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Regulators of DNA folding could be targets for treating cancer

Most cells in the human body each contain about six feet of DNA. Yet the nucleus, where DNA is coiled, is no larger than a single speck of dust. Despite its density, DNA is not a tangled ball of yarn. It is organized into intricate layers of loops that fold and unfold in response to cues from the cell.

Scientists know that the three-dimensional shape of DNA is important. This long helical thread is peppered with genes that are translated into proteins to drive cellular activity. And the structure of the —those layers of loops—determines which genes are active at any given time.

How the three-dimensional structure of the genome is maintained, however, is less clear. Structural changes and abnormalities are associated with many diseases, such as cancer and developmental disorders. Identifying what controls genome structure could yield targets for treatment.

CD36-mediated endocytosis of proteolysis-targeting chimeras

CD36 is identified as the membrane receptor for cellular uptake of PROTACs and other eRo5/bRo5 molecules. A chemical endocytic medicinal chemistry strategy to enhance the binding of PROTACs to CD36 improved the uptake and potency of PROTACs without sacrificing solubility or stability. This strategy could improve the bioavailability and potency of diverse endocytic drugs.

The WHO Bacterial Priority Pathogens List 2024: a prioritisation study to guide research, development, and public health strategies against antimicrobial resistance

The 2024 WHO BPPL is a key tool for prioritising research and development investments and informing global public health policies to combat AMR. Gram-negative bacteria and rifampicin-resistant M tuberculosis remain critical priority pathogens, underscoring their persistent threat and the limitations of the current antibacterial pipeline. Focused efforts and sustained investments in novel antibacterials are needed to address AMR priority pathogens, which include high-burden antibiotic-resistant bacteria such as Salmonella and Shigella spp, N gonorrhoeae, and S aureus.

Want To Live To 100? Experts Reveal 3 Anti-Aging & Longevity Secrets That Can ‘Repair Your Body’ And Prevent Aging: Prioritize Sleep, More

Living to 100 may sound like a dream, but thanks to advancements in anti-aging and longevity research, it’s becoming more of a realistic goal than ever before. While genetics play a role, experts say your daily habits have a major impact on how gracefully—and healthfully—you age. From diet and movement to mindset and skincare, there are key lifestyle shifts and science-backed secrets that can help slow the aging process, boost vitality, and support a longer, more vibrant life.

Robert Love, a neuroscientist, shared three anti-aging and longevity secrets you should know about if you want to “slow down aging” and “even help reverse aging.” According to him, prioritizing sleep, avoiding ultra-processed foods, and taking healthy supplements are some of the best options. Read on to learn more.

Prioritizing sleep is one of the most powerful (and underrated) anti-aging tools you have. During deep sleep, your body goes into repair mode—producing growth hormone, regenerating cells, and fixing damage caused by stress and environmental factors. This nightly “reset” helps keep your skin, organs, and even brain functioning optimally.

NAQI: Northeastern University scientists have discovered that a protein in the human brain could potentially be used to grow new neurons in the lab and enhance brain processes affected by aging or neurodegenerative diseases

In their study, published in Mechanobiology in Medicine, the researchers discovered that the protein responsible for binding neural stem cells in the human brain, neuro-cadherin, also plays a key role in stimulating their differentiation.

Neural stem cells are early-stage, unspecialized cells that have the ability to differentiate, or develop, into various types of neurons and non-neuronal cells of the central nervous system.

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