https://pscoat.international/ https://pscoat.international/wp-content/themes/powersmartcoat-v2/assets/images/thermoskanne-haus.jpg House and vacuum flask: visual metaphor for insulation Visual metaphor: a house and a vacuum flask as one object. The hero image is not a technical drawing and not a proof of performance. https://pscoat.international/wp-content/psc-weltportal/grafiken/ceramic-vacuum-nanosphere-cross-section-diagram-1440.webp Ceramic vacuum nanosphere: shell and vacuum core (schematic) Schematic illustration. PScoat's coating is built from ceramic vacuum nanospheres: a ceramic shell around a vacuum core below 70 nm, about 14,000 spheres per millimetre of coating. https://pscoat.international/wp-content/psc-weltportal/grafiken/knudsen-lab-pore-size-gas-pressure-simulation-1560.webp Knudsen lab: pore size, gas pressure and heat conduction through gas (model) Interactive model (Knudsen formula, air at 20 °C): the smaller the pore and the lower the gas pressure, the less heat the gas conducts. PScoat's nanosphere puts the values into this range. https://pscoat.international/wp-content/psc-weltportal/grafiken/vacuum-in-nanospheres-wall-cross-section-diagram-1720.webp Wall cross-section: the vacuum is in the spheres, not in the wall (schematic) Schematic illustration: in PScoat's coating the vacuum sits inside the ceramic spheres, not in the wall. Applied like a paint, the facade system dries to a layer of about 1 mm. https://pscoat.international/wp-content/psc-weltportal/grafiken/hot-climate-wall-section-reflection-diagram-1014.webp Wall section, hot country: solar radiation reflected at the outer sphere layer (schematic) Schematic illustration of the reflection principle: PScoat reflects solar radiation at the outer sphere layer. Total solar reflectance (TSR) 91–92 % depending on the product, light shades. https://pscoat.international/wp-content/psc-weltportal/grafiken/cold-climate-wall-section-reflection-diagram-1014.webp Wall section, cold country: radiation reflected at the sphere layers on both sides (schematic) Schematic illustration of the reflection principle: PScoat's thin sphere layers reflect radiation on both sides of the wall. Blue arrows stand, simplified, for the influence of cold from outside. https://pscoat.international/wp-content/psc-weltportal/grafiken/summer-heat-reflection-roof-wall-diagram-1014.webp House diagram, summer: coated roof and walls reflect solar radiation (schematic) Schematic illustration: the coated roof and wall surfaces reflect solar radiation in summer. Total solar reflectance (TSR) 91–92 % depending on the product, light shades. https://pscoat.international/wp-content/psc-weltportal/grafiken/winter-heating-warmth-reflection-roof-wall-diagram-1014.webp House diagram, winter: heating warmth reflected back at the coated surfaces (schematic) Schematic illustration: PScoat reflects heating warmth back into the rooms at the coated roof and wall surfaces instead of letting it escape outward. https://pscoat.international/wp-content/psc-weltportal/grafiken/pscoat-layer-system-roof-wall-diagram-2000.webp The PScoat system layer by layer: roof and wall (schematic) Schematic illustration: one coating system for roof and wall, built from matched PScoat layers. Reflectance (TSR) 92 ± 1 % for light shades, ECR Roof 91 ± 1 %. https://pscoat.international/wp-content/psc-weltportal/produkte/lineup-n2-2000.webp Seven PScoat 250T buckets: ECB Basic A and B, Build, ECR Roof, ECI Interior, HP, Eco Outside Product render of the PSC 250T range: primers, main layers and finish. Pack sizes and availability depend on your country. https://pscoat.international/wp-content/psc-weltportal/produkte/build-n3-1200.webp PSC 250T facade system: Basic B, Build and Eco Outside buckets Product render of the PSC 250T facade system: primer, main layer and finish. Pack sizes and availability depend on your country. https://pscoat.international/wp-content/psc-weltportal/produkte/roof-n3-1200.webp PSC 250T roof system: Basic A, HP and ECR Roof buckets Product render of the PSC 250T roof system. Pack sizes and availability depend on your country. https://pscoat.international/wp-content/psc-weltportal/produkte/interior-n3-1200.webp PScoat interior system: Basic B and ECI Interior buckets Product render of the PScoat interior system: primer and vapour-open interior coating. Pack sizes depend on your country. https://pscoat.international/wp-content/psc-weltportal/produkte/industrial-n3-1200.webp PSC 250T industrial plant system: Basic A and HP buckets Product render of the PSC 250T system for industrial plant: primer and HP. Pack sizes depend on your country. https://pscoat.international/wp-content/psc-weltportal/produkte/primer-n2-1200.webp PSC 250T ECB Basic A and Basic B primers, 5 l Product render of the two PSC 250T primers, ECB Basic A and ECB Basic B, in 5 l buckets. https://pscoat.international/wp-content/psc-weltportal/produkte/mainlayer-n3-1200.webp PSC 250T main layers: Build, ECI Interior, ECR Roof and HP Product render of the four PSC 250T main layers by area of use, 18 l buckets. https://pscoat.international/wp-content/psc-weltportal/produkte/finish-n2-1200.webp PSC 250T Eco Outside facade finish, 18 l Product render of PSC 250T Eco Outside, the finish layer of the facade system, 18 l bucket. https://pscoat.international/wp-content/psc-weltportal/referenzen/heineken.png Heineken (reference logo) Logo of Heineken, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/continental.png Continental (reference logo) Logo of Continental, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/kghm.png KGHM Polska Miedź (reference logo) Logo of KGHM Polska Miedź, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/synthos.png Synthos (reference logo) Logo of Synthos, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/orlen.png ORLEN (reference logo) Logo of ORLEN, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/opel.png Opel (reference logo) Logo of Opel, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/grupa-azoty.png Grupa Azoty (reference logo) Logo of Grupa Azoty, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/wp-content/psc-weltportal/referenzen/michelin.png Michelin (reference logo) Logo of Michelin, listed among the industrial companies that use PScoat coatings (references section). https://pscoat.international/graphics/ https://pscoat.international/wp-content/psc-weltportal/grafiken/ceramic-vacuum-nanosphere-cross-section-diagram-1440.webp Ceramic vacuum nanosphere: shell and vacuum core (schematic) Schematic illustration. PScoat's coating is built from ceramic vacuum nanospheres: a ceramic shell around a vacuum core below 70 nm, about 14,000 spheres per millimetre of coating. https://pscoat.international/wp-content/psc-weltportal/grafiken/knudsen-lab-pore-size-gas-pressure-simulation-1560.webp Knudsen lab: pore size, gas pressure and heat conduction through gas (model) Interactive model (Knudsen formula, air at 20 °C): the smaller the pore and the lower the gas pressure, the less heat the gas conducts. PScoat's nanosphere puts the values into this range. https://pscoat.international/wp-content/psc-weltportal/grafiken/vacuum-in-nanospheres-wall-cross-section-diagram-1720.webp Wall cross-section: the vacuum is in the spheres, not in the wall (schematic) Schematic illustration: in PScoat's coating the vacuum sits inside the ceramic spheres, not in the wall. Applied like a paint, the facade system dries to a layer of about 1 mm. https://pscoat.international/wp-content/psc-weltportal/grafiken/hot-climate-wall-section-reflection-diagram-1014.webp Wall section, hot country: solar radiation reflected at the outer sphere layer (schematic) Schematic illustration of the reflection principle: PScoat reflects solar radiation at the outer sphere layer. Total solar reflectance (TSR) 91–92 % depending on the product, light shades. https://pscoat.international/wp-content/psc-weltportal/grafiken/cold-climate-wall-section-reflection-diagram-1014.webp Wall section, cold country: radiation reflected at the sphere layers on both sides (schematic) Schematic illustration of the reflection principle: PScoat's thin sphere layers reflect radiation on both sides of the wall. Blue arrows stand, simplified, for the influence of cold from outside. https://pscoat.international/wp-content/psc-weltportal/grafiken/summer-heat-reflection-roof-wall-diagram-1014.webp House diagram, summer: coated roof and walls reflect solar radiation (schematic) Schematic illustration: the coated roof and wall surfaces reflect solar radiation in summer. Total solar reflectance (TSR) 91–92 % depending on the product, light shades. https://pscoat.international/wp-content/psc-weltportal/grafiken/winter-heating-warmth-reflection-roof-wall-diagram-1014.webp House diagram, winter: heating warmth reflected back at the coated surfaces (schematic) Schematic illustration: PScoat reflects heating warmth back into the rooms at the coated roof and wall surfaces instead of letting it escape outward. https://pscoat.international/wp-content/psc-weltportal/grafiken/pscoat-layer-system-roof-wall-diagram-2000.webp The PScoat system layer by layer: roof and wall (schematic) Schematic illustration: one coating system for roof and wall, built from matched PScoat layers. Reflectance (TSR) 92 ± 1 % for light shades, ECR Roof 91 ± 1 %. https://pscoat.international/wp-content/psc-weltportal/grafiken/nanosphere-3d-lesson-ceramic-shell-vacuum-core-1680.webp Learning Studio: from the sphere to the wall (3D lesson) Interactive 3D lesson in the PScoat Learning Studio: five stations lead from the single sphere to the finished layer on the wall. https://pscoat.international/wp-content/psc-weltportal/grafiken/knudsen-lab-winter-summer-temperature-model-1680.webp Learning Studio: Knudsen lab with winter and summer temperature (model) Learning Studio edition of the Knudsen lab: a model with the Knudsen formula for air at 20 °C, showing the principle behind PScoat's vacuum nanospheres. https://pscoat.international/wp-content/psc-weltportal/grafiken/wall-scene-hot-cold-climate-with-without-coating-896.webp Learning Studio: where the heat stays, wall scene for hot and cold climate Interactive wall scene in the PScoat Learning Studio: switch climate and compare the wall with and without PScoat. https://pscoat.international/wp-content/psc-weltportal/grafiken/house-model-roof-facade-summer-winter-coating-790.webp Learning Studio: house model for roof and facade in summer and winter Interactive house model in the PScoat Learning Studio: coat roof and facade and compare summer and winter. https://pscoat.international/wp-content/psc-weltportal/grafiken/address-calculator-material-demand-four-steps-1680.webp Learning Studio: your own house in four steps, address calculator and material demand PScoat Learning Studio, your own house in four steps: address calculation, material requirement, aerial view and filmed walls.