Radiant Heating & Cooling

Heating and cooling from the ceiling

Our radiant heating and cooling ceilings efficiently heat and cool large spaces such as offices, or industrial and sports halls from the ceiling and ensure an unobstructed view of the architectural design. They create a pleasant indoor climate all year round with extremely energy-efficient operation.

 
Radiant Heating & Cooling

Advantages

High energy efficiency


The system is designed according to the latest state of the art. You have a free choice of energy source and can optimally combine the heating and cooling ceiling with renewable energies or a heat pump. Save up to 40% energy this way.

Comfortable climate


The even and pleasant temperature distribution in the room, without draughts or unpleasant temperature fluctuations, is extremely pleasant. The result is a comfortable indoor climate in which you feel good all around.

Easy assembly


Whether it's a new build or a retrofit project - the heating and cooling ceiling can be installed quickly and easily in any room from 2 m to 50 m high. In addition, the installation on the ceiling keeps the view free for the architectural design of the room.

Our Products

Heating and cooling ceilings in use

Industrial RHC


The principle of radiant ceiling panels has proved to be particularly effective for heating and cooling production and sports halls, sales rooms, offices and public buildings.

The proven principle for large halls

Industrial halls

Sports halls

Sales and exhibition halls

 

Office RHC


Air-conditioned ceilings are used for heating and cooling in offices and public buildings , in schools or medical practices , for example. Either with a closed ceiling look or sail design element, the design of the ceiling is freely selectable.

Optimal use in large rooms

Offices

Public buildings like schools

Medical practices

 
FAQ´s

Got Questions? We've Got Answers!

Instead of heating the room air directly, the ceiling heating or radiant ceiling panel uses the principle of radiant heat. This principle is comparable to the warmth of the sun's rays on a cold winter day. For heating, the electric blanket emits the heat energy as infrared radiation, which hits the surfaces and objects in the room and warms them.

The cooling ceiling absorbs the heat energy in the room and transfers it to the water-carrying pipe system that runs in the chilled ceiling system. The cool water extracts the heat from the surfaces and objects in the room, creating a pleasant coolness and an optimal climate.

Unlike air conditioning, ceiling systems do not use environmentally harmful refrigerants. A cooling ceiling uses water that flows through the pipes. Cooling systems, like an air conditioner, have a lot of air movement, which is often perceived as uncomfortable. In addition, an air conditioner is mounted on the wall, taking up valuable space. Ceiling systems for heating and cooling are also much more energy efficient than an air conditioner.

Yes, the systems fit together perfectly. A heating and cooling ceiling can be operated with a heat pump by using the heat pump as part of a water-based heating system. The flow temperatures are very low and are 45–60°C, as compared to underfloor heating. We will be happy to advise you on the optimal design for efficient heat transfer.

 In contrast to air heaters, gas radiators, underfloor heating or air conditioning, heating and cooling ceilings save up to 40% energy. In addition, there is no noticeable convection. The floor and walls are free of radiators or air conditioners, which offers new design possibilities.

Heating and cooling ceilings are available in open and closed versions. Therefore, there are many variants for integrating all kinds of other functional elements. Lamps, for example, can be integrated into cut-outs or mounted between or below the ceiling panels. Sprinklers, loudspeakers, air outlets, etc. are also placed in cut-outs.

Condensate forms from the interaction of temperature and humidity. Chilled ceilings are therefore operated as a surface system with low sub-temperatures (difference to room temperature). This already limits the area in which condensate can form. The rest is taken care of by the system control, for example with temperature and humidity sensors.

Expert Advice


Get expert guidance on all your needs from our knowledgeable team. We`re here to answer your questions and provide tailored solutions.

Downloads


Access helpful resources, guides, and manuals for your ventilation system. Download specifications, installation instructions, and more at your convenience.

Order


Easily order our systems, products, replacement parts, filters, and accessories for your project. Keep your system running smoothly with prompt delivery of genuine spare parts.

Insights into Disease Development

prusty lab

First exposure to herpesviruses does not cause a life-threatening disease. In fact, most individuals are frequently unaware of their first exposure to these viruses. These herpesviruses acquire lifelong latency in the human body after entering human cells. We propose that it is not the latency itself but the timely and regionally restricted viral activation in a sub-set of host cells due to one of the several triggers ranging from prescription drugs to other infections that is pivotal to disease development. Using novel state-of-the-art latency models and modern innovative molecular biology approaches, we try to understand the early stages of host-virus interactions, starting from single-cell to multicellular organoid levels.

Bhupesh Prusty

Bhupesh Prusty is a Professor of Science at Rīga Stradiņš University, Riga, Latvia. Bhupesh’s schooling began in rural India, leading him to an academic career with a prestigious doctoral fellowship from the Council of Scientific and Industrial Research (CSIR), India. During his Ph.D., he studied the role of human papillomaviruses (HPVs) in cervical cancer development under the mentorship of Dr. Bhudev Das at the Institute of Cytology and Preventive Oncology. His doctoral work was recognized through several awards, including a Young Scientist Award in the Medical Science Section from the Indian Science Congress and the Shakuntala Amir Chand Prize from the Indian Council of Medical Research (ICMR) (2005). 


Bhupesh was invited to join the laboratory of Prof. Harald zur Hausen, who received the Nobel Prize in Medicine in 2008, at the DKFZ as a postdoctoral researcher. Bhupesh received the EMBO/EMBL Science Writing Prize during his postdoctoral work at Heidelberg, Germany. Bhupesh started his independent research career at the Julius-Maximilians-University of Würzburg, Germany, under the mentorship of Prof. Thomas Rudel and Prof. Lars Dölken. Bhupesh was mentored by Dr. Dharam Ablashi, who co-discovered HHV-6 in 1986. Bhupesh’s groundbreaking work on HHV-6 pathophysiology has earned him several international awards, including the Best Trainee award and Koichi Yamanishi Young Investigator Award from HHV-6 Foundation, USA; the prestigious Experiment! research grant from Volkswagen Stiftung, Germany; Ramsay Research Award from Solve ME/CFS Initiative, USA. His innovative research ideas have been supported by Deutsche Forschungsgemeinschaft (DFG); Bundesministerium für Bildung und Forschung (BMBF); HHV-6 Foundation, USA; Amar Foundation, USA; ME Research UK; Solve ME/CFS Initiative, USA; TEMPI Foundation, Austria; Helmholtz Center for RNA-based Infection Research (HIRI), Würzburg, Germany; Fatigatio, Germany; and Deutsche Gesellschaft für ME/CFS, Germany. 

Prusty Lab