Your need is our project and will be the subject of a specific study

Low voltage electric motor IE1, IE2, IE3 and IE4 three&one-phase, asynchronous

High voltage electric motor, ATEXIIB explosion proof, IP23



Aluminum | Cast iron
Power 2.2 - 230kW
Shaft height 100 - 315
Poles 2 | 4 | 6 | 8
Low voltage
50Hz | 60Hz


Aluminum | Cast iron
Power 0.75 - 630kW
Shaft height 80 - 400
Poles 2 | 4 | 6 | 8
Low voltage
50Hz | 60Hz


Aluminum | Cast iron
Power 0.75 - 355kW
Axis height 80 - 400
Poles 2 | 4 | 6 | 8
Low Voltage
50Hz | 60Hz


Aluminum | Cast iron
Power 0.06 - 355kW
Shaft height 80 - 355
Poles 2 | 4 | 6 | 8 | 10 | 12
Low voltage
50Hz | 60Hz


Cast iron
Power 185kW - 1.8MW
Shaft height 315 - 630
Poles 2 | 4 | 6 | 8 | 10 | 12
Low voltage
50Hz | 60Hz


ATEX IIB cast iron
Power 0.75 - 315kW
Shaft height 80 - 315
Pole 2 | 4 | 6 | 8
Low voltage
50Hz | 60Hz


IE3 font | IE2 I IE1
Power 11 - 710kW
Shaft height 160 - 355
Pole 2 | 4 | 6
Low voltage
50Hz | 60Hz

Moteur électrique en vue de coupe


Discover our range of electric motors from IE1 to IE4, as well as IP23, high voltage, medium voltage and EXD ATEX explosion-proof motors designed to meet all your needs. IE3 and IE4 motors offer unparalleled energy efficiency, saving you energy while reducing your carbon footprint. Our IE1 equipment, on the other hand, is a reliable and economical solution, ideal for applications where performance is essential.

Our IE1 equipment, on the other hand, represents a reliable and economical solution for a wide range of applications requiring a high-performance electric motor.

It is important to note that since 2011, the European Union has established strict standards regarding the energy efficiency of electric motors, in accordance with the European Regulation EU 2019/1781 . Our IE1 motors, although of high quality, are mainly intended for export, while our IE3 and IE4 motors are in full compliance with these standards within the EU. If you are looking for an electric motor that complies with current standards while optimizing your energy savings, our IE3 and IE4 solutions are the ideal choice. Explore our complete catalog to find the perfect engine for your specific needs.


An international standard has been established with the aim of classifying the energy efficiency on an international level (IE) of low voltage three-phase asynchronous motors. This is the standard IEC /EN 60034-30.1.

This standard defines the different yields as follows:

rendement moteur

  • IE1 = Standard efficiency
      • IE2 = High efficiency
      • IE3 = Premium efficiency
      • IE4 = Super premium efficiency


The electric motor is an electromechanical device whose main role is to convert electrical energy into mechanical energy, through the interaction between the electric current and the magnetic field, thus creating a rotation that powers a variety of industrial and domestic applications. . All electric motors have an inherent reversibility. This means that they are able to work in both directions: by converting electrical energy into mechanical energy to drive a load (motor mode) and by transforming mechanical energy into electrical energy when driven by an external force (generator mode).

Modern electric motors take advantage of the efficiency of permanent magnets to generate precise and consistent motion. Making them essential in many industrial and technological applications.

Thus, there are different types of electric motors: the DC motor and the AC motor, which can be synchronous or asynchronous. The three-phase asynchronous electric motors can be supplied with 230/400v (star connection) or 400/700v (delta connection). To reverse the direction of rotation, simply invert two phases on the terminal block of the terminal box.

Electric motors, also called induction machines, are a type of machine that works with alternating current, and which does not require a connection between the stator and the rotor.

In the past, the asynchronous motor was in direct competition with the synchronous motor for high power applications. However, with the evolution of power electronics, its position has been consolidated. It is found in various fields such as transport (subways, trains, ships), industry (machine tools) as well as in household appliances. Asynchronous machines are also used as generators, especially in wind turbines.

Elements making up an electric motor:

An electric motor is a complex device made up of several essential elements that work in tandem to convert electrical energy into mechanical motion. The main components of an electric motor include:

  1. Stator: The stator is the fixed part of the electric motor and houses the copper wire windings. It creates a stable magnetic field when electric current flows through it.
  2. Rotor: The rotor is the moving part of the motor and is placed inside the stator. It is also made of copper wire windings, but these are mounted on a rotating axis. When electric current passes through the rotor, it reacts with the magnetic field of the stator to generate the rotational motion.
  3. Collector (for DC motors): DC motors use a collector to reverse the polarity of the rotor windings as it spins. This allows the rotor to continue spinning in one direction.
  4. Switch (for AC motors): AC motors use a switch to reverse the direction of electrical current in the rotor at regular intervals, which maintains rotation.
  5. Levels: Bearings are supporting components that reduce friction and allow the rotor to spin smoothly. They are essential for engine durability and performance.
  6. Box: The electric motor box or enclosure protects internal components from external elements and provides a sturdy structure for mounting.
  7. Connectors and cables: Electrical cables and connectors connect the motor to an electrical power source, allowing the transmission of current necessary for the motor to operate.

Ces éléments travaillent de concert pour créer le mouvement rotatif nécessaire à de nombreuses applications, allant des ventilateurs aux machines industrielles, en passant par les véhicules électriques. Comprendre la composition et le fonctionnement d’un moteur électrique est essentiel pour tirer le meilleur parti de cette technologie omniprésente dans notre vie quotidienne.


We offer a wide range of three-phase electric motors available in 220-400/380-420V – 380-420/660-720V. These are cast iron or aluminum induction motors, with squirrel cage, according to standard EN60034 (IEC).

The three-phase electric motor is a major technological innovation in the field of electromechanics. It is a type of electric motor specially designed to operate with alternating current using three separate electrical phases.

Its versatility and high performance make it a preferred choice in various industrial sectors, such as transportation, manufacturing, and commercial applications. If you are looking for a reliable and efficient motor for your projects, the three-phase motor is certainly a solution to consider. Discover our three-phase range with 2, 4, 6, 8, 10 poles (up to 12 for high voltage motors), for rotational speeds from 500 to 3600rpm.


The ATEX (=ATmosphere EXplosive) electric motor, also known as an explosion-proof motor, is designed for use in potentially explosive or flammable environments. The term "ATEX" comes from the European directive 2014/34/EU, which regulates equipment used in such environments.
ATEX solutions are built in such a way as to prevent any source of ignition that could trigger an explosion, minimizing the risks associated with gases, vapours, flammable liquids or dust. These machines are essential in certain industries. Indeed, we can cite oil and gas, chemicals, pharmaceuticals, petrochemicals, as well as in production and storage sites for potentially dangerous products.
By choosing the ATEX solution, you guarantee the safety of their operations while complying with strict safety regulations in environments at risk of explosion.


As we move forward into the future, the growing demand for electric motors becomes an inescapable evidence. This evolution stems from the convergence of several key factors, including the widespread integration of artificial intelligence and autonomous systems.Electric motors play a vital role in this transformation, powering a growing variety of devices and applications that will shape our daily lives. For example, artificial intelligence requires increased energy efficiency to process huge amounts of data in real time. Autonomous vehicles and drones, powered by advanced electrical devices, are redefining mobility by prioritizing safety and energy efficiency. Additionally, automated delivery systems, industrial robots, and advanced medical devices also depend on electrical machinery to ensure reliable and precise performance. In short, the future will be shaped by an increasingly widespread use of electric motors, offering energy-efficient solutions adapted to the needs of a society constantly evolving towards advanced and autonomous technology.


Electric motors play an essential role in the context of energy transition. Indeed they offer an innovative and efficient solution to reduce our dependence on fossil fuels.

ampoule plantée dans la terre, symbole de l'écologie
Gradually, they are replacing internal combustion engines in various sectors such as industry, transportation, and even household appliances. This transition to electric motors contributes significantly to the reduction of greenhouse gas emissions, as well as to the improvement of air quality. Their high efficiency, reduced environmental impact, and flexibility in integrating with renewable energy sources make them a central pillar of the global effort to create a more sustainable and environmentally friendly energy future.

The benefits of electric motors are not just limited to reducing our carbon footprint. They also pave the way for an era of mobility and energy production that is cleaner, more resilient and technologically advanced. Ongoing innovations in electric motors promise a revolution in the way we use energy and move, helping to create a greener, more harmonious world.

In short, electric motors embody the promise of a green industry and a more sustainable future. They are at the heart of the evolution towards more environmentally friendly ways of living and production, and they will continue to play an essential role in achieving this common goal.


Electricity is proving to be the indisputable central element of the energy transition, offering a multitude of advantages that propel it ahead of traditional fossil fuels. By emphasizing environmental sustainability through renewable sources, it drastically reduces greenhouse gas emissions and plays a vital role in maintaining healthy ecosystems.


1. Environmental Sustainability

First, by focusing its production on sources such as solar, wind and hydropower, electricity is emerging as a driving force for environmental sustainability. It reduces polluting emissions, thus promoting the fight against climate change and considerably improving air quality. This focus on cleaner, environmentally friendly energy is proving crucial in our quest for a more sustainable future.

2. Versatility of Use

Also, a major advantage of electricity lies in its ability to adapt to a wide variety of applications. It can power electric vehicles, provide energy for heating and lighting systems and support industry. This intrinsic versatility makes it an ideal choice for a smooth and successful energy transition, which also helps to significantly reduce our dependence on fossil fuels.

3. Energy Efficiency

In addition, electric motors significantly outperform their internal combustion counterparts in terms of energy efficiency. This more efficient conversion of energy into motion results in substantial savings in energy consumption. This improvement in efficiency is a key element for the responsible and rational use of our energy resources.

4. Energy Autonomy

Finally, by focusing on local production from renewable sources, electricity promotes the energy autonomy of nations, thus reducing their vulnerability to the fluctuations of international oil and gas markets. This autonomy reinforces economic stability and secures the long-term energy supply.

In short, electricity not only presents itself as an essential choice in the energy transition, but it also embodies an essential driver for a cleaner, safer and more prosperous energy future. Its contribution to environmental sustainability, its versatility, its superior energy efficiency and its role in energy autonomy make it a fundamental pillar of change towards a world centered on sustainable energy solutions.


Copper plays an essential role in the operation and performance of electric motors. Indeed, this metal with excellent electrical and thermal properties is an essential component of the coils and windings used in electric motors.


When an electric current passes through these coils, the copper offers a low electrical resistance, which helps to minimize the energy losses by Joule effect, thus ensuring a high efficiency of the machine. Additionally, copper is widely used in the manufacture of magnets, including rare-earth permanent magnets, which are frequently employed in electrical rotating machinery to create the magnetic field needed to convert electrical energy into mechanical motion. .


However, the link between copper and sustainability is complex, as the mining and production of this metal can have environmental impacts. It is therefore crucial to consider sustainability approaches, such as recycling copper, reducing its use through more efficient designs, as well as exploring alternative materials and emerging technologies to ensure electric motors continue to perform. move towards more environmentally friendly solutions.


Choosing the optimal electric motor is a crucial step for the success of any project requiring electric propulsion. To make an informed decision, it is essential to take into account several technical parameters. First, determine the power required based on the workload, in watts (W) or kilowatts (kW). This will help you select the engine that can deliver the necessary power without oversizing.

Next, the rotational speed of the motor, measured in revolutions per minute (rpm) or radians per second (rad/s), is a determining factor. Make sure it matches the needs of your application. Torque, measured in Newton meters (Nm), is also crucial. It depends on the load to be moved or driven, and it is imperative to select a motor capable of providing the necessary torque while avoiding overheating.

The environment of use is another fundamental aspect. If your application is exposed to special conditions, such as extreme temperatures or high humidity, choose an electric motor adapted to these environmental constraints.

In addition, the supply voltage must be compatible with the chosen motor. Electric motors come in different voltages, such as 12V, 24V, 110V, or 220V, and it is essential to ensure that the supply voltage matches that of the motor.

Finally, consider the durability and reliability of the engine. Look at the IP protection class (Protection Rating) to assess resistance to dust and humidity. Also check the motor specifications for its estimated lifespan, as this can have a significant impact on long-term operating costs.

In summary, choosing the right electric motor involves careful analysis of power, speed, torque, operating environment, supply voltage, durability and reliability. By taking these parameters into account, you will be able to select the electric motor that will best meet the needs of your project, thus ensuring optimal performance and maximum energy efficiency.