The Hitachi HT7830 is a user-friendly transmission electron microscope (TEM), capable of a wide range of analysis from biological research to soft materials science. This TEM is designed to operate in tunable accelerating voltages ranging from 20kV up to 120kV, allowing users to image their specimens in a variety of conditions such as low magnification, wide-field high contrast (HC) and high resolution (HR). Several advanced features like advanced stage navigation, image stitching, 3D tomography, STEM, EDX and Diffraction. This instrument can achieve a resolution of 0.14 nm at 120kV. Images can be taken at a maximum magnification of up to 1,000,000x.
See our complete price list (expand the blue bar). Note: All prices are in Canadian dollars (CAD$).
Questions? Submitting a sample?
Contact: Mishi Groh
mishi.groh@uwaterloo.ca
519-888-4567 x32375
When emailing a request, be sure to include your research advisor’s name and email, the type of request (general, training, service), details about your sample and number of samples, and any examples of other images (if relevant).
The BioTEM Facility image gallery
Images highlighting the BioTEM Facility capabilities. Click on the gallery to view the full images with their respective scale bars.
Electron diffraction of a thin film of MoS2 grown through chemical vapor deposition (CVD) and transferred onto a 10 nm silicon nitride thin film. Image recorded on the Hitachi HT7830 operating at 100 keV. Sample courtesy of Leon Daniel, AG Schleberger, University of Duisburg-Essen.
Energy dispersive spectroscopy (EDS) of a microtome prepared NbTe2 thin film transferred onto a nickel TEM grid. Images and EDS data recorded on the Hitachi HT7830 operating at 100 keV. Sample courtesy of Christian Viernes, UeIL, University of Waterloo.
Energy dispersive spectroscopy (EDS) of Ru nanoparticles on a carbon coated copper TEM grid. Images and EDS data recorded on the Hitachi HT7830 operating at 100 keV. Sample courtesy of Nyhenflore Delva, Klinkova Lab, University of Waterloo.
Synthesized silica nanoparticles covered by gold nanoparticles used for later applications for antibody crosslinking. Image captured on the HT7830 at 100kV. Sample courtesy of Dr. T. Charles (https://uwaterloo.ca/biology/profile/tcharles), University of Waterloo.
Mouse cardiac tissue embedded and ultra sectioned, looking at mitochondria distribution within muscle fibers. Image captured on the Hitachi HT7830 on High Contrast mode (HC) at 80kV. Sample courtesy of Dr. R. Duncan (https://uwaterloo.ca/kinesiology-health-sciences/profiles/robin-duncan), University of Waterloo.
Keyhole Limpet Hemocyanin Protein incubated with Ferritin protein - potentially encapsulating the Fr. Image captured on the HT7830 at 100kV. Sample courtesy of Dr. J. Honek (https://uwaterloo.ca/institute-nanotechnology/profiles/john-honek), University of Waterloo.
Palladium cubic nanoparticles to be used in sustainable fuel production, captured on the HT7830 at 100kV at High Resolution (HR). Sample courtesy of Dr. A. Klinkova (https://uwaterloo.ca/chemistry/profile/aklinkov), University of Waterloo.
Biomimetic lipid nanoparticle, containing outer layer cell membrane, captured on the HT7830 at 80kV on the HC mode. Sample courtesy of Dr. E. Ho (https://uwaterloo.ca/pharmacy/profile/e42ho), University of Waterloo.
Chemically synthesized gold nanostars. Image captured on the HT7830 at 100kV. Sample courtesy of Dr. J.-H. Yu (https://uwaterloo.ca/chemistry/profile/junghyu), University of Waterloo.
