In the quest for more efficient and sustainable energy solutions, a multi-university research team has reached a significant milestone in capacitor technology. Researchers from the University of Houston, Jackson State University and Howard University have developed a new type of flexible high-energy-density capacitor, which is a device that stores energy.
Though the prototype device is just 1-inch by 1-inch, scaled-up versions of this innovation could potentially revolutionize energy storage systems across various industries, including medical, aviation, auto (EV), consumer electronics and defense.
The researchers shared the study details in a paper titled “Ultrahigh Capacitive Energy Density in Stratified 2D Nanofiller-Based Polymer Dielectric Films,” published in the journal ACS Nano.
DNA nanostructures can perform some of the complex robotic fabrication process for manufacturing and self-replication. Building things and performing work with nanorobots has been a major technical and scientific goal. This has been done and published in the peer reviewed journal Science. Nadrian C. “Ned” Seeman (December 16, 1945 – November 16, 2021) was an American nanotechnologist and crystallographer known for inventing the field of DNA nanotechnology. He contributed enough to this work published in 2023 to be listed as a co-author.
Seeman’s laboratory published the synthesis of the first three-dimensional nanoscale object, a cube made of DNA, in 1991. This work won the 1995 Feynman Prize in Nanotechnology. The concept of the dissimilar double DNA crossover introduced by Seeman, was important stepping stone towards the development of DNA origami. The goal of demonstrating designed three-dimensional DNA crystals was achieved by Seeman in 2009, nearly thirty years after his original elucidation of the idea.
The concepts of DNA nanotechnology later found further applications in DNA computing, DNA nanorobotics, and self-assembly of nanoelectronics. He shared the Kavli Prize in Nanoscience 2010 with Donald Eigler for their development of unprecedented methods to control matter on the nanoscale.
Unlike the rigid skeletons within our bodies, the skeletons within individual cells—cytoskeletons—are changeable, even fluid. And when these cytoskeletons reorganize themselves, they do more than support different cell shapes. They permit different functions.
Little wonder, then, that scientists who build artificial cells hope to create synthetic cytoskeletons that act like natural cytoskeletons. Synthetic cytoskeletons capable of supporting dynamic changes in cell shape and function could enable the development of novel drug delivery systems, diagnostic tools, and regenerative medicine applications.
Synthetic cytoskeletons have incorporated building blocks such as polymers, small molecules, carbon nanotubes, peptides, and DNA nanofilaments. Mostly DNA nanofilaments. Although they offer programmability, they can be hard to fine tune. To get around this difficulty, scientists based at UNC Chapel Hill led by Ronit Freeman, PhD, investigated the relatively unexplored possibilities offered by peptides. Specifically, the scientists engineered artificial cells using a programmable peptide–DNA nanotechnology approach.
Science And Technology For Emerging National Security Threats — Dr. Sean Kirkpatrick, Ph.D. — Nonlinear Solutions LLC — Fmr. Director, All-domain Anomaly Resolution Office (AARO), United States Department of Defense.
Dr. Sean Kirkpatrick, Ph.D. is Owner of Nonlinear Solutions LLC., an advisory group that provides strategic scientific and intelligence consulting services, with a focus on emerging science and technology trends, to clients in both the defense and intelligence communities.
Dr. Kirkpatrick recently retired from federal Senior Service in December 2023 and prior to his current responsibilities he answered to the Deputy Secretary of Defense to stand-up and lead the All-domain Anomaly Resolution Office (AARO — https://www.aaro.mil/) in early 2022, leading the U.S. government’s efforts to address Unidentified Anomalous Phenomena (UAP) using a rigorous scientific framework and a data-driven approach.
Dr. Kirkpatrick attended University of Georgia as an undergraduate, to study physics, where he also did his Ph.D. work in nonlinear and nonequilibrium phonon dynamics of rare earth doped fluoride crystals, and currently serves as an adjunct professor at UGA.
Dr. Kirkpatrick began his career in Defense and Intelligence related science and technology immediately out of graduate school. After receiving his Ph.D. in Physics in 1995, he subsequently took a postdoctoral position at the University of Illinois, Urbana-Champaign, investigating laser-induced molecular vibrations of high explosives under an AFOSR program. In 1996, he was offered a National Research Council Fellowship at the U.S. Naval Research Laboratory in Washington D.C. investigating novel solid-state lasers for the Department of the Navy. In 1997, he was recruited by the Air Force Research Laboratory to build an Ultrafast Laser Physics Lab to investigate nonlinear optics, novel ultrafast spectroscopic methods, and nonlinear micro/nano-fabrication techniques for the Air Force.
PRESS RELEASE — Toshiba Europe Ltd. and Single Quantum B.V. have collaborated to test and validate long-distance deployments of Quantum Key Distribution (QKD) technology. Following extended validation testing of Toshiba’s QKD technology and Single Quantum’s superconducting nanowire single photon detectors (SNSPDs), both companies are pleased to announce a solution that substantially extends the transmission range for QKD deployment over fibre connections, up to and beyond 300km.
QKD uses the quantum properties of light to generate quantum secure keys that are immune to decryption by both high performance conventional and quantum computers. Toshiba’s QKD is deployed over fibre networks, either coexisting with conventional data transmissions on deployed ‘lit’ fibres, or on dedicated quantum fibres.
Toshiba’s unique QKD technology can deliver quantum secure keys in a single fibre optic link at distances of up to 150km using standard integrated semiconductor devices. Achieving longer distance QKD fibre transmission is challenging due to the attenuation of the quantum signals along the fibre length, (the optical loss of the fibre link). To provide extended QKD transmission, operators typically concatenate fibre links together with trusted nodes along the fibre route which house QKD systems that relay the secret keys.
Human mini-lungs grown by University of Manchester scientists can mimic the response of animals when exposed to certain nanomaterials. The study is published in Nano Today.
T-Cell Priming Immunotherapies To Provide Broad And Robust, Long-Term Immunity — Prof. Dr. Thomas Rademacher, MD, PhD — CEO & Co-Founder, Emergex Vaccines
Professor Dr. Thomas Rademacher, MD, PhD, is CEO and Co-Founder of Emergex (https://emergexvaccines.com/), a company that has developed a novel nanoparticle-based vaccine technology to deliver synthetic viral fragments via microneedles on a skin-adhesive patch. Emergex’s approach works on the principle of priming immune T-cells, opening the door for the development of universal vaccines against highly mutagenic viruses such as the seasonal flu and covid. T-cell priming offers a superior inoculation strategy over traditional vaccines, which rely on the body’s generation of antibodies and fail to keep up with seasonal mutations.
A serial entrepreneur, Professor Rademacher also serves as Emeritus Professor of Molecular Medicine at University College London (UCL) and is widely considered one of the founders of biotech from the early 1980s (having been involved in many of it’s core disciplines – from recombinant proteins, to monoclonal antibodies, to glycobiology).
Professor Rademacher has authored over 200 publications and 50 patents – 19 of which are in the nanomedicine field. In addition to being a world leader in nanomedicine, he is also an expert in fetal-maternal medicine, having produced 25 publications and filed 5 patents related to preeclampsia.
Professor Rademacher was co-Founder of the field of Glycobiology and subsequent Glycobiology Institute in Oxford and co-founded Oxford GlycoSciences, the first of Oxford University’s biotech spinouts, which, in 1998, was listed on the London Stock Exchange and reached a market capitalization of £1.7 billion. After moving to UCL, Professor Rademacher founded several biotech spin-out companies, including Rodaris Pharmaceuticals Ltd.
Evan A. Scott, PhD, comes to UVA from Northwestern University, where he has conducted groundbreaking research into the use of tiny nanostructures to battle heart disease, cancer, glaucoma and more. Scott’s nanostructures, far too small for the eye to see, allow for the precise delivery of drugs and other therapeutics to specific inflammatory cells to benefit the body’s immune response. His research provides important answers about the fundamental processes responsible for diseases and paves the way for high-tech treatments using cleverly designed, and mind-blowingly miniscule, synthetic materials.
“We are excited to welcome Dr. Scott to head up nanoSTAR at this critical turning point in nanotechnology research at the University of Virginia,” said Melina R. Kibbe, MD, dean of the School of Medicine. “Nanotechnology has vast untapped potential to benefit patients everywhere. It is a long-standing strength for UVA and will be a foundational pillar of the Paul and Diane Manning Institute of Biotechnology.”
The Manning Institute, under construction at Fontaine Research Park, will tackle some of the greatest challenges in medicine by focusing on cutting-edge areas of research such as nanotechnology, targeted drug delivery, cellular therapies and gene therapy. NanoSTAR, with Scott at the helm, will play a key role in that nanotechnology research, and Scott will work to foster collaborations across Grounds, including among the School of Medicine, School of Engineering and Applied Science, School of Data Science and the College of Arts and Sciences, among others.
Is it possible for nanoparticles to go through the digestive system and deliver medicine directly to the brain tissue? Researchers from Michigan State University say yes, and their latest findings are expected to benefit patients with neurodegenerative disorders like multiple sclerosis, or MS; amyotrophic lateral sclerosis, or ALS; and Parkinson’s disease, or PD.
A single-walled carbon nanotube spring stores three times more mechanical energy than a lithium-ion battery, while offering wide temperature stability and posing no explosion risk.
