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  • Tower of University Church of St Mary the Virgin, Oxford seen from Radcliffe Square at dusk. Built in the 13th century. The architect is unknown, though the master mason in 1275 was Richard of Abingdon.
    University-Church-St-Mary-Oxford-02.jpg
  • The Oxford University Museum of Natural History designed by Thomas Newenham Deane and Benjamin Woodward in 1850 influenced by the writings of critic John Ruskin.
    Oxford-University-Museum-05.jpg
  • The Oxford University Museum of Natural History designed by Thomas Newenham Deane and Benjamin Woodward in 1850 influenced by the writings of critic John Ruskin.
    Oxford-University-Museum-04.jpg
  • The Oxford University Museum of Natural History designed by Thomas Newenham Deane and Benjamin Woodward in 1850 influenced by the writings of critic John Ruskin.
    Oxford-University-Museum-02.jpg
  • Tower of University Church of St Mary the Virgin, Oxford seen from Radcliffe Square at dusk. Built in the 13th century. The architect is unknown, though the master mason in 1275 was Richard of Abingdon.
    University-Church-St-Mary-Oxford-01.jpg
  • The Oxford University Museum of Natural History designed by Thomas Newenham Deane and Benjamin Woodward in 1850 influenced by the writings of critic John Ruskin.
    Oxford-University-Museum-03.jpg
  • The Oxford University Museum of Natural History designed by Thomas Newenham Deane and Benjamin Woodward in 1850 influenced by the writings of critic John Ruskin.
    Oxford-University-Museum-01.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-18.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-15.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-11.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-07.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-02.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-20.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-19.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-17.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-16.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-14.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-13.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-12.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-10.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-09.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-08.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-06.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-05.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-04.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-03.jpg
  • Aarhus University Aquarium. Experimental Recirculation System for tropical fish species.
    Aarhus-University-Aquarium-01.jpg
  • Aerial view of the centre of Oxford, which has a population of 165,000. Many of the buildings are part of Oxford University, the oldest university in the English speaking.world. They are recognisable by the golden Cotswold limestone and private Quads (an abbreviation of quadrangle), used to describe a college court completely surrounded by buildings and approached through a gateway. Oxford, UK, 2004
    Oxford-Aerial-View-01.jpg
  • Aerial view of the centre of Oxford, which has a population of 165,000. Many of the buildings are part of Oxford University, the oldest university in the English speaking.world. They are recognisable by the golden Cotswold limestone and private Quads (an abbreviation of quadrangle), used to describe a college court completely surrounded by buildings and approached through a gateway. Oxford, UK, 2004
    Oxford-Aerial-View-01-2.jpg
  • The main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL126_RT8.tif
  • Brick work detail, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL125_RT8.tif
  • Pendant Lamp in the Main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL106_RT8.tif
  • Cafe, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL102_RT8.tif
  • The main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL127_RT8.tif
  • Brick work detail inside The Main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL114_RT8.tif
  • Brick work detail inside The Main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL108_RT8.tif
  • The main Hall, University of Aarhus set in the University Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL094_RT8.tif
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-08.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-07.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-05.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-03.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-02.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-01.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-06.jpg
  • Radcliffe Observatory was the astronomical observatory of Oxford University from 1773 until 1934.The observatory building commenced to designs by Henry Keene in 1772, and was completed in 1794 to the designs of James Wyatt, based on the Tower of the Winds in Athens.The building is now used by Green Templeton College off the Woodstock Road and forms a centrepiece for the college
    Radcliffe-Observatory-04.jpg
  • Pembroke College, Oxford University
    IMG_2110.jpg
  • Pembroke College, Oxford University
    IMG_2100.jpg
  • Pembroke College, Oxford University
    IMG_2090.jpg
  • Ashley Building, University of Birmingham
    Ashley_Building-028.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-015.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-005.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-002.tif
  • Grass steps in the University of Aarhus Park designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL091_RT8.tif
  • Pembroke College, Oxford University
    IMG_2114.jpg
  • Pembroke College, Oxford University
    IMG_2113.jpg
  • Pembroke College, Oxford University
    IMG_2111.jpg
  • Pembroke College, Oxford University
    IMG_2109.jpg
  • Pembroke College, Oxford University
    IMG_2105.jpg
  • Pembroke College, Oxford University
    IMG_2104.jpg
  • Pembroke College, Oxford University
    IMG_2103.jpg
  • Pembroke College, Oxford University
    IMG_2099.jpg
  • Pembroke College, Oxford University
    IMG_2098.jpg
  • Pembroke College, Oxford University
    IMG_2097.jpg
  • Pembroke College, Oxford University
    IMG_2095.jpg
  • Pembroke College, Oxford University
    IMG_2093.jpg
  • Pembroke College, Oxford University
    IMG_2092.jpg
  • Pembroke College, Oxford University
    IMG_2089.jpg
  • Pembroke College, Oxford University
    IMG_2088.jpg
  • Pembroke College, Oxford University
    IMG_2086.jpg
  • Pembroke College, Oxford University
    IMG_2085.jpg
  • Pembroke College, Oxford University
    IMG_2084.jpg
  • Ashley Building, University of Birmingham
    Ashley_Building-027.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-022.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-020.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-018.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-017.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-012.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-010.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-007.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-003.tif
  • The main Hall, University of Aarhus designed by C.F. Moller Architect & Søren Jensen Engineer
    SJE_QL092_RT8.tif
  • Pembroke College, Oxford University
    IMG_2102.jpg
  • Ashley Building, University of Birmingham
    Ashley_Building-009.tif
  • Ashley Building, University of Birmingham
    Ashley_Building-001.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    NMR_2007-077.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    NMR_2007-064.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    NMR_2007-060.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5501.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5499.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5494.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5489.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5477.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5465.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5459.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5454.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5451.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5450.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5430.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5424.tif
  • Henry Wellcome Building, Bimolecular NMR (Nuclear magnetic resonance) Facility, University of Birmingham is a £10m national resource based in Birmingham, providing scientists with insights into the molecular basis of human health, cancer progression and infectious diseases. The advantages of the NMR method include the ability to obtain information at atomic resolution using aqueous solutions, biological fluids and tissue extracts that resemble physiological conditions. HWB?NMR is the UK's largest NMR facility, providing academic and industrial users with open access to six NMR spectrometers operating at 500-900 MHz, four cryogenic probes and high throughput autosamplers.
    1F1U5418.tif
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