Sponsor or institution
Clinical trials and research at New Jersey Institute of Technology
As of November 12, 2026, Find a Trial lists 1 clinical trial run by New Jersey Institute of Technology that is recruiting, in United States. There are also 31 NIH-funded research projects at this institution, with $12.3 million in listed awards. Every study is explained in plain English. Data from ClinicalTrials.gov and NIH RePORTER, updated November 12, 2026.
- 1Clinical trials
- 31NIH research projects
- 1Country
All recruiting trials (1)
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Automated virtual reality therapy for eye recovery after brain injury
This study tests a new virtual reality therapy to see if it can help veterans with vision problems after a brain injury feel better.
NIH-funded research (31)
Early-stage science funded by the US National Institutes of Health. Most of these projects don't enroll patients, but they show what is being worked on.
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Placental exposure to tiny plastics and how they may affect pregnancy
Tiny plastic particles in the environment may reach pregnant bodies and developing placentas, potentially impacting pregnancy outcomes.
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The role of social spaces in how we learn vocal communication
A study explores how moving and talking skills develop together in early life, using a bird model to understand how space and speech influence language development.
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Role of directional stress in activating fibroblasts
This grant explores how directional forces in tissue affect fibroblast activation and memory, with potential to improve wound healing and prevent scarring.
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New AI-powered tools for single-cell omics data
A research team will build user-friendly AI and statistical tools to analyze single-cell genomics data from diverse experiments to help biomedical researchers understand cell behavior.
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Gas-filled microbubbles plus ultrasound to protect newborn brains after oxygen loss
This project uses tiny gas-filled microbubbles and ultrasound to deliver protective gases to newborns who suffered oxygen-deprived brain injury (hypoxic-ischemic encephalopathy).
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Turning heart energy into power for leadless heart pacemakers
A new approach aims to harvest energy from the heartbeat to power small leadless pacemakers, reducing the need for frequent battery changes in people with heart rhythm problems.
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AI-powered robotic coil for precise brain stimulation (TMS)
A new AI-guided robotic TMS system aims to position the stimulation coil with millimeter accuracy to map brain circuits more reliably.
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Understanding how white-matter brain networks relate to memory decline in aging and Alzheimer's
This project looks at how the brain’s white-matter connections change with aging and Alzheimer’s disease and how these changes relate to cognitive decline.
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Ultrasound-Activated Gas Bubbles to Treat Mild Traumatic Brain Injury
A study tests ultrasound-activated gas bubbles to protect and help brain cells after mild traumatic brain injuries, especially in military, veterans, and civilians exposed to blasts.
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How peptide sequences drive amyloid fiber formation
This project uses detailed computer simulations, machine learning, and lab tests to learn which short protein pieces tend to clump into amyloid fibers linked to Alzheimer's.
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Brain control of eye turning after a concussion
This project looks at how the brain controls inward eye movement (convergence) in teens and adults who have trouble after a concussion and whether hands-on eye movement therapy helps.
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Understanding brain communication pathways in Alzheimer's disease
This study is looking at how certain parts of the brain, called white matter, might influence thinking and memory changes in people with Alzheimer's disease, and it's for anyone interested in understanding how the brain works as we age or face cognitive challenges.
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Bottom-Up Protein Imaging in Tissue by Mass Spectrometry
A new method will image proteins in tissue samples by breaking them into peptides and detecting them with fast, sensitive mass spectrometry directly on the tissue.
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Understanding how phthalates affect ovarian health
This study is looking at how certain chemicals called phthalates, which are often found in our environment, might harm the ovaries of children, and it aims to understand how these chemicals affect their reproductive health.
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How phthalates affect ovarian health
This study is looking at how everyday chemicals called phthalates might affect women's ovarian health and reproductive function, with the goal of finding ways to reduce any harmful effects they may have.
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Using laser technology and special nanoparticles to treat bacterial biofilms
This study is exploring a new way to use tiny particles that can be activated by laser light to help fight stubborn bacterial infections that don't respond well to regular antibiotics, aiming to make treatment easier and more effective for patients.
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Improving tooth pulp healing and preventing infections
This study is exploring a new way to help heal damaged tooth nerves and prevent infections using a special gel that can be injected into the tooth, which could be great news for anyone who has had problems with their dental pulp.
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Understanding how white matter brain networks affect cognitive functions
This study is looking at how different parts of the brain work together, especially focusing on the connections in white matter, to better understand brain health and help improve diagnosis for people with mental health conditions.
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Using advanced machine learning to analyze single-cell genomic data
This study is working on new computer techniques to better understand genetic information from individual cells, which could help doctors learn more about diseases and create more personalized treatments for patients.
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Understanding how phthalates affect ovarian health
This study is looking at how certain chemicals called phthalates, which are often found in our environment, might harm ovarian health, and it aims to help us understand how these chemicals affect women's reproductive health so we can find better ways to protect it.
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Understanding how amyloid peptides clump together in Alzheimer's disease
This study is looking at how certain proteins clump together in Alzheimer's disease and how these clumps can harm brain cells, with the hope of finding new ways to stop this process and help prevent the disease.
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Imaging cell behavior using advanced light technology
This study is working on a new way to take detailed pictures of how cells move and interact, which could help us understand diseases better and find new treatments, all without needing any special dyes or injections.
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Developing new light-responsive materials for therapy
This study is exploring new materials that can safely use special light to help deliver medications and treat conditions like cancer more effectively, making treatments less invasive and more precise for patients.
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Investigating protein structures using advanced mass spectrometry techniques
This study is exploring a new way to look at how proteins are structured and how they change shape, which could help us understand important biological processes better, and it's designed for scientists who work with proteins.
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Understanding how muscles work and their properties in living organisms
This study is looking at new ways to see how muscles work while you move, especially for people with conditions like ALS, to help doctors understand muscle health better and catch any problems sooner.
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Using non-invasive methods to stimulate the cerebellum for improved brain function.
This study is looking at how safe, non-surgical methods like Focused Ultrasound and Transcranial Electrical Stimulation can help improve brain function and behavior for people with conditions related to the cerebellum, which affects movement, thinking, and emotions.
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Using advanced imaging to study how cells stick together and behave.
This study is working on a new way to take pictures of cells to see how they move and stick together, which could help us understand diseases better and lead to better tests and treatments for patients.
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Understanding how amyloid peptides clump together in Alzheimer's disease
This study is looking at how certain proteins in the brain clump together in Alzheimer's disease and how these clumps can harm brain cells, with the hope of finding new ways to stop or slow down this process to help people with Alzheimer's.
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Developing new materials to help regenerate lost muscle tissue
This study is testing new biodegradable materials that help heal and rebuild muscle tissue lost from injuries or treatments, aiming to make recovery easier and more effective for patients.
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Developing a technology to analyze cells in 3D cultures without damaging them
This study is working on a new technology that lets scientists safely analyze and treat living cells in 3D cultures without harming them, which could lead to better ways to test drugs and improve tissue engineering for patients like you.
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The role of brain immune cells in behavior after brain injury
This study is looking at how certain immune cells in the brain react after a traumatic brain injury and how these reactions might affect behavior, with the hope of finding new ways to help people recover better.
Quick answers
How many clinical trials run by New Jersey Institute of Technology are recruiting right now?
1, as of November 12, 2026. We update this list each time we refresh our data from ClinicalTrials.gov.
Where are these trials running?
All of them have sites in United States. Each study page lists its sites and which ones are recruiting.
How do I join one?
Open a study, check the "Is this trial a fit for you?" section, then contact the study team listed on the page. They will ask a few screening questions. Asking is free and does not commit you to anything. Talk it over with your doctor first.
Find the studies that fit you
A list is a starting point. Tell us your situation in your own words and we'll rank the studies that match and explain why. It's free and needs no account.