we recommend the
activation of the following software function:
You can activate this function by assigning BC_FAIL(56) to any digital output
(Moog
DriveADministrAtor5►Subject area "I/O configuration" ►Digital outputs ►OSD00 to
OSD02). In the event of a fault the selected output then switches from 24 V to 0V.
This signal ensures that the servo drive is safely disconnected from the mains supply.
For detailed information on setting parameters refer to the "MSD Device Help".
4.15.2 Design with integrated braking resistor (C3+4+5)
For Servo Drives with an integrated braking resistor (model G394-xxx-xxx-xx2/xx4)
only the peak braking power is stated in the appendix. The permissible continuous
braking power must be calculated. It depends on the effective utilisation of the servo
drive in the corresponding application.
egenerated power is
The servo drive is thermally designed in such a way that no energy input by the internal
braking resistor is permitted during continuous operation at rated curr
ent and at
maximum ambient temperature.
Consequently, a servo drive design featuring an integrated braking resistor only makes
sense when the effective servo d
rive utilisation is ≤80% or the braking resistor is
designed for one-off emergency stop. In the event of an emergency stop, only the
thermal capacity of the braking resistor can be used for a one-off braking action. The
permissible energy W
can be taken from the following table.
IBr
dti
T
I
T
eff
∫
=
0
2
1
dti
T
I
T
eff
∫
=
0
2
1
11K
I
I
P
N
eff
DBr
×−=
0
dti
T
I
T
eff
∫
=
0
2
1
11K
I
I
P
N
eff
DBr
×−=
Br
T
PBrDBr
dtP
T
P
∫
×≥
0
1
T
P
dti
T
I
T
eff
∫
=
0
2
1
11K
I
I
P
N
eff
DBr
×−=
Br
T
PBrDBr
dtP
T
P
∫
×≥
0
1
∫
×
=
T
Br
DBr
PBr
dt
P
P
T
0
T
DeviceTechnology
G394-059
G394-035420Ω
Rated resist-
ance R
100Ω1500W 1)150Ws120
BR
Peak braking
power P
PBr
1000W
2)
1300W 3)
1400W 4)
Pulse
energy W
IBr
140Ws50
K1
Method to calculate the continuous braking power:
Calculation of effective servo drive utilisation in
y
a cycle T
:
I
eff
T
1
2
=
dti
∫
T
0
G394-080
G394-065
G394-12090Ω
G394-16090Ω
1) Data referred to 1 x 230VAC mains voltage (BR switch-on threshold 390VDC)
2) Data referred to 3 x 400VAC mains voltage (BR switch-on threshold 650VDC)
3) Data referred to 3 x 460VAC mains voltage (BR switch-on threshold 745VDC)
4) Data referred to 3 x 480VAC mains voltage (BR switch-on threshold 765VDC)
K1 = Factor for the calculation of the permissible continuous braking power, see next page
Table 4.16 Data of the integrated braking resistor (design G394-xxx-xxx-xx2/xx4)
If the drive is not permanently operated at its power limit, the reduced power dissipation
of the drive can be used as braking power.
Wire resistance
NOTE:
The rest of the calculation assumes that the servo drive is used at maximum
permissible ambient temperature. This means that any additional energy input
for the inter
neglected.
nal braking resistor due to a lower ambient temperature will be
90Ω
1690W
1)6000Ws170
4700W
2)
6170W 3)
6500W 4)
4700W
6170W 3)
6500W 4)
4700W
6170W 3)
6500W 4)
2)
2)
6000Ws120
6000Ws120
6000Ws120
yDetermination of permissible continuous braking
power based on unused drive power:
Marginal conditions
yA single braking action must not exceed the
maximum pulse energy of the braking resistor.
yThe continuous braking power calculated for the
device must be greater than the effective braking
power of a device cycle.
This results in the minimum permissible
cycle time T with calculated continuous
braking power:
The maximum total on-time of the braking
resistor over a specified cycle time T with
calculated continuous braking power is:
Damage to the device with integrated braking resistor due to connection
of an external braking resistor!
• Carelessness can cause damage to the device
No additional external braking resistor may be connected to Servo Drives G394-035 to G394-160
with integrated braking resistor.
4.15.3 Connection of an external braking resistor
NOTE
y Be sure to follow the installation instructions for the external braking
resistor.
y The temperature sensor (bimetallic switch) on the braking resistor must be
wired in such a way that the power stage is deactivated and the
connected servo drive is disconnected from the mains supply if the braking
resistor overheats.
y The minimum permissible connection resistance of the servo drive must
not be infringed, for technical data see appendix.
y The braking resistor must be connected using a shielded cable.
Size C2 to C4Size C5
U
X1
Danger!
U
V
W
L-
L+
RB
DC-link
Braking
resistor
Motor
3
~
X1.a
Danger
X1.b
X1.c
V
W
1)
L-
L+
L+
RB
1)
DC-link
Braking
resistor
3
~
Figure 4.24 Connection of braking resistor
DANGER!Risk of injury due to electrical power!
• Carelessness will result in serious injuries or death.
Never wire or disconnect electrical connections while these are live! Always disconnect the power
before working on the device. Dangerously high voltages of ≥50V may still be present 10min.
after the power is cut (capacitor charge). So check that electrical power is not present!
WARNING! Risk of injury due to hot surfaces on the ext. braking resistor!
• Carelessness may result in serious burns.
The braking resistor heats up very significantly during operation and can reach temperatures of
up to +250 °C (+482 °F). On touching there is a risk of serious burns to the skin.
Available braking resistors (excerpt)
Article
designation
Continuous
braking
power
Resistance
1)
Peak braking
2)
power
ProtectionFigure
CAUTION
Damage to the ext. braking resistor due to lack of temperature
monitoring!
• Carelessness can result in overheating of the ext. braking resistor!
The external braking resistor must be monitored by the control. The temperature of the
braking resistor is monitored by a temperature watchdog (Klixon). In the event of overheating
the servo drive must be disconnected from the mains supply.
CA59737-00135 W
CA59738-001150 W6250 WIP54
90 Ω
CA59739-001300 W6250 WIP54
CA59740-0011000 W6250 WIP65
1) Tolerance ±10%
2) Is the maximum possible braking power depending on the ON-time and cycle time
Table 4.17 Technical data - braking resistors
6250 WIP54
NOTE:
The available braking resistors with the exact specifications, in particular with
regard to surface temperature, maximum system voltage and high-voltage
strength, are set out in the Installation Manual Braking resistor and MSD
Ordering Catalog. See “1.3 Reference documents”.
Once the MSD Single-Axis Servo Drive Compact has been installed as described
in chapter "3 Mechanical installation" and wired with all required power supplies
and external components as described in chapter "4 Electrical installation", initial
commissioning can performed in the following sequence:
CAUTIONDamage to the device due to damaging ambient conditions!
The device may be irreparably damaged due to harmful ambient
conditions during operation.
For this reason
• Moisture must not be allowed to enter the device
• There must not be any aggressive or conductive substances in the ambient air
• Foreign bodies such as drilling chips, screws, washers etc. must not be allowed to fall the
device
• The ventilation openings must not covered
WARNING Risk of injury due to hot surfaces on the device!
• Carelessness may result in burns.
The device heats up during the operation and the temperature on the heat sink may reach
+100°C (+212 °F).. On touching there is a risk of burns to the skin.
StepActionComment
1.
2.
3.
4.
5.
Table 5.1 Initial commissioning step table
Install and start PC software
Switching on control supplysee section5.2.1
Establishing connection between PC and servo drivesee section5.2.2
Setting parameterssee section5.2.3
Controlling drive using Moog DRIVEADMINISTRATOR5see section5.2.4
NOTE:
Details on STO (Safe Torque Off) have not been taken into account for initial
commissioning, see chapter "7 Safe Torque Off (STO)".
To initialise and set parameters initially only switch on the +24VDC control
2.
supply. Do not yet switch on the AC mains supply.
Display indication after switching on the control supply
D1D2ActionExplanation
Switching on the external +24VDC control supply Initialisation in progress
Initialisation completedNot ready for starting
Table 5.2 Switch-on status of the MSD Single-Axis Servo Drive Compact (with +24VDC control supply)
NOTE:
Details on the control supply can be found in chapter "4.8.1 Connection of
control supply (+24VDC)".
5.2.2
Establishing connection between PC and servo drive
3.
The PC can be connected to the servo drive via Ethernet (TCP/IP). Connect PC and servo drive with an Ethernet connecting cable.
NOTE:
y Initialisation
The communication link between PC and servo drive can only be set up
after the servo drive has completed its initialisation.
y TCP/IP configuratio
If the PC does not recognise the servo drive connected, please check the
settings for the Ethernet interface
(see Installation Manual Moog DRIVEADministrAtor5).
5.2.3 Setting parameters
4.
The commissioning wizard in Moog DriveADministrAtor5 is provided for
making the settings for the drive system. Start the wizard.
NOTES:
y Moog DriveADministrAtor Help
A detailed description of Moog DriveADministrAtor5 as well as the
commissioning wizard can be found in the Moog DriveADministrAtor5 help.
y Motor dataset
When using Moog servo motors, motor dataset are available.
5.2.4 Controlling drive using Moog DriveADministrAtor5
5.
DANGER!Risk of injury due to rotating parts on the motor!
Switch on the AC mains supply. Then enable the power stage and activate
the control. The drive should be tested without the coupled mechanics.
• Carelessness will result in serious injuries or death.
Before starting motors with feather keys in the end of the shaft the keys must be reliably secured
against throwing out, as far as this is not already prevented by drive elements such as belt
pulleys, couplings or similar.
1
0
t
1
0
t
1
0
≥ 2 ms
t
1
0
TECHNOLOGY READY
CAUTION! Damage to the motor due to incorrect operation during motor test run!
Carelessness can result in significant damage to the motor or machine
• It is imperative the safety instructions and warnings from chapter 2 are followed during
commissioning. Please note that you yourself are responsible for safe operation.
• Before you start commissioning it must be ensured that the machine will not be damaged by
the test! Pay particular attention to the limitations of the positioning range.
•
Certain motors are only intended for operation on the servo drive. Direct connection to the
mains supply can destroy the motor.
• The motor surfaces may become extremely hot. No temperature sensitive parts may touch
or be fastened to these areas, appropriate measures to prevent contact must be applied
wherever necessary.
To avoid overheating of the motor, the temperature sensor installed must be connected to the
•
terminals of the temperature monitoring system for the servo drive also during the test run.
• The motor holding brake (if installed) should be checked for correct function before commissioning the motor. Motor holding brakes are only designed for a limited number of emergency
braking operations. Use as working brake is not allowed.
Display indication after switching on the AC mains supply
Power-up sequence for starting the drive
1. Deactivate the safety function “STO”
by setting the inputs
“ISDSH” and “ENPO”
(see chapter"4 Installation")
2. Activate “START CONTROL” at the earliest
2ms after step1
and specify the speed setpoint
3. Monitor your system
or plant and check
the drive behaviour.
ISDSH (STO)
ENPO (STO)
0
START
0
t
(State 5)
D1D2ActionReactionExplanation
Switching on the
AC mains supply
Table 5.3 Display D1/D2 after switching on the AC mains supply
Servo drive ready,
power stage ready,
control deactivated
Device is ready for switching on
NOTE:
y Inputs "ISDSH" and "ENPO"
For step1 in tableFigure 5.1 at least the two inputs
“ISDSH” and “ENPO” on terminal X4 must be connected.
y Manual mode window
Step2 inFigure 5.1 is best undertaken via the “Manual mode” window in
DriveADministrAtor 5, details can be found in
Moog
DriveADministrAtor help.
Moog
y Configuration of inputs/output
If step 2 is to be implemented via the inputs on terminal X4, the sources
for “START CONTROL” and speed setpoint must be configured
accordingly in “Inputs/Outputs” in Moog DriveADministrAtor5.
moog
ID no.:CA97555-001 Date:04/2018
0
t = motor dependent delay
Figure 5.1 Power-up sequence
Display reading after start of drive
D1D2ActionReactionExplanation
Enabling “STO“ and power
stage “ENPO“
Table 5.4 D1/D2 indication during activation of motor
CAUTION! Damage to the device due to incorrect operation!
• Carelessness may result in damage.
Before the next step “Enable start” you must specify a plausible setpoint, because the pre-set
setpoint is transferred to the drive directly after the motor control has started.
D1D2ActionReactionExplanation
“Start“ enabledTechnology ready
Table 5.5 D1/D2 indication during activation of motor
Details for optimising the drive on your application can be found in the Moog
DriveADministrAtor help and in the MSDServo Drive Device Help.
Motor energised,
control active
5.3 Serial commissioning
An existing parameter data set can be transferred to other MSD Single-Axis Servo
Drive Compact using Moog DriveADministrAtor5. Details can be found in the
Moog DriveADministrAtor help.
5.4 Integrated control unit
The built-in control unit permits diagnostics on the MSD Single-Axis Servo Drive
Compact. The control unit comprises the following elements, all located on the front of
the device:
y2-digit 7-segment display (D1, D2)
y2 buttons (T1, T2)
D1
D2
T2
T1
Figure 5.2 Integrated control unit MSD Single-Axis Servo Drive Compact
The following functions and displays are available:
yDisplay of device states (see chapter "6.1 Device states")
The device state is displayed after switching on the control voltage. If no input is made via the
keypad for 60seconds, the display switches back to the device state.
yDisplay of device error state (see chapter "6.2 Error indication")
If a device error occurs the display immediately switches to show the error code.
yParameter setting (indication "PA") (see section 5.4.3)
Resetting device parameters to their factory setting
yEthernet IP address setting (indication "IP") (see section 5.4.5)
Setting the Ethernet IP address and the subnet mask
yField bus settings (indication "Fb") (see section 5.4.6)
Setting e.g. the field bus addres
5.4.1 Function of buttons T1 and T2
These buttons are used to activate the different menus and to control the corresponding
functions.
ButtonFunctionComment
T1 (left)Activation of menu (exit the device
T2 (right)Selection of chosen menu
T1 and T2
together
GeneralThe time the button needs to be held pressed
Table 5.6 Function of buttons T1 and T2
status display)
Scrolling through the menus/sub-menus
Setting values - left segment display
(D1)
Setting values - right segment display
(D2)
Menu level up
Accept selection
Acknowledge
The button T1 can be held pressed for any
length of time because the display will only scroll
through the menu options for the corresponding
level. No settings will be changed.
The button T2 must NOT be held pressed for any
length of time because the display will change
from one menu level to the next within the menu
structure and then change the parameter that
is reached at the end. You should therefore
always release the button T2 after each change
in display.
After pressing T1 and T2 at the same time, the
value applied flashes for five second During this
time the save procedure can still be aborted by
pressing any button, without applying the value
set. Otherwise the new value will be saved after
five seconds
until an action is executed, is approx. 1second.
If there is no action by the user for a period of
60seconds, the display returns to the device
status display.
The following table defines various displays and status information about the display.
DisplayMeaning
Menu entries
(“PA“ in this case serves as an example, further possible entries see sections 5.4.5
and 5.4.6)
[flashing decimal points
Selected function in action
[two dashes]
Entry/function not available
[OK]
Action executed successfully, no errors
[Error]
Action via control unit not executed successfully,
“Er“ flashes alternately with error number
(see section5.4.3)
Display device error,
“Er“ flashes alternately with error number and error location
(see “MSDServo Drive Device Help“)
Numerical values
(“10” in this case serves as an example)
In the parameter menu (PA) error numbers are shown in decimal.
All other values are displayed in hexadecimal. In these cases the 10 displayed
would represent the decimal value 16.
Table 5.7 Meaning of display
NOTE:
If no input is made via the keyboard for a period of 60s, the display returns to
the device status display.
5.4.3 Parameter menu (PA)
On the Parameter menu the device settings can be reset to the factory setting.
Menu level
12
PA
Table 5.8 Parameter menu
Param-
eter
Pr--Parameter resetReset device settings to factory setting
Value
range
MeaningExplanation
5.4.4 Error numbers
A failed user action is indicated by an error message. The message consists of an
alternating display of "Er" and the error number.
NOTE:
The error messages displayed during user input should not be confused with
drive error messages. For detailed information on the error codes and on
error management refer to the "MSDServo Drive Device Help".
Error numberMeaning
00
01
02
03
04
05
17
18
19
20
21
Table 5.9 Error numbers
File system no error
File system any file system error
File system command rejected
File system function parameter invalid File system
create file error
File system open file error
Parameter reset to factory settings failed Parameter
write access failed
Save parameter data set non volatile failed Not all
parameters written
Error while reset to factory settings
5.4.5 Ethernet IP address menu (IP)
An Ethernet TCP/IP port is available as a service and diagnostics interface. The IP
address is set by default to 192.168.39.5 and the subnet mask to 255.255.255.0. Both
can be changed using the IP address menu.
Menu levelPa-
12
IP
Table 5.10 IP address menu
rame-
Iub000..FFIP address
Ir--IP reset to
Sub000..FFSubnet mask
Sr--Subnet mask
Value
range
ter
b100..FFIP address
b200..FFIP address
b300..FFIP address
b100..FFSubnet mask
b200..FFSubnet mask
b300..FFSubnet mask
Meaning
update byte0
update byte1
update byte2
update byte3
factory setting
update byte0
update byte1
update byte2
update byte3
reset to
factory setting
Explanation
Setting for byte 0 of the IP address in hexadecimal format
(e.g. "05" for 192.168.39.5)
Setting for byte1 of the IP address in hexadecimal format
(e.g. "27" for 192.168.39.5)
Setting for byte2 of the IP address in hexadecimal format
(e.g. "A8" for 192.168.39.5)
Setting for byte 3 of the IP address in hexadecimal format
(e.g. "C0" at 192.168.39.5)
Reset IP address to factory setting
(192.168.39.5)
Setting for byte0 of the subnet mask in hexadecimal format
(e.g. "00" at 255.255.255.0)
Setting for byte1 of the subnet mask in hexadecimal format
(e.g. "FF" at 255.255.255.0)
Setting for byte2 of the subnet mask in hexadecimal format
(e.g. "FF" at 255.255.255.0)
Setting for byte3 of the subnet mask in hexadecimal format
(e.g. "FF" at 255.255.255.0)
Reset subnet mask to factory setting
(255.255.255.0)
Example configuration of the subnet mask
In this example the subnet mask is changed from 255.255.255.0 to 122.255.255.0.
NOTE:
Changes on the IP address menu are only applied when the control
electronics are subsequently restarted.
↑ After approx.1s the display changes back to ER
Table 6.2 Indication of the error code
NOTE:
The errors can be reset in accordance with their programmed reaction (ER)
or only via a +24 V reset (X2) (ER.). Errors marked with a dot can only be reset
when the cause of the fault has been eliminated.
6.3 Error codes
Error response active
*) Not a “s afe indica tion” as sp ecied in IEC/ EN61800-5-2 .
1) S.ashes when STO (Sa fe Torque Of f) function is ac tive, display goes out w hen function is inactive.
2) The dot ashes wh en the powe r stage is ac tive.
Table 6.1 Device states
moog
2)
ID no.:CA97555-001 Date:04/2018
NOTE:
For detailed information on the error codes and on error management refer to
the "MSD Device Help".
The maximum permissible servo drive output current and the peak current are
dependent on the mains voltage, the motor cable length, the power stage switching
frequency and the ambient temperature. If the conditions change, the maximum
permissible servo drive current load also changes.
MSD Single-Axis Servo Drive Compact for 1x230V
Device
Switching fre-
quency of power
stage
[kHz]
Ambient
temperature
maximum
[°C [°F]]
Rated current
I
[A
]
N
eff
at 3x230V[A
4+45 (+113)3.06.0
G394-030
8+40 (+104)3.06.0
16+40 (+104)2.04.0
4+45 (+113)
G394-059
8+40 (+104)
5.911.810
16+40 (+104)
4+45 (+113)8.016.0
G394-080
8+40 (+104)8.016.0
16+40 (+104)5.410.8
1) With activation of the function "Automatic power stage switching frequency change to 4kHz".
2) Shutdown as per I²t characteristic
3)
Peak output power at this operation is limited through single phase supply
Data apply for a motor cable length ≤ 10 m (32.80 ft). Maximum permissible motor cable length 30 m (98 ft). All current ratings with recommended mains
choke.
Table A.1 Rated current and peak current C2 to C4 (1 x 230VAC)
Overload capacity
OvercurrentPeak current
for time
]
eff
[s]
for time
[A
]
eff
9.0
1)
9.0
10
6.0
9.0
0.08
1)
4.0
3)
17.7
1)3)
17.7
3)
11.8
17.7
11.8
24.0
24.0
10
16.0
24.0
10.8
0.08
1)3)
3)
3)
1)3)
3)
0.08
1)3)
3)
[s]
MSD Single-Axis Servo Drive Compact for 3x230V
Device
Switching fre-
quency of power
stage
[kHz]
Ambient
temperature
maximum
[°C [°F]]
Rated current
I
[A
]
N
eff
at 3x230V[A
4+45 (+113)3.06.0
G394-030
8+40 (+104)3.06.0
16+40 (+104)2.04.0
4+45 (+113)
G394-059
8+40 (+104)
5.911.810
16+40 (+104)
4+45 (+113)8.016.0
2)
G394-080
8+40 (+104)8.016.0
16+40 (+104)5.410.8
1) With activation of the function "Automatic power stage switching frequency change to 4kHz".
2) Shutdown as per I²t characteristic
2)3)
2)3)
Data apply for a motor cable length ≤ 0 m (32.80 ft). Maximum permissible motor cable length 30 m (98 ft)..
Table A.2 Rated current and peak current C2 to C4 (3 x 230VAC)
Minimum ohmic resistance of an externally installed braking resistor
1) 2)
Brake chopper continuous power
with external braking resistor
72Ω
4)
Peak brake chopper with external
braking resistor
Internal braking resistor550Ω (PTC)
Brake chopper continuous power
with internal braking resistor
Peak brake chopper with internal
braking resistor
1)
1) Data referred to output voltage 230VAC and switching frequency 8kHz,
2) For rated current refer to tableA.1 or tableA.2 !
3) On design with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is not permitted.
4) Braking resistor always integrated. Connection of an external resistor is permissible.
4)
0W
Dependent on the effective utilisation of the servo
drive in the specific application see chapter 4.15.2
400W1500W1700W
1)
3)
72Ω
2.1kW
2.1kW
3
100Ω
1760 µF
72Ω
90Ω
3)
3)
Table A.6 Technical data G394-030, G394-059 and G394-080
Permissible mains frequency50/60Hz ±10%
1) Data referred to output voltage 230VAC and switching frequency 8kHz,
2) For rated current refer to tableA.1 or tableA.2 !
3) On design with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is not permitted.
4) Braking resistor always integrated. Connection of an external resistor is permissible.
Table A.6 Technical data G394-030, G394-059 and G394-080
NOTE:
For more information on the brake chopper switch-on threshold also refer to
chapter "4.15 Brake chopper connection".
G394-020, G394-035 and G394-160
Designation
G394-020G394-035G394-065G394-120G394-160
Technical data
Output, motor side
Voltage3 phase U
Rated current effective (ln)2.0A
Peak current (2 x IN / 3 x IN)see tableA.3 and A.4 and A.5
Rotating field frequenc0 ... 400Hz
Switching frequency of power
stage
Input, mains side
Mains voltage(3 x 400VAC / 3x460VAC / 3x480VAC) ±10%
Device connected load
(with mains choke)
Current consumption
(with mains choke)
Asymmetry of mains voltage±3 % maximum
Frequency50/60Hz ±10%
1) Data referred to output voltage 400VAC and switching frequency 8kHz,
2) For rated current refer to tableA.3 and A.4 and A.5!
3) On design with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is not permitted.
4) Braking resistor always integrated. Connection of an external resistor is permissible.
5) On design C5 with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is only permitted if int. braking resistor is
disconnected. Parallel operation of both resistors is not permitted!
1)
Mains
1) 2)
3.5A
1) 2)
6.5A
1) 2)
13.0 A
1) 2)
16.0 A
4, 8, 16kHz
1.5kVA
2.2A
1)
1)
2.7kVA
3.9A
1)
1)
5.0kVA
7.2A
1)
1)
8.1 kVA
13.5 A
1)
10.2 kVA
1)
16.8 A
Designation
G394-020G394-035G394-065G394-120G394-160
Technical data
Power loss at IN 42W
1)
80W
1)
150W
1)
263 W
1)
316 W
1)
DC link
Brake chopper switch-on
1) 2)
threshold
650VDC
1)
DC link capacitance220 µF 330 µF440 µF680 µF1120 µF
Minimum ohmic resistance of
an externally installed braking
230Ω180Ω
3)
72Ω
3)
35 Ω
3)
25 Ω
3)
resistor
Brake chopper continuous power
with external braking resistor
Peak brake chopper with external
braking resistor
1)
Internal braking resistor7500Ω (PTC)
Brake chopper continuous power
1)
with internal braking resistor
Peak brake chopper with internal
braking resistor
1) Data referred to output voltage 400VAC and switching frequency 8kHz,
2) For rated current refer to tableA.3 and A.4 and A.5!
3) On design with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is not permitted.
4) Braking resistor always integrated. Connection of an external resistor is permissible.
5) On design C5 with integrated braking resistor (G394-xxx-xxx-xx2/xx4). Connection of an external braking resistor is only permitted if int. braking resistor is
disconnected. Parallel operation of both resistors is not permitted!
1.8kW2.3kW5.9kW12.0 kW16.9 kW
1.8kW2.3kW5.9kW12.1 kW16.9 kW
0W
200W
4)
1)
420Ω
3)
90Ω
3)
90 Ω
5)
90 Ω 5)
Dependent on the effective utilisation of the servo drive in the
specific application see chapter 4.15.2
1000W
1)
4700W
1)
4700 W
1)
4700 W
1)
Table A.7 Technical data G394-020 to G394-160
Table A.7 Technical data G394-020 to G394-160
moog
ID no.:CA97555-001 Date:04/2018
NOTE:
For more information on the brake chopper switch-on threshold also refer to
chapter "4.15 Brake chopper connection".
As per IEC/EN61800-2,IEC/EN60721-3-1 class 1K3 and 1K4
in storage
Temperature-25 °C to +55 °C (-13 °F to +131 °F)
Relative humidity5 to 95%
As per IEC/EN61800-2, IEC/EN60721-3-3 class 3K3
in operation
Temperature
Relative humidity5 to 85% without condensation
1) The absolute humidity is limited to max. 60g/m³. This means, at +70 °C (+158°F) for example, that the relative humidity may only be max. 40%.
2) The absolute humidity is limited to max. 29g/m³. So the maximum values for temperature and relative humidity stipulated in the table must not occur
simultaneously.
3) The absolute humidity is limited to max. 25g/m³. That means that the maximum values for temperature and relative humidity stipulated in the table must
not occur simultaneously.
Up to 1,000 m (3,280 ft) above MSL, over 1,000 m (3,280 ft) above MSL with
power reduction (1% per 100 m (328 ft), maximum 2,000 (6,500 ft) above
MSL)
Built-in unit, only for vertical installation in a switch cabinet with minimum IP4x
protection, when using STO safety function minimum IP54
1)
2)
3)
-10 °C to +45 °C (+14 °C to +113 °F) (4kHz), up to +55°C (+131 °F) with
power reduction (2%/°C)
-10 °C to +40 °C (+14 °C to +104 °F) (8, 16kHz), up to +55°C (+131 °F)
with power reduction (2%/°C)
CAUTION! Damage to the device due to incorrect operation!
• Failure to observe the ambient conditions may result in damage.
• No continuous vibration!
The Servo Drives must not be installed in areas where they would be permanently exposed
to vibration.
• Control cabinet minimum IP54 for STO!
According to ENISO13849-2 the switch cabinet must have IP54 protection or higher on
using the STO (Safe Torque OFF) safety function.
• Observe cooling conditions!
Forced cooling by external air flow necessa y. Air must be able to flow unhindered through
the device (air flow at least 1.2 m/s (3.93 ft/s)) If a temperature cut-out occurs, the cooling
conditions must be improved
Cable type
Capacitor charge
Clearances and creepages
Climatic conditions
CoDeSys
Commissioning
Connection diagram
Control
Control connections / Control terminals