В реальном времени·Открытые вопросы в исследованиях долголетия

Направление

Перепрограммирование и генная терапия

Свойства и специализация клетки зависят от того, как считывается информация в её дезоксирибонуклеиновой кислоте (ДНК). Исследования частичного перепрограммирования проверяют, можно ли изменением этой регуляции вернуть клетке функции, характерные для молодого возраста, сохранив её специализацию.

Рисунок красками с изображением клетки, из ядра которой разворачивается лента хроматина.
Иллюстрации созданы с помощью искусственного интеллекта (AI) и передают общую идею. Результаты исследований изложены в тексте со ссылками на источники.
Следующий вопрос

Как восстановить функции клетки, сохранив её специализацию?

Данные исследованийЭксперимент на сетчатке мышей

В 2020 году исследователи вызвали экспрессию трёх факторов перепрограммирования в клетках сетчатки мышей. Авторы сообщили о регенерации аксонов после повреждения и улучшении зрения у старых мышей и у мышей с моделью глаукомы.

Что остаётся выяснить. Результат получен в глазу мыши. Возможность безопасного омоложения всего организма человека ещё требует доказательств. Основными вопросами остаются доставка факторов, управление их действием и долгосрочная безопасность.

Прочитать статьюReprogramming to recover youthful epigenetic information and restore visionLu et al. · Nature · 2020

Сравнение

Сравнение проектов с оценками

Проект▲Обещанный эффект▲Доказательства▲Стадия▲Самый весомый довод против▲
Armatus Bio+0,8 года жизниThe evidence base is above typical seed-stage biotech because there is a project-specific 2026 Molecular Therapy: Nucleic Acids paper for CMT1A translation support and a project-specific 2026 potency-assay paper.Late preclinical.The project could fail for ordinary but serious gene-therapy reasons: animal biodistribution may not predict human delivery, distal Schwann-cell and whole-muscle transduction may remain inadequate, safe dosing windows may be narrow, over-silencing or off-target effects may emerge, and CMC/potency gains may not solve the core biology.
ExoNovaX+0,8 года жизниThe evidence base is early and heavily company-controlled.This is a development-stage program, not a validated or approved therapy in the supplied evidence.The strongest skeptical case is that this may remain a familiar regenerative-medicine pattern: heavy patenting, broad platform claims, and promising early uncontrolled or lightly powered signals without decisive placebo-controlled efficacy.
Goda Lab+3 года жизниProject-specific evidence shows XPRIZE Healthspan milestone recognition and a media description of SHT-sEV therapy, plus strong adjacent lab technology capabilities.Development-stage and still largely preclinical in the supplied evidence.The central risk is that the longevity story is ahead of the evidence.
Rejuvenate Bio+7 лет жизниThe evidence base is meaningful for a preclinical company but not yet strong for therapeutic validation.Status is preclinical to IND-enabling.The project could fail because its headline claims rest on preclinical models, small pilot datasets, and company-forward reporting, while the hardest problems, AAV delivery, manufacturing, reproducibility, and reprogramming safety, remain unresolved; even positive animal signals may not translate into scalable human therapies.
Rejuvenation through Low Frequency+3 года жизниThe strongest feasibility support is a 2025 Aging Cell research article directly on low-frequency ultrasound rejuvenating senescent cells in vitro and in vivo, plus XPRIZE semifinalist and Milestone 1 recognition.Status is early translational.The failure case is that the apparent rejuvenation signal is overstated, context-specific, or too fragile to survive translation.
RenewalBio+5 лет жизниThe evidence base is mixed and still thin for the company-specific therapeutic claims.Preclinical.The strongest failure case is that the core advantages are still largely asserted, not demonstrated in the provided evidence.

Компании

Компании этого направления

Заявленные цели отражают то, чего компания обещает достичь. Независимое воспроизведение результатов показывает, что подтвердили другие исследователи. Сопоставляйте обе колонки: разрыв между ними показывает, насколько обещания опережают подтверждённые результаты.

Компания▲Масштаб цели▲Независимое воспроизведение▲Стадия▲Главный офис▲
199 Biotechnologies
199 Biotechnologies develops epigenetic reprogramming therapies, senolytic polyphenol compounds, and affordable longevity diagnostics.
71–London, United Kingdom
Altos Labs
Altos Labs aims to restore cell health and resilience through cell rejuvenation to reverse disease, injury, and life-related disabilities.
94–2600 Bridge Parkway, Redwood City, CA 94065
BioViva
BioViva is developing AAV and CMV gene therapy platforms to lengthen healthy human lifespans and treat cellular aging.
82–Seattle, Washington, United States
Centaura
Centaura develops Human Artificial Chromosome technology for large-sequence gene delivery without cutting the genome.
70–Zurich, Switzerland
clock.bio
clock.health is building a platform for human rejuvenation by decoding genes that enable cells to reverse aging.
71–Cambridge, United Kingdom
Dorian Therapeutics90–San Francisco, California, United States
General Control
General Control engineers epigenetic medicines for the complexity of age-related diseases.
80–San Francisco, California, United States
Genflow Biosciences
Genflow develops SIRT6-based gene therapies intended to slow aging and extend healthy lifespan in humans and dogs.
73publicLondon, United Kingdom; Belgium, Netherlands
Junevity
Junevity develops siRNA therapeutics to reset dysregulated gene networks and reverse complex age-related diseases.
81–San Francisco, California, United States
Life Biosciences
Life Biosciences is a biotechnology company pioneering cellular rejuvenation using epigenetic restoration to reverse diseases of aging.
91series c plusBoston, MA
Mogrify
Mogrify develops in vivo reprogramming therapies to restore lost cell types and organ function directly in situ.
82series aCambridge, United Kingdom
Rejuvenate Bio
Rejuvenate Bio develops gene therapy treatments for chronic, age-related diseases in companion animals and humans.
83series aSan Diego, CA
Shift Bioscience
Shift Bioscience develops cellular rejuvenation therapies targeting aging cells, including anti-fibrotic siRNA therapeutics for age-driven diseases.
81–Cambridge (UK)
Telocyte
Telocyte seeks to cure Alzheimer's differently by targeting cell aging and telomerase-related gene expression.
80–United States
Youthereum Genetics
Youthereum Genetics sought to fund epigenetic rejuvenation research using an ICO-based decentralized biotech crowdfunding model.
80––

Проекты

Проекты этого направления

Проект▲Стадия▲Самый веский аргумент против▲
Armatus Bio
Armatus Bio is a U.S. late-preclinical biotech developing AAV-delivered engineered microRNA therapies for autosomal dominant neuromuscular diseases, with lead programs in CMT1A and FSHD.
Late preclinical.The project could fail for ordinary but serious gene-therapy reasons: animal biodistribution may not predict human delivery, distal Schwann-cell and whole-muscle transduction may remain inadequate, safe dosing windows may be narrow, over-silencing or off-target effects may emerge, and CMC/potency gains may not solve the core biology.
Exomed
Exomed appears to be an exosome-centered longevity/regenerative project, but the project identity is unusually muddy: the evidence mixes a broad therapeutic-delivery platform pitch, skin/scalp regeneration marketing, a PRP-to-exosome kit, legacy Australian GI-related patents, and an older Australian company record that was cancelled in 2014.
Status is early and evidentially weak.The project may fail because the evidence currently looks more like branding plus field-level promise than product proof: exosome identity and purity remain hard to standardize, therapeutic mechanisms are often underspecified, project identity is inconsistent, manufacturing and regulatory burdens are high, and the provided record contains no strong project-specific efficacy evidence.
ExoNovaX
ExoNovaX appears to map to Kangstem Biotech, a South Korean regenerative-medicine company developing allogeneic umbilical-cord-blood-derived mesenchymal stem cell products, organoid platforms, and related manufacturing capabilities.
This is a development-stage program, not a validated or approved therapy in the supplied evidence.The strongest skeptical case is that this may remain a familiar regenerative-medicine pattern: heavy patenting, broad platform claims, and promising early uncontrolled or lightly powered signals without decisive placebo-controlled efficacy.
Goda Lab
Goda Lab’s longevity-facing program appears to center on engineered small extracellular vesicles (sEVs) for healthspan restoration, with the strongest project-specific signal coming from XPRIZE Healthspan recognition and a secondary-media description of “SHT-sEV therapy.” The core idea is plausible but still weakly validated in the provided evidence: the lab has strong technical depth in imaging, microfluidics, and cell analysis, yet the actual anti-aging therapeutic claims remain mostly self-described or media-described, with explicit unresolved risks around off-target accumulation, safety, and scalable manufacturing.
Development-stage and still largely preclinical in the supplied evidence.The central risk is that the longevity story is ahead of the evidence.
Hoskinson Health and Wellness Clinic
Hoskinson Health and Wellness Clinic is a Wyoming multi-specialty clinic that presents itself as a longevity- and regenerative-medicine-enabled care model, combining routine clinical services with in-house aging research, specialty care, and claimed regenerative offerings such as PRP, stem-cell-related work, and hyperbaric treatments.
The project appears to have launched in 2022 and expanded rapidly through 2025, but by January 2026 it had cut about 40 jobs amid declining reimbursement and high costs, and on May 22, 2026 clinic leadership announced plans to close, saying it was no longer financially sustainable in its current form.The evidence also supports a harsher reading: this may have been an overextended founder-driven clinic that mixed ordinary healthcare delivery with ambitious longevity and regenerative marketing before demonstrating durable economics or strong independent clinical evidence.
Marcus STAMINA Team
Marcus STAMINA Team appears to be a U.S.-based geroscience pilot centered on whether intermittent dasatinib plus quercetin can be feasibly given to older adults with slow gait speed and mild cognitive impairment as a senolytic strategy aimed at mobility and cognition; the strongest direct evidence is a 2023 rationale-and-design paper for a 12-week, single-arm, open-label feasibility study in 12 participants, which supports serious academic sponsorship but not efficacy.
Early clinical feasibility stage.The downside case is that the project is overinterpreting a mechanistic aging hypothesis from weak clinical footing: the direct study evidence is only a small, single-arm feasibility design, so apparent benefits could be placebo, regression to the mean, measurement noise, or selection effects, while dasatinib plus quercetin may prove too hard to tolerate, too nonspecific, or too biologically blunt to deliver meaningful functional benefit in an older impaired population.
Mito-tags
Mito-tags appears to be a Stanford/VA-linked mitochondrial delivery project built around bio-modified mitochondria for targeted administration to cells.
Early and still evidence-thin.The failure case is that the project is mostly ambitious IP plus competition visibility: targeted mitochondrial delivery may prove too hard to manufacture, control, scale, or validate biologically, and the current evidence does not yet show that the platform works safely or meaningfully better than simpler alternatives.
Precision Tuning of Endogenous TERT in Mesenchymal Stem Cells for Safe Cellular Rejuvenation
This project proposes a safer alternative to blunt telomerase overexpression in mesenchymal stem cells by engineering endogenous TERT regulation as a graded "dimmer switch," aiming to modestly raise telomerase output while preserving native control, stem-cell identity, and genomic stability.
Concept stage.The failure case is that TERT is too tightly coupled to cancer-relevant and cell-state-relevant programs for safe partial tuning to be reliable in practice.
Prometheus Cell Team
Prometheus Cell Team is presented in 2025 media and social sources as a Shanghai-based XPRIZE Healthspan semifinalist developing autologous “Prometheus Cells” by epigenetically reprogramming patient skin fibroblasts into stem cell-like regenerative cells intended to modulate immunity and promote tissue repair.
External recognition is better supported than technical validation.The most likely failure mode is that the project is ahead on narrative and recognition but behind on hard evidence.
Rejuvenate Bio
Rejuvenate Bio is a San Diego startup developing one-time AAV gene therapies for age-related and chronic disease, with the clearest disclosed programs in canine mitral valve disease, desmoplakin arrhythmogenic cardiomyopathy, and partial epigenetic reprogramming.
Status is preclinical to IND-enabling.The project could fail because its headline claims rest on preclinical models, small pilot datasets, and company-forward reporting, while the hardest problems, AAV delivery, manufacturing, reproducibility, and reprogramming safety, remain unresolved; even positive animal signals may not translate into scalable human therapies.
Rejuvenation through Low Frequency
UT Health San Antonio’s "Rejuvenation Through Low Frequency Ultrasound" project is a US-based translational longevity effort testing whether low-frequency ultrasound can reverse cellular senescence without destroying cells.
Status is early translational.The failure case is that the apparent rejuvenation signal is overstated, context-specific, or too fragile to survive translation.
RenewalBio
RenewalBio is an Israel-based Weizmann spinout and startup developing "stembroids": human iPSC-derived developmental models intended to generate DNA-matched transplantable cells and tissues, with the clearest near-term stated target being hematopoietic stem cell applications for bone marrow failure and related transplant settings.
Preclinical.The strongest failure case is that the core advantages are still largely asserted, not demonstrated in the provided evidence.
The EBIMA Trial
The EBIMA Trial appears to sit in a University of Miami clinical-research setting and, based on the evidence provided around mesenchymal-stem-cell and exosome therapeutics, is best understood as a patient-facing regenerative or immunomodulatory therapy project rather than a basic-science effort.
Status is underdetermined.The failure case is stronger than the hype: the supplied evidence is dominated by patents and general institutional context, not direct trial data, and exosome or stem-cell platforms still face basic risks in product heterogeneity, scale-up, potency measurement, delivery, and real-world efficacy.
Unlimited Bio
Unlimited Bio is a promotional longevity startup centered on experimental combination gene therapies, especially VEGF and follistatin, with additional planned programs around KLOTHO, BDNF, PGC-1alpha, and hTERT.
The project appears active at the level of public positioning, partner signaling, and claimed recruitment for follistatin and VEGF plus follistatin programs, but the evidence provided does not show peer-reviewed efficacy data, controlled human outcomes, named study publications, or independently verified clinical results.Unlimited Bio could fail because the current evidence base is largely promotional, the claims are broader than the demonstrated support, multi-gene delivery may prove unsafe or too hard to control, and access-oriented offshore deployment may generate regulatory and credibility risk before convincing efficacy data exists.

Люди

Люди этого направления

  1. Aubrey de Greypopulariser · через Youthereum Genetics

    SENS Foundation founder and longevity advocacy pioneer.

  2. George Churchscientist · через Rejuvenate Bio

    Led and founded major synthetic biology and genomics efforts with public work on aging reversal, gene therapy, and longevity biotechnology companies including Rejuvenate Bio.

  3. João Pedro de Magalhãesscientist · через YouthBio Therapeutics

    Senescence.info founder and aging-database builder.

  4. Vera Gorbunovascientist · через Genflow Biosciences

    Biologist discovering natural mechanisms of cancer resistance and longevity

  5. Manuel Serranoscientist · через Altos Labs

    Cell biologist translating senescence and reprogramming into regenerative medicine

  6. Juan Carlos Izpisua Belmontescientist · через Altos Labs
  7. Vadim Gladyshevscientist · через Retro Biosciences

    Redox biologist mapping the mechanisms and signatures of aging

  8. Morgan Levinescientist · через Altos Labs

    Computational biologist building rigorous measures of biological aging

  9. Eric Verdinscientist · через Genflow Biosciences
  10. Michael Levinscientist · через Aion

    Regenerative biology and bioelectricity pioneer.

  11. Shinya Yamanakascientist · через Altos Labs
  12. Nir Barzilaiscientist · через Life Biosciences
  13. Kristen Fortneyentrepreneur · через Retro Biosciences
  14. Andrei Seluanovscientist · через Centaura

    Comparative biologist studying genome stability in long-lived mammals

  15. David Sinclairscientist · через Life Biosciences
  16. Joe Betts-LaCroixentrepreneur · через Retro Biosciences

    Biotech entrepreneur building therapies for age-driven disease

  17. Yuri Milnerphilanthropist · через Altos Labs
  18. Jeff Bezosinvestor · через Altos Labs
  19. Jerry McLaughlinoperator · через Life Biosciences
  20. Sharon Rosenzweig-Lipsonoperator · через Life Biosciences

Хронология

События и даты

  1. Краудфандинг

    Rejuvenate Bio

  2. Раунд D

    Life Biosciences

    $80M

  3. Посевной раунд

    Shift Bioscience

    $16M · BGF

  4. Посевной раунд

    clock.bio

    $5.3M · LocalGlobe

  5. Грант

    Rejuvenate Bio

    $4M · California Institute for Regenerative Medicine (CIRM)

  6. Грант

    Genflow Biosciences

    Government of Wallonia

  7. Раунд A

    Mogrify

    $46M · Astellas Venture Management, Parkwalk Advisors

  8. Инвестиционный раунд

    Altos Labs

    $3B

  9. Раунд A

    Rejuvenate Bio

    $10M · Kendall Capital Partners

  10. Грант

    Mogrify

    $555K · Innovate UK

  11. Посевной раунд

    Mogrify

    $3.7M · Ahren Innovation Capital

Гипотезы

Проверяемые гипотезы по этому направлению

Гипотезы опубликованы системой Omega Point и отнесены к этому направлению классификатором; под каждой указан пробел в знаниях, который она призвана восполнить

  1. Изменение геометрии поверхности клетки может ослабить её прикрепление после частичного перепрограммирования10 окт. 2026 г.Частичное перепрограммирование может изменить богатый сахарами поверхностный слой стареющих фибробластов дермы человека и тем самым ослабить их прикрепление под нагрузкой при восстановлении тканей, несмотря на восстановление ядерной идентичности. Если коррекция геометрии поверхности клетки в области контакта не восстановит прикрепление, это поставит под сомнение предполагаемый механизм.
  2. После перепрограммирования могут сохраняться лишние центросомы, которые передаются дочерним клеткам и ухудшают последующее восстановление ткани10 окт. 2026 г.Повторное частичное перепрограммирование может приводить к сохранению лишних центросом в фибробластах стареющей кожи человека, проходящих клеточный цикл. Эти центросомы могут передаваться дочерним клеткам и ухудшать восстановление ткани после прекращения воздействия факторов, несмотря на первоначальное восстановление клеток. Если после подтверждённой избирательной коррекции повышенная частота нарушений остаётся неизменной, это поставит под сомнение предполагаемый механизм
  3. Частичное перепрограммирование может восстанавливать специализацию за счёт матричной репарации ДНК10 окт. 2026 г.В стареющих линиях дермальных фибробластов человека частичное перепрограммирование могло бы обеспечивать устойчивое восстановление специализации за счёт репарации повреждений, блокирующих транскрипцию, с использованием неповреждённой комплементарной цепи. Сохранение дополнительного положительного эффекта при подтверждённой избирательной блокаде репарации поставило бы под сомнение участие этого механизма.
  4. Выведение лизосомальных отходов может надолго вернуть способность к восстановлению без устойчивого омоложения ядра10 окт. 2026 г.В стареющих родственных группах фибробластов дермы человека выведение лизосомальных отходов может надолго вернуть способность к восстановлению без устойчивого омоложения ядра. Эти предположения окажутся под сомнением, если способность к восстановлению вернётся при сохранении отходов, если безопасное выведение отходов не вернёт её или если избирательно обратить вспять ядерные изменения, соответствующие более молодому состоянию, и способность к восстановлению будет утрачена.
  5. Совместная коррекция работы гипофиза и надпочечников может восстановить гормональные импульсы и улучшить несколько функций организма30 сент. 2026 г.Если у старых мышей скорректировать чувствительность к глюкокортикоидной обратной связи у 50% кортикотрофов передней доли гипофиза и время ответа на адренокортикотропный гормон у 50% стероидогенных клеток пучковой зоны обоих надпочечников, это может восстановить пульсацию кортикостерона и улучшить несколько функций организма. Если положительный эффект даст коррекция работы клеток только одной из этих популяций, гипотеза о том, что обе популяции составляют минимально необходимый набор, будет опровергнута.
  6. Уничтожение геномов латентного вируса может уменьшить повторные повреждения разных систем органов30 сент. 2026 г.Уничтожение геномов латентного вируса простого герпеса в нервных ганглиях может уменьшить повторные повреждения после прекращения противовирусной активности. Длительное улучшение у животных, свободных от исследуемой инфекции, при сохранении способности вируса реактивироваться у инфицированных животных опровергло бы эту гипотезу.

Прогнозы

Прогнозы по этому направлению

  1. In which year will a person with 10M+ Instagram followers undergo gene therapy?14% за «да»к 1 нояб. 2026 г.
  2. Will lonvo-z (Intellia) become the first approved in vivo CRISPR therapy, and when?17% за «да»к 1 нояб. 2026 г.
  3. Will the first human be dosed in a systemic (non-ophthalmic) reprogramming trial by 30 Jun 2028?20% за «да»к 1 нояб. 2026 г.
  4. Besides Life Biosciences, how many companies will reach a human partial-reprogramming trial by 30 Jun 2028?8% за «да»к 1 нояб. 2026 г.
  5. What will NewLimit's first clinical indication be?20% за «да»к 1 нояб. 2026 г.
  6. When will NewLimit dose its first patient?14% за «да»к 1 нояб. 2026 г.
  7. Will ER-100 show restored visual function beyond safety?17% за «да»к 1 нояб. 2026 г.
  8. Who will be first to show positive Phase 2 data in cellular reprogramming by the end of 2029?17% за «да»к 1 нояб. 2026 г.