光学型

This is a vertical chamber liquid nitrogen thermal stage. It is equipped with multiple observation windows, facilitating the reception of light from different directions, and can be used with spectrometers for transmission or reflection experiments on samples.

It is widely applied in the research on optical or electrical properties of materials such as organic chemicals and perovskites.

The silver sample stage has uniform thermal conductivity, ensuring temperature consistency. The window material is JGS2 quartz glass, which has excellent light transmission performance.

It covers a wide temperature range from ultra-low to medium-high temperatures, meeting the needs of multi-scenario testing.

It has low-temperature performance, with a lightweight and small-sized body, making it more suitable for scenarios with limited installation space.

The temperature control rate meets the requirement of rapid temperature change, and it can be used for biophotonics testing in the biomedical field.

The ultra-thin structure breaks through the limitation of installation space and is compatible with compact optical devices.

The size of the lower window is φ10mm×0.5mm (transmission optional), which is suitable for high-resolution optical testing.

It features both an ultra-thin structure and low-temperature performance. The vacuum chamber reduces external interference, making it suitable for scenarios with strict requirements on installation space and testing environment.

The window defrosting design ensures observation clarity at low temperatures, and it is applicable to small optical experiments in the field of space science.

The XY axis displacement enables precise positioning of the sample without the need for manual adjustment of the sample position, improving testing efficiency.

The wide temperature range combined with displacement function is suitable for scenarios requiring multi-point testing and compatible with various optical instruments.

XY axis displacement ensures precise positioning of samples, with stable low-temperature performance.

The vacuum chamber is suitable for testing sensitive samples, and compared to models without displacement, it is more suitable for low-temperature experiments that require multi-point observation.

The lightweight and thin design allows for easy integration, making it suitable for scenarios with strict requirements on device volume.

The Peltier cooling has a rapid response, with a temperature rise and fall rate of 30℃/min, which can quickly reach the target temperature and save testing time.

The atmosphere chamber can reduce the impact of sample oxidation, moisture absorption, etc., and is suitable for testing samples sensitive to the environmental atmosphere.

The larger body size makes the internal structure layout more reasonable and the heat dissipation effect better, ensuring stable operation for a long time.

A vacuum environment greatly reduces interferences such as air convection and impurity adsorption, making it suitable for scenarios with extremely high requirements for testing environments.

For example, high-precision optical inspection of semiconductor chips can obtain purer optical signals and improve testing accuracy.

It is small in size, light in weight, and takes up little space, making it easy to use in scenarios with limited installation space.

It is easy to operate and can be quickly put into experiments without complex debugging.

The temperature range covers the medium temperature interval, supports dual optical path mode, and is compatible with more optical testing requirements.

The atmosphere chamber can reduce interference from the external environment, ensure experimental accuracy, has a compact structure and moderate weight, and balances performance and portability.

The maximum temperature reaches 800℃, which can meet the testing requirements of high-temperature materials. The stainless steel sample stage is resistant to high temperatures and corrosion, with a long service life.

The dual optical path mode is compatible with various devices such as Raman spectrometers, making it applicable to a wider range of scenarios.

Temperature control is precise and stable, the ceramic sample stage is resistant to high temperatures, and the structure is compact.

It is suitable for conventional high-temperature material testing scenarios, with convenient installation and operation.

The top cover circulating water protection function enhances the safety of equipment during high-temperature operation and meets the testing requirements for materials in medium to high temperature ranges.

It is suitable for high-temperature material testing where safe operation of equipment needs to be ensured below 1200℃, such as observing the high-temperature structural stability of ceramic materials.

It has a high upper temperature limit (1500℃), and the furnace chamber-type sample stage is suitable for precise placement of small samples.

The transmission optical path meets specific observation needs, and the eccentric rotating window ensures the clarity of the field of view.

It has the function of sample XY axis displacement, which can accurately adjust the sample observation position.

The tunnel-type sample stage is suitable for long strip samples or samples that need to be observed at multiple positions, and its upper temperature limit meets the needs of medium and high temperatures.

Advantage:

It can perform real-time, in-situ high-definition observation and analysis of phase transition processes such as melting, solidification, and crystallization, providing accurate and intuitive basis for material research. It has breakthroughly achieved an ultra-fast heating control of up to 30℃/s, which can meet the needs of research on rapid heating of materials and significantly improve experimental efficiency. The core heat source components are modular and easy to disassemble and replace, which greatly improves the efficiency of equipment maintenance and reduces maintenance costs and time.

Application:

It is mainly applied in the field of materials science, especially in scenarios that require in-depth research on the phase transformation processes of materials at high temperatures, such as melting, solidification, and crystallization. For example, materials science laboratories in universities, materials research departments of scientific research institutes, and materials research and development centers of related enterprises can all use this equipment to carry out precise research on the high-temperature properties and microstructure evolution of materials.