Researchers in Imperial College London’s Department of Materials have developed a new portable maser that can fit the size of a shoebox.
Imperial College London pioneered the discovery of room-temperature solid-state masers in 2012, highlighting their ability to amplify extremely faint electrical signals and demonstrate high-frequency stability. This was a significant discovery because microwave signals can pass through the Earth’s atmosphere more easily than other wavelengths of light. Additionally, microwaves have the capability to penetrate through the human body, a feat not achievable by lasers.
Masers have extensive applications in telecommunications systems—everything from mobile phone networks to satellite navigation systems. They also have a key role in advancing quantum computing and improving medical imaging techniques, like MRI machines. They are typically large, bulky, stationary equipment found only in research laboratories.
A team of Stanford Medicine doctors and biomedical engineers are among the first to integrate a new augmented reality tool into surgical practice. The technology, Apple Vision Pro, is a headset that provides a form of human-computer interaction — it allows its wearer to navigate their surroundings using real-time visual data in combination with virtual elements.
“The novel use of augmented reality in the operating room exemplifies Stanford Medicine’s mission of serving patients in a digitally driven, human-centered care environment,” said Lloyd Minor, dean of the School of Medicine and vice president of medical affairs at Stanford University. “Our health system has long stood at the vanguard for the use of digital technologies in medicine, and I’m proud that through initiatives like RAISE Health, we also define the safe, responsible and equitable use of these innovations.”
A cardiologist used the technology, with the patient’s informed consent, to successfully perform an ablation procedure this week at Stanford Hospital to treat atrial fibrillation.
Researchers at the National Institutes of Health have identified antibodies targeting a hard-to-spot region of the influenza virus, shedding light on the relatively unexplored “dark side” of the neuraminidase (NA) protein head. The antibodies target a region of the NA protein that is common among many influenza viruses, including H3N2 subtype viruses, and could be a new target for countermeasures. The research, led by scientists at the National Institute of Allergy and Infectious Diseases’ Vaccine Research Center, part of NIH, was published today in Immunity.
Influenza, or flu, sickens millions of people across the globe each year and can lead to severe illness and death. While vaccination against influenza reduces the burden of the disease, updated vaccines are needed each season to provide protection against the many strains and subtypes of the rapidly evolving virus. Vaccines that provide protection against a broad range of influenza viruses could prevent outbreaks of new and reemerging flu viruses without the need for yearly vaccine reformulation or vaccinations.
One way to improve influenza vaccines and other countermeasures is to identify new targets on the virus’s surface proteins in “conserved” regions—portions that tend to be relatively unchanged between different strains of the virus. Influenza NA is a surface protein containing a globular head portion and a narrow stalk portion.
Nanoparticles (NPs) administered in the human body will undergo rapid surface modification upon contact with biological fluids driven by their interfacial interaction with a diverse range of biomolecules. Such spontaneous self-assembly and adsorption of proteins and other biomolecules onto the NP surface constitute what is commonly known as the protein or biomolecule corona. This surface biotransformation of the NPs modulates their biological interactions and impact on physiological systems and can influence their overall pharmacological profile. Here, we comment on how the initially considered ‘nuisance’ of the in vivo corona formation can now be considered a nanoparticle engineering tool for biomedical use, such as in endogenous tissue targeting, personalized biomarker discovery and immunomodulation.
Interestingly enough, although Elon Musk’s Neuralink received a great deal of media attention, early in 2023, Synchron published results from its first-in-human study of four patients with severe paralysis who received its first-generation Stentrode neuroprosthesis implant. The implant allowed participants to create digital switches that controlled daily tasks like sending texts and emails, partaking in online banking, and communicating care needs. The study’s findings were published in a paper in JAMA Neurology in January 2023. Then, before September, the first six US patients had the Synchron BCI implanted. The study’s findings are expected by late 2024.
Let’s return to Upgrade. “One part The Six Million Dollar Man, one part Death Wish revenge fantasy” was how critics described the movie. While Death Wish is a 1974 American vigilante action-thriller movie that is partially based on Brian Garfield’s 1972 novel of the same name, the American sci-fi television series The Six Million Dollar Man from the 1970s, based on Martin Caidin’s 1972 novel Cyborg, could be considered a landmark in the context of human-AI symbiosis, although in fantasy’s domain. Oscar Goldman’s opening line in The Six Million Dollar Man was, “Gentlemen, we can rebuild him. We have the technology. We have the capability to make the world’s first bionic man… Better than he was before. Better—stronger—faster.” The term “cyborg” is a portmanteau of the words “cybernetic” and “organism,” which was coined in 1960 by two scientists, Manfred Clynes and Nathan S Kline.
At the moment, “cyborg” doesn’t seem to be a narrative of a distant future, though. Rather, it’s very much a story of today. We are just inches away from becoming cyborgs, perhaps, thanks to the brain chip implants, although Elon Musk perceives that “we are already a cyborg to some degree,” and he may be right. Cyborgs, however, pose a threat, while the dystopian idea of being ruled by Big Brother also haunts. Around the world, chip implants have already sparked heated discussions on a variety of topics, including privacy, the law, technology, medicine, security, politics, and religion. USA Today published a piece headlined “You will get chipped—eventually” as early as August 2017. And an article published in The Atlantic in September 2018 discussed how (not only brain chips but) microchip implants, in general, are evolving from a tech-geek curiosity to a legitimate health utility and that there may not be as many reasons to say “no.” But numerous concerns about privacy and cybersecurity would keep us haunted. It would be extremely difficult for policymakers to formulate laws pertaining to such sensitive yet quickly developing technology.
Because identical twins develop from a single fertilized egg, they have the same genome, the entire set of genetic material found in an organism. So, any differences between them, even in traits with a significant genetic component – say one develops heart disease and the other doesn’t – are due to their environments. This is known as epigenetics.
Genes in DNA are ‘expressed’ when they’re read and transcribed into RNA, which is then translated into proteins. It’s proteins that determine many of a cell’s characteristics and functions. Epigenetic changes can boost or silence the transcription of specific genes, ramping up or inhibiting associated protein production, but they don’t change the genome. These changes, which are reversible, can affect a person for their entire life and mediate a lifelong dialogue between genes and the environment.
Professor Nadeem Sarwar is Corporate Vice President, Co-Founder and Head, Transformational Prevention Unit, Novo Nordisk (https://www.novonordisk.com/partnerin…), Co-Chair UK Dementia Mission (a UK Government Ministerial appointment) and Honorary Professor, University of Edinburgh Medical School.
Professor Sarwar joined Novo Nordisk in June 2023 as Corporate Vice President, Co-Founder and Head of Novo Nordisk’s new Transformational Prevention Unit (TPU) whose mission is to increase obesity-free life years, so people live healthier and longer lives. To achieve this, the TPU is establishing an integrated ecosystem that will deliver science-first, empowering, and scalable commercial solutions that predict and pre-empt obesity and its consequences through innovative partnerships, with solutions intending to push the boundaries of what is possible with drugs, genomics, microbiome, digital health, and behavioral science.
Professor Sarwar’s expertise stems from scientific and business models at the intersection of genomics, data sciences and digital technologies for therapeutic and health innovation and he utilizes this expertise to steer the strategy and implementation of the predictive and pre-emptive obesity solutions being developed by the TPU, spanning both R\&D and commercial strategy.
Professor Sarwar joins Novo Nordisk with extensive executive experience in academia (Cambridge, Edinburgh), pharma (Pfizer, Eisai, Novo Nordisk), biotech (Genetics Guided Demantia Discovery — G2D2), company incubation (Eisai Innovation Biolabs), and government (UK Dementia Mission). He has successfully built and led organizations across the UK, US, Japan, and Denmark; and contributed to delivery of therapeutics into clinical trials for cardiometabolic diseases, oncology, SLE, COVID-19 and neurodegeneration.
Professor Sarwar’s research has been published in leading medical journals (eg, NEJM, Lancet, JAMA), presented at international meetings (eg, American Diabetes Association; World Dementia Council), and profiled by international media (eg, BBC, Forbes). He has provided expert insights for the UK Department of Health, the World Economic Forum, and the US National Academies of Sciences.
Apart from his current position at Novo Nordisk, Professor Sarwar holds the position of Honorary Professor at the University of Edinburgh Medical School. He also currently serves on the UK Medical Research Council (MRC) Neuroscience and Mental Health Board, the UK MRC Prevention Task and Finish Group, the Health Data Industry Expert Sub-Group, and the UK Life Sciences Council.
Proteins are nature’s polymers, governing biological processes at every level. A new study presents artificial proteins made using modern, precision polymers to intervene and alter natural processes towards a new way of developing therapeutics.
Researchers led by Northwestern University and the University of Wisconsin-Madison have introduced a pioneering approach aimed at combating neurodegenerative diseases such as Alzheimer’s disease, Parkinson’s disease and Amyotrophic lateral sclerosis (ALS).
In a new study, researchers discovered a new way to enhance the body’s antioxidant response, which is crucial for cellular protection against the oxidative stress implicated in many neurodegenerative diseases.
New findings reveal that the body undergoes significant, systematic changes across multiple organs during prolonged periods of fasting. The results demonstrate evidence of health benefits beyond weight loss, but also show that any potentially health-altering changes appear to occur only after three days without food.
The study, published in Nature Metabolism, advances our understanding of what’s happening across the body after prolonged periods without food.
By identifying the potential health benefits from fasting and their underlying molecular basis, researchers from Queen Mary University of London’s Precision Healthcare University Research Institute (PHURI) and the Norwegian School of Sports Sciences provide a road map for future research that could lead to therapeutic interventions—including for people that may benefit from fasting but cannot undergo prolonged fasting or fasting-mimicking diets, such as ketogenic diets.
The Rejuvenation Startup Summit (Berlin, May 10–11, 2024) is a vibrant networking event that brings together startups and members of the longevity venture capital/investor ecosystem – all aiming to create therapies to vastly extend the healthy human lifespan. Rejuvenation and longevity biotech is a new, emerging field of medicine. It aims to prevent and reverse the diseases of aging by addressing their common root cause, the aging process itself.
In addition to an exciting range of presentations from CEOs of startups in the fields of rejuvenation & longevity, the summit features an all-day startup forum for networking, panel discussions, and keynote presentations. Starting midday on Friday and finishing off on Saturday night with a party for all attendees, the summit offers ample opportunity to connect with some of the most promising leaders in the field, including:
