Looking for training? Have questions?
Phone: Phone: 32 4111 000
CNC Department: Phone: 515 485 139
EMT-Systems training is conducted using the latest scientific advancements and modern teaching methods. It is conducted in laboratories and training rooms equipped with professional equipment and teaching aids.
Training is carried out in the form of technical workshops and lecture classes. Under the supervision of a trainer, participants have access to advanced equipment, devices, and systems used in the training. During the classes, numerous tasks and practical exercises are completed to help them acquire the necessary technical skills.
We offer 45 modern training studios, equipped with the necessary equipment to complete a given course topic, as well as a social area for refreshments and relaxation between training sessions. The company is located in Gliwice Science and Technology Centre CECHOWNIA, where the most modern companies focused on innovation and ultra-modern technical thought develop their activities.
Training rooms and laboratories, air-conditioned, large and spacious. Stations for students are expertly equipped. Each participant has access to computer stations with simulation software, the latest product catalogs, cross-sections of pneumatic components, well-equipped laboratories used to perform practical exercises.
Our training rooms and laboratories provide the opportunity work on industrial pneumatic components most popular manufacturers:
During practical sessions, we utilize a variety of training stations. Depending on the level of training, we provide the following equipment to our students:
The stations have a unique design, the only one in the country, allowing for exercises at various levels of advancement. Their equipment includes::
The pneumatic systems synthesis training stations also include the following modules:
The stations feature a unique design, the only one in the country, that allows for exercises at various skill levels. Their equipment includes:
During training, we also demonstrate how to use a leak detector in pneumatic systems. Our tool is the Leakshooter – an ultrasonic leak detector with a built-in camera.
It allows for the detection of leaks in any pressurized gas. It is also suitable for negative pressure (vacuum) systems. The camera allows for precise location of the leak thanks to a color-changing indicator. A photo can be taken at the leak location and then downloaded to a computer for further use.
During training we also use unique teaching elements and components:
In addition to open training sessions held at our headquarters, we also conduct numerous PNEUMATICS and ELECTROPNEUMATICS courses at our clients' workplaces. These training sessions are characterized by:
We have a fleet of vehicles and mobile kits for basic training and self-assembly. Their well-thought-out design and specially designed functionality allow for full-fledged training outside of the EMT-Systems Industrial Pneumatics Laboratory.
Training rooms and laboratories, air-conditioned, large and spacious. Stations for students are expertly equipped. Each participant has access to computer stations with simulation software, the latest product catalogs, cross-sections of hydraulic components, well-equipped laboratories used to perform practical exercises.
Our training rooms and laboratories provide the opportunity work on industrial components and power hydraulic systems most popular producers – PARKER Hannifin, BOSCH Rexroth, Manuli Fluiconnecto, HYDAC and PONAR WADOWICE.
During practical sessions, we utilize a variety of training stations. Depending on the level of training, we provide the following equipment to our students:
The stations have a unique design, the only one in the country, enabling exercises at various levels of advancement:
The stations have a unique structure, the only one in the country, enabling exercises at various levels of advancement:
The practical lab demonstrates the classic operation of a hydraulic system. Thanks to the use of PMMA components, all channels, flows, and the interior of each component in the system are clearly visible during operation.
The station is controlled by an automation system with visualization on the operator panel. The system is used to thoroughly understand the operation of the hydraulic system, highlighting its strengths and weaknesses, and identifying the most likely failure points and ways to quickly resolve them. System components:
The power supply unit is entirely composed of industrial components. It is equipped with two independent pump systems, each consisting of gear pumps with different tooth profiles (straight and skew). Thanks to the transparent inspection hatch, plastic partition, and internal tank illumination, the power supply unit enables visual analysis of fluid flow during system startup and in steady state.
Station for mobile hydraulic drives and mobile control systems in proportional technology - Iqan control system - Parker Hannifin.
Mobile drive station, equipped with a drive system with a variable displacement pump and the Load Sensing (LS) control system.
During training we also use unique teaching elements and components:
Participants will learn and perform a series of exercises using professional industrial tools and measuring equipment. We provide:
The training station allows for the presentation of the following elements:
Our training labs are also equipped with an electronic catalog of hydraulic components available to trainees. Each component is marked with a barcode. Holding the barcode near an electronic reader instantly displays the catalog card for the component in question. This allows for quick component identification and access to detailed information, including specifications and technical parameters.
In addition to open training sessions held at our headquarters, we also conduct numerous hydraulics courses at our clients' workplaces. These training sessions are characterized by:
We have a fleet of cars and mobile sets for basic exercises and self-assembly of systems. Their well-thought-out design and specially designed functionality allow for full-fledged training outside of the EMT-Systems Power Hydraulics Laboratory.
We offer two spacious, air-conditioned training laboratories with a total area of 162 m². The student workstations are equipped with specialized teaching aids. Each participant has access to, among other things, the latest tool catalogs and measuring instruments and cutting tools.
Our training rooms provide the opportunity work on real industrial machine tools based on the most popular drivers – SINUMERIK and FANUC.
During practical classes, we utilize our own diverse machinery. Depending on the course level and group size, we provide the following fleet of machining machines to our students:
We also provide course participants with the ZOLLER "smile" tool for measuring and setting tools. Its robust, workshop-grade design allows it to be placed directly next to CNC machining centers.
Basic functions of the device:
Workshop equipment and additional equipment:
The training rooms and laboratories are air-conditioned, large, and spacious. The student workstations are expertly equipped. Participants have access to computer stations with simulation software, the latest product catalogs, diagnostic equipment, and real-world test facilities used for practical exercises.
During the training, we use laboratory models of rotating machines, allowing us to simulate the most common malfunctions:
The machine model can be used to demonstrate maintenance and corrective actions such as:
The machines are adapted to measure vibrations and ultrasound using piezoelectric and micromechanical (MEMS) accelerometers.
Students perform practical exercises using an analyzer, which allows for quick measurements, processing of measured signals and analysis of damage symptoms without the need to leave the machine being tested.
Standard device functions:
ADASH A4900 allows us to perform all basic vibrodiagnostic measurements during training:
The A4910 Lubri S kit is a maintenance tool used to monitor and control the lubrication process. It measures the bearing's current lubrication level and informs the operator when the lubrication status is optimal.
DDS (Digital Diagnostic Software) is an extremely functional and effective tool for archiving and analyzing vibration signal data, and therefore, the technical condition of a machine. It allows users to work with collected data via portable devices and an online system.
Students complete exercises and tasks using the FIXTURLASER GO Pro laser shaft alignment device. Device parameters:
Stainless steel washers for precise alignment of machine assemblies. The most commonly used standard washers are: A (55x50x15mm), B (75x70x23mm), and C (90x80x32mm). Tolerances according to DIN 2275, TT3.
During the training, students also perform data recording on real devices – hydraulic power supplies, pneumatic compressors.
During the training, we present the capabilities of continuous monitoring systems. The efector octavis system offers a wide range of machine and equipment diagnostics, from frequency-based diagnostics to creating long-term predictions based on trend lines.
The diagnostic electronics analyze up to four measurement points in real time, along with two additional process values. Switching outputs signal early and major alarms. A trend line can be displayed using the analog output. Additionally, alarms allow you to configure and monitor 12 different counters. Thanks to the integrated Ethernet interface, our devices can be used in advanced diagnostic systems.
We're showcasing the capabilities of SmartObserver software. It collects sensor data for trend analysis and historical recording. This allows us to demonstrate to our trainees what true predictive diagnostics is all about.
During training, we also demonstrate how to use an ultrasonic diagnostic detector. Our tool is the Leakshooter – an ultrasonic detector with a built-in camera.
The Fixturlaser SMC machine analyzer enables automatic diagnosis of machine faults – within a few minutes you can easily check the technical condition of a rotating machine.
When conducting training in the field of programming, diagnostics and communication of Siemens SIMATIC S7 – 300/400/1200/1500 logic controllers in the STEP 7 and TIA Portal environment as well as training in Safety Integrated safe controllers, we use modern logic controllers, PROFIBUS, AS-Interface, PROFINET network modules and components, diagnostic analyzers, operator panels, and the latest software used in industrial automation - these are the basic elements of the equipment of this laboratory.
The laboratory is also equipped with HMI operator panels and SCADA software enabling training on modern visualization systems. Another strong point among our training stations is electric drives, which allow us to conduct training on modern methods of controlling electric motors and introduce the concepts of economics and energy efficiency to the control field.
Each training participant has access to a personalized training station designed for learning industrial tasks and solutions based on the Siemens S7-300/400, S7-1200, and S7-200 controllers. The training station consists of a controller equipped with digital and analog input/output modules, connected to a digital and analog input and output signal simulator. Additionally, each controller is connected to an executive station containing a valve terminal, a manipulator, a set of actuator end-position sensors, and pulse buttons.
The training station includes:
The stations are equipped with various sensor sets (optical, inductive, capacitive, pressure, and flow) as well as frequency converters and electric motors. They enable exercises based on real-world components used in industrial automation.
Each participant has access to a personalized training station designed for learning industrial tasks and solutions based on PLCs. The training station consists of a controller equipped with digital input/output modules and input and output signal simulators, and a computer with STEP 7 software connected to the PLC.
Each participant of the training courses also has at their disposal an innovative training station containing:
The stations are equipped with various sensor sets (optical, inductive, capacitive, pressure, and flow) as well as frequency converters and electric motors. They enable exercises based on real-world components used in industrial automation.
Participants in the Programming and Designing with Distributed Safety course in Simatic Safety Integrated controllers have at their disposal: individual training stations equipped with various production equipment:
Additional elements of each set also include real performance equipment:
Training, except for the driver PLC-F and real executive elements, also uses OP operator panels for the presentation of alarms related to the security system and a mechanism for confirming security system errors via the panel in question.
An important executive element is also frequency converter (Sinamics G120) controlling an asynchronous motor equipped with built-in safety functions triggered both via its digital inputs and via the communication network.
Our laboratories have
modern equipment based on industrial devices supplied by recognized manufacturers.
The following devices are available during the TIA1500 training:
Siemens SIMATIC S7-1500 controller with a controller containing:
Basic executive position:

Advanced Executive Station:

The stations enable the implementation of exercises based on real elements used in industrial automation.
Each training participant has access to a training station designed for learning sequential programming based on the S7-300/400 controller. The training station consists of a controller equipped with digital and analog input/output modules, connected to a digital, analog input, and output signal simulator.
Additionally, each controller is connected to a basic or advanced execution station that contains real elements found in the industry.
Training station for each course participant:
SIEMENS S7-300 controller
Additionally, the controller is equipped with a controller containing:
Each participant has access to a dedicated training station designed for diagnostics, analysis, and servicing of S7-300/400 controllers. The training is conducted on a station consisting of a SIEMENS SIMATIC S7-300 CPU313C controller with an attached analog input module with diagnostic functionality. The station is configured to enable participants to generate PLC diagnostic situations: cutting power to the field portion of digital and analog modules, and generating hardware interrupts supported by binary and analog signals. The training station also includes an execution station, whose main advantage is its stepper motor and encoder.
The training program focuses on controller diagnostics. The following exercises are taught:
Participants in industrial network training, in particular PROFIBUS and PROFINET, have at their disposal multi-element sets that create an extensive network allowing them to perform tasks and exercises on a wide range of topics.
The main element of the station is a controller equipped with an appropriate communication port.
PROFIBUS and PROFINET in STEP V5.x
PROFINET in TIA
Other SIEMENS elements include:
Modules from other manufacturers for PROFIBUS and PROFINET networks:
Other elements of the stand:
The uniqueness of EMT-Systems network training lies in the number of diagnostic tools available to students. To quickly and efficiently diagnose faults and restore networks to proper functioning, training must be conducted using the most popular and best equipment available on the market.
Handheld Network Analyzer:
Stationary network analyzer:
Other tools:
Training is conducted in a modern industrial sensor laboratory, where participants have the opportunity to familiarize themselves with and commission industrial sensors and monitors from various manufacturers. Our wide range of automation equipment allows for individual work on theoretical problems, so each participant can independently connect and commission:
and many others found in our workshop. Thanks to this approach, participants reach many conclusions independently and, together with the trainer, translate their acquired knowledge into practical skills.
We conduct training at our Automation and Robotics Training Center in Gliwice. During training, we focus on robot programming and operation.
We use our own, professional robotic stations, which include six industrial robots:
Additionally, the stations are equipped with:
The design of the stations allows for a full understanding of the robots' work cycles and the principles of their operation.
We conduct training at our Automation and Robotics Training Center in Gliwice. During training in programming and operating ABB robots, we provide students with our own, educational robotic stations, which include three industrial robots equipped with the latest IRC5 series controllers:
ABB's smallest universal industrial robot, weighing 25 kg, can manipulate payloads up to 3 kg (up to 4 kg if the wrist is only vertical) with a reach of up to 580 mm. The IRB120 is a cost-effective and reliable solution that delivers significant increases in production efficiency at a low cost.

An industrial robot with a payload of up to 5 kg and a reach of 900 mm, suitable for handling, reloading, and machine tending tasks. Easy to deploy and use, with a compact design, reduced cycle times, and a large operating range.

We also provide our trainees with the versatile ABB IRB2400 robot. In industrial processes, it's most commonly used for arc welding, cutting, deburring, die-casting, gluing, sealing, grinding, polishing, machine operating, and handling. It utilizes the latest ABB IRC5 controller.

The IRB 2400 offers enormous potential for robotic process automation, where maintaining high process efficiency while maintaining position repeatability of 0.03 mm despite significant additional load. The robot can also operate in hazardous environments thanks to its IP54 protection class.
The robotic station is equipped with:
We conduct training at our Automation and Robotics Training Center in Gliwice. During training in KUKA robot programming and operation, we utilize our proprietary, professional robotic stations, which include three industrial robots:
The solution is used in production processes based on gluing, packaging, welding and conveying.

The robotic station is equipped with:
This allows you to quickly learn industry standards.
The robot is equipped with a KRC4 Compact controller and a SmartPad control panel.

The small, compact, lightweight (52 kg) robot is programmed in the same way as all KUKA industrial robots. It can be floor, wall, or ceiling mounted. Applications: : palletizing and manipulation, loading/unloading, packaging and commissioning, collecting assembly materials, operating machines, cutting, polishing.
The robot features the most compact support structure in its category, with a reach of 1420 mm. With good precision and repeatability of approximately 0,04 mm, the robot can demonstrate its capabilities even at high work rates. Despite its compact design, the robot has a flange payload of up to 10 kg, and the technological equipment distributed along the robot's arms can weigh up to 20 kg. The robot's exceptionally wide operating range combined with its compact design finds wide application in industry. The KRC4 Compact controller, along with the latest software, intuitively enables communication with other devices via PROFINET and PROFIBUS network modules.

The robotic station is equipped with:
We provide our students with compact, fast, 6-axis robots. Ideal for handling objects weighing up to 8 kg. The wrist design is suitable for use in a variety of environments, allowing for optimized performance and equipment maintenance.
In addition to open and closed training sessions held at our headquarters, we also conduct courses at our clients' workplaces. These training sessions are characterized by:
If you are interested in this form of training, please provide information about available robot models and controllers used.
To course participants
We offer training stations designed for learning industrial tasks and solutions based on electric drives using frequency converters. Each station consists of a frequency converter equipped with a digital and analog signal simulator. Each converter is connected to an asynchronous electric motor.
There are two types of stations available, based on different repeaters:
Parker AC 890 SD
Parameters of Siemens electric motors:
Parameters of SEW electric motors:
During the training, two additional Parker inverters (the larger of which is 11 kW) driving hydraulic power unit pumps can also be demonstrated. The installation can be loaded, allowing the operator to observe the drive system in real-world conditions.
The stations enable the implementation of exercises based on real elements used in industrial automation.
In addition to individual stations, the training also includes access to a hydraulics laboratory where frequency converters are used to drive hydraulic power unit pumps, allowing you to observe their operation and characteristics under real industrial loads.
The use of electric motors today has gone far beyond simply powering machines. Flexibility, control, and management are key, often without the aid of additional devices (such as a PLC). Optimizing energy consumption during nominal operation, as well as regenerating energy back into the grid when the equipment is decelerating, has also become crucial. Our training courses on drive technology cover all these aspects – from selecting drive system components, through commissioning and diagnostics, to optimization and economic considerations.
Our training laboratories provide the opportunity work on industrial laboratory equipment and components supplied by leading manufacturers – ZWICK/ROELL, Meusburger, IGUS.
During classes, we perform many practical exercises using a variety of training and laboratory stations.
We use the machine for functional component testing and standardized material testing. The machine is equipped with instrumentation for tensile, three-point bending, and compression testing, along with an extensometer for elongation measurement and a system table for setting up the machine and PC:
Plastometer for determining the melt flow rate by weight (MFR) and volume flow rate (MVR):
5J Pendulum Impact Tester for testing the impact strength of plastics. The testing system automatically identifies the installed pendulum, ensuring that measured values are always within the correct range and in accordance with the applicable test standard. This tester also features the world's first dual carbon fiber pendulum rod. This ensures high stiffness in the impact direction and significant mass concentration in the impact area. The electronics include a high-resolution digital encoder for accurate impact angle measurement. An RS232 interface is included for integration with laboratory management systems, along with a plug-and-play USB connection to a PC.
ZwickRoell's HDT/Vicat Standard devices are ideal for routine supply control, quality control, and training purposes. Advantages:
Features and benefits of the METTLER TOLEDO DSC 3 analyzer
Thermal analysis, particularly dynamic scanning calorimetry (DSC), is a fundamental method for studying the thermal properties of polymeric materials. It is used as a primary research method for:
All of these physical transformations are accompanied by significant changes in the material's properties, which influence its processing parameters. Knowledge of these changes is essential for correctly determining all processing parameters, such as injection molding, extrusion, thermoforming, and others.
The analysis allows for the determination of:
It is a complementary method to other research methods such as: viscosity – measurement of the melt flow rate.
Introducing laboratory classes using this device into the training program will significantly expand and complement knowledge about polymer materials, as modern construction materials that are fundamental in many fields of technology. Awareness of their properties allows for the targeted and effective use of many known and new polymer materials in all areas of engineering materials application.

Made of epoxy tooling systems, with a gelcoat, reinforced with glass fiber, with a surface area of up to 2 m², the mold allows for composite material production processes using infusion and vacuum bagging methods. The mold consists of two parts (upper and lower), sealed with a vacuum, equipped with nozzles for resin dispensing, and connected to a vacuum.


A single-sided aluminum mold allows for the production of composites using fiber pre-impregnation systems cross-linked at elevated temperatures, under vacuum and simultaneous overpressure.

Apollo Applicator
PHOENIX 5000 gun with wet-out nozzle, gelcoat and RTM injection capability, initiator flow alarm, resin pump on pins, extended-life pump seals, OptiSlave initiator feed system, hardened stainless steel pumps, easily accessible operating parameter controls, hardener tank, solvent tank, 5m hoses, drum trolley with mast and short boom.
Phoenix 5000 – Chopper
Internal mixing of ingredients, pneumatically controlled trigger, lightweight and ergonomic design, solvent-resistant handle, low emission, Anti-Clog grinder, quick seal replacement.
AV10 vacuum unit
The unit consists of an AT10 vacuum pump, a 10-liter buffer tank, a vacuum regulator, a mobile trolley with a technical table, and a vacuum collector with outlets with quick-connect plug-in connectors.

MA X2 series moisture analyzers are modern devices for quick analysis of various samples.
in terms of moisture, dry matter content and other product parameters.
The MA.X2 series features an innovative automatic drying chamber opening and closing system. The chamber can be opened and closed using motion sensors or a touchscreen button.
Automatic opening of the drying chamber:
The MA X2 series features a convenient user interface in the form of a color touch panel. Hotkeys, information fields, and
Labels, as programmable elements, allow for free configuration of the operator panel. The drying process can be carried out at any temperature
or be linked to a specific product using the databases below.

During training, we use analog hardness testers with operating stands for Shore A and D durometers and sets of 3 rubber Shore A and D durometer hardness standards.
During the practical part of the plastics identification session, each participant receives a set of samples and a list of materials to identify. The materials used for identification include: PE, PP-R, CPVC, PP, PVC, PVC, ABS, PC, PVC SP, PMA, PMMA, PET, PE, high-density PE, PA, POM, PTFE, POM-C, PEEK, PETP, and PU.
We use specially prepared test samples for all our activities. The primary goal in molding material testing is a high degree of reproducibility. This requires limiting the number of sample types:
The laboratory also features a wide range of finished plastic products, including automotive upholstery components, housings, plastic bearings, industrial joints, and automotive lamps. These components are used to demonstrate exemplary performance or manufacturing defects.
BOY 35 E This is a four-column, fully hydraulic, automatic injection molding machine with a dual-platen clamping system and a swing-out injection unit. Thanks to the optional EconPlast plasticizing system, the BOY 35 E injection molding machine's energy consumption is significantly reduced. Thanks to the high rigidity of the clamping system and the high efficiency of the injection unit, the machine is ideal for producing precision products with tight tolerances.
Five different injection units with screws ranging in diameter from 14 to 32 mm guarantee precise injection of parts weighing up to 69,5 g (PS). A wide range of thermoplastics, elastomers, silicones, and thermosets, as well as metal and ceramic powders (PIM technology), can be successfully processed on the BOY 35 E. The SP 45 injection unit allows for significantly higher injection speeds. Particularly for thin-walled components, differential injection technology can prove irreplaceable.

BOY 2C XS injection unit For the second component, it relies on the compact BOY XS injection molding machine. It is equipped with its own hydraulic drive and control system. Depending on the size of the injection unit, the machine provides a plasticizing volume of up to 76,5 cm3.

During the practical portion of the training, we utilize the equipment and machinery available at the given plant. We can work based on the plant's documentation, such as presses and dies.
We can also use the company's laboratory facilities for training: sheet metal forming test using the Erichsen method.
Renewable Energy Training1 prepares for entry into the photovoltaic industry, including self-installation, operation, and maintenance of photovoltaic installations. Course participants acquire knowledge in areas such as the construction and types of PV systems, connecting the system to the power grid, commissioning, and installation valuation.
The training includes an extensive practical part in our laboratory, using: