indicates that death or severe personal injury will result if proper precautions are not taken.
WARNING
may
CAUTION
indicates that minor personal injury can result if proper precautions are not taken.
NOTICE
indicates that property damage can result if proper precautions are not taken.
Qualified Personnel
personnel qualified
Proper use of Siemens products
WARNING
Siemens products may only be used for the applications described in the catalog and in the relevant technical
ambient conditions must be complied with. The information in the relevant documentation must be observed.
Trademarks
Disclaimer of Liability
This manual contains notices you have to observe in order to ensure your personal safety, as well as to prevent
damage to property. The notices referring to your personal safety are highlighted in the manual by a safety alert
symbol, notices referring only to property damage have no safety alert symbol. These notices shown below are
graded according to the degree of danger.
indicates that death or severe personal injury
If more than one degree of danger is present, the warning notice representing the highest degree of danger will
be used. A notice warning of injury to persons with a safety alert symbol may also include a warning relating to
property damage.
result if proper precautions are not taken.
The product/system described in this documentation may be operated only by
task in accordance with the relevant documentation, in particular its warning notices and safety instructions.
Qualified personnel are those who, based on their training and experience, are capable of identifying risks and
avoiding potential hazards when working with these products/systems.
Note the following:
documentation. If products and components from other manufacturers are used, these must be recommended
or approved by Siemens. Proper transport, storage, installation, assembly, commissioning, operation and
maintenance are required to ensure that the products operate safely and without any problems. The permissible
All names identified by ® are registered trademarks of Siemens AG. The remaining trademarks in this publication
may be trademarks whose use by third parties for their own purposes could violate the rights of the owner.
We have reviewed the contents of this publication to ensure consistency with the hardware and software
described. Since variance cannot be precluded entirely, we cannot guarantee full consistency. However, the
information in this publication is reviewed regularly and any necessary corrections are included in subsequent
editions.
3 System overview ................................................................................................................................... 19
4 Planning the RF200 system .................................................................................................................. 27
1.1 Abbreviations and naming conventions .................................................................................. 14
3.1 RFID components and their function ...................................................................................... 20
3.2 Overview of transponders ....................................................................................................... 23
4.1 Fundamentals of application planning .................................................................................... 27
4.1.1 Selection criteria for SIMATIC RF200 components ................................................................ 27
4.1.2 Transmission window and read/write distance ....................................................................... 27
4.1.3 Width of the transmission window .......................................................................................... 30
4.1.4 Impact of secondary fields ...................................................................................................... 31
4.1.5 Permissible directions of motion of the transponder ............................................................... 34
4.1.6 Operation in static and dynamic mode ................................................................................... 35
4.1.7 Dwell time of the transponder ................................................................................................. 36
4.1.8 Communication between communication module, reader and transponder .......................... 37
4.2 Field data of transponders and readers .................................................................................. 38
4.2.1 Field data ................................................................................................................................ 39
7.24.2 Ordering data ........................................................................................................................ 304
SIMATIC RF200
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Table of contents
8 System integration ............................................................................................................................... 325
9 System diagnostics .............................................................................................................................. 329
A Appendix ............................................................................................................................................. 335
7.24.3 Mounting in metal ................................................................................................................. 304
SIMATIC RF200 is a compact RFID system in the SIMATIC RFID product family. The
product range comprises cost-efficient RF readers that are ideal for use in small assembly
lines or in intralogistics. SIMATIC RF200 RFID readers only support the RFID standard ISO
15693 and are therefore ideal for operation with the extensive range of ISO 15693
transponders.
The readers of the RF200 product family are available with the following interfaces:
● RS-422 for connecting to the communications modules
● RS-232 with a simple ASCII protocol for connection to PCs and third-party controllers
● IO-Link for connection to IO Link masters from Siemens and third-party controllers
Readers with an internal antenna have a particularly compact design
(RF210R/RF220R/RF240R/RF260R). RF250R and RF290R are designed for operation with
external antennas either to achieve longer distances or larger field sizes (RF290R with ANT
D5/D6/D10) or to allow installation where there is very little space (RF250R with ANT
3/8/12/18/30).
This documentation is valid for all variants of the SIMATIC RF200 system and describes the
devices shipped as of July 2015.
SIMATIC ®, SIMATIC RF ®, MOBY ®, RF MANAGER ® and SIMATIC Sensors ® are registered
trademarks of Siemens AG.
For additional information, refer to the manuals:
● Function manual "Ident profile and Ident blocks"
(https://support.industry.siemens.com/cs/us/en/view/106368029
● Function manual "FB 45" (https://support.industry.siemens.com/cs/ww/en/view/21738808)
Switch/fuse to disconnect the reader from the power supply
Operating temperature
CAUTION
Danger of burns
SIMATIC RFID products comply with the salient safety specifications acc. to IEC, VDE, EN,
UL and CSA. If you have questions about the permissibility of the installation in the planned
environment, please contact your service representative.
Do not open the device when when the power supply is on. Unauthorized opening of and
improper repairs to the device may result in substantial damage to equipment or risk of
personal injury to the user.
Alterations to the devices are not permitted.
Failure to observe this requirement shall constitute a revocation of the radio equipment
approval, CE approval and manufacturer's warranty.
Make sure that the readers can be disconnected from the power supply with a switch or a
fuse. The function of the switch or fuse must be clearly recognizable.
Note that some outer components of the reader are made of metal. Depending on the
environmental conditions temperatures can occur on the device that are higher than the
maximum permitted operating temperature.
SIMATIC RF200
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15
Safety notes
Repairs
WARNING
Repairs only by authorized qualified personnel
ng of
System expansions
NOTICE
Warranty conditions
Safety distances
CAUTION
Safety distance between reader/antenna and persons
Note
Safety distance with pacemakers
A safety distance between reader/antenna and persons with pacemakers is not necessary.
Repairs may only be carried out by authorized qualified personnel. Unauthorized openi
and improper repairs to the device may result in substantial damage to equipment or risk of
personal injury to the user.
Only install system expansions intended for this system. If you install other expansions, you
may damage the system or violate the safety requirements and regulations for radio
frequency interference suppression. Contact Technical Support or your local sales
department to find out which system expansions are suitable for installation.
If you cause system defects by installing or exchanging system expansion devices, the
warranty becomes void.
Note that for permanent exposure, the following safety distances must be adhered to:
Siemens provides products and solutions with industrial security functions that support the
secure operation of plants, systems, machines and networks.
In order to protect plants, systems, machines and networks against cyber threats, it is
necessary to implement – and continuously maintain – a holistic, state-of-the-art industrial
security concept. Siemens’ products and solutions only form one element of such a concept.
Customer is responsible to prevent unauthorized access to its plants, systems, machines
and networks. Systems, machines and components should only be connected to the
enterprise network or the internet if and to the extent necessary and with appropriate security
measures (e.g. use of firewalls and network segmentation) in place.
Additionally, Siemens’ guidance on appropriate security measures should be taken into
account. For more information about industrial security, please visit
Link: (http://www.siemens.com/industrialsecurity
Siemens’ products and solutions undergo continuous development to make them more
secure. Siemens strongly recommends to apply product updates as soon as available and to
always use the latest product versions. Use of product versions that are no longer supported,
and failure to apply latest updates may increase customer’s exposure to cyber threats.
)
To stay informed about product updates, subscribe to the Siemens Industrial Security RSS
Feed under
Link: (http://www.siemens.com/industrialsecurity
).
SIMATIC RF200
System Manual, 07/2017, J31069-D0227-U001-A9-7619
SIMATIC RF200 is an inductive identification system that is compatible with the ISO 15693
standard and was specially designed for use in industrial production for the control and
optimization of material flows.
In contrast to SIMATIC RF300, SIMATIC RF200 is intended for RFID applications where
performance requirements are not very high, for example with regard to data volume,
transfer rate or diagnostics options. SIMATIC RF200 is characterized by particularly
favorable prices.
SIMATIC RF200
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Only in conjunction with RF350M for external antennas (6GT2803-1BA10)
✓
Combination possible
--
Combination not possible
○
Combination possible, but not recommended
3.1 RFID components and their function
Table 3- 1 Reader-transponder combination options, Part 1
○-- -- -- -- -- ✓
✓✓✓✓✓○ / ✓ 5) ✓
6)
6)
6)
6)
6)
6)
only with the article number 6GT2600-0AA10
only with the article number 6GT2600-0AB10
The transponder MDS D522 special variant has the same compatibility as the transponder MDS D522.
in conjunction with ANT D5, D6 or D10
combination recommended only in conjunction with ANT D5.
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System overview
RF250R with
Transponder
ANT 1
ANT 3
ANT 8
ANT 12
ANT 18
ANT 30
MDS D100 ✓ ○
--
--
--
○
MDS D117
--
-- ✓ ✓
--
--
MDS D124
MDS D126 ✓ ✓
--
--
--
✓
MDS D127
--
-- ✓ ✓
--
--
MDS D139 ✓ ○
--
--
--
○
MDS D160 ✓ ✓
-- ✓ ✓
✓
MDS D165 ✓ ○
--
--
--
○
MDS D200 ✓ ○
--
--
--
○
MDS D261 ✓ ○
--
--
--
○
MDS D324 ✓ ✓
-- ○ ✓
✓
MDS D339 ✓ ○
--
--
--
○
MDS D400 ✓ ○
--
--
--
○
MDS D421
--
-- ✓ ✓ ✓ --
MDS D422
-- ✓ -- ✓ ✓
✓
MDS D423 ✓ ✓
--
-- ✓ ✓
MDS D424 ✓ ✓
--
-- ✓ ✓
MDS D425 ✓ ✓
-- ✓ ✓
✓
MDS D426 ✓ ✓
--
--
--
✓
MDS D428 ✓ ✓
-- ✓ ✓
✓
MDS D460 ✓ ✓
-- ✓ ✓
✓
MDS D521
MDS D522)
-- ✓ -- ✓ ✓
✓
MDS D524 ✓ ✓
--
-- ✓ ✓
MDS D525 ✓ ✓
-- ✓ ✓
✓
MDS D526 ✓ ✓
--
--
--
✓
MDS D528 ✓ ✓
-- ✓ ✓
✓
✓
Combination possible
--
Combination not possible
○
Combination possible, but not recommended
3.1 RFID components and their function
Table 3- 2 Reader-transponder combination options, Part 2
Overview of typical areas of application of ISO transponders for RF200
Transponder
Area of application
ranges are achieved in combination with the SIMATIC RF260R reader.
tool identification.
MDS D124
Application areas in factory automation (e.g. small paintshops to 180°C).
logistics; can also be deployed in harsh conditions.
identification.
and distribution logistics, right up to product identification
and distribution logistics, right up to product identification.
and distribution logistics, right up to product identification.
For typical areas of application, see "MDS D139".
3.2 Overview of transponders
MDS D100 From simple identification such as electronic barcode replacement or supplementation, through ware-
house and distribution logistics, right up to product identification. With this transponder, the maximum
MDS D117 Very compact data carrier that can be cemented into objects where precise positioning is necessary. e.g.
MDS D126 Compact and rugged ISO transponder; suitable for identification of transport units in production-related
MDS D127 Very compact data carrier that can be screwed into areas where precise positioning is necessary. e.g. tool
MDS D139 1) Applications in production automation with high temperature demands (up to +220 °C).
Typical application areas:
• Paintshops and their preparatory treatments
• Primer coat, electrolytic dip area, cataphoresis with the associated drying furnaces
• Top coat area with drying furnaces
• Washing areas at temperatures > 85 °C
• Other applications with higher temperatures
MDS D160 2) Typical applications are, for example:
• Rented work clothing
• Hotel laundry
• Surgical textiles
• Hospital clothing
• Dirt collection mats
• Clothing for nursing homes/hostels
• Assembly lines with very small workpiece holders
MDS D165 Smart label (self-adhesive label)
From simple identification such as electronic barcode replacement/supplementation, through warehouse
MDS D200 From simple identification such as electronic barcode replacement/supplementation, through warehouse
MDS D261 Smart label (self-adhesive label)
The design of the transponder (self-adhesive label) permits a variety of designs in order to ensure optimum dimensioning for the widest variety of applications.
From simple identification such as electronic barcode replacement/supplementation, through warehouse
MDS D324 Production and distribution logistics as well as in assembly and production lines
MDS D339 Applications in production automation with high temperature demands (up to +220 °C).
SIMATIC RF200
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System overview
Transponder
Area of application
tion logistics right through to product identification.
workpiece holders
MDS D422
Identification of metallic workpiece holders, workpieces or containers
MDS D424
Production and distribution logistics as well as in assembly and production lines
and workpiece holders
logistics; can also be deployed in harsh conditions
Use in assembly and production lines in the powertrain sector
MDS D460
Assembly lines with very small workpiece holders
carriers and exact positioning are required, e.g. tool identification, workpiece holders.
MDS D522
Identification of metallic workpiece holders, workpieces or containers
ants
logistics; can also be deployed in harsh environmental conditions
Use in assembly and production lines in the powertrain sector
1)
2)
Only with the MLFB 6GT2600-0AB10
Overview of the memory sizes of the ISO transponders for RF200
Transponder
Memory size
MDS D1xx
112 bytes of EEPROM
MDS D2xx
256 bytes of EEPROM
MDS D3xx
992 bytes of EEPROM
MDS D4xx
2000 bytes FRAM
MDS D5xx
8192 bytes FRAM
3.2 Overview of transponders
MDS D400 Simple identification such as electronic barcode replacement/supplements, from warehouse and distribu-
MDS D421 The MDS D421 is designed for tool coding according to DIN 69873.
It can be used wherever small data carriers and exact positioning are required, e.g. tool identification,
MDS D423 Identification of metallic workpiece holders, workpieces or containers, production automation
MDS D425 Compact and rugged ISO transponder; suitable for screw mounting.
Use in assembly and production lines in the powertrain sector; ideal for mounting on motors, gearboxes,
MDS D426 Compact and rugged ISO transponder; suitable for identification of transport units in production-related
MDS D428 Compact and rugged ISO transponder; suitable for screw mounting
MDS D521 The MDS D521 is constructed for tool coding according to DIN 69873. It can be used wherever small data
MDS D522
If Identification of metallic workpiece holders or workpieces
Special vari-
MDS D524 Production and distribution logistics as well as in assembly and production lines
MDS D526 Compact and rugged ISO transponder; suitable for identification of transport units in production-related
MDS D528 Compact and rugged ISO transponder; suitable for screw mounting
SIMATIC RF200
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4
4.1
Fundamentals of application planning
4.1.1
Selection criteria for SIMATIC RF200 components
4.1.2
Transmission window and read/write distance
Assess your application according to the following criteria, in order to choose the right
SIMATIC RF200 components:
● Static or dynamic data transfer
● Data volume to be transferred
● Speed in case of dynamic transfer
● Ambient conditions such as relative humidity, temperature, chemical impacts, etc.
The reader generates an inductive alternating field. The field is strongest close to the reader;
however, a read/write distance of "zero" between reader and transponder is not
recommended.
The field strength of the alternating field decreases quickly in proportion to the distance from
the reader. The distribution of the field depends on the structure and geometry of the
antennas in the reader and transponder
A prerequisite for the function of the transponder is a minimum field strength at the
transponder, which is still barely achieved at distance S
The picture below shows the transmission window of the SIMATIC RF210R and
SIMATIC RF220R readers between transponder and reader:
from the reader.
g
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Planning the RF200 system
Sa
Operating distance between transponder and reader
sponder, at which the transmission can still function under normal conditions)
L
Diameter of a transmission window
SP
Intersection of the axes of symmetry of the transponder
4.1 Fundamentals of application planning
Sg Limit distance (maximum clear distance between upper surface of the reader and the tran-
Figure 4-1 RF210R/RF220R transmission window
The figure below shows the transmission window of the SIMATIC RF240R and SIMATIC
RF260R readers between transponder and reader:
sponder, at which the transmission can still function under normal conditions)
L
Length of a transmission window
M
Field centerpoint
4.1 Fundamentals of application planning
Sg Limit distance (maximum clear distance between upper surface of the reader and the tran-
Figure 4-2 RF240R/RF260R transmission window
The transponder can be used as soon as the intersection (SP) of the transponder enters the
area of the transmission window.
From the diagrams above, it can also be seen that operation is possible within the area
between S
and Sg. The active operating area reduces as the distance increases, and
a
shrinks to a single point at distance S
between S
SIMATIC RF200
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and Sg.
a
. Only static mode should thus be used in the area
g
29
Planning the RF200 system
4.1.3
Width of the transmission window
Determining the width of the transmission window
B:
Width of the transmission window
L:
Length of the transmission window
Tracking tolerances
4.1 Fundamentals of application planning
The following approximation formula can be used for practical applications:
The width of the transmission window (B) is particularly important for the mechanical tracking
tolerance. The formula for the dwell time is valid without restriction when B is observed.
Secondary fields in the range from 0 mm to 30% of the limit distance (Sg) generally always
exist.
They should, however, only be used during configuration in exceptional cases, since the
read/write distances are very limited. Exact details of the secondary field geometry cannot be
given, since these values depend heavily on the operating distance and the application.
When working in dynamic mode, remember that during the transition from the secondary
field to the main field the presence of the tag is lost temporarily. It is therefore advisable to
select a distance > 30 % of S
.
g
Figure 4-3 Gap in the field resulting from secondary fields
SIMATIC RF200
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Planning the RF200 system
Secondary fields without shielding
①
Main field
②
Secondary field
4.1 Fundamentals of application planning
The following graphic shows typical primary and secondary fields, if no shielding measures
are taken.
Figure 4-4 Secondary field without shielding
In this arrangement, the reader can also read tags via the secondary field. Shielding is
required in order to prevent unwanted reading via the secondary field, as shown and
described in the following.
The following graphic shows typical primary and secondary fields, with metal shielding this
time.
The metal shielding prevents the reader from detecting tags via the secondary field.
Figure 4-5 Secondary field with shielding
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Planning the RF200 system
4.1.5
Permissible directions of motion of the transponder
Detection area and direction of motion of the transponder
4.1 Fundamentals of application planning
The transponder and reader have no polarization axis, i.e. the transponder can come in from
any direction, assume any position as parallel as possible to the reader, and cross the
transmission window. The figure below shows the active area for various directions of
transponder motion:
Transmission window
Figure 4-6 Detection areas of the reader for different directions of transponder motion
Note that in a metallic environment the values for the limit distance are reduced.
Operation in dynamic mode
4.1 Fundamentals of application planning
If working in static mode, the transponder can be operated up to the limit distance (Sg). The
transponder must then be positioned exactly over the reader:
Figure 4-7 Operation in static mode
When working in dynamic mode, the transponder moves past the reader. The transponder
can be used as soon as the intersection (SP) of the transponder enters the circle of the
transmission window. In dynamic mode, the operating distance (S
[Operating distances, see Chapter Field data of transponders and readers (Page 38)]
) is of primary importance.
a
Figure 4-8 Operation in dynamic mode
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Planning the RF200 system
4.1.7
Dwell time of the transponder
tV:
Dwell time of the transponder
L:
Length of the transmission window
v
:
Speed of the transponder (tag) in dynamic mode
0.8: Constant factor used to compensate for temperature influence and production tole
ances
tV::
Dwell time of the data memory in the field of the reader
tK:
Communication time between transponder and communication module
tK:
Communication time between transponder and communication module
K Constant; the constant is an internal system time. This includes the time for power
buildup on the MDS and for command transfer
t
Byte
Transmission time for 1 byte
n
Amount of user data in bytes
n
Maximum amount of user data in bytes in dynamic mode
tV
Dwell time of the data memory in the field of the reader
4.1 Fundamentals of application planning
The dwell time is the time in which the transponder remains within the transmission window
of the reader. The reader can exchange data with the transponder during this time.
The dwell time is calculated as follows:
Tag
r-
The dwell time can be of any duration in static mode. The dwell time must be sufficiently long
to allow communication with the transponder.
The dwell time is defined by the system environment in dynamic mode. The volume of data
to be transferred must be matched to the dwell time or vice versa. As a general rule:
Communication between communication module, reader and transponder
Aids for calculating the data transmission times
4.1 Fundamentals of application planning
User-friendly calculation tools are available for the communications modules ASM 456,
RF160C, RF170C and RF180C to calculate data transfer times. The calculation tools can be
found on the DVD "Ident Systems Software & Documentation", article number 6GT20802AA20.
Figure 4-9 User interface of the calculation tool for command processing time
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Planning the RF200 system
Aids for calculating the field data
4.2
Field data of transponders and readers
Tolerances of ±20 % are permitted due to production or temperature
conditions.
Note
Transmission gaps
If the minimum operating distance (S
center of the field. Communication with the transponder is not possible in the transmission
gap.
4.2 Field data of transponders and readers
You will also find a tool for calculating field data on the DVD "Ident Systems, Software &
Documentation". Using this tool, among other things you can calculate the operating
distance (S
), limit distance (Sg) and transmission window (L).
a
Figure 4-10 User interface of the calculation tool for field data acquisition
The following tables show the field data for all SIMATIC RF200 components of transponders
and readers. This makes the correct selection of a transponder and reader particularly easy.
All the technical specifications listed are typical data and are applicable for an ambient
temperature between 0 °C and +50 °C, a supply voltage between 22 and 27 VDC and a
metal-free environment.
If the entire voltage range at the reader of 20 VDC to 30 VDC and/or the entire temperature
range of transponders and readers is used, the field data is subject to further tolerances.
) is not observed, a transmission gap can occur in the
tables of the following section show the possible reader-transponder combinations.
The limit distances (Sg) and operating distances (Sa) along with the length of the
transmission window for each reader-transponder combination are listed in the tables below.
Table 4- 1 SIMATIC RF210R field data
The transponder is only suitable for static mode.
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Table 4- 14 Field data SIMATIC RF290R, with ANT D10 (at 4 W)
1050 350 0 ... 400 500
1000 300 0 ... 130 180
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Planning the RF200 system
4.2.2
Minimum clearances
Minimum distance from transponder to transponder
RF210R
RF220R
RF240R
RF260R
RF280R
MDS D100
--
--
--
≥ 240
≥ 420
MDS D117
MDS D124
≥ 25
≥ 40
≥ 90
≥ 180
≥ 360
MDS D126
--
≥ 50
≥ 100
≥ 180
≥ 400
MDS D127
≥ 15
--
--
--
--
MDS D139
--
--
--
≥ 200
≥ 450
MDS D160
≥ 20
≥ 25
≥ 70
≥ 150
≥ 300
MDS D165
--
--
--
≥ 240
≥ 500
MDS D200
--
--
--
≥ 240
≥ 500
MDS D261
--
--
--
≥ 200
≥ 400
MDS D324
≥ 25
≥ 40
≥ 90
≥ 180
≥ 360
MDS D339
--
--
--
≥ 200
≥ 450
MDS D400
--
--
--
≥ 240
≥ 500
MDS D421
≥ 10
--
--
--
--
MDS D422
≥ 15
≥ 20
≥ 50
--
--
MDS D423
--
--
≥ 80
≥ 160
≥ 250
MDS D424
≥ 25
≥ 40
≥ 90
≥ 180
≥ 360
MDS D425
≥ 20
≥ 25
≥ 75
--
≥ 250
MDS D426
--
≥ 50
≥ 90
≥ 180
≥ 400
MDS D428
≥ 25
≥ 25
≥ 75
≥ 150
≥ 300
MDS D460
MDS D521
≥ 10
--
--
--
--
MDS D522
≥ 15
≥ 20
≥ 50
--
--
MDS D522
Special variants
MDS D524
≥ 25
≥ 40
≥ 90
≥ 180
≥ 360
MDS D526
--
≥ 50
≥ 90
≥ 180
≥ 400
MDS D528
≥ 25
≥ 25
≥ 75
≥ 150
≥ 300
All values are in mm, relative to the operating distance (S
between transponder edge and transponder edge
4.2 Field data of transponders and readers
The specified distances refer to a metal-free environment. For a metallic environment, the
specified minimum distances must be multiplied by a factor of 1.5. The transponders
designed specifically for installation in/on metal are an exception to this.
All values are in mm, relative to the operating distance (S
between transponder edge and transponder edge
4.2 Field data of transponders and readers
Table 4- 16 Minimum clearances for transponders
≥ 100-- -- ≥ 80≥ 100≥ 800≥ 1200≥ 1800
-- ≥ 30≥ 40≥ 50-- -- -- --
≥ 70 -- ≥ 50 ≥ 60 ≥ 70 -- -- --
Depends on the connected antenna (ANT 3, 8, 12, 18 or 30).
Depends on the connected antenna (ANT D5, D6 or D10).
) between reader and transponder, and
a
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Planning the RF200 system
Minimum distance from reader to reader
RF210R to
RF210R
RF220R to
RF220R
RF240R to
RF240R
ANT x to ANT x
with RF250R
RF260R to
RF260R
RF280R to
RF280R
ANT Dx to ANT
Dx
with RF290R
ANT 3: ≥ 100
ers ≥ 500
ANT D5: ≥ 2000
ANT 12: ≥ 60
ANT 30: ≥ 100
All values are in mm
Note
Effect on inductive fields by not maintaining the minimum distances of the readers
If the values fall below those specified in the "minimum distance readers or antennas", there
is a risk of the function being affected by inductive fields. In this case, the data transfer time
would
Keeping to the values specified in the "Minimum distance readers or antennas" table is
therefore essential.
4.3
Installation guidelines
4.3.1
Overview
4.3 Installation guidelines
Table 4- 17 Minimum distances to readers or antennas
≥ 60 ≥ 100 ≥ 120
ANT 8: ≥ 50 ANT D10: ≥
ANT 18: ≥ 80
≥ 150 with 2
readers ≥
400
with multi-
ple read-
2000
increase unpredictably or a command would be aborted with an error.
If the specified minimum distance cannot be complied with due to the physical configuration,
the SET-ANT command can be used to activate and deactivate the HF field of the reader.
The application software must be used to ensure that only one reader is active (antenna is
switched on) at a time.
The transponder and reader complete with their antennas are inductive devices. Any type of
metal in the vicinity of these devices affects their functionality. Some points need to be
considered during planning and installation if the values described in the "Field data
(Page 39)" section are to retain their validity:
● Minimum spacing between two readers or their antennas
● Minimum distance between two adjacent data memories
● Metal-free area for flush-mounting of readers or their antennas and transponders in metal
● Mounting of multiple readers or their antennas on metal frames or racks
The following sections describe the impact on the operation of the RFID system when
mounted in the vicinity of metal.
Table 4- 18 Interference due to metal rack
A metal rack is located above the
transmission window of the reader.
This affects the entire field. In particular, the transmission window
between reader and transponder is
reduced.
The transmission window is no
longer affected if the transponder is
mounted differently.
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Planning the RF200 system
Representation
Description
Problem:
Remedy:
Remedy:
4.3 Installation guidelines
Table 4- 19 Flush-mounting of transponders and readers
Flush-mounting of transponders and
readers is possible in principle.
However, the size of the transmission window is significantly reduced.
The following measures can be
used to counteract the reduction of
the window:
Enlargement of the non-metallic
spacer below the transponder
and/or reader.
The transponder and/or reader are
10 to 20 mm higher than the metal
surround.
(The value x ≥ 100 mm is valid, for
example, for RF260R. It indicates
that, for a distance x ≥ 100 mm, the
reader can no longer be significantly
affected by metal.)
Increase the distances a, b to metal.
The following rule of thumb can be
used:
• Increase a, b by a factor of 2 to 3
over the values specified for
metal-free areas
• Increasing a, b has a greater
effect for readers or transponders with a large limit distance
than for readers or transponders
with a small limit distance.
Mounting of several readers on metal frames or racks
Representation
Description
Problem:
Interaction between readers
Remedy:
Remedy:
Remedy:
4.3.3
Effects of metal on different transponders and readers
Mounting different transponders and readers on metal or flush-mounting
4.3 Installation guidelines
Any reader mounted on metal couples part of the field to the metal frame. There is normally
no interaction as long as the minimum distance D and metal-free areas a, b are maintained.
However, interaction may take place if an iron frame is positioned unfavorably. Longer data
transfer times or sporadic error messages at the communication module are the result.
Table 4- 20 Mounting of several readers on metal frames or racks
Increase the distance D between the two readers.
Introduce one or more iron struts in order to shortcircuit the stray fields.
Insert a non-metallic spacer of 20 to 40 millimeter
thickness between the reader and the iron frame. This
will significantly reduce the induction of stray fields on
the rack:
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Certain conditions have to be observed when mounting the transponders and readers on
metal or flush-mounting. For more information, please refer to the descriptions of the
individual transponders and readers in the relevant section.
53
Planning the RF200 system
4.3.4
Impact of metal on the transmission window
Note
Possible reader-transponder combinations
The tables of the following section show the possible reader
4.3 Installation guidelines
In general, the following points should be considered when mounting RFID components:
● Direct mounting on metal is allowed only in the case of specially approved transponders.
● Flush-mounting of the components in metal reduces the field data; a test is recommended
in critical applications.
● When working inside the transmission window, make sure that no metal rail (or similar
part) intersects the transmission field.
The metal rail would affect the field data.
● With readers with a large antenna surface (e.g. RF340R) for reasons of communication
reliability, when the transponders are flush-mounted in metal, a metal-free space around
the transponders is recommended. This metal-free space should match the size of the
antenna surface.
● The reduction of field data is also based on the minimum distance between the reader
and transponder. The respective recommendations are listed in the following table.
The impact of metal on the field data (S
, Sa, L) is shown in a table in this section. The
g
values in the tables describe field data reduction and show the reduced range as a
percentage. The range relates to use in a non-metallic environment. A value of 100% means
no influence on the range.
The RF210R can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction in the case of d), the distance a should be ≥ 10 mm.
The following table shows the different arrangements for the reader with and without a
metallic environment:
a)
b)
Reader metal-free
Reader on metal,
distance from metal ≥ 12 mm
c)
d)
Reader in metal,
flush against M18 nut
Reader in metal,
all around
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Planning the RF200 system
Transponder
Reader without direct
metal influence
(Case a, b and d)
Reader flush-
mounted in metal
(Case c)
MDS D124
Metal-free
100
82
distance all round 15 mm
MDS D127
distance all round 0 mm
MDS D160
Metal-free
100
95
On metal, distance 10 mm
100
95
MDS D324
Metal-free
100
90
On metal, distance 15 mm
90
90
distance all round 25 mm
MDS D421
Metal-free
100
90
distance all round 0 mm
MDS D422
Metal-free
100
80
distance all round 0 mm
MDS D423
Metal-free
100
90
On metal, distance 0 mm
110
100 2)
distance all round 10 mm
MDS D424
Metal-free
100
60
On metal, distance 15 mm
90
80
distance all round 25 mm
MDS D425
Metal-free
100
85
On metal, distance 0 mm
100
85
MDS D428
Metal-free
100
90
On metal, distance 0 mm
100
80
MDS D460
Metal-free
100
90
On metal, distance 25 mm
100
90
MDS D521
Metal-free
100
90
distance all round 0 mm
MDS D522
Metal-free
100
80
distance all round 0 mm
MDS D522
Special variants
Metal-free
100
80
distance all round 0 mm
4.3 Installation guidelines
Table 4- 21 Reduction of field data due to metal, range as %: Transponder and RF210R
1)
On metal, distance 15 mm 90 90
Flush-mounted in metal;
specifically for mounting in/on metallic surroundings.
4.3 Installation guidelines
1)
On metal, distance 15 mm 90 80
Flush-mounted in metal;
Metal-free 100 90
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
adequate clearance to the metal.
Values of > 100 % related to non metal surroundings can occur if transponders were developed
85 75
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Planning the RF200 system
4.3.4.2
RF220R
Case
Diagram
Description
4.3 Installation guidelines
The RF220R can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction in the case of d), the distance a should be ≥ 15 mm.
The following table shows the different arrangements for the reader with and without a
metallic environment:
Table 4- 22 Reduction of field data due to metal, range as %: Transponder and RF220R
1)
On metal, distance 15 mm 97 89
Tag flush-mounted in metal;
1)
Metal-free 100 75
86 83
Flush-mounted in metal;
1)
1)
Flush-mounted in metal;
80 65
93 86
Flush-mounted in metal;
85 85
Flush-mounted in metal;
1)
Metal-free 100 93
Flush-mounted in metal;
80 75
86 82
Flush-mounted in metal;
95 75
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1)
Flush-mounted in metal;
80 70
1)
Flush-mounted in metal;
85 85
distance all round 0 mm
59
Planning the RF200 system
Transponder
Reader without direct
metal influence
(Case a, b and d)
Reader flush-
mounted in metal
(Case c)
MDS D522
Special variants
Metal-free
100
90
MDS D524
Metal-free
100
93
distance all round 0 mm
MDS D526
Metal-free
100
90
On metal, distance 25 mm
90
75
distance all round 50 mm
MDS D528
Metal-free
100
94
On metal, distance 0 mm
100
94
1)
2)
specifically for mounting in/on metallic surroundings.
4.3.4.3
RF240R
4.3 Installation guidelines
Flush-mounted in metal;
distance all round 0 mm
1)
On metal, distance 0 mm 96 89
Flush-mounted in metal;
1)
85 85
86 82
Flush-mounted in metal;
80 70
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
adequate clearance to the metal.
Values of > 100 % related to non metal surroundings can occur if transponders were developed
The RF240R can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction, the distance a should be ≥ 20 mm.
The RF250R reader is operated with the external antennas ANT 3, 8, 12, 18 and 30. The
antennas can be flush-mounted in metal. Please allow for a possible reduction in the field
data values.
Figure 4-12 Metal-free space for ANT 8 / ANT 12 and ANT 18 / ANT 30
Table 4- 24 Reduction of field data due to metal, range as %: Transponder and RF250R with ANT 1
1)
Flush-mounted in metal;
1)
Flush-mounted in metal;
1)
Flush-mounted in metal;
1)
Without metal 100 90 85
Flush-mounted in metal;
60 45 45
85 80 50
80 70 70
95 85 85
distance all round 100 mm
1)
On metal; distance 10 mm 85 85 80
1)
Flush-mounted in metal;
75 65 65
distance all round 20 mm
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specifically for mounting in/on metallic surroundings.
4.3.4.5
RF260R
4.3 Installation guidelines
Flush-mounted in metal;
1)
95 80
Flush-mounted in metal;
1)
Flush-mounted in metal;
75 70
55 45
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
adequate clearance to the metal.
Values of > 100 % related to non metal surroundings can occur if transponders were developed
The RF260R can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction, the distance a should be ≥ 20 mm.
Figure 4-13 Metal-free space for RF260R
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Planning the RF200 system
Transponder
Reader
without
metal direct
metal influ-
ence
Reader on met-
al
(metal plate)
Reader flush-
mounted in metal
(all round 20 mm)
MDS D100
Without metal
100
85
65
distance all round 20 mm 4)
MDS D124
On metal, distance 15 mm
95
85
70
distance all round 25 mm 2)
MDS D126
Without metal
100
85
73
On metal, distance 25 mm
75
68
60
distance all round 50 mm 3)
MDS D139
Without metal
100
90
75
On metal; distance 30 mm 4)
95
90
75
MDS D160
Without metal
100
90
75
On metal, distance 10 mm
90
80
80
MDS D165
Without metal
100
85
65
On metal; distance 25 mm 4)
65
60
45
MDS D200
Without metal
100
85
70
On metal, distance 20 mm
70
65
50
distance all round 20 mm 3)
MDS D261
On metal; distance 25 mm 3)
80
70
60
MDS D324
On metal, distance 15 mm
90
80
70
MDS D339
Without metal
100
90
75
On metal; distance 30 mm 4)
95
90
75
MDS D400
Without metal
100
85
70
On metal, distance 20 mm
70
65
50
distance all round 20 mm 4)
MDS D423
Without metal
100
95
85
On metal, distance 0 mm
120 5)
115 5)
110 5)
4.3 Installation guidelines
Table 4- 30 Reduction of field data due to metal, range as %: Transponder and RF260R
1)
On metal, distance 20 mm 70 65 50
Flush-mounted in metal;
On metal, distance 15 mm 90 80 70
Flush-mounted in metal;
1)
Without metal 100 100 73
60 60 50
Flush-mounted in metal;
65 55 55
1)
1)
Flush-mounted in metal;
1)
Flush-mounted in metal;
60 60 50
65 55 55
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
adequate clearance to the metal.
Transponder flush-mounted in metal; minimum distance to reader 5 mm
Transponder flush-mounted in metal; minimum distance to reader 10 mm
Transponder flush-mounted in metal; minimum distance to reader 15 mm
Values > 100 % can occur if transponders were developed specifically for mounting in/on metallic
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Planning the RF200 system
4.3.4.6
RF280R
Transponder
Reader without
metal direct
metal influence
Reader on
metal (metal
plate)
Flush-mounted
in metal (20 mm
all-round)
MDS D100
Without metal
100
95
80
On metal; distance 20 mm
65
60
55
distance all round 20 mm 2)
MDS D124
Without metal
100
95
90
distance all round 20 mm 2)
MDS D126
On metal; distance 25 mm
80
75
70
distance all round 50 mm 3)
MDS D139
Without metal
100
90
75
On metal; distance 30 mm
95
85
70
distance all round 100 mm 4)
MDS D160
Without metal
100
95
90
On metal; distance 10 mm 2)
85
85
80
MDS D165
Without metal
100
90
80
On metal; distance 25 mm 4)
80
75
70
MDS D200
Without metal
100
90
80
On metal; distance 20 mm
80
75
70
4.3 Installation guidelines
The RF280R can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction, the distance a should be ≥ 20 mm.
Figure 4-14 Metal-free area RF280R
Table 4- 31 Reduction of field data due to metal, range as %: Transponder and RF280R
1)
Flush-mounted in metal;
1)
55 50 45
On metal; distance 15 mm 95 90 85
Flush-mounted in metal;
specifically for mounting in/on metallic surroundings.
4.3 Installation guidelines
Flush-mounted in metal;
65 60 55
Without metal 100 95 85
1)
Without metal 100 95 85
Flush-mounted in metal;
1)
Flush-mounted in metal;
1)
Flush-mounted in metal;
70 65 60
80 75 70
60 60 55
Flush-mounted in metal;
1)
1)
On metal; distance 15 mm 75 75 60
Flush-mounted in metal;
75 65 60
60 55 40
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
adequate clearance to the metal.
Transponder flush-mounted in metal; minimum distance to reader 5 mm
Transponder flush-mounted in metal; minimum distance to reader 10 mm
Transponder flush-mounted in metal; minimum distance to reader 15 mm
Values > 100 % in relation to non-metal surroundings can occur if transponders were developed
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1)
1)
Flush-mounted in metal;
1)
75 65 65
75
Planning the RF200 system
4.3.4.7
RF290R
Transponder
RF290R with ANT D5
Antenna on metal
(metal plate)
Antenna flush-
mounted in metal
(all round 150 mm)
MDS D100
Without metal
100
95
On metal, distance 20 mm
65
60
distance all round 20 mm
MDS D124
Without metal
100
95
On metal, distance 15 mm
85
80
distance all round 25 mm
MDS D126
Without metal
100
95
On metal, distance 25 mm
70
65
distance all round 50 mm
MDS D139
Without metal
100
95
On metal, distance 30 mm
90
85
MDS D160
Without metal
100
95
On metal, distance 10 mm
70
65
MDS D165
Without metal
100
95
On metal, distance 25 mm
65
60
MDS D200
Without metal
100
95
On metal, distance 20 mm
65
60
4.3 Installation guidelines
The RF290R reader is operated with the external antennas ANT D5, D6 and D10. The
antennas can be flush-mounted in metal. Please allow for a possible reduction in the field
data values. To avoid reduction, the distance a should be ≥ 150 or 200 mm.
Figure 4-15 Metal-free space for ANT D5
Table 4- 32 Reduction of field data due to metal, range as %: Transponder and RF290R
Table 4- 34 Reduction of field data due to metal, range as %: Transponder and RF290R with ANT
D10
1)
1)
Without metal 100 90
1)
1)
1)
1)
1)
1)
1)
On metal, distance 20 mm 50 40
1)
1)
1)
1)
Mounting the transponder on or in metal is only possible with the appropriate spacer or if there is
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Planning the RF200 system
4.3.5
Installation and connection of 2 to 6 antennas with one RF290R reader
4.3.5.1
Installation options with the antenna splitter (2-4 antennas)
Possible configurations of the antennas
4.3 Installation guidelines
If several antennas need to be operated on one reader, this can be achieved by using the
antenna splitter or the antenna multiplexer RF260X.
Note that the antenna splitter is a purely passive device that splits the power at the input to
two outputs and therefore halves it. This is possible both in PC mode (RS-232) and CM
mode (RS-422). You can cascade the antenna splitters in such a way that up to 4 antennas
can be connected at the same time.
The antenna multiplexer RF260X works only in PC mode (RS-232) in time division multiplex
mode. This means that each antenna operates with full power for a certain time before the
device moves on automatically to the next antenna. The antenna multiplexer normally
operates in scan mode or buffered read mode which with suitable parameter assignment add
the information about the antenna number to the reply of the transponder. You can operate
up to six antennas on one reader via the multiplexer.
The antenna installations described here have been designed for reading smartlabels
(transponders) on goods on conveyor belts, conveyor systems or pallets.
A prerequisite is that there are no magnetically conducting materials (e.g. metal) in the
vicinity of the antenna or the label.
The minimum spacings between the antennas for operation with only one reader may be
less than the distances described because this configuration has the same phase.
4.3 Installation guidelines
Figure 4-19 Installation example with ANT D6 (tunnel)
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Planning the RF200 system
4.3.5.2
Antenna installation
Configuring instructions
Note
Remember that the entire acquisition range of the antenna is larger than the transmission
window in which the transponder is normally configured. This m
alignments where even labels outside the transmission window will be identified. Labels
aligned in parallel with the antennas, for example, can also be detected at larger distances
beside or outside the antenna range.
For this reaso
the installation. If this cannot be complied with, the antennas must be shielded.
To achieve three
require
•
•
•
l can be reduced if the gate width is correspondingly reduced. This applies especially
•
•
and alignment of the labels, the number of data blocks to be processed, the data protocol
•
•
Note
The RF290
4.3 Installation guidelines
The antenna installation described below enables detection of transponders moving
horizontally through the installation. Depending on the installation (antennas exactly opposite
each other or offset in parallel), the label is aligned in parallel with the antennas or arbitrarily.
The size of the sensing range depends on the label alignment:
n, goods with labels must not be stored within a distance of up to 0.5 m from
-dimensional detection of the labels in the sensing range, the following
ments must be met:
The gate width must be less than or equal to 800 mm.The antenna size of the labels should be at least the size of an ISO card (85 mm x 54
mm).
The distance from label to label must be greater than 100 mm. The distance from label to
labe
for distances under 50 mm.
There should be no more than 16 labels within the sensing range of the antennas at the
same time.
The number of labels can be increased if the gate width is correspondingly reduced and
the maximum speed suitably adapted.
The maximum speed of the labels must not exceed 1 m/s. (This depends on the number
required and the label type).
To the front and sides of the antenna, there must be a distance of more than 150 mm to
metal parts.
There must be no interference to the write/read device from other electrical equipment in
the surrounding area.
eans there can be label
R reader is not capable of multitag operation in the CM mode.
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The cables on the antennas and the antenna splitter are 3.3 m or 10.5 m long. The
write/read device must be installed in the vicinity of the antennas. If there are greater
distances between the write/read device and the antennas, the antenna cable can be
increased by 7.2 m with the extension (6GT2691-0DH72). This results in shorter ranges.
85
Planning the RF200 system
Metal-free space
a
approx. half antenna length
b
min. 100 mm
c
max. 600 mm
Metal in the vicinity of the antennas
4.3 Installation guidelines
To guarantee perfect functioning of the individual installation versions, all larger metal parts
in the vicinity of the antennas must be removed.
Figure 4-20 Metal-free space, side view (based on the example of a tunnel arrangement on a
conveyor belt)
Metal-free space
Figure 4-21 Metal-free space, view from above (based on the example of a tunnel arrangement on a
conveyor belt)
If metal in the vicinity of the antennas cannot be avoided, the following must be noted:
● There must be a minimum allround gap of 100 mm between the antenna and metal.
Serious loss of sensing range must be expected above 50 mm. There is no discernible
influence at distances greater than 150 mm from the metal.
● The influence of the metal depends heavily on its size and shape. Thin metal rods have
less influence on the magnetic field than large surfaces.
● Larger metal surfaces (edge length > 50 mm) in parallel with the antennas or labels result
in a short-circuit of the magnetic lines of force. As a result, the labels cannot be read.
● Metal parts under the conveyor belt change the direction of the magnetic lines of force.
Serious loss of sensing range must be expected as a result. Horizontally aligned labels
cannot be read in such cases.
The metal parts must not form closed loops or circuits. If necessary, these must be
electrically interrupted at one point
Notes on installing and laying the antenna cable
4.3 Installation guidelines
●
.
● The metal parts in the immediate vicinity of the antenna must be grounded in a mesh with
a good HF connection.
● Since the write/read device is installed in a metal housing, and the antennas can couple
into the cables to the write/read device, it must be installed at a distance of at least 500
mm from the antennas.
To suppress possible interference, an EMC hinged ferrite choke must be fitted to the
antenna cables (as well as the antenna cable between the reader and the antenna splitter).
The coaxial cable must be wound tightly at least four times through the EMC ring core. The
maximum distance between the connecting plug for the reader or the antenna splitter and
the ring core must be 100 mm.
The antenna cable must always be run vertically from the antennas. A minimum distance of
200 mm to the antennas must be observed as the cables continue. Otherwise, performance
losses must be expected.
There must be a distance of at least 300 mm between antenna cables and parallel power
cables.
Unrequired cable length must be secured in a bundle with a diameter of 100 to 150 mm.
If the standard antenna cable is too short, it can be increased by 7.20 m with the extension.
Slight range losses must be expected here.
To achieve optimal read ranges, the antenna cable should not be shortened or lengthened.
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Planning the RF200 system
4.3.5.3
Installation options with the antenna multiplexer (2-6 antennas)
4.3 Installation guidelines
You can operate up to six antennas on one reader via the multiplexer.
The data is processed sequentially.
Antenna switchover is performed in time-multiplex mode, so by connecting several antennas
together, the processing time / activation time per antenna is lengthened accordingly.
Figure 4-22 Configuration example of the antenna multiplexer with ANT D5
Chemical resistance of the reader and transponders
4.3.6.1
Readers
Overview of the readers and their housing materials
Readers
Individual parts of the
reader
Housing material of the reader
CuZn40Pb2
Thermocomp OF-1008-L-EM
and Polyamide 6.6 GF30 (Page 90)".
Fiber-optic cable
Makrolon®2405
Decorative foil 1)
Autotex V200
12 (Page 91)".
Fiber-optic cable
Makrolon®2405
Decorative foil 1)
Autotex V200
1)
Component irrelevant for resistance of the overall housing
Note
If you have any questions, please contact Siemens Support, see section "
(Page
4.3 Installation guidelines
The following sections describe the chemical resistance of the various transponders. The
chemical resistance depends on the housing materials used to manufacture the reader. The
following table provides an overview of the housing materials used for the readers RF210R,
RF220R, RF240R, RF250R, RF260R and RF280R:
RF210R, RF220R Sleeves Brass (copper alloy)
Fiber-optic cable Makrolon®2405
Cap (antenna)
Valox 357
RF240R, RF250R,
RF260R
RF280R Top shell and base
Top shell and base
plate
plate
Polyamide 6.6 GF30;
The chemical resistance of this plastic is listed in the section "Polyamide 6
Polyamide 12;
The chemical resistance of this plastic is listed in the section "
Polyamide
377)".
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Service & Support
89
Planning the RF200 system
Polyamide 6 and Polyamide 6.6 GF30
Substance
Test conditions
Rating
Concentration [%]
Temperature [°C]
Mineral lubricants
-
-
++++
Aliphatic hydrocarbons
-
-
++++
Gasoline - -
++++
Weak mineral acids
-
-
+++
Strong mineral acids
-
-
○
Weak organic acids
-
-
++
Strong organic acids
-
-
○
Oxidizing acids
-
-
○
Weak alkaline solutions
-
-
++
Strong alkaline solutions
-
-
○
Trichloroethylene
-
-
++++
Perchloroethylene
-
-
++++
Acetone - -
++++
Alcohols - -
++++
Hot water (hydrolysis resistance)
-
-
++
Explanation of the rating
++++
Resistant
+++
Practically resistant
++
Conditionally resistant
+
Less resistant
○
Not resistant
4.3 Installation guidelines
Table 4- 36 Chemical resistance - PA6 and PA6.6 GF30
The resistance of the plastic housing to chemicals used in the automobile sector (e.g.: oils,
greases, diesel fuel, gasoline, etc,) is not listed extra.
Table 4- 37 Chemical resistance - Polyamide 12
Ammonia, w. conc. 60 ℃++++
Benzene - 20 ℃++++
Bleach solution (12.5% effective chlo-
n(n)
Calcium chloride, w.
Calcium nitrate, w.
Ethyl alcohol, w., undenaturated 95% 20 ℃++++
Formaldehyde, w.
Formalin - 20 ℃+++
- 20 ℃++
Isopropyl alcohol
Lactic acid, w.
SIMATIC RF200
System Manual, 07/2017, J31069-D0227-U001-A9-7619
Overview of the transponders and their housing materials
Housing material
Transponder
MDS D423
Polycarbonate (PC)
MDS D100 (6GT2600-0AD10)
MDS D400
MDS D524
PA6
MDS D127
MDS D528
4.3 Installation guidelines
The following sections describe the resistance to chemicals of the various transponders.
Resistance to chemicals depends on the housing material used to manufacture the
transponders.
The following table provides an overview of the housing materials of the transponders:
Table 4- 38 Overview of the housing materials of the transponders
SIMATIC RF200
System Manual, 07/2017, J31069-D0227-U001-A9-7619
93
Planning the RF200 system
Note
Chemical substances not listed
The following sections describe the resistance of the various transponders to specific
substances. If you require information about chemical substances t
Customer Support.
Polyphenylene sulfide (PPS)
Substance
Test conditions
Rating
Concentration [%]
Temperature [°C]
Acetone - 55 ℃
++++
n-Butanol (butyl alcohol)
-
80 ℃
++++
Butanone-2 (methyl ethyl ketone)
-
60 ℃
++++
n-Butyl acetate
-
80 ℃
++++
Brake fluid - 80 ℃
++++
Calcium chloride (saturated)
-
80 ℃
++++
Diesel fuel - 80 ℃
++++
Diethyl ether
-
23 ℃
++++
Frigen 113 - 23 ℃
++++
Anti-freeze
-
120 ℃
++++
Kerosene - 60 ℃
++++
Methanol - 60 ℃
++++
Engine oil - 80 ℃
++++
Sodium chloride (saturated)
-
80 ℃
++++
Sodium hydroxide
30%
80 ℃
++++
5%
80 ℃
++
Sodium hydroxide solution
30%
90 ℃
++++
Nitric acid
10%
23 ℃
++++
Hydrochloric acid
10%
80 ℃
-
10%
23 ℃
++++
10%
80 ℃
++
30%
23 ℃
++++
Tested fuels
-
80 ℃
++++
4.3 Installation guidelines
hat are not listed, contact
The data memory has special chemical resistance to solutions up to a temperature of 200
°C. A reduction in the mechanical properties has been observed in aqueous solutions of
hydrochloric acid (HCl) and nitric acid (HNO3) at 80 °C. The plastic housings are resistant to
all types of fuel including methanol.
Table 4- 39 Chemical resistance - polyphenylene sulfide (PPS)