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Genetics of human longevi
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Genetics of human longevity
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Abstract. Smulders L, Deelen J. Genetics of human Abstract. Smulders L, Deelen J. Genetics of human longevity: From variants to genes to pathways. J Intern Med. 2024;295:416–35.
The current increase in lifespan without an equivalent increase in healthspan poses a grave challenge to the healthcare system and a severe burden on society. However, some individuals seem to be able to live a long and healthy life without the occurrence of major debilitating chronic diseases, and part of this trait seems to be hidden in their genome. In this review, we discuss the findings from studies on the genetic component of human longevity and the main challenges accompanying these studies. We subsequently focus on results from genetic studies in model organismsandcomparativegenomicapproachesto highlight the most important conserved longevity
associated pathways. By combining the results from studies using these different approaches, we conclude that only five main pathways have been consistently linked to longevity, namely (1) insulin/insulin-like growth factor 1 signalling, (2) DNA-damage response and repair, (3) immune function, (4) cholesterol metabolism and (5) telomere maintenance. As our current approaches to study the relevance of these pathways in humans are limited, we suggest that future studies on the genetics of human longevity should focus on the identification and functional characterization of rare genetic variants in genes involved in these pathways.
Keywords: genetics, longevity, longevity-associated pathways, rare genetic variants, functional characterization...
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mtorc1 is also involve in
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mtorc1 is also involve in longevity between specie
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This PDF is a scientific editorial from the journa This PDF is a scientific editorial from the journal Aging (2021) that explains how mTORC1, a central nutrient- and energy-sensing cellular pathway, plays a critical role not only in lifespan extension within a single species but also in determining natural longevity differences between mammalian species.
The authors, Gustavo Barja and Reinald Pamplona, summarize recent comparative research showing that long-lived species naturally maintain lower mTORC1 activity, suggesting that downregulated mTORC1 signaling is an evolutionary adaptation that contributes to slower aging and extended longevity.
🔶 1. Background: The Aging Program & Effector Systems
The paper begins by reviewing the nuclear aging program (AP) and the network of aging effectors controlled by it.
These include:
mitochondrial ROS production
mitochondrial DNA repair
lipid composition of membranes
telomere shortening rates
metabolomic/lipidomic profiles
mTORC1 is also involved in long…
Long-lived species show:
low mitochondrial ROS at complex I
high mitochondrial DNA repair
lower unsaturated fatty acids in membranes
slower telomere shortening
mTORC1 is also involved in long…
These differences shape species-specific aging rates.
🔶 2. What is mTORC1 and Why It Matters for Aging?
mTORC1 is a highly conserved cellular signaling hub that integrates information about:
nutrients
energy (ATP, glucose)
amino acids (especially arginine, leucine, methionine)
hormones
oxygen levels
mTORC1 is also involved in long…
mTORC1 regulates:
protein + lipid synthesis
mitochondrial function
autophagy
cell growth and proliferation
stress responses
Within species, lowering mTORC1 activity increases lifespan in yeast, worms, flies, and mammals, while increased mTORC1 accelerates aging.
🔶 3. The New Study: First Cross-Species Analysis of mTORC1 and Longevity
The editorial highlights a new comparative study across eight mammalian species with lifespans ranging from 3.5 years (mouse) to 46 years (horse).
Using droplet digital PCR (ddPCR), Western blotting, and targeted metabolomics, the study measured:
mTORC1 gene expression
mTORC1 protein levels
concentrations of activators and inhibitors
mTORC1 is also involved in long…
🔶 4. Key Findings: Long-Lived Species Naturally Suppress mTORC1
The study found that longer-living mammals consistently exhibit a molecular signature of low mTORC1 activity, including:
A) Activators ↓ (negatively correlated with longevity)
Long-lived species have low levels of:
mTOR
Raptor
Arginine
Methionine
SAM (S-adenosylmethionine)
Homocysteine
mTORC1 is also involved in long…
B) Inhibitors ↑ (positively correlated with longevity)
Long-lived species have higher levels of:
phosphorylated mTOR (mTORSer2448)
PRAS40
mTORC1 is also involved in long…
These patterns were independent of phylogeny, meaning they reflect functional longevity mechanisms, not ancestry.
🔶 5. Interpretation: mTORC1 Is Part of an Evolutionary Longevity Strategy
The authors argue that:
Long-lived species have evolved permanent, natural repression of mTORC1 signaling.
This protects cells from accelerated aging, degenerative diseases, and metabolic stress.
mTORC1 works in coordination with other aging effectors as part of the Cell Aging Regulating System (CARS).
mTORC1 is also involved in long…
This places mTORC1 as a cross-species determinant of longevity, not just a within-species modulator.
🔶 6. Overall Conclusion
The PDF concludes that maintaining low mTORC1 downstream activity during adult life is a conserved biological strategy that increases longevity both within and between mammalian species. This is the first study to show that natural variation in mTORC1 levels across species correlates directly with evolutionary differences in lifespan.
⭐ Perfect One-Sentence Summary
This editorial explains that long-lived mammalian species naturally suppress mTORC1 activity—through lower levels of its activators and higher levels of its inhibitors—revealing mTORC1 as a fundamental, evolutionarily conserved determinant of species longevity....
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AGEING IN ASIA
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AGEING IN ASIA AND THE PACIFIC
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as a whole. This highlights the need for countries as a whole. This highlights the need for countries with relatively low proportion of older persons to also put in place appropriate policies and interventions to address their specific rights and needs, and to prepare for ageing societies in the future.
An increase in the proportion and number of the oldest old (persons over the age of 80 years)
The oldest old person, the number of people aged 80 years or over, in the region is also showing a dramatic upward trend. The proportion of the oldest old in the region in the total population 2016 was 1.5 per cent of the population amounting to 68 million people, which is 53 per cent of the global population over 80 years old. This proportion is expected to rise to 5 per cent of the population totaling 258 million people by 2050. Asia
Pacific would have 59 per cent of the world population over 80 years of age compared to 53 per cent at present. This has serious implications for provision of appropriate health care and long term care, as well as income security.
The causes…
The drastic increase in the pace of ageing in the region can be attributed to two key factors, declining fertility rates and increasing life expectancies.
Rapidly declining fertility: The most precipitous declines in the region’s fertility have been in the South and SouthWest, and South-East Asia subregions, with the fertility rates falling by 50 per cent in a span of 40 years. ...
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Extreme Human Lifespan
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Extreme Human Lifespan
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The indexed individual, from now on termed M116, w The indexed individual, from now on termed M116, was the world's oldest verified living person from January 17th 2023 until her passing on August 19th 2024, reaching the age of 117 years and 168 days (https://www.supercentenarian.com/records.html). She was a Caucasian woman born on March 4th 1907 in San Francisco, USA, from Spanish parents and settled in Spain since she was 8. A timeline of her life events and her genealogical tree are shown in Supplementary Fig. 1a-b. Although centenarians are becoming more common in the demographics of human populations, the so-called supercentenarians (over 110 years old) are still a rarity. In Catalonia, the historic nation where M116 lived, the lifeexpectancy for women is 86 years, so she exceeded the average by more than 30 years (https://www.idescat.cat). In a similar manner to premature aging syndromes, such as Hutchinson-Gilford Progeria and Werner syndrome, which can provide relevant clues about the mechanisms of aging, the study of supercentenarians might also shed light on the pathways involved in lifespan. To unfold the biological properties exhibited by such a remarkable human being, we developed a comprehensive multiomics analysis of her genomic, transcriptomic, metabolomic, proteomic, microbiomic and epigenomic landscapes in different tissues, as depicted in Fig. 1a, comparing the results with those observed in non-supercentenarian populations. The picture that emerges from our study shows that extremely advanced age and poor health are not intrinsically linked and that both processes can be distinguished and dissected at the molecular level.
RESULTS AND DISCUSSION Samples from the subject were obtained from four different sources: total peripheral blood, saliva, urine and stool at different times. Most of the analyses were performed in the blood material at the time point of 116 years and 74 days, unless otherwise specifically indicated (Data set 1). The simple karyotype of the supercentenarian did not show any gross chromosomal alteration (Supplementary Fig. 1c). Since many reports indicate the involvement of telomeres in aging and lifespan1, we interrogated the telomere length of the M116 individual using High-Throughput Quantitative Fluorescence In Situ Hybridization (HT-Q-FISH) analysis2. Illustrative confocal images with DAPI staining and the telomeric probe (TTAGGG) for M116 and two control samples are shown in Fig. 1b. Strikingly, we observed that the supercentenarian exhibited the shortest mean telomere length among all healthy volunteers3 with a value of barely 8 kb (Fig. 1c). Even more noticeably, the M116 individual displayed a 40% of short telomeres below the 20th percentile of all the studied samples (Fig. 1c). Thus, the observed far reach longevity of our case occurred in the chromosomal context of extremely short telomeres. Interestingly, because the M116 individual presented an overall good health status, it is tempting to speculate that, in this ...
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signs of life guidance
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signs of life guidance
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“Signs of Life Guidance – Visual Summary (v1.2)” i “Signs of Life Guidance – Visual Summary (v1.2)” is a clear, compassionate, UK-wide clinical guideline that explains how to determine and document signs of life following spontaneous birth before 24+0 weeks, in situations where—after careful discussion with the parents—active survival-focused neonatal care is not appropriate. The guidance ensures consistent, respectful, and trauma-minimizing care for both babies and parents during extremely preterm births.
Purpose of the Guidance
To help clinicians:
Recognize genuine signs of life
Communicate sensitively with parents
Provide appropriate comfort and palliative care
Ensure correct legal documentation of birth and death
Deliver consistent bereavement support across the UK
Determining Signs of Life
A baby is classified as liveborn if any of the following visible, persistent signs are present:
clearly visible heartbeat
visible cord pulsation
breathing, crying, or sustained gasps
definite limb movement
The guidance emphasizes:
Fleeting reflexes (brief gasps, twitches, or chest wall pulsations in the first minute) do not count as signs of life.
Parents’ own observations should be respectfully included.
A stethoscope is not required.
After Live Birth
A doctor (usually the obstetrician) should confirm and document signs of life to avoid legal complications with the death certificate.
A doctor may rely on a midwife’s documented observations.
The baby receives perinatal palliative comfort care, and the family’s emotional and physical needs are actively supported.
Communication With Parents
Sensitive communication is emphasized to reduce trauma:
Parents are prepared that babies born before 24 weeks often do not survive.
Parents are informed that reflex movements do not necessarily indicate life.
Language preferences must be respected—some parents prefer “loss of baby,” others prefer “end of pregnancy” or “miscarriage.”
Bereavement Care (All Births)
All families should receive:
A parent-led bereavement plan
Privacy, choices, and time with their baby
Memory-making opportunities
Information on burial/cremation/sensitive disposal
Referral to support services and community care
Guidelines reference the National Bereavement Care Pathway for consistent care across the UK.
Documentation Requirements
Depends on region and whether signs of life were witnessed:
Before 24+0 weeks: No legal requirement for birth registration; offer a sensitive “certificate of loss” or “certificate of birth.”
If liveborn and later dies: A neonatal death certificate must be issued by a doctor who witnessed signs of life.
If no doctor witnessed it, the case must be referred to the coroner in England/Wales/NI.
Scope of the Guidance
Included:
Spontaneous in-hospital births <22+0 weeks
Spontaneous births at 22+0 to 23+6 weeks when survival-focused care is not appropriate
Pre-hospital births <22+0 weeks (same principles)
Excluded:
>Medical terminations
>Uncertain gestational age
>Births at 22–23+6 weeks where active neonatal care is planned or considered...
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Evidence for a limit
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Evidence for a limit to human lifespan
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This study, published in Nature in 2016 by Xiao Do This study, published in Nature in 2016 by Xiao Dong, Brandon Milholland, and Jan Vijg, investigates whether there is a natural upper limit to the human lifespan. Despite significant increases in average human life expectancy over the past century, the authors provide strong demographic evidence suggesting that maximum human lifespan is fixed and subject to natural constraints, with limited improvement beyond a certain age threshold.
Background and Context
Life expectancy vs. maximum lifespan: Life expectancy has increased substantially since the 19th century, largely due to reduced early-life mortality and improved healthcare. However, maximum lifespan, defined as the age of the longest-lived individuals within a species, is generally considered a stable biological characteristic.
The oldest verified human was Jeanne Calment, who lived to 122 years, setting the recognized upper bound.
While animal studies show lifespan can be extended via genetics or pharmaceuticals, evidence on human maximum lifespan flexibility has been inconclusive.
Some previous research, such as studies from Sweden, suggested maximum lifespan was increasing during the 19th and early 20th centuries, challenging the notion of a fixed limit.
Key Findings
Trends in Life Expectancy and Late-Life Survival
Average life expectancy at birth has continually increased globally, especially in developed nations (e.g., France).
Gains in survival have shifted from early-life mortality reductions to improvements in late-life mortality, with more individuals reaching very old ages (70+).
However, the rate of improvement in survival declines sharply after around 100 years of age.
The age showing the greatest gains in survival over time increased during the 20th century but appears to have plateaued since around 1980.
This plateau is seen in 88% of 41 countries studied, indicating a potential biological constraint on lifespan extension beyond a certain point.
Maximum Reported Age at Death (MRAD) Analysis
Using data from the International Database on Longevity (IDL) and the Gerontological Research Group (GRG), the authors analyzed the maximum ages of supercentenarians (110+ years old) in countries with the largest datasets (France, Japan, UK, US).
The maximum reported age at death increased steadily between the 1970s and early 1990s but plateaued around the mid-1990s, near the time Jeanne Calment died (1997).
Linear regression divided into two periods (1968–1994 and 1995 onward) showed:
Pre-1995: MRAD increased by approximately 0.12–0.15 years per year.
Post-1995: No significant increase; a slight, non-significant decline occurred.
The MRAD has stabilized around 114.9 years (95% CI: 113.1–116.7).
The probability of exceeding 125 years in any given year is less than 1 in 10,000, according to a Poisson distribution model.
Additional Statistical Evidence
Analysis of the top five highest reported ages at death per year (not just the maximum) shows similar plateauing trends.
The annual average age at death among supercentenarians has not increased since 1968.
These consistent patterns across multiple metrics and datasets strengthen the evidence for a natural ceiling on human lifespan.
Biological Interpretation and Implications
The idea that aging is a programmed biological event evolved to cause death has been widely discredited.
Instead, limits to lifespan are likely an inadvertent consequence of genetic programs optimized for early life functions (development, growth, reproduction).
Species-specific longevity assurance systems encoded in the genome counteract genetic and cellular imperfections, maintaining lifespan within limits.
Extending human lifespan beyond these natural limits would likely require interventions beyond improving healthspan, potentially involving genetic or pharmacological modifications.
While current research explores such possibilities, the complexity of genetic determinants of lifespan suggests substantial biological constraints.
Timeline Table: Key Chronological Events and Findings
Period Event/Observation
1860s–1990s Maximum reported age at death in Sweden rose from ~101 to ~108 years, suggesting possible increase
1900 onwards Life expectancy at birth increased markedly globally, especially in developed countries
1970s–early 1990s Maximum reported age at death (MRAD) increased steadily in France, Japan, UK, and US
Mid-1990s (around 1995) MRAD plateaued at ~114.9 years; no further significant increase observed
1997 Death of Jeanne Calment, oldest verified human at 122 years
1980s onwards Age with greatest gains in survival plateaued, indicating diminishing improvements at oldest ages
Quantitative Data Summary
Metric Value/Trend Source/Data
Jeanne Calment’s age at death 122 years Oldest verified human
Maximum reported age at death (MRAD) plateau ~114.9 years (95% CI: 113.1–116.7) IDL, GRG databases
MRAD increase rate (pre-1995) +0.12 to +0.15 years/year Linear regression
MRAD increase rate (post-1995) Slight, non-significant decrease Linear regression
Probability of exceeding 125 years in a year <1 in 10,000 Poisson distribution model
Percentage of countries showing plateau in survival gains at oldest ages 88% 41 countries analyzed
Key Insights
Human maximum lifespan appears to be fixed and constrained, despite past increases in average lifespan.
Improvements in survival rates slow and plateau beyond approximately 100 years of age.
The world record for age at death has not significantly increased since the late 1990s.
The phenomenon is consistent across multiple countries and independent datasets.
Biological aging limits are likely an outcome of genetic programming optimized for early life, with longevity assured by species-specific genomic systems.
Substantial extension of maximum human lifespan would require overcoming complex genetic and biological constraints.
Conclusions
This comprehensive demographic analysis provides strong evidence for a natural limit to human lifespan, with little increase in maximum age at death over recent decades despite ongoing increases in average life expectancy. The data challenge optimistic views that human longevity can be indefinitely extended by current health improvements alone. Instead, future lifespan extension may depend on breakthroughs that directly target the underlying biological and genetic determinants of aging.
References to Core Concepts and Methods
Use of Human Mortality Database for survival and life expectancy trends.
Analysis of supercentenarian data from the International Database on Longevity (IDL) and Gerontological Research Group (GRG).
Application of linear regression and Poisson distribution modeling to maximum age at death data.
Consideration of species-specific genetic longevity assurance systems and aging biology literature.
Comparison to historical theories of lifespan limits (Fries 1980; Olshansky et al. 1990).
Keywords
Maximum lifespan
Life expectancy
Supercentenarians
Late-life mortality
Longevity limit
Jeanne Calment
Genetic constraints
Aging biology
Mortality trends
Demographic analysis
FAQ
Q: Has maximum human lifespan increased in recent decades?
A: No. Analysis shows the maximum reported age at death plateaued in the mid-1990s around 115 years.
Q: How does life expectancy differ from maximum lifespan?
A: Life expectancy is the average age people live to in a population, which has increased due to reduced early mortality. Maximum lifespan is the oldest age reached by individuals, which appears fixed.
Q: Is there evidence for biological constraints on human lifespan?
A: Yes. Data suggest species-specific genetic programs and longevity assurance systems impose natural upper limits.
Q: Could future interventions extend maximum lifespan?
A: Potentially, but such extensions require overcoming complex genetic and biological factors beyond current health improvements.
This summary synthesizes the core findings and implications of the study, strictly based on the provided content, reflecting a nuanced understanding of the limits to human lifespan suggested by recent demographic evidence.
Smart Summary
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This study investigates whether extreme longevity This study investigates whether extreme longevity in animals is linked to a broad, multi-stress resistance phenotype, focusing on the ocean quahog (Arctica islandica)—the longest-lived non-colonial animal known, capable of surpassing 500 years of life.
The researchers exposed three bivalve species with dramatically different lifespans to nine types of cellular stress, including mitochondrial oxidative stress and genotoxic DNA damage:
Arctica islandica (≈500+ years lifespan)
Mercenaria mercenaria (≈100+ years lifespan)
Argopecten irradians (≈2 years lifespan)
🔬 Core Findings
Short-lived species are highly stress-sensitive.
The 2-year scallop consistently showed the fastest mortality under all stressors.
Longest-lived species show broadly enhanced stress resistance.
Arctica islandica displayed the strongest resistance to:
Paraquat and rotenone (mitochondrial oxidative stress)
DNA methylating and alkylating agents (nitrogen mustard, MMS)
Long-lived species differ in their stress defense profiles.
Mercenaria (≈100 years) was more resistant to:
DNA cross-linkers (cisplatin, mitomycin C)
Topoisomerase inhibitors (etoposide, epirubicin)
This shows that no single species is resistant to all stressors, even among long-lived clams.
Evidence partially supports the “multiplex stress resistance” model.
While longevity correlates with greater resistance to many stressors, the pattern is not uniform, suggesting different species evolve different protective strategies.
🧠 Biological Significance
Findings support a major idea from comparative aging research:
Long-lived species tend to exhibit superior resistance to cellular damage, especially oxidative and genotoxic stress.
Enhanced DNA repair, durable proteins, low metabolic rates, and strong apoptotic control may contribute to extreme lifespan.
Arctica islandica’s biology aligns with negligible senescence—minimal oxidative damage accumulation and high cellular stability.
📌 Conclusion
Extreme longevity in bivalves is strongly associated with heightened resistance to multiple stressors, but not in a uniform way. Long-lived species have evolved different combinations of cellular defense mechanisms, helping them maintain tissue integrity for centuries.
This study establishes bivalves as powerful comparative models in gerontology and reinforces the concept that resistance to diverse forms of cellular stress is a critical foundation of exceptional longevity....
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Inconvenient Truths About
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Inconvenient Truths About Human Longevity
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S. Jay Olshansky, PhD1,* and Bruce A. Carnes, PhD2 S. Jay Olshansky, PhD1,* and Bruce A. Carnes, PhD2
1University of Illinois at Chicago, Division of Epidemiology and Biostatistics. 2University of Oklahoma. *Address correspondence to: S. Jay Olshansky, PhD, University of Illinois at Chicago. E-mail: sjayo@uic.edu
Received: February 2, 2019; Editorial Decision Date: April 3, 2019
Decision Editor: Anne Newman, MD, MPH
Abstract The rise in human longevity is one of humanity’s crowning achievements. Although advances in public health beginning in the 19th century initiated the rise in life expectancy, recent gains have been achieved by reducing death rates at middle and older ages. A debate about the future course of life expectancy has been ongoing for the last quarter century. Some suggest that historical trends in longevity will continue and radical life extension is either visible on the near horizon or it has already arrived; whereas others suggest there are biologically based limits to duration of life, and those limits are being approached now. In “inconvenient truths about human longevity” we lay out the line of reasoning and evidence for why there are limits to human longevity; why predictions of radical life extension are unlikely to be forthcoming; why health extension should supplant life extension as the primary goal of medicine and public health; and why promoting advances in aging biology may allow humanity to break through biological barriers that influence both life span and health span, allowing for a welcome extension of the period of healthy life, a compression of morbidity, but only a marginal further increase in life expectancy.
Keywords: Longevity, Public Health, Life Expectancy....
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The Tailor of Gloucester
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This is the new version of Christmas data
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“The Tailor of Gloucester” tells the story of a po “The Tailor of Gloucester” tells the story of a poor but skilled tailor who is hired to make an elegant cherry-colored coat and embroidered satin waistcoat for the Mayor of Gloucester’s Christmas Day wedding. He carefully cuts out all the pieces but discovers he is missing one skein of cherry-colored twist needed to finish the buttonholes.
The tailor sends his cat Simpkin to buy food and the silk twist with their last fourpence. While Simpkin is gone, the tailor discovers that Simpkin has trapped several little brown mice under the teacups. He frees the mice out of pity, not knowing that Simpkin was saving them for his supper. Angry, Simpkin hides the twist and stalks out.
The tailor becomes ill and cannot return to his shop for days. Meanwhile, the clever mice he freed slip into the shop at night. Grateful for their escape, they decide to finish the Mayor’s coat for him. They sew all the tiny stitches, working with thimbles and miniature scissors, singing as they work.
On Christmas Eve, as the animals in Gloucester magically talk, Simpkin wanders out and discovers the mice sewing inside the shop. He cannot enter, but he watches them finish nearly everything except one buttonhole, because they have “no more twist.”
On Christmas morning, Simpkin feels ashamed of hiding the silk and returns it to the tailor. When the tailor goes to his shop, he finds the magnificent coat and waistcoat completed by the mice, with only one buttonhole left undone. A tiny note reads:
“NO MORE TWIST.”
Thanks to this miracle, the tailor finishes the last stitch, delivers the coat on time, and gains great fame. From then on, his fortunes improve, and he becomes known across Gloucester for his beautiful work especially his perfect buttonholes, which look almost as if they were sewn by mice....
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Increase of Human Life
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Increase of Human Longevity
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This PDF is a comprehensive demographic presentati This PDF is a comprehensive demographic presentation that explains how human longevity has increased over the past 250 years, the biological, social, and medical drivers behind those improvements, and whether there is a true limit to human lifespan. Created by John R. Wilmoth, one of the world’s leading demographers and former director of the UN Population Division, the document provides historical data, scientific analysis, and future projections on global life expectancy.
It combines global mortality statistics, historical transitions in causes of death, medical breakthroughs, and theoretical debates to explain how humans moved from a world where average life expectancy was 30 years to a world where it routinely exceeds 80—and may continue rising.
🔶 1. Purpose of the Presentation
The PDF aims to:
Trace the historical rise of life expectancy
Explain age patterns of mortality and how they shifted
Identify medical, social, and historical reasons for increased longevity
Examine the debate about biological limits to lifespan
Forecast future trends in global life expectancy
Increase of Human Longevity Pas…
🔶 2. Historical Increase of Longevity
The document shows dramatic gains in life expectancy from the 18th century to the 21st century.
⭐ Key historical facts:
Prehistoric humans: 20–35 years average life expectancy
Sweden in 1750s: 36 years
USA in 1900: 48 years
France in 1950: 66 years
Japan in 2007: 83 years with <3 infant deaths per 1,000 births
Increase of Human Longevity Pas…
Charts show life expectancy trends for France, India, Japan, Western Europe, and global regions from 1816–2009.
🔶 3. Changing Age Patterns of Mortality
The PDF shows how the distribution of death has shifted across ages:
In 1900, many deaths occurred at young ages.
By 1995, most deaths were concentrated at older ages.
Survival curves show people living longer and dying more uniformly later in life.
Increase of Human Longevity Pas…
The interquartile range of ages at death shrunk dramatically in Sweden from 1751 to 1995, meaning life has become more predictable and deaths occur later and closer together.
🔶 4. Medical Causes of Mortality Decline
The document clearly identifies the medical advances that propelled longevity increases.
⭐ A. Infectious Disease Decline
Driven by:
Sanitation and clean water
Public health reforms
Hygiene
Antibiotics and sulfonamides
Increase of Human Longevity Pas…
⭐ B. Cardiovascular Disease Decline
Due to:
Reduction in smoking
Healthier diets (lower saturated fat and cholesterol)
Hypertension and cholesterol control
Modern cardiology, diagnostics, and emergency care
Increase of Human Longevity Pas…
⭐ C. Cancer Mortality Trends
The report distinguishes between:
Infectious-cause cancers (e.g., stomach, liver, uterus)
Non-infectious cancers (lung, breast, colon, pancreas, etc.)
Increase of Human Longevity Pas…
Declines in cancer mortality result from:
Infection control (H. pylori, HPV, hepatitis)
Declining smoking rates
Better treatment and earlier detection
🔶 5. Epidemiological Transitions in Human History
The PDF provides a timeline of how the major causes of death shifted as societies developed:
Type of Society Major Cause of Death
Hunter-gatherer Injuries
Agricultural Infectious disease
Industrial Cardiovascular disease
High-tech Cancer
Future Senescence (frailty/aging)
Increase of Human Longevity Pas…
This framework shows the progression from external dangers to internal biological aging as the main determinant of mortality.
🔶 6. Social and Historical Causes of Longevity Increase
Beyond medicine, several societal forces drove longevity gains:
Rising incomes → better nutrition & housing
Science and technology advances
Application of scientific knowledge (public health, medical care)
Improved safety (e.g., fewer road accidents)
Increase of Human Longevity Pas…
A chart shows the strong correlation between national GDP per capita and life expectancy, with richer countries achieving much longer lives.
🔶 7. Are There Limits to Human Lifespan?
The PDF examines one of the most famous debates in demographics:
⭐ Maximum Lifespan
Evidence shows:
The oldest age at death (recorded globally and nationally) has increased over time.
Jeanne Calment (122 years) and Christian Mortensen (115 years) exemplify trends.
Sweden’s maximum age at death rose steadily from 1861–2007.
Increase of Human Longevity Pas…
There is no clear evidence of a fixed biological ceiling.
⭐ Average Lifespan
Mortality rates continue to fall in many countries.
Nations like Japan still make significant gains despite already high longevity.
No sign of stagnation or convergence at a limit.
Increase of Human Longevity Pas…
🔶 8. Summary of Longevity Trends
Indicator Before 1960 After 1970
Average lifespan Increased rapidly Increased moderately
Maximum lifespan Increased slowly Increased moderately
Variability Decreased rapidly Stable
Increase of Human Longevity Pas…
Even though gains have slowed, longevity continues to rise in both average and maximal terms.
🔶 9. Future Projections
UN projections (2009) suggest continued global improvements:
World life expectancy: 68 → 72 → 76 (2009–2049)
Developed countries: 77 → 83+
Japan: 83 → 87
Developing countries also show large gains (India, China, Brazil, Nigeria)
Increase of Human Longevity Pas…
🔶 10. Final Lessons of History
The PDF closes with four key insights:
Mortality decline is driven by humanity’s deep desire for longer life.
Past improvements resulted from multiple causes, not a single breakthrough.
Likewise, no single factor will stop future increases.
With economic growth and political stability, there are no obvious limits to further gains in human longevity.
Increase of Human Longevity Pas…
⭐ Perfect One-Sentence Summary
This PDF provides a comprehensive historical and scientific explanation of how human life expectancy has increased over time, why deaths have shifted to older ages, what medical and social forces drove these improvements, and why there is no clear biological limit preventing future gains in human longevity....
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feb93b76-7ad1-4fd1-a255-085494503591
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opsklayt-8680
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Multidimensional poverty
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Multidimensional poverty and longevity in India
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This PDF is a research study that investigates how This PDF is a research study that investigates how different forms of poverty—beyond income alone—affect life expectancy, mortality risk, and longevity outcomes in India. It uses a multidimensional poverty approach, which includes factors such as education, nutrition, housing, sanitation, and energy access, to understand how deprivation influences survival across India’s diverse regions and populations.
The core message of the study is:
In India, longevity is shaped not just by economic poverty but by overlapping social, health, and living-condition deprivations.
📘 Purpose of the Study
The study aims to:
Link multidimensional poverty indicators with longevity outcomes
Identify which deprivations most strongly limit life expectancy
Explore regional, urban–rural, gender, and caste disparities
Provide policy insights for improving survival and reducing inequality
It positions multidimensional poverty as a crucial lens for understanding why India’s longevity improvements are uneven and unequal.
🧠 Core Themes and Key Insights
1. Multidimensional Poverty Is Widespread and Uneven in India
The study uses indicators such as:
Nutrition
Child mortality
Years of schooling
Cooking fuel
Sanitation
Housing conditions
Drinking water
Electricity
These deprivations cluster differently across:
States
Urban vs. rural areas
Caste groups
Religious communities
Gender
This complex deprivation pattern drives major differences in longevity.
2. Poverty–Longevity Relationship Is Strong and Non-Linear
The study finds:
Individuals experiencing multiple deprivations live significantly shorter lives.
Life expectancy varies widely across states depending on poverty levels.
Reducing even one or two key deprivations can substantially improve survival chances.
The relationship between poverty and longevity is not just additive—it is multiplicative.
3. State-Level Disparities Are Enormous
The PDF highlights clear contrasts:
States like Kerala, Himachal Pradesh, and Tamil Nadu show high life expectancy and low multidimensional poverty.
States like Bihar, Uttar Pradesh, Jharkhand, and Madhya Pradesh show high poverty and lower life expectancy.
The analysis demonstrates that geography is a strong predictor of survival.
4. Urban–Rural Divide
Urban India has:
Lower multidimensional poverty
Higher life expectancy
Rural India has:
Severe deprivation in sanitation, fuel, housing, and health access
Higher disease burden
Lower longevity
The rural–urban gap is structural, persistent, and strongly linked to public service availability.
5. Social Inequalities Matter
The study shows large differences in longevity across:
Caste groups (SC/ST vs. general caste)
Gender
Religious communities
Household composition
These inequalities are amplified by multidimensional poverty.
6. Which Deprivations Hurt Longevity the Most?
The paper identifies critical drivers of shortened lifespan:
Malnutrition
Lack of sanitation
Unsafe cooking fuels (indoor air pollution)
Poor housing
Lack of education
Limited electricity access
These factors combine to increase:
Childhood mortality
Adult morbidity
Infectious disease vulnerability
NCD burden
7. Policy Implications
The PDF argues that India must:
Target multidimensional poverty reduction, not just income growth
Prioritize nutrition, sanitation, health services, and clean energy
Address social inequalities through inclusive development
Use multidimensional indicators for planning and budgeting
Invest in high-poverty, low-longevity regions
It stresses that improvements in survival require cross-sectoral interventions.
⭐ Overall Summary
“Multidimensional Poverty and Longevity in India” demonstrates that poverty is multidimensional, and so is longevity. Deprivations in health, education, nutrition, and living conditions combine to reduce life expectancy and widen inequality between states, castes, genders, and regions. The study argues that improving longevity in India demands addressing multiple overlapping deprivations, not just income poverty....
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Genes and Athletic
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Genes and Athletic Performance
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you need to answer with
✔ command points
✔ extr you need to answer with
✔ command points
✔ extract topics
✔ create questions
✔ generate summaries
✔ make presentations
✔ explain concepts simply
⭐ Universal Description for Easy Topic / Point / Question / Presentation
Genes and Athletic Performance explains how genetic differences influence physical abilities related to sport, such as strength, endurance, speed, power, aerobic capacity, muscle composition, and injury risk. The document presents genetics as one of several factors that shape athletic performance, alongside training, environment, nutrition, and psychology.
The paper discusses how specific genes and genetic variants affect muscle fiber type, oxygen delivery, energy metabolism, cardiovascular efficiency, and connective tissue strength. It explains that athletic traits are polygenic, meaning many genes contribute small effects rather than one gene determining success. Examples include genes linked to sprinting ability, endurance performance, and susceptibility to muscle or tendon injuries.
The document highlights the importance of gene–environment interaction, showing that training can amplify or reduce genetic advantages. It explains that even individuals without “favorable” genetic variants can reach high performance levels through appropriate training and conditioning.
Research methods such as candidate gene studies, family studies, and association studies are described to show how scientists identify links between genes and performance traits. The paper also emphasizes the limitations of genetic prediction, noting that genetic testing cannot reliably identify future elite athletes.
Ethical issues are addressed, including genetic testing in sport, misuse of genetic information, discrimination, privacy concerns, and the potential for gene doping. The document concludes that genetics can help improve understanding of performance and injury prevention but should be used responsibly and as a complement to coaching and training—not a replacement.
⭐ Optimized for Any App to Generate
📌 Topics
• Genetics and athletic performance
• Polygenic traits in sport
• Muscle strength and power genes
• Endurance and aerobic capacity genetics
• Gene–environment interaction
• Injury risk and genetics
• Training adaptation and DNA
• Talent identification limits
• Ethics of genetic testing in sport
• Gene doping concerns
📌 Key Points
• Athletic performance is influenced by many genes
• No single gene determines success
• Genetics interacts with training and environment
• Genes affect muscle, metabolism, and endurance
• Genetic testing has limited predictive power
• Ethical safeguards are essential
📌 Quiz / Question Generation (Examples)
• What does polygenic mean in athletic performance?
• How do genes influence endurance and strength?
• Why can’t genetics alone predict elite athletes?
• What is gene–environment interaction?
• What ethical concerns exist in sports genetics?
📌 Easy Explanation (Beginner-Friendly)
Genes affect how strong, fast, or endurance-based a person might be, but they do not decide success on their own. Training, effort, nutrition, and coaching matter just as much. Sports genetics helps explain differences between people, but it must be used carefully and fairly.
📌 Presentation-Ready Summary
This document explains how genetics contributes to athletic performance and physical abilities. It covers how multiple genes influence strength, endurance, and injury risk, and why genetics cannot replace training and coaching. It also highlights ethical concerns and warns against misuse of genetic testing.
in the end ask
If you want next, I can:
✅ generate a full quiz
✅ create a PowerPoint slide outline
✅ extract only topics
✅ extract only key points
✅ simplify it for school-level learning
Just tell me 👍...
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