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Professor of Biology and Microbiology Robert Wise, works on the electron microscope in Halsey science center. Thursday, February 28, 2019.
This is a chip I opened prior to me realizing I should record what the package looks like before destroying it. I do not know what this chip is, but it looks pretty cool so I've decided to upload it.
There are five repeating structures on the left side and three on the right, but I do not have any documentation to know what they are.
Camera: Pixel 2XL
Number of Images: 20
Overlap: 65%
Microscope Objective: 10X
Microscope Eyepiece: 10X
Camera Zoom: ~2X (Prevents distortion)
Grid Used: 3x3 (Panning Aid)
Capture Motion: Serpentine
Stitching Software: Autopano Giga
Taken with a Microscope and attached DSLR camera... I made them into HDR's but otherwise did not feel like editing them. Sorry.
Used in my final year project at City University, London. Showing detail of the stage micrometre adjustment.
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An interesting look at everyday things.
I bought a cheap USB powered Microscope and then started exploring. Some of the images were very unexpected so I thought I would post a few.
Little cubes of Sugar.
2015
Three-dimensional atomic-resolution tomographic imaging requires analyzing a microscopic sample viewed from several directions, followed by a computerized reconstruction of the sample’s 3-D atomic structure. Such an exacting process has eluded researchers for decades, but is now possible with the Transmission Electron Aberration-corrected Microscope (TEAM) Stage. It holds and positions samples inside electron microscopes with unprecedented stability, position-control accuracy, and range of motion.
The technology was developed by Thomas Duden, Nord Andresen, Rich Weidenbach, and Andreas Schmid of Berkeley Lab’s Engineering and Materials Sciences Divisions. Scientists from Attocube Systems, FEI Company, and the University of Illinois at Urbana-Champaign also contributed.
The TEAM Stage will make one of the world’s most powerful electron microscopes even better, and enable previously impossible experiments. Trial-and-error detection of defects in a thin-film nanocrystal solar cell material may be minimized; and the fabrication of new biomaterials for longer-lasting artificial bone implants may be facilitated.
credit: Lawrence Berkeley Nat'l Lab - Roy Kaltschmidt, photographer
XBD200908-00687-01.TIF
Taken with a Microscope and attached DSLR camera... I made them into HDR's but otherwise did not feel like editing them. Sorry.
This represents 32 pictures covering a 1.8mm field of view of a crystal rock section of Spencer's.
I connected a stepper motor to the fine focusing knob on the Microscope with a bit of clear tubing - shaft to shaft - and then used a Gigapan control board to move the focusing up to capture 32 images.
I had to trigger the photos manually, and tell the Gigapan unit to advance to the next frame.
I now know how to remote trigger the Canon T2i camera, so getting focus stacking to be automatic, with automatic triggerig of the camera, is my next step.
After that I'll move on to xy stage automation
This is part of the nanogigapan project. See nanogigapan.blogspot.com
A laser cut microscope which was a part of my Paper Lab exhibit.
BA (Hons) Art & Design (Interdisciplinary) Final Degree Show, Leeds College of Art.