Technical Resources for Infrared Heating Lamps
Practical information for selecting infrared emitters, measuring replacement lamps, preparing technical enquiries and understanding industrial infrared heating applications.
Find technical information according to your project stage
Start with general infrared information, compare product families, review an industrial application or prepare an existing lamp for replacement.
Infrared Heating Fundamentals
Learn how wavelength, emitter temperature, response speed and material absorption influence the heating process.
Read the fundamentals → RESOURCE 02Infrared Lamp Selection
Compare short-wave, medium-wave, fast-response medium-wave, carbon and special-shaped infrared emitters.
Compare product families → RESOURCE 03Replacement Lamp Guide
Understand how an old lamp, part number, machine model, drawing or photograph can be used for replacement evaluation.
View replacement guidance → RESOURCE 04Application Selection
Review infrared heating for PET blowing, printing, coatings, textiles, plastics and industrial equipment.
Explore applications → RESOURCE 05Manufacturing Process
See how specifications, quartz construction, heating zones, reflector and connections are managed during production.
View manufacturing process → RESOURCE 06Prepare a Technical Enquiry
Organize voltage, wattage, dimensions, photographs, machine information and quantity before requesting a quotation.
Prepare your enquiry →Infrared heating transfers energy directly toward the material
Infrared emitters produce electromagnetic radiation that can be absorbed by a material and converted into heat. The result depends on the wavelength, emitter temperature, distance, material surface and exposure time.
Review Industrial Applications →Wavelength
Different materials absorb infrared energy differently. The emitter wavelength should therefore be considered together with the material and heating objective.
Response Speed
Short-wave lamps normally respond faster than conventional medium-wave emitters, which can be useful for short production cycles.
Power Density
Lamp wattage, heated length, distance and reflector influence how much infrared energy reaches the target area.
Process Conditions
Conveyor speed, exposure time, ventilation, surface temperature and installation space affect the final heating result.
General characteristics of common industrial infrared emitter types
The ranges below are general guidance. Final selection should be confirmed according to the material, equipment and required process result.
| Emitter Type | General Output Range | Response | Typical Strength | Common Applications |
|---|---|---|---|---|
| Short-Wave Infrared | Approximately 1.0–1.4 μm | Very fast | High power density and precise switching | PET preforms, plastics, paint and rapid process heating |
| Fast Response Medium-Wave | Approximately 1.4–2.0 μm | Fast | Faster control with medium-wave characteristics | Printing, drying, coatings and cyclic production |
| Carbon Infrared | Approximately 2.0–2.5 μm | Medium-fast | Useful absorption for many plastics and organic materials | Textiles, plastics, coatings and drying |
| Medium-Wave Infrared | Approximately 2.2–3.2 μm | Moderate | Stable process heating and moisture absorption | Paper, textiles, coatings and moisture removal |
How to measure an infrared lamp
Accurate measurements reduce the risk of an incorrect quotation or a lamp that cannot be installed in the existing equipment.
Send Your Measurements →
Useful references when the original lamp drawing is unavailable
A complete drawing is ideal, but replacement evaluation can often begin with a combination of photographs, measurements and equipment information.
- Original part number or lamp marking
- Machine manufacturer and model
- Voltage and wattage
- Overall length and heated length
- Tube diameter or twin-tube size
- Reflector material and direction
- Photographs of both lamp ends
- Sample quantity and expected repeat demand
Product and application guides for industrial infrared heating
Use these pages to compare product families and understand the main technical considerations for each emitter type.
Short-Wave Infrared Lamps
Rapid-response quartz infrared lamps for high-intensity heating, PET processing and industrial applications.
Read the guide →
Medium-Wave Infrared Lamps
Infrared emitters for drying, moisture removal, plastics, textiles and process heating.
Read the guide →
Fast Response Medium-Wave
Medium-wave heating with faster response for cyclic production, drying and coating processes.
Read the guide →
Carbon Infrared Lamps
Carbon-filament emitters for textiles, plastics, coatings and medium-wave heating applications.
Read the guide →
Twin-Tube Infrared Lamps
Strong quartz construction for long emitters, high power and industrial dryer systems.
Read the guide →
Special-Shaped Infrared Lamps
Curved, U-shaped, spiral and application-specific lamps designed around non-linear heating areas.
Read the guide →Move from technical research to a clear project enquiry
The next step depends on whether you are selecting a new emitter, replacing an installed lamp or developing a new industrial heating process.
Information on this page is provided as general guidance. Final lamp selection, compatibility and production specifications should be confirmed according to the customer's material, machine, operating conditions, drawing and technical requirements.
Infrared heating technical information
What information is needed to select an infrared lamp?
Useful information includes the material, heating objective, target temperature, heated area, exposure time, production speed, available installation space, voltage, wattage and required quantity.
How do I choose between short-wave and medium-wave infrared?
Short-wave lamps generally provide faster response and higher power density. Carbon and medium-wave lamps may be more suitable for materials and processes such as textiles, plastics, coatings, drying and moisture removal. Final selection should be based on actual material testing and equipment conditions.
Can you identify a lamp using only a part number?
A part number is a useful starting point, but voltage, wattage, dimensions, reflector, end connections and machine information should still be reconfirmed before production.
What photographs should I take of an old lamp?
Photograph the complete lamp, both ends, ceramic parts, terminals, lead wires, reflector direction, printed markings and the lamp installed in the machine when possible.
Is overall length the same as heated length?
No. Overall length includes the complete lamp and its end construction, while heated length refers to the active heating area. Both measurements are important.
Can I send a hand-drawn sketch instead of a formal drawing?
Yes. A clear measured sketch can support the initial review. Mark the overall length, heated length, tube size, reflector, terminal arrangement and lead-wire dimensions.
Can infrared lamp selection be confirmed without testing?
Existing lamp specifications and previous experience can provide a useful starting point, but new materials and heating processes may require prototype testing in the customer's actual equipment.