We’re Evolving—Immortality.global 2.0 is Incubating
The platform is in maintenance while we finalize a release that blends AI and longevity science like never before.

June 6 in Longevity and AI

Gathered globally: 12, selected: 12.

The News Aggregator is an artificial intelligence system that gathers and filters global news on longevity and artificial intelligence, and provides tailored multilingual content of varying sophistication to help users understand what's happening in the world of longevity and AI.


A team from the National Research Lobachevsky State University of Nizhniy Novgorod alongside Longaevus Technologies LTD administers RepSox and tranylcypromine to aging C3H mice, finding enhanced neurological scores, improved skeletal health, and increased cortical angiogenesis via partial cellular reprogramming pathways, suggesting a promising anti-aging strategy.

Key points

  • Intraperitoneal RepSox (5 mg/kg) plus TCP (3 mg/kg) every 72 h for 30 days in female C3H mice preserved fur density and skeletal posture.
  • Neurological scores increased daily by 0.015 units in treated mice versus 0.018 in controls (p=0.002), reflecting slowed neurological aging.
  • Survival analysis showed significant maximum lifespan extension (Gao-Allison p=0.039) and a reduced Gompertzian mortality slope (0.0034 vs. 0.0082 in controls).

Why it matters: This chemical reprogramming approach targets multiple aging hallmarks, offering a novel and potentially safer route to delay systemic aging and extend healthy lifespan.

Q&A

  • What are RepSox and tranylcypromine?
  • What is partial cellular reprogramming?
  • How was lifespan extension measured?
  • Which neurological assessments were used?
  • What histological changes indicate efficacy and safety?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
The Combination of Two Small Molecules Improves Neurological Parameters and Extends the Lifespan of C3H Strain Female Mice

A team led by the Buck Institute and collaborators from IHU HealthAge and INSERM created the IC Clock, an epigenetic aging biomarker that quantifies intrinsic capacity. It leverages DNA methylation data from the INSPIRE-T cohort and validates performance using the Framingham Heart Study to forecast mortality and functional decline.

Key points

  • The IC Clock uses DNA methylation signatures from blood or saliva to assess six intrinsic capacity domains.
  • Model training utilized the INSPIRE-T cohort (ages 20–102) with four-year follow-up data, covering physical, cognitive and lifestyle measures.
  • Validation against the Framingham Heart Study cohort demonstrates superior mortality prediction compared to first- and second-generation aging clocks.

Why it matters: By focusing on functional aging rather than chronological age, the IC Clock offers a clinically actionable biomarker to inform interventions that enhance healthy longevity.

Q&A

  • What is the IC Clock?
  • How does DNA methylation measure aging?
  • What is intrinsic capacity (IC)?
  • Why validate on the Framingham Heart Study?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
New biological age clock estimates how well someone is aging

A team led by Chung Sub Kim at Sungkyunkwan University discovers three indole‐functionalized metabolites produced by the blood bacterium Paracoccus sanguinis. Using spectrometry and computational analyses, they elucidate structures and demonstrate that these compounds reduce reactive oxygen species and inflammatory protein levels in cultured human skin cells, presenting promising candidates for novel anti‐aging skin therapies.

Key points

  • Isolation and structure elucidation of 12 indole metabolites from Paracoccus sanguinis using spectrometry, isotope labeling, and computational analysis, including six novel compounds.
  • Three identified indole-functionalized metabolites significantly lower reactive oxygen species and inflammatory protein levels in oxidatively stressed human skin cells.
  • These metabolites also inhibit collagen-damaging enzyme activity, positioning them as lead candidates for topical anti-aging formulations.

Why it matters: Blood‐derived indole metabolites open new avenues for targeted anti‐aging therapies by directly modulating oxidative stress and inflammation pathways in skin.

Q&A

  • What are indole‐functionalized metabolites?
  • How do reactive oxygen species damage skin?
  • Why study Paracoccus sanguinis?
  • How might these metabolites become skincare treatments?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
New anti-aging compounds found hidden beneath the skin

A multi-center team at Imperial College London quantifies telomere length and cortisol levels in over 1,100 European children categorized by family affluence. They use blood samples to measure telomere length and urine analysis for cortisol, revealing that lower socioeconomic status correlates with accelerated cellular aging, independent of diet, BMI, and parental smoking, underscoring early health disparities.

Key points

  • Leukocyte telomere length is 5% shorter in low-affluence children versus high-affluence peers.
  • Urinary cortisol levels are 15–22.8% lower in medium/high-affluence groups, indicating stress differences.
  • Association between affluence and telomere length persists after adjusting for diet, BMI, and parental smoking.

Why it matters: Linking socioeconomic background to cellular ageing in children underscores the need for targeted public health policies to reduce lifelong health disparities.

Q&A

  • What are telomeres?
  • How does family affluence affect telomere length?
  • Why measure cortisol in this study?
  • Can telomere shortening be reversed?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Poor backgrounds can leave a lifelong accelerated ageing marker in children | Imperial News | Imperial College London

Immorta Bio’s team engineers autologous mesenchymal stem cells to rejuvenate immune regulation, demonstrating superior reduction in arthritis scores and paw swelling in a mouse model of rheumatoid arthritis.

Key points

  • Immorta Bio’s autologous pMSCs outperform bone marrow and umbilical MSCs in reducing arthritis scores and paw swelling.
  • The collagen-induced arthritis mouse model quantifies joint inflammation to evaluate immunomodulatory efficacy.
  • Patent-pending PRC pipeline reprograms patient cells into youthful, age-specified stem cells with enhanced regenerative function.

Why it matters: Youth-rejuvenated stem cells offer a novel approach to combat age-related autoimmune diseases, potentially transforming longevity therapeutics.

Q&A

  • What are personalized mesenchymal stem cells (pMSCs)?
  • Why use autologous cells instead of donor cells?
  • What is the collagen-induced arthritis (CIA) model?
  • How do pMSCs modulate the immune response?
  • What are the next steps for this therapy?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

Vijay Yadav’s team at a leading pharma firm reanalyzes taurine supplementation trials in murine and non-human primate models, employing controlled biomarker profiling. They compare new findings against initial positive reports, revealing that taurine’s purported longevity effects may not translate into meaningful healthspan or lifespan improvements.

Key points

  • Controlled taurine supplementation trials in mice and non-human primates monitored aging biomarkers.
  • Multi-parametric evaluation assessed mitochondrial function, inflammation, and senescence.
  • Comparative data reveal negligible healthspan or lifespan extension, challenging initial findings.

Why it matters: These findings recalibrate expectations for taurine as a geroprotective supplement, underscoring the need for robust preclinical validation.

Q&A

  • What is taurine’s role in the body?
  • Why do animal models often mislead longevity research?
  • What biomarkers are used to assess aging?
  • How does personalized nutrition factor into longevity?
  • What are senolytics and epigenetic reprogramming?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Taurine & Aging: New Study Challenges Anti-Aging Claims

Analyst Paramendra Kumar Bhagat maps 100 emergent technologies—from AI and biotech to clean energy and neurotech—detailing milestones, impacts, and ten convergence clusters reshaping industries and guiding strategic priorities for future energy and longevity.

Key points

  • Chronological map: Lists 100 technologies from ARPANET and TCP/IP to quantum internet and consciousness mapping, highlighting evolution of the digital era.
  • Convergence clusters: Identifies ten ecosystems—such as Intelligence Everywhere, Personalized Life, and Planetary Regeneration—where multiple technologies synergize to accelerate innovation.
  • Strategic foresight: Provides a 10-year industry forecast for sectors including healthcare, energy, and finance, guiding stakeholders on technology-driven transformations.

Why it matters: This comprehensive compendium highlights how intersecting breakthroughs across AI, biotech, and clean energy can drive paradigm-shifting innovations and sustainable growth.

Q&A

  • What qualifies as an emergent technology?
  • How are the convergence clusters defined?
  • Why is compound innovation important for strategic planning?
  • What criteria guided selection of the 100 technologies?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
100 Emergent Technologies Of The Recent Decades And Their Intersections

Researchers from the NIH’s Metabolic Research Program led by Kevin Hall examine continuous glucose monitoring in thirty adults without diabetes and report weak-to-moderate correlations (r≈0.45) and low reliability (ICC<0.3) in duplicate-meal postprandial glucose responses. Using linear correlations, ICC, and Bland–Altman analyses, they demonstrate that CGM lacks sufficient consistency to serve as a standalone proxy for personalized dietary advice and metabolic health optimization.

Key points

  • Weak-to-moderate linear correlation (r≈0.45) between duplicate-meal 2-hour postprandial iAUCs recorded by Abbott Freestyle Libre Pro and Dexcom G4 Platinum CGMs
  • Low intra-subject reliability with intra-class correlation coefficients (ICC: Abbott 0.28, Dexcom 0.17), indicating high within-individual glycemic variability
  • Bland–Altman analysis reveals wide limits of agreement (±30 mg/dL) around near-zero bias, undermining CGM consistency for personalized dietary feedback

Why it matters: These findings challenge the reliability of CGM-based biohacking for precision nutrition, underscoring the need for more robust metabolic monitoring methods.

Q&A

  • What is continuous glucose monitoring (CGM)?
  • What does incremental area under the curve (iAUC) measure?
  • How is intra-class correlation coefficient (ICC) interpreted?
  • Why do postprandial glucose responses vary so much?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

Researchers from Imperial College London, the University of Exeter and Zhejiang University conduct empirical studies comparing large language models, text-to-image, and text-to-3D AI tools across combinational creativity tasks, revealing how each model excels at ideation, sketch visualization, and prototype development.

Key points

  • LLMs achieve highest performance in linguistic-based combinational tasks like interpolation and replacement, driving conceptual ideation.
  • Text-to-image models effectively externalize design ideas into rapid visual sketches, improving mid-stage visualization accuracy.
  • Text-to-3D models excel at spatial operations and prototype generation, facilitating robust physical deformation and structural evaluation.

Why it matters: This framework enables designers to match specialized AI models to each phase of the creative process, enhancing innovation and efficiency in design workflows.

Q&A

  • What is combinational creativity?
  • How do text-to-3D models generate prototypes?
  • Why do LLMs underperform on spatial tasks?
  • What phases exist in a creative design workflow?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

Academic and industry teams integrate deep neural networks into reinforcement learning frameworks, enabling agents to learn optimal policies through environmental feedback, with applications spanning autonomous robotics, strategic games, and decision-making systems.

Key points

  • Demonstrates DRL's profound sample inefficiency, often needing billions of environment interactions for policy convergence.
  • Highlights training instability and high variance across runs, driven by stochastic gradients and non-stationary targets.
  • Reports poor policy generalization and significant sim-to-real gaps, revealing brittleness to minor environmental changes.

Why it matters: Understanding and addressing deep reinforcement learning's intertwined challenges is crucial for advancing reliable, generalizable, and safe AI agents capable of real-world applications across industries.

Q&A

  • What is sample inefficiency in DRL?
  • How does the sim-to-real gap affect deployment?
  • What causes catastrophic forgetting in RL agents?
  • Why is hyperparameter sensitivity problematic?
  • What strategies improve learning with sparse rewards?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Beyond Hype: The Brutal Truth About Deep Reinforcement Learning

Research teams across academia and industry employ qubits and quantum algorithms such as QAOA to process multidimensional datasets in parallel, dramatically accelerating AI model training, optimization, and pattern recognition. This approach leverages superposition and entanglement to overcome classical limits, enabling more complex architectures and nudging the field closer to artificial general intelligence through faster learning cycles and enhanced computational efficiency.

Key points

  • Quantum superposition and entanglement enable parallel processing of multidimensional datasets, accelerating AI training.
  • QAOA provides faster combinatorial optimization, enhancing performance in logistics, autonomous systems, and recommendation engines.
  • High-dimensional quantum data encoding unlocks nonlinear feature transformations, improving pattern recognition, NLP, and computer vision.

Why it matters: Integrating quantum computing with AI could redefine computational limits, driving breakthroughs in model complexity, training speed, and path to AGI.

Q&A

  • What is quantum superposition?
  • How does the Quantum Approximate Optimization Algorithm work?
  • What are the main challenges of NISQ-era quantum computers?
  • What makes quantum data representation advantageous for AI?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

The Business Research Company projects the automotive AI market will expand rapidly, fueled by IoT integration, predictive maintenance, and advanced sensor technologies, to support autonomous and fully digitalized vehicles.

Key points

  • Integration of IoT-enabled sensors (LiDAR, radar, cameras) enables real-time vehicle data processing for predictive maintenance and autonomous navigation.
  • Market CAGR projected at 39.1% from $3.75B in 2024 to $5.22B in 2025, and 37.1% growth leading to $18.43B by 2029.
  • Segmentation spans hardware (processors, sensors), software (machine learning, NLP), and services (AI integration, data analytics), driving diverse automotive AI applications.

Why it matters: This market surge underscores AI's transformative role in enhancing vehicle autonomy, safety, and efficiency across the automotive industry.

Q&A

  • What is predictive maintenance?
  • How do IoT and AI work together in cars?
  • What are ADAS features?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Comprehensive Insights Of The Automotive Artificial Intelligence Market: Key Trends, Growth, And Forecast For 2025-2034