Work with thought leaders and academic experts in radiological and ultrasound technology

Companies can greatly benefit from collaborating with academic researchers in the field of radiological and ultrasound technology. These experts bring specialized knowledge and skills that can enhance research, development, and innovation in various industries. Here are some ways companies can collaborate with them: 1. Research and Development: Academic researchers can contribute to the development of new imaging techniques, technologies, and equipment. 2. Clinical Trials: Researchers can assist in conducting clinical trials for new radiological and ultrasound technologies, ensuring their safety and efficacy. 3. Data Analysis: Experts can analyze and interpret complex imaging data, providing valuable insights for diagnosis, treatment, and research. 4. Training and Education: Researchers can provide training programs and workshops to educate healthcare professionals on the latest advancements in radiological and ultrasound technology. 5. Collaborative Projects: Companies can partner with researchers to work on collaborative projects, leveraging their expertise to solve industry-specific challenges. By collaborating with academic researchers in radiological and ultrasound technology, companies can stay at the forefront of innovation and gain a competitive edge in their respective industries.

Researchers on NotedSource with backgrounds in radiological and ultrasound technology include Daniel Milej, Ph.D., K. Suzanne Scherf, Dr. Christian Waugh, Ph.D., Emmanuel Iarussi, Dhritiman Das, Ph.D., Ayse Oktay, Krzysztof Wolk, Ava Winn, Amir Manbachi, Jonadab Dos Santos Silva, MD, Justina Ayileka, and Yasmeen George.

K. Suzanne Scherf

Associate Professor of Psychology & Neuroscience, Penn State University
Most Relevant Research Expertise
Radiological and Ultrasound Technology
Other Research Expertise (36)
developmental cognitive neuroscience
vision
autism
adolescent
Cognitive Neuroscience
And 31 more
About
My core interests lie in understanding how children and adolescents perceive and interpret social signals and how emerging functional specificity of the developing brain supports this process. My approach primarily involves using the face processing system as a model domain. Faces are dynamic stimuli from which we extract many different kinds of information (e.g., gender, age, emotional state, mate potential, social status, trustworthiness, intentions, “person knowledge”). All of these processes must be executed accurately and rapidly for many faces over the course of a single day, making face processing among the most taxing perceptual challenges confronted by people in their day-to-day life. Given that faces are also the pre-eminent social signal, studying developmental changes in the behavioral and brain basis of face processing in typically developing individuals and in those affected by social-emotional disorders may index a core set of developmental changes within the broader social information processing system. I employ converging methodologies, including functional (fMRI) and structural magnetic resonance, and diffusion tensor imaging (DTI) along with detailed behavioral paradigms in both typically developing populations and those with developmental disorders to examine development from early childhood to adulthood.

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Dhritiman Das, Ph.D.

Postdoctoral Researcher at Massachusetts Institute of Technology : AI | Computer Vision | Signal Processing | Healthcare
Most Relevant Research Expertise
Radiological and Ultrasound Technology
Other Research Expertise (15)
Machine Learning
Medical Image Analysis
Computer Vision
Signal Processing
Electronic, Optical and Magnetic Materials
And 10 more
About
Dhritiman Das is a highly accomplished computer scientist with a strong background in bioengineering. He holds a Ph.D. in Computer Science from the Technical University of Munich, where he focused on developing innovative machine learning algorithms for medical imaging applications. More specifically, he developed applied machine learning and computer vision tools for accelerated processing and analysis of large-scale brain imaging (MRSI) data. Prior to his doctoral studies, Dhritiman earned a Master of Science in Bioengineering from Arizona State University and a Bachelor of Engineering in Biomedical Engineering from Manipal Institute of Technology. Throughout his academic career, Dhritiman has demonstrated a strong passion for research and has published several papers in top computer science and biomedical engineering journals. He has also presented his work at numerous international conferences and workshops, gaining recognition from the scientific community. In addition to his academic achievements, Dhritiman has gained valuable industry experience through various internships and research positions. He has worked as a Postdoctoral Researcher at the Massachusetts Institute of Technology, where he collaborated with leading researchers to develop cutting-edge technologies for healthcare applications. His work here focused on self-supervised learning, generative models and neuroinformatics. He has also held positions at GE Healthcare and Siemens Limited, where he applied his expertise in information theory, computer vision and machine learning to solve real-world challenges in the field of medical imaging. Dhritiman is a skilled researcher and problem-solver with a strong background in both computer science and bioengineering. He is dedicated to using his knowledge and expertise to make a positive impact in the field of healthcare and beyond.

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Krzysztof Wolk

Professor
Most Relevant Research Expertise
Radiological and Ultrasound Technology
Other Research Expertise (28)
Machine Learning
AI
NLP
Multimedia
Control and Systems Engineering
And 23 more
About
I hold a PhD Eng. degree in computer science. I am a graduate of the Polish-Japanese Academy of Information Technology in Warsaw, POLAND. Currently, I am associate professor at the Cathedral of Multimedia at the same university. I lead and conduct scientific projects and research related to natural language processing and machine learning based on statistical methods and neural networks. I eagerly take up IT challenges and engage in interesting interdisciplinary projects, in particular related to HCI, UX, medicine, and psychology. In addition, as my profession, I have worked as a lecturer at the Warsaw School of Photography, and as an IT trainer. My specialties as a teacher are primarily deep learning, machine learning, natural language processing, computational linguistics, multimedia, HCI, UX, mobile applications, HTML 5, Adobe applications, and server products from Apple and Microsoft. As far as my didactic work is concerned, I lead classroom studies at the faculty of computer science and at the new media art department of the Polish-Japanese Academy of Information Technology and, in the past, I have also directed classes and lectures at the Warsaw School of Photography & Graphic Design. I am also an expert at the Polish National Agency for Academic Exchange, a member of the Polish Information Processing Society, and a member of the Polish Telemedicine and eHealth Society with Bene Meritus honor. Finally, I am a certified Microsoft, Apple, Adobe, w3schools, and EITCA specialist as well as being the Author of many scientific monographs and specialized IT books related to machine learning, administration of servers, and multimedia. I also engage as an editor of various specialized IT web portals such as in4.pl, pclab.pl, and e-biotechnologia.pl where I am author of training materials, guides, and hardware reviews. Some of my articles have also been published in iCoder Magazine and Komputer Świat magazine.

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Example radiological and ultrasound technology projects

How can companies collaborate more effectively with researchers, experts, and thought leaders to make progress on radiological and ultrasound technology?

Development of Advanced Imaging Techniques

A company in the medical device industry can collaborate with a radiological and ultrasound technology expert to develop advanced imaging techniques that improve the accuracy and efficiency of diagnosis.

Evaluation of New Ultrasound Equipment

A healthcare organization can partner with a researcher to evaluate the performance and effectiveness of new ultrasound equipment, ensuring its suitability for clinical use.

Image Analysis for Cancer Detection

A pharmaceutical company can work with a radiological and ultrasound technology expert to analyze imaging data for the early detection and diagnosis of cancer, enabling more effective treatment strategies.

Optimization of Imaging Protocols

An imaging center can collaborate with a researcher to optimize imaging protocols, reducing scan time and improving image quality, leading to enhanced patient experience and more accurate diagnoses.

Development of AI Algorithms for Image Interpretation

A technology company can partner with an academic researcher to develop artificial intelligence algorithms that automate the interpretation of radiological and ultrasound images, improving efficiency and accuracy in diagnosis.