Breeze Series In-Situ Holders（Heating）

Thermal field control is applied to the sample via a MEMS chip. By combining multiple characterization modes including EDS, EELS, SAED, HRTEM, and STEM, real-time and dynamic monitoring is achieved at the nanoscale or even atomic scale. This monitoring captures key information about the sample in a gaseous environment as it responds to temperature changes, such as microstructural evolution, reaction kinetics, phase transitions, elemental valence states, chemical changes, microstress, and atomic-scale structural and compositional evolution at the surface/interface.

Breeze Series In-Situ Holders（Optics&Heating）

A multi-field automatic control and feedback measurement system integrating light and thermal fields is constructed within the in-situ sample stage, utilizing light sources introduced via MEMS chips and optical fibers. By combining multiple characterization modes including EDS, EELS, SAED, HRTEM, and STEM, real-time and dynamic monitoring is achieved at the nanoscale or even atomic scale. This monitoring captures key information such as the microstructural evolution, reaction kinetics, phase transitions, elemental valence states, chemical changes, microstress, and atomic-scale structural/compositional evolution at the surfaces/interfaces of the sample in a gaseous environment, as the sample responds to variations in light and thermal fields.

Spring Series In-Situ Holders（Heating&Electrochemistry)

A liquid-environment nanolab is constructed within the in-situ sample stage using MEMS micromachining technology. Thermal fields, electrical signals, and other stimuli are applied to thin-film or nanobattery systems via the MEMS chip. By combining multiple characterization modes including EDS, EELS, SAED, HRTEM, and STEM, real-time and dynamic monitoring is achieved at the nanoscale or even atomic scale. This monitoring covers key information such as the microstructural evolution, reaction kinetics, phase transitions, elemental valence states, chemical changes, microstress, and atomic-scale structural/compositional evolution at the surfaces/interfaces of electrodes, electrolytes, and their interfaces in the liquid environment, as these materials respond to variations in temperature and electrical signals.

Spring Series In-Situ Holders（Heating）

A liquid-environment nanolab is constructed in the in-situ sample stage using MEMS micromachining technology. By heating with an MEMS chip and combining multiple modes such as EDS, EELS, SAED, HRTEM, and STEM, real-time and dynamic monitoring of key information at the nanoscale or even atomic scale is achieved, including the microstructural evolution, reaction kinetics, phase transition, element valence state, chemical changes, microstress, and atomic-scale structural and compositional evolution at the surface/interface of the sample in the liquid environment as it changes with temperature.

Spring Series In-Situ Holders（Electrochemistry）

Using MEMS microfabrication technology to construct a liquid atmosphere nanolaboratory in an in-situ sample holder, electrical signals are applied to thin layers or nano battery systems through MEMS chips. While measuring electrical properties, multiple different modes such as EDS, EELS, SAED, HRTEM, STEM, etc. are combined to achieve real-time and dynamic monitoring of the microstructure evolution, reaction kinetics, phase transition of electrodes, electrolytes, and their interfaces under operating conditions at the nano or even atomic level and Key information such as elemental valence states, chemical changes, microstresses, and atomic level structure and compositional evolution at the surface/interface.

Spring Series In-Situ Holders（Optics）

A liquid-environment nanolab is constructed in the in-situ sample stage using MEMS micromachining technology. Light is introduced as an external field condition via the optical fiber built into the sample stage. Light field stimulation is applied to the sample through the MEMS chip and the light source introduced by the optical fiber. While measuring optical properties, multiple modes such as EDS, EELS, SAED, HRTEM, and STEM are used in combination to realize real-time and dynamic monitoring of key information at the nanoscale or even atomic scale, including the microstructural evolution, reaction kinetics, phase transition, element valence state, chemical changes, microstress, and atomic-scale structural and compositional evolution at the surface/interface of the sample in the liquid environment as it changes with the light field.

Transmission Electron Microscope High-Angle Cryo Transfer System

With unique innovative design and processing technology, a copper mesh telescopic carrier and liquid nitrogen freezing transfer module are built inside the transmission electron microscope sample rod, enabling high-resolution imaging of samples in a frozen ultra-low temperature environment.

Gravity Series In-Situ Holders（Nano Indentation&Heating&Biasing)

Gravity Series In-Situ Holders（Nano Indentation&Heating&Biasing)applies mechanics, electric field and thermal field to the sample through MEMS chip.The construction of force, electrical, thermal composite multi-field automatic control and feedback in the in-situ sample station Measurement system, combined with EDS, EELS, SAED, HRTEM, STEM and other different modes,realizes real-time and dynamic monitoring of samples in vacuum with temperature, electric field and application at the nano level microstructure evolution, phase transition, elemental valence state, microscopic stress and surface/boundary resulting from afterforce changes Key information such as the structure and composition evolution .

Gravity Series In-Situ Holders(Nano Indentation&Heating)

Gravity Series In-Situ Holders(Nano Indentation&Heating) was constructed by MEMS chip in the in-situ.Mechanical and thermal composite multi-field automatic control and feedback measurement system, combined with EDS, EELS, SAED,HRTEM, STEM and other different modes can realize real-time and dynamic sample monitoring from the nano level Microstructure evolution, phase change and element change with temperature and applied force in vacuum environment Key information such as prime valence states, microscopic stresses, and structural and compositional evolution at the surface/interface.

Gravity Series In-Situ Holders(Nano Indentation&Biasing)

The Gravity Series In-Situ Holders(Nano Indentation&Biasing) was constructed by MEMS chip in the in-situ sample station. Mechanical and thermal composite multi-field automatic control and feedback measurement system, combined with EDS, EELS, SAED,HRTEM, STEM and other different modes can realize real-time and dynamic sample monitoring from the nano level Microstructure evolution, phase change and element change with temperature and applied force in vacuum environment Key information such as prime valence states, microscopic stresses, and structural and compositional evolution at the surface/interface.