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May 17 in Longevity and AI

Gathered globally: 11, selected: 11.

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 Shantou University and Peking University applied five machine learning algorithms, including logistic regression and SHAP explanations, to CHARLS health data, building four-year fall risk models for middle-aged and older adults with and without pain.

Key points

  • Logistic regression model achieved highest AUC-ROC (0.732 for pain, 0.692 for non-pain) among five ML algorithms on CHARLS data.
  • SHAP analysis revealed shared predictors (fall history, height) and exclusive features like WBC, platelets, functional limitations for pain cohort versus cognitive function and environment for non-pain.
  • LASSO feature selection identified 24 variables in the pain model and 27 in non-pain, enabling interpretable and targeted fall risk profiling.

Why it matters: This interpretable ML approach pinpoints unique fall risk factors, improving precision prevention and personalized care for older adults with and without pain.

Q&A

  • What is CHARLS data?
  • Why use SHAP for model interpretation?
  • Why did logistic regression outperform complex models?
  • What is the SPPB test?
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Comparing interpretable machine learning models for fall risk in middle-aged and older adults with and without pain

Researchers at Amsterdam University Medical Centres deploy AI to analyse local field potentials recorded by Medtronic’s Percept PC deep brain stimulation system. By correlating spectral features from implanted electrodes with smartwatch kinematics and clinical ratings, they aim to generate patient‐specific neuronal fingerprints to optimize stimulation for Parkinson’s disease in real‐world settings.

Key points

  • Longitudinal multimodal dataset of 100 Parkinson’s patients with sensing‐enabled STN DBS.
  • AI algorithms correlate LFP spectral power and volatility with wearable kinematic metrics and UPDRS scores.
  • Patient‐specific neuronal fingerprints drive development of adaptive, responsive DBS programming.

Why it matters: This AI‐driven approach represents a shift toward personalized, responsive brain stimulation, potentially improving efficacy and reducing side effects compared to continuous DBS.

Q&A

  • What is a neuronal fingerprint?
  • How does BrainSense Timeline work?
  • Why use wearable inertial sensors?
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A team led by NRI Institute of Technology introduces MyWear, a wearable T-shirt embedded with physiological sensors and machine learning models, notably SVM, to monitor heart rate variability and detect stress levels with up to 98% accuracy for improved cardiovascular and stress management.

Key points

  • MyWear integrates ECG sensors into a wearable T-shirt to capture continuous heart rate variability data.
  • Support Vector Machine classifier achieves 98% stress detection accuracy by optimizing hyperplane separation of HRV features.
  • Signal preprocessing and motion-artifact filtering enable reliable feature extraction for six machine learning models in real-time monitoring.

Why it matters: High-accuracy real-time stress monitoring wearable could transform preventive healthcare by enabling continuous stress and cardiovascular risk assessment outside clinical settings.

Q&A

  • What is heart rate variability?
  • How does MyWear reduce motion artifacts?
  • Why use multiple machine learning models?
  • How is data privacy ensured?
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MyWear revolutionizes real-time health monitoring with comparative analysis of machine learning

Researchers at Universiti Putra Malaysia integrate Google’s MediaPipe framework with a spatial-temporal graph convolutional network (ST-GCN) to develop an AI-based sit-up recognition algorithm. The system constructs a spatio-temporal graph of human skeletal points and achieves 88.3% accuracy on the HMDB51 dataset. Designed for junior high physical education, it delivers real-time feedback and supports differentiated teaching.

Key points

  • Leverages Google MediaPipe to extract 33 skeletal landmarks per frame for real-time 2D pose estimation.
  • Constructs spatio-temporal graphs of skeletal joints and applies ST-GCN with graph convolution across frames for accurate action recognition.
  • Achieves 88.3% detection accuracy on HMDB51 dataset and records 71.1 MAE and 1.04 MPJPE at 1000ms in long-term motion prediction.

Why it matters: By merging pose estimation and graph convolution, this system shifts PE toward scalable, personalized, real-time movement assessment with data-driven insights.

Q&A

  • What is ST-GCN?
  • How does MediaPipe framework contribute to pose estimation?
  • What performance metrics were used to evaluate the system?
  • How is the GUI designed to support non-technical users?
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The application of suitable sports games for junior high school students based on deep learning and artificial intelligence

Researchers at the Lifespan Research Institute introduce the pathogen control hypothesis, suggesting aging acts as an adaptive genetic program. They argue that by eliminating older hosts with chronic infections, populations reduce pathogen transmission, highlighting immune-driven mechanisms as key aging drivers.

Key points

  • Pathogen control hypothesis frames aging as adaptive immune-driven senescence to curb chronic infections.
  • Program-centered model contrasts with damage accumulation, emphasizing genetic regulation of lifespan.
  • Eusocial insect data and security harness theory explain rare non-aging mutants and lifespan plasticity.

Why it matters: This evolutionary perspective shifts aging research toward immune system rejuvenation, offering a new paradigm for longevity therapeutics over damage-focused strategies.

Q&A

  • What is the pathogen control hypothesis?
  • How does programmed aging differ from damage accumulation?
  • Why are non-aging mutants rare?
  • How does this model explain eusocial insect lifespans?
  • What interventions does this suggest for anti-aging research?
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Is Aging Part of the Immune System? | Op-ed with Peter Lidsky. Under his proposed model, aging evolved to stop pathogenic spread.

NutraIngredients has announced the inaugural two-day Nutra Healthspan Summit in London, convening leading scientists, industry stakeholders, and investors to examine market dynamics, hallmarks of aging, and next-generation bioactives like NR, NMN, and spermidine through panels, roundtables, and startup pitches.

Key points

  • Summit agendas encompass hallmarks of aging, exploring pathways such as mitochondrial function and cellular senescence to guide translational healthspan strategies.
  • Next-gen bioactives sessions highlight compounds like nicotinamide riboside, NMN, urolithin A, and spermidine, emphasizing mechanisms of action and clinical potential.
  • Investor-focused startup competition and curated 1-on-1 meetings foster commercialization of early-stage longevity ventures and facilitate industry-academia partnerships.

Why it matters: Bridging nutritional science and investment catalyzes development of validated healthspan interventions, accelerating translation of aging research into market-ready therapies.

Q&A

  • What is healthspan?
  • What are geroprotective supplements?
  • What is immunosenescence?
  • How do startup competitions in scientific conferences work?
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Introducing the Nutra Healthspan Summit : Nutritional bioactives for cellular aging and longevity

Insightace Analytic Pvt. Ltd. projects the anti-aging therapeutics market will expand at a 17.62% CAGR from 2024–2031. Leveraging regenerative medicine, mTOR modulation, and senolytics, the report analyzes drivers like an aging population and commercialization trends to inform strategic stakeholders.

Key points

  • Market value grows from USD 692.66 M (2023) to USD 2.53 B (2031) at 17.62% CAGR
  • Segmented by molecule (biologics, small molecules) and mechanism (senolytic, mTOR modulators)
  • North America leads with highest revenue share driven by advanced infrastructure and consumer demand

Why it matters: Forecasting robust growth highlights critical opportunities for biotech investors and innovators to shape next-generation age-reversal therapies.

Q&A

  • What drives market growth?
  • What are senolytics?
  • Why is insurance coverage limited?
  • What role does mTOR modulation play?
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Anti-Aging Therapeutics Market Outlook to 2031 Features Key Innovations in mTOR Modulation and Senolytic Mechanisms

Researchers highlight a strict anti-aging regimen: daily resistance training, a protein-focused diet, and phytoestrogen management to maintain muscle mass and hormonal health, envisioning future interventions like gene therapy and personalized skincare.

Key points

  • Daily resistance training preserves muscle mass and combats sarcopenia
  • Dietary control and phytoestrogen management optimize hormonal balance
  • Emerging gene therapy and personalized skincare herald next-generation anti-aging

Why it matters: Understanding disciplined lifestyle and emerging therapies can reshape preventive strategies and translational interventions in aging science.

Q&A

  • What causes age-related muscle loss?
  • How do phytoestrogens impact aging?
  • Why avoid intermittent fasting in anti-aging?
  • What role does gene therapy play in aging?
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Lorena Herrera's Anti-Aging Secrets at 60

Businesses across Africa deploy machine learning to optimize delivery logistics, enhance credit risk evaluations, forecast agricultural yields, and personalize retail offerings, leveraging mobile-first infrastructures and data-driven algorithms to boost efficiency, reduce costs, and expand service access in diverse markets.

Key points

  • Real-time delivery route optimization in Nairobi reduces fuel usage and improves punctuality through ML algorithms.
  • Satellite imagery–based credit scoring models by Crop2Cash extend financial services to smallholder farmers.
  • AI-driven diagnostic analytics enhance disease detection and resource allocation in under-resourced healthcare settings.

Why it matters: It underscores how tailored AI strategies can drive economic growth and operational efficiency in emerging markets.

Q&A

  • What is machine learning?
  • How do mobile-first economies support AI adoption?
  • What data challenges do African businesses face?
  • How does satellite imagery inform credit assessments?
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Why 2025 Is the Breakout Year for Machine Learning in African Business - iAfrica.com

Maxiom Technology develops AI-powered solutions combining machine learning models for structured data and deep learning neural networks for medical imaging. They process patient records and scans to improve diagnostics, predict outcomes, and tailor treatments, boosting healthcare efficiency and precision.

Key points

  • Supervised ML models analyze structured EHR data to predict disease risk with over 85% accuracy.
  • Convolutional deep neural networks process medical imaging (X-rays, MRIs) to detect anomalies with 92% sensitivity.
  • Hybrid AI platform integrates ML and DL for workflow automation, reducing diagnostic time by 40%.

Why it matters: This approach shifts healthcare toward data-driven, personalized medicine by harnessing AI’s predictive power, offering scalable diagnostics with improved accuracy over traditional methods.

Q&A

  • What distinguishes machine learning from deep learning?
  • Why are neural networks called 'black boxes'?
  • How much data is needed for training deep learning models?
  • What measures protect patient privacy in AI systems?
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Deep Learning vs ML: Crucial Pros & Cons for Healthcare

Market Research Future’s market analysis indicates the global AI in education sector will grow to USD 26.43 billion by 2032 at a 37.68% CAGR. It evaluates solutions and services across cloud and on-premise deployment models, technologies such as machine learning, NLP, deep learning, and application segments including intelligent tutoring and administrative management, highlighting investments and government initiatives fueling personalized, adaptive learning environments.

Key points

  • AI in Education market projected to reach USD 26.43 billion by 2032 with a 37.68% CAGR.
  • Market segmentation covers solutions, services, cloud vs on-premise deployment, and technologies like ML, NLP, deep learning, and computer vision.
  • Applications include intelligent tutoring systems, virtual facilitators, content delivery, and administrative management across K-12, higher education, and corporate training.

Q&A

  • What does CAGR indicate in market reports?
  • What are intelligent tutoring systems?
  • How do cloud-based deployment models benefit educational AI tools?
  • What challenges affect AI adoption in education?
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Artificial Intelligence in Education Market Size and Growth Analysis 2025: Forecast to Hit USD 26.43 Billion by 2032 at 37.68% CAGR | iCrowdNewswire