Find Academic Supervisors

• Neonatology
• Cardiovascular Diseases
• Physiology
• +5 more

Martin Kluckow is a Professor of Neonatology at the Northern Clinical School , University of Sydney. His research focuses on neonatal hemodynamics , cardiovascular transition at birth , and preterm infant care , particularly through interventions like delayed cord clamping and targeted echocardiography . He has extensive clinical expertise in neonatal resuscitation and point-of-care ultrasound . University: University of Sydney School: Northern Clinical School Email: martin.kluckow@sydney.edu.au His research explores the pathophysiology of low systemic blood flow in preterm infants, ductus arteriosus management , and ventilation strategies to minimize brain injury. He has led multicenter clinical trials like the Australian Placental Transfusion Study (APTS) and investigated oxygenation dynamics and inflammatory responses in preterm models. Recent publications emphasize delayed cord clamping (2025, 2022), echocardiographic applications (2024, 2018), and POCUS protocols (2023) for critical neonatal care. His work spans animal models (preterm lambs) and human clinical trials , addressing barriers to pulse oximetry screening and maternal interventions like oxytocin's impact on cord clamping (2021). He has collaborated on international consensus statements (2023) and contributed to pediatric therapy guidelines (2006). His studies often involve neonatal cardiovascular function , lung aeration , and maternal-fetal medicine intersections.

Jessica PeterView profile

Associate Professor

• Cognitive Neuroscience
• Memory Processes
• Aging and Cognition
• +5 more

Dr. Jessica Peter is an Associate Professor at the University of Bern's Medical Faculty, where she serves as Head of Research at the University Hospital of Old Age Psychiatry and Psychotherapy. Her academic journey includes positions as Group Leader and Senior Researcher at the same institution since 2018, following postdoctoral work at the University Medical Center Freiburg. Her educational background includes a PhD in Psychology from the University of Freiburg (2011-2014) and a Diploma in Psychology from the University of Bamberg (2006-2011). She completed her habilitation at the University of Bern in 2019. Dr. Peter's research focuses on cognitive functions in aging, with particular emphasis on memory processes in both healthy adults and clinical populations. Her work integrates multiple methodologies including non-invasive brain stimulation (particularly transcranial direct current stimulation), functional magnetic resonance imaging (fMRI), quantitative MRI, real-time fMRI neurofeedback, and blood-based biomarker analysis. Her research group actively investigates how cognitive training and brain stimulation techniques can mitigate age-related cognitive decline and symptoms of neurodegenerative diseases. Analysis of her recent publications reveals a strong focus on prospective memory in aging populations, the application of brain stimulation techniques to enhance cognitive performance in older adults, and the development of diagnostic tools for mild cognitive impairment and Alzheimer's disease. Her work frequently examines how demographic factors like sex, age, and education moderate responses to cognitive interventions. COMET career funding for female scientists (2019) Winner of Outstanding Scientific Work Award (2015) Winner of Outstanding Lectures Award (2012, shared with three colleagues) Dr. Peter leads a research team comprising several PhD students and postdoctoral researchers, and has successfully secured substantial funding from the Swiss National Science Foundation, Empiris Foundation, and other prestigious sources. Her current projects include investigating the role of the prefrontal cortex in remembering and forgetting (SNSF grant 218252), metabolic phenotypes in Huntington's disease (SNSF grant 215269), and cognitive training interventions for Alzheimer's disease. Her research group also contributes to clinical neuroscience initiatives through service on executive committees and graduate school expert panels. Her laboratory employs advanced neuroimaging techniques at ultra-high field strengths (7T MRI) to investigate brain metabolism, neurotransmitter systems, and structural changes associated with aging and neurodegenerative conditions. The group maintains strong collaborations with Amsterdam UMC for blood-based biomarker analysis and with various clinical departments for patient recruitment and assessment.

• Chronic Respiratory Diseases
• Physical Activity Promotion
• Health Inequalities
• +6 more

Dr Matthew Armstrong is an Assistant Professor in the Department of Sport and Exercise Sciences at Durham University, specializing in chronic respiratory disease rehabilitation and digital health interventions. He is a Fellow of the Wolfson Research Institute for Health and Wellbeing and focuses on improving quality of life for COPD patients through behavioral modification and self-management strategies. PhD in Physical Activity Counseling alongside Pulmonary Rehabilitation (Northumbria University, 2021) MSc in Clinical Exercise Physiology (Northumbria University, 2017) BSc in Applied Sport and Exercise Science (Northumbria University, 2016) His research explores the intersection of physical activity promotion, digital health tools, and chronic disease management, with recent work examining menstrual cycle ventilation differences, post-COVID syndrome interventions, and inspiratory muscle training efficacy. Current projects involve digital self-management programs like BreathTec. Matthew’s publications span systematic reviews, feasibility trials, and conference abstracts, emphasizing multidisciplinary approaches combining physiology, psychology, and technology. He is committed to patient-centered outcomes and addressing health inequalities through rehabilitation innovation.

Nicholas MeloshView profile

Professor

• Bio-inorganic Interface
• Molecular materials at interfaces
• Self-Assembly and Nucleation and Growth
• +4 more

Nicholas Melosh is a Professor of Materials Science and Engineering at Stanford University, affiliated with the School of Engineering. His research focuses on bio-inorganic interfaces, molecular materials at interfaces, and self-assembly/nucleation processes. PhD in Materials Science and Engineering (2001) from University of California, Santa Barbara BS in Chemistry (1996) from Harvey Mudd College Research interests center on: Designing inorganic structures for seamless integration with biological systems Developing nanostraw-based platforms for cell transfection and neural interfaces Quantum nanophotonics with diamond color centers Thermionic energy conversion and bioelectronic device engineering Recent publications (2023-2025) reveal a focus on: Quantum photonics and diamond color center integration Advanced neural interfaces using 3D electrode arrays Bio-inspired materials for biomedical applications Surface engineering for energy conversion devices Electrochemical control of soft materials Molecular imprinting for sensing applications

Cristine Sortica da CostaView profile

Research Fellow

• Neonatology
• Neonatal Neuroscience
• Cerebrovascular Physiology
• +4 more

Cristine Sortica da Costa serves as Consultant Neonatologist and Clinical Research Fellow in Neonatal Neurosciences at the University of Cambridge's Department of Obstetrics & Gynaecology, with clinical affiliation at Cambridge University Hospitals NHS Foundation Trust. Her work bridges clinical neonatal care and advanced neuroscience research. Her academic credentials include: PhD in Neonatal Neuroscience, University of Cambridge (2012-ongoing) Clinical Fellowship in Neonatal Medicine, Cambridge University Hospitals (2009-2012) Neonatology Specialty Board Certification, Brazilian Medical Association (2009) Paediatrics Specialty Board Certification, Brazilian Medical Association (2008) Doctor of Medicine, Universidade Federal do Rio Grande do Sul (2004) Dr. da Costa's research pioneers non-invasive monitoring techniques for neonatal cerebrovascular function, specializing in near-infrared spectroscopy (NIRS) and functional echocardiography applications. Her investigations target cerebrovascular reactivity, cardiac performance, and neuroprotective strategies in preterm infants, with direct clinical implications for improving neurocritical and developmental outcomes in high-risk newborns. Current projects focus on translating hemodynamic monitoring into actionable clinical protocols. Publication analysis reveals evolving expertise from foundational teratology studies (2001-2002) to contemporary neonatal neuroscience, with recent work (2015) critically evaluating NIRS utility in preterm care. Her output demonstrates consistent focus on physiological monitoring, brain injury prevention, and developmental impacts of perinatal conditions like sepsis and diabetes. Her scientific recognition includes: Cambridge Trust and CAPES Fellowship (2012-2016) Supported by major fellowship funding, Dr. da Costa leads translational research within Cambridge's neonatal neuroscience ecosystem. Though formal advisees aren't documented, her Clinical Research Fellow role involves mentoring junior researchers. She actively contributes to the neoLab research collective, developing innovative monitoring paradigms for neonatal intensive care units with emphasis on cerebral oxygenation dynamics and cardiac-neurological interactions.

Bogdan MitranView profile

Researcher

• Nuclear Medicine
• Molecular Imaging
• Radiopharmaceutical Development
• +5 more

Bogdan Mitran is a biomedical engineering researcher at the Department of Medicinal Chemistry; Translational PET Imaging , Uppsala University. His work focuses on molecular imaging using PET/SPECT technologies, particularly for oncological applications including prostate cancer, gliomas, and immune cell dynamics. Current affiliation: Uppsala University Department: Medicinal Chemistry; Translational PET Imaging Expertise: Radiolabeled compound development, preclinical evaluation Research interests center on radiopharmaceutical chemistry , affibody molecule engineering , and chelator optimization to enhance imaging contrast and biodistribution. His recent publications demonstrate innovations in: Non-invasive liver fibrogenesis imaging using RESCA-conjugated affibodies CD69-positive immune cell detection in inflammatory arthritis Dual-targeting PSMA/GRPR heterodimers for prostate cancer theranostics Charge-modified metal-chelator complexes for improved tumor targeting Collaborations span preclinical models , radiochemistry , and multimodal imaging strategies, with active publications in Contrast Media & Molecular Imaging , Scientific Reports , and European Journal of Nuclear Medicine and Molecular Imaging .

Sylvia GustinView profile

Professor

• Neuroimaging
• Chronic Pain
• Spinal Cord Injury Rehabilitation
• +7 more

Professor Sylvia Gustin (PhD, BPsych, MPsych) is a leading neuroscientist at the University of New South Wales and Neuroscience Research Australia . She serves as Director of the NeuroRecovery Research Hub and Founding Director of the Centre for Pain IMPACT , focusing on multimodal neuroimaging and psychological assessment to investigate chronic pain and spinal cord injury rehabilitation. Her work bridges basic science research with clinical translation through innovative technologies like virtual reality walking and brain-computer interface neuromodulation. Her research program emphasizes neuroimaging , neuropathic pain , and spinal cord injury recovery , with key projects targeting: Restoration of somatosensory perception using haptic virtual reality Development of novel neurofeedback interventions for pain management Investigation of stress-related brain alterations in chronic pain Recent publications span EEG neurofeedback , telehealth interventions , and emotion regulation therapies for chronic pain, reflecting her translational pipeline approach. She has received significant recognition as the Rebecca Cooper Senior Medical Research Fellow and secured major funding from the NHMRC , MRFF , and US Department of Defence . Her work involves collaborations across neuroscience, psychology, and rehabilitation medicine.

• Medical Physics
• Biomedical Engineering
• Optical Imaging
• +2 more

Professor Adam P Gibson is a faculty member at University College London (UCL) within the Faculty of Engineering Sciences, specifically in the Department of Medical Physics & Biomedical Engineering. His institutional affiliation places him at the forefront of interdisciplinary research bridging engineering, physics, and medical applications. His research interests focus on Medical Physics and Biomedical Engineering , with particular expertise in optical imaging techniques for medical diagnostics. His work involves developing advanced imaging methodologies including diffuse optical tomography and neuroimaging technologies that have significant applications in clinical settings. Professor Gibson's research contributes to the advancement of non-invasive diagnostic tools that can monitor brain function and tissue oxygenation. As a Professor at UCL, he plays a vital role in academic leadership, teaching, and research supervision within one of the world's leading institutions for medical engineering. His work exemplifies the translational approach of converting engineering innovations into practical clinical solutions that improve patient care and diagnostic capabilities.

Clifford G. RobinsonView profile

Professor

• Radiation Oncology
• Thoracic Oncology
• Stereotactic Radiotherapy
• +2 more

Clifford G. Robinson, MD, FASTRO is a Professor of Radiation Oncology and Medicine at Washington University School of Medicine in St. Louis. He serves as Associate Director of Clinical Programs and Director of Clinical Trials at Siteman Cancer Center, with additional leadership roles as Chief of Cardiothoracic Radiation Oncology and Co-Director of the Center for Noninvasive Cardiac Radioablation. His clinical practice focuses on thoracic malignancies including lung and esophageal cancers, brain/spine tumors, and innovative radiation techniques like stereotactic body radiotherapy (SBRT) and Gamma Knife radiosurgery. Dr. Robinson received his medical degree from Case Western Reserve University (2004), completed residency at Cleveland Clinic (2009), and holds a BS in Molecular Biology from University of Pittsburgh (2000). His research program centers on three key areas: 1) Optimizing thoracic radiotherapy techniques to minimize cardiotoxicity, 2) Developing stereotactic arrhythmia radioablation (STAR) for non-invasive treatment of ventricular tachycardia, and 3) Implementing adaptive radiotherapy technologies including MR/CT-guided systems for precision targeting. His work has generated 234+ publications with over 12,500 citations. Recent publications (2023-2025) demonstrate strong focus on cardiac-sparing radiotherapy techniques, management of radiation-induced toxicities (particularly pneumonitis and fibrosis), and clinical translation of novel approaches like cardiac radioablation. Multi-institutional trials feature prominently in his output, including leadership roles in NRG Oncology studies. Awards & Honors: FASTRO (Fellow of American Society for Radiation Oncology) Top Doctors® Recognition Dr. Robinson leads several NIH-funded investigations into radiation biology and cardio-oncology interactions. He mentors junior faculty and oversees clinical trial operations across the Siteman Cancer Center network, though specific graduate students are not named in available sources.

Paolo F MaccariniView profile

Research Professor

• Biomedical Engineering
• Microwave Engineering
• Cancer Therapy
• +6 more

Paolo F Maccarini is an Associate Research Professor in the Department of Electrical and Computer Engineering at Duke University. He holds a PhD in Electrical Engineering from the University of California, Santa Barbara (2002). His work bridges biomedical engineering and microwave technology, focusing on thermal medicine and cancer therapy. He has taught courses in electrical and biomedical engineering and collaborated across disciplines in oncology and medical physics. Education: PhD, University of California, Santa Barbara (2002) Maccarini’s research spans microwave radiometry for non-invasive temperature monitoring, gold nanostar-based photothermal immunotherapy for tumor ablation, and thermal dosimetry in hyperthermia treatments. His work integrates antenna design, nanotechnology, and medical applications, particularly in bladder and brain tumor therapies. He has developed devices for thermal monitoring and explored synergistic approaches combining photothermal effects with immune activation. His publications demonstrate expertise in microwave systems for medical radiometry, tumor treatment with plasmonic nanoparticles, and thermal dosimetry for hyperthermia. Collaborative projects involve magnetic resonance thermal imaging integration, photodynamic therapy enhancements, and device development for superficial disease treatment. While no formal awards are listed, his contributions to medical device innovation and thermal cancer treatments are notable.

Taner AkkinView profile

Professor

• Biomedical Optics
• Neuroimaging
• Optical Coherence Tomography
• +3 more

Taner Akkin is a Professor in the Department of Biomedical Engineering at the University of Minnesota, where he leads the Akkin Lab. His research focuses on developing non-contact optical imaging tools for high-resolution structural and functional analysis of biological tissues, with emphasis on neural applications such as brain tractography and action potential detection. Key techniques include polarization-sensitive optical coherence tomography (OCT) and interferometry, enabling minimally invasive medical applications. Education: Postdoctoral Fellow at Harvard Medical School & Wellman Center for Photomedicine (2004-2005), PhD in Electrical & Computer Engineering (University of Texas at Austin, 2003), MSc/BSc in Electrical Engineering (Çukurova University, Turkey). Research Interests: The Akkin Lab specializes in: Neural imaging, optical coherence tomography, polarization-sensitive interferometry, brain mapping, tissue biomechanics, and nanoscale optical path length detection. Research thrusts include depth-resolved neural activity imaging, cerebellar mapping, and polarization-maintaining fiber technologies for OCT. Teaching: BMEn 3211 Bioelectricity and Bioinstrumentation BMEn 3215 Bioelectricity and Bioinstrumentation Lab BMEn 5421 Introduction to Biomedical Optics Lab & Team: Directs graduate students and collaborators in neurophotonics, with active projects on optical tractography, neural action potential detection, and polarization-based sensors. Former members include 11 PhD/MSc graduates.

Alexander OpitzView profile

Associate Professor

• Non-invasive Brain Stimulation
• Transcranial Magnetic Stimulation
• Transcranial Electric Stimulation
• +7 more

Alexander Opitz serves as an Associate Professor in the Department of Biomedical Engineering at the University of Minnesota, where he leads innovative research in non-invasive brain stimulation technologies. His laboratory focuses on developing computational models to estimate electric field distributions during transcranial magnetic stimulation (TMS) and transcranial electric stimulation (TES), integrating these with neuronavigation systems to improve targeting of specific brain circuits. Opitz's research bridges engineering principles with neuroscience to address neurological and psychiatric disorders through personalized neuromodulation approaches. Opitz's primary research interests center on the biophysical and physiological foundations of non-invasive brain stimulation (NIBS). His lab develops advanced computational tools like SimNIBS for electric field simulation and NeMo-TMS for multi-scale neuron modeling, enabling precise prediction of stimulation effects from whole-brain to single-neuron levels. Current projects include closed-loop real-time TMS-EEG systems that align stimulation pulses with ongoing brain activity phases, deep-learning-based modeling for rapid TMS field estimation, and personalized rehabilitation protocols for stroke recovery in children. His work emphasizes translating improved understanding of brain physiology into clinical applications for conditions like depression and stroke. The research trends in Opitz's 15 most recent publications reveal a strong focus on personalization and precision in brain stimulation. Key themes include individual anatomical and functional predictors for NIBS response, real-time brain state-dependent stimulation, cross-species modeling frameworks, and meta-analyses of electric field effects in clinical populations. His work increasingly integrates machine learning with traditional computational methods while expanding applications to psychiatric disorders and pediatric populations, demonstrating a clear trajectory toward clinically viable personalized neuromodulation therapies. Opitz actively contributes to the scientific community through his lab's extensive resource sharing. He maintains the SimNIBS software platform for electric field simulation, develops the NeMo-TMS toolbox for neuron modeling, and hosts annual workshops on non-invasive brain stimulation methods. His lab's GitHub repository provides open access to published code, while their YouTube channel 'Brain Stimulation Science' disseminates educational content and seminar recordings. These resources support global researchers in advancing NIBS technologies and methodologies.

Lyle W. OstrowView profile

Associate Professor

• Neurology
• Amyotrophic Lateral Sclerosis (ALS)
• Neuroimmunology
• +2 more

Lyle W. Ostrow, MD, PhD, is an Associate Professor in the Department of Neurology at Lewis Katz School of Medicine, Temple University. With clinical expertise in neurology and amyotrophic lateral sclerosis (ALS), he leads research at the intersection of neuroimmunology, transcriptomics, and biomarker development. Education: MD and PhD in Biophysics from The State University of New York, Buffalo Training: Fellowship in Neuromuscular Medicine and Residency in Neurology at Johns Hopkins University His research focuses on: ALS pathogenesis mechanisms (TDP-43 aggregation, RNA splicing, mitochondrial variants) Neuroimmune compartment analysis via single-cell transcriptomics Development of remote monitoring tools for ALS progression (spirometry, speech analysis) Drug repurposing strategies using genomic data Recent publications highlight: Multi-omics approaches to ALS subtyping Role of retrotransposons in neurodegeneration Clinical trials for immunomodulatory therapies Neurogenetic overlaps between ALS, FTD, and other neurodegenerative conditions While clinical awards aren't explicitly listed, patient reviews consistently rate him at 4.9/5 across all categories. His work integrates: Transcriptomic profiling of ALS tissue samples Development of novel therapeutic approaches (protein assembly modulation) Implementation of telemedicine solutions for ALS management

James WrightView profile

Senior Lecturer

• Sports Science
• Exercise Physiology
• Cycling Performance
• +4 more

Dr James Wright is a Senior Lecturer in Sport Science and Performance at Solent University, where he joined the academic team in 2018 after initially working as a technician instructor since 2014. He serves as the Department of Sport and Health Research Lead, H&S Committee Coordinator, and PGR Coordinator, with primary teaching responsibilities in sport and exercise physiology at multiple academic levels. BSc (Hons) Sports Science, University of Portsmouth (2004) MSc Sports Performance, University of Portsmouth (2008) PGCL&T in HE, University of Winchester (2013) PhD in Calculating Critical Power and the Finite Work Capacity from a Single All-out Cycling Test, Solent University (2019) Dr Wright's research focuses on the reliability and validity of sports science testing equipment, football-specific testing and training methodologies, the physiological effects of holding items when running, cycling performance, and training science. His work has significant applications in professional sports, particularly with football clubs and national athletic programs. His research consistently addresses practical challenges in sports performance measurement and optimization. His publications demonstrate a strong focus on sports performance metrics, with recent work examining interval training adaptations in cyclists, physical outputs in football matches, and validation of non-invasive performance monitoring technologies. His research often bridges laboratory testing with real-world athletic applications. Routledge Recently Qualified Researcher Free Communication Award - BASES Annual Conference (2018) Dr Wright actively supervises PhD students on topics including muscle hypertrophy, running biomechanics, football match demands, and futsal goalscoring dynamics. He has secured research funding including the 2025 project 'The physiological demands of holding a small object when running' (£4,535) and the 2018 project 'The influence of locomotive goal-directed behaviour on patterns of brain activity in older adults' (£4,991). He serves as an external examiner for UK universities and participates in course validation panels. As an accredited CASES sport and exercise scientist, Dr Wright directs the CASES laboratory and leads CASES workshops including the Supervised Experience Entry workshop and Combined Supervisor/Reviewer workshop. He has provided sports science support to professional football clubs, GB athletics, and GB cyclists and triathletes, maintaining strong industry connections that inform his academic work.

• Biofluid Dynamics
• Biomechanics
• Medical Devices
• +6 more

Morteza (Mory) Gharib is a Hans W. Liepmann Professor of Aeronautics and Medical Engineering at the California Institute of Technology (Caltech) since 1992, with appointments in Aeronautics, Bioengineering, and Medical Engineering. He earned degrees from Teheran University (B.S. 1976), Syracuse University (M.S. 1978), and Caltech (Ph.D. 1983). Administrative Roles: Vice Provost (2010-16), Director of the Linde Institute (2014-15), and Director of Graduate Aerospace Laboratories (2015-25). Research Leadership: Director of the Center for Autonomous Systems and Technologies (2017-25), focusing on bioinspired engineering and autonomous systems. His research spans biofluid dynamics , biomechanics , medical device development (e.g., heart valves, drug delivery systems), and advanced flow diagnostics . Recent work includes AI-driven turbulence control, cardiovascular health monitoring, and morphing robots for dynamic environments. Key publications reveal expertise in machine learning for fluid dynamics, autonomous navigation in complex flows, and non-invasive diagnostics for aortic stiffness. His Google Scholar list highlights interdisciplinary collaborations in robotics, plasma physics, and stroke research. Scientific Awards: Ronald J. Adrian Award (2023) for contributions to particle image velocimetry As director of the Gharib Research Group, he leads studies on fluid dynamics in physiological systems and innovative imaging techniques, supported by Caltech’s state-of-the-art facilities.