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NEW: The MTC3 R2

Faster, Smarter, Stronger - The Future of Electric Motor Testing

  • New, modern operator software
    Intuitive design, easy operation, and optimized workflows for maximum efficiency
  • 3 times faster surge test for partial discharge testing
    Noticeable cycle time savings due to significantly reduced test times
  • Doubled impulse current during the surge test
    Higher power reserve and improved test validity even under demanding conditions
  • Extended measurement range for insulation resistance test
    More flexibility and a wider application space
  • Improved measurement accuracy and reproducibility
    More precise measurement results and more stable test processes for the highest quality demands
  • Completely new partial discharge measurement with pC calibration
    Modernized PD technology – including pC calibration capability, based on IEC 60270 – for precise, reliable, and standard-compliant test results
  • Comprehensive self-test
    Higher system safety through automated diagnostics and reliable fault detection
  • New housing variants
    The right solution for every environment: robust console housing, 19″ rolling container, and 19″ control cabinet

MTC3 Universal winding test systems

The high-end test systems for electric Motor production

MTC3 winding test systems are fully automatic high-end test devices for various winding goods in development, production, and test laboratories.

The MTC3 test systems are freely configurable according to your requirements and provide high-end technology for complex test tasks. Using the latest technology, you can Test coils, stators, electric Motors, generators, and transformers from 0.1 W to 500 MW.

The performance potential of the MTC3 test systems is based on the interplay of all strengths: user-friendliness, measurement accuracy, memory concept – all components are perfectly coordinated based on innovative technologies.

Key Facts:

  • Test of stators, rotors, transformers, and inductors
  • Surge test up to 15 kV
  • Fully built-in partial discharge test according to IEC 61934 and DIN EN 60034-18-41
  • Resistance measurement in four-wire technology with temperature compensation
  • Insulation resistance test with automatic PI measurement
  • Inductance test | LCR inductance measurement bridge
  • High voltage test AC according to VDE standard
  • Partial discharge HVAC
  • Insulation test DC
  • Precise four-wire resistance measurement with temperature compensation down to the µΩ-space
  • Rotating field test with static probe
  • Expansion to up to 150 connections
  • Temperature sensor test for 1, 2, 3 … x sensors

The MTC3 – Winding test without limit

As one of the first test equipment manufacturers, SCHLEICH consistently relied on the integration of a PC for measurement value processing, test sequence control and data storage for MTC3 test systems at an early stage. This many years of system experience of our technicians and engineers provides the operator with a sophisticated test system with extensive software. Many useful software tools are part of our standard scope of delivery.

Our fully automatic MTC3 test systems reliably and quickly Test your windings for potential insulation faults thanks to the patented SCHLEICH surge test. After the device under test is fully connected, the Test proceeds with automatic switch-over of Connections and test methods. The MTC3 evaluates each individual specified test step. At the end of the entire test sequence, a clear and reproducible GO or NO-GO result is provided.

SCHLEICH develops and produces its own hardware and software. The software and memory are based on the latest proven Microsoft® technology. Our diverse innovations consistently set technological standards for modern test systems running on Windows®. The system provides the operator with a clear, well-structured display of the test – while extensive input and configuration options are available to the setup technician.

Quality assurance is also given due attention. For this purpose, comprehensive statistical evaluation is built-in to the test system, leaving virtually no wishes unfulfilled. Furthermore, you can document the tested quality for your customers with a variety of different protocol printouts.

The MTC3 test systems are manufactured according to your requirements based on the SCHLEICH MODULAR CONCEPT. The necessary different test methods can be assembled as needed from the pool of available test methods.

Whether manual or automatic single, double, or multiple stations – with or without a test cover or test table – or testing in automatic production lines, the MTC3 is the optimal solution. The application versatility of the MTC3 is limitless. Precisely due to the enormous flexibility of its hardware and software, the test system is cost-effectively and precisely tailored to your specific tasks.

The Base Device

The base device includes all digital, display, and measurement technology, as well as the standard built-in test methods.

In doing so, we consistently rely on well-known and proven Microsoft® technologies that are familiar from private and professional use and make the operation of the test device easy.

Clear displays support safe operation. Your employees learn how to use the test device intuitively and quickly. The display during testing is reduced to the essentials; only relevant data is shown.

Standard Built-in Test Methods

  • Surge test 6, 12 or 15 kV – depending on the selected device
  • Insulation resistance test 6, 12 or  15 kV DC
  • High voltage test 6, 12 or 15 kV DC 
  • visual test

 

Further optional test methods:

  • Partial discharge test with surge test 
  • High voltage test AC up to 6 kV 
  • Partial discharge test with high voltage AC 
  • Resistance test from µΩ to 100 kΩ
  • Room temperature compensation
  • Sense of rotation test of the rotating field 

The Standard Equipment

Function and technology

  • High-performance industrial PC

  • SQL or ACCESS memory without limits

  • Clear screen display without information overload
  • Microsoft® Windows Operating System

  • Powerful test plan editing

  • Automatic logbook and management of test plan history
  • Built-in plausibility checks for all parameters

  • Fast, precise measurement technology

  • Extensive configuration options

  • Script editor for maximum flexibility

  • Save test plans and test results securely

  • Storage locally or on the network

  • Monitoring of switching cycles according to Industry 4.0

  • Remote maintenance and remote calibration via remote access
  • Numerous languages

Communication

  • USB interfaces on the front and rear

  • RS232 and LAN/Ethernet automation interface

  • Digital I/O interface

  • Result outputs for GO and NOGO

  • Interfaces for barcode scanners and label printers

  • CAN bus

 

Optional automation interfaces:

 

  • EtherCAT
  • PROFIBUS
  • PROFINET
  • and more

safety

  • Start input
  • Two-circuit safety inputs according to EN 50191
  • Built-in emergency stop and connection for external emergency stop
  • Connections for warning and result lamps
  • Safety and warning messages
  • Result output for GO and NOGO
  • Operating hours and switching cycle counter with maintenance notes
  • Status outputs

The standard configuration

The MTC3 is available in various standard configurations. The compilation is carried out according to the desired application.

Starting from the base device with standard equipment, you determine the number of required winding Connections and temperature sensors. You select additional test methods from the available pool.

Should no suitable solution for your application be listed here, we will gladly put together a custom solution for you based on the SCHLEICH MODULAR CONCEPT. More is always possible!

The SCHLEICH MODULAR CONCEPT

Custom test systems

Based on the SCHLEICH MODULAR CONCEPT, the MTC3 test systems provide a variety of combination options for diverse safety and functional test methods. Your custom test task determines the test methods you select from a large pool of testing possibilities.

Whether one test method or a multitude – you determine the configuration! For example, your MTC3 can be configured as a specialized high voltage test device with many test outputs. For more complex test tasks, you might need a combination of all possible test methods.

The SCHLEICH MODULAR CONCEPT makes it possible to assemble exactly the test device you need. And not just by installing various individual test devices into an oversized test rack, but by integrating all tests into a compact modular housing. The housing size results from the type and scope of the various tests.

The flexibility of the MTC3 test systems is evident not only in the housing but also in the number and arrangement of the test device's Connections. With the 19" container and the 19" industrial cabinet, the measurement connections can be attached to all sides of the test device. This allows us to meet all spatial requirements.

Every test device incorporates experience from many thousands of installations. This experience is consistently implemented at SCHLEICH, with passion and without compromise.

This is “customer based technology”.

Configuration examples

Your custom requirement defines the housing size

The test devices provide a variety of test options in just one housing, despite their very compact design. The combination of test methods according to the SCHLEICH MODULAR CONCEPT therefore also includes a modular housing concept.

Depending on the requirement, your application can be housed in a compact desktop device, a 19” rack-mount device, a 19” container, or a 19” industrial cabinet. For the professional and secure installation of the test technology, we use precisely fitting housing components from renowned German manufacturers as well as components from our own production.

The automatic test method switch-over and Mechatronics

Test technology from SCHLEICH has proven itself thousands of times in daily use. It is among the most reliable products on the market and provides high utility value through excellent performance and accuracy.

To save time, all Connections of the device under test can be connected using a contacting adapter. Subsequently, the test device performs the intended tests fully automatically without manual intervention. This is achieved by the SCHLEICH-typical automatic test method switch-over.

For devices under test with multiple Connections, it is more economical to connect all Connections of the device under test immediately to the test device. The test device then performs all tests fully automatically between all Connection points. This approach reduces the required cycle rate and thus the cost of a test. The switch-over between the various Connections is achieved by flexible switching matrices.

To minimize the time required for the connection of a device under test with many connections, we implement the frequently requested double or multi-station systems. In this setup, loading and discharge occur in one station while testing simultaneously in the other stations. In this way, very economical results can be achieved even with complex and extensive tests.

Test method switch-over

Depending on the type and scope of the test methods, we provide a variety of switch-overs. These to ensure a fast and automatic change between the different test methods. Since the voltage differences between the test methods can be very large, safety is paramount for the switch-overs. A Resistance test with 3 V is switched to the device under test just as reliably as a high voltage test with 6000 V. For the protection of your employees and the device under test. And without compromise! Therefore, for switch-overs and matrices, we only use high-quality components proven tens of thousands of times, either from our own production or from renowned manufacturers.

Matrices

We provide the appropriate relay matrix for almost every task. The matrices differ in the number of Connections and the level of the TEST VOLTAGE to be switched. A matrix must switch 6000 V just as safely and reliably disconnect as millivolt signals. Our engineers developed the matrices precisely for this purpose. The matrices are designed for two- and four-wire applications. They can be daisy-chained to increase the number of Connection points as desired. Matrices with more than 100 Connection points are not uncommon. The same applies to matrices as to test method switch-overs: only the best quality is used.

Station switch-over

Instead of using two or more test devices, station switch-overs can represent an economical alternative, for which we also set the highest safety requirements. While testing is running in one test station, the other test station is loaded or discharged. In doing so, the operator inevitably touches terminals and Connection leads. Touching the terminals and Connection leads can pose an electrical hazard. Therefore, the measurement leads to the stations where no testing is currently taking place must be safely disconnected. Furthermore, it is recommended to additionally earth the Connections to the device under test.

Mechatronics | Script Control

In addition to hardware, the software also offers enormous flexibility. With the built-in script commands, you can implement additional PLC functionalities within the device. Similar to a PLC, inputs can be queried, outputs can be set, and logical operations can be created.

The economic advantage lies in the direct control of mechatronic functional sequences. You can switch valves, query limit switches, evaluate measured values yourself, and much more. The test device is thus able to generate additional functional sequences before, during, and after the test. This is ideal for custom test setups or for integration into automated manufacturing.

The Test Methods

surge test

Thanks to the excellent evaluation methods, even the smallest errors do not remain hidden from the MTC3. The combinable evaluation methods enable a detailed and very precise error analysis. Misinterpretations are thereby reduced to a minimum.

The parameterization for the signals to be evaluated is almost fully automatic. The test device independently selects the most favorable settings for the signal to achieve maximum sensitivity. Additionally, the MTC3 features automatic voltage correction. The TEST VOLTAGE is always optimally set depending on the respective device under test. These functions significantly facilitate fault diagnosis and enable a well-founded statement about the device under test.

The evaluation is based on a previously stored reference signal or on an automatic comparison of all three phases with each other.

Tolerance band

The tolerance band is one of the simpler evaluation methods, where an envelope curve is placed around the signal. The surge wave must be within a defined tolerance band.

Error Area | EAR

The error area is the difference area between two signals (surge waves). The area difference between the reference surge wave and the currently measured surge wave is automatically determined, and the deviation in % is displayed.

Phase Comparison

In phase comparison, all three phases of an electric motor are automatically compared with each other and displayed in a diagram. This allows for direct determination and evaluation of symmetry. This method is typically used in the electric motor repair space.

Reference Comparison

Comparison to a reference is possible if a good device under test has been stored previously. This method is typically used in production.

Correlation | Patented Evaluation Method

The correlation between the reference surge wave and the currently measured surge wave is automatically determined, and the difference in % is displayed.

Peak-to-Peak | Patented Evaluation Method

In the Peak-to-Peak method, the test voltage is incrementally increased. If an increased deviation occurs from one step to the next, the test is terminated. The step-by-step deviation is displayed in %.

Partial Discharge Test during surge test

The Partial Discharge Test (PD test) serves to detect quality defects in windings that cannot be identified by conventional high voltage test or surge test alone. Although no complete breakdown has yet occurred in the insulation, parts of the insulation already show partial breakdowns. These partial discharges must be measured.

To detect partial discharge, a PD antenna or a PD measuring coupler built-in into the test leads is used. The remaining partial discharge measurement technology is built-in in the MTC3.

The high-frequency measurement and filter technology makes the test system extremely interference-resistant. The Partial Discharge Test is therefore ideally suited for use in production.

The PD test on a stator winding is performed with a robust measuring antenna.

For the PD test on a completely enclosed electric motor, a specialized line coupler is used. Both measurement variants can be used individually, together, or in combination.

AC High Voltage Test

The AC high voltage test serves to verify the electrical insulation capability and dielectric strength of the air and leakage paths on winding goods according to applicable national and international regulations. The focus is on the insulation system between the electric motor phases and the laminated core.

The test voltage is automatically switched by the MTC3 to the desired test connections. These are the same test connections that are also used for other test methods. The switch-over is fully automatic within the test device. Therefore, manual re-clamping of the test connections during an ongoing test is not required.

The level of the test voltage, the maximum permissible current, and further test parameters are freely programmable.

The following insulation paths can be tested fully automatically:

  • All phases against laminated core
  • Individual phases against the laminated core (possible only with an unconnected machine)
  • Phase against phase (possible only with an unconnected machine)
  • Temperature sensor against winding
  • Temperature sensor to laminated core
  • Automatic switching of bridges between the temperature sensor leads

Partial discharge test at AC high voltage

The partial discharge test (PD) serves to test the quality of winding goods. The test is performed in conjunction with the AC high voltage test. The aim of the test is to detect quality defects in windings that are not detectable with conventional high voltage testing. These include, for example, the following defects:

  • Enameled copper wire is in contact with the laminated core (at the winding head or in the slot)
  • Missing or defective phase separator
  • Missing or defective slot insulation
  • Defective impregnation process (inclusion of air bubbles)

The assessment of the insulation system is significantly simplified, as the test runs fully automatically in combination with the AC high voltage test. The measurement of the switch-on and switch-off voltage (PDIV & PDEV) is also possible fully automatically in production operation.

The MTC3 runs through a voltage ramp profile in which the test voltage is gradually increased. As soon as partial discharges occur, this voltage is stored as PDIV.

The test program then reduces the voltage until the partial discharges have completely disappeared. This voltage is determined as PDEV (switch-off voltage) and also stored.

To enable the fastest possible testing in production, the intensity of the partial discharge can also be determined at a fixed test voltage. In this way, a very quick distinction can be made between "GO" and "NO GO".

Resistance test

The Resistance test enables the fully automatic testing of the phase resistances of the winding.

The test is automatically switched by the MTC3 to the desired test connections. These are the same test connections that are also used for the other test methods. The switch-over takes place fully automatically in the test device. Manual re-clamping of the test connections during the ongoing test is therefore not necessary.

The evaluation is based on a set value specification or on the determination of the symmetry (scattering range) of all three phases relative to each other.

Temperature compensation corrects the influence of the winding temperature on the measurement result. For this purpose, the winding temperature is determined with the help of a room temperature sensor, a radiation pyrometer, or with the help of the temperature monitor integrated into the winding.

The measured resistance values are automatically compensated to a freely adjustable base temperature.

Insulation Resistance Test

The insulation resistance test is specialized for testing winding goods and is part of the standard equipment of the MTC3. During the test, the test voltage is automatically switched by the MTC3 to the desired test connections. These are the same test connections that are also used for the other test methods. The switch-over takes place fully automatically in the test device. Manual re-clamping of the test connections during the ongoing test is therefore not necessary.

The level of the test voltage, the maximum permissible current, and other test parameters are freely programmable. The following insulation paths can be tested fully automatically:

  • All phases against laminated core
  • Individual phases against the laminated core (possible only with an unconnected machine)
  • Phase against phase (possible only with an unconnected machine)
  • Temperature sensor against winding
  • Temperature sensor to laminated core
  • Bridging of temperature sensors

Rotating field test

With the help of the rotating field test, the rotating field of a stator can be measured and evaluated. The test is performed non-contact with a rotating field probe, which is inserted into the stator or mounted on a device under test holder.

The rotating field is generated by a switched-on current-limited LV rotating field, which simulates the three-phase power supply of the electric motor. With this test, wiring errors in production can be detected even before the assembly of the electric motor.

Unwired stators can be automatically connected in star or delta. Thus, almost any stator type can be tested and evaluated with the MTC3.

The test software

The software is based on the Microsoft Windows® operating system. The optimized user interface enables user-friendly test execution, test plan creation, printing of test protocols, and statistical evaluation of tests.

In automatic mode, all tests are run fully automatically. Measurement results are continuously displayed and evaluated during the test. The clear GO/NO-GO display visualizes the automatic evaluation.

The test sequence is processed by simply adding or removing test steps. This allows the test sequence to be optimally adapted to different requirements. Each individual test step can be quickly edited and modified by double-clicking on the respective test step.

The comprehensive built-in operator management ensures that only authorized personnel can make these changes. Additional work instructions make the MTC3 the perfect ISO 9001-compliant test equipment.

The Input

To edit test steps, a single mouse click on the test step is sufficient to change parameters and adjust tests. The use of a cumbersome test plan editor is not required. Settings are displayed to every operator but can only be changed by authorized personnel. All changes are saved in the history management and the logbook.

The Data

The MTC3 saves test plans and test results either locally on the hard drive or in an SQL memory on the network. We recommend networking the testing devices due to the following advantages:

  • All testing devices on the network access a common memory for test plans and test results.
  • All test devices test according to the same specifications.
  • A central memory for all test systems in a global network makes it easier for you to ensure the quality of your products worldwide. Regardless of location.
  • At the same time, you gain insight into all test results worldwide from one or more locations.
  • Through easy connection to ERP, PPS, or CAQ systems, the test systems can be optimally integrated into factory planning and production control.

Statistics

Meaningful statistics can be calculated based on a large number of test results. Therefore, during the development of the MTC3, great importance was placed on sensible and well-thought-out storage of test results over a long period. Freely configurable search filters enable every operator to quickly and easily find the relevant data in the memory. Individual evaluations or summaries of test results over a longer, freely definable period, followed by statistical evaluation, are possible.

Trend plots and Gaussian distributions provide clear information about the qualitative state of production. The MTC3 can display your data on a daily, weekly and monthly basis save and evaluate and display them on an order- or batch-by-order basis. With the integrated, extensive export functions, data from the memory in order to transfer them to other databases or further process them in Excel® format. This gives you the opportunity to also carry out your own evaluations.

The memory can be based on SQL or ACCESS®. For larger data volumes or for use in networks, we recommend using Microsoft® SQL.

The MTC3 in the Network

Test plans and test results can be stored locally or on a central server. This ensures high data security and optimal data exchange between different test systems.

The MTC3 operates optimally in all network infrastructures. This feature provides the ideal platform for collecting, managing, analyzing, and distributing information.

Proven and widely used Microsoft® technologies are used as memory.

The testing devices can also be ideally networked with ERP, PPS, and CAQ systems. For all requirements, we provide extensively tested and customer-optimized standard solutions.

Network Failure

Each test device automatically saves local copies of the current server test plan memory to continue working in the event of a network failure.

In the event of a network failure, local test plans are used, and the test results are stored locally on the test device.

After the network connection is restored, the test device automatically transfers the test results back to the server, so that the server memory is up-to-date again.

The MTC3 within the complex global network infrastructure

The Windows®-based MTC3 testing devices can be operated in arbitrarily complex network topologies. You can install any number of testing devices at various company locations worldwide, all working with a central server memory for test plans and test results. Our extensive experience in the global networking of our testing devices provides you with the assurance of being able to provide the same product quality regardless of the production location.

Naturally, all test plan, printing, labeling, and statistics tasks can also be run on the individual testing devices. However, to avoid disrupting the production process, it is advisable for networked systems to use separate workstations for these tasks. These workstations operate with the same software as the testing devices to achieve the highest possible ease of use.

The label templates can also be stored centrally on a server. The testing device loads the appropriate label according to the respective test plan and transfers the data to a thermal transfer printer after the test. The labels can also be designed according to your specifications.

In the event of remote maintenance (via Remote Access), we can temporarily dial into your network if required and switch directly to the individual testing device. We then see the screen content of your testing device directly at our location. With your permission, we also have access to the mouse and keyboard. These operations are, of course, only carried out in consultation with you and require your separate access authorization.

Automation

Fully Automatic MTC3 Test Systems in Production

The MTC3 test systems can be excellently integrated into automated production. Automation, in particular, is a special strength of SCHLEICH due to its company structure.

Beyond software and electronics, automation also encompasses mechanics and mechatronics, as well as systems engineering. These services are provided by SCHLEICH's mechanical design department, our CNC machining centers, and mechanical assembly.

MTC3 built-in into your existing automation

You have an automated production and want to integrate the MTC3 into your production. For this purpose, the test device can be completely remotely controlled by a PLC via interfaces. If required, test plans and test parameters can also be transferred to the test device. The feedback of the test results is provided both qualitatively and quantitatively.

MTC3 built-in into a SCHLEICH test system

We supply test systems consisting of the test device, the contacting of the device under test, and the complete mechanical automation. Everything is turnkey from a single source. All automation components are developed, designed, manufactured, assembled, and commissioned in-house at SCHLEICH.

Often, the MTC3 not only performs the testing but also handles the sequence control of the automation. For a higher degree of automation, a PLC is used as an alternative. We address customer-specific needs and requirements very thoroughly.

The result is a solution precisely tailored to the task.

Data exchange in automation

The MTC3 is ideally suited for integration into automation systems. For this purpose, it offers an enormous variety of different interfaces for communication with various automation systems.

Typical requirements are:

  • Control of complete processes and components
    – Processing of inputs, signal generators, scanners, RFID readers …
    – Setting outputs for e.g. cylinders …
    – Control of electric Motors and drives …
  • Exchanging Start, Stop, and result signals
  • Direct communication with a PLC control
  • Bidirectional communication
    – Receiving test plans and test parameters
    – Sending qualitative and quantitative test results
    – Sending raw data
  • Communication with robots, cameras …

These tasks are fulfilled by our configurable standard software modules, which reduce the effort for integrating the MTC3 into automation systems to a minimum.

Data exchange with IT systems

Data exchange between MTC3 and other IT systems is carried out via proven solutions.

Typical applications:

  • Importing production orders from ERP systems
  • Automatic dynamic generation of test plans from production orders and bills of material
  • Automatic dynamic generation of test plans from composite sub-test plans
  • Automatic generation of serial numbers from production order data
  • Reporting of results to ERP systems
  • Receiving label data for label printing
  • Communication with specialized systems in the automotive industry

Traceability in the production chain

Traceability provides you with the ability to obtain clear and complete information about the entire manufacturing process, even retrospectively. In the event of quality problems during production or after delivery, traceability offers you the option to respond in a targeted manner.

We provide responses to the following questions:

  • Which end products, assemblies, and components are affected?
  • Which customers have the end products, assemblies, and components?
  • Which assemblies and components are built into the end product?
  • When, where, and by whom were which parts processed in the manufacturing process?
  • Who manufactured or supplied the assemblies and components?
  • Which test results are available for the individual assemblies and the end product?

A prerequisite for the response to these questions is the unique identification of each component, assembly, and final product with a number or code. Additional information such as customer number, supplier number, batch number, etc., may be required for improved traceability and search functionality.

MTC3 test systems are capable of recording these markings and additional information, e.g., via barcode input, and saving them together with the test results, test date, and operator name in the memory of the test device or on the network. Based on this information, it can later be traced where, when, and by whom components were processed or delivered in the manufacturing process.

All Facts at a Glance

Customized Winding Test Systems
Test Technology in Perfection

  • Test of stators, rotors, transformers, and inductors
  • Surge test up to 15 kV
  • Fully built-in partial discharge test according to IEC 61934 and DIN EN 60034-18-41
  • Resistance measurement in four-wire technology with temperature compensation
  • Insulation resistance test with automatic PI measurement
  • Inductance test | LCR inductance measurement bridge
  • High voltage test AC according to VDE standard
  • Partial discharge HVAC
  • Insulation test DC
  • Precise four-wire resistance measurement with temperature compensation down to the µΩ-space
  • Rotating field test with static probe
  • Expansion to up to 150 connections
  • Temperature sensor test for 1, 2, 3 … x sensors
  • Automated testing with automated GO/NOGO comparison
  • Fast, high-precision measurements using state-of-the-art DSP technology (Digital Signal Processor)
  • High-resolution measurement technology for all test methods
  • Freely programmable inputs and outputs
  • Switching matrixes for all types of test methods
  • PL e, SIL 3, Two-hand control Type III C, Cat. 4 safety circuit
  • High process safety
  • Built-in industrial PC with Windows®7 or Windows®10
  • Central memory for millions of test plans and test results – SQL server
  • Extensive statistical analyses – Trending, Gaussian distribution, FPY…
  • Traceability of all device under test components
  • Operator management
  • Configurable test protocol printing
  • Freely configurable label printing for thermal transfer printers
  • Multiple label printers controllable
  • Reading of any 1D and 2D barcodes
  • Remote control: RS232, PLC, Profibus, Profinet, CAN, DeviceNet, Ethernet, EtherCat, USB …
  • Full network connectivity
  • Data exchange with ERP and CAQ systems
  • Connection to MES systems
  • Optimal OEM prerequisites for easy integration into automated lines
  • Option for remote maintenance and remote calibration

Areas of application

The MTC3 is designed for a wide range of applications and can be precisely adapted to your needs through a variety of configurable options. You receive exactly the test system that optimally suits your daily work.

Manual Testing | Test station – Repair station – Laboratory

At a manual test station, testing can be started after the operator has inserted the device under test into the test system and connected the test connections.

The start of testing can then occur in various ways:

Testing with enforced contact protection

Testing begins after the protective cover has been closed.

Testing without mandatory contact protection

Testing is started by activating a two-hand start.

Testing without mandatory contact protection – Light curtain

The test is started by pressing a start button. The light curtain must not be interrupted during this process. A red warning lamp indicates that the device under test is under voltage and must not be touched. Additionally, result indicator lights can be installed at the workstation.

After the fully automatic test sequence, the MTC3 test system visually displays the test result.

Semi-automatic Testing | Manufacturing

Semi-automatic operation combines a fully automatic sequence with manual interventions. For example, the operator can place the device under test into a test nest and initiate the testing process.

The MTC3 or an additional PLC then controls all necessary cylinder movements to contact the device under test and automatically starts the test sequence.

Fully Automatic Testing | Series Production

When the MTC3 is built-in into a fully automatic production line or plant, testing is performed fully automatically without manual intervention. Typically, the MTC3 then operates in one of the two listed modes.

Mode 1:

The MTC3 is fully remotely controlled by a plant control system. The higher-level control system specifies all test parameters or selects the test sequence stored in the test system. Contacting and all mechanical processes are carried out by the plant control system. Once the plant control system has prepared the testing, it starts the MTC3. After completion of the testing, the MTC3 transmits the test results back to the plant control system.

Mode 2:

The MTC3 or an additional Simatic S7 PLC controls all mechanical sequences in the test cell. Additionally, the MTC3 communicates with a plant control system or an MES system.

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