FAQ - Your questions, our answers!

Frequently asked questions

Here you will find answers to the most frequently asked questions about our products, including compact transformer substations, LVDC switching systems, LV protection, solar park stations and our innovative AC combiners. 

Whether it's about installation, maintenance, technical specifications or customisation - our FAQ section provides you with comprehensive information and helps you to find the right solutions for your requirements.

Solar park station

Purely solar park internal station | FAQ

A solar park station is a specialised system that is used for the integration and management of solar energy in a solar park. Its function is to convert the direct current (DC) energy generated by the photovoltaic modules into alternating current (AC) and to feed it into the public grid. It also provides protection and monitoring functions for the safe operation of the solar park.

Our Solar park station has a wide range of functions, including the conversion of direct current into alternating current, protection and monitoring devices, insulation monitoring and efficient low-voltage distribution. It is specially designed for use in IT systems and fulfils the highest efficiency and safety requirements.

Our solar park station impresses with a number of advantages. These include greater efficiency thanks to the elimination of NH fuses, a longer service life and less maintenance thanks to lower heat generation and advanced switching technology. The integrated insulation monitoring also ensures additional safety and reliability in the IT system.

The solar park station from Faber E-Tec GmbH is flexible and can be adapted to different grid configurations such as TNS and TT. This ensures that it functions optimally in different environments and requirements.

To receive a quote for a solar park station tailored to your needs, please complete our enquiry form on the website. Our experts will contact you immediately to discuss your specific requirements and provide you with a customised quote.

Compact station

Compact stations, transfer & transformer station, transformer compact stations | FAQ

A compact substation is a prefabricated, compact electrical system that integrates transformers, switchgear and other components. Its function is to convert medium voltage to low voltage, which makes it ideal for use in various sectors such as industry, commerce and renewable energies.

Compact stations offer a number of advantages. These include a space-saving design, quick installation and commissioning, high flexibility and adaptability as well as improved safety and reliability thanks to integrated protection mechanisms.

Of course, our compact stations can be customised to the specific requirements of the respective area of application. We have solutions that precisely match your grid requirements and operating conditions.

The compact station is delivered as a heavy transport, which we naturally have coordinated by our experienced logistics team. Our qualified specialists set up the station on site and put it into operation. This is how we ensure that everything runs smoothly and efficiently.

Container

Solar park container transformer station 7200 KW | FAQ

The remote control of the container enables simple and practical operation. Both the medium-voltage and low-voltage switching can be carried out remotely, which makes it much easier to maintain and operate the system.

The 7,200 kW container impresses with its simple operation and comprehensive functions:

  • Digital analysis of all relevant data
  • Remote control for medium and low voltage
  • Quick recommissioning
  • Innovative ventilation concept
  • Integrated sensors for optimum monitoring
  • Hermetically separated technical areas for maximum safety

These features make the container an ideal solution for large solar parks.

The innovative ventilation concept ensures efficient cooling and minimises heat generation in the container. The targeted air flow dissipates excess heat and moisture, which keeps the operating temperature of the electrical and mechanical components stable.

The advantages at a glance:

  • Prevention of overheating
  • Reduction of thermal stress on components
  • Minimisation of the default risk
  • Extending the service life of components

This concept ensures reliable operation of the container over many years and makes a decisive contribution to the longevity of the system.

The 7,200 kW container impresses with numerous innovative features:

  • Simple handling for ease of use
  • Comprehensive digital evaluation of all relevant operating data
  • Quick recommissioning for maximum efficiency
  • Remote control on medium and low voltage
  • Innovative ventilation concept for optimum cooling
  • Integrated sensors for monitoring important parameters
  • Hermetic separation of all technical areas for maximum safety

These features make the container the ideal solution for large solar parks.

E-mobility

Compact stations for charging station infrastructure | FAQ

A compact transformer station for e-mobility is a specially developed electrical system that supports the charging station infrastructure for electric vehicles. It converts medium voltage into low voltage and ensures a reliable power supply for the charging stations.

Our compact transformer station impresses with:

  • Compact design for space-saving solutions
  • Quick installation for rapid commissioning
  • High efficiency and maximum reliability
  • Integrated protection mechanisms for safe operation
  • Technology specially tailored to the requirements of e-mobility

This ensures a stable and secure power supply for charging points.

Yes, our compact transformer stations can be flexibly adapted and fulfil various grid requirements and operating conditions. This means they can be optimally integrated into your e-mobility projects.

Our experienced team takes care of the installation and commissioning of the compact transformer station. All components are carefully installed and tested to ensure that the charging station infrastructure functions safely and reliably.

The 7200 kW container combines numerous advantages and is ideal for large-scale solar parks and energy-intensive projects.

Main advantages:

  • High power capacity: With 7200 kW, the container offers enough power for large solar parks and projects that require maximum energy conversion.
  • Quick recommissioning: After maintenance or breakdowns, the container is quickly ready for use again - this saves time and increases efficiency.
  • Remote control: Medium and low voltage can be conveniently switched remotely, which simplifies maintenance and operation.
  • Innovative ventilation concept: The ventilation system keeps the components cool, reduces heat and extends the service life.
  • Digital evaluation: All operating data such as current, voltage, temperatures and humidity are digitally monitored and optimised.
  • Integrated sensors: Sensors measure heat and humidity to ensure safe operation.
  • Hermetic separation: Technical areas are sealed off from each other, providing protection from external influences and keeping operations trouble-free.

 

Conclusion: The 7200 kW container is a robust and efficient solution for solar and energy projects that place the highest demands on performance and reliability

LVMD switching systems

Low-voltage main distribution board | FAQ

LV switchgear systems, or low-voltage main distribution boards, are centralised switchgear systems used in electrical power distribution networks. They are used to safely and efficiently distribute the electrical energy that has been converted by a transformer at low-voltage level (usually 400 V).

Main functions of NSHV switching systems:

  1. Energy distribution:
    LVB switching systems distribute the electrical energy from a central point to various loads or sub-distribution boards within a building, an industrial plant or a power supply network.

  2. Protection:
    They offer protective mechanisms such as circuit breakers and fuses that switch off the affected circuits in the event of overloads or short circuits in order to prevent damage to the systems and ensure safety.

  3. Measurement and monitoring:
    NSHV switching systems can be equipped with measuring and monitoring devices that make it possible to monitor energy consumption and other electrical parameters in order to optimise efficiency and control operation.

  4. Switching and control functions:
    They enable the safe switching on and off of circuits and switching between different energy sources, which is particularly important in complex industrial plants and when integrating renewable energies.

Areas of application:

  • Trade and industry:
    LVB switching systems are often used in large industrial plants and commercial buildings to control and protect electrical power distribution.

  • Energy supply companies:
    They play an important role in energy distribution for energy supply companies, especially in the supply of medium-voltage grids that merge into low-voltage grids.

  • Photovoltaic and solar systems:
    NSHV switching systems are also used in photovoltaic systems to safely feed the generated energy into the grid and distribute it.

  • Data centres:
    In data centres, NSHV switching systems ensure a stable and reliable power supply, which is essential for the operation of the IT infrastructure.

These switching systems are therefore indispensable components in modern electrical infrastructures, ensuring both safety and efficiency in energy distribution.

The NSHV switching systems from Faber E-Tec GmbH offer customised solutions that are individually tailored to specific requirements in industry, commerce and renewable energies. They are characterised by high reliability and safety thanks to their robust design and high-quality components, which ensure maximum protection and operational safety. They also optimise energy distribution and monitoring, which maximises efficiency and minimises energy losses. Their sophisticated design enables easy maintenance and quick access, reducing downtime.

Yes, NSHV switching systems from Faber E-Tec GmbH can be flexibly adapted to specific requirements. They offer customised solutions that are individually tailored to the needs of different sectors such as industry, commerce and renewable energies. Whether it's specific protection requirements, particular power distribution strategies or specialised installation environments, these switching systems can be configured to meet the unique needs of each project.

The installation and commissioning of the NSHV switching systems is carried out by an experienced team from Faber E-Tec GmbH, who carefully plan and execute every step. Firstly, the systems are professionally installed on site and connected to the existing infrastructure. This is followed by a comprehensive test of all functions to ensure that the switching systems are working optimally. Commissioning also includes a detailed safety and performance check to ensure smooth operation from day one.

NE Protection

All about grid and system protection | FAQ

A NA protection, also known as grid and system protection, is a safety-related device used in electrical energy generation systems such as photovoltaic systems or combined heat and power plants. It is used to disconnect the system from the public grid when certain critical conditions occur in order to protect both the grid and the system itself.

The NA protection from Faber E-Tec GmbH fulfils the requirements of the VDE-AR-N 4105:2018-11 standard, which is mandatory in Germany for grid and system protection for power generation systems such as photovoltaic systems. This standard specifies the minimum technical requirements for the connection and operation of energy generation systems on the low-voltage grid and ensures that the NA protection works reliably to protect both the public grid and the connected systems.

The NE Protection is suitable for a wide range of energy generation systems, especially those that are operated on the public grid. These include

  1. Photovoltaic systems: NA protection is essential for the safe connection of solar systems to the grid in order to prevent overloads and grid faults.

  2. Combined heat and power plants (CHP): In these systems, the NA protection ensures safe disconnection from the grid in the event of faults in order to guarantee stable operation.

  3. Wind turbines: NA protection is also used in wind turbines to prevent stand-alone operation and protect the system in the event of grid faults or impermissible grid parameters.

  4. Biogas plants: In biogas plants, NA protection prevents the plant from being damaged or grid stability being impaired in the event of a grid fault by monitoring the grid parameters.

  5. Mixed systems: Systems that combine several energy sources benefit from NA protection by ensuring that the connection is reliably disconnected in the event of grid problems.

NA protection is therefore an indispensable element for the safety and stability of power generation systems that are connected to the public grid.

NA protection offers decisive advantages for the safe operation of power generation systems. It continuously monitors the grid parameters and automatically disconnects the system from the grid in the event of critical deviations, protecting both the system and the power grid from damage. It also prevents unwanted stand-alone operation in the event of grid failures and fulfils the requirements of the VDE-AR-N 4105:2018-11 standard. This reliability and simple integration make the NA protection a cost-effective solution that ensures the long-term stability and security of the energy supply.

To receive a quote for NA protection from Faber E-Tec GmbH, you can simply fill out our enquiry form on the website or contact us directly. Include your specific requirements and system details so that we can provide you with a customised quote. Our team will also be happy to provide you with personalised advice to ensure that NA protection is optimally tailored to your needs.

AC-Combiner

Photovoltaic AC manifold cabinets | FAQ

AC in photovoltaics stands for "alternating current". In photovoltaic systems, the direct current (DC) generated by the solar modules is converted by an inverter into alternating current, which is then used in households, businesses or fed into the public grid. Alternating current is the form of electricity used in most electrical grids and appliances, as it can be transported efficiently over long distances and is required by most electrical devices.

It is possible to combine an AC-coupled photovoltaic system with a battery storage system. In such a system, the solar power generated is first converted into alternating current and fed into either the domestic grid or the public grid. The battery storage system is also charged via the AC grid by feeding surplus electricity that is not consumed directly into the battery. This concept enables flexible integration of battery storage systems, even in existing photovoltaic systems, and ensures efficient storage of solar energy and its utilisation when required, even when the sun is not shining.

AC-coupled means that a battery storage system is integrated into an existing alternating current (AC) grid that is already fed by a photovoltaic system or another energy source. In this system, the direct current (DC) generated by the solar system is first converted into alternating current before it is fed into the grid or into the battery storage system. The battery storage system therefore works on the alternating current side of the system, which enables flexible retrofitting and increases compatibility with existing systems.

The inverter is the central element of a photovoltaic system, which converts the direct current (DC) generated by the solar modules into alternating current (AC). The latter is required for the operation of household appliances or for feeding into the public power grid. Once the solar energy has been converted into electrical energy by the solar modules, the direct current generated is passed on to the inverter. Here, the direct current is converted into a sinusoidal alternating current whose frequency and voltage correspond to the values of the public grid. The inverter also monitors the output of the photovoltaic system and ensures optimum energy yield.