High-performance XRD Heating Cooling Stage for in-situ X-ray diffraction analysis. Precise temperature control from cryogenic to high temperatures for advanced materials research.

An XRD Heating Cooling Stage is a precision temperature-controlled sample stage designed for in-situ X-ray diffraction (XRD) experiments. It enables researchers to investigate structural, crystallographic, and phase changes in materials under controlled heating, cooling, or thermal cycling conditions while collecting real-time XRD data.

This technology is widely used in materials science, semiconductors, batteries, ceramics, metallurgy, polymers, catalysts, and nanotechnology.

Key Features

• Wide temperature range from cryogenic to high temperatures

• High-precision PID temperature control

• Rapid heating and cooling rates

• Excellent temperature stability

• Real-time in-situ XRD measurements

• Programmable temperature profiles

• Optional vacuum and controlled atmosphere operation

• Compatible with major XRD diffractometer systems

• Easy software integration and automation

Typical Temperature Range

Applications

Battery Materials

• Lithium-ion batteries

• Solid-state batteries

• Sodium-ion batteries

• Cathode and anode materials

Study:

• Phase transformation

• Crystal structure evolution

• Thermal stability

• Charge/discharge mechanisms

Semiconductor Materials

• Silicon (Si)

• Silicon Carbide (SiC)

• Gallium Nitride (GaN)

• Thin-film materials

Study:

• Thermal expansion

• Lattice strain

• Crystal orientation

• Stress analysis

Ceramics

• Sintering behavior

• Phase evolution

• High-temperature stability

• Crystal growth

Metals and Alloys

• Phase transformation

• Heat treatment

• Recrystallization

• Oxidation behavior

Polymers

• Crystallization

• Melting behavior

• Glass transition

• Thermal degradation

Typical Specifications

Advantages of In-Situ XRD Heating Cooling Stage

• Observe structural changes during thermal processes

• Monitor real-time phase transitions

• Improve understanding of material performance

• Simulate actual operating environments

• Obtain highly accurate diffraction data under controlled temperatures

• Enhance research efficiency and experimental repeatability

Typical Research Areas

• Advanced Materials

• Energy Storage Materials

• Semiconductor Devices

• Photovoltaic Materials

• Catalysts

• Functional Ceramics

• Aerospace Materials

• Biomedical Materials

• Nanomaterials

• Powder Metallurgy

Compatible Instruments

The XRD Heating Cooling Stage can be integrated with most commercial X-ray diffractometers, including systems from:

• Bruker

• Rigaku

• Malvern Panalytical

• Thermo Fisher Scientific

• STOE

• Shimadzu