Vikas Patel, MD , is a Professor in the Department of Orthopedics at the University of Colorado Anschutz Medical Campus School of Medicine. He serves as Executive Vice Chair of Orthopedic Surgery and specializes in spinal surgery, with clinical expertise in conditions including Spinal deformities Disc herniation Sacroiliac (SI) joint disorders Neck and back pain
Dr. Aidin Eslam Pour is an Associate Professor of Orthopaedics and Rehabilitation at Yale School of Medicine and serves as Chief of Orthopaedic Surgery at West Haven Veterans Affairs Hospital. With extensive expertise in hip and knee orthopaedic surgery, he specializes in primary and revision total hip and knee arthroplasty, utilizing robotic and computer navigation techniques to restore mobility and alleviate pain for his patients, including Veterans. Dr. Eslam Pour's educational background includes: Medical degree from Oroumieh University of Medical Sciences (2001) Orthopaedic Surgery Residency at Thomas Jefferson University Adult Reconstruction Fellowship at Emory University (2012) Multiple European Traveling Fellowships (2012-2013) MS in Health and Health System Research from University of Michigan (2018) His research focuses on the intricate relationship between the hip and spine, employing advanced computer simulations to understand human motion and improve surgical outcomes. Dr. Eslam Pour investigates how pelvic tilt changes during daily activities affect hip implant stability and how personalized surgical planning can optimize outcomes based on individual anatomy. His work has significant implications for reducing dislocation rates and improving patient satisfaction following total hip arthroplasty. Dr. Eslam Pour's extensive publication record demonstrates consistent contributions to understanding hip-spine biomechanics, surgical planning, and implant design. His research has evolved from foundational work on acetabular and femoral anteversion to more sophisticated computer modeling of patient-specific movement patterns. Recent work focuses on personalized medicine approaches in orthopaedics, leveraging 3D imaging and simulation to tailor surgical interventions to individual patient anatomy and functional needs. His scientific contributions have been recognized through prestigious awards including: Mentored Clinician Scientist Award (K08) from NIAMS (2019) Multiple grants from Orthopaedic Research and Education Foundation (OREF) (2022, 2023) American Association of Hip and Knee Surgeons (AAHKS) Clinical Research Award Eastern Orthopaedic Association's Resident and Fellow Award As an active member of the orthopaedic community, Dr. Eslam Pour serves as an Associate Editor for Arthroplasty Today and as a reviewer for multiple prestigious journals including Journal of Arthroplasty and Bone and Joint Journal. He has been an abstract reviewer for the American Association of Hip and Knee Surgeons since 2017 and is a member of the American Academy of Orthopaedic Surgeons. Dr. Eslam Pour leads research efforts within Yale's Orthopaedics & Rehabilitation department, collaborating with colleagues like Dr. Daniel Wiznia and Dr. Steven Tommasini. His work bridges clinical practice and biomechanical research, with a strong emphasis on translating findings into improved patient care. His laboratory work utilizes advanced 3D modeling and simulation techniques to study hip biomechanics in various positions and activities, with the goal of developing personalized surgical approaches that account for individual anatomical variations.
Professor David Deehan at Newcastle University specializes in orthopaedic surgery , with a focus on knee and hip arthroplasty , biomechanics , and osteoarthritis research . His work investigates Robotic-assisted surgical techniques Patient outcomes and satisfaction metrics Biomaterials and implant longevity Mitochondrial dysfunction in osteoarthritis Research trends from his publications highlight advancements in Robotic surgery efficacy Epigenetic mechanisms in OA Postoperative activity monitoring Metal-on-metal implant complications Comorbidity data reliability Biomechanical modeling of joint structures Collaborations span institutions like the National Joint Registry, with co-authors including Steven Galloway , Paul Baker , and Professor Tom Joyce .
Dr. Ram Kiran Alluri is an Clinical Assistant Professor at the Keck School of Medicine, University of Southern California , specializing in Orthopaedic Spine Surgery at the USC Spine Center . His clinical focus includes cervical spine surgery , minimally invasive techniques , and robotic-assisted procedures for adult spinal deformity and complex revision surgery . Undergraduate & Medical Education: University of California Los Angeles (UCLA) Residency: Orthopaedic Surgery at USC Fellowship: Minimally Invasive & Adult Spinal Deformity at Hospital for Special Surgery Dr. Alluri's research emphasizes clinical outcomes analysis and navigational technology in spine surgery. With over 80 peer-reviewed publications and 130+ conference presentations , his work spans topics like AI in medical education , spin bias in systematic reviews , and robotic surgery efficiency . Key awards include the SMISS Young Surgeon Grant and AAOS Best Poster Award . He holds active memberships in AAOS , NASS , and AO Spine .
Riaz Khan is an Adjunct Professor at the University of Western Australia (UWA), affiliated with the School of Physics, Maths and Computing and the Department of Computer Science and Software Engineering. His research focuses on interdisciplinary applications of technology in healthcare, particularly in orthopaedic surgery, biomedical engineering, and medical imaging. He has contributed to advancements in surgical techniques, pain management, and rehabilitation technologies through collaborative projects. Key research areas include total knee arthroplasty optimization, precision bone shaping via laser ablation, smartphone-based motion tracking for post-surgical recovery, and analgesia protocols for orthopaedic patients. He has co-authored over 27 peer-reviewed publications and contributed to a Cochrane Review on patella resurfacing techniques. Dr. Khan has secured research funding, including a grant from Healthway for a smoking cessation initiative linked to hospital admissions (2009–2010). His work aligns with UN Sustainable Development Goals related to good health and well-being. Collaborations span biomedical optics, surgical innovation, and clinical outcome measurement.
Daniel A. Oakes, MD, is a Professor of Clinical Orthopaedic Surgery at the Keck School of Medicine of USC and serves as Director of the USC Joint Replacement Program. With expertise in knee and hip replacement/reconstruction, he pioneered robotic total knee surgery at Keck Medical Center in 2018 and focuses on computer-assisted navigation technologies, porous metal implants, and infection prevention. Harvard Medical School graduate Mayo Clinic fellowship (recipient of Mark B. Coventry Award) Dual expertise in clinical practice and translational research His research spans robotic surgery outcomes , implant longevity , and gene therapy for bone repair (notably AAV-based delivery systems). Publications from 2000-2025 reflect evolving priorities in joint replacement, including pandemic-era surgical trends and biofilm disruption technologies. Recognized as a Top Doctor by multiple organizations, he has received teaching excellence awards and served as Joint Replacement Fellowship Director. Current work emphasizes 3D-printed scaffolds , non-cemented stems , and metal artifact reduction MRI for prosthetic evaluation.
Jin Yu is an Assistant Professor in the Department of Physics & Astronomy at the University of California, Irvine (UCI). His research focuses on computational biophysics, particularly the study of biomolecular machinery such as protein-nucleic acid complexes. Using molecular modeling, statistical mechanics, and stochastic methods, he explores their mechano-chemical dynamics and energy efficiency. His work bridges physics and biology, aiming to uncover principles of cellular function and enable bio-inspired engineering. Yu’s academic affiliations include a joint appointment at UCI and a lab dedicated to advancing computational biophysics. His interdisciplinary research integrates experimental data with theoretical frameworks to address challenges in biomolecular systems. Notably, he has contributed to studies on protein-DNA interactions and stochastic dynamics, as well as collaborations on the XMASS experiment for dark matter detection. Publications highlight his work in both biophysics and particle physics, reflecting his dual expertise. Awards and grants are not explicitly listed, but his research has been supported by initiatives like the COVID-19 HPC Consortium. His lab’s future directions include optimizing biomolecular design for biomedical applications and advancing computational tools for complex systems.
Prof. Dr. William R. Taylor is a Professor of Movement Biomechanics at ETH Zürich's Department of Health Sciences and Technology, where he also serves as the Head of the Department and Deputy Head of the Institute for Biomechanics. His primary focus is on developing medical engineering concepts to assess musculoskeletal deficits and movement pathologies, with applications in clinical decision-making and targeted therapies. He has pioneered techniques such as the REFRAME approach for knee implant design evaluation and dynamic videofluoroscopy for joint analysis. William R. Taylor holds a Ph.D. in Biomedical Engineering from the University of Bath (1999). His academic journey includes postdoctoral research at the Biomechanics Research Lab, Prince of Wales Hospital, Sydney, Australia, and leadership roles at the Julius Wolff Institute, Charité – Universitätsmedizin Berlin (2001–2012). His research interests span biomechanics of aging, Parkinson’s disease gait analysis, spinal alignment in scoliosis, and wearable sensor technologies. He leads the Laboratory for Movement Biomechanics, which develops innovative solutions for musculoskeletal and neurological conditions, including wheelchair steering systems and fall prevention interventions for the elderly. Prof. Taylor has received prestigious awards, including the European Society of Biomechanics SM Perren Award (2022) and ISB Clinical Biomechanics Award (2021). His work has produced over 160 peer-reviewed journal contributions, emphasizing interdisciplinary collaboration between engineering, clinical neuroscience, and data science. Current projects include optimizing subthalamic nucleus DBS for Parkinson’s gait improvement, assessing stress-related low back pain in occupational settings, and validating spinal alignment models like ScolioSIM. He also explores the impact of electrode placement, sensor technologies, and machine learning in functional outcome predictions.
Carmen Muller-Karger is an Associate Teaching Professor in the Department of Mechanical and Materials Engineering at Florida International University (FIU), part of the College of Engineering. Her work focuses on biomedical engineering, prosthetics design, and finite element analysis. She contributes to research initiatives like the CELL-MET and PATHS-UP Engineering Research Centers, emphasizing practical applications in medical device development and manufacturing processes. Her teaching expertise includes online course design for dynamics and engineering education. Research interests span prosthetic limb optimization, biomechanical modeling of bones and joints, and advanced manufacturing techniques (e.g., injection molding for medical devices). She integrates computational methods like finite element analysis (FEA) to improve material selection and structural performance in medical devices. Recent work emphasizes low-cost prosthetic solutions and gait analysis for amputees, reflecting a commitment to accessible healthcare technology. Her publications highlight innovations in polycentric knee prosthetics, intervertebral disc modeling, and bone tissue simulation using Monte Carlo methods. Collaborations include interdisciplinary teams addressing challenges in spinal surgery and orthopedic rehabilitation. No specific awards are noted, but her contributions to engineering education and medical device innovation are central to her profile. Labs and affiliations include the CELL-MET ERC and PATHS-UP ERC at FIU, where she advances research in biomaterials and assistive technologies. She advises graduate and undergraduate students on projects involving computational modeling and medical device prototyping, though no named advisees are listed. Contact: cmullerk@fiu.edu.
Patricia Campbell is a Clinical Assistant Professor of Pediatrics (Clinician Educator) at the University of Southern California. Her research focuses on pediatric transplantation immunology, orthopedic biomaterials, infectious disease diagnostics, and epidemiological studies of vaccine-preventable diseases. She holds an email address at the university and has published extensively in peer-reviewed journals since 2003. Her research interests include the immunological benefits of maternal living donor allografts in pediatric liver transplantation, failure modes of metal-on-metal hip implants, and molecular detection of drug-resistant Mycobacterium tuberculosis. She has contributed to understanding wear patterns of orthopedic devices, pertussis antibody prevalence dynamics, and bone density measurement techniques in young populations. Her publications span topics from pediatric surgery to materials science, reflecting interdisciplinary collaboration. No scientific awards are listed in the provided profile. Advising and grants information is not explicitly mentioned, but her work involves clinical and translational research in pediatrics and orthopedics. She may collaborate with teams in transplant medicine, infectious disease diagnostics, and biomedical engineering.
Professor Bill Walter is a Professor of Orthopaedics and Traumatic Surgery at The University of Sydney and Royal North Shore Hospital. He holds the Chair of Orthopaedics and Traumatic Surgery, established in 1969, and has been in this role since May 2018. His expertise spans joint replacement surgery, with a focus on minimizing complications and improving surgical precision through computer navigation and biomechanical advancements. Education: MBBS, PhD (Surgery), FRACS (Orth). His research emphasizes knee biomechanics, acetabular component alignment, and biomaterials like ceramic-on-ceramic bearings. Over 20 years, he has performed thousands of joint replacements, achieving high success rates. Research Interests: His work addresses clinical challenges in hip and knee arthroplasty, including iliopsoas tendonitis prevention, pelvic tilt analysis, and robotic-assisted alignment techniques. Recent studies explore preoperative risk factors and long-term outcomes of ceramic bearings. Grants include funding for robotic-assisted knee surgery (2023) and chair positions (2018, 2017). Collaborations with institutions like Smith & Nephew Pty Ltd highlight his translational research focus. Despite no listed awards, his contributions to surgical precision and biomaterials are widely recognized in orthopaedic literature. Labs/Teams: Affiliated with Royal North Shore Hospital and the University’s orthopaedic research groups. His work integrates clinical practice, biomechanical engineering, and surgical innovation to advance patient care.
Dr. Amir Matityahu is a Professor in the Department of Orthopaedic Surgery at the University of California, San Francisco (UCSF) School of Medicine. He practices at Zuckerberg San Francisco General Hospital and the Regional Medical Center of San Jose, focusing on orthopaedic trauma and joint replacement care. His work emphasizes surgical technology advancement to improve patient outcomes. Education: BS in Kinesiology and Exercise Physiology (UCLA, 1992), MD (Hahnemann University Medical School, 1997), Orthopaedic Surgery Residency (Maimonides Medical Center, 2002), Orthopaedic Trauma Fellowships (Shock Trauma Center, 2003; Hannover Medical School, 2010; Hadassah Medical Center, 2010; Prince of Wales Hospital, 2011). Dr. Matityahu's research interests span orthopaedic trauma, fracture care biomechanics, hip reconstruction, and global health equity. His work examines implant loading, screw fixation reliability, navigation accuracy, and procedural outcomes in trauma surgery. Publication trends highlight expertise in surgical antisepsis, 3D navigation, fracture fixation mechanics, and age-related trauma outcomes. His recent studies focus on improving implant longevity, reducing complications, and optimizing global trauma care protocols. Scientific awards include multiple recognitions at international conferences, grants from the Orthopaedic Research and Education Foundation (OREF), and visiting professorships in Sweden and Israel.
Ting-Fang Lee is a Research Assistant Professor in the Department of Population Health at NYU Grossman School of Medicine . With a PhD from National Tsing Hua University and postdoctoral training at the University of Rhode Island, Brown University, and National Taiwan University, Lee specializes in ophthalmic epidemiology and health disparities within visual field testing for glaucoma. Education PhD in Mathematics and Statistics (National Tsing Hua University) Postdoctoral Training Pharmacy (University of Rhode Island) Mathematics (Brown University) Mathematics (National Taiwan University) Lee's research focuses on racial and socioeconomic disparities in glaucoma diagnostics and treatment. A 2025 study in Cornea demonstrated reliable corneal endothelial imaging techniques, while 2023 work in Translational Vision Science & Technology explored transfer learning applications to address data inequality in ophthalmic research. Current investigations examine how Area Deprivation Index scores and baseline disease severity affect visual field testing frequency. Key publications include analyses of visual field reliability indicators and racial disparities in clinical trial participation. Lee's work has been supported by NIH funding (R01 EY013178). Collaborative efforts span multiple institutions including Ocular Therapeutix and Zeiss, with methodological expertise in optical coherence tomography and longitudinal patient tracking for chronic eye disease progression.
Anthony Lau is a Professor of Biomedical Engineering at The College of New Jersey (TCNJ) in the School of Engineering, having served since 2015 with progressive promotions from Assistant to Full Professor. He holds leadership roles including Co-Director of Faculty-Student Collaboration (Fall 2024-Ongoing), Research Track Coordinator, and Committee Chair for the BME PRC, while representing TCNJ in the New Jersey Space Grant Consortium since Spring 2016. Dr. Lau earned dual B.Sc. degrees in Biomedical Engineering and Electrical Engineering from Duke University (2005), followed by a Ph.D. in Biomedical Engineering from the University of Virginia (2011). His research centers on bone biomechanics and radiation effects, with three dominant streams: Radiation-induced skeletal changes (space radiation, proton exposure, and bone-cognitive deficit relationships) Disease impacts on bone (hemophilia, chronic kidney disease, estrogen deficiency, and osteoarthritis) Computational modeling of tissue mechanics (finite element analysis of cartilage, ribs, and bone strength) Analysis of his 2011-2024 publications reveals consistent focus on skeletal mechanics, evolving from cartilage/rib studies (2011-2012) to current space radiation projects with NASA. Recent work emphasizes maternal/fetal bone effects (2023) and proton radiation mechanisms (2024), utilizing in vivo models and computational techniques. Dr. Lau received the Harold M. Frost Young Investigator Award from the American Society for Bone and Mineral Research (2014). He actively mentors undergraduate researchers through the Lau Lab, including Calvin Okulicz, Rosalie Connell, Patricia Thomas (2021), and Jack Felipe, Michelle Meyers, Sabrina Vander Weile (2023). His grant portfolio features eight NASA awards since 2020, totaling over $250,000, with two major ongoing projects as PI: 'Effects of Acute and Protracted Proton Radiation on Bone Strength' (2023-2024) and 'Insights into neutron radiation exposure on maternal/fetal skeletal physiology' (2023-2024). Dr. Lau leads the TCNJ Lau Lab conducting NASA-funded bone radiation research at Brookhaven National Labs. He coordinates the BME Research Track and Faculty-Student Collaboration initiative, with lab meetings documented for summer 2024 projects on space radiation effects.
Dr. Anjali Tumkur Jaiprakash is a research professor at Queensland University of Technology's Institute of Health and Biomedical Innovation, specializing in medical robotics and surgical innovation. Her work spans orthopedic surgery, robotic arthroscopy, healthcare co-design, and medical imaging technologies. With over 40 publications since 2012, she maintains active research collaborations across engineering and clinical disciplines. Her primary research explores: Robotic systems for minimally invasive surgery, particularly knee arthroscopy Computer vision applications for surgical navigation and anatomical measurement Deep learning approaches for medical image analysis Human-centered design for healthcare services and medical devices Orthopedic infection prevention and fracture healing biomechanics Publication analysis reveals strong emphasis on surgical robotics (43%), orthopedic clinical applications (36%), and healthcare design methodologies (21%). Recent work shows increasing focus on AI integration in surgical devices and epidemiological studies of orthopedic complications. Collaborative outputs demonstrate interdisciplinary networks spanning engineering, clinical medicine, and design disciplines. Dr. Jaiprakash contributes to significant research infrastructure including the Australian Centre for Robotic Vision and leads projects on robotic knee arthroscopy systems. She collaborates extensively with Princess Alexandra Hospital and international institutions on surgical technology innovation.