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Anti-aging therapy and technologies, present and future, and what might come

below are predictions only:

1999
  • Initial stem cell therapy begins
  • computerized measuring of biochemical biomarkers of aging

2000
  • Telomerase trials begin in humans
  • 100% of he human genome mapped and sequenced
  • Legislation enacted to protect Americans against genetic discrimination

2004
  • rudimentary gene chips available to measure changes in "gene expression" as biomarkers of aging
  • naked DNA transplants begin

2005
  • test for risk of cancer, diabetes, stroke
  • gene therapy for hemophilia, heart disease, some cancers
2010
  • DNA chips that analyze a person's genetic makeup and compare it to optimal sequences of genes
  • biomarkers of aging now based on gene expression directly

2012
  • medicine tailored to an individual's genetic makeup available to treat disease, including cancer

2015
  • nanotechnology therapy for aging disorders in humans
2018
  • doctors correct defective genes using combinations of DNA transplants, nanotechnology, and stem cell therapies

2025
  • computer power exceeds human IQ and is used to direct future R&D therapy

We stand at the brink of a revolution in anti-aging therapy and technology. Within the next two decades many promising techniques will help us achieve an expanded quality of health and extension of longevity not previously thought possible. Already, breathtaking advances have given us the ability to take new anti-aging concepts and turn them into scientific reality. We now have sufficient knowledge to improve the function of our DNA. Anti-aging practice distinguishes itself from conventional medical treatment in that the anti-aging physician is concerned with biomarkers, rather than simply with alleviating specific symptoms of aging. Monitoring biomarkers enables us to evaluate the effects of an individuals anti-aging program. The technologies described here represent attempts to measure and improve the biomarkers of aging.

Gene Banking

Gene Chips and Genomics

Stem cells, therapeutic cloning and regenerative medicine

nanotechnology: molecules as machines
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