In cutting-edge research and industrial scenarios such as high-end photocatalytic mechanism studies, large-area material aging simulation, efficient calibration of photovoltaic devices, biological strong-light excitation, and space environment simulation, conventional 150W and 300W light sources often have shortcomings such as insufficient light intensity, weak ultraviolet energy, limited irradiation area, and inability to meet high-power experiments. The insufficient light intensity level and low spectral energy density not only fail to drive high-energy photochemical reactions and achieve uniform large-area illumination, but also lead to low efficiency of long-term experiments, insufficient data gradients, and difficulties in implementing high-end research projects.

The Sefan Optoelectronics 7ILX500C xenon lamp is a 500W industrial-grade research xenon lamp specifically designed for high-intensity, large-area, and high-precision lighting scenarios. Equipped with a German Osram original imported high-pressure short-circuit xenon lamp, combined with a large-diameter collimating optical path, precise adjustable optical structure, and high-stability linear drive system, it features four core hard-core characteristics: ultra-high light intensity, full true full-spectrum, large-area uniform irradiation, and long-term stable output. This fills the performance gap of small and medium-power light sources and becomes the main strong-light source equipment for high-end laboratories, photovoltaic enterprises, and aerospace detection.

500W high-power strong light output, energy density exceeds the standard

As a high-power flagship xenon lamp, the 7ILX500C has a rated high light intensity of 500W, with an emission brightness of up to 40,000 cd/cm², capable of easily achieving solar light intensity of 1 Sun or above. The light energy density is far higher than that of conventional small and medium-power light sources. The high light intensity characteristic can perfectly adapt to high-energy photocatalysis, water splitting for hydrogen production, deep degradation of pollutants, and strong light-induced material modification, solving the problems of slow reaction rate, insufficient excitation, and long experimental periods of weak light sources, significantly improving the efficiency and quality of scientific research experiments.

Continuous full-spectrum from ultraviolet to near-infrared, full true replication of standard solar light

The equipment relies on the core of imported short-circuit xenon lamps to achieve a continuous coverage of the 200?2500nm ultra-wide spectrum, with balanced and continuous energy distribution in the ultraviolet, visible, and near-infrared bands, without spectral discontinuities or spectral distortion, and matching the standard color temperature of natural sunlight. The spectral fidelity is extremely high. Compared to the shortcoming of insufficient ultraviolet energy of conventional light sources, this machine has abundant radiation energy in the ultraviolet band, which can precisely simulate real outdoor sunlight conditions, perfectly adapting to high-precision scenarios such as solar cell spectral response testing, material full-band weathering aging, space spectral simulation, biological strong-light excitation, and optical component wide-band calibration.

F/# adjustable continuous optical path, flexible light spot adaptation to various sample sizes

Equipped with a precise adjustable optical path system, the light source chamber F/# can be continuously adjusted, combined with a large-diameter adjustable diaphragm structure, the light spot size is flexibly controllable, meeting the dual needs of precise point excitation of small samples and uniform irradiation of large-area plates. The light output is regular, the irradiation uniformity is high, the edges are clear without stray light, and it can freely match various experimental accessories such as integrating spheres, fiber coupling, optical platforms, and reaction vessels. The coupling efficiency of the optical path is high, the debugging is convenient, and it does not require complex modifications to build a large-area, high-intensity standardized lighting experimental system, suitable for diverse high-end experimental schemes.

High-stability linear drive architecture, zero drift in long-term continuous output

Equipped with a research-grade high-precision linear power supply driver, using closed-loop constant current control technology, the current ripple is extremely low, the dynamic response is smooth, and the long-term power stability of the entire machine is less than 2%. It supports long-term uninterrupted continuous operation, with no light intensity attenuation, no color temperature deviation, and no baseline jump for days of long-term lighting experiments, completely solving the industry problems of high-power light sources being prone to heating, drift, and poor stability. It perfectly supports large-area material aging monitoring, long-term testing of photovoltaic components, dynamic spectral tracking, etc., ensuring highly consistent, reproducible, and traceable experimental data.

Intelligent air-cooling cooling system, long-term protection of the lamp and extended lifespan

For the 500W high-power and high heat dissipation characteristics, the equipment is equipped with a full-area forced air cooling architecture, which precisely discharges the heat from the lamp body and the core components of the mechanism, effectively suppressing heat accumulation and temperature drift during operation, and avoiding spectral distortion and component aging caused by high temperatures. It is also equipped with a shutdown delay cooling mechanism and multiple overvoltage/overcurrent/overheat safety protections, which effectively reduce the heat loss of the high-power lamp core, significantly extend the lifespan of the bulb, reduce the cost of high-end experimental consumables and the frequency of equipment maintenance, and be suitable for industrial high-frequency continuous operation and regular long-term experimental conditions in scientific research.

Superb system compatibility, suitable for all scenarios of high-end scientific research

The 7ILX500C has full expansion and adaptability, and can seamlessly connect with all single-colorimeters, spectrometers, integrating spheres, and photoelectric detection systems from Sifan, quickly building a high-power light source + precise spectroscopy + high-precision detection integrated high-end optical testing platform. It is widely applicable to advanced scientific research and industrial high-end detection scenarios such as high-end photocatalysis and photochemistry research, photovoltaic cell and component efficiency calibration, aerospace space spectral simulation, polymer material weathering aging testing, biomedical strong light excitation, and full-band detection of precision optical components.

500W ultra-high power with high light intensity | 200?2500nm full true spectrum | F/# adjustable precise optical path | Long-term stable without drift | Intelligent air cooling to protect the lamp and extend its lifespan | Full-area compatibility for advanced scenarios

Strong light empowers cutting-edge scientific research, precisely replicating natural light. The Sifan photoelectric 7ILX500C xenon light source, with industrial-grade high-power output, solar light-level spectral accuracy, and long-term stability performance, breaks through the experimental bottlenecks of small-power light sources, continuously empowering high-end optical scientific research innovation and industrial precision detection upgrades!