Leuze ODS9L2.8/LFH-450-M12 Optischer Abstandssensor Operating Manual

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Leuze ODS9L2.8/LFH-450-M12 Optischer Abstandssensor Operating Manual | Manualzz

Original operating instructions

ODS 9

Laser distance sensor

We reserve the right to make technical changes

EN • 2021-11-18 • 50138237

© 2021

Leuze electronic GmbH + Co. KG

In der Braike 1

73277 Owen / Germany

Phone: +49 7021 573-0

Fax: +49 7021 573-199 www.leuze.com

[email protected]

Leuze electronic GmbH + Co. KG ODS 9 2

Table of contents

1 About this document ............................................................................................ 6

1.1

Used symbols and signal words .............................................................................................  6

1.2

Important terms.......................................................................................................................  8

2 Safety ..................................................................................................................... 9

2.1

Intended use ...........................................................................................................................  9

2.2

Foreseeable misuse ...............................................................................................................  9

2.3

Competent persons ..............................................................................................................  10

2.4

Disclaimer .............................................................................................................................  10

2.5

Laser safety notices ..............................................................................................................  11

3 Device description .............................................................................................. 14

3.1

Device overview....................................................................................................................  14

3.1.1

General information ........................................................................................................... 14

3.1.2

Operating principle ............................................................................................................ 15

3.1.3

Performance characteristics .............................................................................................. 15

3.1.4

Accessories ....................................................................................................................... 15

3.2

Connection technology .........................................................................................................  16

3.3

Indicators and operational controls .......................................................................................  16

3.3.1

LED indicators ................................................................................................................... 16

3.3.2

Control buttons .................................................................................................................. 16

3.3.3

Display............................................................................................................................... 17

3.3.4

Meaning of the display icons ............................................................................................. 19

3.4

Configuration / menu structure .............................................................................................  19

3.4.1

Input menu ........................................................................................................................ 20

3.4.2

Output_SSC1 menu .......................................................................................................... 20

3.4.3

Output_SSC2 menu .......................................................................................................... 21

3.4.4

Analog_Output menu ........................................................................................................ 23

3.4.5

Serial Menu ....................................................................................................................... 23

3.4.6

Application menu ............................................................................................................... 25

3.4.7

Settings menu ................................................................................................................... 30

3.4.8

Ending configuration.......................................................................................................... 31

3.5

Configuration example ..........................................................................................................  31

4 Applications ........................................................................................................ 34

4.1

Wood width measurement ....................................................................................................  34

4.2

Assembly inspection .............................................................................................................  35

5 Mounting.............................................................................................................. 36

5.1

Mounting with mounting system ...........................................................................................  36

6 Electrical connection.......................................................................................... 37

6.1

Overview ...............................................................................................................................  37

6.2

Pin assignment .....................................................................................................................  37

7 Starting up the device ........................................................................................ 40

7.1

Teaching and configuring output functions ...........................................................................  40

7.1.1

Setting the analog output .................................................................................................. 40

7.1.2

Setting the switching outputs............................................................................................. 41

7.1.3

Teach-in / teach................................................................................................................. 46

7.1.4

Teaching the output functions via the multifunction input..................................................  46

7.1.5

Teaching the output functions via the IO-Link system commands ....................................  48

7.2

Setting measurement value processing and filtering ............................................................  50

7.3

Reset to factory settings .......................................................................................................  50

Leuze electronic GmbH + Co. KG ODS 9 3

Table of contents

7.4

IO-Link interface ...................................................................................................................  50

7.4.1

Overview ........................................................................................................................... 50

7.4.2

IO-Link process data ......................................................................................................... 52

7.5

Serial interface ......................................................................................................................  53

7.5.1

Measurement value output for various transmission types ...............................................  53

7.5.2

Commands for remote control operation ...........................................................................  55

7.5.3

Termination of data lines ................................................................................................... 57

7.5.4

Operation on the fieldbus and Ethernet............................................................................. 58

8 Connecting to a PC – Sensor Studio ................................................................ 59

8.1

System requirements ............................................................................................................  60

8.2

Installing Sensor Studio configuration software and IO-Link USB master ............................  60

8.2.1

Downloading configuration software ................................................................................. 60

8.2.2

Installing the Sensor Studio FDT frame ............................................................................  61

8.2.3

Installing drivers for IO-Link USB master ..........................................................................  61

8.2.4

Connecting IO-Link USB master to the PC .......................................................................  62

8.2.5

Connecting IO-Link USB master to the sensor .................................................................  62

8.2.6

Installing the DTM and IODD ............................................................................................ 63

8.2.7

Importing device descriptions ............................................................................................ 63

8.3

Starting the Sensor Studio configuration software................................................................  63

8.4

Short description of the Sensor Studio configuration software .............................................  65

8.4.1

FDT frame menu ............................................................................................................... 66

8.4.2

IDENTIFICATION function ................................................................................................ 66

8.4.3

CONFIGURATION function............................................................................................... 67

8.4.4

PROCESS function ........................................................................................................... 69

8.4.5

DIAGNOSIS function ......................................................................................................... 71

8.4.6

Exiting Sensor Studio ........................................................................................................ 71

9 Troubleshooting.................................................................................................. 72

9.1

What to do in case of failure? ...............................................................................................  72

9.2

LED indicators ......................................................................................................................  72

9.3

Indicators in the display ........................................................................................................  72

10 Care, maintenance and disposal ....................................................................... 73

10.1 Cleaning................................................................................................................................  73

10.2 Servicing ...............................................................................................................................  73

10.3 Disposing ..............................................................................................................................  73

11 Service and support ........................................................................................... 74

12 Technical data ..................................................................................................... 75

12.1 Measurement data ................................................................................................................  75

12.2 Optical data...........................................................................................................................  77

12.3 Indicators and operational controls .......................................................................................  77

12.4 Electrical data .......................................................................................................................  78

12.5 Mechanical data....................................................................................................................  78

12.6 Environmental data ...............................................................................................................  78

12.7 Dimensioned drawings .........................................................................................................  79

12.8 Dimensioned drawings: Accessories ....................................................................................  80

Leuze electronic GmbH + Co. KG ODS 9 4

Table of contents

13 Order guide and accessories............................................................................. 81

13.1 Type overview ODS 9 ...........................................................................................................  81

13.2 Accessories – cables and connectors ..................................................................................  82

13.3 Other accessories .................................................................................................................  83

13.3.1

Accessories – PC connection............................................................................................ 83

13.3.2

Accessories – IO-Link master ........................................................................................... 84

14 EC Declaration of Conformity............................................................................ 85

Leuze electronic GmbH + Co. KG ODS 9 5

About this document

1 About this document

1.1

Used symbols and signal words

Tab. 1.1: Warning symbols and signal words

Symbol indicating dangers to persons

Symbol indicating dangers from harmful laser radiation

NOTE

CAUTION

Signal word for property damage

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

Signal word for minor injuries

Indicates dangers that may result in minor injury 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.

Symbol for action steps

Text passages with this symbol instruct you to perform actions.

Symbol for action results

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

Leuze electronic GmbH + Co. KG ODS 9 6

About this document

Tab. 1.3:

BG

DS

DSUpload

DTM

FDT

FE

IODD

Max.

Min.

NEC

ODS

OLED

PELV

Pt

SIO

SP

SSC

SSP

UL

Terms and abbreviations

B ack g round

Mode in which switching outputs react/switch when an object enters a set distance

D ata S torage

Data memory of the connected IO-Link master

D ata S torage Upload

Upload to the data memory of the connected IO-Link master

D evice T ype M anager

Software device manager of the sensor

F ield D evice T ool

Software frame for management of device managers (DTM)

F unctional e arth

IO D evice D escription

File with information on process data and device parameters

Max imum

Min imum

N ational E lectric C ode

O ptical D istance S ensor

Optical distance sensor

O rganic L ight E mitting D iode

Organic LED

P rotective E xtra L ow V oltage

Protective extra low voltage with reliable disconnection

P oin t

Switching point

S tandard IO mode

Signal transfer without IO-Link

S et p oint

Position at which the switching point is set

S witching S ignal C hannel

Abbreviation for the switching outputs acc. to Smart Sensor Profile

S mart S ensor P rofile

Profile acc. to IO-Link standard

U nderwriters L aboratories

Leuze electronic GmbH + Co. KG ODS 9 7

About this document

1.2

Important terms

Tab. 1.4: Important terms

Response time

(Response time)

Resolution

Warmup time

Output resolution

Also integration time or measurement time. Maximum length of time from the occurrence of an erratic change in distance to the steady state of the measurement value.

The response time depends on the set average calculation. Although the average calculation increases the response time, it also improves reproducibility.

Smallest representable change in measurement value, distance and speed.

Time the sensor needs in order to reach the operating temperature. An optimal measurement is only possible after the end of the warmup time.

The warmup time is approximately 20 minutes.

The output resolution describes how the measurement values are presented on the display and digital interfaces.

Time interval of measurement value updating at the interface.

Output time

(Output time)

Readiness delay The delay before start-up indicates the point in time when the first valid measurement can be obtained after switching on.

Data memory of the connected IO-Link master.

Data storage

IO-Link data storage

DSUpload

Accuracy

Light switching

Dark switching

Diffuse reflection

Reproducibility

Triangulation measurement principle

Data Storage Upload.

Upload to the data memory of the connected IO-Link master.

Maximum expected deviation of the measurement value between the determined and real distance value within the specified measurement range.

The behavior of the switching output if an object is within the taught/configured switching distance.

• Light switching: switching output active (high)

• Dark switching: switching output not active (low)

Return and/or degree of reflection of the radiated light. Observe the specifi-

cations regarding diffuse reflection (see chapter 12 "Technical data").

• 90 % is white

• 6 % is black

Also repeatability. Deviation of multiple measurement results relative to each other under identical conditions. Dependent on the measurement distance and the diffuse reflection of the measurement object.

The reproducibility can be considered as the measure of measurement value noise and is affected by the configuration of the response time.

Distance measuring procedure, which determines the distance of an object by the incidence angle of the light reflected from the object.

Leuze electronic GmbH + Co. KG ODS 9 8

Safety

2 Safety

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

2.1

Intended use

The device is designed as an optoelectronic sensor for the optical, contactless measurement of the distance to objects.

Areas of application

The laser distance sensor is designed for the following areas of application:

• Distance measurement

• Thickness measurement

• Positioning

• Diameter determination

• Fill level indicator

CAUTION

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 operating instructions is an element of proper use.

CAUTION

UL applications!

For UL applications, use is only permitted in Class 2 circuits in accordance with the NEC (National Electric Code).

NOTICE

Comply with conditions and regulations!

Ä Observe the locally applicable legal regulations and the rules of the employer's liability insurance 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.

Leuze electronic GmbH + Co. KG ODS 9 9

Safety

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 DGUV

(German Social Accident Insurance) provision 3 (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.

Leuze electronic GmbH + Co. KG ODS 9 10

Safety

2.5

Laser safety notices

Laser class 1 (ODS9L1...)

ATTENTION

LASER RADIATION – CLASS 1 LASER PRODUCT

The device satisfies the requirements of IEC/EN 60825-1:2014 safety regulations for a product of laser class 1 and complies with 21 CFR 1040.10 except for conformance with IEC 60825-1

Ed. 3., as described in Laser Notice No. 56, dated May 8, 2019.

Ä Observe the applicable statutory and local laser protection regulations.

Ä The device must not be tampered with and must not be changed in any way.

There are no user-serviceable parts inside the device.

Repairs must only be performed by Leuze electronic GmbH + Co. KG.

Laser class 2 (ODS9L2...)

ATTENTION

LASER RADIATION – CLASS 2 LASER PRODUCT

Do not stare into beam!

The device satisfies the requirements of IEC/EN 60825-1:2014 safety regulations for a product of laser class 2 and complies with 21 CFR 1040.10 except for conformance with IEC 60825-1

Ed. 3., as described in Laser Notice No. 56, dated May 8, 2019.

Ä Never look directly into the laser beam, the laser aperture (1) or in the direction of reflected laser beams! If you look into the beam path over a longer time period, there is a risk of injury to the retina.

Ä Do not point the laser beam of the device at persons!

Ä Interrupt the laser beam using a non-transparent, non-reflective object if the laser beam is accidentally directed towards a person.

Ä When mounting and aligning the device, avoid reflections of the laser beam off reflective surfaces!

Ä CAUTION! Use of controls or adjustments or performance of procedures other than specified herein may result in hazardous light exposure.

Ä Observe the applicable statutory and local laser protection regulations.

Ä The device must not be tampered with and must not be changed in any way.

There are no user-serviceable parts inside the device.

Ä Repairs must only be performed by Leuze electronic GmbH + Co. KG.

Ä The laser radiation emitted from the sensor is collimated. The laser is operated in pulse

mode. Pulse power, pulse duration and wavelength see chapter 12 "Technical data".

Leuze electronic GmbH + Co. KG ODS 9 11

Safety

1

Fig. 2.1: Laser aperture

NOTICE

Affix laser information and warning signs!

Laser information and warning signs attached to the device. Also included with the device are self-adhesive laser warning and laser information signs (stick-on labels) in multiple languages.

Ä Affix the laser information sheet to the device in the language appropriate for the place of use.

When using the device in the US, use the stick-on label with the "Complies with

21 CFR 1040.10" notice.

Ä Affix the laser information and warning signs near the device if no signs are attached to the device (e.g. because the device is too small) or if the attached laser information and warning signs are concealed due to the installation position.

Affix the laser information and warning signs so that they are legible without exposing the reader to the laser radiation of the device or other optical radiation.

Leuze electronic GmbH + Co. KG ODS 9 12

Safety

50106507-06

LASERSTRAHLUNG

NICHT IN DEN STRAHL BLICKEN

Max. Leistung (peak):

Impulsdauer:

Wellenlänge:

LASER KLASSE 2

EN 60825-1:2014

1,8 mW

22 ms

650 nm

LASER RADIATION

DO NOT STARE INTO BEAM

Maximum Output (peak):

Pulse duration:

1.8 mW

22 ms

Wavelength: 650 nm

CLASS 2 LASER PRODUCT

EN 60825-1:2014

RADIAZIONE LASER

NON FISSARE IL FASCIO

Potenza max. (peak):

Durata dell'impulso:

1,8 mW

22 ms

Lunghezza d'onda: 650 nm

APARRECCHIO LASER DI CLASSE 2

EN 60825-1:2014

RAYONNEMENT LASER

NE PAS REGARDER DANS LE FAISCEAU

Puissance max. (crête):

Durée d`impulsion:

1,8 mW

22 ms

Longueur d`onde: 650 nm

APPAREIL À LASER DE CLASSE 2

EN 60825-1:2014

RADIACIÓN LÁSER

NO MIRAR FIJAMENTE AL HAZ

Potencia máx. (peak):

Duración del impulso:

1,8 mW

22 ms

Longitud de onda: 650 nm

PRODUCTO LÁSER DE CLASE 2

EN 60825-1:2014

Maximum Output (peak):

Pulse duration:

Wavelength:

1.8 mW

22 ms

650 nm

CLASS 2 LASER PRODUCT

Complies with 21 CFR 1040.10

RADIAÇÃO LASER

NÃO OLHAR FIXAMENTE O FEIXE

Potência máx. (peak):

Período de pulso:

1,8 mW

22 ms

Comprimento de onda: 650 nm

EQUIPAMENTO LASER CLASSE 2

EN 60825-1:2014

激光辐射

勿直视光束

最大输出(峰值):

脉冲持续时间:

波长:

2 类激光产品

IEC 60825-1:2014

1.8 mW

22 ms

650 nm

Fig. 2.2: Laser information and warning signs

Leuze electronic GmbH + Co. KG ODS 9 13

Device description

3 Device description

3.1

Device overview

3.1.1

General information

The laser distance sensor is an optical distance sensor that operates according to the triangulation measurement principle.

The sensor consists of the following components:

• Transmitter: laser spot

• Receiver

• White OLED display

• Control panel with control buttons

• Status LEDs

• Connection for connecting to the control: M12 connector

The sensor can be configured using display and control buttons.

With the Sensor Studio configuration software, the sensors can be configured via the IO-Link interface with a PC and the measurement values visualized. Stored parameter sets can be duplicated in other sensors.

The connection is made via the IO-Link USB master, which is available as an accessory.

2 3 4

1

5

6

7

5

6

7

1

2

3

4

Fig. 3.1:

Device housing

Status LEDs

Control buttons

Display

Transmitter

Receiver

Connection

Device construction

Leuze electronic GmbH + Co. KG ODS 9 14

Device description

3.1.2

Operating principle

Triangulation measurement principle

Distance measuring procedure, which determines the distance of an object by the incidence angle of the light reflected from the object.

Advantages of the triangulation measurement principle:

• Short response times and, thus, high measurement rates

• High accuracy

3.1.3

Performance characteristics

The most important performance characteristic of the ODS 9 laser distance sensor:

• Measurement ranges:

50 mm … 1050 mm against objects (6 … 9% diffuse reflection)

• Analog current and voltage output (configurable)

Factory setting: current output

• OLED display and control buttons for configuration

• Configurable measurement range and measure mode

• Measurement value display in mm on OLED display

• IO-Link version 1.1

• Compliant with the "Smart Sensor Profile" specification

• Dual Channel: the IO-Link interface can be used in parallel with the other output functions.

• Communication interface RS 232/RS 485, depending on the device type

• Optional: multifunction input for deactivating the laser or for teaching the digital switching points (teachin)

Factory setting: input for deactivating the laser

• Optional: second switching output if the IO-Link interface is not used

For measurement against objects:

• Measurement range: 50 mm … max. 1050 mm, dependent on device type

• Measurement against diffusely reflective objects

• Reflection-independent distance information

• Applications:

• Distance measurement

• Contour determination

• Thickness measurement

• Positioning

• Diameter determination

• Sag determination

• Stack height measurement

• Loop measurement

3.1.4

Accessories

Special accessories are available for the laser distance sensor (see chapter 13 "Order guide and accessories"):

• Mounting systems for mounting on rods

• Connection cables

• IO-Link USB master set for connecting to a PC

• IO-Link master for cascading or integrating in a higher-level network

Leuze electronic GmbH + Co. KG ODS 9 15

Device description

3.2

Connection technology

For the electrical connection of the laser distance sensor, the following connection variants are available:

• M12 connector, 5-pin, turns 180°

3.3

Indicators and operational controls

The device housing is provided with the following indicators and operational controls:

• OLED display

• Two control buttons

• Green LED: operating state (PWR)

• Orange LED: switching output information (SSC)

1 2 3

4

3

4

1

2

Fig. 3.2:

Display

Orange LED (SSC1/SSC2)

Green LED (PWR)

Control buttons

Indicators and operational controls

3.3.1

LED indicators

Tab. 3.1:

LED

Green LED

PWR

Meaning of the LED indicators on the device housing

Orange LED

Switching output SSC1/

SSC2

Color, state

Green

Off

On

Off

Description

Sensor ready

No supply voltage

Object detected in the switching range

No object detected in the switching range

3.3.2

Control buttons

The sensor can be configured using display and control buttons. The display is controlled via the control buttons. You can make adjustments in the application via the control buttons.

•  – Scroll through the functions

•  –  Enter button: select function, confirm/enter value

The   and   buttons have different functions depending on the operating situation. These functions are

displayed via icons at the right edge of the display (see chapter 3.3.4 "Meaning of the display icons").

Leuze electronic GmbH + Co. KG ODS 9 16

Device description

Navigating within the menus

Use the navigation button   to move through the menu.

Activate the desired selection with the enter button  .

The number of bars at the left edge of the display indicates the current menu level.

Selecting options

Set the desired option with the navigation button   and the enter button  .

Resetting to factory settings

Ä While switching on the supply voltage, press the enter button  to reset the sensor configuration to the factory settings.

Ä Press the enter button  again to reset all parameters to factory settings. All parameter settings made previously are permanently lost.

Press the navigation button  to return to process mode without resetting the parameters.

NOTICE

You can also use the menu (see chapter 3.4 "Configuration / menu structure") or the

Sensor Studio

configuration software to reset to factory settings (see chapter 8 "Connecting to a PC

– Sensor Studio").

3.3.3

Display

The display changes depending on the current operating mode. The following display modes exist:

• Menu display

Press one of the two control buttons once or twice to access the menu display.

For information on operating via the menu, see chapter 3.4 "Configuration / menu structure" and the

configuration example (see chapter 3.5 "Configuration example").

• Process mode

After switching on the supply voltage and error-free initialization of the device, the green LED lights up continuously. The laser distance sensor is in process mode.

In process mode, the current measurement value is displayed in the display, e.g. "267 mm".

NOTICE

In the menu display, the selectable or editable values are shown with inverted text colors (black on white background).

If no key is pressed for approx. 6 minutes in the configuration menu, the device automatically returns to the process mode.

The sensor can be protected against unauthorized configuration change by activating the pass-

word query (see chapter 3.4.7 "Settings menu"). The password is permanently set to

165 . In addition, a complete button lock can be activated using the lock function (device access locks, bit 2) (see the table "Status displays on the display").

Leuze electronic GmbH + Co. KG ODS 9 17

Device description

Status displays in process mode

Tab. 3.2: Status displays on the display

Object distance in mm

No measurement value available, e.g. due to a weak or missing reception signal.

No object detected or reception signal too weak.

No object detected or reception signal too weak.

• Out of Range (+)

• Out of Range (-)

• +max

Sensor deactivated, laser switched off

• Via the input function (see chapter 3.4.1 "Input menu")

• Via the IO-Link command

The current measurement value is less than the lower limit value of the analog output distance.

The current measurement value is greater than the upper limit value of the analog output distance.

The measurement value has an offset and/or the gradient is falling (-1)

Lock function: Button lock activated via IO-Link (device access locks, bit 3)

The button lock can also be enabled and set using the configuration software Sensor Studio :

Configuration > Local operation

Leuze electronic GmbH + Co. KG ODS 9 18

Device description

3.3.4

Meaning of the display icons

The   and   buttons have different functions depending on the operating situation. These functions are displayed via icons at the right edge of the display.

Icon Position

First line

Second line

Function

By pressing the navigation button   you select the next parameter within a menu level.

Symbolizes the respective, next menu level that you have not yet selected.

Second line

Second line

Second line

Second line

Second line

Press the enter button   to exit the menu level or the menu.

Symbolizes the input mode.

The selected (highlighted) option field can be a fixed selection parameter or a multi-digit input field.

With a multi-digit input field, you can change the active digit cyclically using the navigation button  and switch from one digit to the next using the enter button  .

Note: If this icon does not appear, the local configuration lock is set via IO-Link

(index: 12, bit 2).

Confirmation of the selection.

This icon appears when you complete an option field with the enter button  and the previously entered value is valid.

Pressing the enter button   again saves and displays the change locally.

Reject the selection.

This icon is accessed from the previous icon (check mark) by pressing the navigation button  .

Press the enter button  to reject the current value or option parameter.

Return to selection.

This icon is accessed from the previous icon (cross) by pressing the navigation button  .

This icon is also accessed if the value newly entered previously is outside the permissible value range, making correction of the entry necessary.

Press the enter button  to reset the current value or option parameter and enter a new value or select a new option parameter.

3.4

Configuration / menu structure

The following chapters show the structure of all menu items. For each sensor model, only the actually available menu items are present for entering values or for selecting settings.

NOTICE

Use the navigation button   to move through the menu.

Activate the desired selection with the enter button  .

NOTICE

The number of bars at the left edge of the display indicates the current menu level.

For information on the meaning of the display icons, see chapter 3.3.4 "Meaning of the display icons".

Leuze electronic GmbH + Co. KG ODS 9 19

Device description

3.4.1

Input menu

The function of the switching input on pin 5 is set in the Input menu.

NOTICE

The Input menu is only available for sensors with multifunction input on pin 5 (ODS9…/ LAK -

…).

Level 1

Input

Level 2 Level 3

Teach

Deactivation

Activation

Description

Teach analog output and switching output

Switch off laser transmitter with +24 V on the switching input

Switch on laser transmitter with +24 V on the switching input

Default

Input_Mode Function of the switching input on pin 5 if the supply voltage is applied.

No_Function No input function active

X

Trigger_Rising The measurement value is only updated and output by an edge on input PIN 5.

Trigger_Falling

Important : Activation or deactivation using IO-Link commands or process data (PDOut) only has an effect if neither Deactivation nor Activation is set as the input function.

3.4.2

Output_SSC1 menu

The switching behavior of switching output SSC1 is set to pin 4 in the Output_SSC1 menu.

NOTICE

Designation "SSC" corresponds to designation "Q" previously used for switching outputs.

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Device description

Level 1 Level 2

Output_SSC1 SSC1_SP1_(dist.)

Level 3 Description

Upper switching point

Default

Depending on the device range:

• 100 mm: 75 mm

• 200 mm: 175 mm

• 450 mm: 250 mm

• 650 mm: 350 mm

• 1050 mm:

550 mm

SSC1_SP2_(near) Lower switching point 50 mm

Notice

: For the limit values of the measurement range for your sensor, see chapter 12

"Technical data".

SSC1_Logic Behavior of the switching output if an object is within the taught/configured switching distance.

High_Active Switching output active (high) X

SSC1_Mode

Low_Active Switching output not active (low)

see chapter 7.1.2 "Setting the switching outputs"

One switching point on the object Single_Point

(Obj)

Window

Two_Point

Switching window Window

Two switching points on the object

Single_Point

(BG)

One switching point on the background (BG), also referred to as background-teach. Switching process for objects between background and sensor.

Deactivated Mode deactivated

SSC1_Hysteresis Hysteresis

X

10 mm

3.4.3

Output_SSC2 menu

• ODS9LA6: The switching behavior of switching output SSC2 is set to pin 5 in the Output_SSC2 menu.

• ODS9L6X: The switching behavior of switching output SSC2 is set to pin 2 in the Output_SSC2 menu.

NOTICE

Ä The Output_SSC2 can only be used for sensors with a second switching output SSC2.

Ä Designation "SSC" corresponds to designation "Q" previously used for switching outputs.

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Device description

Level 1 Level 2

Output_SSC2 SSC2_SP1_(dist)

Level 3 Description

Upper switching point

Default

Depending on the device range:

• 100 mm: 75 mm

• 200 mm: 175 mm

• 450 mm: 250 mm

• 650 mm: 350 mm

• 1050 mm:

550 mm

SSC2_SP2_(near) Lower switching point 50 mm

Notice

: For the limit values of the measurement range for your sensor, see chapter 12

"Technical data".

SSC2_Logic Behavior of the switching output if an object is within the taught/configured switching distance.

High_Active Switching output active (high) X

SSC2_Mode

Low_Active Switching output not active (low)

see chapter 7.1.2 "Setting the switching outputs"

One switching point on the object Single_Point

(Obj)

Window

Two_Point

Switching window Window

Two switching points on the object

Single_Point

(BG)

One switching point on the background (BG), also referred to as background-teach. Switching process for objects between background and sensor.

Deactivated Mode deactivated

SSC2_Hysteresis Hysteresis

X

10 mm

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Device description

3.4.4

Analog_Output menu

The characteristic output curve of the analog output is set to pin 2 in the Analog Output menu.

NOTICE

The Analog Output menu is only available for sensors with analog output.

Analog output

Level 1 Level 2

Position_Max.Val.

Position_Min.Val.

Level 3 Default

Upper limit of the measurement range

50 mm

Notice

: For the limit values of the measurement range for your sensor, see chapter 12

"Technical data".

Analog Range Current/voltage range of the analog output

4-20_mA X

1-10_V

0-10_V

Description

Distance measurement value for maximum voltage / maximum current

Distance measurement value for minimum voltage / minimum current

Spreading the characteristic output curve

You can spread the characteristic output curve of the analog output according to your requirements.

Ä Select the current or voltage range of the analog output.

Ä Set the distance measurement value that corresponds to the lower limit of the measurement range

(4 mA, 1 V, 0 V).

Ä Set the distance measurement value that corresponds to the upper limit of the measurement range

(20 mA, 10 V).

It is also possible to invert the working range of the analog output, i.e., the lower limit of the measurement range is set to a larger value than the upper limit. This creates a descending characteristic output curve.

3.4.5

Serial Menu

In the Serial menu, the function of the serial interface is set to pin 2 and pin 5.

NOTICE

The Serial is only available for sensors with a serial interface.

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Device description

Level 1

Serial

Level 2

Serial_Function

Level 3

ASCII

Description

Format of the measurement value output

Measurement value output corresponding to the device resolution

X

2 byte transfer

3 byte transfer

Default

14_Bit

16_Bit

24_Bit

Decimal

4 byte transfer

Transfer of the measurement value as decimal number

Remote_Control Remote control operation of the ODS via remote commands

Reserved

Note:

For the device resolution for your sensor see chapter 12 "Technical data".

Device_Address Address under which the ODS is addressed

1 0 … 14

Transmiss._Rate

2400_Baud

4800_Baud

Transmission rate of the serial interface

X 9600_Baud

19200_Baud

28800_Baud

38400_Baud

57600_Baud

115200_Baud

230400_Baud

Parity Transfer of parity bit

Stop_Bit

1

2

Termination_Byte

None

Odd

Even

Number of stop bits

If not equal to 0, the corresponding character is appended

X

X

0 … 255

Transmiss._Delay

Delay of data transmission in milliseconds

0

0 … 255 0

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Device description

3.4.6

Application menu

The measurement function of the sensor is set in the Application menu.

Level 1 Level 2 Level 3 Selection level 3

Application

Process_Settings

Description

Measurement value processing

Measurem._Mode

Standard Multi-purpose function for many measurement tasks

Precision Greater accuracy for less dynamic applications

Filter_Settings

Light_Suppression

Ambient light sensitivity

LightSupp r.Limit

2 … 32 Setting of the maximum number of measurements for preventing the sensor from measuring for too long if the light is too bright and, as a result, not outputting a measurement value.

Filter for ascertaining and suppressing outliers

Default

X

32

Filter_Type

None X

Averaging Floating average calculation taking 2 … 99 measurements into account

The response time increases with the number of measurements.

Spike_Su ppression

Average_Count

Blocked central value filtering across buffer sizes from 5 … 99 measurements

Number of measurements used in averaging 10

Spike_Supp.Count

10

Spike_Supp.Depth

Raw

Number of measurements used in outlier suppression

Adjustable filter depth for outlier suppression

Averages approx. 75 % of the central measurement values

X

Medium Averages approx. 50 % of the central measurement values

Fine Averages approx. 25 % of the central measurement values

Distance calibration Dist.Correction

Offset

Gradient

Rising

Falling

Preset_Position

Preset_Calc.

Inactive

Execute

0 mm

X

0 mm

X

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Device description

Measurement value processing and filtering is set according to the given requirements and the application via the display or using the Sensor Studio configuration software.

By changing the measurement value processing or filtering, the response time and accuracy can be increased.

NOTICE

A higher response time presupposes the possibility of measuring an object for a longer period.

Measurement value processing

Processing settings > Measure mode > Standard/Precision/Ambient light

Tab. 3.3: Measurement value processing

Standard

Precision

Ambient light

Accuracy

+

+ +

+

Measurement time / reload

+

- -

- -

Ambient light

+

+

+ +

Varying diffuse reflection

+

+

0

Filter

Filter settings > Filter type > Averaging/outlier suppression

A floating average value is calculated over the number of set measurement values.

The measurement value noise decreases, i.e., measurement value fluctuations become smaller.

If the measurement value changes erratically, the output value moves linearly from the old measurement value to the new measurement value over n measurements.

The higher the number of measurements is set, the higher the response time of the sensor. With dynamic applications, averaging should be set to a very low number of measurement values or switched off altogether.

The time of measurement value updating is not affected by the filtering.

Outlier suppression

Filter settings > Degree of suppression > Coarse/Medium/Strong

Measurement results with excessively high or low measurement values (referred to as "outliers" or

"spikes") are suppressed or rejected according to the set filter depth.

• The user sets the number of measurements via the display or using the configuration software Sensor Studio .

• The sensor performs the set number of measurements on the object, e.g. 100 measurements.

Due to physical reasons, the measurement results are not all the same. The measurement values have a scatter which corresponds to a normal distribution comprising a large number of similar measurement values and a small number of excessively high or low measurement values (outliers, spikes).

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Device description

The suppression or rejection of the measurement value outliers is configured in the following levels using the filter depth:

• Coarse: A large number of measurement values which do not occur with a high frequency are suppressed or rejected.

• Falling on one side: 12 %

• Used center area, averaged: 76 %

Fig. 3.3: Coarse filter depth

• Medium

• Falling on one side: 24 %

• Used center area, averaged: 52 %

Fig. 3.4: Medium filter depth

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Device description

• Strong

• Falling on one side: 36 %

• Used center area, averaged: 28 %

Fig. 3.5: Strong filter depth

NOTICE

In the case of dynamic applications with erratic changes in measurement distance, it is recommended to filter by setting the response time.

Distance calibration "Distance correction"

Under the Distance correction menu item, you can influence the output of the measured distance value.

Gradient

If the gradient is changed from rising to falling , the measurement values decrease as the distance from the object to the sensor increases. The distance information is output inverted.

NOTICE

Negative measurement values may result if the gradient is reversed.

Offset and Preset

Deviations that arise while mounting and attaching the sensor can be compensated for with the entries for the Offset and Preset parameters.

NOTICE

Negative measurement values may occur if an offset is set.

The offset/preset calculation is available as a teach function. The assignment of the teach time frame can

be read out via IO-Link (see chapter 7 "Starting up the device").

Specify offset and preset

Under the Application > Dist.Correction

menu item, you can influence the output of the measured distance value. The Offset and Preset parameters are used for correcting the measurement value by a fixed amount.

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Device description

Deviations that arise while mounting and attaching the sensor can be compensated for with the entries for the Offset and Preset parameters.

• For the Offset parameter, a fixed value and sign are specified.

• For the Preset parameter, a nominal measurement value is specified; a measurement is then performed using an object located at the desired nominal distance. The Offset parameter is changed as a result of this measurement.

NOTICE

If the calculation of the Offset parameter results in negative measurement values, zero is output at the interface and on the display.

Setting the offset

Ä Enter an offset value via the display:

Application > Dist.Correction > Offset

ð The set offset value is added to the measured distance value of the sensor.

Example:

• Measurement value of the ODS 9: 1,500 mm

• Entry offset-value: -100 mm

• Output on the display and at the interface: 1400 mm

Preset presetting

Ä Enter a Preset value via the display or using the Sensor Studio configuration software ( IO-Link ):

Application > Distance correction > Preset position

Ä Position an object at the desired preset distance.

Ä Perform the preset measurement:

Application > Distance correction > Preset calculation > Execute

ð The offset value is automatically calculated from the measurement value and nominal measurement value (preset value) and entered as the offset in the configuration.

Example:

• Entry: preset value 350 mm

• Object distance: 300 mm in front of the sensor

Trigger preset measurement

Distance correction > Preset calculation > Execute

An offset of +50 mm is automatically calculated and stored in the configuration.

• Object distance: 300 mm

Output to display and interface: 350 mm

• Object distance: 400 mm

Output to display and interface: 450 mm

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Device description

3.4.7

Settings menu

You can set the display language and call up information about the sensor in the Settings menu.

Level 1

Settings

Level 2

Language

Display

English

Deutsch

Auto

Off

On

Level 3

Auto_Off

Description Default

Setting of the display language

Note : If the display language is changed, this change only becomes effective when the sensor is restarted.

Display language English X

Display language German

Display settings

After pressing a control button, the display is set to full brightness for approx. one minute.

The display is then dimmed slightly for five minutes and then dimmed considerably.

X

The display (measurement value display) is automatically switched off after approx.

six minutes.

No measurement value display – the display is only active in the menu after pressing a control button.

The display (measurement value display) is always at full brightness.

Factory_Settings

Inactive

Execute

Password_Lock

Info

Reset to factory settings

The sensor is not reset to factory settings.

X

The sensor is reset to factory settings.

Locks access to the menu with the fixed password 165

Inactive

Active

X Inactive

Activated

Exit_behaviour Exit the configuration settings

Report_to_DS After making a change in the menu, the change is taken over in the data memory after returning to measurement operation. The

DSUpload flag is set.

The "Data Storage" (DS) parameter memory is updated.

X

Only_local_changes

The change is only temporary or local on the device or no data memory is used.

The DSUpload flag is cleared.

Information on the sensor

Leuze part number of the sensor Part_No.

Serial_No.

Firmware_Revision

Sensor serial number

Firmware version

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Device description

3.4.8

Ending configuration

With IO-Link data storage, the behavior upon ending the configuration settings can be changed in the following ways in the Settings menu.

Tab. 3.4: Settings > Exit behavior

Menu item

Report to DS

(Report to DS)

Only local changes

(only local changes)

Use

Changes in the menu are taken over in the data memory after returning to measurement operation. The DSUpload flag is set.

Display of the menu item

A change was performed and the data memory updated.

The change is only temporary or local on the device or no data memory is used. The DSUpload flag is cleared.

A change was made only locally on the device.

Central storage of configuration data

If the configuration setting is ended with subsequent adoption of the data in the data memory of a connected IO-Link master, the sensor does not need to be newly configured if a device is changed.

The sensor adopts the configuration from the data memory of the connected IO-Link master, provided that the IO-Link master is capable of doing this and enabled accordingly.

Timeout

If the configuration setting is ended due to a timeout, the previously made changes are always reported by default to the data memory (Data Storage, DS). If an IO-Link master is connected, the changes are transferred to its data memory. The status of the DSUpload flag is not changed.

If the DSUpload flag is not set and the changes are only stored locally, after reconnection the change is overwritten by the configuration which is stored in the data memory of the connected IO-Link master.

NOTICE

If the sensor is not operated via an IO-Link master, these settings do not need to be made.

3.5

Configuration example

To illustrate menu operation, the setting of the lower switching point of switching output SSC1 to 100 mm is explained as an example.

Ä In process mode, press a control button to activate the menu display.

Input

Output SSC1

Ä Press the navigation button  .

ð The display shows "Output SSC1" in the upper menu line.

Output SSC1

Output

Ä Press the enter button  to select Output SSC1.

SSC1 SP1 (dist.)

00250 mm

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Device description

Ä Press the navigation button  once.

ð The display shows "SSC1 SP2 (near)" in the upper menu line.

SSC1 SP2 (near)

00050 mm

Ä Press the enter button  to set the lower switching point.

ð The first digit of the switching point value is displayed with inverted colors.

SSC1 SP2 (near)

0 0050 mm

Ä Press the enter button  twice until the hundreds digit is inverted.

SSC1 SP2 (near).

00 0 50 mm

Ä Press the navigation button   as many times as necessary to set the desired value “1”.

SSC1 SP2 (near)

00 1 50 mm

Ä Press the enter button  to accept the set value.

Ä Repeat the setting for digit 5 until the complete value “00100” is set.

Press the enter button  to move to the units digit.

SSC1 SP2 (near)

0010 0  mm

After pressing the enter button  again, the   icon appears in the lower right part of the display.

• The   icon indicates that the next time the enter   button is pressed, the set value will be accepted.

• You can change the function of the enter button   by pressing the navigation button   several times.

The following icons are displayed in succession:

• : re-edit value

• : reject value

Ä Press the enter button  to accept the set value 00100.

ð "SSC1 SP2 (near)" is displayed inverted in the display.

The newly set value “00100 mm”, which is stored in non-volatile memory, appears in the display.

SSC1 SP2 (near)

00100 mm

Ä Press the navigation button   repeatedly until the ← icon appears in the upper menu line.

SSC1 SP1 (dist.)

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Device description

Ä Press the enter button  to access the next-higher menu level.

Output SSC2

Analog output

Ä Press the enter button  to exit the menu display and access process mode.

225 mm

Quick exit

If you do not wish to make any further configuration settings, you can exit the menu via Quick exit and return to process mode.

NOTICE

The DSUpload upload flag is always set on quick exit. This means that parameter changes are passed on to the connected IO-Link master.

Ä Press and hold down the enter button for at least 5 s – until the "Exit menu" message appears on the display.

Ä Confirm with the enter button .

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Applications

4 Applications

The laser distance sensor is designed for the following areas of application:

• Distance measurement

• Thickness measurement

• Positioning

• Diameter determination

• Fill level indicator

4.1

Wood width measurement

Fig. 4.1: Application example: wood width measurement

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Applications

4.2

Assembly inspection

Fig. 4.2: Application example: assembly inspection

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Mounting

5 Mounting

The sensor can be mounted in the following ways:

• Mount using a mounting system

• BTU 300M-D10: mounting on rod Ø 10 mm

• BTU 300M-D12: mounting on rod Ø 12 mm

• BTU 300M-D14: mounting on rod Ø 14 mm

NOTICE

Observe during mounting!

Ä Make certain that the required environmental conditions (humidity, temperature) are maintained.

Ä Make certain that the optics cover of the sensor is not soiled, e.g., by leaking fluids, abrasion from boxes or residues from packaging material.

Ä When mounting behind a cover: Make certain that the cutout in the cover is at least as large as the lens cover of the sensor. Correct measurement cannot otherwise be ensured.

5.1

Mounting with mounting system

Mounting with a mounting system is intended for rod mounting. For ordering information, see chapter 13.3

"Other accessories".

Ä Mount the mounting system on the rod (system-side).

Ä Mount the sensor on the mounting system with M4 fastening screws (not included in delivery contents).

Max. tightening torque of the fastening screws: 1.4 Nm

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Electrical connection

6 Electrical connection

6.1

Overview

The assignment of the electrical connections is dependent on the type of sensor that is used. The type designation of the sensor is specified on the name plate.

CAUTION

Safety notices!

Ä Before connecting the device, be sure that the supply voltage agrees with the value printed on the name plate.

Ä Only allow competent persons to perform the electrical connection.

Ä Ensure that the functional earth (FE) is connected correctly.

Fault-free operation is only guaranteed if the functional earth is connected properly.

Ä If faults cannot be rectified, take the sensor out of operation. Protect the sensor from accidentally being started.

NOTICE

Protective Extra Low Voltage (PELV)!

The device is designed in accordance with protection class III for supply with PELV (Protective

Extra-Low Voltage).

NOTICE

Ä For all connections (connection cable, interconnection cable, etc.), use only the cables listed

in the accessories (see chapter 13.2 "Accessories – cables and connectors").

Ä Use shielded cables when using the analog interface. You can thereby prevent interference caused by electromagnetic fields.

6.2

Pin assignment

Pin assignment ODS9L2.8/LAK-…-M12

Analog OUT

Fig. 6.1: Pin assignment

Pin Designation

1 18-30 V DC +

2 Analog OUT

3

4

5

GND

IN

Assignment

Supply voltage

Configurable analog output

• Current: 4 mA … 20 mA

• Voltage: 1 V … 10 V, 0 V … 10 V

Factory setting: Current

Functional earth

IO-Link / switching output 1, push-pull

Function of the switching input

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Electrical connection

Pin assignment ODS9L2.8/L6X-…-M12

Fig. 6.2:

4

5

2

3

Pin assignment

Pin Designation

1 18-30 V DC +

GND don’t connect

Assignment

Supply voltage

Switching output 2, push-pull

Functional earth

IO-Link / switching output 1, push-pull don’t connect

Pin assignment ODS9L2.8/LA6-…-M12

Analog OUT

Fig. 6.3:

Pin Designation

1

2

Pin assignment

18-30 V DC +

Analog OUT

3

4

5

GND

Pin assignment ODS9L2.8/LFH-…-M12

Assignment

Supply voltage

Configurable analog output

• Current: 4 mA … 20 mA

• Voltage: 1 V … 10 V, 0 V … 10 V

Factory setting: Current

Functional earth

IO-Link / switching output 1, push-pull

Switching output 2, push-pull

Fig. 6.4: Pin assignment

4

5

2

3

Pin Designation

1 18-30 V DC +

RxD

GND

TxD

Assignment

Supply voltage

Signal RxD of the RS 232 serial interface

Functional earth

IO-Link / switching output 1, push-pull

Signal TxD of the RS 232 serial interface

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Electrical connection

Pin assignment ODS9L2.8/LQZ-…-M12

Fig. 6.5: Pin assignment

3

4

Pin Designation

1

2

18-30 V DC +

D –

GND

5 D +

Assignment

Supply voltage

Signal D – of the RS 485 serial interface

Functional earth

Switching output

Signal D + of the RS 485 serial interface

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Starting up the device

7 Starting up the device

7.1

Teaching and configuring output functions

7.1.1

Setting the analog output

The sensors are equipped with an analog output with linear response within the respective measurement range.

Above and below the measurement range linearity is not obtained. If a signal is present, the output values can be used to determine whether the measurement range is exceeded or not met.

In order to achieve the highest resolution possible, set the range of the analog output as small as the application allows. The characteristic output curve can be configured as rising or falling, e.g. for fill level applications.

The output can be switched to current or voltage with the following ranges:

• 4 … 20 mA

• 1 … 10 V

• 0 … 10 V

To configure the analog output, the two distance values Position Min. Val.

and Position Max. Val.

are specified at which the respective minimum or maximum analog value is output.

Measurement range C is assigned ex works (see figure), e.g., 50 … 100 mm for device types -100 .

I [mA]

≈ 21

20

U [V]

≈ 10.5

10

ODS9L…/LA…-M12

C

A B

B D E

4

1

1

0

F

0

0

0

0

0

≈ 45

≈ 45

≈ 45

≈ 45

≈ 45

50

50

50

50

50

100

200

450

650

105

210

470

680

1050 1100

≈ 650

≈ 650

≈ 650

≈ 1000

≈ 1500

D

E

F

A

B

C

Fig. 7.1:

Area not defined

Linearity not defined

Measurement range

Object present

No object detected (characteristic curve behavior configurable via IO-Link)

Measurement distance

Characteristic curve of analog output ODS9L…/LA…-M12

Setting the analog output

You can set the characteristic output curve for the analog output as follows:

• Directly changing the parameters:

• On the device via the OLED display and the control buttons (see chapter 3.4 "Configuration / menu structure")

• Via the Sensor Studio

configuration software (see chapter 8 "Connecting to a PC – Sensor Studio").

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Starting up the device

• Teach-in / teach:

• Via IO-Link (see chapter 7.1.5 "Teaching the output functions via the IO-Link system commands"),

especially using the Sensor Studio

configuration software (see chapter 8 "Connecting to a PC –

Sensor Studio").

• Via the multifunction input with set Teach

input function (see chapter 7.1.4 "Teaching the output functions via the multifunction input").

7.1.2

Setting the switching outputs

All sensors are equipped with at least one SSC1 switching output. LA6 model sensors are provided with a second SSC2 switching output.

For each switching output you can configure the following parameters:

• Upper and lower switching point

• Switching hysteresis

• Switching logic

• Light switching (high active)

• Dark switching (low active)

• Switching point mode

NOTICE

The output state in the hysteresis area is not uniquely defined!

The output state in the hysteresis area is dependent on the previous situation.

If the output in the hysteresis area is permanently set to high active , a short detection failure (no signal, e.g., due to a target that is marginally dark) results in a change to permanently low active

(dark switching).

3 3

ON

1

OFF

ON

2

OFF

4

1

2

3

4

Light switching

Dark switching

Hysteresis

Measurement distance

Fig. 7.2: Switching output configuration

The switching outputs can be set via the OLED display and the control buttons (see chapter 3.5 "Configuration example"), but also via the multifunction input on pin 5 and via IO-Link system commands.

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Starting up the device

NOTICE

For sensor models with multifunction input, there is only one physically present switching output that can be taught in.

Configuring switching point modes

The following switching point modes can also be configured. These are structured according to the switching profiles of the Smart Sensor Profile specification.

• SinglePoint Object mode (SinglePt Obj): single switching point taught on an object

• Window: window mode

• TwoPoint: two-point mode

• SinglePoint Background mode (SinglePt BG): single switching point taught against a background

SinglePoint Object mode (SinglePt Obj)

When teaching setpoint SP1 before of after, the object (Obj) is targeted, i.e., with SP1, the SSC is still active. The SSC becomes inactive only after SP1.

3 3

5

4

2 1

1

6

1

2

3

4

5

6

Setpoint SP1

Measurement range minimum

Hysteresis

Signal response

Sensor/SSC

Reserve if >0

Fig. 7.3: SinglePoint Object switching point mode

• Only setpoint SP1 (not SP2) is used for calculating the switching edges. The lower switching edges are always at the lower limit value.

• Reserve and hysteresis run from the upper switching point into the distance, so that the switching output has reliably (i.e., with reserve) switched on after the teach event (provided it is light switching high active ).

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Starting up the device

Window – window mode

Teach point is midway between the equidistantly shifted setpoints S2 (near) and SP1 (far)

4

3 3

5

2

3

4

5

1

2

6

7

Setpoint SP1 (far)

Setpoint SP2 (near)

Hysteresis

Teach point

Sensor/SSC

Signal response

Window

Fig. 7.4: Switching point mode window

• Hysteresis runs to the outside.

• Reserve is not used.

7

1

6

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Starting up the device

TwoPoint – two-point mode

• Closer than setpoint SP2, the output is set to high active (as with the Single Point modes).

• The "far" hysteresis area lies between setpoint SP2 and setpoint SP1; the Hysteresis parameter is not used here.

• After setpoint SP1, the output is set to low active .

3

4

5

6

7 2 1

3

4

1

2

5

6

7

Fig. 7.5:

Setpoint SP1

Setpoint SP2

Hysteresis "near"

Hysteresis "far"

Sensor/SSC

Signal response

Measurement range minimum

TwoPoint switching point mode

NOTICE

The Hysteresis parameter is used for the switch-on/switch-off edges at the start of the measurement range.

Ä If setpoint SP2 is too close to the switch-on edge, the assigned switching edge is shifted into the distance by the distance of the Hysteresis parameter.

Ä If, afterwards, setpoint SP1 is closer than the shifted edge, the edge assigned to setpoint

SP1 is placed on the shifted SP2 edge. The two far switching edges then decrease together.

NOTICE

The output state in the hysteresis area is not uniquely defined!

The output state in the hysteresis area is dependent on the previous situation.

If the output in the hysteresis area is permanently set to high active , a short detection failure (no signal, e.g., due to a target that is marginally dark) results in a change to permanently low active

(dark switching).

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Starting up the device

SinglePoint Background mode (SinglePt BG)

When teaching setpoint SP1 before of after, the background (BG) is targeted, i.e., with setpoint SP1, the

SSC must no longer be active. The SSC is only active before setpoint SP1.

3 3

5

4

2 1

6

1

3

4

5

6

1

2

Setpoint SP1

Measurement range minimum

Hysteresis

Signal response

Sensor/SSC

Reserve if >0

Fig. 7.6: SinglePoint BG switching point mode

• Only setpoint SP1 (not SP2) is used for calculating the switching edges. The lower switching edges are always at the lower limit value.

• Reserve and hysteresis run from the upper switching point into the near range, so that the switching output has reliably (i.e., with reserve) switched off after the teach event (provided it is light switching high active ).

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Starting up the device

7.1.3

Teach-in / teach

Teaching offers the possibility to adjust certain parameters based on the current measurement situation.

Focus here is primarily on settings that affect the output functions, i.e., analog output and the switching output(s).

The teaching action is triggered in the following ways:

• Via the multifunction input when setting the input function to Teach

(see chapter 7.1.4 "Teaching the output functions via the multifunction input")

• Via IO-Link system commands (see chapter 7.1.5 "Teaching the output functions via the IO-Link system commands")

• Special teach via the device menu (OLED display and control buttons)

When completed, each successful teach returns a so-called teach point (TP), which is formed by averaging multiple individual measurements.

• Prerequisite for successfully teaching is a minimum number of valid measurement values. Objects that are marginally dark and/or distant objects can increase the teach time.

• The teachable areas are limited by model.

• A teach point may only be located within the measurement range described in the table in order for an assignment to the respective, likewise limited parameters to be possible.

Device

(Device)

Outside of the operating range (-)

(Out of Range

(-))

Operating range [mm]

(measurement value shown on the display)

Outside of the operating range

(+)

(Out of

Range(+))

Limited accuracy

Measuring range Limited accuracy

…-100-…

…-200-…

…-450-…

…-650-…

…-1050-…

Directly underneath

47.00

47.00

47.0

47.0

47.0

50.00

50.00

50.0

50.0

50.0

100.00

200.00

450.0

650.0

1050

110.00

220.00

500.00

700.00

1100

Directly above

7.1.4

Teaching the output functions via the multifunction input

NOTICE

The information in this chapter only applies for devices that are equipped with a multifunction input on pin 5 (ODS9…/ LAK -…).

To teach, a teach signal is applied to the multifunction input (pin 5). The duration of the teach signal (low level on the teach input) determines the teach-in function.

T

+24V

0V t

T Duration of the teach signal

Fig. 7.7: Plot of the teach signal

To teach, proceed as follows:

Ä In the Configuration menu, activate the input function Teach (Default)

Input > Input mode > Teach

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Starting up the device

Ä Position the measurement object at the desired distance.

NOTICE

The teachable area must be located within the measurement range of the sensor.

Ä Apply the teach signal to the multifunction input (pin 5).

• The duration T of the low level at the teach input determines the teach-in function.

• The teach functions assigned to the time frames are preset and can be queried via IO-Link.

Tab. 7.1: Default assignment of the teach functions

Duration T [ms] Teach function

20 … 80 Object teach of switching output SSC1

120 … 180

220 … 280

320 … 380

Window teach (Window) of switching output SSC1

Analog teach of the distance value for the smallest analog value

(4 mA, 1 V, 0 V) on pin 2

Analog teach of the distance value for the largest analog value

(20 mA, 10 V) on pin 2

420 … 480

520 … 580

620 … 680

720 … 780

820 … 880

920 … 980

1020 … 1080

Preset-Offset calculation: determination of an offset value so that the preset Preset value is output as measurement value.

Background-Teach_SSC1

Setpoint 1-Teach SP1_SSC1

Setpoint 2-Teach SP2_SSC1

Alternative setpoint 1-Teach SP1a_SSC1

Logic of SSC1 to 0 "light switching" Light_SSC1

Logic of SSC1 to 1 "dark switching" Dark_SSC1

1120 … 1180 Toggle logic of SSC1 "light/dark switching"

Corresponding IO-Link object :

Index 140, teach level assignment (Wire Function Array)

Function no.

14

15

6

7

8

16

12

13

17

19

20

18

Ä Detection and averaging of measurement values for forming the teach point TP begins with the rising edge of the input signal.

The parameter or parameters assigned to the time frame for the teach signal is/are updated based on the teach point.

NOTICE

Ä With the preset assignment of the teach functions, teaching can only be performed via the multifunction input in SinglePoint Object

mode (see chapter 7.1.2 "Setting the switching outputs").

Only the upper setpoint SP1 is then shifted, so that the targeted object is just detected

(switching output triggered). More distant objects are no longer detected.

Ä

Other teach modes are possible via IO-Link system commands (see chapter 7.1.5 "Teaching the output functions via the IO-Link system commands").

Ä Alternatively, the assignment table assignments can also be changed or expanded for applicative optimization.

NOTICE

A complete process data map of all function indices can be generated via the IODD file. You can find the IODD file on the Internet at www.leuze.com

.

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Starting up the device

Ä In the following cases, perform two successive teach actions:

• Analog output: teach the two positions for start and end of the analog value range

• Switching output: individually teach setpoints SP1 and SP2 in Window or Two-Point mode

Ä Ensure that the taught values are taken over correctly, for example by checking the corresponding entries in the configuration menu.

7.1.5

Teaching the output functions via the IO-Link system commands

A number of output functions can be taught via the IO-Link interface using system commands (see chapter

7.4 "IO-Link interface"). This chapter describes how to teach the analog output and the switching output

functions.

Teaching the analog output via IO-Link system commands

To configure the analog output, the two distance values Position Min. Val.

and Position Max. Val.

are taught at which the respective minimum or maximum analog value is output.

Value hex / dec

0xC3 / 195

Command

Teach Analog Min

Description

0xC4 / 196 Teach Analog Max

System command: AnalogRangeMin=TP

Teaches the distance value to which the lower analog limit value (4 mA, 1 V, 0 V) is assigned

( Position Min. Val .).

Teaches the distance value to which the upper analog limit value (20 mA, 10 V) is assigned ( Position  Max.  Val .).

Teaching-in the switching outputs via IO-Link system commands

The teach-in functions are compliant with the Smart Sensor Profile specification. Manufacturer-specific extensions are included with two of the three teach-in functions.

NOTICE

Detailed descriptions of the teach-in processes can be found in the Smart Sensor Profile specification: http://www.io-link.com/share/Downloads/Smart-Sensor-Profile/IOL-Smart-Sensor-Profile-2ndEd_V10_Mar2017.pdf

Procedure:

Ä The so-called "setpoint" (1 and/or 2) is taught.

Ä In the second step, the corresponding switching function is defined.

This means that setpoint "SP" is not yet the same as switching point "SSC". Via the switching function / switching mode defined in the second step, the setpoints with the corresponding hystereses become switching points.

If, for example, teaching is performed in Window mode, both setpoints (SP1 and SP2) are taught while retaining the distance to one another.

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Starting up the device

Tab. 7.2:

Value hex / dec

0x41 / 65

0x42 / 66

0x4B / 75

0x4C / 76

IO-Link system commands for teaching the switching point modes

Command Description

Teach SP1

IOL_USERCMD_SSP_TEACH_SP1

TP

1: Setpoint SP1

TP: Teachpoint 1

Teach SP2

IOL_USERCMD_SSP_TEACH_SP2

TP

2: Setpoint SP2

TP: Teachpoint 2

Custom Teach: window

IOL_USERCMD_SSP_CUS-

TOMTEACH_WINDOW

1

3

2

1: Setpoint SP1

2: Setpoint SP2

3: WindowWidth

TP: Teachpoint

TP

Custom Teach: SP1a

IOL_USERCMD_SSP_CUS-

TOMTEACH_SP1a

=

1

1

2

3

2

Teaching the far or upper setpoint (SP1): Determine teachpoint 1 for setpoint 1

First select the target (switching point) via command TI select (Index 0x3A = 58):

• 0 = SSC1 (default)

• 1 = SSC1

• 2 = SSC2

• 255 = all together

Teaching the nearby or lower setpoint (SP2):

Determine teachpoint 2 for setpoint 2

First select the target (switching point) via command TI select (Index 0x3A = 58):

• 0 = SSC1 (default)

• 1 = SSC1

• 2 = SSC2

• 255 = all together

Manufacturer-specific teaching of both setpoints SP1 and SP2 together:

• Retaining the distance between one another

• Centered around the teach point (TP) newly determined during the teach event

First select the target (switching point) via command TI select (Index 0x3A = 58):

• 0 = SSC1 (default)

• 1 = SSC1

• 2 = SSC2

• 255 = all together

Exception :

If WindowWidth is not equal to 0, its contents are used instead of the previous distance between the setpoints (SP2-SP1).

WindowWidth is a manufacturer-specific extension that is defined additionally for each

SSC (Switching Signal Channel or switching output).

Manufacturer-specific teaching of manufacturer-specific setpoint SP1a. Setpoint SP1a is used instead of SP1 when resetting from

Window teach mode to the two SinglePoint teach modes provided its content is not equal to 0.

Teaching the offset value via IO-Link system commands

Value hex / dec

0xD4 / 212

Command

Teach Preset to Offset

Description

At the time the calculation is performed, the offset is corrected so that the nominal value stored under Preset is output.

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Starting up the device

7.2

Setting measurement value processing and filtering

Ä

Set the measure mode using the display and the control buttons (Application menu item; see chapter

3.4.6 "Application menu") or using the

Sensor Studio

configuration software (see chapter 8 "Connecting to a PC – Sensor Studio").

• Standard

Multi-purpose mode (factory setting)

• Precision

Higher accuracy for measurement tasks with lower dynamics requirements

• Ambient light

For measurements in which increased ambient light occurs.

• Less dynamic

• Increased response times

7.3

Reset to factory settings

Configuration is performed using the OLED display and the keyboard (see chapter 3.4 "Configuration / menu structure") or using the

Sensor Studio

configuration software (see chapter 8 "Connecting to a PC –

Sensor Studio").

To reset the sensor via the OLED display and keyboard, proceed as follows:

Ä Switch off the voltage supply or disconnect the sensor from the voltage supply.

Ä Press the enter button  and hold down the button.

Ä Switch on the voltage supply or connect the sensor to the voltage supply.

• The LEDs for PWR and switching output flash.

Ä Press the enter button  again.

ð The sensor restarts, reset to the factory settings.

7.4

IO-Link interface

7.4.1

Overview

The sensors are equipped with an IO-Link 1.1 interface for configuration and measurement data output.

• The sensor transfers data packets in the TYPE_2_V process data format.

• The process data length is 32 bits. Eight status bits, eight scale bits and 16 measurement value bits are transferred. On the control-side, you can only use the measurement value bits.

• Of the eight possible control input bits, bit 0 is available for deactivation (control signal Transducer Disable ).

• The sensor cyclically transfers (minCycleTime = 0.5 ms) data packets at a baud rate of 230.4 kBaud

(COM3).

• The process data and parameters along with the corresponding system commands are described in the

IO Device Description (IODD file).

Ä Download the IODD file from the Internet ( www.leuze.com

).

Ä Unpack the ZIP archive to a separate directory. The supplementary HTML files contain a description in tabular form in German and English.

• You can configure the sensor using the Sensor Studio

configuration software (see chapter 8 "Connecting to a PC – Sensor Studio").

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Starting up the device

IO-Link system commands

Value hex / dec

0x41 / 65

0x42 / 66

0x4B / 75

0x4C / 76

0x80 / 128

0x82 / 130

0xA0 / 160

0xA1 / 161

0xB0 / 176

0xB1 / 177

0xB2 / 178

0xC3 / 195

0xC4 / 196

0xD4 / 212

Command Description

Teach SP1

Teach SP2

Custom Teach: window

Custom Teach: SP1a

Teach the far setpoint.

Teach the near setpoint.

Teach both setpoints.

Teach the alternative far setpoint.

Device Reset

Restore Factory Settings

(Factory Reset)

ClearDsUploadFlag

Restart operating software.

Reset non-volatile user settings to factory settings.

ParamDownloadStore

Teach Analog Max

Teach Preset to Offset

Delete the DsUpload flag.

Delete identifier "Accept sensor configuration in master" again.

Counterpart to command 0xA1 ParamDownload-

Store.

After reconnecting, the sensor configuration is again overwritten by the configuration in the data storage of the master.

Set the DsUpload flag.

End sensor configuration to indicate acceptance in data storage (set DsUpload flag) and, if applicable, trigger data storage via event.

Activation HighPrio Activation of the sensor (laser or measurement on) with higher priority than the Transducer Disable bit in PDout.

If activate or deactivate was selected as the input function, the input has priority over all other requirements.

Deactivation HighPrio Deactivation of the sensor (laser or measurement on) with higher priority than the Transducer

Disable bit in PDout.

If activate or deactivate was selected as the input function, the input has priority over all other requirements.

ActivationDeactivation Std-

Prio

Resetting of priority to 176 or 177. Transducer

Disable in PDout is effective again.

Only input functionalities have a higher priority.

Teach Analog Min Teaching of distance of minimum analog output value (AnalogRangeMin).

Teaching of distance of maximum analog output value (AnalogRangeMax).

Teaching of offset to achieve predefined preset value (Offset=Preset TP).

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Starting up the device

7.4.2

IO-Link process data

Process data format

• Profile: SSP4 (Mixed Measuring Sensor, Switching Measuring Sensor, Disable function)

• M-sequence TYPE_2_V

• PDIn (Sensor -> Master): 32 bits (PDI32.INT16_INT8, 8 status bits, 8 scale bits, 16 measurement value bits)

• PDOut (Master -> Sensor): 8 control input bits (PDO8.BOOL1)

Status bits

Tab. 7.3:

Bit

Value

Status bits

7

T

6

0

5

W

4

S

3

M

2

0

1

SSC2

0

SSC1

0

M

S

SSC1

SSC2

T

W

Reserved, unassigned bits (bit 2 and bit 6) are 0; initialization state is also 0

1: measurement operation

0: during start-up, teaching, deactivation

1: signal OK, reception signal is sufficient for measurement value output

Internally calculated switching states

1: Active

Toggle bit; toggles after a measurement value change due to a trigger edge

1: warning; e.g., weak reception signal

During measurement operation, the measurement value is susceptible to interference. The cause for the warning can be read out in ExtStatus Bit2:4.

Scale bits

Resolution and scaling:

• Measurement value*10 Scale [m]

• Standard resolution (Std): 0xFC = -4 (1/10 mm)

• High resolution (HR): 0xFB = -5 (1/100 mm)

Tab. 7.4:

15

Scale bits

14 13 12 11 10 9 8

Measurement values

16-bit measurement value: distance to the object – between lower and upper limit of the measurement range – in mm. Maximum -32000 … +32000.

31 30 29 28 27 26 25 24 23 22 21 20 19 18 17 16

Special values:

• No measurement values (No Measurement Data): 32764

• Upper limit of the measurement range exceeded (Out of Range (+)): 32760

• Lower limit of the measurement range exceeded (Out of Range (-)): -32760

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Starting up the device

Control inputs

Tab. 7.5:

Bit

Value

Di

R

Control input bits

7

R

6

R

5

R

Control signal Transducer Disable .

1: Deactivation of the laser

Reserved

4

R

3

R

2

R

1

R

0

Di

7.5

Serial interface

The ODS9L….8/LFH and ODS9L….8/LQZ sensors are equipped with one switching output and one serial interface, which is implemented either as an RS 232 interface (ODS9L….8/LFH) or as an RS 485

(ODS9L…8/LQZ) interface. The transmission rate can be set to between 2400 baud and 230 kbaud. For configuration and service purposes, the devices with a serial interface have an IO-Link interface on pin 4

(see chapter 7.4 "IO-Link interface").

Serial transmission is performed initially with 1 start bit, 8 data bits and 1 stop bit without parity. The port parameters can be adjusted via the menu or via IO-Link.

For the transmission of the measurement values, 4 different transmission modes may be configured (see chapter 7.5.1 "Measurement value output for various transmission types"):

• ASCII measurement value

(6 bytes)

• 14-bit measurement value

(2 bytes, ODS 96 compatible)

• 16-bit measurement value

(3 bytes, ODSL 30 compatible)

• 24 bit measurement value

(4 bytes, measurement value + status byte)

• Decimal measurement value

• Remote control operation

7.5.1

Measurement value output for various transmission types

Object distance

No evaluable reception signal

Below measurement range

Within measurement range

Above measurement range

Device error

Measurement value output

65535 (signal too weak)

Distance value (linearity undefined)

Linear distance value

Distance value (linearity undefined)

65334 (signal error)

65333 (laser error)

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Starting up the device

Measurement value ASCII transmission

Transmission format: MMMMM<CR>

MMMMM or

= 5-digit measurement value in 0.1 mm (with 0.1 mm output resolution)

= 5-digit measurement value in 0.01 mm (with 0.01 mm output resolution)

<CR> = ASCII character "Carriage Return" (x0D)

Measurement value = 14 bit

Output resolution 0.01 mm / 0.1 mm (type‑dependent)

A: Low byte (bit 0=0) B: High byte (bit 0=1)

7

A

0

0

7

B

0

1

Measurement value = 16 bit

Output resolution 0.01 mm / 0.1 mm (type‑dependent)

A: Low byte (bit 0=0, bit 1=0) B: Middle byte (bit 0=1, bit 1=0) C: High byte (bit 0=0, bit 1=1)

7

0

A

0

0

7

0

B

0

1

7 x x

C

0

1 0

Measurement value = 24 bit

Output resolution 0.01 mm / 0.1 mm (type‑dependent)

A: Low byte (bit 0=0, bit 1=0) B: Middle byte 1 (bit 0=1, bit 1=0) C: Middle byte 2 (bit 0=0, bit 1=1)

D: High byte (bit 0=1, bit 1=1) M bit: Measurement value bit S bit: Status bit

A B

7 0

0 0

7 0

0 1

7

C

0

1 0

7

D

0

1 1

Decimal measurement value

Transmission format: (-)MMMMM<CR>

(-) = Minus character with negative value

MMMMM

<CR>

= Measurement value (length depends on output resolution and value)

= "Carriage Return"

Remote control operation

ASCII transfer of the measurement value on request and control of the ODS

4 digits (4 bytes) or 5 digits (5 bytes).

Fig. 7.8: Serial transmission formats ODS 9

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Starting up the device

7.5.2

Commands for remote control operation

For remote-control operation ( Serial > Com Function > Remote control ), a device address can be set between 0 and 14 ( Serial > Node Address ). In this operating mode, the ODS 9 sensor with serial interface only responds to commands from the control. The following control commands are available:

Measurement value query, 4 digits

Command

Sensor response

Byte no.

0

Sensor address

0x00 to

0x0E

" * "

(0x2A)

-

1

ASCII address tens

-

2 ones

-

3

-

4

-

5

-

6

ASCII distance measurement value

1000's

The response time of the sensor is maximum 15 ms.

100's tens ones

Measurement value query, 5 digits

Command

Sensor response

"

Byte no.

0

" * "

(0x2A)

* "

(0x2A)

1

ASCII address"0

9","A…

D"

ASCII address"0

9","A…

D"

2

"M"

(0x4D)

3

"#"

(0x23)

-

4

-

5

ASCII distance measurement value

10000's 1000's

The response time of the sensor is maximum 15 ms.

100's tens

-

6 ones

-

-

7

"#"

(0x23)

7

Status

-

-

-

8

8

"#"

(0x23)

Execute preset measurement

Command

Sensor response

Byte no.

0

" * "

(0x2A)

1

ASCII address"0

9","A…

D"

" * "

(0x2A)

ASCII address"0

9","A…

D"

2

"P"

(0x52)

Status

3

"#"

(0x23)

"#"

(0x23)

-

-

4

-

-

5

The response time of the sensor is maximum 2 s.

Detailed information on Preset/Offset: see chapter 3.4.6 "Application menu"

-

-

6

-

-

7

-

-

8

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Starting up the device

Activate sensor

Command

Sensor response

"

Byte no.

0 1

" * "

(0x2A)

* "

(0x2A)

ASCII address"0

9","A…

D"

ASCII address"0

9","A…

D"

2

"A"

(0x41)

Status

3

"#"

(0x23)

"#"

(0x23)

The response time of the sensor is maximum 15 ms.

-

-

4

Deactivate sensor

Command

Sensor response

"

Byte no.

0 1

" * "

(0x2A)

* "

(0x2A)

ASCII address"0

9","A…

D"

ASCII address"0

9","A…

D"

2

"D"

(0x44)

Status

3

"#"

(0x23)

"#"

(0x23)

The response time of the sensor is maximum 15 ms.

-

-

4

Activate/deactivate sensor via the transducer disable bit

Command

Sensor response

Byte no.

0

" * "

(0x2A)

1

ASCII address"0

9","A…

D"

" * "

(0x2A)

ASCII address"0

9","A…

D"

2

"I"

(0x49)

Status

3

"#"

(0x23)

"#"

(0x23)

The response time of the sensor is maximum 15 ms.

-

-

4

-

-

-

-

5

-

5

-

5

-

-

-

-

6

-

7

-

-

-

-

6

-

7

-

6

-

7

-

-

-

-

8

-

8

-

8

Leuze electronic GmbH + Co. KG ODS 9 56

Starting up the device

5

4

3

2

Status byte (bitwise processing)

Bit no.

7 (MSB)

6

1

0 (LSB)

Meaning

0 (reserved)

0: OK

1: other error (e.g. no measurement possible or preset unsuccessful)

1

0 (reserved)

0 (reserved)

0: sensor activated

1: sensor deactivated

0: signal OK

1: no or too low signal

0: laser OK

1: laser interference

7.5.3

Termination of data lines

The ODS9L….8/LQZ sensor features a combined transmitter and receiver component that can transmit serial data according to the RS 485 standard.

This standard defines some basic rules that should be followed in order to achieve the most reliable data transmission:

• The data lines A and B (which correspond to the pins Tx+ and Tx-) are connected to a characteristic impedance of Z

0

 ≈ 120 Ω  via a 2-wire twisted pair cable.

• The top and end of the data line are terminated with a 120 Ω resistor. The ODS9L….8/LQZ sensor does not have an internal bus termination.

• The RS 485 bus participants are wired in a linear bus topology, i.e., the data line is fed from one bus participant to the next. Stub cables are to be avoided or to be kept as short as possible.

• The RS 485 specification assumes an inactive potential difference of UAB ≥ 200 mV between the data lines. A bus termination in the form of a voltage divider should be implemented in order to maintain this level. Usually, it is connected to the RS 485 coupling module of the control. If the coupling module does not include a bus termination with voltage divider, the following circuit may be used.

+24 V

A (Tx+)

15 k Ω

B (Tx-)

470 Ω

1,5 k Ω

Fig. 7.23: Voltage divider for the RS 485 bus termination

Leuze electronic GmbH + Co. KG ODS 9 57

Starting up the device

NOTICE

Make sure that the bus bias level (UAB ≥ 200 mV) is observed.

The RS 485 specification permits transmission rates in the megabit range for up to 32 participants. The

ODS9L….8/LQZ is designed for a typical data rate of 9,600 baud, 2,400 baud… 230 kBaud can be configured. In practice, this means that the strict requirements regarding the bus termination and the cabling are

"softened" for a few bus participants.

7.5.4

Operation on the fieldbus and Ethernet

ODS9L….8/L sensors can be connected to fieldbuses or Ethernet using the IO-Link masters from the

Leuze product range (see chapter 13.3.2 "Accessories – IO-Link master").

Leuze electronic GmbH + Co. KG ODS 9 58

Connecting to a PC – Sensor Studio

8 Connecting to a PC – Sensor Studio

The Sensor Studio configuration software – in combination with an IO-Link USB master – provides a graphical user interface for the operation, configuration and diagnosis of sensors with IO-Link configuration interface (IO-Link devices), independent of the selected process interface.

Each IO-Link device is described by a corresponding IO Device Description (IODD file). After importing the

IODD file into the configuration software, the IO-Link device connected to the IO-Link USB master can be operated, configured and checked – conveniently and in multiple languages. An IO-Link 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 IO-Link device at a later time.

NOTICE

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

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 IO-Link 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 sensor 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: IO-Link USB master

• Device DTM: I/O-Link Device/IODD for ODS 9

NOTICE

Configuration changes only via the control!

Ä Always perform the configuration for process mode via the control and, if applicable, the interface.

In process mode, only the configuration conveyed via the control is active. The configuration changes made via Sensor Studio are only active in process mode if they were previously transmitted 1:1 to the control.

Procedure for the installation of the software and hardware:

Ä Install the Sensor Studio configuration software on the PC.

Ä Install the driver for the IO-Link USB master on the PC.

Ä Connect the IO-Link USB master to the PC.

Ä Connect the OSD 9 (IO-Link device) to the IO-Link USB master.

Ä Install IO-Link device DTM with IODD file for ODS 9 in the Sensor Studio FDT frame.

Leuze electronic GmbH + Co. KG ODS 9 59

Connecting to a PC – Sensor Studio

8.1

System requirements

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

Tab. 8.1: System requirements for Sensor Studio installation

Operating system

Computer

Graphics card

Windows 7 or higher

• Processor type: 1 GHz or higher

• USB interface

• CD-ROM drive

• Main memory

• 1 GB RAM (32-bit operating system)

• 2 GB RAM (64-bit operating system)

• Keyboard and mouse or touchpad

DirectX 9 graphic device with WDDM 1.0 or higher driver

Additionally required capacity for Sensor Studio and

IO-Link device DTM

350 MB hard drive memory

64 MB main memory

NOTICE

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

8.2

Installing Sensor Studio configuration software and IO-Link USB master

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 installation software on the

Internet at www.leuze.com

.

8.2.1

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.

NOTICE

On delivery, the device is configured for HID operation (Human Interface Device). The device can thereby be operated directly via the Windows application.

Leuze electronic GmbH + Co. KG ODS 9 60

Connecting to a PC – Sensor Studio

8.2.2

Installing the Sensor Studio FDT frame

NOTICE

First install the software!

Ä Do not yet connect the IO-Link USB master 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 (IO-Link USB master) and the device DTM (IO-Link device ODS 9) in the existing FDT frame.

Ä Start your PC with administrator privileges and log on.

Ä Download the Sensor Studio configuration software from the Internet: www.leuze.com

> Products

> Measuring sensors > Optical distance sensors > ODS 9 > (Device model) > Downloads > Software/driver

Ä Copy the file into a suitable folder on your hard drive and unpack the zip file.

Ä Start the SensorStudioSetup.exe

file and follow the instructions on the screen.

ð The installation wizard installs the software and places a shortcut on the desktop ( ).

8.2.3

Installing drivers for IO-Link USB master

Ä Select the IO-Link USB Master installation option and follow the instruction on the screen.

ð The installation wizard installs the software and places a shortcut on the desktop ( ).

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Connecting to a PC – Sensor Studio

8.2.4

Connecting IO-Link USB master to the PC

The sensor is connected to the PC via the IO-Link USB master (see chapter 13.3.1 "Accessories – PC connection").

Ä Connect the IO-Link USB master to the plug-in power supply unit or the mains supply.

NOTICE

Included in the delivery contents of the IO-Link USB master is a USB interconnection cable for connecting the PC to the IO-Link USB master as well as a plug-in power supply unit and a short description.

The mains supply of the IO-Link USB master via the plug-in power supply unit is only activated if

IO-Link USB master and PC are connected via the USB interconnection cable.

Ä Connect the PC to the IO-Link USB master.

2

3

1

1

2

3

IO-Link USB master

Plug-in power supply unit

PC

Fig. 8.1: PC connection via the IO-Link USB master

ð The wizard for searching for new hardware starts and installs the driver for the IO-Link USB master on the PC.

8.2.5

Connecting IO-Link USB master to the sensor

Prerequisites:

• IO-Link USB master and PC are connected via the USB interconnection cable.

• IO-Link USB master is connected to the mains supply with the plug-in power supply unit.

NOTICE

Connect the plug-in power supply unit for IO-Link USB master!

Ä To connect the sensor, the plug-in power supply unit must be connected to the IO-Link USB master and the mains supply.

The voltage supply via the USB interface of the PC is permissible only for IO-devices with a current consumption of up to 40 mA at 24 V.

NOTICE

Included in the delivery contents of the IO-Link USB master is a USB interconnection cable for connecting the PC to the IO-Link USB master as well as a plug-in power supply unit and a short description.

The mains supply of the IO-Link USB master via the plug-in power supply unit is only activated if

IO-Link USB master and PC are connected via the USB interconnection cable.

Ä Connect the IO-Link USB master to the M12 connection of the sensor via an interconnection cable.

The interconnection cable is not included in the delivery contents and must be ordered separately if

needed (see chapter 13.3.1 "Accessories – PC connection").

Leuze electronic GmbH + Co. KG ODS 9 62

Connecting to a PC – Sensor Studio

8.2.6

Installing the DTM and IODD

Prerequisites:

• The sensor is connected to the PC via the IO-Link USB master.

• FDT frame and driver for IO-Link USB master are installed on the PC.

Ä Select the IO-Link device DTM (User Interface) installation option and follow the instructions on the screen.

ð The installation wizard installs the DTM and the IO Device Description (IODD) for the sensor.

NOTICE

DTM and IODD for all IO-Link devices currently available from Leuze are installed.

8.2.7

Importing device descriptions

Proceed as follows to manually add device descriptions (DTM and IODD):

Ä Unpack the downloaded ZIP file (e.g. Leuze_ODS9-20180209-IODD1.1.zip

) to a suitable directory on your hard drive, e.g. ODS9-20180209-IODD1.1

.

Ä Copy the directory ODS9-20180209-IODD1.1

to the following directory:

C:\ProgramData\Leuze\IO-Link Device DTM\IO-Link DDs

Ä Open the Sensor Studio configuration software. If a project is already open, close it using the menu command File > New .

Ä Update the DTM general catalog: Tools > DTM catalog management :

Click the [Find installed DTMs] button.

Mark the required DTMs in the Known DTMS list and move them to the Current DTM catalog list ([>] button). You need at least the DTM for the used sensor and the communication DTM IO-

Link USB Master 2.0.

Ä Click [OK] to exit DTM catalog management.

8.3

Starting the Sensor Studio configuration software

Prerequisites:

• The sensor has been mounted (see chapter 5 "Mounting") and connected (see chapter 6 "Electrical connection") correctly.

• The Sensor Studio

configuration software is installed on the PC (see chapter 8.2 "Installing Sensor Studio configuration software and IO-Link USB master").

• The sensor is connected to the PC via the IO-Link USB master (see chapter 8.2 "Installing Sensor Studio configuration software and IO-Link USB master").

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

ð The mode selection of the project wizard is displayed

Ä Select the Device selection without communication connection (offline) configuration mode and click on [Next].

ð The Project Wizard displays the device selection list of the configurable devices.

Leuze electronic GmbH + Co. KG ODS 9 63

Connecting to a PC – Sensor Studio

Fig. 8.2: Device selection

NOTICE

The figure shows a similar sensor.

Ä Select the connected sensor according to the configuration in the device selection and click on [Next].

ð The device manager (DTM) of the connected sensor starts with the offline view for the Sensor Studio configuration project.

Ä Establish the online connection to the connected sensor.

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

In the Sensor Studio FDT frame, click on the [Online parameters] button ( ).

ð The IO-Link USB master synchronizes with the connected sensor and the current configuration data and measurement data are displayed in the device manager (DTM).

Leuze electronic GmbH + Co. KG ODS 9 64

Connecting to a PC – Sensor Studio

Fig. 8.3: Configuration project: Sensor Studio device manager (DTM)

NOTICE

The figure shows a similar sensor.

Ä The menus of the Sensor Studio device manager (DTM) can be used to change or read out the configuration or process data of the connected sensor.

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 [?]

8.4

Short description of the Sensor Studio configuration software

This chapter contains information and explanations on the individual menu items and adjustment parameters of the Sensor Studio configuration software and the device manager (DTM) for the laser distance sensor.

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 has the following main menus and functions:

• IDENTIFICATION

(see chapter 8.4.2 "IDENTIFICATION function")

• CONFIGURATION

(see chapter 8.4.3 "CONFIGURATION function")

• PROCESS

(see chapter 8.4.4 "PROCESS function")

• DIAGNOSIS

(see chapter 8.4.5 "DIAGNOSIS function")

NOTICE

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

Leuze electronic GmbH + Co. KG ODS 9 65

Connecting to a PC – Sensor Studio

8.4.1

FDT frame menu

NOTICE

You can find complete information on the FDT frame menu in the online help system. Select the

Help menu item in the menu [?].

8.4.2

IDENTIFICATION function

Fig. 8.4: IDENTIFICATION function

NOTICE

The figure shows a similar sensor.

• Device information, e.g., designation, order no., serial number, etc.

• Information on the IO-Link parameters of the connected sensor, e.g., Device ID, cycle time, etc.

• Assignment of the teach-in functions to the power levels defined by the duration of the teach signal

Optional for devices with input (see chapter 7.1 "Teaching and configuring output functions", )

• Technical description of the connected sensor

• Data sheet of the connected sensor

Leuze electronic GmbH + Co. KG ODS 9 66

Connecting to a PC – Sensor Studio

8.4.3

CONFIGURATION function

Fig. 8.5: CONFIGURATION function

NOTICE

The figure shows a similar sensor.

• Configuration of measure mode

• Configuration of analog output functions

• Configuration of digital switching inputs/outputs

• Configuration of local control

• Configuration of data storage

• Configuration of serial interface

Deactivation property

This function is used to determine whether, when the sensor is deactivated, the most recent measurement value to be output is frozen or whether the sensor does not output a measurement value at all. The switching outputs which are dependent on the measurement value, and an analog output (if present) behave according to the output measurement value.

• Frozen: The most recent measurement value to be output is frozen (default).

Fig. 8.6: Display: Measurement value frozen in the case of deactivation

• No Signal: No measurement value is output

Leuze electronic GmbH + Co. KG ODS 9 67

Connecting to a PC – Sensor Studio

Fig. 8.7: Display: No measurement value in the case of deactivation

Input function: Activating/deactivating sensor via switching input

The following options are available:

• Activation: Voltage on the multifunction input activates the sensor

• Deactivation: Voltage on the multifunction input deactivates the sensor

• No function

• Teach

• Trigger rising

• Trigger falling

NOTICE

If you select the Activation or Deactivation input functions, the functions via IO-Link have no effect ( Transducer Disable and the associated system commands).

Data storage

The current status of the DSUpload (Data Storage Upload) flag stored in the non-volatile memory of the sensor is displayed, provided that cyclical updating is active.

The following functions for changing the DSUpload flag are available:

• Set DSUpload Flag : Local configuration changes at the sensor remain saved when an IO-Link master is connected, and are transferred to the IO-Link master.

• Clear DSUpload Flag : Local configuration changes at the sensor are overwritten when an IO-Link master is connected.

Local configuration lock

This button is used to disable the sensor. Operation via the OLED display and keyboard is only possible after deactivation of the lock via IO-Link or using the configuration software Sensor Studio .

Leuze electronic GmbH + Co. KG ODS 9 68

Connecting to a PC – Sensor Studio

8.4.4

PROCESS function

NOTICE

The figures show a similar sensor.

Fig. 8.8: PROCESS function

• Visualization of the distance value and the states of the digital output signals.

Text-based display of the current values:

Fig. 8.9: PROCESS function – distance value and status

Leuze electronic GmbH + Co. KG ODS 9 69

Connecting to a PC – Sensor Studio

• Graphical display of the recorded measurement values, including the history:

Fig. 8.10: PROCESS function – display of the measurement values

Fig. 8.11: PROCESS function – display of the measurement values

Leuze electronic GmbH + Co. KG ODS 9 70

Connecting to a PC – Sensor Studio

8.4.5

DIAGNOSIS function

Fig. 8.12: DIAGNOSIS function

NOTICE

The figure shows a similar sensor.

• Information on the current device status

• Restart or reset of the device to factory settings

• User commands

• Set or clear the DSUpload flag

Set DSUpload Flag : Local configuration changes at the sensor remain saved when an IO-Link master is connected, and are transferred to the IO-Link master.

Clear DSUpload Flag : Local configuration changes at the sensor are overwritten when an IO-Link master is connected.

• Activate or deactivate the sensor

8.4.6

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 via the Sensor Studio project wizard ( ).

Leuze electronic GmbH + Co. KG ODS 9 71

Troubleshooting

9 Troubleshooting

9.1

What to do in case of failure?

After switching on the sensor, display elements (see chapter 3.3 "Indicators and operational controls") as-

sist in checking the proper function and troubleshooting.

In case of error, you can determine the error from the LEDs and the indicators on the display. With the error message you can determine the cause of the error and initiate measures to rectify it.

Ä Switch off the system and leave it switched off.

Ä Analyze the cause of the error using the operation indicators, the error messages and with the help of the Sensor Studio configuration software, DIAGNOSTICS menu, and rectify the error.

NOTICE

Contact Leuze subsidiary/customer service.

Ä If you are unable to rectify a fault, contact the Leuze branch responsible for you or call the

Leuze customer service (see chapter 11 "Service and support").

9.2

LED indicators

You can use the LED indicators to ascertain general causes of errors (see chapter 3.3.1 "LED indicators").

Tab. 9.1: Green LED – causes and measures

Error display

Off

Possible cause

• No supply voltage connected to the sensor

• Hardware error

Measures

• Check supply voltage

• Contact Leuze customer service (see chapter 11 "Service and support")

Tab. 9.2: Orange LED – causes and measures

Error display

Off

Possible cause

No object detected in the switching range

Measures

Position object in the configured switching range

9.3

Indicators in the display

You can use the status indicators in the display to ascertain general error causes; (see chapter 3.3.3 "Display").

Tab. 9.3:

Display

Display indicators – causes and measures

Possible cause

Warning message, e.g., weak reception signal

No object detected or reception signal too weak

Measures

Optimize object alignment

Position object in the measurement range

Signal failure

Sensor defective

If the icon is displayed continuously: contact

Leuze customer service (see chapter 11 "Service and support")

The current measurement value is less than the lower limit of the analog output distance

Change the setting for the lower limit of the

measurement range (see chapter 3.4.4 "Analog_Output menu")

The current measurement value is greater than the upper limit of the analog output distance

Change the setting for the upper limit of the

measurement range (see chapter 3.4.4 "Analog_Output menu")

Leuze electronic GmbH + Co. KG ODS 9 72

Care, maintenance and disposal

10 Care, maintenance and disposal

10.1

Cleaning

If there is dust on the device:

Ä Clean the device with a soft cloth; use a cleaning agent (commercially available glass cleaner) if necessary.

NOTICE

Do not use aggressive cleaning agents!

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

Use of improper cleaning agents can damage the lens cover.

10.2

Servicing

The device does not normally require any maintenance by the operator.

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

Ä

For repairs, contact your responsible Leuze subsidiary or Leuze customer service (see chapter 11 "Service and support").

10.3

Disposing

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

Leuze electronic GmbH + Co. KG ODS 9 73

Service and support

11 Service and support

Service hotline

You can find the contact information for the hotline in your country on our website www.leuze.com

under

Contact & Support .

Repair service and returns

Defective devices are repaired in our service centers competently and quickly. We offer you an extensive service packet to keep any system downtimes to a minimum. Our service center requires the following information:

• Your customer number

• Product description or part description

• Serial number and batch number

• Reason for requesting support together with a description

Please register the merchandise concerned. Simply register return of the merchandise on our website www.leuze.com

under Contact & Support > Repair Service & Returns .

To ensure quick and easy processing of your request, we will send you a returns order with the returns address in digital form.

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 this 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 7021 573-199

Leuze electronic GmbH + Co. KG ODS 9 74

Technical data

12 Technical data

12.1

Measurement data

Tab. 12.1: Measurement ranges

ODS9…-100…

ODS9…-200…

ODS9…-450…

ODS9…-650…

ODS9…-1050…

50 mm … 100 mm

50 mm … 200 mm

50 mm … 450 mm

50 mm … 650 mm

50 mm … 1050 mm

6 % … 90 % diffuse reflection

Measurement against diffusely reflective objects

Tab. 12.2: Accuracy

Resolution ODS9…-100…

ODS9…-200…

ODS9…-450…

ODS9…-650…

ODS9…-1050…

Temperature deviation

(in % of measurement value)

Accuracy

(in % of measurement value)

ODS9…-100…

ODS9…-200…

ODS9…-450…

ODS9…-650…

ODS9…-1050…

• Diffuse reflection: 6 % … 90 %

• Measure mode: Standard

• At 20 °C after warmup time of 20 minutes

0.01 mm

0.01 mm of 50 mm … 100 mm

0.1 mm of 100 mm … 200 mm

0.1 mm

0.1 mm

0.1 mm

≤ ±0.02 %/K

±0.5 %

±0.5 % of 50 mm … 100 mm

±1 % of 100 mm … 200 mm

±1 %

±1 %

±1.5% of 200 mm … 1000 mm

Leuze electronic GmbH + Co. KG ODS 9 75

Technical data

1

PP

PP

\

PP

[

\

2

2 mm y

0,25 mm

D

200 mm x y

3

6,5 mm

4,5 mm y

0,5 mm a

450 mm 650 mm y a

A x y

Gray area

1

2

3

Larger measurement distances

Fig. 12.1:

Measurement range

Measurement distance

Maximum measurement error (+/-)

Permissible measurement deviation

Accuracy up to 100 mm, a = 0.5% of the measurement value

Accuracy up to 200 mm, a = 1% of the measurement value

Accuracy up to 450 mm and 650 mm, a = 1% of the measurement value

Accuracy up to 1050 mm, a = 1.5% of the measurement value

ODS 9 measurement accuracy

Leuze electronic GmbH + Co. KG ODS 9 x

76

Technical data

Tab. 12.3: Reproducibility

3 sigma

Diffuse reflection

Reproducibility available

12.2

Optical data

Tab. 12.4: Optical data

Light source

ODS9…-100/-200/-450/-650…: 0.15 mm

ODS9…-1050…: 0.6 mm

6 % … 90 %

At 20 °C after warmup time of 20 minutes

Wavelength

Pulse duration

Max. output power (peak)

Light spot

Laser diode

ODS9L1: Laser class 1 acc. to IEC 60825-1:2014

ODS9L2: Laser class 2 acc. to IEC 60825-1:2014

650 nm (red, visible)

22 ms

ODS9L1...: 0.78 mW

ODS9L2...: 1.8 mW approx. 1 mm x 1 mm

12.3

Indicators and operational controls

Tab. 12.5: Indicators/operational controls

Display

Keyboard

LEDs on the control panel

OLED display

Two buttons

PWR: status LED, green

SSC: LED for object detection/switching output, orange

Leuze electronic GmbH + Co. KG ODS 9 77

Technical data

12.4

Electrical data

Tab. 12.6: Electrical equipment

Operating voltage U

B

Supply voltage

Residual ripple

Open-circuit current

Switching output

Signal voltage high/low

Analog output

ODS9L1.8/LA…

IO-Link

18 V … 30 V DC incl. residual ripple

≤ 15 % of U

B

≤ 50 mA

Push-pull switching output

NOTE!

The push-pull switching outputs must not be connected in parallel.

≥ (U

B

- 2 V) / ≤ 2 V

• Voltage

1 V … 10 V / 0 V … 10 V

R

L

≥ 2 kΩ

• Current (factory setting)

4 mA … 20 mA, R

L

≤ 500 Ω

COM3 (230.4 kBaud), Vers. 1.1

min. cycle time: 0.5 ms

SIO is supported

9,600 baud (factory setting, baud rate configurable) Serial interface

RS 232 / RS 485

12.5

Mechanical data

Tab. 12.7: Mechanical data

Housing

Optics cover

Weight

Connection type

Plastic

Glass, ODS9Lx.8/xxx.P: plastic

85 g

M12 connector, turnable by 90°

12.6

Environmental data

Tab. 12.8: Environmental data

Ambient temperature (operation)

Ambient temperature (storage)

Protective circuit

VDE protection class

Degree of protection with correctly screwed-on M12 connector

Standards applied

-20 °C … +50 °C

-30 °C … +70 °C

Transient protection

Polarity reversal protection

Short circuit protection for all outputs

III

IP67

IEC 60947-5-2

Leuze electronic GmbH + Co. KG ODS 9 78

Technical data

12.7

Dimensioned drawings

A

B

C

D

E

F

G

H

J

All dimensions in mm

Reference edge for the measurement

Optical axis

M12 connector, turnable by 90°

Receiver

Transmitter

Display

Yellow LED – switching output state

Green LED – operating state

Control buttons

Fig. 12.2: Dimensioned drawing ODS 9 with M12 connector

Leuze electronic GmbH + Co. KG ODS 9 79

Technical data

12.8

Dimensioned drawings: Accessories

all dimensions in mm

Fig. 12.3: Dimensioned drawing mounting system BTU 300M-D10/D12/D14 all dimensions in mm

Fig. 12.4: Dimensioned drawing mounting bracket BT 300M.5

Leuze electronic GmbH + Co. KG ODS 9 80

Order guide and accessories

13 Order guide and accessories

13.1

Type overview ODS 9

Optical distance sensors, measurement against object

NOTICE

The types given in the overview below can change or be supplemented with further models.

NOTICE

If the IO-Link interface is not used, all device models are equipped with a switching output on pin 4.

50136953

50137824

50137823

50137822

50137821

50138326

50138327

50138328

Tab. 13.1: Type overview ODS 9

Part no.

50137820

Part designation

ODS9L2.8/LAK-100-M12

50137819 ODS9L2.8/LAK-200-M12

50137818

50137817

50146971

50137816

50137815

50137813

ODS9L2.8/LAK-450-M12

ODS9L2.8/LAK-650-M12

ODS9L1.8/LAK-1050-M12

ODS9L2.8/LA6-100-M12

ODS9L2.8/LA6-200-M12

ODS9L2.8/LA6-450-M12

ODS9L2.8/LA6-650-M12

ODS9L2.8/L6X-100-M12

ODS9L2.8/L6X-200-M12

ODS9L2.8/L6X-450-M12

ODS9L2.8/L6X-650-M12

ODS9L2.8/LFH-100-M12

ODS9L2.8/LFH-450-M12

ODS9L2.8/LQZ-100-M12

Leuze electronic GmbH + Co. KG ODS 9

Description

100 mm max. measurement distance, IO-Link interface, analog output, multifunction input

200 mm max. measurement distance, IO-Link interface, analog output, multifunction input

450 mm max. measurement distance, IO-Link interface, analog output, multifunction input

650 mm max. measurement distance, IO-Link interface, analog output, multifunction input

1050 mm max. measurement distance, IO-Link interface, analog output, multifunction input

100 mm max. measurement distance, IO-Link interface, analog output, second multifunction input

200 mm max. measurement distance, IO-Link interface, analog output, second multifunction input

450 mm max. measurement distance, IO-Link interface, analog output, second multifunction input

650 mm max. measurement distance, IO-Link interface, analog output, second multifunction input

100 mm max. measurement distance, IO-Link interface, switching output

200 mm max. measurement distance, IO-Link interface, switching output

450 mm max. measurement distance, IO-Link interface, switching output

650 mm max. measurement distance, IO-Link interface, switching output

100 mm max. measurement distance, IO-Link interface, serial interface RS 232

450 mm max. measurement distance, IO-Link interface, serial interface RS 232

100 mm max. measurement distance, IO-Link interface, serial interface RS 485

81

Order guide and accessories

Part no.

50138329

50138330

50141322

Part designation

ODS9L2.8/LQZ-450-M12

ODS9L2.8/LQZ-650-M12

ODS9L1.8/LAK-450-M12

Description

450 mm max. measurement distance, IO-Link interface, serial interface RS 485

650 mm max. measurement distance, IO-Link interface, serial interface RS 485

450 mm max. measurement distance, IO-Link interface, switching output

13.2

Accessories – cables and connectors

NOTICE

Ä To avoid electromagnetic interference, use shielded connection cables when using the analog output.

Tab. 13.2: Cables and connectors

Part no.

50020501

Part designation

KD 095-5A

50020502 KD 095-5

50132077

50133842

50133855

KD U-M12-5A-V1-020

KD U-M12-5W-V1-020

KD S-M12-5A-V1-020

50132079

50133802

50133856

KD U-M12-5A-V1-050

KD U-M12-5W-V1-050

KD S-M12-5A-V1-050

50132080

50133803

50133857

KD U-M12-5A-V1-100

KD U-M12-5W-V1-100

KD S-M12-5A-V1-100

50130692 KD U-M12-4W-P1-020

50130728 KD S-M12-4W-P1-020

50133839 KD U-M12-5A-P1-020

Leuze electronic GmbH + Co. KG ODS 9

Description

M12 connector (cable socket), user-configurable, 5pin, axial

M12 connector (cable socket), user-configurable, 5pin, angled

Connection cable with M12 connector on one end,

5-pin, M12, axial, length 2 m, PVC sheathing

Connection cable with M12 connector on one end,

5-pin, M12, angled, length 2 m, PVC sheathing

Shielded connection cable with M12 connector on one end, 5-pin, M12, axial, length 2 m, PVC sheathing

Connection cable with M12 connector on one end,

5-pin, M12, axial, length 5 m, PVC sheathing

Connection cable with M12 connector on one end,

5-pin, M12, angled, length 5 m, PVC sheathing

Shielded connection cable with M12 connector on one end, 5-pin, M12, axial, length 5 m, PVC sheathing

Connection cable with M12 connector on one end,

5-pin, M12, axial, length 10 m, PVC sheathing

Connection cable with M12 connector on one end,

5-pin, M12, angled, length 10 m, PVC sheathing

Shielded connection cable with M12 connector on one end, 5-pin, M12, axial, length 10 m, PVC sheathing

PUR connection cable with M12 connector on one end, 4-pin, M12, angled, length 2 m

Only for devices ODS9…/L6X…

Shielded PUR connection cable with M12 connector on one end, 4-pin, M12, angled, length 2 m

Only for devices ODS9…/L6X…

PUR connection cable with M12 connector on one end, 5-pin, M12, axial, length 2 m

82

Order guide and accessories

Part no.

50132536

50133859

50133862

50133841

50133860

50115049

Part designation

KD U-M12-5W-P1-020

KD S-M12-5A-P1-020

KD S-M12-5W-P1-020

KD U-M12-5A-P1-050

KD S-M12-5W-P1-050

K-DS M12A-MA-5P-3m-S-PUR

Description

PUR connection cable with M12 connector on one end, 5-pin, M12, angled, length 2 m

Shielded PUR connection cable with M12 connector on one end, 5-pin, M12, axial, length 2 m

Shielded PUR connection cable with M12 connector on one end, 5-pin, M12, angled, length 2 m

PUR connection cable with M12 connector on one end, 5-pin, M12, axial, length 5 m

Shielded PUR connection cable with M12 connector on one end, 5-pin, M12, axial, length 5 m

PUR connection cable with RS232 to MA 2xxi modular connection units, M12 connector on one end, 5pin, A-coded, axial, 2nd connection JST ZHR, 12pin, length 3 m

13.3

Other accessories

Tab. 13.3: Other accessories

Part no.

50117251

50117252

50117253

50118543

Part designation

BTU 300M-D14

BTU 300M-D12

BTU 300M-D10

BT 300M.5

Description

Mounting system for mounting on rods Ø 14 mm

Mounting system for mounting on rods Ø 12 mm

Mounting system for mounting on rods Ø 10 mm

Mounting bracket

13.3.1 Accessories – PC connection

Tab. 13.4: Accessories - PC connection configuration

Part no.

Part designation

IO-Link USB master V2.0

50121098

50110126

Description

SET MD12-US2-IL1.1 + accessories IO-Link USB master V2.0

Plug-in power supply unit (24 V/24 W) with international adapters

High-speed USB 2.0 connection cable; USB A to

Mini-USB

Data carrier with software, drivers and documentation

K-DS M12A-M12A-4P-2m-PVC Interconnection cable with M12 connector on both ends, 4-pin, M12, axial, length 2 m, PVC sheathing

Leuze electronic GmbH + Co. KG ODS 9 83

Order guide and accessories

13.3.2 Accessories – IO-Link master

Tab. 13.5: Accessories – IO-Link master

Part no.

50131482

Part designation

MD748i-11-42/L5-2222

50131483 MD248i-12-8K/L4-2R2K

50131484 MD758i-11-42/L5-2222

50131485 MD258i-12-8K/L4-2R2K

Description

IO-Link master

Interfaces: PROFINET

IO-Link master for top-hat rail mounting in switch cabinet

Interfaces: PROFINET

IO-Link master

Interfaces: EtherNet/IP, Modbus TCP

IO-Link master for top-hat rail mounting in switch cabinet

Interfaces: EtherNet/IP, Modbus TCP

Leuze electronic GmbH + Co. KG ODS 9 84

EC Declaration of Conformity

14 EC Declaration of Conformity

The optical distance sensor systems of the ODS 9 series were developed and manufactured in accordance with the applicable European standards and directives.

The manufacturer of the product, Leuze electronic GmbH + Co. KG in D-73277 Owen, possesses a certified quality assurance system in accordance with ISO 9001.

Leuze electronic GmbH + Co. KG ODS 9 85

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