1. Difference between anti-static ESD foam and conductive ESD foam IXPE conductive / anti-static foam: the product is extruded polyethylene or modified polyethylene and conductive filler and antistatic agent. After radiation crosslinking and high temperature foaming, conductive / anti-static foam plastics are made. Its surface resistance and volume resistance are 103-109 Ω, permanent conductive / antistatic, smooth surface, environmental protection, easy to be processed and molded, ESD foam are widely used in fields related ESD. Characteristic: 1. Permanent conductive / antistatic performance;2. Conductivity / antistatic performance is not affected by ambient humidity;3. Volume resistance and surface resistance 103-109 Ω;4. Easy for secondary molding. The resistance of antistatic foam is 106 – 1011 Ω; The resistance of conductive foam is 103-109 Ω. Due to the difference of resistance value, the electrostatic half-life of conductive foam is far less than that of anti-static foam, and the electrostatic voltage of conductive foam is far less than that of

The Heat is an energy, transmits in three ways, conduction, convection, radiation. Through the high temperature to low temperature transfer, and ultimately achieve the dynamic balance of average temperature. Conduction: Air is a poor conductor of heat conduction. The air layer is the best material of anti-heat conductive Such as snow suits, blankets and son on, are all the use of air layer. Convection: Occurs in the material, like liquid, gas. Therefore, cooling need to be installed on the high place, and heating need to be put on the ground （lower）， Its principle is using of thermal convection transmission, to achieve uniform temperature as soon as possible. Radiation: The sun’s radiation does not transmit to the Earth through any substance. Aluminum foil can reflect 97% of radiant heat（Emission Rate E=0.03）， Aluminum foil insulation material is the best ideal to the anti- heat radiant. Product:  Aluminum Foil XPE foam core insulation

Technical advantages of irradiated crosslinking polypropylene foam (IXPP foam) Irradiated crosslinking polypropylene foam （IXPP foam) products have attracted much attention due to their good thermal stability (maximum temperature up to 130 ℃) and the size stability of products at high temperature, high toughness, tensile strength and impact strength, suitable and compliant surfaces, excellent microwave adaptability and environmental protection. They can be widely used in many fields such as packaging materials, thermal insulation materials and automotive industry. Main applications of irradiated crosslinking polypropylene foam (IXPP foam) 1. Packaging materials The thermally formed food packaging container with radiation crosslinking polypropylene foam has high heat resistance up to 130 degrees Celsius (and foaming PS is only 80 degrees Celsius), and is resistant to boiling water, high temperature stability and comfortable surface feel. It is an ideal microwave oven and microwave food packaging material. The hot formed bowls, dishes and packaging materials have high enough

What is thermal conductivity? Thermal conductivity refers to the ability of a given material to conduct/transfer heat. It is generally denoted by the symbol ‘k’ but can also be denoted by ‘λ’ and ‘κ’. The reciprocal of this quantity is known as thermal resistivity. Materials with high thermal conductivity are used in heat sinks whereas materials with low values of λ are used as thermal insulators. Fourier’s law of thermal conduction (also known as the law of heat conduction) states that the rate at which heat is transferred through a material is proportional to the negative of the temperature gradient and is also proportional to the area through which the heat flows. The heat transfer characteristics of a solid material are measured by a property called the thermal conductivity, k (or λ), measured in W/m.K. It is a measure of a substance’s ability to transfer heat through a material by conduction. Note

R-value for construction application The Right Insulation…..increases building energy efficiency, improves health and well-being and reduces greenhouse gas emissions and provides more than just efficiency for buildings Environmental benefits:• Buildings account for over 20% of GHG emissions.• Energy consumption in buildings is growing faster than most other areas of use.• Insulation is the most cost effective way of reducing energy consumption and greenhouse gases emissions in the built environment.• Insulating buildings (new and existing) is the most financially attractive of all energy efficiency and renewable energy measures to reduce greenhouse gas emissions.• Current insulation production technology is proven and available now. Installing insulation has an immediate impact on energy demand and GHG emissions.• A response to climate change demands well-insulated new and existing buildings. Economic benefits:• Insulation reduces average home heating and cooling costs by around 30%.• Insulation reduces the burden of increasing energy prices.• The cost of installing insulation