Department of Medicine

Gallery

  • Backscattered electron scanning electron microscopy image showing trabecular bone microarchitecture at the sub-micron resolution scale.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Backscattered electron scanning electron microscopy image showing trabecular bone microarchitecture at the sub-micron resolution scale.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured digital X-ray images showing that type 2 deiodinase deficiency, shown on the right, results in increased bone mineral content.  Loss of the type 2 deiodinase enzyme causes brittle bones and an increased susceptibility to fracture (Bassett et al (2010) Proc. Natl. Acad. Sci. USA 107:7604-9).  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured digital X-ray images showing that type 2 deiodinase deficiency, shown on the right, results in increased bone mineral content.  Loss of the type 2 deiodinase enzyme causes brittle bones and an increased susceptibility to fracture (Bassett et al (2010) Proc. Natl. Acad. Sci. USA 107:7604-9).  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Confocal autofluorescence scanning light microscopy image of trabecular bone labeled with two doses of calcein, which incorporate into newly forming bone and fluoresce green.  Dynamic parameters of bone formation are determined from the distribution and separation of the two labels (Bassett et al (2010) Proc. Natl. Acad. Sci. USA 107:7604-9).  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Confocal autofluorescence scanning light microscopy image of trabecular bone labeled with two doses of calcein, which incorporate into newly forming bone and fluoresce green.  Dynamic parameters of bone formation are determined from the distribution and separation of the two labels (Bassett et al (2010) Proc. Natl. Acad. Sci. USA 107:7604-9).  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured backscattered electron scanning electron microscopy image quantifying trabecular bone mineralization at sub-cubic micron resolution, in which grey and white indicate high mineralization and demonstrate retention of highly mineralized calcified cartilage.  This bone remodelling defect results from a mutation in thyroid hormone receptor alpha (Bassett et al (2007) Mol. Endocrinol. 21:1893-904). Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured backscattered electron scanning electron microscopy image quantifying trabecular bone mineralization at sub-cubic micron resolution, in which grey and white indicate high mineralization and demonstrate retention of highly mineralized calcified cartilage.  This bone remodelling defect results from a mutation in thyroid hormone receptor alpha (Bassett et al (2007) Mol. Endocrinol. 21:1893-904). Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured picture of trabecular bone microarchitecture imaged at the sub-micron resolution scale using backscattered electrons at multiple focus intervals in a scanning electron microscope.  In this all-in-focus 3D image the 16 different focus intervals are individually colour coded as in a contour map.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured picture of trabecular bone microarchitecture imaged at the sub-micron resolution scale using backscattered electrons at multiple focus intervals in a scanning electron microscope.  In this all-in-focus 3D image the 16 different focus intervals are individually colour coded as in a contour map.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured picture of trabecular bone microarchitecture imaged at the sub-micron resolution scale using backscattered electrons at multiple focus intervals in a scanning electron microscope.  In this all-in-focus 3D image the 28 different focus intervals are individually colour coded as in a contour map.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Pseudo-coloured picture of trabecular bone microarchitecture imaged at the sub-micron resolution scale using backscattered electrons at multiple focus intervals in a scanning electron microscope.  In this all-in-focus 3D image the 28 different focus intervals are individually colour coded as in a contour map.  Image courtesy of Duncan Bassett, Alan Boyde and Graham Williams.
  • Single T cell being activated and shows molecular events at the T cell immune synapse.
  • Single T cell being activated and shows molecular events at the T cell immune synapse.
  • Microscope upclose.
  • Microscope upclose.
  • Microscope - grayscale
  • Microscope - grayscale
  • Nitrogen Cell line
  • Nitrogen Cell line
  • DNA in full colour.
  • DNA in full colour
  • Bacteria Bacillus subtilis that is lacking lipoteichoic acid on its cell surface and so can’t divide properly.
  • Bacteria Bacillus subtilis that is lacking lipoteichoic acid on its cell surface and so can’t divide properly.
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • Students in a lab
  • A deconvolution image of a genetically modified tumour cell line.   Green cells have been modified with a retroviral vector containing a gene of interest with a Green Fluorescent Protein (GFP) reporter.
  • A deconvolution image of a genetically modified tumour cell line.   Green cells have been modified with a retroviral vector containing a gene of interest with a Green Fluorescent Protein (GFP) reporter.
  • Taken at Queen Charlotte’s Hospital, Hammersmith Campus.
  • Taken at Queen Charlotte’s Hospital, Hammersmith Campus.
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Image gallery

These photos were entered into a competition to showcase work and life in the Department of Medicine.

There are 19 images in this gallery, with each image being shown for approximately 10 seconds.

Clicking on a particular image will take you to the photographers personal page or group page.