Tungsten Filament Ruby Infrared Emitters without glare

Low glare stabilization, constant color throughout life, choice of R7s and SK15 ceramic end base

Ruby infrared lamps are made up of ruby quartz tube and tungsten filament, it is vacuum lamp, they are available as slim or jacketed types.

Quickly infrared ruby lamps comprise finely coiled tungsten filament surrounded directly by a 10mm diameter Ruby quartz tube. With no coating on the surface of the glass tube, this lamp brings you no peeling trouble to realize unchangeable low glare over a lifetime. They are ideal for industrial heating, as well as animal husbandry and paint drying. 

Infrared heating is a kind of radiation heating. It spreads by a kind of infrared radiation (light)-- infrared light from material in the form of molecular (atomic) resonance absorption, so as to achieve the purpose of heating. It can be applied in many fields such as the heating process of industry coating, plastic forming, automotive industry, glass making, spinning, solar PV, food baking, drying of printing inks, quick drying of primer and paint on furniture, printed circuit, and so forth.      

Medium wave single tube infrared radiators are used in a wide range of industrial processes and offer a truly efficient and economical mode of heating. QUICKLY single tube medium wave IR emitters design with the gold reflector as standard, using high purity quartz, gives the user the best in infrared heating technology.

single tube carbon fiber medium wave heating tube infrared lamp 380V 2000W, tube diameters are available as 10mm, 11mm, 12mm, 13mm, 15mm, 18mm, 20mm, and reflector one tube surface for directed heat radiation, Long average lifespan and Low running costs.

Quartz glass infrared heater lamps is playing the significant part of plastic components welding. Energy from the IR heater lamps is absorbed by the material and transformed into heat, the heat is transferred without contact, and the heat input is fast, specific and energy-efficient.

Short-Wave Infrared emitters produce infrared waves of around 0.75 – 1.4 microns in wavelength and operate at high temperatures above 1,300 – 2,6000C. Since these wavelengths have higher frequencies, they tend to be more transmissive and reflective.The high efficiency of this technique, however, not only follows from the absorption properties of the materials to be heated, but also in conjunction with the atmosphere.