Roger QUADRUS SERIES User manual

Roger Sp. z o.o. sp. k. 2017
Roger Access Control System
MCT82M AND MCT84M SERIES OPERATING MANUAL
QUADRUS series
Firmware: v1.1.2 and higher
Hardware version: v1.0
Document version: Rev. B
This document refers to the following products:
MCT82M, MCT82M-BK, MCT82M-IO, MCT82M-IOBK, MCT84M, MCT84M-BK

CONTENTS
Functional description ............................................................................................ 1
Features ............................................................................................................ 1
RFID transponders .............................................................................................. 1
Card code .......................................................................................................... 1
CSN section..................................................................................................... 2
PCN section..................................................................................................... 2
RCN number.................................................................................................... 4
Inputs ............................................................................................................... 6
Input types ..................................................................................................... 6
NO type .......................................................................................................... 6
NC type .......................................................................................................... 6
EOL/NO type ................................................................................................... 7
EOL/NC type ................................................................................................... 7
2EOL/NO type ................................................................................................. 7
2EOL/NC type.................................................................................................. 8
3EOL/NO type ................................................................................................. 8
3EOL/NC type.................................................................................................. 9
3EOL/DW/NO or 3EOL/DW/NC type.................................................................... 9
Parametric resistors ......................................................................................... 9
Response time................................................................................................. 9
Name or comment ..........................................................................................10
Outputs ............................................................................................................10
Ooutput polarity .............................................................................................10
Name or comment ..........................................................................................10
Reader configuration.............................................................................................11
Programming from pc.........................................................................................11
Configuration parameters ...................................................................................12
Manual programming of address ..........................................................................16
Memory Reset ...................................................................................................17
Firmware upgrade ................................................................................................18
Installation guidelines ...........................................................................................19
Specification and drawings.....................................................................................20
Technical specification ........................................................................................20
Ordering ...........................................................................................................21
Product history ..................................................................................................21
Drawings ..........................................................................................................22

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F UNC TIO NA L D ESCR IP TI ON
The MCT82M/MCT84M series readers are outdoor RFID access terminals dedicated to the
RACS 5 access control system. The readers need to be connected to a host device, which
usually is an access controller and can’t operate autonomously. Communication with the
controller is achieved through an RS485 bus and EPSO 3 (Roger) protocol. Factory new
reader is set to ID=100 RS485 address. Programming of address is made by means of
RogerVDM program (Windows) or manually (see: Manual programming of address). Full
programming of the reader configuration is possible only through RogerVDM program.
FEATURES
ISO14443A proximity cards, reads factory programmed card number (CSN):
oMIFARE® ULTRALIGHT
oMIFARE® Classic 1k and 4k
oMIFARE® Plus
oMIFARE® DESFire EV1
Reads user programmed card number (PCN):
oMIFARE® Classic 1k and 4k
Up to 7 cm reading range*
RS485 communication interface
Three LEDs
Three parametric type input lines**
Relay output 1.5A/30V**
Two transistor outputs 150mA/15V**
Buzzer with loudness level adjustment
Touch keypad with backlight
Two function keys***
Keypad backlight level adjustment
Tamper contact with detection of enclosure detachment and opening
Configuration and firmware upgrade through RS485 (RogerVDM)
Indoor environment
CE mark
* does not apply to MCT84M/MCT84M-BK
** apply to MCT82M-IO/MCT82M-IOBK
*** apply to MCT84M
RFID TRANSPONDERS
MCT82M and MCT84M series readers support ISO 14443A and MIFARE® transponders.
By default, reader is configured to read Chip Serial Number (CSN) however, it is possible
to configure it to read other data sectors.
CARD CODE
Whenever card is read reader sends to controller RCN number (Returned Card Number).
In general, RCN can be formed from a combination of CSN and PCN sections (RCN = CSN

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+ PCN). CSN section is a fragment of RCN which has been taken from CSN number. PCN
section is a fragment of RCN which has been taken from programmable data sectors.
PCN number can be protected from any modifications and unauthorized reading attempts
by its encryption. It is strongly recommended to use PCN numbers because of their
higher level of security.
RCN
CSN section
PCN section
Note: The ‘h’ letter placed at the end of a sequence of digits presented in examples
below indicates hexadecimal number format.
CSN SECTION
Configuration of CSN section is made by defining of CSNL parameter which specifies the
number of bytes taken from CSN number and used in the RCN number. In general,
depending on a card type, CSN may contain 4 or 7 bytes but the CSNL parameter can be
set from 0 to 15 bytes and following cases may occur:
CSNL=0 means that no CSN bytes will be included in RCN and as result the RCN will
be solely formed from PCN number.
If number of available CSN bytes is lower than declared CSNL parameter then the
CSN number is filled by leading zeros.
If CSNL is lower than number of bytes available in CSN, then RCN gets least
significant bytes (LSB) of CSN number only.
Example
CSNL=5 and CSN contains 4 bytes:
55h
66h
77h
88h
CSN section in RCN number will be formed:
00h
55h
66h
77h
88h
Example
CSNL=2 and CSN contains 4 bytes:
55h
66h
77h
88h
CSN section in RCN number will be formed as:
77h
88h
PCN SECTION
PCN section is read from programmable data sectors of the card. The type of location
where PCN number is stored is defined by Sector type parameter.
Sector type
PCN location
NONE
RCN number is formed only by CSN number and PCN number is not
used.

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SSN
PCN is read from the indicated sector and block of a card. AID number
(Application ID) is ignored.
MSN
PCN is read from indicated block in the first identified sector, which has
been marked by two-byte AID number. In some cases many sectors
may be marked by indicated AID, so it is possible to read a random
value from the block.
The number of bytes which are read from the block is defined by parameters: FBP (first
byte) and LBP (last byte). If the FBP>LBP then it is treated as normal sequence of byte
reading but if FBP<LBP then it is treated as reverse sequence of bytes.
PCN can be coded in data block on card either as binary form (BIN) or text form (ASCII
HEX) which is specified by Format parameter. In case of ASCII HEX coding one byte
represents one character in hexadecimal, e.g. '0100 0001' means ‘A’ while in BIN format
this same bits mean two hexadecimal digits: 4 and 1 (41h). In case of ASCII HEX coding
the length of read PCN code is twice less than difference between FBP and LBP
parameters. FBP and LBP parameters are defined separately for Classic, Plus and DESFire
cards. PCN read-out parameters from Ultralight card are the same as for Classic cards,
while storage location of PCN code is fixed and cannot be defined.
Example
Settings: FBP=5, LBP=9, Format=BIN . The contents of the data block on card is
presented below:
FBP
LBP
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
BIN
00h
11h
22h
33h
44h
55h
66h
77h
88h
99h
AAh
BBh
CCh
DDh
EEh
FFh
read PCN code read from block:
55h
66h
77h
88h
99h
Example
Settings: FBP=9, LBP=5, Format=BIN. The form of data stored on card block is
presented below:
LBP
FBP
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
BIN
30h
31h
32h
33h
34h
35h
36h
37h
38h
39h
41h
42h
43h
44h
45h
46h
read PCN code read from block:
39h
38h
37h
36h
35h
Example
Settings: FBP=3, LBP=10, Format=ASCII HEX. The form of data stored on card block is
presented below:
FBP
LBP
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
ASCII
'0'
'1'
'2'
'3'
'4'
'5'
'6'
'7'
'8'
'9'
'A'
'B'
'C'
'D'
'E'
'F'

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BIN
30h
31h
32h
33h
34h
35h
36h
37h
38h
39h
41h
42h
43h
44h
45h
46h
read PCN code read from block:
34h
56h
78h
9Ah
Example
Settings: FBP=2, LBP=10, Format=ASCII HEX. The form of data stored on card block is
presented below:
FBP
LBP
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
ASCII
‘0’
‘1’
‘2’
‘3’
‘4’
‘5’
‘6’
‘7’
‘8’
‘9’
‘A’
‘B’
‘C’
‘D’
‘E’
‘F’
BIN
30h
31h
32h
33h
34h
35h
36h
37h
38h
39h
41h
42h
43h
44h
45h
46h
read PCN code read from block:
02h
34h
56h
78h
9Ah
Example
Settings: FBP=10, LBP=2, Format=ASCII HEX . The form of data stored on card block
is presented below:
LBP
FBP
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
ASCII
‘0’
‘1’
‘2’
‘3’
‘4’
‘5’
‘6’
‘7’
‘8’
‘9’
‘A’
‘B’
‘C’
‘D’
‘E’
‘F’
BIN
30h
31h
32h
33h
34h
35h
36h
37h
38h
39h
41h
42h
43h
44h
45h
46h
PCN code read from block:
0Ah
98h
76h
54h
32h
RCN NUMBER
RCN number is created by combining CSN and PCN sections and is specified by Format,
CSNL, FBP and LBP parameters.
Example
Settings CSNL=4, FBP=8, LBP=10, Format=BIN. CSN and PCN numbers are formed as
below:
CSN
C1h
C2h
C3h
C4h
C5h
C6h
C7h
PCN
Pos.
0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
BIN
AAh
BBh
CCh
DDh
EEh
FFh
00h
11h
22h
33h
44h
55h
66h
77h
88h
99h
RCN code read from block:

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RCN
CSN section
PCN section
C4h
C5h
C6h
C7h
22h
33h
44h
Depending on output format RCN number may be transmitted to controller in different
ways. Few examples of transmitting options of the same RCN=C4C5C6C7223344h
number by readers which work in various output formats are presented below.
Example
RCN number which is sent by reader working on Number 64 bit card number data
type:
00h
C4h
C5h
C6h
C7h
22h
33h
44h
In this example original RCN number was filled by leading ‘0’ digits.
RCN number which is sent by reader working on Number 40 bit card number data
type:
C6h
C7h
22h
33h
44h
In this example original RCN number was reduced at two leading bytes (C4h and C5h).
RCN number which is sent by reader working on Number 24 bit card number data
type:
22h
33h
44h
In this example original RCN number was reduced at four leading bytes (C4h, C5h, C6h
and C7h).
RCN number which is read by PRT series reader working on RACS CLK/DTA mode which
reads 40 bits of code:
C6h
C7h
22h
33h
44h
In this example original RCN number was reduced at two leading bytes (C4h and C5h).
Notes:
1. In order to configure the reader to read CSN number only it should be selected Sector
type=NONE, while CSNL parameter set according to required code length.
2. In order to configure the reader to read code stored in PCN sector only, the Sector
type parameter should be set to value other than ‘0’ – NONE, while CSNL parameter
should be set to 0.
3. If RCN number configured in reader is longer than the length of code transmitted by
the reader in selected mode, then reader omits leading digits of RCN code.
4. If RCN number configured is shorter than the length of code transmitted by the reader
in selected mode, then reader adds leading zeroes to the RCN code.

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INPUTS
MCT82M series readers with IO option (e.g. MCT82M-IO, MCT82M-IOBK) are equipped in
three parametric inputs. During the low level configuration it is possible to define
parameters specifying operation method of inputs. The following parameters are
available to set for inputs:
Type of topology
Parametric resistance
Response time
Names or comments
Note: Inputs functions are defined via VISO software which is intended for high-level
configuration of RACS 5.
INPUT TYPES
Input type specifies the topology of contacts and resistors attached to the input.
Basically, inputs allow to recognize a single alarm (active) state, nevertheless in case of
DW input type (Double Wiring) a single physical input can be a source of two
independent input signals called respectively INxA and INxB. The following types of
inputs are available:
1: NO
2: NC
3: EOL/NO
4: EOL/NC
5: 2EOL/NO
6: 2EOL/NC
7: 3EOL/NO
8: 3EOL/NC
9: 3EOL/DW/NO
10: 3EOL/DW/NC
NO TYPE
Input of such type can be in normal or in triggered state. In normal state CAcontacts are
opened. Triggering of input is caused by closing the CAcontact.
NC TYPE
Input of such type can be in normal or in triggered state. In normal state CA contacts are
closed. Triggering of input is caused by opening the CA contact.

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EOL/NO TYPE
Input of such type can be in normal, triggered or sabotage (tamper) state. In normal
state CA contacts are opened. Triggering of input is caused by closing the CA contact. The
changing of RTamp resistor resistance in normal state indicates a sabotage (tamper)
state.
EOL/NC TYPE
Input of such type can be in normal, triggered or sabotage (tamper) state. In normal
state CA contacts are closed. Triggering of input is caused by opening the CA contact. The
changing of RTamp resistor resistance in normal state indicates a sabotage (tamper)
state.
2EOL/NO TYPE
Input of such type allows to recognize a normal, triggered, sabotage and damage state.
In normal state CAcontact is opened, while CTamp contact is closed. Triggering of input is
caused by closing the CA contact. Opening of CTamp contact is recognized as a sabotage
state. Shorting input to the ground is recognized as a damage state.

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2EOL/NC TYPE
Input of such type allows to recognize a normal, triggered, sabotage and damage state.
In normal state CA and CTamp contacts are closed. Triggering of input is caused by
opening the CA contact. Opening of CTamp contact is recognized as a sabotage state.
Shorting input to the ground is recognized as a damage state.
3EOL/NO TYPE
Input of such type allows to recognize following states: normal, triggered, masking,
triggered with masking, sabotage and damage. In normal state CAand CBcontacts are
opened, while CTamp contact is closed. Triggering of input is caused by closing the CA
contact. Closing of CBcontact is recognized as state of masking. Triggered with masking
state will be recognized in case of simultaneous shorting of CAand CBcontacts. Sabotage
state will be recognized in case of CTamp contact opening. Shorting input to the ground is
recognized as a damage state.

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3EOL/NC TYPE
Input of such type allows to recognize following states: normal, triggered, masking,
triggered with masking, sabotage and damage. In normal state CA, CBand CTamp
contacts are closed. Triggering of input is caused by opening the CAcontact. Opening of
CBcontact is recognized as masking. Triggered with masking state will be recognized in
case of simultaneous shorting of CAand CBcontacts. Sabotage state will be recognized in
case of CTamp contact opening. Shorting input to the ground is recognized as a damage
state.
3EOL/DW/NO OR 3EOL/DW/NC TYPE
Inputs of such type operate in the same way as 3EOL/NO and 3EOL/NC input types
however with one difference that in this case the masking state is interpreted as
triggering of second input. In VISO software DW input type is presented as two
independent inputs INxA and INxB which can be used for a different functions in the
system.
PARAMETRIC RESISTORS
For all inputs the same values of parametric resistors are used. Resistors may vary over
a range of: 1kΩ; 1,2kΩ; 1,5kΩ; 1,8kΩ; 2,2kΩ; 2,7kΩ; 3,3kΩ; 3,9kΩ; 4,7kΩ; 5,6kΩ;
6,8kΩ; 8,2kΩ; 10kΩ; 12kΩ. Tamp resistor defines a value of resistor used to detect a
sabotage state. Alarm A resistor defines a value of resistor used to detect triggered
state. Alarm B resistor defines a value of resistor used to detect an additional triggering
state of 3EOL/DW input type or masking state of 3EOL input type. Alarm A resistor value
must differ than value of Alarm B resistor at least three positions one the listed range.
Total resistance of wire used to connect contacts to input should not exceed 100 Ω.
Default values of parametric resistors:
Tamp = 1 kΩ
Alarm A = 2,2 kΩ
Alarm B = 5,6 kΩ
RESPONSE TIME
Response time parameter determines a minimum duration of impulse on input line,
which will cause a change of its state. For every input it is possible to set its individual
response time over a range from 50 to 5000 ms.

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NAME OR COMMENT
Name or comment parameter allows to associate any text (description) with an input,
which will be visible in VISO software, making easier to identify and operate the system.
OUTPUTS
MCT12M series readers with IO option (e.g. MCT12M-IO, MCT12M-DIO, MCT12M-IOBK,
MCT12M-DIOBK) are equipped in two transistor outputs and one relay output. In low-
level configuration (RogerVDM) it is possible to define output polarity and a comment.
OUTPUT POLARITY
Output polarity determines electric state of the output in normal state. Output
polarity can be Normal or Reverse. When configured to Normal polarity output normally
remains in OFF state and switches to ON state when triggered. When configured for
Reversed polarity output normally remains ON and when triggered it switches OFF.
NAME OR COMMENT
Name or comment parameter allows to associate with output any text (description),
which will be visible in VISO software, making easier to identify and operate the system.

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REA D ER CO NFIGURATION
The full configuration of the reader can be done by means of RogerVDM (Widnows)
program. The reader RS485 address can be set either from RogerVDM program or by
means of manual procedure described later in this document (Address Manual
Programming).
PROGRAMMING FROM PC
To perform this method reader has to be connected to PC via RUD-1 interface and
programmed by means of RogerVDM software (available on www.roger.pl).
Programming procedure:
1. Connect reader to RUD-1 interface according to Fig. 1.
2. Put jumper on MEM contacts.
3. Restart the reader (switch power supply off and short RST contacts for a while).
4. While LED SYSTEM is flashing, in RogerVDM click: Device -> New.
5. Select proper device model, firmware version, communication channel and serial
port, on which RUD-1 is installed.
6. Click Connect, the software will establish connection with the reader and
automatically will proceed to Configuration tab, which enables full configuration of
the reader.
7. Set the parameters (configuration window is shown on Fig. 6, the description of
available options is given in Table 3).
8. Click Send to device –the software will send the configuration to reader.
9. Optionally, click Send to File option to save your settings.
10.Remove jumper from MEM contacts.
11.Restart the reader –the reader will switch to normal operation with new settings.
Note: Do not press keypad or read card when reader is under operation with RogerVDM
program.

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Fig. 1 Reader connection method to RUD-1 interface
CONFIGURATION PARAMETERS
Table 1: Configuration parameters description
Parameter name
Available values
Description
Communication options
RS485 address
1: RS485A (range of 100-115)
Parameter sets device RS485 bus
address.
Communication
lost signalisation
delay
0..64 [s]
Defines time in seconds after which
reader will signal lost of
communication with controller.
Optical signalisation
LED SYSTEM
pulsing when card
is close to the
reader
0 - Off
1 - On
When option is active LED SYSTEM
will be pulsing whenever card is in
the reader field.
Keypad backlight
level
0 - 100%
Defines keypad backlight level.
Value 0 switches backlight off.
Keypad backlight
animation
0 - Off
1 - On
When option is active reader
reduces keypad backlight level
when reader is not used and
restores full keypad backlight level
after any key is pressed or card is
read.

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Keypad backlight
dimming
0 - Off
1 - On
When option is set keypad
backlight is switched off for a while
whenever card is read or key
pressed.
LED SYSTEM flash
after card read
0 - Off
1 - On
When option is set LED SYSTEM
generates single flash whenever
card is read.
LED SYSTEM flash
after key press
0 - Off
1 - On
When option is set LED SYSTEM
generates single flash whenever
key is pressed.
Parametric inputs resistance
Tamper
1k..12k
Parameter defines value of Tamper
resistor for parametric input.
Alarm A
1k..12k
Parameter defines value of Alarm A
resistor for parametric input.
Alarm B
1k..12k
Parameter defines value of Alarm B
resistor for parametric input.
Input types
IN1
1: NO
2: NC
3: EOL/NO
4: EOL/NC
5: 2EOL/NO
6: 2EOL/NC
7: 3EOL/NO
8: 3EOL/NC
9: 3EOL/DW/NO
10: 3EOL/DW/NC
Parameter defines topology of
contacts and resistors connected to
input.
IN2
as above
as above
IN3
as above
as above
Input response time
IN1
50..5000 [ms]
Parameter defines a minimum
duration of impulse on input line,
which will cause a change of its
state.
IN2
as above
as above
IN3
as above
as above
Output polarity

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OUT1
0 - Normal polarity
1 - Reverse polarity
Output polarity determines electric
state of output in normal (not
triggered) mode.
OUT2
as above
as above
REL1
as above
as above
Acoustic signalisation
Buzzer loudness
level
0..100%
Defines buzzer loudness level.
Value 0 switches buzzer off.
Short sound after
card read
0 –No
1 –Yes
When option is set buzzer
generates short beep whenever
card is read.
Short sound after
key press
0 –No
1 –Yes
When option is set buzzer
generates short beep whenever
key is pressed.
CSN settings
CSNL
0..16 (Bytes)
CSNL parameter specifies the
number of bytes taken from CSN
number and used to create the
RCN number.
Keypad settings
Time between
keys
0..64 [s]
Defines max. time in seconds
between two consecutive key
press.
Single key press
0 –On
1 –Off
When option is active reader will
report every single key press to
controller.
PIN followed by
[#] key
0 –On
1 –Off
When option is set [#] key is
required to mark PIN end.
Min. length of PIN
0..16 (digits)
Defines minimal number of digits
in PIN.
Max. length of PIN
0..16 (digits)
Defines maximal number of digits
in PIN.
Allow [*] on PIN
start
0 –No
1 –Yes
When option is active reader allow
to use asterisk [*] key on the first
position of PIN.
[*] key press type
1 - Short press only
2 - Long press only
3 - Short and long press
Defines key press options for [*]
key.
[#] key press type
as above
as above

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[F1] key press
type
as above
as above
[F2] key press
type
as above
as above
Advanced settings
Stop card/PIN
reading when
buffer full
0 –No
1 –Yes
When option is active reader stops
card/PIN reading until previous
PIN/card is transmitted to
controller.
Clear card/PIN
buffer time out
0..64 [s]
Time in seconds after which
Card/PIN buffer will be
automatically cleared.
Buffer overflow
signalisation
0 –Off
1 –On
When option is active reader will
signal on LED SYSTEM that
card/PIN buffer overflow occurred.
Card/PIN
encryption over
RS485 bus
0 –Off
1 –On
When option is active reader will
encrypt card/PIN data transmitted
over RS485 communication bus.
Card number data
type
None
Numer16b…64b
CID32B
ABA_TRACK2
F8C16
F16C32
GUID
SAN
Defines type of data read from the
card.
Long card read
time
0..64 [s]
Defines time required to indicate
long card read.
Long key press
time
0..64 [s]
Defines time required to indicate
long key press.
Comments
Comments allow to enter any text associated with described component. Comments are
visible in VISO software, making easier to identify components of the device.
Mifare Classic settings
Sector type
0 - NONE
1 - SSN
2 - MAD
Defines type of data sector where
PCN number is stored. When [0] is
selected the RCN number is formed
from PCN number only.
Format
0 - BIN
1 - ASCII HEX
Format of data in the block.

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First byte position
(FBP)
0..15
Specifies position of the byte in
data block where PCN number
begins.
Last byte position
(LSB)
0..15
Specifies position of the byte in
data block where PCN number
ends.
Sector ID
0..39
Data sector where PCN number is
stored.
AID
0000 –FFFFF
Specifies AID number (Application
Identifier) which indicates sector
where PCN number is stored (by
default Roger AID number is
5156).
Block ID
0..14
Data block where PCN number is
stored.
Key type
0 - A key type
1 - B key type
2 - Roger key type (RSS)
Specifies key type used to encrypt
data stored on the card.
Key
000000000000-FFFFFFFFFFFF
6 bytes key used to encrypt data
stored on the card.
MANUAL PROGRAMMING OF ADDRESS
This procedure is intended to set a new RS485 bus address of the reader while
maintaining the rest of configuration settings.
In order to set RS485 address manually follow this steps:
1. Remove all connections from A and B lines.
2. Put jumper on MEM contacts.
3. Restart the reader (switch power supply off and on or short RST contacts for a while).
4. While LED SYSTEM is flashing enter three digits which will set the RS485 address.
5. Remove jumper from MEM contacts.
6. Restart the reader (switch power supply off and on or short RST contacts for a while).
Readers without keypad can be manually programmed by so called multiple card reading
method. In this method key pressing is emulated by multiple card reading. In order to
emulate key [N] read card N-times and then wait for two beeps. Once you hear two
beeps you can proceed further with emulation of next digit. Digit 0 is emulated by 10-
times of card reading. Any ISO 14443A card can be used for multiple card reading
method.
Example
In order to program 101 address:
1. Read card 1 time and wait for double beep.
2. Read card 10 times and wait for double beep.

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3. Read card 1 time and wait for double beep.
4. Wait until reader restarts with a new address.
MEMORY RESET
Memory reset procedure deletes all configuration settings and restores factory defaults
with RS485 address set to 100.
To perform memory reset follow these steps:
1. Remove all connections from A and B lines (yellow and green wires).
2. Put jumper on MEM contacts.
3. Restart the reader (switch power supply off and on or short RST contacts for a
while).
4. While LED SYSTEM is flashing press [*] or read any MIFARE® card 11-times;
5. Remove jumper from MEM contacts.
6. Restart the reader (switch power supply off and on or short RST contacts for a
while).

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FIRMWARE UPGRAD E
Firmware can be upgraded by means of RogerVDM software and RUD-1 communication
interface. The file with latest firmware is available at www.roger.pl
Firmware upgrade procedure:
1. Connect reader to RUD-1 interface according to Fig. 2.
2. Put jumper on FDM contacts (location of contacts is given on Fig. 2).
3. Restart the reader (switch power supply off and on or short RST contacts for a while).
4. Run RogerVDM software.
5. Choose: Tools -> Update Firmware.
6. Select device type, communication port for RUD-1, and path to firmware file (*.hex).
7. Click Update and follow the instructions on the screen.
8. Restart the reader (switch power supply off and on or short RST contacts for a while).
Fig. 2 Connecting reader to RUD-1 interface for firmware upgrade