Researchers at Purdue University have developed a technology that enables digital communication through direct touch, allowing for secure payments and information transfer without biometric authentication. This innovation uses an "Electro-Quasistatic range" to confine signals within the body, preventing hacking and interception.
Researchers are using artificial intelligence to analyze COVID-19 patient data from multiple healthcare institutions, identifying trends and connections to improve treatment outcomes. The initiative aims to accelerate global collaborative research on COVID-19 and develop new treatments.
Purdue University scientists have created a patterned sheet of domes that can store energy in its skin, enabling strong mechanical tasks and programmable data processing. The technology has potential applications in flexible robotics and mechanical computing, where energy storage and efficient processing are crucial.
A virtual study using AI technology is evaluating speech disorders related to Parkinson's disease, aiming to improve assessment and treatment options. The study aims to provide insights into standardization, earlier diagnoses, and tracking discrete changes to guide interventions.
Researchers have developed a targeted therapy approach against virus-infected cells, delivering immune-activating drugs selectively into infected cells. This technology shows promise in treating influenza, COVID-19, HIV, and other enveloped viruses.
SpeechVive Inc. offers free remote calibration software and training to improve speech volume and clarity in people with Parkinson's disease, bridging the gap for rural patients during COVID-19.
Researchers at Purdue University have developed a machine learning model that can predict reaction outcomes and test new reactions in a blind prospective manner. The model uses statistical robust machine learning models trained on a small number of reactions to provide interpretable chemical reactivity flowcharts.
The Purdue Innovation Partners Institute is bridging the rural digital divide by bringing wireless broadband connectivity to underserved communities. The initiative, backed by a $1M public-private partnership, aims to support remote learning and improve quality of life for K-12 students in northern Jasper County, Indiana.
A Purdue University team has been named a quarterfinalist in the US Department of Energy's Solar Desalination Prize for their innovative technology to purify high salinity water using solar power. The NoAir system aims to use high-temperature solar heat and hybrid desalination technologies to produce clean water from saltwater.
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.
A new study recommends reducing soccer players' head injury risk by inflating balls to lower pressures and subbing them out when wet. Inflating balls to pressures on the lower end of NCAA and FIFA ranges could reduce forces associated with potential head injury by about 20%.
Researchers have developed two novel targeted therapies to slow down or stop fibrosis progression in people with idiopathic pulmonary fibrosis (IPF). These treatments aim to deliver potent drugs specifically to diseased cells, minimizing harm to healthy ones. The therapies will soon enter human clinical trials.
The U.S. Department of Defense has awarded Adranos a $2.1 million contract to further develop its high-performance solid rocket fuel ALITEC for long-range missile systems. This funding will support the expansion of ALITEC's utilization in prototype and operational systems, enhancing the military's range, performance, and lethality.
Purdue University engineers have developed a microfluidic device that allows scientists to test drugs on multiple tumor cell subtypes, revealing new insights into drug resistance. The technology mimics the behavior of pancreatic cancer cells within a tumor, enabling researchers to identify effective treatment strategies.
The U.S. Army's Redstone Arsenal is using VizSeek technology to instantly locate critical data in legacy engineering drawings, reducing search time from hours to seconds. The partnership with Imaginestics and Purdue University aims to improve data management and protect the United States' digital assets.
Purdue University is leading a $3.7 million research project to create more secure machine learning algorithms for autonomous systems. The goal is to develop a robust, distributed and usable software suite to prevent AI hacking and ensure the accuracy of autonomous machines on the battlefield.
A Purdue University scientist is working on a technique that uses LED light to determine if certain chemotherapy options will work for specific patients. The method, which was published in Scientific Reports, shows promise for improving personalized medicine and reducing side effects.
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 diabolical ironclad beetle's super-toughness lies in its armorlike elytra and connective suture, which distribute force evenly throughout the body. Engineers are developing new materials inspired by this strategy to make machinery safer and longer-lasting.
The Indiana Space Grant Consortium will receive $2.8 million in funding to support student internships, fellowships, and faculty research projects through 2024. This grant aims to inspire interest in STEM disciplines and build a diverse workforce.
Researchers at Purdue University have developed a new type of microrobot that can navigate through the rough terrain of a human colon, enabling potential targeted drug delivery without causing side effects. The microrobots use magnetic fields to tumble and move through the colon, allowing for controlled release of medication.
A new machine learning model has been developed to help characterize compounds in the development of new drugs. The model uses tandem mass spectrometry and is based on a small amount of positive and negative training data, making it useful for automating characterization of compounds by chemists.
Gryfn, a Purdue University-affiliated agbioscience startup, is growing its space and expanding into new markets with its multisensor drone data collection technology. The company has added team members, evaluated new technologies, and is actively recruiting a research scientist to empower the future of agriculture research.
Continuity Pharma has been awarded a $1.5 million grant from DARPA to develop continuous manufacturing technology for reshoring generic drugs. The company aims to ensure the availability of essential medicines to patients in need by applying novel continuous manufacturing capabilities.
A Purdue University team has created a mobile docking system for AUVs, enabling them to perform longer tasks without human intervention. The system uses algorithms to optimize trajectories, allowing robots to autonomously dock mid-mission to recharge and transfer data.
A Purdue University team has developed a magnetically moving cell culturing system to evaluate the impact of mechanical forces on breast cancer cells. The technology allows for the growth of 3D cancer cells in a new tissue environment, mimicking the physiological conditions found in the lungs during breathing.
Researchers have created ultrapotent compounds to treat Clostridioides difficile (C. diff), a leading cause of healthcare-associated infections in the US. The compounds show significant advantages over current antibiotics, including minimum inhibitory concentration values as low as 0.003 μg/mL and improved prevention of recurrence.
Researchers at Purdue University have developed a new small molecule to combat vancomycin-resistant enterococcus (VRE), a leading cause of hospital-acquired infections. The molecule has been shown to target and treat VRE in both systemic circulation and the gastrointestinal tract, offering a potential solution to this deadly superbug.
A new machine learning-assisted method has been developed by Purdue University engineers to rapidly preselect solid-state quantum emitters for large-scale integration on chips. This approach significantly speeds up the process, reducing analysis time from minutes to seconds.
The Inclusion in Science Learning A New Direction (ISLAND) conference is a global forum for promoting STEM inclusion for persons with disabilities. The 11th annual conference will be held virtually on September 12, bringing together access technology developers, educators, and researchers to share experiences and best practices.
Purdue University innovators developed a wearable solution to treat antibiotic-resistant infections, allowing patients to receive treatment from home. The low-cost patch and battery-powered device deliver ozone therapy to accelerate healing.
Purdue engineers have developed a simple printing process that renders any paper or cardboard packaging into easy-to-use human-machine interfaces. The technology allows for the fabrication of vertical pressure sensors without external batteries, harvesting energy from user contact.
African forest elephants' trail networks benefit humans and local communities. Biological anthropology plays a crucial role in conservation by considering human knowledge and needs alongside species protection.
Researchers at Purdue University have developed a new theory that may lead to systematic design of quantum algorithms, outperforming classical computers. The theory identifies large groups of quantum states with polynomial complexity, allowing for efficient coefficient sampling procedures to determine their suitability.
A new THC Rapid Field Test Kit developed by Purdue University and Hemp Synergistics allows law enforcement to distinguish hemp from marijuana in under five minutes, accurately measuring THC levels. This tool is expected to lower forensic laboratory submissions of suspected marijuana cases by 50%.
Researchers at Purdue University are developing a new 3D-printed runway mat using Phase Transforming Cellular Material (PXCM) geometry. The technology aims to create a robust and self-healing mat that can withstand stresses of repeated aircraft take-offs and landings, reducing the need for frequent repairs.
Neurodon, a Purdue University-affiliated startup, has received a $2 million NIH grant to develop targeted neuroprotective molecules for Alzheimer's disease. The molecules have shown promise in preserving calcium ion balance and offering a new therapeutic strategy for neurodegeneration.
A new technology allows scientists to study the role of gut bacteria in health by taking samples anywhere in the gastrointestinal tract. The non-invasive tool, a drug-like capsule, can collect intestinal fluid containing bacteria and protect it for analysis.
Adranos has obtained significant funding from the US Army to develop and test its ALITEC solid rocket fuel in hypersonic research. The technology is expected to increase firing range for both traditional solid rocket motors and air-breathing systems, maximizing end-to-end system performance.
The Purdue team's disinfection method uses edible materials and FDA-approved food coloring dyes to kill airborne pathogens. The technology has been patented and is being licensed for commercialization, with potential applications in medical settings and public spaces.
Researchers at Purdue University have created an image- and video-based application using OpenCV algorithms that detects suspensible dust concentration, allowing employers to take safety measures before explosive atmospheres form.
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.
A new computational model called TransComp-R has been developed to improve the translation of drugs from animal studies to human clinical trials. The model identified an overlooked biological mechanism possibly responsible for a patient's resistance to infliximab, a drug for inflammatory bowel diseases.
A Purdue University startup has developed an augmented reality platform to help elementary students learn about science, technology, engineering and mathematics (STEM) while collaborating remotely. The virtual STEM camp will provide hands-on challenges and projects for students aged 8-12.
A diagnostic startup, Amplified Sciences LLC, is seeing growing interest and support for its innovations in detecting debilitating diseases. The company has received $1.1 million in seed funding and has been accepted into the National Institutes of Health's Applicant Assistance Program.
A study by Purdue University reveals that the primary role of PTSD service dogs is to disrupt episodes of anxiety, with trained tasks being used an average of 3.16 times per day. The dogs' trained behaviors, such as nudging or licking veterans to focus, were also reported to be highly important.
Researchers at Purdue University developed self-powered wearable devices that can monitor cardiovascular health using polyvinyl alcohol (PVA) and transform mechanical energy into power. These devices have the potential to be non-invasive, personalized, and cost-effective for detecting common heart diseases.
A Purdue University team, led by Gaurav Chopra and Riyi Shi, received a $1.3 million grant to develop biomarkers and treatments for traumatic brain injury-related Alzheimer's disease and dementia. The researchers aim to improve understanding of microglial cell states in the context of TBI-related neurodegenerative dementia.
Novilytic, a Purdue University-affiliated bio-analytics startup, has received a $1.4 million Phase II SBIR contract to continue developing its Proteometer instrument technology for pharmaceutical antibody manufacturers. The technology allows process chemists and engineers to monitor and control antibody purity in process.
The team's innovation uses acoustic waves to enable faster tuning of components, resulting in higher-resolution lidar detection. The technology integrates microelectromechanical systems (MEMS) transducers made of aluminum nitride to modulate the microcomb at high frequencies.