New technological breakthroughs

We have independently developed and launched the first independent light input and output spectral confocal displacement sensor and split-channel optical fiber, which reduces optical path interference by more than 50% compared with traditional optical fiber, solving a problem that has plagued the industry for decades.

The highest testing accuracy reaches the sub-micron level, and it can measure the thinnest transparent films up to 8μm.

Ultra-high measurement accuracy

Industry-leading level, with product resolution reaching 1nm level.

We have independently developed a spectral confocal lens with a static repeatability of 10nm, a spot size as small as 3μm, a clear optical path, and ultra-high resolution that can accurately separate and measure the reflected light from the surface and back of ultrathin film samples.

High stability

It independently develops optical structures, possesses a stable and precise optical system, is not susceptible to harsh environments, and provides stable measurements.

It employs a highly efficient and accurate peak acquisition and filtering algorithm. This enables accurate and rapid acquisition of peak wavelengths, ensuring the linearity of the spectral confocal sensor's measurement accuracy.

New technological breakthroughs

We have independently developed and launched the first independent light input and output spectral confocal displacement sensor and split-channel optical fiber, which reduces optical path interference by more than 50% compared with traditional optical fiber, solving a problem that has plagued the industry for decades.

The highest testing accuracy reaches the sub-micron level, and it can measure the thinnest transparent films up to 8μm.

Ultra-high measurement accuracy

Industry-leading level, with product resolution reaching 1nm level.

We have independently developed a spectral confocal lens with a static repeatability of 10nm, a spot size as small as 3μm, a clear optical path, and ultra-high resolution that can accurately separate and measure the reflected light from the surface and back of ultrathin film samples.

High stability

It independently develops optical structures, possesses a stable and precise optical system, is not susceptible to harsh environments, and provides stable measurements.

It employs a highly efficient and accurate peak acquisition and filtering algorithm. This enables accurate and rapid acquisition of peak wavelengths, ensuring the linearity of the spectral confocal sensor's measurement accuracy.

New technological breakthroughs

We have independently developed and launched the first independent light input and output spectral confocal displacement sensor and split-channel optical fiber, which reduces optical path interference by more than 50% compared with traditional optical fiber, solving a problem that has plagued the industry for decades.

The highest testing accuracy reaches the sub-micron level, and it can measure the thinnest transparent films up to 8μm.

Ultra-high measurement accuracy

Industry-leading level, with product resolution reaching 1nm level.

We have independently developed a spectral confocal lens with a static repeatability of 10nm, a spot size as small as 3μm, a clear optical path, and ultra-high resolution that can accurately separate and measure the reflected light from the surface and back of ultrathin film samples.

High stability

It independently develops optical structures, possesses a stable and precise optical system, is not susceptible to harsh environments, and provides stable measurements.

It employs a highly efficient and accurate peak acquisition and filtering algorithm. This enables accurate and rapid acquisition of peak wavelengths, ensuring the linearity of the spectral confocal sensor's measurement accuracy.