A new study, MoTrMito, aims to identify molecular factors promoting positive mitochondrial change with exercise. The research will compare mitochondria responses between younger and older adults undergoing exercise training.
Jin Kim Montclare, a professor at NYU Tandon, has been named a Fellow of the National Academy of Inventors for her groundbreaking research on engineered proteins. Her work has led to breakthroughs in removing pesticides from crops and developing novel protein-based delivery systems for cancer treatment.
Researchers at the University of New Mexico have found that combining certain polymers and oligomers with UV light can almost completely kill the coronavirus. This method provides a fast-acting and highly effective coating that reduces virus concentrations by five orders of magnitude.
Dr. Eric Beckman, a renowned engineer at the University of Pittsburgh, has been recognized as an NAI Fellow for his groundbreaking research in molecular design, biomedical polymers, and sustainability. His work aims to create new knowledge that benefits human health and the environment.
A nationwide effort aims to increase COVID-19 testing in Louisiana's Black communities, which have been disproportionately affected by the virus. The project seeks community-driven approaches to reduce testing barriers and improve access to tests.
The University of Delaware has secured a $11 million National Institutes of Health (NIH) grant to support its biomedical research program. The grant, led by Professor Joseph Fox, will focus on discovering new molecules to study and treat diseases such as breast cancer and tuberculosis.
Research on strain engineering of 2D materials, including graphene and transition metal dichalcogenides, has shown promising results. The unique mechanical and optical properties of these materials make them suitable for optimizing device performance and enabling new photonic applications.
Researchers used computer modeling to investigate the mechanisms behind silent hypoxia in COVID-19 patients. They found that a combination of biological factors, including damaged lung tissue, blood clotting, and air-to-blood flow mismatch, contribute to low oxygen levels. This understanding can inform treatment decisions for clinicians.
A new study proposes exposing students to community-based participatory methods, establishing action research groups for faculty, and broadening the definition of research impact to improve tenure promotion experiences for minority faculty. The goal is to combat systemic racism and increase diversity in environmental engineering programs.
A magnetic spray can be used to turn objects into millirobots that can crawl, walk, or roll on different surfaces. The coated objects are biocompatible and can be disintegrated into powders when needed, demonstrating potential for biomedical applications like catheter navigation and drug delivery.
Researchers at Purdue University have created a pearl spectrometer, demonstrating light transport-assisted information processing. This innovation has the potential to improve spectroscopy in biomedical and military applications by providing compact and efficient sensing capabilities.
ESEC/FSE 2020, a leading software engineering conference, presents outstanding research results and trends in virtual format. The conference features keynote addresses on human-computer collaboration, diversity, and inclusion initiatives.
Jifeng Liu, a professor at Dartmouth's Thayer School of Engineering, has been named an OSA fellow for his work on renewable energy and reducing energy consumption in information technology. His research focuses on advancing solar technologies that are less expensive and more efficient.
Researchers used spider web architecture to create deformable and reliable electronics for seamless 3D interface. The technology enables a large field of view and wide-angle antireflection, useful for biomedical and military imaging purposes.
The University of Texas at El Paso has received a $1.35 million NIH Science Education Partnership Award to attract high school students from economically disadvantaged communities to pursue undergraduate degrees in engineering and biomedical sciences. The project, Project ACE, will provide research-focused curriculum, mentors, and oppo...
Researchers have developed core-sheath polymer fibers that combine strength with bioactivity, enabling various biomedical applications. The fibers can be tailored to specific needs by carefully selecting inner and outer layer materials, and can even include antiviral agents or drugs.
Researchers have developed a low-cost, miniaturized biochip that uses machine learning and microfluidics technology to analyze cancer cells at the single-cell level. The device enables precise characterization of various cancer types and study cellular heterogeneity, potentially improving cancer treatment drugs.
The GDPR's restrictive approach to international data transfers is hindering global biomedical research, including essential COVID-19 studies. The authors propose amendments to address this issue, ensuring the balance between individual privacy and societal benefits in research contexts.
Researchers are developing a novel, noninvasive method to target and kill cancerous cells in breast tissue using nanoparticles and ultrasound. This approach, nanoparticle-mediated histotripsy (NMH), aims to improve the safety of treatment for metastatic breast cancer patients by reducing harsh side effects associated with chemotherapy....
A new deep learning methodology called Brain-NET has been developed to accurately predict a person's level of expertise in surgical motor skills based solely on neuroimaging data. This technology has the potential to streamline the surgeon certification process, enabling real-time score feedback and remediation or training.
The Purdue team created a fully implantable radio-frequency transmitter chip that consumes the lowest amount of energy per digital bit published to date. It enables real-time biophysiological data monitoring for conditions like glaucoma and heart disease, eliminating the need for batteries or frequent recharging.
The University of Minnesota has received $26 million to create an Engineering Research Center (ERC) focused on developing and deploying breakthrough bioengineering technology. The center, ATP-Bio, aims to preserve a wide range of biological systems, including cells, tissues, organs, and whole organisms.
Biomedical engineers at Duke University have created artificial membrane-less organelles within human cells by controlling the phase separation of emerging class of proteins. This advance enables precise tuning of a single property to modulate existing cell functions or create new behaviors.
A University of Sydney team has developed a plasma technology to attach hydrogels to polymeric materials, allowing for better interaction with surrounding tissue. The technology has shown promising results in tests using biomolecules found in the body.
A new study describes a novel label-free imaging technique that can differentiate active T cells from those in a quiescent state. The method, which uses autofluorescence detection, is non-damaging and doesn't alter the behavior of the cell, offering advantages over traditional antibody-based methods.
Researchers are developing an active bandage with integrated sensors to monitor and accelerate the wound healing process in real-time. The device will enable individualized interventions to accelerate healing through continuous sensing and actuation capabilities.
The Pew Charitable Trusts has selected 10 postdoctoral fellows from seven Latin American countries to conduct research in the US. The fellows will explore various biomedical topics, including leukemia stem cells and HIV hiding inside host cells.
The National Academy of Engineering has received a $3 million gift from the Grainger Foundation to support its Frontiers of Engineering symposia. The program recognizes outstanding early-career engineers and facilitates interdisciplinary collaboration among engineering's next generation of leaders.
A team of biomedical engineers developed novel fibre-reinforced hydrogel scaffolds with improved stress resistance and water volume similar to real tendons and ligaments. The synthetic scaffolds aim to fast-track tendon and ligament regeneration, reducing implant failure and improving tissue integration.
The UNCC-Lehigh team aims to improve dry cooling systems in coal power plants, reducing water consumption and increasing efficiency without adding water. They will develop an integrated heat exchanger and thermal energy storage unit to achieve this goal.
Researchers have developed a way to protect thin, flexible neural interfaces from the biological processes of the human body. The new technology uses thermally grown silicon dioxide to create a biocompatible barrier that lasts for more than six years.
A new adhesive method allows conductive polymer gels to adhere to a wide variety of surfaces, including glass and gold, even when exposed to moisture. This breakthrough enables the development of more durable and reliable biomedical sensors and implants.
Researchers created an electrospun fiber blending protein and polymer, demonstrating gradual protein release. The study showcases the versatility of blended mats for biomedical applications like burn dressings, drug delivery, and tissue engineering.
Researchers at Duke University have developed a method to create new shapes of biocompatible microparticles by applying heat and light to proteins. These particles can be tailored for various applications such as drug delivery, diagnostics, and tissue engineering.
The Vilcek Foundation is awarding $150,000 to three early-career immigrant researchers in biomedical science. The prizes recognize emerging professionals who have demonstrated significant accomplishments early in their careers.
Researchers have designed a novel probiotic strain that can seek out solid tumors and safely deliver immune checkpoint inhibitors, leading to tumor regression. The probiotic platform can also be used to deliver multiple immunotherapies simultaneously, enabling effective therapeutic combinations for difficult-to-treat cancers.
A pilot program launched by the Berlin Institute of Health aims to enhance the quality and value of translational research through training, tools, and monetary incentives. The QUEST Center's initiative seeks to address concerns over transparency and reproducibility in biomedical science.
Scientists use electrospun synthetics to mimic the extracellular matrix, standardizing research conditions. The study reveals that different types of breast cancer cells grow best in specific cellular environments.
The University of Washington's new WE-REACH center aims to support biomedical entrepreneurs and provide project funding for up to six startups per year. The center, funded by the NIH, will focus on innovative disease treatments, new drugs, and health technologies.
Xu is being honored for her efforts to recruit women, underrepresented minorities, and first-generation college students to the fields of chemistry, biochemistry, and biomedical sciences and engineering. She has led a laboratory pursuing research at the interface of chemistry, biology, engineering, and medicine.
A new photoacoustic tomography technique aims to improve the detection and measurement of hypoxic-ischemic brain injuries in preterm newborns without sedation or radiation. The technology has the potential to revolutionize neonatal brain imaging management, enabling earlier treatment and improved outcomes for patients.
Biomaterials Science and Engineering Fellow Anson Ong recognized for outstanding contributions to biomaterials research, education, and service. His primary focus areas include implant surface modifications and tissue-engineered bioceramic scaffolds.
A team led by biomedical engineer Kam Leong has received a $3.2 million NIH grant to develop efficient, noninvasive gene editing methods for the brain. The goal is to overcome current inefficiencies in delivering CRISPR-based gene editing elements to the brain and treat devastating diseases like Alzheimer's.
Biomedical engineers at Duke University have developed a new method to create stable IDP-based materials by controlling environmental triggers. This allows researchers to harness the phase transition properties of IDPs to build novel materials for drug delivery, tissue engineering, and regenerative medicine.
Weiqiang Chen, an assistant professor at NYU Tandon School of Engineering, has been awarded a $1.7 million NIH grant to develop personalized approaches to CAR-T cell therapy for cancer treatment. The grant will support the development of microfluidic systems to model disease environments and study cell interactions.
Scientists at UVA aim to uncover the origin and development of coronary heart disease using a genetic variation associated with ID3 gene, with potential for personalized treatments based on patient's genotype
The UTSA/NIH program aims to increase diversity in the biomedical sciences by training underrepresented students in research skills and experience. High-achieving freshmen from South Texas high schools will be recruited for a five-year grant-funded program.
Marshall University has received a five-year, $17 million award from the National Institutes of Health (NIH) to continue its biomedical research efforts in West Virginia. The WV-INBRE program aims to enhance biomedical research capacity and provide access to resources for undergraduate students.
The Biomedical Engineering Society has recognized Weiqiang Chen's original research on single-cell mechanical allostasis, a biological process that drives cells to reach a new equilibrium. His work employs principles of mechanical engineering and physics to identify the state of individual cells.
The research team aims to design algorithms that optimally distribute computation between robots and the cloud for guaranteed safe robotic operation. 5G systems offer higher data rates but pose challenges due to limited bandwidth and high latency, requiring new control algorithms that can exploit high-rate links when available.
The NIH awarded UTEP's BUILDing SCHOLARS program a $15.2 million grant to train the next generation of biomedical researchers in the US Southwest, focusing on cancer, addiction, environmental health, and more. The program aims to increase diversity in the biomedical research workforce.
Researchers at UT Austin have developed multifunctional nanogels that can deliver drugs to treat cancer in a precise manner. The nanogels can be chemically modified with bioactive molecules, allowing them to target malignant cells and degrade into nontoxic components.
Researchers have developed a new flexible membrane that guides cracks away from critical components, increasing the functional lifespan of biomedical devices. The study, led by Binghamton University Associate Professor Guy German, uses human skin topography as a model to direct cracks in the best way possible.
Researchers Keefe Manning and Yong Wang propose a new method of surface modification of nanoparticles for local drug delivery to prevent thrombosis in medical devices. The goal is to develop a solution that would reduce side effects and increase drug concentration without frequent administration of antithrombotic drugs.
Researchers have developed a new CRISPR technology to accurately regulate and edit genomes in human cells, opening up nearly 90% of CRISPR-Cas systems. This approach has shown promise for biomedical research, gene therapies, and other applications.
Rice University, Texas Southern University, and the University of Houston have won a $2.66 million NSF grant to enhance training and resources for underrepresented minorities in engineering and science disciplines. The project aims to create a more diverse workforce and address systemic barriers that impede their success.
A new method has been developed to improve the quality of stem cell-derived cardiomyocytes, which can be used to treat heart attacks. The approach, tested in a mouse heart attack model, doubled the engraftment rate of injected cells, showing promise for repairing damaged heart tissue.
The ReBUILDetroit program, a partnership between University of Detroit Mercy and Wayne State University, has received a $19.4 million NIH grant renewal to provide scholarships and stipends for students enrolled in the program. The program aims to encourage underrepresented students to pursue careers in biomedical research.
The University of Oklahoma Health Sciences Center has received a $18.7 million grant to expand biomedical research on complex diseases like cancer and diabetes. The grant aims to develop new medical devices and treatments while building a pipeline for the next generation of researchers and healthcare professionals.
Researchers have created a prosthetic arm called the LUKE Arm, which can mimic human hand sensations, allowing amputees to pick up objects with greater precision. The arm uses a system of mathematical calculations and modeling to send biologically realistic signals to the brain, enabling users to feel touch, texture, and pressure.