Light Seminars
November 22, 2017
L4H Seminar BRIAN POGUE 'Optical Imaging of Radiation Dose & Molecular Features of Cancer Treatment'
L4H Seminar BRIAN POGUE 'Optical Imaging of Radiation Dose & Molecular Features of Cancer Treatment'
BRIAN POGUE
Seminar, November 22, 2017, 12:00. Seminar Room
BRIAN POGUE
Darmouth College, Hanover, USA
BRIAN POGUE
Darmouth College, Hanover, USA
The discovery of relevant imaging features to guide medical, surgical and radiological intervention is still undergoing substantial change. In this talk, examples of imaging molecular & cellular features of cancer are demonstrated in the context of macroscopic surgical guidance. Fluorescence imaging with molecular reporters and customized fluorescence imaging systems that work with room lights on will be demonstrated. This approach to imaging in surgery provides the surgeon with information which is not visible, and augments their guidance based upon white light imaging and touch.
Additionally, a fundamentally new way to visualize radiation dose delivery in real time is demonstrated with Cherenkov light imaging. The tools advanced in this area are being translated into a commercial application via a start-up company, making time-gated intensified CMOS cameras, that will change what is possible in terms of real time radiation delivery verification in radiation oncology. Examples of video capture of radiotherapy will be shown in total breast irradiation and total skin electron therapy, where dosimetry is challenging and inaccurate. In addition to this work, Cherenkov-based luminescence emission has been discovered, as a way to allow molecular imaging in tissue. The most advanced version of this uses radiation sheets to illuminate the tissue throughout, and scan the excitation volume, allowing super-resolution methods to be used. This Cherenkov-light sheet imaging provides the highest resolution possible in whole body molecular imaging today. Each of these examples are demonstrated with relevant clinical trials or biomedical disease models, advanced in the Center for Imaging Medicine at Dartmouth.
Seminar, November 22, 2017, 12:00. Seminar Room
Hosted by Prof. Turgut Durduran
Additionally, a fundamentally new way to visualize radiation dose delivery in real time is demonstrated with Cherenkov light imaging. The tools advanced in this area are being translated into a commercial application via a start-up company, making time-gated intensified CMOS cameras, that will change what is possible in terms of real time radiation delivery verification in radiation oncology. Examples of video capture of radiotherapy will be shown in total breast irradiation and total skin electron therapy, where dosimetry is challenging and inaccurate. In addition to this work, Cherenkov-based luminescence emission has been discovered, as a way to allow molecular imaging in tissue. The most advanced version of this uses radiation sheets to illuminate the tissue throughout, and scan the excitation volume, allowing super-resolution methods to be used. This Cherenkov-light sheet imaging provides the highest resolution possible in whole body molecular imaging today. Each of these examples are demonstrated with relevant clinical trials or biomedical disease models, advanced in the Center for Imaging Medicine at Dartmouth.
Seminar, November 22, 2017, 12:00. Seminar Room
Hosted by Prof. Turgut Durduran
Light Seminars
November 22, 2017
L4H Seminar BRIAN POGUE 'Optical Imaging of Radiation Dose & Molecular Features of Cancer Treatment'
L4H Seminar BRIAN POGUE 'Optical Imaging of Radiation Dose & Molecular Features of Cancer Treatment'
BRIAN POGUE
Seminar, November 22, 2017, 12:00. Seminar Room
BRIAN POGUE
Darmouth College, Hanover, USA
BRIAN POGUE
Darmouth College, Hanover, USA
The discovery of relevant imaging features to guide medical, surgical and radiological intervention is still undergoing substantial change. In this talk, examples of imaging molecular & cellular features of cancer are demonstrated in the context of macroscopic surgical guidance. Fluorescence imaging with molecular reporters and customized fluorescence imaging systems that work with room lights on will be demonstrated. This approach to imaging in surgery provides the surgeon with information which is not visible, and augments their guidance based upon white light imaging and touch.
Additionally, a fundamentally new way to visualize radiation dose delivery in real time is demonstrated with Cherenkov light imaging. The tools advanced in this area are being translated into a commercial application via a start-up company, making time-gated intensified CMOS cameras, that will change what is possible in terms of real time radiation delivery verification in radiation oncology. Examples of video capture of radiotherapy will be shown in total breast irradiation and total skin electron therapy, where dosimetry is challenging and inaccurate. In addition to this work, Cherenkov-based luminescence emission has been discovered, as a way to allow molecular imaging in tissue. The most advanced version of this uses radiation sheets to illuminate the tissue throughout, and scan the excitation volume, allowing super-resolution methods to be used. This Cherenkov-light sheet imaging provides the highest resolution possible in whole body molecular imaging today. Each of these examples are demonstrated with relevant clinical trials or biomedical disease models, advanced in the Center for Imaging Medicine at Dartmouth.
Seminar, November 22, 2017, 12:00. Seminar Room
Hosted by Prof. Turgut Durduran
Additionally, a fundamentally new way to visualize radiation dose delivery in real time is demonstrated with Cherenkov light imaging. The tools advanced in this area are being translated into a commercial application via a start-up company, making time-gated intensified CMOS cameras, that will change what is possible in terms of real time radiation delivery verification in radiation oncology. Examples of video capture of radiotherapy will be shown in total breast irradiation and total skin electron therapy, where dosimetry is challenging and inaccurate. In addition to this work, Cherenkov-based luminescence emission has been discovered, as a way to allow molecular imaging in tissue. The most advanced version of this uses radiation sheets to illuminate the tissue throughout, and scan the excitation volume, allowing super-resolution methods to be used. This Cherenkov-light sheet imaging provides the highest resolution possible in whole body molecular imaging today. Each of these examples are demonstrated with relevant clinical trials or biomedical disease models, advanced in the Center for Imaging Medicine at Dartmouth.
Seminar, November 22, 2017, 12:00. Seminar Room
Hosted by Prof. Turgut Durduran
All Insight Seminars
Light Seminars
November 8, 2017
L4H Seminar JULIETTE GRIFFIE 'On the Need of New Analysis Tools for the Quantification of Molecular Clustering in Super Resolution Pointillist Data Sets'
Light Seminars
October 2, 2017
L4H Seminar ALF HONIGMANN '3D-STED Microscopy to Dissect the Supra-Molecular Structure of Cell Junctions'
Light Seminars
September 22, 2017
L4H Seminar JULIE S. BITEEN 'Single-Molecule Imaging and Plasmon-Enhanced Fluorescence: Understanding Bacterial Function on the Nanoscale'
Light Seminars
September 19, 2017
L4H Seminar ÁLVARO INGLÉS-PRIETO 'Optogenetic Activation of membrane receptors. Implications in Cancer Drug Screening and Parkinson’s Disease'
Light Seminars
July 19, 2017
L4H Seminar RICARDO HENRIQUES 'Democratising Live-Cell High-Speed Low-Illumination Super-Resolution Microscopy'
Light Seminars
June 14, 2017
L4H Seminar JONAS RIES 'Towards Structural Cell Biology with Superresolution Microscopy'
Light Seminars
June 2, 2017
L4H Seminar DAVID R. BUSCH 'Cerebral Hemodynamics Monitoring in the Critically Ill Child: Beyond Trend Monitoring with Quantitative Optical Tools'
Light Seminars
May 24, 2017
L4H SEMINAR JANA KAINERSTORFER 'Blood Flow Autoregulation and Intracranial Pressure Influences on Cerebral Hemodynamic Signals Measured with Near Infrared Spectroscopy'
Light Seminars
May 5, 2017
L4H Seminar AYDOGAN OZCAN 'Mobile Microscopy, Sensing and Diagnostics through Computational Photonics'