Knowledge Center FAQ
Knowledge Center for Technical Insulation
Pipe insulation
What is pipe insulation?
Pipe insulation is used to reduce energy loss from heat-conducting pipes and limit heat absorption in cold installations. In industrial plants, district heating systems and process installations, correctly dimensioned pipe insulation contributes to lower energy consumption, more stable operating conditions and improved energy efficiency.
Technical pipe insulation includes the insulation of pipe installations in industrial, energy and process plants. The purpose is to control temperatures, reduce heat loss and protect the operation of the plant. Technical pipe insulation is used in, among other things, district heating, power plants, the process industry, offshore installations and Power-to-X installations.
Heat loss is reduced by establishing an insulating barrier between the pipe surface and the surroundings. Material selection, insulation thickness and correct execution have a great impact on the overall energy performance. Even small improvements can have a significant impact on plants with continuous operation.
Technical insulation
What is pipe insulation?
Technical insulation includes the insulation of pipes, valves, flanges, tanks, ducts and process equipment. The insulation is used to reduce energy losses, stabilize process temperatures and support energy-efficient operation in technical installations.
Technical insulation is the general term for the insulation of technical installations such as pipes, valves, flanges, pumps, tanks and process equipment. Technical pipe insulation is a specialized part of technical insulation that focuses on insulating pipe systems to reduce energy losses, maintain process temperatures and improve the energy efficiency of the plant.
Technical insulation is used in industry, the district heating sector, energy plants, marine installations, offshore installations and process plants. The insulation is used in both hot and cold installations, where temperature control and energy consumption are important parameters.
The savings potential depends on temperatures, operating time, insulation level and system type. In many installations, energy loss from uninsulated or insufficiently insulated components can be significantly reduced by properly implemented technical insulation.
PUR and PIR
What is pipe insulation?
PUR insulation is based on polyurethane and is used where high insulation performance is required combined with low weight and high dimensional stability. The material is used in pre-insulated district heating pipes, where its use is regulated by law, as well as in pipe insulation, special components and other prefabricated insulation solutions.
PIR is a further development of polyurethane technology and is used in technical solutions where requirements are placed on insulation capacity, temperature resistance and mechanical properties. PIR is used, among other things, in industrial insulation systems and technical installations.
PUR and PIR are both high-performance insulation materials based on polyurethane. The primary difference lies in the chemical structure and properties of the materials. The choice depends on operating conditions, temperature requirements and the specific application.
Heat loss
What is pipe insulation?
Heat loss is calculated based on, among other things, temperature differences, pipe dimensions, insulation thickness, operating time and the thermal conductivity of the insulation material. The calculation provides a basis for assessing energy consumption and savings potential.
PIR is a further development of polyurethane technology and is used in technical solutions where requirements are placed on insulation capacity, temperature resistance and mechanical properties. PIR is used, among other things, in industrial insulation systems and technical installations.
PUR and PIR are both high-performance insulation materials based on polyurethane. The primary difference lies in the chemical structure and properties of the materials. The choice depends on operating conditions, temperature requirements and the specific application.
