Leuze DCR 50 Operating Instructions

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DCR 50

Scan Engine

EN 2017/05 - 50136789

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make technical changes

O r i g i n a l o p e r a t i n g i n s t r u c t i o n s

Table of contents

1 About this document ............................................................................................5

1.1 Used symbols and signal words .............................................................................................5

2 Safety .....................................................................................................................6

2.1 Intended use ...........................................................................................................................6

2.2 Foreseeable misuse ............................................................................................................... 6

2.3 Competent persons ................................................................................................................ 7

2.4 Disclaimer ...............................................................................................................................7

3 Device description ................................................................................................8

3.1 Device overview...................................................................................................................... 8

3.1.1 About the DCR50 scanengine...........................................................................................8

3.1.2 Stand-alone operation .........................................................................................................8

3.2 Performance characteristics ...................................................................................................8

3.3 Device construction ................................................................................................................ 9

3.4 Connection technology ...........................................................................................................9

4 Mounting..............................................................................................................10

4.1 Selecting a mounting location............................................................................................... 10

5 Electrical connection..........................................................................................11

5.1 Voltage supply ......................................................................................................................11

5.2 Pin assignment .....................................................................................................................11

5.3 Switching input / switching output......................................................................................... 11

5.3.1 Switching input ..................................................................................................................11

5.3.2 Switching output ................................................................................................................12

5.4 PC or terminal connection .................................................................................................... 13

5.5 Cable lengths and shielding.................................................................................................. 13

6 Configuration and diagnostics software - SensorStudio...............................14

6.1 System requirements............................................................................................................ 14

6.2 Installing SensorStudio configuration software.................................................................... 15

6.2.1 Downloading configuration software .................................................................................15

6.2.2 Installing the SensorStudio FDT frame ............................................................................15

6.2.3 Installing the communication DTM and the device DTM ...................................................15

6.2.4 Connecting device to PC...................................................................................................15

6.3 Starting the SensorStudio configuration software................................................................ 16

6.4 Exiting SensorStudio ........................................................................................................... 17

6.5 Configuration parameters .....................................................................................................18

6.5.1 Control tab.........................................................................................................................18

6.5.2 Decode tab ........................................................................................................................19

6.5.3 Communications tab.......................................................................................................... 21

6.5.4 Diagnosis / Terminal.......................................................................................................... 22

7 Starting up the device - Configuration..............................................................23

7.1 Measures to be performed prior to the initial commissioning ............................................... 23

7.2 Starting the device ................................................................................................................23

7.2.1 Interface ............................................................................................................................23

7.2.2 Online commands .............................................................................................................23

7.2.3 Problems ...........................................................................................................................23

7.3 Setting the communication parameters ................................................................................23

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Table of contents

8 Configuration control .........................................................................................24

8.1 Configuration command architecture.................................................................................... 24

8.2 Supported commands........................................................................................................... 25

8.2.1 Symbology......................................................................................................................... 25

8.2.2 Communications................................................................................................................ 40

8.2.3 USB and HID.....................................................................................................................41

8.2.4 Packet and protocol parameters .......................................................................................44

8.2.5 Decoder and general decoding parameters ......................................................................45

8.2.6 Power mode parameters ...................................................................................................49

8.2.7 General reader information ...............................................................................................50

8.2.8 Reader configuration .........................................................................................................52

8.2.9 General firmware operation............................................................................................... 52

8.2.10 General reader feedback parameters ...............................................................................53

8.2.11 Setup default AGC mode ..................................................................................................53

8.2.12 Setup AGC parameters .....................................................................................................54

8.2.13 Setup motion detection parameters ..................................................................................55

8.2.14 Setup camera parameters................................................................................................. 57

8.2.15 Command barcode format................................................................................................. 57

8.3 Motion detection ................................................................................................................... 58

8.4 Data formatting .....................................................................................................................59

9 Command protocol .............................................................................................61

9.1 General commands .............................................................................................................. 61

9.1.1 Command packet ..............................................................................................................61

9.1.2 Device acknowledgement .................................................................................................63

9.1.3 Response packet............................................................................................................... 64

9.1.4 Host acknowledgement .....................................................................................................64

9.1.5 Example 1: Enabling Code 93 upon startup...................................................................... 64

9.1.6 Example 2: Getting information about a device after startup ............................................66

9.2 Barcode decoding................................................................................................................. 69

10 Care, maintenance and disposal .......................................................................70

10.1 Cleaning................................................................................................................................ 70

10.2 Servicing ...............................................................................................................................70

10.3 Disposing ..............................................................................................................................70

11 Service and support ...........................................................................................71

11.1 What to do should servicing be required? ............................................................................ 71

12 Technical data .....................................................................................................72

12.1 General specifications .......................................................................................................... 72

12.2 Reading fields .......................................................................................................................73

12.3 Dimensioned drawings ......................................................................................................... 75

13 Order guide and accessories.............................................................................76

13.1 Type overview....................................................................................................................... 76

13.2 Accessories........................................................................................................................... 76

14 EC Declaration of Conformity ............................................................................77

15 Appendix..............................................................................................................78

15.1 Bar code samples .................................................................................................................78

15.2 Configuration via configuration codes................................................................................... 79

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1 About this document

1.1 Used symbols and signal words

Tab.1.1: Warning symbols and signal words

Symbol indicating dangers to persons

NOTE Signal word for property damage

Indicates dangers that may result in property damage if the measures for danger avoidance are not followed.

Tab.1.2: Other symbols

Symbol for tips

Text passages with this symbol provide you with further information.

Symbols for action steps

Text passages with this symbol instruct you to perform actions.

About this document

Symbol for action results

Text passages with this symbol describe the result of the preceding action.

Tab.1.3: Terms and abbreviations

BCL Bar code reader

CMOS Semiconductor process for implementing integrated circuits

(Complementary Metal-Oxide-Semiconductor)

DCR Image-based code reader

(Dual Code Reader)

DTM Software device manager

(Device Type Manager)

EMC Electromagnetic compatibility

EN European standard

FDT Software frame for management of device managers (DTM)

(Field Device Tool)

FE Functional earth

GUI Graphical user interface

HID Device class for input devices with which users directly interact

(Human Interface Device)

IO or I/O Input/Output

LED LED

(Light Emitting Diode)

PLC Programmable Logic Control

(corresponds to Programmable Logic Controller (PLC))

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2 Safety

This scan engine was developed, manufactured and tested in accordance with the applicable safety standards. It corresponds to the state of the art.

2.1 Intended use

The DCR50 scanengine is designed as an installation scanner with integrated decoder for all of the most popular 1D and 2D codes for automatic object recognition.

Areas of application

The DCR50 scanengine is intended especially for the following areas of application:

• In automatic analyzers

• For space-critical code reading tasks

• For installation in a housing or beneath covers

Observe intended use!

The protection of personnel and the device cannot be guaranteed if the device is operated in a manner not complying with its intended use.

Ä Only operate the device in accordance with its intended use. Ä LeuzeelectronicGmbH+Co.KG is not liable for damages caused by improper use. Ä Read these operating instructions before commissioning the device. Knowledge of the oper-

Safety

CAUTION

ating instructions is an element of proper use.

NOTICE

Comply with conditions and regulations!

Ä Observe the locally applicable legal regulations and the rules of the employer's liability insur-

ance association.

2.2 Foreseeable misuse

Any use other than that defined under "Intended use" or which goes beyond that use is considered improper use.

In particular, use of the device is not permitted in the following cases:

• in rooms with explosive atmospheres

• in circuits which are relevant to safety

• for medical purposes

NOTICE

Do not modify or otherwise interfere with the device!

Ä Do not carry out modifications or otherwise interfere with the device. The device must not be

tampered with and must not be changed in any way.

Ä The device must not be opened. There are no user-serviceable parts inside. Ä Repairs must only be performed by Leuze electronic GmbH + Co. KG.

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2.3 Competent persons

Connection, mounting, commissioning and adjustment of the device must only be carried out by competent persons.

Prerequisites for competent persons:

• They have a suitable technical education.

• They are familiar with the rules and regulations for occupational safety and safety at work.

• They are familiar with the operating instructions for the device.

• They have been instructed by the responsible person on the mounting and operation of the device.

Certified electricians

Electrical work must be carried out by a certified electrician.

Due to their technical training, knowledge and experience as well as their familiarity with relevant standards and regulations, certified electricians are able to perform work on electrical systems and independently detect possible dangers.

In Germany, certified electricians must fulfill the requirements of accident-prevention regulations BGV A3 (e.g. electrician foreman). In other countries, there are respective regulations that must be observed.

2.4 Disclaimer

LeuzeelectronicGmbH+Co.KG is not liable in the following cases:

• The device is not being used properly.

• Reasonably foreseeable misuse is not taken into account.

• Mounting and electrical connection are not properly performed.

• Changes (e.g., constructional) are made to the device.

Safety

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3 Device description

3.1 Device overview

3.1.1 About the DCR50 scanengine

The code reader is based on a scan engine with CMOS imager with integrated decoder for all of the most popular 1D and 2D codes such as DataMatrix, Aztec, QRCode, 2/5 Interleaved, Code39, Code128, UPC/ EAN etc.

The many possible configurations of the device allow it to be adapted to a multitude of reading tasks. Due to the small dimensions of the unit and the large reading field, the device can also be used in highly constrained spaces.

Information on technical data and characteristics: see chapter 12 "Technical data".

3.1.2 Stand-alone operation

The scan engine is operated as a single "stand-alone" device. It is equipped with a 6-pin Molex connector for the power supply electrical connection, the interface, the trigger input, and the switching output.

3.2 Performance characteristics

• High-performance miniature CMOS imager scan engine

• Compact design for simple integration, even in constrained spaces

• Reading of extremely small high-density codes and recording of standard codes in a large reading area using a special optical system

• Reading of shiny surfaces using a gloss reduction process

• Excellent decoding characteristics

• Clearly visible alignment LED

• RS 232 interface, triggering input, switching output

Device description

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3.3 Device construction

Device description

1 Two integrated LEDs for illumination (red light)

2 One integrated target LED (blue light)

3 Center of optical axis

4 Connector Molex (53261-0671), 6-pin

5 Mounting tabs, M2.5 through-hole

6 Inserts for M1.8 self-tapping screws, 2mm deep

Fig.3.1: DCR50 device construction

3.4 Connection technology

6-pin Molex connector (53261-0671)

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4 Mounting

The scan engine can be attached at two M2.5 through-hole mounting tabs.

In addition, two 2mm deep inserts for M1.8 self-tapping screws are provided on top of the scan engine.

4.1 Selecting a mounting location

NOTICE

The size of the code module influences the maximum reading distance and the width of the reading field. Therefore, when selecting a mounting location and/or the code label, take into account the different reading characteristics of the scanner with various code modules.

NOTICE

Observe when choosing the mounting location!

Ä Maintaining the required environmental conditions (temperature, humidity). Ä Possible soiling of the reading window due to liquids, abrasion by boxes, or packaging mate-

rial residues.

Ä Lowest possible chance of damage to the scanner by mechanical collision or jammed parts. Ä Possible extraneous light influence (no direct sunlight).

Mounting

The best read results are obtained when

• the reading distance lies in the middle area of the reading field.

• there is no direct sunlight and extraneous light is avoided.

• the bar code labels are of good print quality and have good contrast ratios.

• you do not use high-gloss labels.

• the bar code or the Data Matrix code is moved past the reading window with an angle of rotation of 10° to 15°.

• the red light beam is narrowed down for its respective reading task in order to avoid reflections on shiny components.

NOTICE

The front beam exit of the scan engine is almost vertical to the optics. The code label must be rotated by >10° to avoid a total reflection of the red light beam in the case of glossy labels.

α Azimuth angle

β Angle of inclination

γ Angle of rotation

Recommended angle of rotation: γ > 10°

Fig.4.1: Definition of the reading angles

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5 Electrical connection

CAUTION

Safety notices

Ä Before connecting the device, be sure that the supply voltage agrees with the value printed

on the name plate.

Ä Connection of the device and maintenance work while under voltage must only be carried

out by a qualified electrician.

Ä The power supply unit for the generation of the supply voltage for the scan engine and the

corresponding connection units must have a secure electrical insulation according to IEC60742 (PELV). For UL applications: only for use in class 2 circuits according to NEC.

Ä If faults cannot be cleared, the device should be switched off and protected against acciden-

tal use.

5.1 Voltage supply

The scan engine is designed for connection to a 5V supply voltage.

• +5V DC (pin1)

• GND (pin2)

A MA-CR Modular adapter unit (interface device-to-host to connect to a PC for evaluation, 50128204) with spring terminals, Molex connector, and D-SUB 9-pin socket is available as an accessory (see chapter 13.2 "Accessories").

• With the MA-CR Modular adapter unit, the 6-pin connector of the scan engine can be contacted via a 150mm long interconnection cable with a 12-pin Molex terminal strip and connected to the PC via the D-SUB 9-pin socket using an RS 232 interconnection cable.

• With the MA-CR Modular adapter unit, the voltage supply of 10…30V DC can be fed in via spring terminals or, alternatively, 5V DC can be fed in via a micro USB connector.

Electrical connection

5.2 Pin assignment

Pin Signal IN / OUT

1 VCC / +5V DC IN

2 GROUND IN

3 TRIGGER IN

4 GOOD READ OUT

5 RS232 TX OUT

6 RS232 RX IN

5.3 Switching input / switching output

The scan engine has a switching input and a switching output.

• The switching input is used to trigger code reading.

• The switching output signals successful code reading.

5.3.1 Switching input

A read process can be triggered using the trigger input (pin5) in the standard setting (low = active) via the connection to GND (pin2). We recommend wiring a 2.2kΩ pull-up resistor as defined cable termination.

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+ 5 V DC

TRIGGER

GND

4.75 … 5.25 V DC

GND

2.2 k

Connection version NPN: standard setting (low = active)

+ 5 V DC

OUT

GND

+ 5 V DC

max. 20 mA !

4.75 … 5.25 V DC

Fig.5.1: Wiring example of the trigger input

5.3.2 Switching output

The NPN switching output connection between switching output (pin4) and GND (pin2) switches if a code is detected against GND.

Electrical connection

Fig.5.2: Switching output

NOTICE

Maximum loading of the switching output

Ä Do not load the switching output of the scan engine with more than 20mA at +5…VDC!

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5.4 PC or terminal connection

10 11

5 6 7

Via the serial interface, you can configure the scan engine by means of a PC or terminal. For this, you need a RS232 connection that establishes the RxD, TxD and GND connections between PC and scan engine.

The RS232 connection can be established in the following ways:

• Direct connection of the plug connector of the scan engine to the PC or terminal via its own connector.

• Connection via a MA-CR modular adapter unit

To simplify the connection of the connection wires to the PC interface, a modular adapter unit (MA-CR) is available for implementing the 6-pin plug connector to D-SUB, 9-pin (see chapter 13.2 "Accessories").

Electrical connection

1 RS232 connection

2 CR50 or DCR80 connection

3 DCR50, DCR85, CR100, CR55 connection

4 Molex Micro-Fit, 6-pin

5 USB connection

6 Connection to machine control, PLC, external voltage supply 5VDC

7 External voltage supply 10…30VDC

8 SWIN DIP switch (level for trigger button; 5V if the scanner high switching input is active, GND if the low input is

active)

9 USB/PWR DIP switch (USB position if voltage is supplied via USB; PWR position if voltage is supplied via(7))

10 Trigger button

11 Status LEDs

Fig.5.3: Connection options for MA-CR modular adapter unit

5.5 Cable lengths and shielding

The maximum cable length is 3m.

Should a cable extension be necessary, make certain that the cables of the RS232 interface are shielded.

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Configuration and diagnostics software - SensorStudio

6 Configuration and diagnostics software - SensorStudio

The SensorStudio configuration software provides a graphical user interface for the operation, configuration and diagnosis of the device via the RS232 interface.

A device that is not connected to the PC can be configured offline.

Configurations can be saved and reopened as projects for transferring back to the device at a later time.

NOTICE

Only use the SensorStudio configuration software for products manufactured by Leuzeelectronic.

The SensorStudio configuration software is offered in the following languages: German, English, French, Italian and Spanish.

The FDT frame application of the SensorStudio supports all languages; all languages may not be supported in the device DTM (Device Type Manager).

The SensorStudio configuration software is designed according to the FDT/DTM concept:

• You make the individual configuration settings for the scan engine in the Device Type Manager (DTM).

• The individual DTM configurations of a project can be called up via the frame application of the Field Device Tool (FDT).

• Communication DTM for scan engines: LeCommInterface

• Device DTM for scan engine DCR50

Procedure for the installation of the software and hardware:

Ä Install the SensorStudio configuration software on the PC. Ä Install the communication and device DTMs.

Communication and device DTM are included in the LeAnalysisCollectionSetup installation package.

Ä Create DCR50-DTM in the project tree of the Sensor Studio FDT frame. Ä Connect scan engine to PC (see chapter 5.4 "PC or terminal connection").

6.1 System requirements

To use the SensorStudio configuration software, you need a PC or laptop with the following specifications:

Tab.6.1: System requirements for SensorStudio installation

Operating system WindowsXP or higher (32bit, 64bit)

Computer Processor type: 1GHz or higher

Graphics card At least 1024x768 pixels

Required hard disk capacity for SensorStudio and communication DTM

NOTICE

Administrator privileges on the PC are necessary for installing SensorStudio.

WindowsVista

Windows7

Windows8

Serial COM interface

CD-ROM drive

Main memory (RAM): at least 64MB

Keyboard and mouse or touchpad

35MB

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Configuration and diagnostics software - SensorStudio

6.2 Installing SensorStudio configuration software

NOTICE

The installation files of the SensorStudio configuration software must be downloaded from the Internet at www.leuze.com.

For subsequent updates, you can find the most recent version of the SensorStudio installation software on the Internet at www.leuze.com.

6.2.1 Downloading configuration software

Ä Call up the Leuze home page: www.leuze.com Ä Enter the type designation or part number of the device as the search term. Ä The configuration software can be found on the product page for the device under the Downloads tab.

6.2.2 Installing the SensorStudio FDT frame

NOTICE

First install the software!

Ä Do not yet connect the device to the PC. First install the software.

NOTICE

If FDT frame software is already installed on your PC, you do not need the SensorStudio installation.

You can install the communication DTM and the device DTM in the existing FDT frame. Communication DTM and device DTM are included in the LeAnalysisCollectionSetup installation package.

Ä Start the PC. Ä Download the configuration software from the Internet to the PC (see chapter 6.2.1 "Downloading con-

figuration software"). Unpack the installation package.

Ä Start the SensorStudioSetup.exe file. Ä Follow the instructions on the screen.

The Installation Wizard installs the software and places a shortcut on the desktop ( ).

6.2.3 Installing the communication DTM and the device DTM

Prerequisites:

ü A FDT frame is installed on the PC. Ä Start the LeAnalysisCollection.exe file from the installation package and follow the instructions on the

screen.

The installation wizard installs communication DTM and device DTM for DCR50.

6.2.4 Connecting device to PC

The device is connected to the PC via the RS232 interface.

• You need an RS232 connection that establishes the RxD, TxD and GND connections between PC and device (see chapter 5.4 "PC or terminal connection").

• The 5V DC voltage supply is to be fed in externally (see chapter 5.1 "Voltage supply").

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Configuration and diagnostics software - SensorStudio

NOTICE

The MA-CR modular adapter unit with spring terminals and plug connector for connecting the device, as well as a D-SUB 9-pin socket for connecting an RS 232 interconnection cable, is available as an accessory (see chapter 13 "Order guide and accessories").

The MA-CR modular adapter unit requires 10V…30VDC as external voltage supply, which can be fed in via spring terminals. Alternatively, 5VDC can be fed via the 6-pin plug connector of the DCR50 using a 150mm long interconnection cable with 12-pin Molex terminal strip.

6.3 Starting the SensorStudio configuration software

Prerequisites:

• The device has been mounted (see chapter 4 "Mounting") and connected (see chapter 5 "Electrical connection") correctly.

• The device is connected to the PC via the RS232 interface (see chapter 6.2.4 "Connecting device to PC").

• The SensorStudio configuration software is installed on the PC (see chapter 6.2 "Installing SensorStudio configuration software").

Ä Start the SensorStudio configuration software by double-clicking the SensorStudio icon ( ).

The mode selection of the Project Wizard is displayed.

Ä Select the Device selection without communication connection (offline) configuration mode and

click on [Next].

The Project Wizard displays the Device selection list of the configurable devices.

Fig.6.1: Device selection for scan engine DCR50

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Configuration and diagnostics software - SensorStudio

Ä Select DCR50 in the Device selection and click on [Next].

The device manager (DTM) of the connected DCR50 starts with the offline view for the SensorStudio configuration project.

Ä Establish the online connection to the connected DCR50.

In the SensorStudio FDT frame, click on the [Establish connection with device] button ( ).

In the SensorStudio FDT frame, click on the [Upload parameters to device] button ( ).

The current configuration data is displayed in the device manager (DTM).

Fig.6.2: Configuration project: SensorStudio device manager (DTM) for DCR50

Ä The menus of the SensorStudio device manager (DTM) can be used to change or read out the config-

uration of the connected device. The user interface of the SensorStudio device manager (DTM) is largely self-explanatory. The online help system provides information on the menu items and adjustment parameters. Select the

Help menu item in the menu [?] ( ).

Ä Transfer the modified configuration parameters to the device.

If a connection exists, click on the [Download parameters to device] button ( ) on the task bar.

6.4 Exiting SensorStudio

After completing the configuration settings, close the SensorStudio configuration software.

Ä Exit the program via File > Exit. Ä Save the configuration settings as a configuration project on the PC.

You can open the configuration project again at later time via File > Open or with the SensorStudio

Project Wizard ( ).

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6.5 Configuration parameters

In this chapter, you will find information and explanations on the configuration parameters of the device manager (DTM).

NOTICE

This chapter does not include a complete description of the SensorStudio configuration software.

Complete information on the FDT frame menu and on the functions in the device manager (DTM) can be found in the online help system.

The device manager (DTM) of the SensorStudio configuration software offers the following configuration functions:

• General (Control)

• Decode (see chapter 6.5.2 "Decode tab")

• Communications (see chapter 6.5.3 "Communications tab")

• Diagnosis (see chapter 6.5.4 "Diagnosis / Terminal")

NOTICE

The online help system displays information on the menu items and configuration parameters for each function. Select the Help menu item in the menu [?].

Configuration and diagnostics software - SensorStudio

6.5.1 Control tab

Fig.6.3: Control tab

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Configuration and diagnostics software - SensorStudio

SCAN OPTIONS

Maximum labels to decode The device processes up to this number of codes per read code

event.

• If there are more codes in the field of view and within target tolerance and the device is set to decode more than one code, it will decode all codes in the field of view.

• Set to 1 for fastest performance with single codes.

Targeting Switch the blue targeting LED on and off.

DECODE OUTPUT OPTIONS

Output Result with AIM ID Allows for the output of the AIM symbology identifier with the decode

result.

Barcode Prefix/Suffix enabled Enables/ disables the output of prefix and suffix text with the decode

result.

Barcode Prefix text

Barcode Suffix text

REGION OF INTEREST (ROI)

ROILeft

ROITop

ROIWidth

ROIHeight

6.5.2 Decode tab

Defines text of up to 255 characters that is added before/after the decode result.

Allows for setting the region of interest in the image where the labels are decoded.

Fig.6.4: Decode tab

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Configuration and diagnostics software - SensorStudio

SYMBOLOGIES Use the … button to the right of the given code to select the code-spe-

cific settings.

Alternatively, the property settings can be selected directly via the navigation tree under the Decode button.

The properties can be individually set for each code type.

COMMON DECODE PROPERTIES

Maximum labels to decode

The device processes up to this number of codes per read code event.

• If there are more codes in the field of view and within target tolerance and the device is set to decode more than one code, it will decode all codes in the field of view.

• Set to 1 for fastest performance with single codes.

Fig.6.5: Standard settings for the Properties window (SYMBOLOGY SETTINGS) – Decode tab

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6.5.3 Communications tab

Configuration and diagnostics software - SensorStudio

Fig.6.6: Communications tab

Select the desired baud rate, the stop bits, the data bits, the parity and various transmission modes here.

The desired acknowledgment settings are also to be set in this selection window.

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6.5.4 Diagnosis / Terminal

Configuration and diagnostics software - SensorStudio

Fig.6.7: Terminal

The Terminal tab provides the following functions:

• Send online commands to the scan engine for diagnostic purposes.

• Visualize the output of the scan engine.

The contents of the terminal display can be printed out or saved in a file for subsequent offline evaluation.

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Starting up the device - Configuration

7 Starting up the device - Configuration

7.1 Measures to be performed prior to the initial commissioning

NOTICE

Ä Please observe the notices for device arrangement, see chapter 4.1 "Selecting a mounting

location".

Ä If possible, always trigger the scanner with the aid of commands or an external signal trans-

mitter (photoelectric sensor).

Ä Before commissioning, familiarize yourself with the operation and configuration of the de-

vice(s).

Ä Before connecting the supply voltage, recheck all connections and ensure that they have

been properly made.

7.2 Starting the device

7.2.1 Interface

Proper function of the interface can be most easily tested in service operation using the serial interface with the SensorStudio configuration software and a notebook computer.

7.2.2 Online commands

Using the online commands, important device functions can be checked, e.g. reading activation.

7.2.3 Problems

If a problem occurs that cannot be rectified even after checking all electrical connections and settings on the devices and on the host, contact your responsible Leuzeelectronic subsidiary or Leuzeelectronic customer service, see chapter 11 "Service and support".

7.3 Setting the communication parameters

You have now commissioned the device. Usually, you will have to configure it before you can use it. Using the configuration options offered in the SensorStudio or by means of the device DTM, the device can be individually configured according to your application. For information on the various configuration options, see chapter 6 "Configuration and diagnostics software - SensorStudio" or refer to the online help.

It is normally sufficient to set the code type and code length in accordance with the 1D or 2D codes that are to be read in order to be able to operate the device.

The setting of code type and code length is usually accomplished by using the SensorStudio configuration software (see chapter 6 "Configuration and diagnostics software - SensorStudio").

Leuze electronic DCR 50 23

8 Configuration control

This chapter specifies the configuration commands of the scan engine.

Notations

The interface protocol is described as a set of grammars, indicated by different type styles and symbols.

Example Indication Grammar

Text-Command Italic type Syntactic categories (non-terminals)

space Bold type Terminal symbols

%xx Byte data In Hex

Configuration control

0xFF 0x prefix indicating hexa-

decimal

‘X’ Single quotes Literal ASCII characters

SOH All caps Non-printable ASCII characters

esc | tab Vertical bar Alternatives (this or that)

data

opt opt.

crc16

nr nr

(opt subscript) Optional terminals and non-terminals

(nr subscript) Applies to packets sent in non-raw mode, i.e. in

8.1 Configuration command architecture

This section describes the format of configuration commands that the scan engine will accept to change and save configuration settings.

Command format

Primary category

Example: SY, CM, etc.

Sub-category Action code

(SP/R/G)

Example: AZTC, SE, etc.

S – Change and save

P – Change but do not save

R – Reset to default value

G – Get value in effect

Literal byte values

packet mode

Parameter Parameter value

Example: AL, BA , [ , etc.

(when actions is S or P)

String of decimal number or text

Example: SYAZTCSPO1

This command sets the polarity to Inverse mode of the Aztec symbology and saves it to non-volatile memory. Breakdown of the command:

• SY=Symbology

• AZTC=Aztec

• S=Set

• PO=Polarity

• 1=Inverse Mode

Leuze electronic DCR 50 24

Example: SYAZTCSPO1,MR1

This compound command sets the polarity to Inverse mode of the Aztec symbology and sets the ability to read mirrored Aztec codes. It saves both to non-volatile memory. Breakdown of the command:

• SY=Symbology

• AZTC=Aztec

• S=Set

• PO=Polarity

• 1=Inverse Mode

• MR=Mirror

• 1=Enable

8.2 Supported commands

8.2.1 Symbology

Configuration control

Code Description Command Format Op-

tions

Get All Symbology Pa-

SY ALLS G Returns all Symbology values in a single

rameters

Default

Notes/Examples

XML element

Example: SYALLSG

Australian Post – Get All Parameter

SY AUPOG Returns all Australian post parameter

values in an XML element.

Example: SYAUPOG

Australian Post SY AUPOS/P/R/GEN 0 0 Disable

Example: SYAUPOSEN0

1 Enable

Example: SYAUPOSEN1

Australian Post – Strip Checksum

SY AUPOS/P/R/GSC 0 0 Disable

Example: SYAUPOSSC0

1 Enable

Example: SYAUPOSSC1

This setting value is ignored if Australian Post decoding is disabled.

Aztec – Get All Parameter

SY AZTCG Returns all Aztec parameter values in an

XML element.

Example: SYAZTCG

Aztec SY AZTCS/P/R/GEN 1 0 Disable

Example: SYAZTCSEN0

1 Enable

Example: SYAZTCSEN1

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Aztec – Polarity SY AZTCS/P/R/GPO 0 0 Normal mode enabled - Black on

white background

Example: SYAZTCSPO0

1 Inverse mode enabled - White on

black background

Example: SYAZTCSPO1

2 Both normal and inverse modes

enabled

Example: SYAZTCSPO2

Note: This setting value is ignored if

Aztec decoding is disabled

Aztec – Mirror SY AZTCS/P/R/GMR 0 0 Disable

Example: SYAZTCSMR0

1 Enable

Example: SYAZTCSMR1

The ability to decode an Aztec code that has been printed as a mirror image of a standard Aztec.

Note: This setting value is ignored if Aztec decoding is disabled.

BC412 – Get All Parameter

SY B412 G Returns all BC412 parameter values in

an XML element.

Example: SYB412G

BC412 SY B412 S/P/R/GEN 0 0 Disable

Example: SYB412SEN0

1 Enable

Example: SYB412SEN1

BC412 – Reverse Decoding

SY B412 S/P/R/GRD 0 0 Disable

Example: SYB412SRD0

1 Enable

Example: SYB412SRD1

The ability to decode a BC412 that is printed in reverse.

Note: This setting value is ignored if BC412 decoding is disabled.

Canada Post SY CAPOS/P/R/GEN 0 0 Disable

Example: SYCAPOSEN0

1 Enable

Example: SYCAPOSEN1

Codabar – Get All Parameter

SY CBARG Returns all Codabar parameter values in

an XML element.

Example: SYCBARG

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Codabar SY CBARS/P/R/GEN 1 0 Disable

Example: SYCBARSEN0

1 Enable

Example: SYCBARSEN1

Codabar – Require Checksum

SY CBARS/P/R/GCS 0 0 Disable checksum check and out-

put checksum if one exists.

Example: SYCBARSCS0

1 Enable checksum check and out-

put checksum.

Example: SYCBARSCS1

2 Enable checksum check and strip

checksum.

Example: SYCBARSCS2

Note: This setting value is ignored if

Codabar decoding is disabled.

Codabar – Strip Start/ Stop Characters

SY CBARS/P/R/GSS 0 0 Disable

Example: SYCBARSSS0

1 Enable

Example: SYCBARSSS1

Note: This setting value is ignored if

Codabar decoding is disabled

CodablockA SY CODAS/P/R/GEN 0 0 Disable

Example: SYCODASEN0

1 Enable

Example: SYCODASEN1

CodablockF SY CODFS/P/R/GEN 0 0 Disable

Example: SYCODFSEN0

1 Enable

Example: SYCODFSEN1

Code11 – Get All Parameter

SY CO11G Returns all code 11 parameter values in

an XML element.

Example: SYBCO11G

Code11 SY CO11S/P/R/GEN 0 0 Disable

Example: SYCO11SEN0

1 Enable

Example: SYCO11SEN1

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Configuration control

Code Description Command Format Op-

tions

Code11 – Checksum

SY CO11S/P/R/GCS 2 0 Decode with checksum disabled

Off / 1-digit / 2-digit

Default

Notes/Examples

Example: SYCO11SCS0

1 Decode with one checksum digits

checked.

Example: SYCO11SCS1

2 Decode with two checksum digits

checked.

Example: SYCO11SCS2

Note: This setting value is ignored if

Code 11 decoding is disabled.

Code11 – Strip Checksum Characters On/Off

SY CO11S/P/R/GSC 0 0 Disable

Example: SYCO11SSC0

1 Enable

Example: SYCO11SSC1

Note: This setting value is ignored if

Code 11 decoding is disabled.

Code32 SY CO32S/P/R/GEN 0 0 Disable

Example: SYCO32SEN0

1 Enable

Example: SYCO32SEN1

Code39 – Get All Parameter

SY CO39G Returns all Code39 parameter values in

an XML element.

Example: SYCO39G

Code39 SY CO39S/P/R/GEN 1 0 Disable

Example: SYCO39SEN0

1 Enable

Example: SYCO39SEN1

Code39 – Checksum Off/On/On Strip Check Character

SY C039 S/P/R/GCS 0 0 Disables checksum check & out-

put checksum if one exists

Example: SYCO39SCS0

1 Enables checksum check and

output checksum

Example: SYCO39SCS1

2 Enables checksum check and

strip checksum from decode data.

Example: SYCO39SCS2

Note: This setting value is ignored if

Code39 decoding is disabled.

Code39 – Extended ASCII On/Off

SY CO39S/P/R/GEA 0 0 Disable

Example: SYCO39SEA0

1 Enable

Example: SYCO39SEA1

Note: This setting value is ignored if

Code39 decoding is disabled.

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Configuration control

Code Description Command Format Op-

tions

Code39 – Start Stop

SY CO39S/P/R/GSS 0 0 Disable

On/Off

Default

Notes/Examples

Example: SYCO39SSS0

1 Enable

Example: SYCO39SSS1

Note: This setting value is ignored if

Code39 decoding is disabled

Code49 SY CO49S/P/R/GEN 1/0 0 Disable

Example: SYCO49SEN0

1 Enable

Example: SYCO49SEN1

Code93 SY CO93S/P/R/GEN 1 0 Disable

Example: SYCO93SEN0

1 Enable

Example: SYCO93SEN1

Code128 SY C128 S/P/R/GEN 1 0 Disable

Example: SYC128SEN0

1 Enable

Example: SYC128SEN1

Composite SY COMPS/P/R/GEN 0 0 Disable

Example: SYCOMPSEN0

1 Enable

Example: SYCOMPSEN1

Data Matrix – Get All Parameter

SY DATMG Returns all Data matrix parameter values

in an XML element.

Example: SYDATMG

Data Matrix SY DATMS/P/R/GEN 1 0 Disable

Example: SYDATMSEN0

1 Enable

Example: SYDATMSEN1

Data Matrix – Polarity SY DATMS/P/R/GPO 2 0 Normal mode enabled - Black on

white background

Example: SYDATMSPO0

1 Inverse mode enabled - White on

black background

Example: SYDATMSPO1

2 Both normal and inverse modes

enabled

Example: SYDATMSPO2

Note: This setting value is ignored if

Data Matrix decoding is disabled.

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Data Matrix – Mirror SY DATMS/P/R/GMR 0 0 Disable

Example: SYDATMSMR0

1 Enable

Example: SYDATMSMR1

Note: This setting value is ignored if

Data Matrix decoding is disabled.

Data Matrix Rectangular SY DATMS/P/R/GRE 1 0 Disable

Example: SYDATMSRE0

1 Enable

Example: SYDATMSRE1

Note: This setting value is ignored if

Data Matrix decoding is disabled

Data Matrix Rectangular Extended

SY DATMS/P/R/GRX 0 0 Disable

Example: SYDATMSRX0

1 Enable

Example: SYDATMSRX1

Note: This setting value is ignored if

Data Matrix decoding is disabled

Grid Matrix – Get All Parameter

SY GDMXG Returns all Grid Matrix parameter values

in an XML element.

Example: SYGDMXG

Grid Matrix SY GDMXS/P/R/GEN 0 0 Disable

Example: SYGDMXSEN0

1 Enable

Example: SYGDMXSEN1

Grid Matrix – Polarity SY GDMXS/P/R/GPO 1 0 Normal mode enabled - Black on

white background

Example: SYGDMXSPO0

1 Inverse mode enabled - White on

black background

Example: SYGDMXSPO1

2 Both normal and inverse modes

enabled

Example: SYGDMXSPO2

Note: This setting value is ignored if Grid

Matrix decoding is disabled.

Grid Matrix – Mirror SY GDMXS/P/R/GMR 0 0 Disable

Example: SYGDMXSMR0

1 Enable

Example: SYGDMXSMR1

Note: This setting value is ignored if Grid

Matrix decoding is disabled.

GS1 DataBar – Get All Parameter

SY GS1DG Returns all GS1 DataBar parameter val-

ues in an XML element.

Example: SYGS1DG

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

GS1 DataBar SY GS1DS/P/R/GEN 1 0 Disable

Example: SYGS1DSEN0

1 Enable

Example: SYGS1DSEN1

GS1 DataBar Omnidirectional & truncated

SY GS1DS/P/R/GOT 0 0 Disable

Example: SYGS1DSOT0

1 Enable

Example: SYGS1DSOT1

GS1 DataBar Stacked SY GS1DS/P/R/GST 1 0 Disable

Example: SYGS1DSST0

1 Enable

Example: SYGS1DSST1

GS1 DataBar Expanded SY GS1DS/P/R/GEX 1 0 Disable

Example: SYGS1DSEX0

1 Enable

Example: SYGS1DSEX1

GS1 DataBar Expanded Stacked

SY GS1DS/P/R/GES 1 0 Disable

Example: SYGS1DSES0

1 Enable

Example: SYGS1DSES1

GS1 DataBar Limited SY GS1DS/P/R/GLI 1 0 Disable

Example: SYGS1DSLI0

1 Enable

Example: SYGS1DSLI1

HanXin – Get All Parameter

SY HAXNG Returns all HanXin parameter values in

an XML element.

Example: SYHAXNG

HanXin SY HAXNS/P/R/GEN 0 0 Disable

Example: SYHAXNSEN0

1 Enable

Example: SYHAXNSEN1

HanXin – Polarity SY HAXNS/P/R/GPO 0 0 Normal mode enabled - Black on

white background

Example: SYHAXNSPO0

1 Inverse mode enabled - White on

black background

Example: SYHAXNSPO1

2 Both normal and inverse modes

enabled

Example: SYHAXNSPO2

Note: This setting value is ignored if

HanXin decoding is disabled

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Han Xin – Mirror SY HAXNS/P/R/GMR 0 0 Disable

Example: SYHAXNSMR0

1 Enable

Example: SYHAXNSMR1

Note: This setting value is ignored if

HanXin decoding is disabled

Hong Kong 2of5 SY H2O5S/P/R/GEN 0 0 Disable

Example: SYH2O5SEN0

1 Enable

Example: SYH2O5SEN1

Interleaved 2of5– Get All Parameter

SY I2O5 G Returns all Interleaved 2of5 parameter

values in an XML element.

Example: SYI2O5G

Interleaved 2of5 SY I2O5 S/P/R/GEN 1 0 Disable

Example: SYI2O5SEN0

1 Enable

Example: SYI2O5SEN1

Interleaved 2of5 – Checksum Options Off/ On/Strip Checksum Characters

SY I2O5 S/P/R/GCO 0 0 Disables checksum checking and

output checksum if one exists.

Example: SYI2O5SCO0

1 Enables checksum checking and

output checksum with decode data.

Example: SYI2O5SCO1

2 Enables checksum check and

strip checksum from decode data.

Example: SYI2O5SCO2

Note: This setting value is ignored if In-

terleaved 2of5 decoding is disabled.

Interleaved 2of5 – Length

SY I2O5 S/P/R/GLN 0 0 Minimum Value

Example: SYI2O5SLN0

100 Maximum Value

Example: SYI2O5SLN100

Note: This setting value is ignored if In-

terleaved 2of5 decoding is disabled.

Japan Post SY JAPOS/P/R/GEN 0 0 Disable

Example: SYJAPOSEN0

1 Enable

Example: SYJAPOSEN1

KIX (Dutch Post) SY KIX0 S/P/R/GEN 0 0 Disable

Example: SYKIX0SEN0

1 Enable

Example: SYKIX0SEN1

Leuze electronic DCR 50 32

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Korean Post SY KOPOS/P/R/GEN 0 0 Disable

Example: SYKOPOSEN0

1 Enable

Example: SYKOPOSEN1

Matrix 2of5 SY M2O5S/P/R/GEN 0 0 Disable

Example: SYM2O5SEN0

1 Enable

Example: SYM2O5SEN1

Maxicode SY MAXCS/P/R/GEN 0 0 Disable

Example: SYMAXCSEN0

1 Enable

Example: SYMAXCSEN1

MSI Plessey – Get All Parameter

SY MSIP G Returns all MSI Plessey parameter val-

ues in an XML element.

Example: SYMSIPG

MSI Plessey SY MSIP S/P/R/GEN 0 0 Disable

Example: SYMSIPSEN0

MSI Plessey – Require Checksum

MSI Plessey – Strip Checksum

1 Enable

Example: SYMSIPSEN1

SY MSIP S/P/R/GCS 0 0 Disable

Example: SYMSIPSCS0

1 Enable

Example: SYMSIPSCS1

2 10/10 Checksum type

Example: SYMSIPSCS2

3 11/10 Checksum type

Example: SYMSIPSCS3

Note: This setting value is ignored if MSI

Plessey decoding is disabled.

SY MSIP S/P/R/GSC 0 0 Disable

Example: SYMSIPSSC0

1 Enable

Example: SYMSIPSSC1

Note: This setting value is ignored if MSI

Plessey decoding is disabled.

Plessey – PLE SY MSIP S/P/R/GPE 0 0 Disable

Example: SYMSIPSPE0

1 Enable

Example: SYMSIPSPE1

NEC 2 of 5 – Get All Parameter

SY N2O5G Returns all NEC 2 of 5 parameter values

in an XML element.

Example: SYN2O5G

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

NEC 2 of 5 SY N2O5S/P/R/GEN 0 0 Disable

Example: SYN2O5SEN0

1 Enable

Example: SYN2O5SEN1

NEC 2 of 5 – Require Checksum

SY N2O5S/P/R/GCS 0 0 Disable

Example: SYN2O5SCS0

1 Enable

Example: SYN2O5SCS1

Note: This setting value is ignored if

NEC 2 of 5 decoding is disabled.

PDF417 SY P417 S/P/R/GEN 1 0 Disable

Example: SYP417SEN0

1 Enable

Example: SYP417SEN1

Micro PDF417 SY P417 S/P/R/GMI 0 0 Disable

Example: SYP417SMI0

1 Enable

Example: SYP417SMI1

Pharma Code – Get All Parameter

SY PHCOG Returns all Pharma code parameter val-

ues in an XML element.

Example: SYPHCOG

Pharmacode SY PHCOS/P/R/GEN 0 0 Disable

Example: SYPHCOSEN0

1 Enable

Example: SYPHCOSEN1

Pharmacode – Reverse SY PHCOS/P/R/GRV 0 0 Disable

Example: SYPHCOSRV0

1 Enable

Example: SYPHCOSRV1

Note: This setting value is ignored if

Pharmacode decoding is disabled.

Pharmacode – Support Color bars

SY PHCOS/P/R/GCB 0 0 Disable

Example: SYPHCOSCB0

1 Enable

Example: SYPHCOSCB1

Note: This setting value is ignored if

Pharmacode decoding is disabled.

Pharmacode – Bar Count Min

SY PHCOS/P/R/GCN 4 4 Minimum Value

Example: SYPHCOSCN4

Note: This setting value is ignored if

Pharmacode decoding is disabled.

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Configuration control

Code Description Command Format Op-

tions

Pharmacode – Bar

SY PHCOS/P/R/GCX 16 16 Maximum Value

Count Max

Default

Notes/Examples

Example: SYPHCOSCX16

Note: This setting value is ignored if

Pharmacode decoding is disabled

Pharmacode – Min Value

SY PHCOS/P/R/GMI 15 15 Minimum Value

Example: SYPHCOSMI15

Note: This setting value is ignored if

Pharmacode decoding is disabled.

Pharmacode – Max Value

SY PHCOS/P/R/GMX 131070 131070Maximum Value

Example: SYPHCOSMX131070

Note: This setting value is ignored if

Pharmacode decoding is disabled.

QR Code – Get All Parameter

SY QRCOG Returns all QR code parameter values in

an XML element.

Example: SYQRCOG

QR Code SY QRCOS/P/R/GEN 1 0 Disable

Example: SYQRCOSEN0

1 Enable

Example: SYQRCOSEN1

QR Code – Polarity SY QRCOS/P/R/GPO 0 0 Normal mode enabled - Black on

white background

Example: SYQRCOSPO0

1 Inverse mode enabled - White on

black background

Example: SYQRCOSPO1

2 Both normal and inverse modes

enabled

Example: SYQRCOSPO2

Note: This setting value is ignored if QR

code decoding is disabled.

Micro QR Code SY QRCOS/P/R/GMI 0 0 Disable

Example: SYQRCOSMI0

1 Enable

Example: SYQRCOSMI1

QR Code – Mirror SY QRCOS/P/R/GMR 0 0 Disable

Example: SYQRCOSMR0

1 Enable

Example: SYQRCOSMR1

Note: This setting value is ignored if QR

Code decoding is disabled.

Leuze electronic DCR 50 35

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

QR Code – Mode 1 SY QRCOS/P/R/GM1 0 0 Disable

Example: SYQRCOSM10

1 Enable

Example: SYQRCOSM11

Note: This setting value is ignored if QR

Code decoding is disabled.

QR Code – Custom SY QRCOS/P/R/GCQ 0 0 Disable

Example: SYQRCOSCQ0

1 Enable

Example: SYQRCOSCQ1

Note: This setting value is ignored if QR

Code decoding is disabled.

Straight 2 of 5 SY S2O5 S/P/R/GEN 0 0 Disable

Example: SYS2O5SEN0

1 Enable

Example: SYS2O5SEN1

Telepen – Get All Parameter

SY TELP G Returns all Telepen parameter values in

an XML element.

Example: SYTELPG

Telepen SY TELP S/P/R/GEN 0 0 Disable

Example: SYTELPSEN0

1 Enable

Example: SYTELPSEN1

Telepen – Ouput ASCII SY TELP S/P/R/GOA 0 0 Disable

Example: SYTELPSOA0

1 Enable

Example: SYTELPSOA1

Note: This setting value is ignored if

Telepen decoding is disabled.

Trioptic – Get All Parameter

SY TRIO G Returns all Trioptic parameter values in

an XML element.

Example: SYTRIOG

Trioptic SY TRIO S/P/R/GEN 0 0 Disable

Example: SYTRIOSEN0

1 Enable

Example: SYTRIOSEN1

Trioptic – Reverse SY TRIO S/P/R/GRV 0 0 Disable

Example: SYTRIOSRV0

1 Enable

Example: SYTRIOSRV1

Note: This setting value is ignored if Tri-

optic decoding is disabled.

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Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Trioptic – Start/Stop SY TRIO S/P/R/GSS 0 0 Disable

Example: SYTRIOSSS0

1 Enable

Example: SYTRIOSSS1

Note: This setting value is ignored if Tri-

optic decoding is disabled.

UK Royal Mail SY UKROS/P/R/GEN 0 0 Disable

Example: SYUKROSEN0

1 Enable

Example: SYUKROSEN1

UK Royal Mail – Require Check Character

SY UKROS/P/R/GCC 0 0 Disable

Example: SYUKROSCC0

1 Enable

Example: SYUKROSCC1

Note: This setting value is ignored if UK

Royal Mail decoding is disabled.

UPC/EAN – Get All Parameter

SY UPC0G Returns all UPC/EAN parameter values

in an XML element.

Example: SYUPC0G

UPC/EAN SY UPC0S/P/R/GEN 1/0 0 Disable

Example: SYUPC0SEN0

1 Enable

Example: SYUPC0SEN1

UPC/EAN – Expand UPC-E to UPC-A

SY UPC0S/P/R/GEA 1 0 Disable

Example: SYUPC0SEA0

1 Enable

Example: SYUPC0SEA1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

UPC/EAN – Supplemental

SY UPC0S/P/R/GSU 0 0 Disable

Example: SYUPC0SSU0

1 Enable

Example: SYUPC0SSU1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

UPC/EAN – Expand EAN-8 to EAN-13

SY UPC0S/P/R/G8D 0 0 Disable

Example: SYUPC0S8D0

1 Enable

Example: SYUPC0S8D1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

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Configuration control

Code Description Command Format Op-

tions

UPC/EAN – Expand

SY UPC0S/P/R/GAD 0 0 Disable

UPC-A to EAN-13

UPC/EAN – Convert

SY UPC0S/P/R/GDI 0 0 Disable Bookland EAN-13 to ISBN

UPC/EAN – Convert

SY UPC0S/P/R/GDN 0 0 Disable Bookland EAN-13 to ISSN

Default

Notes/Examples

Example: SYUPC0SAD0

1 Enable

Example: SYUPC0SAD1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

Example: SYUPC0SDI0

1 Enable

Example: SYUPC0SDI1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

Example: SYUPC0SDN0

1 Enable

Example: SYUPC0SDN1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

UPC/EAN – Transmit UPC-A Checksum

UPC/EAN – Transmit UPC-A Number System

UPC/EAN – Transmit UPC-E Checksum

UPC/EAN – Transmit UPC-E Number System

SY UPC0S/P/R/GAC 0 0 Disable

Example: SYUPC0SAC0

1 Enable

Example: SYUPC0SAC1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

SY UPC0S/P/R/GAN 0 0 Disable

Example: SYUPC0SAN0

1 Enable

Example: SYUPC0SAN1

Note:This setting value is ignored if

UPC/EAN decoding is disabled.

SY UPC0S/P/R/GEC 0 0 Disable

Example: SYUPC0SEC0

1 Enable

Example: SYUPC0SEC1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

SY UPC0S/P/R/GES 0 0 Disable

Example: SYUPC0SES0

1 Enable

Example: SYUPC0SES1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

Leuze electronic DCR 50 38

Configuration control

Code Description Command Format Op-

tions

UPC/EAN – Transmit

SY UPC0S/P/R/GDC 0 0 Disable EAN-13 Checksum

Default

Notes/Examples

Example: SYUPC0SDC0

1 Enable

Example: SYUPC0SDC1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

UPC/EAN – Transmit EAN-8 Checksum

SY UPC0S/P/R/G8C 0 0 Disable

Example: SYUPC0S8C0

1 Enable

Example: SYUPC0S8C1

Note: This setting value is ignored if

UPC/EAN decoding is disabled.

UPC/EAN – Send AIM Modifier

SY UPC0S/P/R/GAM 0 0 Disable

Example: SYUPC0SAM0

1 Enable

Example: SYUPC0SAM1

USPS Planet SY USPLS/P/R/GEN 0 0 Disable

Example: SYUSPLSEN0

1 Enable

Example: SYUSPLSEN1

USPS Postnet SY USPOS/P/R/GEN 0 0 Disable

Example: SYUSPOSEN0

1 Enable

Example: SYUSPOSEN1

UPU ID Tags SY UPUI S/P/R/GEN 0 0 Disable

Example: SYUPUISEN0

1 Enable

Example: SYUPUISEN1

USPS Intelligent Mail SY USIM S/P/R/GEN 0 0 Disable

Example: SYUSIMSEN0

1 Enable

Example: SYUSIMSEN1

Leuze electronic DCR 50 39

8.2.2 Communications

Configuration control

Code Description Command Format Op-

tions

Get All Communications

CM CM G Example: CMCMG

Default

Notes/Examples

Parameters

Communications Mode CM MO S/P/R/GCM UK SE RS-232 Serial

Example: CMMOSCMSE

UK USB Keyboard

Example: CMMOSCMUK

UV USB VCOM

Example: CMMOSCMUV

UN USB Native

Example: CMMOSCMUN

UP USB HID POS

Example: CMMOSCMUP

UC USB CDC VCOM

Example: CMMOSCMUC

Communication Protocol CM CP S/P/R/GPM 0 0 Raw Mode

Example: CMCPSPM0

Connection Retry Timeout (s)

RS-232 Interface – Get All parameters

RS-232 Interface – Baud Rate

1 Packet Mode

Example: CMCPSPM1

CM GE S/P/R/GCR 5000 If reader disconnects, it will try to recon-

nect after the timeout interval in seconds.

Valid Range:

Example: CMGESCR5000

CM SE G Returns all serial communication param-

eter values in an XML element.

Example: CMSEG

CM SE S/P/R/GBA 115200 1200 1200 Bits per second

Example: CMSESBA1200

2400 2400 Bits per second

Example: CMSESBA2400

4800 4800 Bits per second

Example: CMSESBA4800

9600 9600 Bits per second

Example: CMSESBA9600

1920019200 Bits per second

Example: CMSESBA19200

3840038400 Bits per second

Example: CMSESBA38400

5760057600 Bits per second

Example: CMSESBA57600

115200115200 Bits per second

Example: CMSESBA115200

Supported Baud Rate

Leuze electronic DCR 50 40

Configuration control

Code Description Command Format Op-

tions

RS-232 Interface – Data

CM SE S/P/R/GDB 8 7 Seven data bits

Bits

Default

Notes/Examples

Example: CMSESDB7

8 Eight data bits

Example: CMSESDB8

The number of bits per character

RS-232 Interface – Stop Bits

CM SE S/P/R/GSB 1 1 One stop bit

Example: CMSESSB1

2 Two stop bits

Example: CMSESSB2

The number of stop bits sent

RS-232 Interface – Parity CM SE S/P/R/GPA N N None – No parity bits

Example: CMSESPAN

E Even parity bit

Example: CMSESPAE

O Odd parity bit

Example: CMSESPAO

RS-232 Interface – Flow Control

RS-232 Interface – Signal Polarity

8.2.3 USB and HID

Tab.8.1: USB and HID

A parity bit, or check bit, is a bit added to a string of binary code to ensure that the total number of 1-bits in the string is even or odd.

CM SE S/P/R/GFC 0/1 0 Example: CMSESFC0

1 Example: CMSESFC1

Transmit flow control

CM SE S/P/R/GPO 0 0 Standard or non-inverted UART0

signals

Example: CMSESPO0

1 Invert UART0 signals

Example: CMSESPO1

Note: UART1 does not have polarity con-

trol

Note: The default polarity is controlled by the STRAP[3] value at power up.

Code Description Command Format Op-

Default Notes/Examples

tions

USB – Get All parameters CM UB G Returns all USB communication parame-

ter values in an XML element.

Example: CMUBG

USB – Manufacturer CM UB S/P/R/GMF CODE A string representing the manufacturer

name for the product

Example: CMUBSMFCODE

Leuze electronic DCR 50 41

Configuration control

Code Description Command Format Op-

Default Notes/Examples

tions

USB – Part Number CM UB S/P/R/GPN CR8200A string representing the part number or

name for the product

Example: CMUBSPNCR8200

USB – Full Speed CM UB S/P/R/GFS 0 0 Disable Full Speed

Example: CMUBSFS0

1 Enable Full Speed

Example: CMUBSFS1

HID Keyboard – Get All parameters

CM HD G Returns all HID Keyboard parameter val-

ues in an XML element.

Example: CMHDG

HID Keyboard – Inter Character Delay (ms)

CM HD S/P/R/GIC 0 In Milliseconds

Valid Range:

Example: CMHDSIC4

HID Keyboard – Inter Scan Delay (ms)

CM HD S/P/R/GIS 0 In Milliseconds

Valid Range:

Example: CMHDSIS4

HID Keyboard – Release Delay (ms)

CM HD S/P/R/GRL 0 In Milliseconds

Valid Range:

Example: CMHDSRL4

HID Keyboard Control Characters

HID Keyboard Decode Data Input Conversion

HID Keyboard Decode Data Output Method

CM HD S/P/R/GCC 0 0 Use language

Example: CMHDSCC0

1 Use Ctrl+<char>

Example: CMHDSCC1

2 Use Alt+<Keypad>

Example: CMHDSCC2

3 Use Alt+0<Keypad>

Example: CMHDSCC3

How to handle character values in the range 0x00 to 0x1F

CM HD S/P/R/GIE 0 0 ASCII – No Conversion

Example: CMHDSIE0

1 ASCII to Unicode Code point

Example: CMHDSIE1

2 UTF-8 to Unicode Code point

Example: CMHDSIE2

CM HD S/P/

R/G

OM 0 0 Unicode as XML Lookup

Example: CMHDSOM0

1 Unicode as Windows Alt-Se-

quence

Example: CMHDSOM1

Note: This parameter is only relevant

when Input Conversion >0

Leuze electronic DCR 50 42

Configuration control

Code Description Command Format Op-

tions

HID Keyboard Windows

CM HD S/P/R/GEA 0 0 Append leading zero (Code page code page for Extended ASCII Characters

USB Keyboard – Get All

CM UK G Returns all USB Keyboard parameter valparameters

USB Keyboard – Number

CM UK S/P/R/GNE 1 1 One endpoint of Endpoints

Default Notes/Examples

1232)

Example: CMHDSEA0

1 Do not append leading zero (Code

page 437)

Example: CMHDSEA1

Extended ASCII characters [0x80, 0xFF] are output as alt-sequences with or without a leading zero which windows uses to determine whether to display the character from CP1232 or CP437. This only applies when the HID Keyboard Decode Data Output Method is set to Unicode as Windows Alt-Sequence.

ues in an XML element.

Example: CMUKG

Example: CMUKSEN1

USB Keyboard – Declaration Wait State

USB Keyboard – Use Serial Number

USB Keyboard – IN Endpoint Polling Interval (µs)

USB Vendor – Use Serial Number

USB Vendor – IN Endpoint Polling Interval (µs)

2 Two endpoints

Example: CMUKSEN2

CM UK S/P/R/GEM 0 0 Declare enumeration when ad-

dressed

Example: CMUKSEM0

1 Declare enumeration after receipt

of output report

Example: CMUKSEM1

2 Declare enumeration after receipt

of get report descriptor

Example: CMUKSEM2

CM UK S/P/R/GSN 0/1 0 Example: CMUKSSN0

1 Example: CMUKSSN1

CM UK S/P/R/GIN 1000 Controls the USB HID Keyboard IN End-

point Polling Interval

Example: CMUKSIN1000

CM UN S/P/R/GSN 0/1 0 Example: CMUNSSN0

1 Example: CMUNSSN1

CM UN S/P/R/GIN 1000 Controls the USB HID Vendor IN End-

point Polling Interval

Example: CMUNSIN1000

USB VCOM – Use Serial Number

USB HID POS – Use Serial Number

Leuze electronic DCR 50 43

CM UV S/P/R/GSN 0/1 0 Example: CMUVSSN0

1 Example: CMUVSSN1

CM UP S/P/R/GSN 0/1 0 Example: CMUPSSN0

1 Example: CMUPSSN1

Tab.8.2: HID language support

Configuration control

Code Description Command Format Op-

tions

Get all language parame-

LA IN G Get all language settings

ters

Active language LA IN S/P/R/GAL USEn-

Default

glish_ Win

Notes/Examples

Example: LAING

Active language setting

Valid Range: Languages listed by the LAINGIL command

Example: LAINGAL

Get Installed languages list LA IN G IL List installed language names

Example: LAINGIL

Control character encoding CM HD S/P/R/GCC 0 0 Language Default

Example: CMHDSCC0

1 Control + Character

Example: CMHDSCC1

2 Alt + Keypad

Example: CMHDSCC2

3 Alt + Leading 0

Example: CMHDSCC3

8.2.4 Packet and protocol parameters

Code Description Command Format Op-

tions

Packet – Get All parameters PK OP G Returns all packet parameter values in

Receive Timeout (ms) PK OP S/P/R/GRT 250 When retry count specified and reader

Connection Protocol Time-

PK OP S/P/R/GCT 60 When sending fragmented data in

out (s)

Default

Choose the control character encoding style.

Notes/Examples

an XML element.

Example: PKOPG

doesn’t receive the ACK, it will resend the response after the timeout.

In milliseconds

Valid Range:

Example: PKOPSRT250

packet mode, this timeout specifies the maximum time between two fragments. Reader cancels the transaction when the timeout expires and it didn’t receive new fragmented data.

In Seconds

Valid Range:

Example: PKOPSCT120

Reader Retry Count PK OP S/P/R/GRC 0 Number of retries from the reader when

no ACK is received from the host.

Valid Range:

Example: PKOPSRC1

Leuze electronic DCR 50 44

8.2.5 Decoder and general decoding parameters

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Get All Decoder Parameters CD CD G Returns all decoder parameter values in

an XML element.

Example: CDCDG

CD DP DPM parameters (Not supported)

Decoder Timing – Get All Parameters

CD DT G Returns all decoder timing parameter

values in an XML element.

Example: CDDTG

Decode Time Limit (ms) CD DT S/P/R/GTL 150/320Time limit (decoder)

Example: CDDTSTL150

CD DT S/P/R/GTF 30 Timeout Factor

Example: CDDTSTF30

Get All Decoder Operational Parameters

CD OP G Returns all decoder operational parame-

ter values in an XML element.

Example: CDOPG

Maximum Decodes Per Read

CD OP S/P/R/GPR 1 The reader will process up to this num-

ber of barcodes per read. If there are more barcodes in the field of view and target tolerance, only the first ones will be decoded.

Valid Range: 1 to 16

Example: CDOPSPR2

Ensure Region of Interest CD OP S/P/R/GRO 0 0 Disable ROI

Example: CDOPSRO0

1 Enable ROI

Example: CDOPSRO1

Ensure decoded barcoded is always inside the region of interest. When disabled, barcode may be decoded as long as it is partially inside the ROI

Region of Interest Leftmost

CD OP S/P/R/GRL 0 ROI Left

pixel

Region of Interest Topmost

CD OP S/P/R/GRT 0 ROI Top

pixel

Region of Interest width (pix-

CD OP S/P/R/GRW 1280 ROI width

els)

Region of Interest height

CD OP S/P/R/GRH 960 ROI height

(pixels)

Low Contrast 1D CD OP S/P/R/GLC 0 0 Disable Low Contrast

Example: CDOPSLC0

1 Enable Low Contrast

Example: CDOPSLC1

Leuze electronic DCR 50 45

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

FOI Zoom CD OP S/P/R/GZR 0 0 Disable FOI Zoom

Example: CDOPSZR0

1 Enable FOI Zoom

Example: CDOPSZR1

Increases the FOI resolution to robustly decode small barcodes when FOI is set to sub-region of the entire FOI. For faster speed, set FOI width * FOI height < 320 * 480.

Enhance Contrast CD OP S/P/R/GEC 0 0 Disable

Example: CDOPSEC0

1 Enable

Example: CDOPSEC1

Enhances image contrast before decoding

Prefix Decode Results with AIM Symbology Identifiers

CD OP S/P/R/GPA 0 0 Don’t prefix with AIM identifier

Example: CDOPSPA0

1 Prefix decode result with ISO/

IEC standard 15424/AIM

Example: CDOPSPA1

Security Level

CD OP S/P/R/GSE See decoder API

(Decoder P_SECURITY_LEVEL)

1D Barcode Aggressiveness CD OP S/P/R/GSE 0 0 Most Aggressive

Example: CDOPSSE0

1 Less Aggressive for poorly

printed 1D barcodes.

Example: CDOPSSE1

2 Least Aggressive for poorly

printed 1D barcodes.

Example: CDOPSSE2

11 Less Aggressive for 1D barcodes

with low module size

Example: CDOPSSE11

12 Least Aggressive for 1D bar-

codes with low module size

Example: CDOPSSE12

Decode Attempt Time CD OP S/P/R/GAT 0 Attempt Time (Same as sticky time in

CR8x)

Example: CDOPSAT0

Stop Decoding on Duplicate CD OP S/P/R/GSD 0 Instructs the decoder to stop looking for

decodes in the current image when a duplicate is found.

Prefix with AIM Identifier CD OP S/P/R/GPA 0 Prefixes the decode data with the 3-

character AIM identifier

Leuze electronic DCR 50 46

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Cellphone Enable CD OP S/P/R/GCE 0 0 Disable Cellphone reading mode

1 Enable Cellphone reading mode

Upload Images CD OP S/P/R/GDI 0 0 Disable uploading images

Example: CDOPPDI0

1 Enable uploading

Example: CDOPPDI1

When Upload Images is set, each image captured by the reader will be sent as a stream of data to the host

Decode Trigger Mode CD OP S/P/R/GMD 0 0 Trigger Mode (default)

Example: CDOPSMD0

1 Motion Detection Mode

Example: CDOPSMD1

2 Continuous scan Mode

Example: CDOPSMD2

Notes: TBD

Target Tolerance (percent) CD VA S/P/R/GTT 1600 For reader to accept a barcode, it must

be within certain distance from the center of the image. The distance is defined as a percentage of the barcode’s smaller dimension. For example, with a 10 x 20 mm barcode and a setting of 150 (%), the barcode must be within 15 mm of the center of the image.

Any value over 1000 is considered infinite tolerance, and no target checking is performed.

Valid Range: 1 to 1000

Example: CDVASTT1600

Duplicate Block Time (ms) CD VA S/P/R/GBT 0 Consecutive duplicate barcodes (i.e.

barcodes that contain the same data) are blocked for this amount of time (in milliseconds). 0 turns off blocking of duplicate barcodes.

Valid Range: 0 to xx

Example: CDVASBT100

Block Duplicates CD VA S/P/R/GBD 0 0 Disable – do not block dupli-

cates

Example: CDVASBD0

1 Enable –block duplicates for the

amount of time set in DCVAGBT

Example: CDVASBD1

If enabled, the reader will not output the same barcode until the barcode has not been seen for the “duplicate block time” period.

Leuze electronic DCR 50 47

Configuration control

Code Description Command Format Op-

tions

Data manipulation format

CD OP S/P/R/GFO 0 0 Don’t format data output

option selection

Default

Notes/Examples

Example: CDOPSFO0

1 Format data with prefix/suffix or

data configuration string

Example: CDOPSFO1

2 Perform match string validation*

Example: CDOPSFO2

3 Perform GS1 validation*

Example: CDOPSFO3

4 Perform UDI validation

Example: CDOPSFO4

5 Perform ISO15434 validation

Example: CDOPSFO5

6 Perform ISO15434 & ISO15418

validation

Example: CDOPSFO6

7 Perform Simple Age verification

using configuration string*

Example: CDOPSFO7

8 Perform Simple Age verification

without configuration

Example: CDOPSFO8

9 Perform DL Parsing with config-

uration string

Example: CDOPSFO9

10 Perform DL Parsing without

configuration

Example: CDOPSFO10

11 Perform Success & Raw valida-

tion

Example: CDOPSFO11

Simple prefix CD OP S/P/R/GPX Data formatting prefix

Example: CDOPSPX

Simple suffix CD OP S/P/R/GSX Data formatting suffix

Example: CDOPSSX

Output in upper or lower case or bracketed hex bytes

CD OP S/P/R/GFC upper

lower case

hex bytes

Data formatting output case/hex

Example: CDOPSFC

Full data format string CD OP S/P/R/GFD Data formatting raw format configuration

string

Example: CDOPSFD

Leuze electronic DCR 50 48

Configuration control

Code Description Command Format Op-

Public sector & validation configuration string

Stand Detection CD ST S/P/R/GSE 1 0 Disable

8.2.6 Power mode parameters

Code Description Command Format Op-

tions

Default

Notes/Examples

CD OP S/P/R/GFP Validation & public sector configuration

string

Example: CDOPSFP

Example: CDSTSSE0

1 Enable

Example: CDSTSSE1

Detects when the reader has been placed in a stand that contains a trigger magnet and change to Motion Detection mode.

CD ST S/P/R/GSD CDSTSSD100

Stand detect duplicate barcode block delay in ms

tions

Default

Notes/Examples

Get All Power Management Parameters

PM PM G Returns all power management parame-

ter values in an XML element.

Example: PMPMG

Standby Mode Timer PM SB S/P/R/GEN 0 0 Disable Standby Mode Timer

Example: PMSBSEN0

1 Enable Standby Mode Timer

Example: PMSBSEN1

Standby Mode Timer Delay (ms)

PM SB S/P/R/GVA 5000 If Standby Mode Timer is enabled, the

device will go into Standby Mode after this timer has expired.

Valid Range:

Example: PMSBSVA2000

Sleep Mode Timer PM SM S/P/R/GEN 0 0 Disable Sleep Mode Timer

Example: PMSMSEN0

1 Enable Sleep Mode Timer

Example: PMSMSEN1

The Standby Mode Timer must be enabled for the device to go into Sleep Mode.

Sleep Mode Timer Delay (ms)

PM SM S/P/R/GVA 3600 If both Standby Mode Timer and Sleep

Mode Timer are enabled, the device will go into Sleep Mode after this timer has expired.

Valid Range:

Example: PMSMSVA3600

Leuze electronic DCR 50 49

Configuration control

Code Description Command Format Op-

Sleep Mode Timer – Maintain Connection

Power Mode Enter Sleep PM ES Forces the device to go into Sleep Mode

8.2.7 General reader information

Code Description Command Format Op-

Get All Reader Information Parameters

tions

Default

Notes/Examples

PM SM S/P/R/GMC 1 0 Disconnect from host in Sleep

Mode

Example: PMSMSMC0

1 Retain connection in Sleep

Mode

Example: PMSMSMC1

even if Standby Mode Timer and Sleep Mode Timer are disabled. This command should be sent as RAW. The device will immediately go into Sleep Mode after receiving this command.

Example: PMES

tions

Default

Notes/Examples

RD RD G Returns all Reader Information parame-

ter values in an XML element.

Example: RDRDG

Get all Firmware information RD FW G Returns all Firmware parameter values

in an XML element.

Example: RDFWG

Firmware Version Major RD FW G MJ Returns Firmware Major Version param-

eter value in an XML element.

Example: RDFWGMJ

Firmware Version Minor RD FW G MN Returns Firmware Minor Version param-

eter value in an XML element.

Example: RDFWGMN

Firmware Version Build Version

RD FW G BU Returns Firmware Build Version param-

eter value in an XML element.

Example: RDFWGBU

Decoder Version RD FW G DV Returns Decoder version parameter

value in an XML element.

Example: RDFWGDV

Chip Revision RD CP G RV Returns Chip Revision parameter value

in an XML element

Example: RDCPGRV

Reader Serial Number RD CP G SN Returns Reader Serial Number parame-

ter value in an XML element

Example: RDCPGSN

Reader Information RD RR G Returns Reader Information parameter

value in an XML element

Example: RDRRG

Leuze electronic DCR 50 50

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Reader ID RD RR G ID Returns Reader ID parameter value in

an XML element.

Example: RDRRGID

Hardware Revision RD RR G HR Returns Reader Hardware Revision pa-

rameter value in an XML element.

Example: RDRRGHR

Reader Model Type RD RR S/P/R/GMT 0 DCR50

Example: RDRRSMT6

Reader Information String RD RR G IS Returns Reader Information String pa-

rameter value in an XML element.

Example: RDRRGIS

Reader Output Format – Line Ending

Reader Command – Process Barcode Data

RD OF S/P/R/GLE <CR><

LF>

(%0D %0A)

Defines the output format line ending. Non-printable ASCII characters must be set using URL encoded hex value.

Example: RDOFSLE%0D%0A

RD CM X BD <data> Sends <data> to the host as barcode

data

Example: RDCMXBD12345

Reader Command – Reboot RD CM X RB 1 Reboots the reader

Example: RDCMXRB1

Reader Command – Post Event

RD CM X EV Posts an event. If the event has param-

eters, it uses P1 and P2. The values for these parameters are specified after each parameter.

Example: Posts an event to start a single decode RDCMXEV1, P11, P20

P1 (see Reader Command List below)

P2 (see Reader Command List below)

P3 (see Reader Command List below)

P4 (see Reader Command List below)

PL (see Reader Platform command below)

RDCMX

Reader Command Execute

EV1P10 Stop decoding

List

P11 P20 Start single decode

P11 P21 Start continuous decoding

EV2P10 Disable Targeting

P11 Enable Targeting

Leuze electronic DCR 50 51

Configuration control

Code Description Command Format Op-

tions

RDCMXPL

“<Configuration>” Quoted string containing the Configuration Con-

Reader Command to set a platform configuration

De-

Notes/Examples

fault

trol Command. The configuration will be saved and restored on reboot/restart. Enclose the command in square brackets (inside the quotes) and add a carret between the opening square bracket and command to delete a command from the platform configuration

Save Example:

RDCMXPL"FBGRPBI1"

Delete Example:

RDCMXPL"[^FBGRPBI1]"

Get All Reader Licenses RD LC G GL Returns all Reader License values in an

XML element.

Example: RDLCGGL

Load License RD LC X LD “URL

encoded license string”

Loads license on the reader

Copies the contents of the License CRB file starting after the ‘?’character to use as the URL encoded license string. This string must be in quotes in the command.

Example: RDLCXLD”%23%45….”

Delete License RD LC X DL Li-

8.2.8 Reader configuration

Code Description Command Format Op-

Get All Reader Parameters CF G Returns all Reader Parameter values in

Reset Reader to Factory Default

8.2.9 General firmware operation

Code Description Command Format Op-

Deletes a license cense number

License number is an integer that repre-

sents just the license number, not the

serial number of the license you want to

delete.

Example: RDLCXDL5000

tions

Default

Notes/Examples

an XML element.

Example: CFG

CF R Resets all reader parameters to factory

default values.

Example: CFR

tions

Default

Notes/Examples

Get All Firmware Parameters

FW FW G Returns all Firmware parameter values

in an XML element.

Example: FWFWG

Leuze electronic DCR 50 52

Configuration control

Code Description Command Format Op-

tions

Echo option FW CM S/P/R/GOE 0 0 Disable Raw Command Echoing

Raw Command Enable FW CM S/P/R/GOR 0 0 Disable Raw Commands

8.2.10 General reader feedback parameters

Code Description Command Format Op-

tions

Get All Reader Feedback

FB FB G Returns all Reader Feedback parameter

Parameters

De-

Notes/Examples

fault

Example: FWCMSOE0

1 Enable Raw Command Echoing

Example: FWCMSOE1

Example: FWCMSOR0

1 Enable Raw commands

Example: FWCMSOR1

Default Notes/Examples

values in an XML element.

Example: FBFBG

Good Read Indication – Frequency (Hz)

Good Read Indication – Beep Volume (percent)

Good Read Indication – Beep As IO

8.2.11 Setup default AGC mode

Code Description Command Format Op-

Get All Scene Manager Parameters

FB GR S/P/R/GFQ 2400 Good read beep output frequency.

Valid Range:

Example: FBGRSFQ2400

FB GR S/P/R/GVO 100 Valid Range: 0 to 100 percent

Example: FBGRSVO100

FB GR S/P/R/GBI 0 0 Good Read Indication is a fre-

quency output as defined by FBGRGFQ

Example: FBGRSBI0

1 Good Read Indication is an IO

signal

Example: FBGRSBI1

Default Notes/Examples

tions

SC SC G Returns all Scene Manager parameter

values in an XML element.

Example: SCSCG

Scene Manager Mode SC SP S/P/R/GMO NO NO Normal AGC Mode

Example: SCSPSMONO

BY Bypass AGC Mode

Example: SCSPSMOBY

FX Fixed AGC Mode

Example: SCSPSMOFX

Leuze electronic DCR 50 53

Configuration control

Code Description Command Format Op-

Set Imager Exposure SC SP S/P/R/GEX This defines the imager exposure in

Set Imager Gain SC SP S/P/R/GGN This defines the imager gain in Bypass

Set Imager Illumination SC SP S/P/R/GIL This defines the Imager Illumination in

Set Fixed percent (percent) SC SP S/P/R/GFP Set Fixed percent

8.2.12 Setup AGC parameters

Code Description Command Format Op-

Get All AGC Parameters AG AG G Returns all AGC parameters values in

tions

Default Notes/Examples

Bypass AGC Mode.

Example: SCSPSEX50

AGC Mode.

Example: SCSPSGN50

Bypass AGC Mode.

Example: SCSPSIL50

Valid Range: 0 to 100

Example:

De-

Notes/Examples fault

an XML element.

Example: AGAGG

Max AGC Brightness in Motion Detect (percent)

AG CR S/P/R/GMB 100 Sets the maximum brightness used wile

in Motion Detect mode.

An integer from 0 to 100 representing a

percentage of overall maximum bright-

ness.

Valid Range: 0 to 100

Example: AGCRPMB50

AGC Timing AG TM S/P/R/GHQ 360 AGC High Quality time limit

Valid Range:

Example: AGTMSHQ360

AGC Medium Quality time limit

AG TM S/P/R/GMQ 320 AGC Medium Quality time limit

Valid Range:

Example: AGTMSMQ320

AGC Low Quality time limit AG TM S/P/R/GLQ 120 AGC Low Quality time limit

Valid Range:

Example: AGTMSLQ120

Timeout multiplier (FP24_8) AG TM S/P/R/GMT 0x100 Timeout multiplier (FP24_8)

Valid Range:

Example: AGTMS

Leuze electronic DCR 50 54

8.2.13 Setup motion detection parameters

Configuration control

Code Description Command Format Op-

tions

Get All motion detect set-

MD PM G Returns all motion detection parameter

tings

Default

Notes/Examples

values in an XML element.

Example: MDPMG

Minimum Illumination MD PM S/P/R/GNI 0 0 Minimum Value

Minimum illumination is the lowest value

the AGC should use to set the illumina-

tion.

Valid Range: 0 to Maximum illumination

Example: MDPMSNI1

Maximum illumination MD PM S/P/R/GXI 6 100 Maximum Value

This is the highest value the AGC

should use to set the illumination

Valid Range: Minimum illumination to

100

Example: MDPMSXI0

Initial illumination value MD PM S/P/R/GII 1 The starting value the AGC will use to

start adjusting illumination

Valid Range: Minimum illumination to

Maximum illumination

Example: MDPMSII1

Minimum exposure time (µs) MD PM S/P/R/GNE 1 1 Minimum Value

Valid Range: 1 to Maximum exposure

time microseconds

Example: MDPMSNE100

This is the minimum time the camera

lets light into the element to take the pic-

ture in microseconds.

Maximum exposure time

MD PM S/P/R/GXE 46 20000Maximum Value

(µs)

Valid Range: Minimum exposure time

to 20000 microseconds

Example: MDPMSXE10040

Initial exposure time (µs) MD PM S/P/R/GIE 40 Valid Range: Minimum exposure time

to Maximum exposure time microsec-

onds

Example: MDPMSIE100

Minimum gain MD PM S/P/R/GNG 1 0 Minimum Value

Valid Range: 0 to Maximum Gain

Example: MDPMSNG15

Maximum gain MD PM S/P/R/GXG 47 64 Maximum Value

Gain is the amount of signal amplifica-

tion the AGC can apply to make the pic-

ture easier to read

Valid Range: Minimum Gain to 64

Example: MDPMSXG35

Leuze electronic DCR 50 55

Configuration control

Code Description Command Format Op-

tions

Default

Notes/Examples

Initial gain MD PM S/P/R/GIG 21 Valid Range: Greater than or equal to

Minimum Gain and less than or equal to

Maximum Gain.

Example: MDPMSIG15

Minimum lightest pixel value MD PM S/P/R/GNL 60 0 Minimum Value

Valid Range: 0 to Maximum lightest

pixel value

Example: MDPMSNL60

Maximum lightest pixel value

MD PM S/P/R/GXL 90 255 Maximum Value

The lightest values give the motion cal-

culations a base range for maximum

brightness before the image begins to

saturate. If you set these too high, the

algorithm will not be able to detect indi-

vidual pixels because the image is

washed out.

Valid Range: Minimum lightest pixel

value to 255

Example: MDPMSXL90

Detection pixel threshold MD PM S/P/R/GPL 15 This pixel threshold is the minimum dif-

ference value between the background

brightness and the pixel brightness for

the current pixel to be considered a

pixel.

Valid Range:

Example: MDPMS PL15

Detection total threshold MD PM S/P/R/GTL 5 Total threshold is the minimum number

of pixels detected per detection region

(left, center, right) to be considered de-

tected motion

Valid Range:

Example: MDPMS TL5

Detection blob threshold MD PM S/P/R/GBT 4 The minimum number of sequential pix-

els to be considered a group or blob

(like a bar width)

Valid Range:

Example: MDPMSBT4

Leuze electronic DCR 50 56

8.2.14 Setup camera parameters

Configuration control

Code Description Command Format Op-

Test Mode IM CP S/P/R/GTM Example: IMCPG

Minimum Exposure (percent)

Maximum Exposure (percent)

8.2.15 Command barcode format

The scan engine can receive commands directly through user input, via serial or text and via configuration command barcodes. This section describes the format of configuration command barcodes.

Header Command Trailer

<SOH>Y<GS><STX> (%01%59%1D%02)

tions

Default

Notes/Examples

IM CP S/P/R/GME 20 0 Minimum Value

Defines the minimum exposure parame-

ter of camera

Valid Range: 0 to less than or equal to

Maximum Exposure percent

Example: IMCPSME20

IM CP S/P/R/GXE 100 100 Maximum Value

Valid Range: Greater than or equal to

Minimum Exposure to 100 percent

Example: IMCPSXE100

String <ETX><EOT>

(%03%04)

Multiple commands can be included in one configuration command barcode by separating each command with <ETX>.

Example: Scanning a barcode generated from %01%59%1d%02SYAZTCG%03SYAUPOG%03%04 will output all settings of the AZTC and AUPO symbologies.

Configuration command barcodes:

• Configuration command barcodes use the QR code barcode symbology.

• Source files to generate configuration barcodes have a file extension of .CRCCS and an intermediate file extension of .CRMKR.

• If source files contain comments, the comment should start with two forward slash (//) characters.

• Source files can have only one Primary Category command per line (see chapter 8.1 "Configuration command architecture").

Examples:

• example.crccs

Contains:

// Hypothetical

// Outputs all settings of symbologies Aztec and Australian Post

// Rev 1 – 6/22/16 – Jackson – Initial Release

• example.crmkr

Contains:

%01%59%1d%02SYAZTCG%03SYAUPOG%03%04

• example.tif

Leuze electronic DCR 50 57

8.3 Motion detection

The scan engine supports motion detection, which means, the device can detect codes brought into the field of view and decode them without manually triggering a decode. Motion detect is often used with the device stationary or mounted, and targets passing in front of it. The device is set to use the minimum internal illumination possible, and works best when in bright ambient light shining from behind the device.

Motion detection parameters

The motion detection determination uses many parameters. The exposure time, gain, and illumination are camera settings used to get the best picture to determine whether or not objects have moved into the field of view. They all have minimum and maximum values which the AGC (Automatic Gain Control) uses to get that best picture.

• The exposure is how long the camera “shutter” lets light into the detector array. If it is not open long enough, all the device can see is blackness. If it is open too long, all the pixels are over-exposed, and the picture is white. By setting the minimum and maximum time, the AGC is allowed to open the shutter. We can try to force the AGC to not over- or under-expose the picture.

• The gain is the amount of amplification the AGC can use to attempt to increase the contrast of the picture between light and dark pixels. Setting the minimum too low does not produce enough contrast, and setting the maximum too high overflows the AGC. Thus, the gain range helps the AGC to optimize the contrast of the data without overflowing the calculations.

• The illumination is how much additional light the device shines on the image to increase the sensitivity of the motion detection algorithm. The more illumination, the easier it is to read the codes, however, it also makes the device more obvious in a given environment. By setting the minimum and maximum illumination, the device can be set to add much less light into an environment.

• Thresholds are used to detect motion in the following way:

• A baseline is created when motion detection starts. Thus, the device has a set of values to compare against.

• Motion detection finds pixels that vary (more or less) from the baseline by more than the pix- elThreshold threshold. Motion detection then filters out groups of pixels detected when the number of consecutive pixels is less than the blobThreshold threshold, considering it a false positive.

• When the total number of pixels not filtered out is greater than the total threshold, the device determines that a code has come into the field of view: motion detected.

• The motion detect takes three blocks ‑ a left block, a center block, and a right block ‑ from the complete image from which to detect motion. Motion in any one of the three blocks or in the combined detection from all three blocks causes motion detection.

Configuration control

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8.4 Data formatting

The scan engine supports data formatting at the decoder level. This produces fast, consistent results in a minimal amount of device space. The device supports simple prefixes and suffixes around the decoded data ‑ the simplest form of data formatting and allows full user control by using the data format string. The device performs data validations and public sector parsing by using the format parse setting in conjunction with the selected format option.

Data formatting options

The decoder allows many types of data formatting, selected by setting the data format option, and setting the appropriate configuration string.

Tab.8.3: Data format options

Value Description

0 Data formatting off

1 Simple data formatting using either prefix and suffix, or by setting the format data string di-

rectly.

2 Match String validation

3 GS1 DataBar validation (requires a license)

Configuration control

4 UDI/HIBC validation (requires a license)

5 ISO15434 validation

6 ISO15434 and ISO15418 validation

7 Simple age verification using a configuration string

8 Simple age verification without using a configuration string

9 DL Parsing using a configuration string

10 DL Parsing without using a configuration string

11 Success and Raw validation

Note: Several options require a license

Data format string

The data format string allows full user control of the data formatting. The data format string consists of a 12-digit configuration string, typically zeros, a prefix, decode data, and a suffix. Also, there may be user data injected into the string. Format string example that adds a carriage return line feed to the decoded data:

CDOPSFD”000000000000!,,/0d/0a”

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Configuration control

Prefixes and Suffixes

Prefix and suffix values define data that will be added to the read code data. The firmware adds the prefix and suffix to the beginning and end of the decoded data respectively. Adding prefix or suffix data allows you to define prefixes and/or suffixes and enable/disable them as needed.

• Define the prefix and/or suffix strings:

• Command to define a prefix: CDOPSPX"string"

• Command to define a suffix: CDOPSSX"string"

• "string" must be in quotes in the command.

• Non-printable characters are represented by a forward slash and the corresponding hexadecimal value, such as /0D for a carriage return.

Examples:

• Command to define a prefix comma: CDOPSPX","

• Command to define a prefix non-keyboard tab: CDOPSPX"/09"

• Enable the application of prefixes and suffixes:

After defining prefix and/or suffix strings, the application of prefixes and suffixes must be enabled.

Command: CDOPSFO1

Format case

The decoder will decode the code data. Setting the format case option changes the default configuration string. You can set the following data output options:

• decoded (0)

• uppercase (1)

• lowercase (2)

• bracketed hex (3)

Example: CDOPSFC1 sets the data output in upper case.

Format parse and validation configuration string

Validation and public sector parsing also require a configuration string. This string is set using the CDOPSFP”string” command.

NOTICE

Configuration strings and special character sequences are used to enable validation or public sector parsing.

Ä Public sector validations and data formatting cannot be used at the same time. Ä When changing from the public sector validations mode to the data formatting mode, you

must enter the configuration string again.

Leuze electronic DCR 50 60

9 Command protocol

Each device has a well-defined protocol for communication. The protocol can be split into two parts:

• General command/response-type communication

• Barcode decoding

9.1 General commands

Most of the time, the user will use the command protocol when communicating with the device. The figure shows the general command sequence for sending a command to the device.

Command protocol

Fig.9.1: General command sequence

• The host device sends a properly formatted command to the device.

• The device sends an acknowledgement to the host device.

• Immediately after the acknowledgement, the device sends a response to the command.

• To maintain communication integrity, the host device sends an acknowledgement back to the device.

9.1.1 Command packet

To send a command to the device, a properly formatted packet must be formed.

Tab.9.1: Command packet format

Section Bytes (or Range) Number of

Start of Frame 0x01

Packet Version 0x31 1 Indicates the version number for the packet

Packet Length 0x0013 – 0xFFFF 2 Indicates the number of bytes that are sent

0x43

0x54

Description

Bytes

3 Three bytes that indicate the beginning of a

message

format. This value is always 0x31.

after these two bytes, up to and including the CRC. This value should be 19+N.

This value is written as a 2-byte big endian value.

Destination Address 0x00000000 –

0x0FFFFFFF

4 Represents the address of the device that

you are attempting to communicate with.

0x0FFFFFFF is a special address indicating that the host device wants to broadcast to all devices on the network. Anything less than this value is a real device address.

This value is written as a 4-byte big endian value.

Leuze electronic DCR 50 61

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Source Address 0x40000000 –

0x4FFFFFFF

4 Represents the address of the host computer.

This value can be any value within the range specified and can be arbitrarily chosen.

This value is written as a 4-byte big endian value.

Protocol Type 0x01 1 Indicates the type of protocol to use when

communicating. This value is always 0x01.

Flags 0x00 Single byte representing a bit field. For send-

ing a command, this value is always 0x00.

Payload Protocol 0x02 1 Value indicating the type of packet. This

value is always 0x02 when sending a command.

Acknowledgement Number

0x0000 2 Represents the acknowledgement number.

For a command packet, this value is always 0x0000.

This value is written as a 2-byte big endian value.

Transaction Number 0x0000 – 0x7FFF 2 Represents a transaction number for a com-

mand. This value is tracked by the host device and is sent to the device as a new command. The host device increments the transaction number by 1.

Typically, this value starts at 0x0000 when the device is first powered.

This value is written as a 2-byte big endian value.

Request ID 0x8000 – 0xFFFF 2 Represents a unique request ID for this com-

mand packet. It is used in the resulting acknowledgement packet. Typically, this value is the transaction number + 0x8000.

Payload N Data payload that contains the ASCII com-

mand that the host device wants to send to the device.

CRC16 0x0000 – 0xFFFF 2 Represents a CRC16 (using the CCITT zero

algorithm) value calculated on the bytes after the packet length.

• Destination Address

• Source Address

• Protocol Type

• Flags

• Payload Protocol

• Acknowledgement Number

• Transaction Number

• Request ID

• Payload

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9.1.2 Device acknowledgement

Upon receipt of a command, the device immediately sends an acknowledgement.

Tab.9.2: Acknowledgement packet format

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

3 Three bytes that indicate the beginning of a

message

0x54

Packet Version 0x31 1 Indicates the version number for the packet

format. This value is always 0x31.

Packet Length 0xFFFF 2 For an acknowledgement packet, this value is

always 15.

Destination Address 0x40000000 –

0x4FFFFFFF

4 Represents the address of the host computer.

This value is written as a 4-byte big endian value.

Source Address 0x00000000 –

0x0FFFFFFE

4 Represents the address of the device that

you are attempting to communicate with.

This value is written as a 4-byte big endian value.

Protocol Type 0x01 1 Indicates the type of protocol to use when

communicating. This value is always 0x01.

Flags 0x00 Single byte representing a bit field. For send-

ing a command, this value is always 0x00.

Payload Protocol 0x00 1 Value indicating the type of packet. This

value is always 0x00 when sending an acknowledgement.

Acknowledgement Number

0x0000 – 0xFFFF 2 Represents the acknowledgement number.

This value is written as a 2-byte big endian value.

CRC16 0x0000 – 0xFFFF 2 Represents a CRC16 (using the CCITT zero

algorithm) value calculated on the bytes after the packet length.

• Destination Address

• Source Address

• Protocol Type

• Flags

• Payload Protocol

• Acknowledgement Number

NOTICE

The destination address and the source address now have the source address and destination address values from the previous command packet.

Ä If a broadcast address is set in the destination address, it is replaced with the address of the

device in the corresponding acknowledgement packet.

Ä You must use this address in any following sequences. Without using it, the device will not

respond.

Leuze electronic DCR 50 63

NOTICE

The acknowledgement number in the device acknowledgement packet is the same as the transaction number in the previous command packet.

9.1.3 Response packet

After the acknowledgement is sent, the device sends a response to the command. The response packet has the same format as the command packet (see chapter 9.1.1 "Command packet") with the following differences:

• The payload part of the response packet contains the response from the device.

• The transaction number and the request ID are swapped in the response packet (as compared to the command packet).

• The destination address and the source address are swapped in the response packet (as compared to the command packet).

The response is formatted as XML message. Each command description shows an example of a response from each command when getting a value for a setting.

9.1.4 Host acknowledgement

After reception of the response packet, the host device must send an acknowledgement packet to the device. This host acknowledgement has the same format as the device acknowledgement (see chapter 9.1.2 "Device acknowledgement") with the following differences:

• The destination address and the source address are swapped in the host acknowledgement packet (as compared to the device acknowledgement packet).

• The acknowledgement number in the host acknowledgement packet is the same as the transaction number in the response packet.

Command protocol

9.1.5 Example 1: Enabling Code 93 upon startup

In this example, the host device has just powered the device and is ready to send its first command: make sure Code 93 is enabled.

Assumptions:

• The host device does not know what the address of the device is and thus, will send out a broadcast.

• Address of the host device: 0x40000000

• Address of the device: 0x01234567

Tab.9.3: Command packet for example 1

Section Bytes (or Range) Number of

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x001D 2 19 + 10 = 29 = 0x001D

Destination Address 0x0FFFFFFF 4 Broadcasting to every listening device.

Source Address 0x40000000 4

Protocol Type 0x01 1

Description

Bytes

Flags 0x00

Payload Protocol 0x02 1

Acknowledgement Num-

0x0000 2

ber

Leuze electronic DCR 50 64

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Transaction Number 0x0000 2 Starting with zero for the transaction number.

Request ID 0x8000 2 Following the convention, we add 0x8000 to

the transaction number.

Payload 10 The bytes represent the ASCII command

SYCO93PEN1.

CRC16 0x4501 2

Upon reception of the command, the device sends an acknowledgement.

Tab.9.4: Device acknowledgement for example 1

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x000F 2

Destination Address 0x40000000 4

Source Address 0x01234567 4 The device returns its unique address.

Protocol Type 0x01 1

Flags 0x01

Payload Protocol 0x00 1

Acknowledgement Num-

0x0000 2

ber

CRC16 0xED19 2

After the acknowledgement, the device sends a response packet to the initial command packet.

Tab.9.5: Response packet for example 1

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x003A 2 19 + 39 = 58 = 0x003A

Destination Address 0x40000000 4

Source Address 0x01234567 4

Protocol Type 0x01 1

Flags 0x00

Payload Protocol 0x02 1

Acknowledgement Num-

0x0000 2

ber

Transaction Number 0x8000 2

Leuze electronic DCR 50 65

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Request ID 0x0000 2 Following the convention, we add 0x8000 to

the transaction number.

Payload 39 Returns

CRC16 0xDA64 2

In accordance with the protocol, the host device sends an acknowledgement packet before sending the next command.

Tab.9.6: Host acknowledgement for example 1

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x000F 2

Destination Address 0x01234567 4

Source Address 0x40000000 4

Protocol Type 0x01 1

Flags 0x01

Payload Protocol 0x00 1

Acknowledgement Num-

0x8000 2

ber

CRC16 0x2CCE 2

9.1.6 Example 2: Getting information about a device after startup

In this example, the host device has been communicating with the device for some time and is ready to send another command: enable Code 128 and set it as a default value.

Assumptions:

• Address of the host device: 0x40000000

• Address of the device: 0x01234567

Tab.9.7: Command packet for example 2

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x001D 2 19 + 10 = 29 = 0x001D

Destination Address 0x01234567 4

Source Address 0x40000000 4

Protocol Type 0x01 1

Leuze electronic DCR 50 66

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Flags 0x00

Payload Protocol 0x02 1

Acknowledgement Num-

0x0000 2

ber

Transaction Number 0x0001 2

Request ID 0x8000 2 Following the convention, we add 0x8000 to

the transaction number.

Payload 10 The bytes represent the ASCII command

SYC128PEN1.

CRC16 0x4501 2

Upon reception of the command, the device sends an acknowledgement.

Tab.9.8: Device acknowledgement for example 2

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x000F 2

Destination Address 0x40000000 4

Source Address 0x01234567 4 The device returns its unique address.

Protocol Type 0x01 1

Flags 0x01

Payload Protocol 0x00 1

Acknowledgement Num-

0x0001 2

ber

CRC16 0xFD38 2

After the acknowledgement, the device sends a response packet to the initial command packet.

Tab.9.9: Response packet for example 2

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x003A 2 19 + 39 = 58 = 0x003A

Destination Address 0x40000000 4

Source Address 0x01234567 4

Protocol Type 0x01 1

Flags 0x00

Payload Protocol 0x02 1

Leuze electronic DCR 50 67

Command protocol

Section Bytes (or Range) Number of

Description

Bytes

Acknowledgement Num-

0x0000 2

ber

Transaction Number 0x8001 2

Request ID 0x0001 2

Payload 39 Returns

CRC16 0xF213 2

In accordance with the protocol, the host device sends an acknowledgement packet before sending the next command.

Tab.9.10: Host acknowledgement for example 2

Section Bytes (or Range) Number of

Description

Bytes

Start of Frame 0x01

0x43

0x54

Packet Version 0x31 1

Packet Length 0x000F 2

Destination Address 0x01234567 4

Source Address 0x40000000 4

Protocol Type 0x01 1

Flags 0x01

Payload Protocol 0x00 1

Acknowledgement Num-

0x8001 2

ber

CRC16 0x3CEF 2

Leuze electronic DCR 50 68

9.2 Barcode decoding

The figure shows the command sequence for activating the scan engine for decoding ‑ for a single scan or for continuous scanning.

Command protocol

Fig.9.2: Command sequence for decoding

• The host device sends a start decoding command to the device ‑ for single decode or for continuous decoding

• The device sends the corresponding acknowledgement back to the host device.

• The barcode decoder takes over and sends the barcode result to the host device. The barcode result is sent in clear ASCII text, that is, without the framing protocol.

• The host device sends a stop decoding command to the device.

• The device sends the corresponding acknowledgement back to the host device.

Leuze electronic DCR 50 69

10 Care, maintenance and disposal

Usually, the device does not require any maintenance by the operator.

10.1 Cleaning

Clean the glass window of the device with a soft cloth before mounting.

NOTICE

Do not use aggressive cleaning agents!

Ä Do not use aggressive cleaning agents such as thinner or acetone for cleaning the device.

10.2 Servicing

Repairs to the device must only be carried out by the manufacturer.

Ä For repairs, contact your responsible Leuzeelectronic subsidiary or Leuzeelectronic customer service

(see chapter 11 "Service and support").

10.3 Disposing

Ä For disposal observe the applicable national regulations regarding electronic components.

Care, maintenance and disposal

Leuze electronic DCR 50 70

11 Service and support

24-hour on-call service at:

+49 (0) 7021 573-0

Service hotline:

+49 (0) 7021 573-123

Monday to Friday 8.00a.m. to 5.00p.m. (UTC+1)

E-mail:

service.identify@leuze.de

Return address for repairs:

Service center

Leuze electronic GmbH + Co. KG

In der Braike 1

D-73277 Owen / Germany

Service and support

11.1 What to do should servicing be required?

NOTICE

Please use this chapter as a master copy should servicing be required!

Ä Enter the contact information and fax the form together with your service order to the fax

number given below.

Customer data (please complete)

Device type:

Serial number:

Firmware:

Display messages:

Status of LEDs:

Error description:

Company:

Contact person/department:

Phone (direct dial):

Fax:

Street/No:

ZIP code/City:

Country:

Leuze Service fax number:

+49 (0) 7021 573-199

Leuze electronic DCR 50 71

12 Technical data

12.1 General specifications

Tab.12.1: Optics

Optical system CMOS Imager, Rolling Shutter (1280x960)

Reading area 30mm…425mm

Contrast 1D code: minimum 15%

Resolution 1D code: m=0.190mm (7.5mil), distance dependent

Technical data

2D code: minimum 15%

2D code: m=0.127mm (5mil), distance dependent

Light sources

• Illumination

• Alignment LEDs (Aimer)

Tab.12.2: Code specifications

integrated LEDs

• visible red light

• visible blue light

Code type: 1D BC412, Codabar, Code11, Code32, Code39, Code93, Code128,

IATA2of5, Interleaved2of5, GS1DataBar, Hong Kong2of5, Matrix2of5, MSIPlessey, NEC2of5, Pharmacode, Plessey, Straight2of5, Telepen, Trioptic, UPC/EAN/JAN

Code type: Stacked 1D CodablockF, Code49, GS1Composite (CC-A/CC-B/CC-C), MicroPDF,

PDF417

Code type: 2D AztecCode, DataMatrix, HanXin, MicroQRCode, QRCode

Postal Codes AustralianPost, CanadaPost, IntelligentMail, JapanPost, KIXCode, Ko-

reaPost, Planet, Postnet, UKRoyalMail, UPUIDTags

Tab.12.3: Interfaces

Interface type RS232

Baud rate 9600…115200baud, configurable

Data formats configurable

Trigger • Switching input

• active: 0V

• inactive: +5V or not connected

• Presentation Mode (Motion Control)

Switching output NPN transistor output, max. 20mA, Good Read

Buzzer NPN transistor output, modulated, Good Read

Tab.12.4: Electrical equipment

Operating voltage 4.75…5.25VDC

Current consumption Duration reading: typ. 350mA

Inactive illumination: typ. 75mA

Leuze electronic DCR 50 72

Tab.12.5: Mechanical data

Connection type Molex Inc. (53261-0671), 6-pin

Weight 10g

Dimensions (H x W x D) 12.70x31.60x27.53mm

Fastening 4x M1.8 self-tapping screws, 2mm deep

Tab.12.6: Environmental data

Ambient temp. (operation/storage) 0°C…+50°C/-20°C…+60°C

Air humidity 10%…90% rel. humidity, non-condensing

Ambient light max. 100000Lux

Electromagnetic compatibility EN55022:2006 ClassB

Conformity CE, FCC, RoHS

12.2 Reading fields

Technical data

IEC62471:2006

NOTICE

Please note that the actual reading fields are also influenced by factors such as labeling material, printing quality, scanning angle, printing contrast etc., and may thus deviate from the reading fields specified here. The origin of the read distance always refers to the front edge of the housing of the beam exit.

Leuze electronic DCR 50 73

Technical data

39.4°

51.0°

130 mm

50 (2.0) 245 (9.6)

35 (1.4) 225 (8.9)

40 (1.5) 370 (14.6)

85 (3.3) 155 (6.1)

65 (2.6) 175 (6.9)

75 (3.0) 90 (3.5)

70 (2.8) 135 (5.3)

50 (2.0) 205 (8.1)

30 (1.2) 425 (16.7)

1 Reading field – side view

2 Reading field – top view

Fig.12.1: Reading field

Tab.12.7: Reading fields

Code type Resolution m Typical reading distance [mm] ([inch])

Code 39 0.190mm (7.5mil)

GS1Data bar 0.267mm (10.5mil)

UPC 0.330mm (13mil)

PDF417 0.147mm (5.8mil)

PDF417 0.170mm (6.7mil)

Data Matrix 0.127mm (5mil)

Data Matrix 0.160mm (6.3mil)

Data Matrix 0.254mm (10mil)

Data Matrix 0.528mm (20.8mil)

Leuze electronic DCR 50 74

12.3 Dimensioned drawings

M1,8 x max.2,5mm

6,4

20,4

2,5

31,6

21,4

12,7

0,4

2,8

27,5

Technical data

A 2 integrated LEDs for illumination (red light)

B 1 integrated target LED (blue light)

C Center of optical axis

D Connector Molex (53261-0671), 6-pin

Fig.12.2: DCR50 dimensioned drawing

all dimensions in mm

NOTICE

It is advisable to use a transparent, double-sided anti-reflective coated material when installing the scan engine behind a pane of glass. Recommended pane thickness: 1mm; optics as flush as possible with the glass.

Leuze electronic DCR 50 75

13 Order guide and accessories

13.1 Type overview

Tab.13.1: Part numbers

Part no. Part designation Description

50135000 DCR50M2/R2 CMOS imager scan engine for 1D and 2D codes,

13.2 Accessories

Tab.13.2: Accessories

Part no. Part designation Description

50128204 MA-CR Modular adapter unit to interface device-to-host to

Order guide and accessories

RS232 interface, Molex53261-0671 connection, 6pin

connect to PC for evaluation

SensorStudio configuration software

Download at www.leuze.com

see chapter 6.2.1 "Downloading configuration software"

SensorStudio designed according to the FDT/DTM concept. Contains: communication DTM and device DTM

Leuze electronic DCR 50 76

14 EC Declaration of Conformity

The scan engines of the DCR50 series have been developed and manufactured in accordance with the applicable European standards and directives.

EC Declaration of Conformity

Leuze electronic DCR 50 77

15 Appendix

15.1 Bar code samples

Module 0.3

Fig.15.1: Code type 01: Interleaved 2 of 5

Module 0.3

Fig.15.2: Code type 02: Code 39

Appendix

Module 0.3

Fig.15.3: Code type 11: Codabar

Module 0.3

Fig.15.4: Code 128

Module 0.3

Fig.15.5: Code type 08: EAN 128

SC 2

Fig.15.6: Code type 06: UPC-A

Leuze electronic DCR 50 78

SC 3

Fig.15.7: Code type 07: EAN 8

Appendix

Fig.15.8: Example codes

15.2 Configuration via configuration codes

The device can also be configured using configuration codes. The device parameters in the device are set and permanently saved after reading this code.

Leuze electronic DCR 50 79

Appendix

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

Motion Detect Off - Default Motion Detect Always On Enable Cell phone reading

enhancement

General Reading Mode

Settings

Disable Cell phone reading

enhancement. - Default

Set motion detect maximum

brightness to 25%

Set motion detect maximum

brightness to 50%

Set motion detect maximum

brightness to 75%

Set motion detect maximum

brightness to 100% - Default

Disable Data Formatting -

Default

Prefix Comma

Data Formatting

(Prefix/Suffix) Settings

Prefix Space Prefix Tab (USB Keyboard Mode

Only)

Prefix Tab (RS232 Mode Only) Erase Prefix Data

Suffix Comma Suffix Space Suffix Enter (USB Keyboard

Mode Only) - Default

Suffix Tab (USB Keyboard Mode

Only)

Fig.15.9: DCR50 Configuration Guide

Leuze electronic DCR 50 80

Appendix

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

Suffix Tab (RS232 Mode Only) Suffix Carriage Return (RS232

Mode Only)

Suffix Carriage Return Line

Feed (RS232 Mode Only) -

Default

Suffix Line Feed (RS232 Mode

Only)

Erase Suffix Data Convert Barcode Data to

Uppercase

Convert Barcode Data to

Lowercase

Intentionally Blank

Australian Post On Australian Post Off - Default Aztec On - Default

Symbology Settings

Aztec Off Aztec Inverse & Normal On Aztec Inverse Off - Default BC412 On

BC412 Off - Default Canada Post On Canada Post Off - Default Codabar On - Default

Fig.15.10: DCR50 Configuration Guide

Leuze electronic DCR 50 81

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Codabar Off Codabar Checksum On Codabar Checksum Off -

Default

Remove Codabar Start and

Stop Delimiters

Keep Codabar Start and Stop

Delimiters - Default

Codablock A On Codablock A Off - Default Codablock F On

Codablock F Off - Default Code 11 Checksum Stripped

from Result On - Default

Code 11 Checksum Stripped

from Result Off - Default

Code 11 On

Code 11 Off - Default Code 11 One Digit Checksum Code 11 Two Digit Checksum -

Default

Code 128 On - Default

Code 128 Off Code 32 (Italian Pharmacode)OnCode 32 (Italian Pharmacode)

Off - Default

Code 39 On - Default

Appendix

Fig.15.11: DCR50 Configuration Guide

Leuze electronic DCR 50 82

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Code 39 Off Code 39 Checksum On Code 39 Checksum Off -

Default

Code 39 Checksum Stripped

from Result On - Default

Code 39 Checksum Stripped

from Result Off - Default

Composite On Composite Off - Default Data Matrix On - Default

Data Matrix Off Data Matrix Mirror On Data Matrix Mirror Off -

Default

Data Matrix Inverse and

Normal On - Default

Data Matrix Inverse Off Data Matrix Rectangular On -

Default

Data Matrix Rectangular Off Data Matrix Rectangular

Extended On

Data Matrix Rectangular

Extended Off - Default

Grid Matrix On Grid Matrix Off - Default GS1 DataBar On - Default

Appendix

Fig.15.12: DCR50 Configuration Guide

Leuze electronic DCR 50 83

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

GS1 DataBar Off Han Xin On Han Xin Off - Default Han Xin Mirror On

Han Xin Mirror Off - Default Han Xin Inverse On Han Xin Inverse Off - Default Hong Kong 2 of 5 On

Hong Kong 2 of 5 Off -

Default

Interleaved 2 of 5 On -

Default

Interleaved 2 of 5 Off Interleaved 2 of 5 Checksum

Interleaved 2 of 5 Checksum

Off - Default

Interleaved 2 of 5 Checksum

Stripped from Result On

Interleaved 2 of 5 Checksum

Stripped from Result Off -

Default

Japan Post On

Japan Post Off - Default KIX (Dutch Post) On KIX (Dutch Post) Off - Default Korean Post On

Appendix

Fig.15.13: DCR50 Configuration Guide

Leuze electronic DCR 50 84

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Korean Post Off - Default Matrix 2 of 5 On Matrix 2 of 5 Off - Default Maxicode On

Maxicode Off - Default Micro PDF417 On Micro PDF417 Off - Default Micro QR Code On

Micro QR Code Off - Default Mode 1 QR Code On Mode 1 QR Code Off - Default MSI Plessey Checksum On

MSI Plessey Checksum Off -

Default

MSI Plessey Checksum Stripped

from Result On

MSI Plessey Checksum Stripped

from Result Off - Default

MSI Plessey Checksum Must

Be Mod 10/11

MSI Plessey Checksum Must

Be Mod 10/10

MSI Plessey On MSI Plessey Off - Default NEC 2 of 5 Checksum On -

Default

Appendix

Fig.15.14: DCR50 Configuration Guide

Leuze electronic DCR 50 85

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

NEC 2 of 5 Checksum Off NEC 2 of 5 On NEC 2 of 5 Off - Default PDF417 On - Default

PDF417 Off Pharmacode On Pharmacode Off - Default Pharmacode Normal Barcode

Decoding (Left to Right) -

Default

Pharmacode Reverse Barcode

Decoding (Right to Left)

QR Code On - Default QR Code Off QR Code Standard Only -

Default

QR Code Mirror On QR Code Mirror Off - Default QR Code Inverse and Normal

QR Code Inverse Only

Telepen On Telepen Off - Default Output Telepen as Numeric -

Default

Output Telepen as ASCII

Appendix

Fig.15.15: DCR50 Configuration Guide

Leuze electronic DCR 50 86

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Trioptic On Trioptic Off - Default Reverse Trioptic On Reverse Trioptic Off - Default

Keep Trioptic Start and Stop

Delimiters

Remove Trioptic Start and Stop

Delimiters - Default

Straight 2 of 5 On Straight 2 of 5 Off - Default

UK Royal Mail On UK Royal Mail Off - Default UPC/EAN On - Default UPC/EAN Off

UPC Supplemental On UPC Supplemental Off - Default UPC E Expansion On UPC E Expansion Off - Default

Convert UPC-A to EAN-13 Do Not Convert UPC-A to

EAN-13 - Default

Transmit UPC-A Check Digit Do Not Transmit UPC-A Check

Digit - Default

Appendix

Fig.15.16: DCR50 Configuration Guide

Leuze electronic DCR 50 87

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Transmit UPC-A Number System Do Not Transmit UPC-A Number

System - Default

Do Not Transmit UPC-E Check

Digit - Default

Transmit UPC-E Number System

Do Not Transmit UPC-E Number

System - Default

Convert EAN-8 to EAN-13 Do Not Convert EAN-8 to

EAN-13 - Default

Transmit UPC-E Check Digit

Convert Bookland EAN-13 to

ISBN

Do Not Convert Bookland EAN-13 to ISBN - Default

Convert Bookland EAN-13 to

ISSN

Do Not Convert Bookland EAN-13 to ISSN - Default

Transmit EAN-8 Check Digit Do Not Transmit EAN-8 Check

Digit - Default

Transmit EAN-13 Check Digit Do Not Transmit EAN-13 Check

Digit - Default

UPU ID Tags On UPU ID Tags Off - Default USPS Intelligent Mail On USPS Intelligent Mail Off -

Default

Appendix

Fig.15.17: DCR50 Configuration Guide

Leuze electronic DCR 50 88

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

USPS Planet On USPS Planet Off - Default USPS Postnet On USPS Postnet Off - Default

List Installed Languages Get Active Language Keyboard Support: US English

Keyboard Mapping for Windows

- Default

Keyboard Language

Settings

Keyboard Support: English

Keyboard Mapping for Apple

Keyboard Support: French-

Belgian Keyboard Mapping for

Windows

Keyboard Support: French

Keyboard Mapping for Windows

Keyboard Support: French

Keyboard Mapping for Apple

Keyboard Support: German

Keyboard Mapping for Apple

Keyboard Support: German

Keyboard Mapping for Windows

Keyboard Support: German-Swiss

Keyboard Mapping for Apple

Keyboard Support: German-

Swiss Keyboard Mapping for

Windows

Keyboard Support: Italian

Keyboard Mapping for Apple

Keyboard Support: Japanese

Keyboard Mapping for Windows

Keyboard Support: Russian

Keyboard Mapping for Windows

Keyboard Support: Spanish-Latin American Keyboard Mapping for

Windows

Appendix

Fig.15.18: DCR50 Configuration Guide

Leuze electronic DCR 50 89

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Keyboard Support: Spanish

Keyboard Mapping for Windows

Keyboard Support: Spanish

Keyboard Mapping for Apple

Keyboard Support: UK English

Keyboard Mapping for Windows

Keyboard Support: US

International (Universal)

Keyboard Mapping for Windows

Data Encoding: Raw ASCII to

Keyboard XML File Lookup -

Default

Data Encoding: UTF8 to

Unicode Codepoint - Alt

Sequences for Windows

USB Downloader Mode

USB Settings

USB Keyboard Mode - Default Enable HID POS Mode Enable CDC VCOM Mode Enable USB VCOM mode

Reset to RS232 Factory

Defaults

RS232 Interface - 1200 Baud

Rate

RS232 Interface - 2400 Baud

Rate

RS232 Settings

RS232 Interface - 4800 Baud

Rate

RS232 Interface - 9600 Baud

Rate

RS232 Interface - 19200 Baud

Rate

RS232 Interface - 38400 Baud

Rate

Appendix

Fig.15.19: DCR50 Configuration Guide

Leuze electronic DCR 50 90

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

RS232 Interface - 57600 Baud

Rate

RS232 Interface - 115200 Baud

Rate - Default

RS232 Interface - 7 Data Bits RS232 Interface - 8 Data Bits

- Default

RS232 Interface - 1 Stop Bit -

Default

RS232 Interface - 2 Stop Bits RS232 Interface - Even Parity RS232 Interface - No Parity

RS232 Interface - Odd Parity RS232 Interface Flow ControlOnRS232 Interface Flow Control

Off - Default

Enable Packet Mode

Enable Raw Mode - Default Enable RS-232 Serial mode -

Default

Disable Duplicate Scan Delay -

Default

Scan Delay Settings

Set Duplicate Scan delay to 1

Second

Set Duplicate Scan delay to 2

Seconds

Set Duplicate Scan delay to 3

Seconds

Set Duplicate Scan delay to 5

Seconds

Appendix

Fig.15.20: DCR50 Configuration Guide

Leuze electronic DCR 50 91

A1 A4A2 A3

B1 B2 B3

C1 C4C2 C3

D1 D4D2 D3

E1 E4E2 E3

CR8200 Configuration Guide

Set Duplicate Scan delay to 10

Seconds

Set Duplicate Scan delay to 30

Seconds

Set Duplicate Scan delay to 1

hour

Set Duplicate Scan delay to 1

day

Output Reader Configuration Get Reader Parameters Intentionally Blank

Reader/Modem

Command Settings

Reset to Factory Defaults Intentionally Blank Intentionally Blank

Reset, Clear and Save

Reader Settings

Intentionally Blank Intentionally Blank Intentionally Blank Intentionally Blank

Appendix

Fig.15.21: DCR50 Configuration Guide

Leuze electronic DCR 50 92

Leuze DCR 50 Operating Instructions

Specifications and Main Features

Frequently Asked Questions

User Manual

Table of contents

1 About this document

1.1 Used symbols and signal words

2 Safety

2.1 Intended use

2.2 Foreseeable misuse

2.3 Competent persons

2.4 Disclaimer

3 Device description

3.1 Device overview

3.1.2 Stand-alone operation

3.2 Performance characteristics

3.3 Device construction

3.4 Connection technology

4 Mounting

4.1 Selecting a mounting location

5 Electrical connection

5.1 Voltage supply

5.2 Pin assignment

5.3 Switching input / switching output

5.3.1 Switching input

5.3.2 Switching output

5.4 PC or terminal connection

5.5 Cable lengths and shielding

6.1 System requirements

6.2.1 Downloading configuration software

6.2.3 Installing the communication DTM and the device DTM

6.2.4 Connecting device to PC

6.5 Configuration parameters

6.5.1 Control tab

6.5.2 Decode tab

6.5.3 Communications tab

6.5.4 Diagnosis / Terminal

7 Starting up the device - Configuration

7.1 Measures to be performed prior to the initial commissioning

7.2 Starting the device

7.2.1 Interface

7.2.2 Online commands

7.2.3 Problems

7.3 Setting the communication parameters

8 Configuration control

8.1 Configuration command architecture

8.2 Supported commands

8.2.1 Symbology

8.2.2 Communications

8.2.3 USB and HID

8.2.4 Packet and protocol parameters

8.2.5 Decoder and general decoding parameters

8.2.6 Power mode parameters

8.2.7 General reader information

8.2.8 Reader configuration

8.2.9 General firmware operation

8.3 Motion detection

8.4 Data formatting

9 Command protocol

9.1 General commands

9.1.1 Command packet

9.1.2 Device acknowledgement

9.1.3 Response packet

9.1.4 Host acknowledgement

9.1.5 Example 1: Enabling Code 93 upon startup

9.1.6 Example 2: Getting information about a device after startup

9.2 Barcode decoding

10 Care, maintenance and disposal

10.1 Cleaning

10.2 Servicing

10.3 Disposing

11 Service and support

11.1 What to do should servicing be required?

12 Technical data

12.1 General specifications

12.2 Reading fields

12.3 Dimensioned drawings

13 Order guide and accessories

13.1 Type overview

13.2 Accessories