Simon R. Cherry, Ph.D. is Professor in the Departments of Biomedical Engineering and Radiology at the University of California, Davis. His research interests center around biomedical imaging and in particular the development and application of in vivo molecular imaging systems. His early accomplishments were in developing and applying high resolution systems for positron emission tomography (PET), in particular the microPET technology that was subsequently widely adopted in academia and industry. He has contributed to the development of high performance detectors for PET, and to multimodality imaging systems, for example first demonstrations of hybrid PET/MRI systems. He currently co-leads the EXPLORER project which aims to develop the world’s first total-body PET/CT scanner. His laboratory also developed the concept of Cerenkov luminescence imaging as an innovative way to image beta-emitting radionuclides non-invasively using sensitive optical cameras and is currently exploring the use of Cerenkov radiation as an internal light source for phototherapy and for fast timing in PET. The technologies developed by his laboratory have been broadly applied in biomedical science to study diseases processes and measure the effects of therapeutic interventions. Dr. Cherry also serves as Editor-in-Chief of the journal Physics in Medicine and Biology and is lead author of the widely-used textbook Physics in Nuclear Medicine.
Dr. Karp is Professor of Radiologic Physics in the Department of Radiology, and in the Department of Physics & Astronomy at the University of Pennsylvania. He is Chief of the Physics and Instrumentation Research Group in Radiology and directs Nuclear Medicine/PET Physics and QC in the clinic, as well as the Small Animal Imaging Facility Nuclear Medicine (PET/SPECT/CT) core. He received his PhD in nuclear physics from MIT in 1980 and joined the faculty at Penn in 1983, and since then his research has focused on investigations to improve and characterize the performance of PET technology, including front-end electronics, detector design, data correction techniques, and 3D image reconstruction algorithms. This work has resulted in development of fully 3D PET scanners and innovative imaging systems based on various scintillation detectors, and some of these concepts have been implemented commercially for human and animal imaging. Dr. Karp has developed systems for time-of-flight (TOF) imaging, and his work with industry led to adoption of TOF in modern PET/CT scanners. Dr. Karp collaborates with UC Davis as part of the Explorer Consortium and is leading the team at U Penn in the development of the large axial FOV PennPET Explorer instrument. Dr. Karp has helped to organize scientific programs in the Society of Nuclear Medicine and the IEEE Nuclear and Plasma Sciences Society, as well as the Explorer Workshop at U Penn in fall 2017.
David A. Mankoff
Dr. David Mankoff is Gerd Muehllehner Professor of Radiology, Vice-Chair for Research in Radiology, and Director of the PET Center at the Perelman School of Medicine at the University of Pennsylvania. Dr. Mankoff is board-certified in Nuclear Medicine and holds a PhD in Bioengineering focusing on PET instrumentation. He practices Nuclear Medicine at the University of Pennsylvania, with a special interest in oncologic applications of molecular imaging and radionuclide treatment of endocrine tumors and other cancers. Dr. Mankoff’s research focuses on molecular imaging of cancer, primarily on breast cancer, and emphasizes therapeutic monitoring, identifying factors mediating therapeutic resistance, and the translation of new methods to clinical trials. He also focuses on imaging methodology and quantitative imaging methods related to molecular cancer imaging. Dr. Mankoff is a Komen Scholar for the Susan G. Komen Foundation. He also Chairs the Experimental Imaging Sciences Committee and serves as Co-Chair of the Scientific Program Committee of ECOG-ACRIN. Dr. Mankoff is a past member and President of the American Board of Nuclear Medicine. Dr. Mankoff is on the editorial boards of Nuclear Medicine and Biology, Breast Cancer Research, Journal of Nuclear Medicine, The Breast Journal, and Clinical Cancer Research and serves as an Associate Editor for Breast Cancer Research and the Journal of Nuclear Medicine.
Terry Jones is a medical physicist who has been involved in the development and applications of positron emitting radioisotopes in medicine since 1968. When at the former Medical Research Council’s, Cyclotron Unit, at Hammersmith Hospital, London, he initiated the UK’s first PET program in the late 1970’s. He undertook developments in PET methodology which included collaborations with industrial manufacturers of PET scanners. Together with medical colleagues at the Royal Postgraduate Medical School at Hammersmith Hospital, he fostered the research applications of PET methodology in Neurology, Psychiatry, Oncology, Cardiology and Pulmonary Medicine. He was awarded an MRC travelling fellowship in 1972 to work at the University of Washington St Louis and the MGH in Boston, where he recorded the first image of human brain metabolism by using oxygen-15. To support pre-clinical studies, he established the world’s first dedicated small–animal PET scanner. At the MRC Cyclotron Unit, he rose to the position of acting director and professor of medical physics at Imperial College London. He then went on to co-establish the state-of-the-art PET based Wolfson Molecular Imaging Centre at Manchester University where he was professor of Molecular Imaging. He has co-authored over 300 scientific publications. He is a fellow of the Institute of Physics and Engineering in Medicine and in 1999 was elected as a fellow of the UK’s Academy of Medical Science. He is currently visiting professor at the University of California, Davis and co-director of the PET Research Advisory Company. Currently he is engaged in identifying the clinical research applications of Total Body PET Scanning.
Dimitris Visvikis is a director of research with the National Institute of Health and Medical Research (INSERM) in France and the Director of the Medical Image Processing Lab in Brest (LaTIM, UMR1101). He obtained his PhD from the University of London in 1996 working in PET detector development within the Joint Department of Physics in the Royal Marsden Hospital and the Institute of Cancer Research. After working as a Senior Research Fellow in the Wolfson Brain Imaging Centre of the University of Cambridge he joined the Institute of Nuclear Medicine as Principal Medical Physicist in University College London where he introduced and worked for five years with one of the first clinical PET/CT systems in the world. He has spent the majority of his scientific activity in the field of PET imaging, including developments in both hardware and software domains. His current research interests focus on improvement in PET/CT image quantitation for specific oncology applications, such as response to therapy and radiotherapy treatment planning, through the development of methodologies for detection and correction of respiratory motion, 4D PET image reconstruction, partial volume correction, tumour volume segmentation and tumour activity distribution characterisation algorithms, as well as the development and validation of Monte Carlo simulations for emission tomography and radiotherapy treatment dosimetry applications. He is a member of numerous professional societies such as IPEM (Fellow, Past Vice-President International), IEEE (Senior Member, Past NPSS NMISC chair), AAPM, SNM (CaIC board of directors 2007-2012), EANM. He is also the first Editor in Chief of the IEEE Transactions in Radiation and Plasma Medical Sciences.
Alexander Hammers, MD, PhD, has been Head of the King’s College London & Guy’s and St Thomas’ PET Centre since 2013. He is Professor of Imaging and Neuroscience and currently Interim Head of School (with René Botnar), School of Biomedical Engineering and Imaging Sciences, at King’s. He is a Neurologist with a particular interest in epilepsy.
He trained in medicine at the RWTH Aachen, Germany, with visiting periods in Paris, France, and Exeter, UK. He trained in Neurology in Bayonne/France, Essen/Germany, and London/UK. Scientifically, he obtained an MD from the RWTH Aachen, Germany, in MR imaging of the hippocampus, and a PhD from the University of London in PET investigations in focal epilepsy, before leading his own group at the Medical Research Council’s Clinical Sciences Centre at Hammersmith Hospital/Imperial College London. He has held the Chair of Excellence in Functional Neuroimaging at the Neurodis Foundation, Lyon, France, 2009-2014, co-writing the grants that enabled France’s first PET-MR to be installed there, before joining King’s College London.
His research uses quantified PET to understand mechanisms of neurological disease. In structural neuroimaging, he uses MRI and anatomical segmentation using a large manually annotated brain atlas database which his group has created over the past decade (the Hammers_mith atlases). The main areas of application of his research are the epilepsies and, more recently, neurodegenerative diseases. The ultimate goal is to benefit individual patients through the clinical application of neuroscience, e.g. through classification with machine-learning techniques, or the combination of MRI and PET.
Having successfully developed protocols for scientifically and clinically exploiting the simultaneity of hybrid PET-MR scanners, he is now intrigued by the new possibilities of Total Body PET.
Pawel Moskal, Ph.D. is Professor of physics and the head of the Cluster of Nuclear Physics Departments and the Department of Particle Physics and Applications at the Jagiellonian University in Cracow, Poland. He won the Prime Minister’s award for his doctoral dissertation in 1999 and a Gold Medal for the invention of the matrix device for Positron Emission Tomography at The World Exhibition on Innovation, Research and New Technologies at Brussels Innova 2009. Prof. Moskal has co-authored 18 patent applications and more than 280 scientific articles in the field of nuclear and particle physics and positron emission tomography. In the years 2015-2017 he was a member of the SPSC Scientific Committee at CERN. At present he is leading the J-PET collaboration: an interdisciplinary research team at the Jagiellonian University conducting research and development of a new imaging device based on plastic scintillators. This research aims at the construction of a cost effective whole-body PET for experiments in fundamental physics, biophysics and medical diagnostics, e.g. for studies of discrete symmetries in the decays of positronium, the development and tests of multi-photon imaging, and the study of properties of positronium atoms in living organisms.
Prof. Moskal was coordinator of the COSY-11 international collaboration conducting experiments on meson production at the Cooler Synchrotron COSY at FZ-Jülich in Germany and deputy-coordinator of the WASA-at-COSY experiment, which comprises about 150 physicists testing fundamental symmetries in nature by means of the decays of mesons. He is also a member of the KLOE-2 collaboration conducting experiments at the electron-positron collider DAFNE in Italy. The KLOE-2 experiments include tests of quantum mechanics and searching for phenomena beyond the standard model of particle physics. Prof. Moskal chaired the scientific and organizing committees of thirteen international symposia and workshops devoted to fundamental and applied physics and served as the (co-)editor of the proceedings books.