In-Situ Microscopy Instrumentation

Perform in-situ X-ray characterization of catalysts and functional materials under industry-relevant high-pressure gas environments with pressures up to 20 bar and temperatures beyond 1000 °C.

Study catalysts and functional materials under industry-relevant high-pressure gas environments inside the SEM with controlled gas flow, pressures up to 20 bar, and temperatures beyond 1000 °C.

Perform in-situ TEM gas-phase experiments with integrated optical illumination, closed-loop MEMS heating beyond 1000 °C, and controlled gas flow to investigate light-stimulated gas–solid reactions.

Perform liquid-phase electrochemistry inside your SEM with electrochemical performance that closely matches conventional bulk benchtop measurements.

Perform in-situ TEM electrical biasing experiments with 8 electrical contacts, flexible chip carriers, and support for Hummingbird Scientific chips as well as your own custom-fabricated devices.

Perform variable-temperature in-situ TEM with closed-loop temperature control from <−170 °C to >1000 °C, screw-free direct MEMS chip loading, and 9 electrical contacts for on-chip heating and electrical biasing.

Correlate Electron Beam-Induced Current (EBIC), TEM/STEM imaging, EDS, and EELS to characterize electronic properties of semiconductor devices, functional materials, and nanoelectronic systems.

Recreate realistic industrial reaction environments inside the TEM with gas pressures up to 20 bar, controlled gas flow, and closed-loop MEMS heating above 1000 °C.

Study gas–solid reactions during in-situ X-ray experiments with >1000 °C MEMS heating and gas flow up to 2 bar.

Correlate structural, chemical, and electrical changes during in-situ synchrotron X-ray experiments with >1000 °C closed-loop MEMS heating and electrical biasing with 9-electrical contacts.

Perform in-situ synchrotron X-ray microscopy with bulk liquid electrochemistry using off-chip reference and counter electrodes for stable, reproducible measurements.

Capture dynamic liquid-phase nanoscale processes with in-situ X-ray microscopy and spectroscopy. Supports static or continuous liquid flow, optional dual-inlet mixing, and MEMS heating, electrical biasing, and electrochemistry.

Perform in-situ SEM heating and electrical biasing above 1000 °C with screw-free direct MEMS chip loading, 9 electrical contacts, and closed-loop temperature control.

Perform in-situ SEM gas heating experiments with >1000 °C closed-loop MEMS heating and gas flow up to 2 bar.

Study dynamic processes in controlled liquid environments with in-situ liquid-phase SEM. Supports static or continuous flow, optional reagent mixing, and MEMS chips for heating, electrical biasing, and electrochemistry.

Heat and electrically bias samples inside your TEM with >1000 °C closed-loop MEMS heating, 9 electrical contacts, and screw-free direct chip loading. *Double-tilt option also available.

Perform operando plasma TEM experiments with controlled gas environments, in-situ plasma generation, MEMS heating beyond 1000 °C, and atomic-resolution imaging.

Perform in-situ TEM bulk liquid electrochemistry with integrated optical illumination to study light-stimulated electrochemical and material transformations.

Apply controlled in-plane magnetic fields up to 900 Gauss during in-situ TEM, Lorentz TEM, and electron holography with passive beam deflection compensation for stable imaging.

Transfer air-sensitive samples to the TEM under vacuum or inert gas using dedicated sample holders for 3 mm grids or MEMS heating and/or biasing chips.

Perform TEM tomography, conventional TEM/STEM imaging, and correlative atom probe tomography using interchangeable removable tips for diverse specimen geometries and experimental workflows.

Study dynamic gas–solid reactions with in-situ gas-phase TEM using closed-loop MEMS heating beyond 1000 °C, gas flow up to 2 bar, and optional multi-channel delivery with mixing of up to eight gases.

Perform in-situ liquid-phase TEM with controlled microfluidic flow, integrated MEMS heating and biasing, and optional dual-inlet reagent mixing for dynamic materials characterization.

Perform site-specific electrical probing, nanomanipulation, and in-situ biasing inside the TEM using a movable probe with concurrent structural and chemical characterization.

Bring the precision and control of benchtop electrochemistry to your in-situ liquid-phase TEM experiments with bulk off-chip electrodes, optional dual-inlet mixing and integrated MEMS heating.