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Specialized light sources designed for testing, measuring, and semiconductor applications are engineered to meet the stringent requirements of these precision-driven fields. These lamps provide controlled and reliable illumination for a variety of purposes, ensuring accurate measurements and assessments. They are characterized by their adaptability, stability, and compatibility with testing environments.
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Application fields

Spectroscopy involves the study of interactions between matter and electromagnetic radiation. Various types of lamps are used as light sources in spectroscopy setups to analyze the composition of materials based on the way they interact with light.

Annealing is a heat treatment process used to alter the physical or chemical properties of materials, typically to reduce hardness and increase ductility. Lamps play a critical role in providing controlled and uniform heat during annealing.

Photolithography is a crucial process in semiconductor manufacturing, used to pattern and transfer circuit designs onto silicon wafers. Lamps play a vital role in providing the necessary light sources for photolithography equipment.

Lamp types

Halogen: Used in various applications, including general lighting, industrial heating, and optical systems.

Neon lamp: Primarily used for indicator lights and decorative lighting due to its distinctive color and glow.

UV lamps for fluorescent materials: Used to excite fluorescent materials, such as in UV light sterilization, counterfeit detection, and fluorescent microscopy.

LED lamp for solar cell testing: Employed in the testing and characterization of solar cells to simulate sunlight conditions. By using multiple LED channels for each wavelength range, different spectra can be simulated. Further, it is possible to test a device for each LED channel to perform a simple wavelength variation.

What are the important specifications of lamps?

Stability of a lamp refers to its ability to maintain a consistent intensity of light output over time. Automatic intensity control ensures that variations in light output are minimized, contributing to the reliability and precision of applications like photolithography.

Heat up time indicates the duration required for the lamp to reach a stable and consistent light output after being turned on. A shorter heat-up time is desirable for applications where rapid and consistent illumination is crucial, minimizing delays in processes.

Working hours specifies the estimated operational lifespan of the lamp, indicating the number of hours it can function before reaching the end of its usable life. Knowledge of working hours before failure assists in maintenance planning and ensures continuous operation without unexpected interruptions. The costs for replacement of the light bulbs should be also a factor that must be considered when purchasing a lamp.

Long term stability/degradation examines how the overall intensity of the lamp changes over an extended period of use, reflecting its long-term stability or potential degradation. Understanding long-term stability ensures consistent performance and helps anticipate any decline in intensity over the lamp's lifespan.

Intensity variation indicates whether the lamp's intensity remains constant or if it can be adjusted based on application requirements. Certain applications, such as spectroscopy or photolithography, may benefit from the ability to vary light intensity for specific experimental or manufacturing needs.

Active or passive cooling might be needed to prevent overheating at high power. Cooling is essential for maintaining optimal performance and preventing damage to the lamp, particularly in applications where high-power levels generate significant heat.

Flash specifies the lamp's ability to emit light in short bursts, typically measured in milliseconds. Flash capability is crucial in applications such as high-speed imaging, stroboscopic photography, or any scenario where controlled, brief bursts of light are required.

Lamps and SweepMe!

Lamp + Monochromator: SweepMe! can be integrated with a lamp (light source) and a monochromator. The combination allows for precise control and measurement of light wavelengths, making it useful in various optical experiments, spectroscopy, or applications where specific wavelengths of light are required.

Lamp + SMU for Solar Cells: SweepMe! Integrated with a lamp and Source Measure Unit (SMU) for solar cells enables the characterization of solar cell performance. The SMU can provide a controlled voltage or current to the solar cell, and SweepMe! facilitates the systematic sweeping and measurement of electrical parameters, helping to analyze and optimize the solar cell's efficiency under different conditions.

Lamp + Power Supply: By integrating with SweepMe!, lab power supplies can be effectively utilized to regulate the current through lamps, allowing researchers to adjust the intensity and behavior of the light emitted for their experiments.

Your partner for the integration

Lamp support and integration

Whatever is missing between your hardware and a running measurement, we build it with you.

Built from real lab practice

SweepMe! was founded in 2018 by Dr. Axel Fischer and Dr. Felix Kaschura after their PhDs in applied physics. Since then the company has grown into a service oriented partner for industry and research alike, and more than 100 companies and research institutes run their measurements with SweepMe! today. We know what a measurement setup has to deliver, we make the technology work for you, and we understand the science behind your data.

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