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.

May 25 in Longevity and AI

Gathered globally: 10, selected: 8.

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.


Researchers at Oxford University and companies such as Insilico Medicine and Calico leverage AI-discovered drug candidates, exposome risk analysis, and epigenetic clocks to advance personalized longevity strategies and target core aging mechanisms.

Key points

  • Oxford University exposome-wide study shows environmental factors explain 17% of mortality variation versus 2% for genetics.
  • AI platforms by Insilico Medicine and Calico accelerate discovery of anti-aging compounds through multi-species data modeling.
  • Senolytic pulse dosing with fisetin and quercetin in early human trials reduces senescent cell burden and chronic inflammation.

Why it matters: This integrated AI and multi-parameter approach offers a paradigm shift by enabling targeted, preventive interventions with translational potential for age-related diseases.

Q&A

  • What is the exposome and why does it matter?
  • How do AI models accelerate drug discovery for aging?
  • What are epigenetic clocks and how accurate are they?
  • Why use intermittent dosing for senolytics?
  • How does prevention differ from reversal in longevity?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

Researchers at Shanghai Jiao Tong University and the Institute of Intelligent Software create the SLAM (Surgical LAparoscopic Motions) dataset, comprising over 4,000 uniformly segmented and expertly annotated clips across seven fundamental laparoscopic actions. Using high-resolution endoscopic recordings and a 30-frame patching strategy, they validate the dataset by training the state-of-the-art Video Vision Transformer (ViViT), achieving up to 85.90% classification accuracy, facilitating AI-driven intraoperative workflow optimization.

Key points

  • SLAM dataset provides 4,097 annotated 30-frame clips across seven essential laparoscopic actions recorded at 1920×1080 resolution.
  • ViViT transformer achieves peak test accuracy of 85.90% in surgical action classification, validating dataset utility.
  • Dataset diversity spans 34 surgeries including cholecystectomy, appendectomy, and VATS, enabling cross-domain transfer experiments.

Why it matters: By standardizing a large annotated video dataset and demonstrating high-performance AI models, this work accelerates the development of reliable surgical automation and training platforms.

Q&A

  • What is the SLAM dataset?
  • How does the Video Vision Transformer (ViViT) work?
  • How was patient privacy maintained?
  • Why focus on seven actions?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
A Comprehensive Video Dataset for Surgical Laparoscopic Action Analysis

Drawing on studies by Harvard and the Vitamin D Council, geriatric researchers detail how natural vitamin D synthesis and mindful backyard gardening activate telomere maintenance and autophagy pathways, improving cognitive function and reducing inflammation for healthier aging.

Key points

  • Cutaneous vitamin D synthesis enhances VDR expression across tissues, reducing age-related disease risk.
  • Backyard gardening combines moderate physical exercise with stress reduction, improving cardiovascular and cognitive health.
  • Vitamin D-mediated activation of telomerase and autophagy pathways supports cellular rejuvenation and mitigates senescence markers.

Why it matters: By leveraging accessible backyard activities, this approach democratizes anti-aging interventions, potentially reducing reliance on costly therapies and improving population healthspan.

Q&A

  • How does vitamin D affect telomere maintenance?
  • What is autophagy and why does it matter for aging?
  • How much sun exposure is needed for vitamin D synthesis?
  • What safety precautions are recommended for backyard gardening?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

The article outlines how machine learning serves as the cornerstone of India’s AI expansion, detailing applications in healthcare diagnostics, precision agriculture, personalized education, financial fraud detection, and e-commerce recommendation systems, while addressing data availability, skill gaps, and infrastructure challenges, and highlighting government and startup initiatives that foster AI-driven innovation.

Key points

  • Machine learning algorithms analyze large datasets to enhance AI services like mapping, personalized recommendations, and fraud detection.
  • In healthcare, ML models process medical images and voice samples to support early disease diagnosis in underserved rural communities.
  • Government programs like PMGDISHA and industry bodies such as NASSCOM and iSPIRT address data, skill, and infrastructure gaps to accelerate ML-driven innovation.

Q&A

  • What distinguishes machine learning from traditional programming?
  • How is machine learning used in Indian agriculture?
  • What are the main data challenges for ML adoption in India?
  • How do government initiatives support ML adoption in India?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...

Neuralink, Blackrock Neurotech, and Medtronic advance high-bandwidth brain-computer interfaces and bidirectional sensory-feedback prosthetics by integrating AI-driven signal decoding, flexible electrode materials, and wireless systems. Their approach enables precise neural control of external devices and real-time tactile feedback, promising to restore motor function and sensory perception for individuals with paralysis or limb loss.

Key points

  • Neuralink’s high-channel-count implantable BCIs use flexible electrode threads and AI-driven decoding for direct cortical control.
  • AI-driven signal processing algorithms enable adaptive prosthetic movement with submillisecond latency and high fidelity.
  • Osseointegrated peripheral nerve interfaces deliver bidirectional tactile and proprioceptive feedback, improving embodiment.

Why it matters: These neuroprosthetic innovations promise transformative therapies for paralysis and amputees, offering unprecedented motor control, sensory restoration through AI-integrated neural interfaces.

Q&A

  • What is a brain-computer interface?
  • How does sensory feedback improve prosthetic function?
  • What is osseointegration in neuroprosthetics?
  • How do AI algorithms decode neural signals?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Human-Machine Interface Neuroprosthetics 2025-2030: Revolutionizing Neural Integration & Market Growth

EMOTIV’s wireless EEG headsets integrate multi-channel dry electrode sensors with AI-driven analytics to monitor cognitive workload and stress in real time, supporting adaptive safety protocols, workplace optimization, and consumer wellness applications across industrial and personal environments.

Key points

  • Multi-channel dry and semi-dry EEG sensors capture high-fidelity brain signals in wearable headsets for naturalistic monitoring.
  • Embedded edge AI processors perform real-time neural decoding and artifact rejection for low-latency cognitive workload and fatigue assessment.
  • 5G and cloud-integrated platforms enable scalable data analytics, remote monitoring, and adaptive feedback in industrial, healthcare, and consumer contexts.

Q&A

  • What is wearable neuroergonomics?
  • How do dry electrodes differ from wet electrodes in EEG headsets?
  • What role does edge AI play in these wearables?
  • How is data privacy managed in neural wearables?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
Wearable Neuroergonomics Devices 2025-2030: Revolutionizing Human-Machine Synergy

Fox News tech correspondent Kurt Knutsson presents clear definitions of five fundamental AI concepts—artificial intelligence, machine learning, neural networks, generative AI and prompts—illustrating each with relevant use cases. This formal overview reveals how these technologies learn from data, mimic brain functions and generate content, providing enthusiasts with precise, structured insight into the mechanisms driving modern AI applications.

Key points

  • Defines five core AI concepts: artificial intelligence, machine learning, neural networks, generative AI and prompt engineering.
  • Describes data-driven pattern recognition in ML and layered processing in neural networks to extract complex features.
  • Illustrates generative model applications and prompt formulation methods for synthesizing novel text and images.

Q&A

  • What distinguishes AI from machine learning?
  • How do neural networks mimic the brain?
  • What makes generative AI different from other AI?
  • Why are prompts important in AI tools?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...
5 AI terms you keep hearing and what they actually mean

Researchers at IBM Research and OpenAI analyze the paradigms of generative AI versus agentic AI, detailing transformer, GAN, VAE, and reinforcement-learning architectures. They examine content-creation capabilities versus autonomous multi-step decision-making and highlight key use cases and limitations.

Key points

  • Transformer-based generative models (e.g., GPT, diffusion) use attention mechanisms to synthesize text and images by learning data distributions.
  • Agentic AI combines LLMs, planning algorithms, reinforcement learning, and tool-use frameworks to autonomously execute multi-step objectives and adapt to dynamic environments.
  • Both paradigms face technical challenges: generative AI hallucinations and data biases; agentic AI alignment issues, governance complexity, and high compute demands.

Why it matters: Distinguishing generative from agentic AI guides strategic adoption, enabling organizations to leverage both creative content generation and autonomous decision-making while mitigating risks like hallucinations and misalignment.

Q&A

  • What distinguishes generative AI from agentic AI?
  • How do diffusion models differ from GANs?
  • What is Retrieval-Augmented Generation (RAG)?
  • How does agentic AI learn from its environment?
Copy link
Facebook X LinkedIn WhatsApp
Share post via...