regenerative medicine

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100 Plus: How the Coming Age of Longevity Will Change Everything, From Careers and Relationships to Family And

by Sonia Arrison  · 22 Aug 2011  · 381pp  · 78,467 words

growing part of a windpipe is only the beginning. FIGURE 2.2 SOURCE: Illustration by Paula Cruz. The website of the Wake Forest Institute for Regenerative Medicine introduces the world to this fascinating new technology. “Our scientists were the first in the world to successfully implant a laboratory-grown organ into humans

2006 because he wanted to make sure it worked long term. It did. “We have shown that regenerative medicine techniques can be used to generate functional bladders that are durable,” said Atala. “This suggests that regenerative medicine may one day be a solution to the shortage of donor organs in this country for those

human do the same?”25 This is a good question, and it’s one that is being pursued by researchers at the McGowan Institute for Regenerative Medicine. Dr. Stephen Badylak, deputy director of the institute, has received a lot of media attention because of a material he is working with: a ground

day to say that, even though there was an alternative to amputation, they didn’t know anyone in her area (Davis, California) who worked on regenerative medicine. Eventually, through emailing friends and reaching out to connections at UCLA and Berkeley, she found a local doctor who agreed to try working with the

. Atala’s organizations are supported through grants from an organization called the Armed Forces Institute of Regenerative Medicine (AFIRM). With a budget of over $250 million, AFIRM is an extremely important player pushing the field of regenerative medicine ahead.29 Created by the U.S. Department of Defense in 2008, it was hailed as

, said that “following in the great military medical tradition of innovation, collaboration and progressive research, AFIRM will unify and apply all the recent breakthroughs in regenerative medicine while leading the charge to new ones.”30 In addition to funding groups that are growing organs and salvaging limbs and digits, AFIRM is sponsoring

Stem Cell and Cancer Research Institute. 39 Being able to quickly create a specific type of cell for a patient would boost the efforts of regenerative medicine and move humanity closer to the day when replacing almost any body part when necessary will be possible. Dr. Bhatia was working with adult cells

, de Grey believes that there are seven different ways to engineer around the damage that aging inflicts on our bodies, which collectively may deliver comprehensive regenerative medicine against aging. He calls his plan Strategies for Engineered Negligible Senescence (SENS), and his outline of how each strategy could be implemented is detailed in

point where these kinds of claims have legitimacy. And his coverage of the topic doesn’t end there. In conjunction with Oprah, he has discussed regenerative medicine and the fact that scientists can now rebuild body parts in order to maintain health. On this issue Dr. Oz said, “These are technologies that

advice on how to keep the body healthy using today’s limited technology so that a person can live long enough to take advantage of regenerative medicine and other scientific advances in the future.19 Indeed, Kurzweil’s work as a maven is so respected that a new university, based at NASA

-like activities, like funding detailed scientific research, while Gobel is interested in connector-type activities, such as funding shorter-term entrepreneurial ventures like Organovo, a regenerative medicine company that applies proprietary technology to print new organs.36 Gobel explains the rationale for the organ-printing company in terms of not only how

that job much easier than it used to be. “Bruce was always online,” said Kevin Perrott, another connector who is working on a PhD in regenerative medicine at the University of Alberta in Canada.46 As of the writing of this book, Perrott was in California doing lab work at the Buck

that is starting to get coverage by established media outlets. For instance, Oprah fans were treated to an insider’s view of one area of regenerative medicine when Dr. Oz brought an organ mold on the show and demonstrated how it could be lined with cells to create a new body part

–Pittsburgh Consortium, “Funding for AFIRM,” www.afirmwakepitt.org/About-Us/Funding-for-AFIRM.htm. 30 U.S. Department of Defense, “New Armed Forces Institute of Regenerative Medicine to Lead Way in Caring for Wounded,” press release, April 17, 2008, www.defense.gov/reles/release.aspx?releaseid=11842. 31 See “Magic ‘Pixie Dust

, May 5, 2010, www.dailymail.co.uk/sciencetech/article-1270990/Pixie-Dust-pig-bladders-regrows-limbs-wounded-soldiers.html#ixzz18nJxv5m0 . 32 See McGowan Institute for Regenerative Medicine, “ECM-Replacement of Lost Muscle Tissue,” www.mirm.pitt.edu/programs/clinical_translation/ECM.asp. 33 Morley Safer, “Growing Body Parts,” 60 Minutes, December 13

, 2009, www.cbsnews.com/stories/2009/12/11/60minutes/main5968057_page4.shtml?tag=contentMain;contentBody. 34 Donna Miles, “Regenerative Medicine Shows Promise for Wounded Warriors,” American Forces Press Service, February 25, 2010. 35 See DARPA, “Blood Pharming,” www.darpa.mil/dso/thrusts/bio/tactbio_med

et al., “The Demographic and Biomedical Case,” 4. Index Acron Cell Company Adam and Eve Adenovirus Adoption Adulthood/adultolescents AFIRM. See Armed Forces Institute of Regenerative Medicine Afterlife Ageless: The Naked Truth About Bioidentical Hormones (Somers) Aging(fig.) age differences in relationships/ siblings anti-aging therapies and business leaders chronological vs. biological

Ames, Bruce Anatomy of Love (Fisher) Angola Annas, George Antibiotics Apple Inc. Aquinas, St. Thomas Archimedes Archon Genomics X PRIZE Aristotle Armed Forces Institute of Regenerative Medicine (AFIRM) Arnett, Dr. Jeffrey Jensen Art Artemisinin Arteriocyte company Artificial intelligence (AI) Artificial life Asian American females Asimov, Isaac Association of Medical Practitioners and Dentists

of Medicine) Lou Gehrig’s disease Lower, Richard Lugo, Luis E. Lungs Lysosomes McArthur Foundation Network on Transitions to Adulthood McClintick, David McGowan Institute for Regenerative Medicine McKibben, Bill McKubre, Dr., Michael McMaster University (Ontario) Macular degeneration Maher, Derek Malaria Male fertility Malthus, Thomas Manuelli, Rodolfo Mao Zedong Markel, Howard Marriage remarriage

, Virginia Rational choice theory Rational Optimist, The (Ridley) Rats Raw materials RealAge.com Recker, Nancy Recycling Redstone, Sumner Refrigeration Regeneration/replacement of body parts(fig.) Regenerative medicine. See also Regeneration/replacement of body parts Regenerus, Mark Regenexx procedure Rejuvenation Rejuvenation Research (journal) Religion college graduates and belief systems(table)(table) and death

capitalists Veolia Environment Group Virtual reality Viruses Vitamins Vitrification process Voronoff, Serge Vouchers Wages. See also Income Waiting for Superman (documentary) Wake Forest Institute for Regenerative Medicine Wall Street Journal Wal-Mart Warneryd, Karl-Erik Waste management Water issues Watson, James Watters, Ethan Wealth and health and religion See also Income; under

We Are Electric: Inside the 200-Year Hunt for Our Body's Bioelectric Code, and What the Future Holds

by Sally Adee  · 27 Feb 2023  · 329pp  · 101,233 words

complete set of five fingers. The results are not yet in but this Schrödinger’s appendage could change the future of an entire scientific field. “Regenerative medicine” is an umbrella term that was only invented about thirty years ago to cover the wide variety of ways people have tried to replace what

stem cell therapy is better than the other things we’re doing, after all these years,” says Stephen Badylak, who runs the McGowan Institute for Regenerative Medicine in Pittsburgh. So Levin is trying something completely different. Instead of trying to micromanage the wildly complicated universe of molecular and chemical interactions involved in

. In 2016, Microsoft billionaire Paul Allen added nearly $10 million to Levin’s coffers. The open question now: when will it jump to humans? Electrifying regenerative medicine Stephen Badylak heads up one of the largest projects on regeneration yet undertaken. It involves fifteen different investigators from multiple disciplines at eight separate institutions

formation. “Star Wars–type stuff,” Badylak says. He is convinced that bioelectricity will play a role. Bioelectricity researchers are considered the weird kids at the regenerative medicine table. Their paradigm is not entirely in step with early twenty-first-century science, which is heavily focused on genetics as the primary driver of

early embryonic development, is now among those investigating the electrical dimensions that seem to influence how zebrafish get their stripes.45 It should be said: regenerative medicine could certainly use the help. Organ transplants require an often lifelong regimen of immune-suppressing drugs to stop the body rejecting the new organ, which

. The idea here is that we need to understand how collections of competent agents work together toward large goals.” That would have obvious corollaries in regenerative medicine: how do cells get together and agree on building something large, like an organ, or in fact, the whole body? It might also yield insights

, a more complete understanding of their significance in bioelectric signaling is driving new research into how these drugs could be repurposed for cancer therapies and regenerative medicine. But it also opens up a more unsettling question: if we’re already taking so many of these drugs, do we have a complete understanding

, Christine E. (ed.). The Physiology of Bioelectricity in Development, Tissue Regeneration and Cancer. Boca Raton: CRC Press, 2011, p. 69 2 Sampogna, Gianluca, et al. “Regenerative Medicine: Historical Roots and Potential Strategies in Modern Medicine.” Journal of Microscopy and Ultrastructure, vol. 3, no. 3 (2015), pp. 101–7 (p. 101) 3 Power

The Transhumanist Reader

by Max More and Natasha Vita-More  · 4 Mar 2013  · 798pp  · 240,182 words

, computer science and engineering, cognitive science and the neurosciences, neural-computer interface research, materials science, artificial intelligence, the array of sciences and technologies involved in regenerative medicine and life extension, genetic engineering, and nanotechnology. A genuine understanding of the goals and potentials of transhumanism requires taking an ­interdisciplinary view, integrating the physical

radically extending human lifespan. Human enhancement technologies include biotechnology, nanotechnology, information technology, and cognitive and neuro sciences. The most referred to methods for enhancement include regenerative medicine, nanomedicine, and brain preservation. 4 Primarily as suggested by Manfred Clynes and Nathan Kline in “Cyborgs and Space” (1960) and tangentially as suggested by Donna

, which form the media of life expansion. The biotechnogenesis media of life expansion for the human and transhuman include biotechnology (genetic engineering, and methods of regenerative medicine, i.e., stem cell cloning and regenerative cells growing organs), nanotechnology (nanomedicine, nanorobotics, and molecular manufacturing) and human–computer interaction, including artificial intelligence (artificial general

transhuman domain of “one mind, many forms.” The non-original forms need not all be chunks of software restricted to cyberspace. With extensions of the regenerative medicine technology being used today to grow skin, blood vessels, and organs it will be possible to grow an entire fresh body outside of a womb

plasticity platform policy Popper, Frank Popper, Karl post-biological posthuman posthuman condition posthumanism postmodernism precautionary principle Primo Posthuman principles Prisco, Giulio Proactionary Principle prosthetic rationalism regenerative medicine religion relinquishment repugnance reputation-based filtering respirocyte rights risk robot robotics Rose, Michael Rothblatt, Martine Sandberg, Anders Sandel, Michael Schilling, Alfons self-organization Sententia, Wrye

The Science and Technology of Growing Young: An Insider's Guide to the Breakthroughs That Will Dramatically Extend Our Lifespan . . . And What You Can Do Right Now

by Sergey Young  · 23 Aug 2021  · 326pp  · 88,968 words

: “Living More Means Living Less” Myth 2: “Longevity Is Dangerous and Selfish” Myth 3: “Life Extension Is Not Really Possible” The Genetic Engineering Breakthrough The Regenerative Medicine Breakthrough The Health-Care Hardware Breakthrough The Health Data Intelligence Breakthrough CHAPTER 4: What Is Aging, Anyway?—The Colorful Theories of What Causes Aging, and

therapy may very well end the scourge of cancer, which takes an estimated ten million lives per year. THE REGENERATIVE MEDICINE BREAKTHROUGH Another major transformation driving the Longevity Revolution is the field of regenerative medicine. During aging, the body’s systems and tissues break down, as does the body’s ability to repair and

line up behind the possibilities. Stem cell therapies are but one class of a number of so-called therapies that make up the field of regenerative medicine. The idea is really quite simple—like automobiles, our bodies suffer damage over time. And even as longevity science helps you live an additional ten

a lesser state of entropy to a greater one. Our bodies are not excused from this law—we break down. Scientists in the field of regenerative medicine therefore seek not necessarily to prevent the natural breakdown of your body’s tissues and organs but rather to restore, augment, and replace them whenever

possible. Near Horizon regenerative medicine will offer the potential to replenish or replace any decaying or damaged tissue in your body. You will be able to grow your own replacement

that do often don’t last long.8 When stem cell therapy does come of age, it will be a revolutionary technology. Terry Grossman, MD, regenerative medicine expert and author of multiple books on aging, including Transcend: Nine Steps to Living Well Forever, runs one of the few authorized stem cell therapy

continued to play his favorite sport of basketball—backpack, artificial heart, and all. NEW (AND OLD) IDEAS IN REGENERATION While some of these ideas for regenerative medicine are pretty “out there,” they aren’t even the strangest. If you are a fan of the HBO series Silicon Valley, you may remember a

blood plasma, or Yamanaka factors to reprogram your cells. We have a long way to go before these therapies are useful or even reliable. But regenerative medicine is accelerating fast, and it will see multiple waves of innovation in the coming years. Researchers at the Mayo Clinic and other leading institutions are

already beginning to see promising results with stem cell regeneration in the brains of mice, reversing Alzheimer’s, Parkinson’s, and other neurological conditions.41 Regenerative medicine is a bit like intergalactic travel—we have some well-considered theories of the mechanics that should make it possible, but we don’t have

, 2019, https://www.fda.gov/vaccines-blood-biologics/cellular-gene-therapy-products/approved-cellular-and-gene-therapy-products. 8Food and Drug Administration, “FDA announces comprehensive regenerative medicine policy framework,” Food Drug Administration, last modified November 15, 2017, https://www.fda.gov/news-events/press-announcements/fda-announces-comprehensive

-regenerative-medicine-policy-framework; Claire F. Woodworth et al., “Intramedullary cervical spinal mass after stem cell transplantation using an olfactory mucosal cell autograft,” Canadian Medical Association Journal

.1101/710210. 40David Sinclair, “Let’s talk about cellular reprogramming,” Life Span Book, last modified June 27, 2019, https://lifespanbook.com/cellular-reprogramming/. 41Center for Regenerative Medicine, “Neuroregeneration,” Mayo Foundation for Medical Education and Research, accessed July 20, 2020, https://www.mayo.edu/research/centers-programs/center

-regenerative-medicine/focus-areas/neuroregeneration. Chapter 9 1A. M. Hatzel, History and organization of the vital statistics system (Washington DC: National Center for Health Statistics, 1997), 12.

and epigenome and genes hallmarks of interrelated physiological conditions with in natural world new era of overlapping aspects of and psychological age reversing (see also regenerative medicine) and stem cell function theories of and Zhavoronkov’s DNN clocks AIDoc alcohol consumption Allen, Woody Almirall Amazon Ambrosia Amen, Daniel Ames, Bruce Amgen AMPK

politics of old age rapamycin resveratrol senolytics supplements Longevity Revolution gene engineering in health-care hardware in health data intelligence in and myths about longevity regenerative medicine in Longevity Vision Fund (LVF) Longevity @ Work Longo, Valter López-Otín, Carlos Lung Biotechnology Luxturna LyGenesis M Macdonald, Malcolm Magic Leap Makovec, Mila Malthus, Thomas

. McGriff, Herschel McKenna, Paul McKeown, Greg McKeown, Teresa meaning in life Medcom medical profession medicine individually-tailored (see precision medicine) reactive vs. proactive regenerative (see regenerative medicine) telemedicine The Medicines Company meditation Medtronic Mellon, Jim memory implants Mercury, Freddy Mesko, Bertalan metabolome metformin Methuselah Foundation methylation clocks Metro Trains Melbourne Metzl, Jamie

, Elon Myant N nanotechnology natural language processing (NLP) Near Horizon of Longevity (150 years). see also individual topics diagnostics gene engineering longevity pills precision medicine regenerative medicine Nebula Genomics Neuralink Newcastle University next-generation sequencing (NGS) nicotinamide adenine dinucleotide (NAD+) nicotinamide mononucleotide (NMN) nicotinamide riboside (NR) Nógrády, Georges noninvasive prenatal test (NIPT

and aging and longevity Q quality of life quantum computing R radiology Raffray, Andre-Francois Ramirez, Steve rapamycin Rapa Nui people Ratelband, Emile Rausch, Randy regenerative medicine bionics and law of entropy and organ regeneration and organ transplants parabiosis (young blood transfusions) stem cell therapies Yamanaka factors in religion Repatha resveratrol Robbins

Ageless: The New Science of Getting Older Without Getting Old

by Andrew Steele  · 24 Dec 2020  · 399pp  · 118,576 words

what we can expect them to do. Getting the right cells to the right place at the right time is key to using them for regenerative medicine. The definition of a stem cell is a cell which has a choice when it divides: it can either do what most cells do when

weakest link, and a revitalised thymus might not be enough to mount a strong immune response if the lymph nodes aren’t in good shape. Regenerative medicine for our lymphatic system is under development, but it’s at an earlier stage than work on the thymus and could do with some extra

.1093/jn/10.1.63 ageless.link/ovmys4 … diversity of life on Earth … This fun and accessibly written article explores some ways, from ageing to regenerative medicine, that animals can inform biomedical science. João Pedro de Magalhães, ‘The big, the bad and the ugly: Extreme animals as inspiration for biomedical research’, EMBO

Immortality, Inc.

by Chip Walter  · 7 Jan 2020  · 232pp  · 72,483 words

plays, investing money in venture funds like Proteus, and start-ups with names like Halcyon Molecular and Butterfly Sciences. Some analysts reckon the market for regenerative medicine will hit $20 billion by 2025. Aubrey de Grey was still funding multiple longevity research projects including one at the University of Arizona and another

Hacking the Code of Life: How Gene Editing Will Rewrite Our Futures

by Nessa Carey  · 7 Mar 2019  · 182pp  · 45,873 words

how these adorable little salamanders pull this trick. And we’d like to know if we can adapt their abilities in order to improve human regenerative medicine. This is becoming an area of intense focus, because of the ageing human population. Many of our tissues didn’t evolve to keep going for

– is not on anyone’s therapeutic horizon.* But axolotls can also regenerate their spinal cord after severe injury and this is a much more appealing regenerative medicine opportunity. Genetic modification has been used to probe the importance of specific genes in spinal cord regeneration in axolotls.7 The hope is that eventually

(Indiana) 1 Pusztai, Árpád 1 R rabbits 1, 2 radiation 1, 2 raptors 1 rats 1, 2 recessive genetic disorders 1 red blood cells 1 regenerative medicine 1 research flawed 1 investments in 1 retinitis pigmentosa 1 rheumatoid arthritis 1, 2 rice Golden 1 yields 1 Riley, Eleanor 1 risk, assessing 1

The Human Age: The World Shaped by Us

by Diane Ackerman  · 9 Sep 2014  · 380pp  · 104,841 words

winter, cross-pollination is encouraged. Just as the planners hoped, many collaborations have ensued, the new field of regenerative medicine is taking wing, and bioprintmakers are crafting tailor-made body parts. The principle of “regenerative medicine” is magically simple: if a heart or jaw is damaged, either teach the body to regrow another or

, 95–108 red clover, 166 Red Delicious, 137 red foxes, 153 red kites, 132 Red Sea Star Restaurant, 76 reef death, 36–37 refrigerators, 87 regenerative medicine, 244 Rehabilitation Institute of Chicago, 254–55 reindeer, 132 Reiss, Diana, 202, 204 religion, 176 Relman, David, 300 Renaissance, 190 Renault, 83 renewable energy, 307

The Future Is Faster Than You Think: How Converging Technologies Are Transforming Business, Industries, and Our Lives

by Peter H. Diamandis and Steven Kotler  · 28 Jan 2020  · 501pp  · 114,888 words

their efforts on one particular Wnt pathway that regulates the behavior of adult stem cells. Via this methodology, Samumed has developed nine different so-called “regenerative medicines.” All are in the FDA’s pipeline, including everything from hair-loss drugs to Alzheimer’s drugs. Yet it’s their success against arthritis and

Wnt signaling pathway, see: https://www.sciencedirect.com/science/article/pii/S1877117317301850. twenty different diseases: Kibar, author interview. Samumed has developed nine different so-called “regenerative medicines”: See: https://www.samumed.com/pipeline/default.aspx. 350 million people worldwide: Juyoung Park, “Various Types of Arthritis in the United States: Prevalence and Age

, 218–19 California, University of: at Berkeley, 131 at San Diego, 239 Cameron, Geoffrey, 237–38 cancer, 89, 90, 162, 164–65 rapamycin and, 175 regenerative medicines and, 177 capital, availability of, 73–77 Carbeck, Jeff, 62 carbon dioxide (CO2) emissions, 215–16 see also greenhouse gasses Carbon Disclosure Project, 217 Carbon

rapamycin, 174–75 Rea, Andrew, 128 reading, AI and, 35 real estate industry, 181 convergence and, 196–200 Reebok, 109 reforestation, drones and, 224, 227 regenerative medicines, 176–77 Renault, 219 renewable energy, 78, 214, 215–18 convergence and, 217–18 see also specific technologies ridesharing: autonomous cars and, 14–16, 19

50 Future Ideas You Really Need to Know

by Richard Watson  · 5 Nov 2013  · 219pp  · 63,495 words

TECHNOLOGICAL CHANGE 16 An internet of things 17 Quantum & DNA computing 18 Nanotechnology 19 Gamification 20 Artificial Intelligence HEALTH & WELL-BEING 21 Personalized genomics 22 Regenerative medicine 23 Remote monitoring 24 User-generated medicine 25 Medical data mining SOCIAL & ECONOMIC DIMENSIONS 26 Living alone 27 Dematerialization 28 Income polarization 29 What (& where

via Walmart 2020 Hospitals and insurers offer free genome profiling 2030 Google dating based upon ideal DNA profiles 2050 DNA database creates human underclass 22 Regenerative medicine Is it possible to prevent or reverse the aging process, perhaps by fiddling with tired tissues and cells, or even growing new organs inside a

shown in some studies to significantly extend the life of mice and some say that the idea can be applied to people too. Developments in regenerative medicine (see Chapter 22) tap into some of these urges and impulses too, although beyond this, things can get a little weird. Some people, for example

Longshot

by David Heath  · 18 Jan 2022

The Demon in the Machine: How Hidden Webs of Information Are Finally Solving the Mystery of Life

by Paul Davies  · 31 Jan 2019  · 253pp  · 83,473 words

Homo Deus: A Brief History of Tomorrow

by Yuval Noah Harari  · 1 Mar 2015  · 479pp  · 144,453 words

Radicals Chasing Utopia: Inside the Rogue Movements Trying to Change the World

by Jamie Bartlett  · 12 Jun 2017  · 390pp  · 109,870 words

Entangled Life: How Fungi Make Our Worlds, Change Our Minds & Shape Our Futures

by Merlin Sheldrake  · 11 May 2020

A Shot to Save the World: The Inside Story of the Life-Or-Death Race for a COVID-19 Vaccine

by Gregory Zuckerman  · 25 Oct 2021  · 368pp  · 106,185 words

Fabricated: The New World of 3D Printing

by Hod Lipson and Melba Kurman  · 20 Nov 2012  · 307pp  · 92,165 words

The Fourth Industrial Revolution

by Klaus Schwab  · 11 Jan 2016  · 179pp  · 43,441 words

Augmented: Life in the Smart Lane

by Brett King  · 5 May 2016  · 385pp  · 111,113 words

In Pursuit of Memory: The Fight Against Alzheimer's

by Joseph Jebelli  · 30 Oct 2017  · 294pp  · 87,429 words

Life's Edge: The Search for What It Means to Be Alive

by Carl Zimmer  · 9 Mar 2021  · 392pp  · 109,945 words

The Mutant Project: Inside the Global Race to Genetically Modify Humans

by Eben Kirksey  · 10 Nov 2020  · 599pp  · 98,564 words

Branded Beauty

by Mark Tungate  · 11 Feb 2012  · 290pp  · 87,084 words

An Optimist's Tour of the Future

by Mark Stevenson  · 4 Dec 2010  · 379pp  · 108,129 words

Science Fictions: How Fraud, Bias, Negligence, and Hype Undermine the Search for Truth

by Stuart Ritchie  · 20 Jul 2020

Editing Humanity: The CRISPR Revolution and the New Era of Genome Editing

by Kevin Davies  · 5 Oct 2020  · 741pp  · 164,057 words

Lifespan: Why We Age—and Why We Don't Have To

by David A. Sinclair and Matthew D. Laplante  · 9 Sep 2019

The 4-Hour Body: An Uncommon Guide to Rapid Fat-Loss, Incredible Sex, and Becoming Superhuman

by Timothy Ferriss  · 1 Dec 2010  · 836pp  · 158,284 words

The Singularity Is Nearer: When We Merge with AI

by Ray Kurzweil  · 25 Jun 2024

The Making of a World City: London 1991 to 2021

by Greg Clark  · 31 Dec 2014

Exponential: How Accelerating Technology Is Leaving Us Behind and What to Do About It

by Azeem Azhar  · 6 Sep 2021  · 447pp  · 111,991 words

To Be a Machine: Adventures Among Cyborgs, Utopians, Hackers, and the Futurists Solving the Modest Problem of Death

by Mark O'Connell  · 28 Feb 2017  · 252pp  · 79,452 words

MONEY Master the Game: 7 Simple Steps to Financial Freedom

by Tony Robbins  · 18 Nov 2014  · 825pp  · 228,141 words

Epigenetics: How Environment Shapes Our Genes

by Richard C. Francis  · 14 May 2012

The Prefect

by Alastair Reynolds  · 2 Jan 2007  · 764pp  · 188,807 words

Physics of the Future: How Science Will Shape Human Destiny and Our Daily Lives by the Year 2100

by Michio Kaku  · 15 Mar 2011  · 523pp  · 148,929 words

Seasteading: How Floating Nations Will Restore the Environment, Enrich the Poor, Cure the Sick, and Liberate Humanity From Politicians

by Joe Quirk and Patri Friedman  · 21 Mar 2017  · 441pp  · 113,244 words

CRISPR People: The Science and Ethics of Editing Humans

by Henry T. Greely  · 22 Jan 2021

The Rise and Fall of Modern Medicine

by M. D. James le Fanu M. D.  · 1 Jan 1999  · 564pp  · 163,106 words

Future Crimes: Everything Is Connected, Everyone Is Vulnerable and What We Can Do About It

by Marc Goodman  · 24 Feb 2015  · 677pp  · 206,548 words

Radical Abundance: How a Revolution in Nanotechnology Will Change Civilization

by K. Eric Drexler  · 6 May 2013  · 445pp  · 105,255 words

The Driver in the Driverless Car: How Our Technology Choices Will Create the Future

by Vivek Wadhwa and Alex Salkever  · 2 Apr 2017  · 181pp  · 52,147 words

Critical: Science and Stories From the Brink of Human Life

by Matt Morgan  · 29 May 2019  · 218pp  · 70,323 words

Money: Vintage Minis

by Yuval Noah Harari  · 5 Apr 2018  · 97pp  · 31,550 words

Beyond: Our Future in Space

by Chris Impey  · 12 Apr 2015  · 370pp  · 97,138 words

The Future of the Professions: How Technology Will Transform the Work of Human Experts

by Richard Susskind and Daniel Susskind  · 24 Aug 2015  · 742pp  · 137,937 words

A Curious Mind: The Secret to a Bigger Life

by Brian Grazer and Charles Fishman  · 6 Apr 2014  · 302pp  · 74,878 words

Fragile Lives: A Heart Surgeon’s Stories of Life and Death on the Operating Table

by Stephen Westaby  · 9 Feb 2017  · 467pp  · 92,081 words

Thinking Machines: The Inside Story of Artificial Intelligence and Our Race to Build the Future

by Luke Dormehl  · 10 Aug 2016  · 252pp  · 74,167 words

Life at the Speed of Light: From the Double Helix to the Dawn of Digital Life

by J. Craig Venter  · 16 Oct 2013  · 285pp  · 78,180 words

Falter: Has the Human Game Begun to Play Itself Out?

by Bill McKibben  · 15 Apr 2019

The Zero Marginal Cost Society: The Internet of Things, the Collaborative Commons, and the Eclipse of Capitalism

by Jeremy Rifkin  · 31 Mar 2014  · 565pp  · 151,129 words

The Great Wave: The Era of Radical Disruption and the Rise of the Outsider

by Michiko Kakutani  · 20 Feb 2024  · 262pp  · 69,328 words

Against Technoableism: Rethinking Who Needs Improvement

by Ashley Shew  · 18 Sep 2023  · 154pp  · 43,956 words

Spineless: The Science of Jellyfish and the Art of Growing a Backbone

by Juli Berwald  · 14 May 2017  · 397pp  · 113,304 words

A Half-Built Garden

by Ruthanna Emrys  · 25 Jul 2022  · 431pp  · 127,720 words

Pivot: The Only Move That Matters Is Your Next One

by Jenny Blake  · 14 Jul 2016  · 292pp  · 76,185 words

Love Yourself Like Your Life Depends on It

by Kamal Ravikant  · 7 Jan 2020

Protocol: how control exists after decentralization

by Alexander R. Galloway  · 1 Apr 2004  · 287pp  · 86,919 words

Wireless

by Charles Stross  · 7 Jul 2009

Could It Be Histamine Intolerance?: Could Your Allergy-Like Symptoms Be Histamine Intolerance?

by Kristie Leong M. D. and Apollo Leong M. D.  · 14 Jun 2017  · 51pp  · 8,378 words

A Man for All Markets

by Edward O. Thorp  · 15 Nov 2016  · 505pp  · 142,118 words