Heating systems of the future: Carbon fiber heaters (infrared heating) and heat pumps in combination with solar/photovoltaic systems

Future-proof heating systems increasingly rely on a combination of carbon fiber heaters (infrared) and/or heat pumps, which, in conjunction with photovoltaics, offer an efficient and sustainable solution.

Carbon fiber heaters utilize innovative technology, employing carbon fiber elements as heating elements. These heat up quickly and emit infrared rays, providing comfortable warmth in the room. Their efficiency and targeted heat distribution make them a promising option for room heating.

In combination with heat pumps, the efficiency of the heating system is further increased. Heat pumps utilize ambient heat, for example from the air, the ground, or groundwater, to generate heat. Using heat pumps reduces the need for primary energy, as it utilizes available environmental energy.

Integrating photovoltaics into this heating system enables a sustainable and near-self-sufficient energy supply. The photovoltaic systems installed on the roof or facade generate electricity from solar energy. This electricity can be used to operate the heat pumps as well as other electrical appliances in the household. By using renewable energy, CO2 emissions are reduced and the ecological footprint is minimized.

The combination of carbon fiber heating systems, heat pumps, and photovoltaics offers numerous advantages. Besides energy efficiency and sustainability, it also enables greater independence from fossil fuels and rising energy costs. Furthermore, modern heating systems of this type offer high flexibility and adaptability to different types of homes and buildings.

When planning and installing such a heating system, it is advisable to seek expert advice to ensure optimal sizing, integration, and efficiency. The combination of carbon fiber heating systems, heat pumps, and photovoltaics represents a promising solution for meeting the demands of future-proof and environmentally conscious heating systems.

Carbon fiber heaters utilize the specific properties of carbon fiber materials to generate heat. Carbon fiber consists of very thin, lightweight, and flexible fibers made from carbon. These fibers have high electrical conductivity and can therefore be used as heating elements.

The heating element consists of an array of carbon fiber components embedded in a flexible material such as plastic or fabric. These components are powered by an electrical circuit. When current flows through the carbon fiber, the resistance of the fibers causes them to heat up.

Because carbon fiber is a very efficient material, it converts most of the supplied electrical energy into heat. The heat is then distributed evenly across the surface of the heater. Depending on the design and application, carbon fiber heaters can be arranged either as large-area heating elements or in specific patterns to create targeted heating zones.

A key advantage of carbon fiber heaters is their fast response time. Due to the low mass of carbon fiber, they heat up quickly when current flows and cool down just as quickly when the current is switched off. This allows for precise temperature control.

Installation of an infrared carbon heating film for the floor – Image: Xpert.Digital / Dmitry Melnikov|Shutterstock.com

➡️ Installation of an infrared carbon heating film for the floor. The heating film roll, thermostat, and thermal insulation roll are laid on OSB (oriented strand board) flooring in the room. Electric underfloor heating system as radiant heating.

Carbon fiber heaters are used in various applications, such as heated car seats, heated clothing, underfloor heating, industrial processes, and much more. They offer an efficient and flexible way to generate heat and can be adapted as needed.

A carbon heater uses electrical energy to generate heat. It is powered by electricity and emits infrared heat, creating a pleasantly warm atmosphere in rooms – similar to the warmth of the sun. The various types of carbon fiber heaters offer a particularly versatile solution. Below, we explain how a carbon heater works and for whom this technology might be especially interesting.

A carbon heater consists of special carbon fiber elements that act as heating elements. These elements are electrically heated and then emit infrared radiation. This radiation does not heat the surrounding air, but instead strikes solid surfaces such as walls, floors, and furniture, which absorb and re-emit the heat. This creates a comfortable and even warmth in the room.

The versatility of carbon heating systems lies in their availability in various shapes and sizes. Carbon fiber heating systems can be installed as wall panels, ceiling panels, or even as underfloor heating. This allows for flexible adaptation to individual needs and the architectural features of the room.

A carbon heater is particularly well-suited for people who need fast and targeted heating. Because the heat is available immediately after being switched on and is emitted directly onto the surfaces in the room, it creates a pleasant and even warmth without the need to circulate or exchange the air. This can be especially beneficial for allergy sufferers, as no air movement can trigger allergic reactions.

Furthermore, carbon heaters are energy-efficient and environmentally friendly. The direct radiant heat eliminates heat loss through air circulation, resulting in efficient use of electrical energy. Additionally, no harmful emissions or combustion residues are produced, as the heater is purely electrically powered.

Overall, a carbon heating system offers a modern and effective solution for heating rooms. Its versatility, efficiency, and pleasant warmth make it an attractive option for various living and working spaces. However, it is advisable to consult with professionals before installation to find the optimal solution for individual needs.

Infrared stands for "below red" and refers to the part of the electromagnetic spectrum that lies directly below visible red light. It is electromagnetic radiation with longer wavelengths than visible light.

The term "infrared" was first coined in 1800 by the German astronomer Sir William Herschel. While experimenting with temperature measurement, Herschel wanted to investigate the temperature difference between various colors of the spectrum and conducted a prism experiment. He measured the temperatures with thermometers to determine the difference in heat transfer. He discovered that the temperature beyond the red end of the spectrum was higher than in the visible range. Herschel called this invisible radiation "infrared rays.".

Research into infrared radiation has since led to numerous applications in various fields, including thermal imaging cameras, remote controls, infrared sensors, infrared heating, and even medical applications such as infrared therapy. Infrared radiation is invisible to the human eye, but it can be detected and measured by special sensors or cameras.

It definitely makes sense to operate heat pumps with solar energy. The combination of heat pumps and solar energy can lead to an extremely efficient and environmentally friendly heating solution. Here are some reasons why this combination makes sense:

Renewable energy source: Solar power is a renewable energy source generated from sunlight. By operating your heat pump with solar energy, you are using a sustainable energy source and reducing your carbon footprint.

Cost savings: Operating a heat pump with solar power can be more cost-effective than with conventional grid electricity. If your solar system generates enough electricity to meet the heat pump's needs, you can significantly reduce your heating costs.

Optimizing self-consumption: With a solar power system, you produce electricity during the day when the sun is shining. This aligns well with the operating mode of most heat pumps, which can generate more heat during the day when electricity demand is higher. By directly using the self-generated solar power to supply the heat pump, you maximize self-consumption and minimize electricity drawn from the grid.

Environmental friendliness: The combination of heat pumps and solar power contributes to reducing the consumption of fossil fuels and thus lowers greenhouse gas emissions. This is an important step in combating climate change and promoting a sustainable future.

However, it is important to note that the effectiveness of this combination depends on various factors, such as the size of the solar array, the heat pump's output, the building's heating requirements, and the climatic conditions. Thorough planning and sizing of the system by a professional is recommended to ensure optimal performance and efficiency.

The combination of heat pumps and solar energy represents a promising and environmentally friendly heating solution that offers both financial and ecological advantages.