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Uploading the content of one’s mind, including one’s personality, memories and emotions, into a computer may one day be possible, but it won’t transfer our biological consciousness and won’t make us immortal.

Uploading one’s mind into a computer, a concept popularized by the 2014 movie Transcendence starring Johnny Depp, is likely to become at least partially possible, but won’t lead to immortality. Major objections have been raised regarding the feasibility of mind uploading. Even if we could surpass every technical obstacle and successfully copy the totality of one’s mind, emotions, memories, personality and intellect into a machine, that would be just that: a copy, which itself can be copied again and again on various computers.

THE DILEMMA OF SPLIT CONSCIOUSNESS

Neuroscientists have not yet been able to explain what consciousness is, or how it works at a neurological level. Once they do, it is might be possible to reproduce consciousness in artificial intelligence. If that proves feasible, then it should in theory be possible to replicate our consciousness on computers too. Or is that jumpig to conclusions ?

Once all the connections in the brain are mapped and we are able to reproduce all neural connections electronically, we will also be able run a faithful simulation of our brain on a computer. However, even if that simulation happens to have a consciousness of its own, it will never be quite like our own biological consciousness. For example, without hormones we couldn’t feel emotions like love, jealously or attachment. (see Could a machine or an AI ever feel human-like emotions ?)

Some people think that mind uploading necessarily requires to leave one’s biological body. But there is no conscensus about that. Uploading means copying. When a file is uploaded on the Internet, it doesn’t get deleted at the source. It’s just a copy.

The best analogy to understand that is cloning. Identical twins are an example of human clones that already live among us. Identical twins share the same DNA, yet nobody would argue that they also share a single consciousness.

It will be easy to prove that hypothesis once the technology becomes available. Unlike Johnny Depp in Transcend, we don’t have to die to upload our mind to one or several computers. Doing so won’t deprive us of our biological consciousness. It will just be like having a mental clone of ourself, but we will never feel like we are inside the computer, without affecting who we are.

If the conscious self doesn’t leave the biologically body (i.e. “die”) when transferring mind and consciousness, it would basically mean that that individual would feel in two places at the same time: in the biological body and in the computer. That is problematic. It’s hard to conceive how that could be possible since the very essence of consciousness is a feeling of indivisible unity.

If we want to avoid this problem of dividing the sense of self, we must indeed find a way to transfer the consciousness from the body to the computer. But this would assume that consciousness is merely some data that can be transferred. We don’t know that yet. It could be tied to our neurons or to very specific atoms in some neurons. If that was the case, destroying the neurons would destroy the consciousness.

Even assuming that we found a way to transfer the consciousness from the brain to a computer, how could we avoid consciousness being copied to other computers, recreating the philosophical problem of splitting the self. That would actually be much worse since a computerized consciousness could be copied endless times. How would you then feel a sense of unified consciousness ?

Since mind uploading won’t preserve our self-awareness, the feeling that we are ourself and not someone else, it won’t lead to immortality. We’ll still be bound to our bodies, but life expectancy for transhumanists and cybernetic humans will be considerably extended.

IMMORTALITY ISN’T THE SAME AS EXTENDED LONGEVITY

Immortality is a confusing term since it implies living forever, which is impossible since nothing is eternal in our universe, not even atoms or quarks. Living for billions of years, while highly improbable in itself, wouldn’t even be close to immortality. It may seem like a very large number compared to our short existence, but compared to eternity (infinite time), it isn’t much longer than 100 years.

Even machines aren’t much longer lived than we are. Actually modern computers tend to have much shorter life spans than humans. A 10-year old computer is very old indeed, as well as slower and more prone to technical problems than a new computer. So why would we think that transferring our mind to a computer would grant us greatly extended longevity ?

Even if we could transfer all our mind’s data and consciousness an unlimited number of times onto new machines, that won’t prevent the machine currently hosting us from being destroyed by viruses, bugs, mechanical failures or outright physical destruction of the whole hardware, intentionally, accidentally or due to natural catastrophes.

In the meantime, science will slow down, stop and even reverse the aging process, enabling us to live healthily for a very long time by today’s standards. This is known as negligible senescence. Nevertheless, cybernetic humans with robotic limbs and respirocytes will still die in accidents or wars. At best we could hope to living for several hundreds or thousands years, assuming that nothing kills us before.

As a result, there won’t be that much differences between living inside a biological body and a machine. The risks will be comparable. Human longevity will in all likelihood increase dramatically, but there simply is no such thing as immortality.

CONCLUSION

Artificial Intelligence could easily replicate most of processes, thoughts, emotions, sensations and memories of the human brain — with some reservations on some feelings and emotions residing outside the brain, in the biological body. An AI might also have a consciousness of its own. Backing up the content of one’s mind will most probably be possible one day. However there is no evidence that consciousness or self-awareness are merely information that can be transferred since consciousness cannot be divided in two or many parts.

Consciousness is most likely tied to neurons in a certain part of the brain (which may well include the thalamus). These neurons are maintained throughout life, from birth to death, without being regenerated like other cells in the body, which explains the experienced feeling of continuity.

There is not the slightest scientific evidence of a duality between body and consciousness, or in other words that consciousness could be equated with an immaterial soul. In the absence of such duality, a person’s original consciousness would cease to exist with the destruction of the neurons in his/her brain responsible for consciousness. Unless one believes in an immaterial, immortal soul, the death of one’s brain automatically results in the extinction of consciousness. While a new consciousness could be imitated to perfection inside a machine, it would merely be a clone of the person’s consciousness, not an actual transfer, meaning that that feeling of self would not be preserved.

———

This article was originally published on Life 2.0.

Globe Staff — The Boston Globe

http://www.bostonglobe.com/rw//Boston/2011-2020/WebGraphics/National/BostonGlobe.com/2014/02/18brain/18brain.jpg

Keeping your attention

A growing body of research suggests noninvasive brain stimulation, such as transcranial direct current stimulation (tDCS), may improve specific cognitive skills in healthy subjects. Put another way, a small intermittent shock to your brain might keep your attention from eroding throughout the day.

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It’s been a good month for miracles. And by miracles I mean our oldest miracle, that first miracle, the creation of life itself.

During these first weeks in May, two separate teams working at two separate institutions announced that when it comes to creating life from scratch, well, there are a couple of new gods in town.

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- @ClubOfINFO — A recent massive leap forward in synthetic life, recently published in Nature, is the expansion of the alphabet of DNA to six letters rather than four, by synthetic biologists – the technicians to whom we entrust the great task of reprogramming life itself.

Breakthroughs such as the above are quite certain to alert more and more people to synthetic biology and its possible consequences. For as long as such breathtaking discoveries continue to be made in this area of research, it is inevitable that latent fears among society will come closer to the surface.
There is likely to be a profound distrust, whether inculcated by religion or by science fiction horror movies and literature, towards the concept of tampering with nature and especially the very building blocks that brought us into existence. While the people with this profoundly negative reaction are not sure what they are warning against, they are motivated by a vitalistic need to believe that the perversion of life is going to provoke hidden – almost divine – repercussions.
Is it really true that no-one should be meddling with something so fundamental to life, or is synthetic biology the science of our century, our civilization’s key to unlimited energy? Whatever the answer may be, the science enabling it already exists and is growing rapidly, and history seems to show that any technology once invented is impossible to contain.
The fact that synthetic base pairs now exist should confirm, for many, the beginning of humanity’s re-engineering of the structures of life itself. As it is unprecedented in our evolution, we are presented with an ethical question and all points of view should be considered, no matter how radical or conservative they are.
It is hard to find a strong display of enthusiasm for the use of synthetic biology as a solution to the world’s greatest problems, even among the transhumanists and techno-progressives. Most of the popular enthusiasm for technological change, particularly the radical improvement of life and the environment through technology, focuses on artificial intelligence, nanotechnology, and things like solar cells as the solution to energy crises. There is not much of a popular case being made for synthetic biology as one of the keys to civilization’s salvation and humanity’s long-term survival, but there should be. The first obstacles to such a case are most likely fear and prejudice.
Even among those theorists who offer the most compelling arguments about self-sustaining technologies and their potential to democratize and change the means of production, enthusiasm for synthetic biology is purposely withheld. Yannick Rumpala’s paper Additive manufacturing as global remanufacturing of politics has a title that speaks for itself. It sees in 3d printing the potential to exorcize some of the most oppressive structural inevitabilities of the current division of labor, transforming economics and politics to be more network-based and egalitarian. When I suggested to Yannick that synthetic organisms – the most obvious choices of technology that will be able to self-replicate and become universally available at every stratum of global society – he was reserved. This was half due to not having reflected on biotechnology’s democratic possibilities, and half due to a principled rejection of “artificial environments”.
Should synthetic biology make people nervous rather than excited, and should be it be rejected as controversial and potentially dangerous rather than embraced as a potentially world-changing and highly democratic technology? The second tendency that results in a rejection of synthetic biology by those who normally go about endorsing technology as the catalyst for social change is the tendency to point to a very specific threat – a humanity-threatening virus.
This second rejection of synthetic biology is easier to respond to than the first, because it is very specific. In fact, the threat is discussed in sufficient depth by synthetic biology’s own leading scientist himself, J. Craig Venter, in his 2013 book Life at the Speed of Light. In anticipation of a viral threat, “bio-terror” is considered the top danger by the US government, but “bio-error” is seen by Venter as an even bigger danger. There is a possibility of individual accidents using synthetic biology, analogous to medical accidents from overdoses. It could involve a virus introduced as a treatment for cancer becoming dangerous (like in the movie, I Am Legend). This is especially possible, if the technology becomes ubiquitous and “DIY”, with individuals customizing their own treatments by synthesizing viruses. However, many household materials and technologies already present the same level of threat to lone individuals, so there is no reason to focus on the popular use of synthetic biology as an extraordinary threat.
A larger scale disaster is far easier to prevent than the death or illness of a lone individual from his own synthetic biology accident. A bio-terror attack, Venter writes, would be extremely difficult using synthetic biology. Synthetic biology is going to give medical professionals the ability to quickly sequence genomes and transmit them on the airwaves to synthesize new vaccines. This would only make it easier to fight against bioterror or a potentially apocalyptic virus, as the threat could be found and sequenced by computers, with the cure being synthesized and introduced almost immediately. Despite this fact that synthetic biology provides the best defense against its own possible threats, it is still important to be balanced in our recognition of the benefits and threats of this technology.
More dangerous than a virus breaking loose from the lab, Venter recognizes the potential for the abuse of synthetic biology by hostile governments. Of most concern, custom viruses could be used as assassins against individuals, whether by governments or conspirators. A cold could be created to have no effect on most people, but be deadly to the President of the United States. All you would need to do is get access to a sample of the President’s genetic material, sequence it, and develop a corresponding virus that exploits a unique weakness in his/her DNA. This danger in particular seems to be more worthy of concern than an apocalyptic virus or devastating bioterrorist attack striking the whole of humanity.
The ethical burden on those who work with synthetic life, as Venter takes from a US government bioethics study, requires “a balance between the pessimistic view of these efforts as yet another example of hubris and the optimistic view of their being tantamount to “human progress” ”. Synthetic biologists must be “good stewards”, and must “move genomic research forward with caution, armed with insights from value traditions with respect to the proper purposes and uses of knowledge.”
However, there is also an undeniable reason to embrace synthetic biology as a solution to many of the world’s most urgent problems. J. Craig Venter’s own words confirm that synthetic life deserves to be included in Yannick Rumpala’s analysis, as a democratic technology that can transform global politics and economics and counter disparity in the world:

“Creating life at the speed of light is part of a new industrial revolution that will see manufacturing shift away from the centralized factories of the past to a distributed, domestic manufacturing future, thanks to 3-d printers.”

There may be a terrible threat from synthetic biology, but it will not necessarily be bio-error or bio-terror. The abuse could come from none other than a very familiar leviathan that has already violated the trust of its citizens before: the supposedly incorruptible United States government. Already, there is an interest in sequencing everyone’s genomes and placing them on a massive database, ostensibly for medical purposes. One cannot help but connect this with the US government’s fascination with tracking and monitoring its own citizens. If the ability to customize a virus to target an individual is true, the killer state will almost certainly maintain the military option of synthetic biology on the table – a possible way of carrying out “targeted killings” around the world in a more sophisticated and secretive manner than ever before.
The threats of synthetic biology are elusive and verge on being conspiracy theories or overused movie plots, but the magnificent potential of synthetic biology to eliminate inequality and suffering in the world is clear and present. In fact, the greatest bio-disaster in the history of the world may be humanity’s reluctance to remanufacture life in order to make more efficient use of the world’s declining natural resources. At the same time, the belief that ubiquitous synthetic biology will threaten life is secondary and distracting, as the true responsibility for unjustly threatening life is likely to always be with the state.

By Harry J. BenthamMore articles by Harry J. Bentham

Originally published on 13 May 2014 at the Institute for Ethics and Emerging Technologies (IEET)

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Scientists Have Reconnected Severed Nerves with Liquid Metal

Get your T-1000 jokes ready, because we’re one step closer to liquid metal-powered people. As a team of Chinese biomedical engineers recently used an alloy to close the gap between severed sciatic nerves in frogs. In effect, it made electronic circuits out of nerves — and it worked.

Shockingly, this sci-fi solution is as simple as it sounds. Looking for a way to keep muscles active while nerves healed, the Tsinghua University researchers identified liquid metal as a highly conductive but also safe material to bridge the gap. They decided on the liquid metal alloy gallium-indium-selenium, a benign material that’s liquid at body temperature. (This liquid metal is not to be confused with the brand-name wonder material Liquidmetal, which is not actually a liquid.) The liquid metal alloy is also highly conductive.

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Since the first modern Olympic Games bowed in Athens in 1896, humanity has gradually integrated the developments of science and technology into the realm of competitive sport.

The various attempts to slow the utilization of advanced materials, pharmaceuticals, biotechnology, and robotics is akin to keeping certain gender or ethnic groups out of the games. Not just discrimination, but impeding the flow of progress.

transhuman olympicsIf the ultimate goal of world-level competition is advancement of human physical ability, then athletes, coaches, physicians, and biotech engineers should be able to choose the very best tactics and strategies to achieve that goal.

A Transhuman Olympics would be wildly entertaining, but would also spur the development of biotechnology at a pace that public and private science could never keep up with. While the ethics of such an event might be hotly contested, the benefits to humankind would be lasting and far reaching.

Competitors involved would sign a medical waiver and hold harmless agreement. Education for both athletes and trainers would be mandatory so that participants and competitors understand the risks. Athletes in particular would have to attest that they are willingly participating in the games and that at the time of their consent to do so, they were of sound mind.

Performance enhancing substances — anabolic steroids, human growth hormones — would be permitted. Safer formulations would be encouraged. Experimentation would also be encouraged, insofar as it would drive the development of substances with less extreme, more commercial applications, outside of the games.

Biotechnology augmentation and bioengineered device integration would also be advised. Biotech is still in its relative infancy and the mainstream medical benefit for technology spun-off from this kind of competitive arena would be amazingly valuable.

In short, virtually any edge that provides enhanced performance times, distances, heights, or otherwise advances human competitive ability — be it mechanical, pharmaceutical, biotechnological, or genetic — would be considered fair game.

Boredom and sport would never again occur together in the same sentence. The performance-enhancing scandal that supposedly hurt the image of baseball in the late 1990s, led to new records from players like Mark McGwire, Sammy Sosa, and Roger Clemens, as well as a substantial lift in audience attention at the world level.

Some of the most competitive and gifted athletes in baseball watched as their reputations were dragged through the proverbial mud, as members of US Congress and the Federal judiciary presided over efforts to jail both trainers and athletes alike.

In reality, the use of performance enhancing substances in baseball goes back to 1889, when pitcher Pud Galvin used, and vocally endorsed, Brown-Séquard Elixir, a monkey-sourced testosterone supplement.

“Doping,” as it is commonly referred to, remains an American taboo subject.

The Transhuman Olympics would provide a venue for science to be more competitive and for athletes and trainers to take measures that they deem befitting to secure the best performance results.

Rather than laboratory-based timelines — often handled in academic settings, with limited access to financial resources — scientific improvements would need to find practical applications in the real world. Research efforts would have to provide meaningful, actionable improvements to athletic performance, within real world timeframes.

Imagine for a moment the incredible entertainment value. Perhaps countries with the most money just emerge victorious. Perhaps smaller scientific efforts with less access to resources would be forced to find novel innovations to gain a competitive advantage.

Watching athletes push the limits of humanity to achieve new records and break through established competitive plateaus is a fundamental facet of human evolution. The Transhuman Olympics would simply better facilitate that process.

Over time, the opportunity to invent new sports based on emerging capabilities and new technological developments would emerge. When the 1896 Olympics revived the ancient Olympic tradition, only one sport was excluded from the games (for you history buffs, the sport was pankration, a mild mixed martial art). However, with new technology and advanced human capability comes new competitive territory. Imagine a real-life Icarus competing with other airborne humans. Underwater games or sports in low-Earth orbit — the competitive horizon is endless.

transhuman olympics

Robotic elements, like chaser drones, helping athletes to see around corners or from other perspectives would be spectacular. Imagine force multipliers to provide boosts of strength or improve the strength and resilience of joints, muscles, tendons, and/or ligaments.

Once tested and proven in the venue of competitive sport, these technologies would have the widespread potential for mainstream medical adoption. Think of elderly patients who have trouble walking or individuals dealing with neurodegenerative disorders, now empowered thanks to the sacrifices and risks taken on by these gladiators of evolved sport.

Until modern society overcomes its resistance to unencumbered, more loosely regulated sporting events, the Transhuman Olympics would need to be held in a country with fewer controlled substance laws.

This country would likely receive a substantial windfall of medical tourism, so long as the technology being utilized was also developed there. Cuba springs first to mind but other present-day medical tourism destinations include Argentina, Brunei, Jordan, South Africa, Singapore, New Zealand and many others.

In modern Olympic competition, corporate sponsorship was first forbidden.

It wasn’t until 1972, when the medium of television opened up new channels for advertising, that corporate sponsorship began to emerge. In the Transhuman Olympics, corporate and/or government sponsorship would be essential and robustly encouraged.

With each passing Olympic games, the amount spent increases dramatically. Russia spent $51 billion on the 2014 games in Sochi, in the hopes of capturing and drawing the international spotlight.

In the Transhuman Olympics, the core benefits would include not only spectators and advertising sponsors, but tangible medical advancements and beneficial intellectual property.

We’re already living in the age of the technologically enhanced athlete.

LZR Racer swimsuits, made of woven elastane-nylon and buoyant polyurethane provided swimmers the ability to shave relatively substantial amounts of time from races. Those suits were banned in 2010, following the 2008 Beijing games.

The 1936 Olympics in Berlin showed Hitler that preconceived notions of superiority were no match for the power of diversity.

In 2012, for the first time since the inception of the International Olympic Committee, all countries participating in the Olympics sent delegations that included both male and female competitors. That same year, 204 countries sent competitors to the games.

Now that the human race has achieved an even playing field for global competition, the next step is technologically empowered, superhuman competitors.

Kindly join me in supporting the call for a Transhuman Olympics.

How has your work, your life, your humanity, been improved by the promise of Big Data?

What apps and online media do you use to upload personal and other info?

Singularity has flopped – that is to say, this week Johnny Depp’s new film Transcendence did not bring in as much as Pirates of the Caribbean. Though there may not have been big box office heat, there is heat behind the film’s subject: Big Data! Sure we miss seeing our affable pirate chasing treasure, but hats off to Mr. Depp who removed his Keith Richards make-up to risk chasing what might be the mightiest challenge of our century.

Singularity, coined by mathematician John von Neumann, is a heady mathematical concept tested by biotech predictions. Made popular by math and music wunderkindt turned gray hair guru of an AI movement Ray Kurzweil, Singularity is said to signify the increasing rate at which artificial intelligence will supersede human intelligence like a jealous sibling. Followers of the Singularity movement (yes, with guru comes followers) envision the time of override in the not to distant future with projections set early as 2017 and 2030. At these times, the dynamics of technology are said to set about a change in our biology, our civilization and “perhaps” nature itself. Within our current reach, we see signs of empowered tech acting out in the current human brain mapping quest and brain-computer interface systems. More to the point, there is an ever increasing onslaught of Google Alerts annoucing biotech enhancements with wearable tech. Yes indeed, here comes the age of smart prosthetics and our own AI upload of medical and personal data to the internet. Suddenly all those Selfies seem more than mere narcissistic postings against the imposing backdrop of Big Data.

Johnny Depp’s face says it all in Transcendence where Big Data determines our AI future wherein life as we know it, can and will exist online. Think beyond a 24/7 teenage plug into a smart phone or flash- driving Facebook entries. Think Neuromancer, VALIS, and Star Trek’s Borg — sci fi predecessors predicting memory transformations amounting to an existential reboot. Translated into the everyday, we’re talking more than just uploading your genetic code to 23andme. This is an imagined future where what we call “Me” will be psychologically and legally recognized as living online.

As a contemporary sci fi, Transcendence is filled with pentimento film tributes to Zombie and X-Men TakeOvers, Westerns and Romantic Tragedies. Pitting AI critics against AI visionaries, the film is a bioethics drama, where the prospect of creating online Selves will constitute a direct social threat with thoroughgoing eco consequences. At the center of the bioethics contest, we encounter the marriage and business partnership of Will and Eleanor Castor — the heroic scientist and the eco-activist whose death do us part vows are broken to unleash a future so thoroughly transformed by AI as to render biological existence “hacked” by internet code.

The romantic hubris of Transcendence is jolting with a Shakespearean twist: Dare to Upload yourself to the internet and threaten genealogy, global power. Wait, this is no Romeo and Juliet. Love and Death, Eros and Thanatos, as Herr Freud called it, stands at the center of this science fiction pivoting on Will Castor’s heroic martyrdom (played astutely by Johnny Depp). By the end of the film, we are forced to face the movie’s existential questions as moral and medical ones. With new sentient life living online, collective imagination for our biohumanity and ecosystem is left unhinged.

Transcendence Soundtrack
Image Credit: Transcendence, 2014 Original Soundtrack

While the film lifts common AI themes of transformed “self-awareness” and “identity,” the real AI deal breaker in Transcendence, and in our own lives, is Time – biological, ecological and geologic. Described as a sequential and cyclical process, Time frames our present experience, shaping both memory and imagination of that present experience. As my Buddhist philosophy professor use to say: “When you are waiting for your lover, 10 minutes feels like 1 hour; but when your lover arrives, 1 hour feels like 10 minutes.” Cognitive neuroscientists tell us that episodic memory is at once measurable and elusive of metrics — researchers can study the sequence of what we remember (like learning our ABC’s) but they struggle to discover how it feels to remember the alphabet.

Time after Will Castor’s AI is not waiting for cognitive neuroscience to catch up with a hacker’s race to design new codes, new systems, and new products for regenerating uberhuman biosystems. After all, AI Time presumes the speed of downloads to the Internet and programming APPs as if to emulate the speed of light.

Before Einstein, Neuroscience, the Internet and Apps, Time was once thought of in mythic, primal terms of genesis. In Indian cosmology, Siva, the God of Time, dances on the back of mother earth, moving us through karmic cycles of birth, life, death and rebirth. In the ancient Greco-Roman cosmos, Time is born from Chronos the three headed serpent that gives us earth, sky and the underworld. Through the ages, Time / Chronos became associated with the cycle of seasons, assigning to the process of change in light and life, the name Father Time in contrast to quiet, deep Mother Earth, which seems to absorb the underworld into her womb.

Conceived as such, Father Time has given way to our current understanding of RAM and neural memory codes leaving Mother Earth to stand in for blood, bones and stem cells. Today as we couple with technology and look to Big Data for knowledge and insight, we lose sight of when, and how, we capitulate to a fundamental misperception: That we are one and the same with the technology we create. Blinded by the light and speed of computer gazing, we mistake ourselves for our creations. We forget difference and our humanity — even if coupled with technology. For the sake of a popular drama, Transcendence pushes on the consequences of this misperception by entertaining a bioethics war over regenerating biological tissue. Like I said, this is a flick with a nod to X-Men.

With computational neuroscience sitting at the center of this passion play, it is neurobiologist and bioethicist Max, the Castor’s closest friend and film’s narrator who reminds us that we are Time emergent and memories alone are not us. Memory may be coded for upload but it cannot fully account for the what and who we are as neuroplastic creatures with uncertain futures. Yes, we are more than just code. As the father of American psychology William James once wrote, we draw from a world of “blooming buzzing confusion,” perceptions enriched with a variety of associated thoughts, sensations and reactions. That piece of wisdom may be more than a century old, but even if our behaviors might fit a statistical profile for behavioral economics, we are reminded: statistical profiles are not Us.

Coda:

Looking back to the late 1990’s, the call for the human-machine interface was met by both excitement and trepidation by frontier technologists and skeptical intellectuals. In my own backyard, I curated a 2003 symposium at Art Center College of Design with NASA scientists and a world famous cyborg, STELARC to discuss: What kind of science and technologies would push the design futures forward and would our imagined futures require the inevitable coupling of human and technology? Now more than 10 years later with advances in the Cloud, wearable tech and neuro-marketing, students have no greater skills for managing their union with the Borg. To paraphrase the thinking of my business partner, Gaynor Strachan Chun, ‘the problem is not with technology, but the way people behave with technology.’

Future Forward? Let’s skill up with the brain in mind to face the behavioral challenges with Big Data.

M. A. Greenstein, Ph.D., Lifeboat Advisor — Neuroscience / Diplomacy / Futures; Founder / Chairman, The George Greenstein Institute (GGI); Founder / Chief Innovation Officer, SM+ART

Book Review: The Human Race to the Future by Daniel Berleant (2013) (A Lifeboat Foundation publication)

Posted in alien life, asteroid/comet impacts, biotech/medical, business, climatology, disruptive technology, driverless cars, drones, economics, education, energy, engineering, ethics, evolution, existential risks, food, futurism, genetics, government, habitats, hardware, health, homo sapiens, human trajectories, information science, innovation, life extension, lifeboat, nanotechnology, neuroscience, nuclear weapons, philosophy, policy, posthumanism, robotics/AI, science, scientific freedom, security, singularity, space, space travel, sustainability, transhumanismTagged , , , , , , | Leave a Comment on Book Review: The Human Race to the Future by Daniel Berleant (2013) (A Lifeboat Foundation publication)

From CLUBOF.INFO

The Human Race to the Future (2014 Edition) is the scientific Lifeboat Foundation think tank’s publication first made available in 2013, covering a number of dilemmas fundamental to the human future and of great interest to all readers. Daniel Berleant’s approach to popularizing science is more entertaining than a lot of other science writers, and this book contains many surprises and useful knowledge.

Some of the science covered in The Human Race to the Future, such as future ice ages and predictions of where natural evolution will take us next, is not immediately relevant in our lives and politics, but it is still presented to make fascinating reading. The rest of the science in the book is very linked to society’s immediate future, and deserves great consideration by commentators, activists and policymakers because it is only going to get more important as the world moves forward.

The book makes many warnings and calls for caution, but also makes an optimistic forecast about how society might look in the future. For example, It is “economically possible” to have a society where all the basics are free and all work is essentially optional (a way for people to turn their hobbies into a way of earning more possessions) (p. 6–7).

A transhumanist possibility of interest in The Human Race to the Future is the change in how people communicate, including closing the gap between thought and action to create instruments (maybe even mechanical bodies) that respond to thought alone. The world may be projected to move away from keyboards and touchscreens towards mind-reading interfaces (p. 13–18). This would be necessary for people suffering from physical disabilities, and for soldiers in the arms race to improve response times in lethal situations.

To critique the above point made in the book, it is likely that drone operators and power-armor wearers in future armies would be very keen to link their brains directly to their hardware, and the emerging mind-reading technology would make it possible. However, there is reason to doubt the possibility of effective teamwork while relying on such interfaces. Verbal or visual interfaces are actually more attuned to people as a social animal, letting us hear or see our colleagues’ thoughts and review their actions as they happen, which allows for better teamwork. A soldier, for example, may be happy with his own improved reaction times when controlling equipment directly with his brain, but his fellow soldiers and officers may only be irritated by the lack of an intermediate phase to see his intent and rescind his actions before he completes them. Some helicopter and vehicle accidents are averted only by one crewman seeing another’s error, and correcting him in time. If vehicles were controlled by mind-reading, these errors would increasingly start to become fatal.

Reading and research is also an area that could develop in a radical new direction unlike anything before in the history of communication. The Human Race to the Future speculates that beyond articles as they exist now (e.g. Wikipedia articles) there could be custom-generated articles specific to the user’s research goal or browsing. One’s own query could shape the layout and content of each article, as it is generated. This way, reams of irrelevant information will not need to be waded through to answer a very specific query (p. 19–24).

Greatly similar to the same view I have written works expressing, the book sees industrial civilization as being burdened above all by too much centralization, e.g. oil refineries. This endangers civilization, and threatens collapse if something should later go wrong (p. 32, 33). For example, an electromagnetic pulse (EMP) resulting from a solar storm could cause serious damage as a result of the centralization of electrical infrastructure. Digital sabotage could also threaten such infrastructure (p. 34, 35).

The solution to this problem is decentralization, as “where centralization creates vulnerability, decentralization alleviates it” (p. 37). Solar cells are one example of decentralized power production (p. 37–40), but there is also much promise in home fuel production using such things as ethanol and biogas (p. 40–42). Beyond fuel, there is also much benefit that could come from decentralized, highly localized food production, even “labor-free”, and “using robots” (p. 42–45). These possibilities deserve maximum attention for the sake of world welfare, considering the increasing UN concerns about getting adequate food and energy supplies to the growing global population. There should not need to be a food vs. fuel debate, as the only acceptable solution can be to engineer solutions to both problems. An additional option for increasing food production is artificial meat, which should aim to replace the reliance on livestock. Reliance on livestock has an “intrinsic wastefulness” that artificial meat does not have, so it makes sense for artificial meat to become the cheapest option in the long run (p. 62–65). Perhaps stranger and more profound is the option of genetically enhancing humans to make better use of food and other resources (p. 271–274).

On a related topic, sequencing our own genome may be able to have “major impacts, from medicine to self-knowledge” (p. 46–51). However, the book does not contain mention of synthetic biology and the potential impacts of J. Craig Venter’s work, as explained in such works as Life at the Speed of Light. This could certainly be something worth adding to the story, if future editions of the book aim to include some additional detail.

At least related to synthetic biology is the book’s discussion of genetic engineering of plants to produce healthier or more abundant food. Alternatively, plants could be genetically programmed to extract metal compounds from the soil (p. 213–215). However, we must be aware that this could similarly lead to threats, such as “superweeds that overrun the world” similar to the flora in John Wyndam’s Day of the Triffids (p. 197–219). Synthetic biology products could also accidentally expose civilization to microorganisms with unknown consequences, perhaps even as dangerous as alien contagions depicted in fiction. On the other hand, they could lead to potentially unlimited resources, with strange vats of bacteria capable of manufacturing oil from simple chemical feedstocks. Indeed, “genetic engineering could be used to create organic prairies that are useful to humans” (p. 265), literally redesigning and upgrading our own environment to give us more resources.

The book advocates that politics should focus on long-term thinking, e.g. to deal with global warming, and should involve “synergistic cooperation” rather than “narrow national self-interest” (p. 66–75). This is a very important point, and may coincide with the complex prediction that nation states in their present form are flawed and too slow-moving. Nation-states may be increasingly incapable of meeting the challenges of an interconnected world in which national narratives produce less and less legitimate security thinking and transnational identities become more important.

Close to issues of security, The Human Race to the Future considers nuclear proliferation, and sees that the reasons for nuclear proliferation need to be investigated in more depth for the sake of simply by reducing incentives. To avoid further research, due to thinking that it has already been sufficiently completed, is “downright dangerous” (p. 89–94). Such a call is certainly necessary at a time when there is still hostility against developing countries with nuclear programs, and this hostility is simply inflammatory and making the world more dangerous. To a large extent, nuclear proliferation is inevitable in a world where countries are permitted to bomb one another because of little more than suspicions and fears.

Another area covered in this book that is worth celebrating is the AI singularity, which is described here as meaning the point at which a computer is sophisticated enough to design a more powerful computer than itself. While it could mean unlimited engineering and innovation without the need for human imagination, there are also great risks. For example, a “corporbot” or “robosoldier,” determined to promote the interests of an organization or defeat enemies, respectively. These, as repeatedly warned through science fiction, could become runaway entities that no longer listen to human orders (p. 83–88, 122–127).

A more distant possibility explored in Berleant’s book is the colonization of other planets in the solar system (p. 97–121, 169–174). There is the well-taken point that technological pioneers should already be trying to settle remote and inhospitable locations on Earth, to perfect the technology and society of self-sustaining settlements (Antarctica?) (p.106). Disaster scenarios considered in the book that may necessitate us moving off-world in the long term include a hydrogen sulfide poisoning apocalypse (p. 142–146) and a giant asteroid impact (p. 231–236)

The Human Race to the Future is a realistic and practical guide to the dilemmas fundamental to the human future. Of particular interest to general readers, policymakers and activists should be the issues that concern the near future, such as genetic engineering aimed at conservation of resources and the achievement of abundance.

By Harry J. Bentham - More articles by Harry J. Bentham

Originally published on April 22 in h+ Magazine

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