Discover CIQTEK Flagship Technologies at JASIS 2025, Booth 7B-407
Discover CIQTEK Flagship Technologies at JASIS 2025, Booth 7B-407
August 01, 2025
We are excited to announce that CIQTEK will exhibit at JASIS 2025, one of the largest exhibitions in Asia for analytical and scientific instruments. We warmly invite you to visit us at Booth 7B-407 to explore our latest innovations and connect with our expert team.
Date: September 3–5, 2025
Location: Makuhari Messe International Exhibition Hall, Chiba, Japan
CIQTEK Booth: 7B-407
At this year’s show, CIQTEK will highlight a range of cutting-edge technologies across multiple categories, including:
Discover our growing EPR product portfolio, including floor-standing/benchtop EPR, pulse/CW EPR, widely used in chemistry, materials, catalysis, and biological research.
CIQTEK will also showcase its BET analyzers and related instruments for surface area, pore size, and gas adsorption characterization, which are critical tools in fields like pharmaceuticals, catalysts, and nanomaterials.
See you at Booth 7B-407
Join us to discover how CIQTEK is advancing the future of scientific instrumentation!
Ga+ Focused Ion Beam Field Emission Scanning Electron Microscope The CIQTEK DB550 Focused Ion Beam Scanning Electron Microscope (FIB-SEM) has a focused ion beam column for nano-analysis and specimen preparation. It utilizes “super tunnel” electron optics technology, low aberration, and non-magnetic objective design, and has the “low voltage, high resolution” feature to ensure its nanoscale analytical capabilities. The ion columns facilitate a Ga+ liquid metal ion source with highly stable and high-quality ion beams to ensure nanofabrication capabilities. The DB550 is an all-in-one nano-analysis and fabrication workstation with an integrated nano-manipulator, gas injection system, and user-friendly GUI software.
High-speed Fully Automated Field Emission Scanning Electron Microscope Workstation CIQTEK HEM6000 facilities technologies such as the high-brightness large-beam current electron gun, high-speed electron beam deflection system, high-voltage sample stage deceleration, dynamic optical axis, and immersion electromagnetic & electrostatic combo objective lens to achieve high-speed image acquisition whilst ensuring nano-scale resolution. The automated operation process is designed for applications such as a more efficient and smarter large-area high-resolution imaging workflow. Its imaging speed is over five times faster than that of a conventional field emission scanning electron microscope (FESEM).
Compact X-Band EPR with high sensitivity and easy operation — ideal for chemistry, catalysis, and materials research. CIQTEK EPR200M is a compact benchtop electron paramagnetic resonance (EPR) spectrometer designed for the detection and analysis of free radicals, transition metal ions, and paramagnetic defects. It allows researchers to monitor chemical reactions in real time and gain deeper insights into materials with high sensitivity and stability. Trusted by Researchers Worldwide >> 300+ EPR Systems Installed | 170+ Scientific Publications << Contact Our Experts > U.S. & North America: info.usa@ciqtek.com > International & Other Regions: info@ciqtek.com
Ultra-High Resolution Field Emission Scanning Electron Microscopy (FESEM) The CIQTEK SEM5000X is an ultra-high resolution FESEM with optimized electron optics column design, reducing overall aberrations by 30%, achieving ultra-high resolution of 0.6 nm@15 kV and 1.0 nm@1 kV. Its high resolution and stability make it advantageous in advanced nano-structural materials research, as well as the development and manufacturing of high-technology node semiconductor IC chips. Contact our U.S. team: info.usa@ciqtek.com
Ultra High-Resolution Tungsten Filament Scanning Electron Microscope The CIQTEK SEM3300 Scanning Electron Microscope (SEM) incorporates technologies such as "Super-Tunnel" electron optics, inlens electron detectors, and electrostatic & electromagnetic compound objective lens. By applying these technologies to the tungsten filament microscope, the long-standing resolution limit of such SEM is surpassed, enabling the tungsten filament SEM to perform low-voltage analysis tasks previously only achievable with field emission SEMs.