Every article, presentation, spotlight, and news item we've tagged to Regenerative Therapies.
Showing 121–144 of 155
Fibulin-5, an extracellular matrix protein that declines with age, maintains epidermal stem cell function by activating YAP signaling through integrin binding. Loss of fibulin-5 reproduces age-associated changes in skin stem cell populations, identifying a molecular mechanism linking extracellular environment degradation to cellular aging.
Human cGAS activates LINE-1 retrotransposon transcription through upregulation of CTCF and RUNX3, triggering cellular senescence via MAVS-dependent RNA sensing. This human-specific pathway reveals a mechanism linking genomic surveillance to accelerated cellular aging, with direct implications for understanding senescence in aging and age-related disease.
Aspen Neuroscience received WHO and AMA approval for the official name Sasineprocel for its autologous dopaminergic cell therapy derived from patient skin cells. The therapy aims to restore dopamine-producing neurons in Parkinson's disease without immunosuppression, currently in Phase 1/2a trials.
Telomere shortening drives atrial fibrillation through VCAM-1 upregulation, which promotes atrial fibrosis and electrical dysfunction. Blocking VCAM-1 reverses these changes and reduces AF susceptibility by 30%, identifying a mechanistic pathway linking cellular aging to arrhythmia risk.
Abinopharm released a white paper on AbinoNutra® NMN following FDA regulatory clarification confirming NMN's legality as a dietary supplement ingredient. A randomized, double-blind clinical trial demonstrated that 60 days of NMN supplementation at doses up to 900 mg increased blood NAD⁺ levels, improved physical performance and endurance, and showed favorable shifts in biological age markers with no serious adverse events.
Pandorum Technologies closed an $18 million Series B round to advance exosome-based therapies designed to modulate tissue state away from inflammatory and fibrotic conditions toward functional recovery. The platform targets corneal opacity initially, with applications potentially extending across multiple organs affected by inflammatory and degenerative disease.
Single-cell analysis reveals that aging bone marrow undergoes distinct cellular remodeling: endothelial cells develop prothrombotic and mitochondrial dysfunction, while a novel RAB13+ arterial endothelial subset emerges alongside expansion of profibrotic mesenchymal cells. These cellular shifts directly impair the marrow's capacity to support healthy blood cell production and tissue maintenance, establishing specific molecular targets for intervention.
Celularity licensed its placental-derived biomaterials portfolio for up to $35 million in non-dilutive capital, allowing the company to redirect resources toward cell therapies targeting senescence, inflammation, and tissue degeneration. This repositioning reflects a strategic shift from broad biomaterials commercialization to targeted longevity interventions.
RNASEK, an enzyme that degrades circular RNA accumulation in cells, extends lifespan in model organisms by removing a form of molecular waste that accelerates aging. This identifies a specific degradation pathway central to cellular longevity.
Unlimited Bio initiated a Phase 1/2a trial combining AAV9-Follistatin and VEGF plasmid gene therapies to address age-related muscle decline, marking the first registered clinical study to combine these two approaches. The dual-therapy strategy targets both muscle growth signaling and vascular support, with safety and functional outcomes tracked over 12 months in adults aged 45 to 75.
PX578, a first-in-class small molecule activator of mitochondrial DNA polymerase gamma, demonstrated preclinical efficacy in restoring mitochondrial DNA levels and cellular energy production across multiple POLG disease models. The compound addresses the underlying genetic defect in mitochondrial DNA depletion syndromes, for which no disease-modifying treatments currently exist.
Hyperbaric oxygen therapy, traditionally confined to clinical medicine, is being deployed in performance and longevity settings through chambers like ZEUGMA, which operate at pressures enabling oxygen to dissolve into plasma at concentrations far exceeding atmospheric levels. The mechanism addresses tissue oxygen delivery and cellular repair, though evidence for durable benefits in healthy individuals remains under investigation.
Nuritas is conducting a 30-day randomized controlled trial comparing PeptiStrong (a fava bean-derived peptide) plus whey protein against whey protein alone in adults aged 60–85, with grip strength as the primary outcome and secondary measures including gait speed, balance, and inflammatory markers. The trial addresses a direct mechanism relevant to aging: preserving muscle function and mass in older populations.
Clonal hematopoiesis—the age-related expansion of mutant blood cell populations—enhances response to immune checkpoint inhibitors in cancer patients. This unexpected finding reframes a hallmark of aging as potentially protective in the context of immunotherapy, with implications for how we interpret immune aging and treatment efficacy.
A systematic screen of 32 aging-associated long non-coding RNAs identified HOTAIRM1 as a critical regulator of DNA repair pathways, with restoration of HOTAIRM1 in aged mouse lungs reducing fibrosis. This work establishes lncRNA regulation as a targetable mechanism in cellular senescence.
OrganTech has identified a three-cell configuration—including a previously uncharacterized mesenchymal cell type—capable of regenerating fully functional hair follicles that maintain cycling and production in vivo. This work establishes a cellular blueprint for hair follicle regeneration and suggests broader applications for complex tissue reconstruction.
ATG-18, a protein long associated with autophagy, extends lifespan through a mechanism independent of autophagy itself when the germline is removed. In the intestine, ATG-18 extends lifespan by interacting with PCK-2, an enzyme involved in glucose production, revealing a tissue-specific, non-autophagic pathway to longevity.
The SWISS100 study reveals that centenarians maintain blood protein profiles resembling those of much younger adults, with notably lower oxidative stress and finely balanced metabolic systems. This molecular signature suggests that exceptional longevity correlates with sustained cellular integrity rather than accelerated compensatory mechanisms, offering a model for understanding how aging can be slowed at the fundamental biological level.
United Therapeutics' bioengineered liver system, miroliverELAP, has received FDA Regenerative Medicine Advanced Therapy designation, accelerating its development as a bridge therapy for acute liver failure patients. The technology uses a decellularized pig liver scaffold seeded with human cells to provide extracorporeal organ support, potentially improving survival in the 30% of patients ineligible for or unable to access transplantation in time.
Designs for Health introduced NeuroCalm Peptide, combining a milk-derived peptide (Lactium) with a heat-treated Lactobacillus strain to modulate the gut-brain axis. Clinical evidence suggests the formulation may reduce perceived stress and salivary cortisol while supporting sleep quality and emotional resilience through microbiome and nervous system pathways.
Zervimesine (CT1812) demonstrated an 86% slowing of neuropsychiatric symptom decline in dementia with Lewy bodies patients compared to placebo in Phase 2 testing. This result supports advancement to late-stage trials and suggests a potential disease-modifying mechanism for a condition with limited therapeutic options.
Researchers created a multi-tissue transcriptomic atlas across thirteen tissues in African turquoise killifish at six life stages, identifying molecular patterns of aging that vary by tissue type and sex. This resource establishes predictive biomarkers for aging dynamics and demonstrates how systemic and local factors drive age-related changes across the organism.
Transposon Therapeutics received a $22 million ARPA-H grant to study TPN-101, a drug designed to inhibit LINE-1 retrotransposon activity and slow fundamental aging processes rather than treat individual diseases. The approach targets age-related inflammation driven by DNA elements that become dysregulated with age, potentially extending healthspan across multiple conditions simultaneously.
In aged ovarian cancer, elevated succinate in the tumor microenvironment drives metabolic reprogramming of regulatory T cells, amplifying immunosuppression and reducing survival. Pharmacological inhibition of succinate metabolism restores effector T cell activity and improves outcomes, identifying a metabolic mechanism underlying age-related cancer progression.
