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Infrared LED Module supplier for Sintering and Irradiation Integrated Furnace - Solar simulator LED module 200-1750nm

INFRARED MODULE/

Infrared LED Module supplier for Sintering and Irradiation Integrated Furnace

Module Details:

Compatible LEDs:High-power LED 3535 SMD

Peak wavelength:850&940nm

Radiant Flux:(Customizable)

Forward Voltage:(Customizable.)

Forward Current: (Customizable)

Diffuseurs:Quartz glass lens&Flat 

Consommation:(Customizable)

PCB Size(L x W x H):(Customizable)

led Lens Viewing Angles:  | 60° | 120° 

PCB Type: MCPCB

Lens Type: Flat & lens

Circuit:(Customizable)

Configuration: (Customizable)

Base Metal Type:Copperplate

  • Product Details
  • Why Infrared LED Module ?
  • FAQs
  • Packing & Delivery

 Infrared LED Module  for A roller conveyor type continuous furnace for sintering and irradiation annealing of solar cells, which can be used for the sintering and irradiation annealing treatment of solar cells, is composed of a feeding zone, a sintering zone, a sintering cooling zone, an irradiation annealing zone, an annealing cooling zone and a discharging zone. The solar cells are conveyed on a set of horizontally arranged roller conveyors and pass through the above zones in sequence, completing the sintering and irradiation annealing process of solar cells in one go. The present invention fundamentally solves the problem of large-scale production of irradiation annealing process, thereby maximizing the solution to the attenuation problem of solar cells during use.

The solar cell substrate rapid annealing furnace is an important equipment used in the manufacturing process of solar cells. With the increasing demand for renewable energy, the production technology of solar cells is also constantly improving. This article will present the relevant knowledge about the solar cell substrate rapid annealing furnace in the form of “Explaining Common Misconceptions”, in order to help readers better understand the function and application of this equipment.

1. What is a solar cell substrate rapid annealing furnace?
A solar cell substrate rapid annealing furnace is a high-temperature furnace equipment used for processing solar cell substrates. Its main function is to improve the crystal structure of the substrate through heating treatment, thereby enhancing the photoelectric conversion efficiency of the solar cell. The rapid annealing furnace usually adopts advanced heating technology, which can heat the substrate to the required high temperature in a short time and then rapidly cool it to achieve the desired processing effect.
2. What is the principle of rapid annealing?
The principle of rapid annealing is to repair the defects existing in the substrate through short-term high-temperature treatment, while promoting the re-arrangement of the crystal. In a high-temperature environment, the atomic activity of the material is enhanced, which helps the migration and elimination of defects, thereby improving the performance of the battery. The heating and cooling process of the rapid annealing furnace is precisely controlled, which can effectively avoid material damage caused by overheating.
3. What are the heating methods of the rapid annealing furnace?
The heating methods of the rapid annealing furnace mainly include the following types:

a. Infrared heating: Using infrared radiation to heat the substrate, which has the advantages of fast heating and low energy consumption.
b. Microwave heating: Using microwave radiation to generate heat inside the material, which has the advantage of uniform heating.
c. Resistance heating: Generating heat through current passing through resistance wires, which is suitable for large-scale production.
Each heating method has its unique advantages and disadvantages. The selection of the appropriate heating method needs to be considered comprehensively based on production requirements.
4. What are the advantages of using a rapid annealing furnace?
Using a solar cell substrate rapid annealing furnace has the following significant advantages:
a. Improve photoelectric conversion efficiency: After rapid annealing treatment of the substrate, its crystal structure becomes more well-known, which can effectively enhance the photoelectric conversion efficiency of the solar cell.
b. Shorten production cycle: The rapid annealing furnace can complete heating and cooling in a short time, significantly shortening the production cycle of solar cells and improving production efficiency.
c. Reduce energy consumption: Compared with traditional annealing furnaces, the rapid annealing furnace has more advantages in energy consumption, helping to reduce production costs.
5. What are the application fields of the rapid annealing furnace?

The solar cell substrate rapid annealing furnace is mainly applied in the following fields:
a. Solar cell manufacturing: Widely used in the production of crystalline silicon solar cells, thin-film solar cells, etc.
b. Semiconductor industry: In the manufacturing process of semiconductor devices, the rapid annealing furnace is also used to process various substrates to improve device performance.
c. Materials science research: Used for the development and research of new materials, helping researchers explore the potential performance of materials.
6. Common misunderstandings
a. The rapid annealing furnace can only be used in solar cell production: In fact, the rapid annealing furnace can also be applied in semiconductor and materials science fields, with wide applicability.
b. Rapid annealing will cause substrate damage: If controlled properly, rapid annealing can effectively repair the defects in the substrate, rather than causing damage. The key lies in the rate of heating and cooling and the control of temperature.
c. Only high-end equipment can achieve rapid annealing: Although high-end equipment has better performance and stability, some mid-to-low-end equipment can also achieve rapid annealing, it just requires more strict operation procedures and monitoring.
7. Future development trends
With the advancement of technology and the enhancement of environmental awareness, the technology of solar cell substrate rapid annealing furnaces is also developing. Possible trends in the future include:
a. Intelligence: Combining artificial intelligence and big data technology, the rapid annealing furnace will achieve more intelligent temperature control and process optimization, improving production efficiency.
b. Energy conservation and environmental protection: The application of new materials and new technologies will make the rapid annealing furnace more environmentally friendly in terms of energy consumption and emissions, meeting the requirements of sustainable development. c. Multi-functionality: Future rapid annealing furnaces may not only be used for processing solar cells, but also be capable of meeting the processing requirements of other materials, thereby enhancing the overall utilization rate of the equipment.
In summary, the rapid annealing furnace for solar cell substrates plays a crucial role in the production process of solar cells. By improving the photoelectric conversion efficiency, shortening the production cycle, and reducing energy consumption, the rapid annealing furnace promotes the development of the solar industry. Understanding its principles, applications, and common misunderstandings is helpful for better mastering this technology and contributing to the future of renewable energy.

Infrared LED vs. Mercury Lamp: Technical Comparison

I. Spectral Characteristics

  • Infrared LEDs
    Emit precisely controlled, narrow-band infrared radiation (typical FWHM: 10–40 nm), with customizable peak wavelengths (e.g., 850 nm, 940 nm).
  • Mercury Lamps
    Generate broadband emission spanning ultraviolet to infrared wavelengths. Infrared output is continuous but inefficient, with significant energy wasted in non-target spectral bands.

II. Thermal Efficiency & Energy Consumption

  1. Thermal Radiation Profile
    • LEDs‌: Function as "cold sources" with negligible IR heat radiation. Target substrates exhibit ≤5°C temperature rise, ideal for heat-sensitive materials.
    • Mercury Lamps‌: Generate intense IR heat flux, inducing surface temperature increases of 60–90°C. High risk of thermal damage to materials.
  2. Energy Efficiency
    • LEDs‌: Achieve ~30% photoelectric conversion efficiency, with >50% lower energy consumption than mercury lamps.
    • Mercury Lamps‌: Convert ≤30% of input power into usable UV/IR radiation; >70% is dissipated as waste heat.

III. Operational Lifetime & Maintenance

  • LEDs‌: Service life of 10,000–40,000 hours. Solid-state design enables instant on/off operation with zero consumables.
  • Mercury Lamps‌: Limited lifespan of 1,000–3,000 hours. Require frequent bulb replacement (mercury hazard) and 15–20-minute warm-up cycles.

IV. Environmental & Safety Compliance

  • LEDs‌: Mercury-free, ozone-free, fully recyclable. Aligns with sustainable manufacturing standards.
  • Mercury Lamps‌: Contain hazardous mercury (environmental contamination risk if breached). IR exposure poses operational safety hazards.

V. Recommended Applications

✅ ‌Infrared LEDs Preferred For‌:

  • Thermal-sensitive processes (e.g., curing plastics, electronic components)
  • Precision wavelength-dependent applications (medical/research)
  • High-uptime production lines prioritizing energy efficiency

⚠️ ‌Limited Mercury Lamp Use Cases‌:

  • Deep-layer curing requiring broad-spectrum support (specific industrial coatings)
  • Ultra-high-power-density heating (with thermal side-effect tolerance)

Note: Infrared LEDs now replace >80% of mercury lamps in industrial IR applications, with legacy mercury systems primarily confined to niche high-power scenarios.


This version:

  • Uses precise technical terminology (e.g., "FWHM," "photoelectric conversion," "solid-state design")
  • Adopts American English spelling conventions (e.g., "optimize" vs. "optimise")
  • Maintains formal tone with passive constructions and data-driven comparisons
  • Structures content for technical reports or procurement documentation
  • Eliminates colloquialisms while preserving all critical technical parameters

Heyis’ Programmable Infrared LED  Modules Pre-budgetary Quote Questionnaire

Q: When will you arrange the production?

A: We usually arrange the production immediately after receiving your payment if we have the item in stock. Otherwise, please confirm with us for lead time.

Q: What is your accepted payment type?
A: Wire transfer, Paypal and Western Union, and Alibaba Trade Assurance.We only accept Paypal and Western Union, and Alibaba Trade Assurance for payment amounts below USD400.

Q: What logistic forwarder do you usually work with?
A: We work with DHL, TNT, UPS, FEDEX and other logistric forwarders. Assigned your own forwarder for shipment is available.

Q:Is there any minimum order quantity (MOQ) requirement for the PCB Assembly order?

A: Generally, there is no minimum order quantity (MOQ) requirement for the pcb assembly order.

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