The Open Mind

Cogito Ergo Sum

Archive for the ‘Technology’ Category

The WikiLeaks Conundrum

leave a comment »

I’ve been thinking a lot about WikiLeaks over the last year, especially given the relevant consequences that have ensued with respect to the 2016 presidential election.  In particular, I’ve been thinking about the trade-offs that underlie any type of platform that centers around publishing secret or classified information, news leaks, and the like.  I’m torn over the general concept in terms of whether these kinds of platforms provide a net good for society and so I decided to write a blog post about it to outline my concerns through a brief analysis.

Make no mistake that I appreciate the fact that there are people in the world that work hard and are often taking huge risks to their own safety in order to deliver any number of secrets to the general public, whether governmental, political, or corporate.  And this is by no means exclusive to Wikileaks, but also applies to similar organizations and even individual whistle-blowers like Edward Snowden.  In many cases, the information that is leaked to the public is vitally important to inform us about some magnate’s personal corruption, various forms of systemic corruption, or even outright violations of our constitutional rights (such as the NSA violating our right to privacy as outlined in the fourth amendment).

While the public tends to highly value the increased transparency that these kinds of leaks offer, they also open us up to a number of vulnerabilities.  One prominent example that illustrates some of these vulnerabilities is the influence on the 2016 presidential election, resulting from the Clinton email leaks and the leaks pertaining to the DNC.  One might ask how exactly could those leaks have been a bad thing for the public?  After all it just increased transparency and gave the public information that most of us felt we had a right to know.  Unfortunately, it’s much more complicated than that.  Beyond the fact that it can be difficult to know where to draw the line in terms of what should or should not be public knowledge.

To illustrate this point, imagine that you are a foreign or domestic entity that is highly capable of hacking.  Now imagine that you stand to gain an immense amount of land, money, or power if a particular political candidate in a foreign or domestic election is elected, because you know about their current reach of power and their behavioral tendencies, their public or private ties to other magnates, and you know the kinds of policies that they are likely to enact based on their public pronouncements in the media and their advertised campaign platform.  Now if you have the ability to hack into private information from every pertinent candidate and/or political party involved in that election, then you likely have the ability to not only know secrets about the candidate that can benefit you from their winning (including their perspective of you as a foreign or domestic entity, and/or damning things about them that you can use as leverage to bribe them later on after being elected), but you also likely know about damning things that could cripple the opposing candidate’s chances at being elected.

This point illustrates the following conundrum:  while WikiLeaks can deliver important information to the public, it can also be used as a platform for malicious entities to influence our elections, to jeopardize our national or international security, or to cause any number of problems based on “selective” sharing.  That is to say, they may have plenty of information that would be damning to both opposing political parties, but they may only choose to deliver half the story because of an underlying agenda to influence the election outcome.  This creates an obvious problem, not least because the public doesn’t consider the amount of hacked or leaked information that they didn’t get.  Instead they think they’ve just become better informed concerning a political candidate or some policy issue, when in fact their judgment has now been compromised because they’ve just received a hyper-biased leak and one that was given to them intentionally to mislead them, even though the contents of the leak may in fact be true.  But when people aren’t able to put the new information in the proper context or perspective, then new information can actually make them less informed.  That is to say, the new information can become an epistemological liability, because it unknowingly distorts the facts, leading people to behave in ways that they otherwise would not have if they only had a few more pertinent details.

So now we have to ask ourselves, what can we do about this?  Should we just scrap WikiLeaks?  I don’t think that’s necessary, nor do I think it’s feasible to do even if we wanted to since it would likely just be replaced by any number of other entities that would accomplish the same ends (or it would become delocalized and go back to a bunch of disconnected sources).  Should we assume all leaked information has been leaked to serve some malicious agenda?

Well, a good dose of healthy skepticism could be a part of the solution.  We don’t want to be irrationally skeptical of any and all leaks, but it would make sense to have more scrutiny when it’s apparent that the leak could serve a malicious purpose.  This means that we need to be deeply concerned about this unless or until we reach a point in time where hacking is so common that the number of leaks reaches a threshold where it’s no longer pragmatically possible to selectively share them to accomplish these kinds of half-truth driven political agendas.  Until that point is reached, if it’s ever reached, given the arms race between encryption and hacking, we will have to question every seemingly important leak and work hard to make the public at large understand these concerns and to take them seriously.  It’s too easy for the majority to be distracted by the proverbial carrot dangling in front of them, such that they fail to realize that it may be some form of politically motivated bait.  In the mean time, we need to open up the conversation surrounding this issue, and look into possible solutions to help mitigate our concerns.  Perhaps we’ll start seeing organizations that can better vet the sources of these leaks, or that can better analyze their immediate effects on the global economy, elections, etc., before deciding whether or not they should release the information to the public.  This won’t be an easy task.

This brings me to my last point which is to say that I don’t think people have a fundamental right to know every piece of information that’s out there.  If someone found a way to make a nuclear bomb using household ingredients, should that be public information?  Don’t people understand that many pieces of information are kept private or classified because that’s the only way some organizations can function?  Including organizations that strive to maintain or increase national and international security?  Do people want all information to be public even if it comes at the expense of creating humanitarian crises, or the further consolidation of power by select plutocrats?  There’s often debate over the trade-offs between giving up our personal privacy to increase our safety.  Now the time has come to ask whether our giving up some forms of privacy or secrecy on larger scales (whether we like it or not) is actually detracting from our safety or putting our democracy in jeopardy.

Co-evolution of Humans & Artificial Intelligence

leave a comment »

In my last post, I wrote a little bit about the concept of personal identity in terms of what some philosophers have emphasized and my take on it.  I wrote that post in response to an interesting blog post written by James DiGiovanna over at A Philosopher’s Take.  James has written another post related to the possible consequences of integrating artificial intelligence into our societal framework, but rather than discussing personal identity as it relates to artificial intelligence, he discussed how the advancements made in machine learning and so forth are leading to the future prospects of effective companion AI, or what he referred to as programmable friends.  The main point he raised in that post was the fact that programmable friends would likely have a very different relationship dynamic with us compared with our traditional (human) friends.  James also spoke about companion AI  in terms of their also being laborers (as well as being friends) but for the purposes of this post I won’t discuss these laborer aspects of future companion AI (even if the labor aspect is what drives us to make companion AI in the first place).  I’ll be limiting my comments here to the friendship or social dynamic aspects only.  So what aspects about programmable AI should we start thinking about?

Well for one, we don’t currently have the ability to simply reprogram a friend to be exactly as we want them to be, in order to avoid conflicts entirely, to share every interest we have, etc., but rather there is a bit of a give-and-take relationship dynamic that we’re used to dealing with.  We learn new ways of behaving and looking at the world and even new ways of looking at ourselves when we have friendships with people that differ from us in certain ways.  Much of the expansion and beneficial evolution of our perspectives are the result of certain conflicts that arise between ourselves and our friends, where different viewpoints can clash against one another, often forcing a person to reevaluate their own position based on the value they place on the viewpoints of their friends.  If we could simply reprogram our friends, as in the case with some future AI companions, what would this do to our moral, psychological and intellectual growth?  There would be some positive effects I’m sure (from having less conflict in some cases and thus an increase in short term happiness), but we’d definitely be missing out on a host of interpersonal benefits that we gain from having the types of friendships that we’re used to having (and thus we’d likely have less overall happiness as a result).

We can see where evolution ties in to all this, whereby we have evolved as a social species to interact with others that are more or less like us, and so when we envision these possible future AI friendships, it should become obvious why certain problems would be inevitable largely because of the incompatibility with our evolved social dynamic.  To be sure, some of these problems could be mitigated by accounting for them in the initial design of the companion AI.  In general, this could be done by making the AI more like humans in the first place and this could be something advertised as some kind of beneficial AI “social software package” so people looking to get companion AI would be inclined to get this version even if they had the choice to go for the entirely reprogrammable version.

Some features of a “social software package” could be things like a limit on the number of ways the AI could be reprogrammed such that only very serious conflicts could be avoided through reprogramming, but without the ability to avoid all conflicts.  It could be such that the AI are able to have a weight on certain opinions, just as we do, and to be more assertive with regard to certain propositions and so forth.  Once the AI has learned its human counterpart’s personality, values, opinions, etc., it could also be programmed with the ability to intentionally challenge that human by offering different points of view and by its using the Socratic method (at least from time to time).  If people realized that they could possibly gain wisdom, knowledge, tolerance, and various social aptitudes from their companion AI, I would think that would be a marked selling point.

Another factor that I think will likely play a role in mitigating the possible social dynamic clash between companion AI (that are programmable) and humans is the fact that humans are also likely to become more and more integrated with AI technology generally.  That is, as humans are continuing to make advancements in AI technology, we are also likely to integrate a lot of that technology into ourselves, to make humans more or less into cyborgs a.k.a. cybernetic organisms.  If we see the path we’re on already with all the smart phones, apps, and other gadgets and computer systems that have started to become extensions of ourselves, we can see that the next obvious step (which I’ve mentioned elsewhere, here and here) is to remove the external peripherals so that they are directly accessible via our consciousness with no need of interfacing with external hardware and so forth.  If we can access “the cloud” with our minds (say, via bluetooth or the like), then the apps and all the fancy features can become a part of our minds, adding to the ways that we will be able to think, providing an internet worth of knowledge at our cognitive disposal, etc.  I could see this technology eventually allowing us to change our senses and perceptions, including an ability to add virtual objects that are amalgamated with the rest of the external reality that we perceive (such as adding virtual friends that we see and interact with that aren’t physically present outside of our minds even though they appear to be).

So if we start to integrate these kinds of technologies into ourselves as we are also creating companion AI, then we may also end up with the ability to reprogram ourselves alongside those programmable companion AI.  In effect, our own qualitatively human social dynamic may start to change markedly and become more and more compatible with that of the future AI.  The way I think this will most likely play out is that we will try to make AI more like us as we try to make us more like AI, where we co-evolve with one another, trying to share advantages with one another and eventually becoming indistinguishable from one another.  Along this journey however we will also become very different from the way we are now, and after enough time passes, we’ll likely change so much that we’d be unrecognizable to people living today.  My hope is that as we use AI to also improve our intelligence and increase our knowledge of the world generally, we will also continue to improve on our knowledge of what makes us happiest (as social creatures or otherwise) and thus how to live the best and most morally fruitful lives that we can.  This will include improving our knowledge of social dynamics and the ways that we can maximize all the interpersonal benefits therein.  Artificial intelligence may help us to accomplish this however paradoxical or counter-intuitive that may seem to us now.

Artificial Intelligence: A New Perspective on a Perceived Threat

with 5 comments

There is a growing fear in many people of the future capabilities of artificial intelligence (AI), especially as the intelligence of these computing systems begins to approach that of human beings.  Since it is likely that AI will eventually surpass the intelligence of humans, some wonder if these advancements will be the beginning of the end of us.  Stephen Hawking, the eminent British physicist, was recently quoted by the BBC as saying “The development of full artificial intelligence could spell the end of the human race.”  BBC technology correspondent Rory Cellan-Jones said in a recent article “Prof Hawking says the primitive forms of artificial intelligence developed so far have already proved very useful, but he fears the consequences of creating something that can match or surpass humans.”  Hawking then said “It would take off on its own, and re-design itself at an ever increasing rate.  Humans, who are limited by slow biological evolution, couldn’t compete, and would be superseded.”

Hawking isn’t alone with this fear, and clearly this fear isn’t ill-founded.  It doesn’t take a rocket scientist to realize that human intelligence has allowed us to overcome just about any environmental barrier we’ve come across, driving us to the top of the food chain.  We’ve all seen the benefits of our high intelligence as a species, but we’ve also seen what can happen due to that intelligence being imperfect, having it operate on incomplete or fallacious information, and ultimately lacking an adequate capability of accurately determining the long-term consequences of our actions.  Because we have such a remarkable ability to manipulate our environment, that manipulation can be extremely beneficial or extremely harmful as we’ve seen with the numerous species we’ve threatened on this planet (some having gone extinct).  We’ve even threatened many fellow human beings in the process, whether intentionally or not.  Our intelligence, combined with some elements of short-sightedness, selfishness, and aggression, has led to some pretty abhorrent products throughout human history — anything from the mass enslavement of others spanning back thousands of years to modern forms of extermination weaponry (e.g. bio-warfare and nuclear bombs).  If AI reaches and eventually surpasses our level of intelligence, it is reasonable to consider the possibility that we may find ourselves on a lower rung of the food chain (so to speak), potentially becoming enslaved or exterminated by this advanced intelligence.

AI: Friend or Foe?

So what exactly prompted Stephen Hawking to make these claims?  As the BBC article mentions, “His warning came in response to a question about a revamp of the technology he uses to communicate, which involves a basic form of AI…The theoretical physicist, who has the motor neurone disease amyotrophic lateral sclerosis (ALS), is using a new system developed by Intel to speak.  Machine learning experts from the British company Swiftkey were also involved in its creation. Their technology, already employed as a smartphone keyboard app, learns how the professor thinks and suggests the words he might want to use next.”

Reading this article suggests another possibility or perspective that I don’t think a lot of people are considering with regard to AI technology.  What if AI simply replaces us gradually, by actually becoming the new “us”?  That is, as we further progress in Cyborg (i.e. cybernetic organism) technologies, using advancements similar to Stephen Hawking’s communication ability upgrade, we are ultimately becoming amalgams of biological and synthetic machines anyway.  Even the technology that we currently operate through an external peripheral interface (like smart phones and all other computers) will likely become integrated into our bodies internally.  Google glasses, voice recognition, and other technologies like those used by Hawking are certainly taking us in that direction.  It’s not difficult to imagine one day being able to think about a particular question or keyword, and having an integrated blue-tooth implant in our brain recognize the mental/physiological command cue, and successfully retrieve the desired information wirelessly from an online cloud or internet database of some form.  Going further still, we will likely one day be able to take sensory information that enters the neuronal network of our brain, and once again, send it wirelessly to supercomputers stored elsewhere that are able to process the information with billions of pattern recognition modules.  The 300 million or so pattern recognition modules that are currently in our brain’s neo-cortex would be dwarfed by this new peripheral-free interface and wirelessly accessible technology.

For those that aren’t very familiar with the function or purpose of the brain’s neo-cortex, we use its 300 million or so pattern recognition modules to notice patterns in the environment around us (and meta patterns of neuronal activity within the brain), thus being able to recognize and memorize sensory data, and think.  Ultimately, we use this pattern recognition to accomplish goals, solve problems, and gain knowledge from past experience.  In short, these pattern recognition modules are our primary source or physiological means for our intelligence.  Thus, being able to increase the number of pattern recognition modules (as well as the number of hierarchies between different sets of them), will only increase our intelligence.  Regardless of whether we integrate computer chips in our brain to do at least some or all of this processing locally, or use a wireless means of communication to an external supercomputer farm or otherwise, we will likely continue to integrate our biology with synthetic analogs to increase our capabilities.

When we realize that a higher intelligence allows us to better predict the consequences of our actions, we can see that our increasing integration with AI will likely have incredible survival benefits.  This integration will also catalyze further technologies that could never have been accomplished with biological brains alone, because we simply aren’t naturally intelligent enough to think beyond a certain level of complexity.  As Hawking said regarding AI that could surpass our intelligence, “It would take off on its own, and re-design itself at an ever increasing rate.  Humans, who are limited by slow biological evolution, couldn’t compete, and would be superseded.”  Yes, but if that AI becomes integrated in us, then really it is humans that are finding a way to circumvent slow biological evolution with a non-biological substrate that supercedes it.

At this time I think it is relevant to mention something else I’ve written about previously, which is the advancements being made in genetic engineering and how they are taking us into our last and grandest evolutionary leap, a “conscious evolution”, thus being able to circumvent our own slow biological evolution through an intentionally engineered design.  So as we gain more knowledge in the field of genetic engineering (combined with the increasing simulation and computing power afforded by AI), we will likely be able to catalyze our own biological evolution such that we can evolve quickly as we increase our Cyborg integrations with AI.  So we will likely see an increase in genetic engineering capabilities developing in close parallel with AI advancements, with each field substantially contributing to the other and ultimately leading to our transhumanism.

Final Thoughts

It seems clear that advancements in AI are providing us with more tools to accomplish ever-more complex goals as a species.  As we continue to integrate AI into ourselves, what we now call “human” is simply going to change as we change.  This would happen regardless, as human biological evolution continues its course into another speciation event, similar to the one that led to humans in the first place.  In fact, if we wanted to maintain the way we are right now as a species, biologically speaking, it would actually require us to use genetic engineering to do so, because genetic differentiation mechanisms (e.g. imperfect DNA replication, mutations, etc.) are inherent in our biology.  Thus, for those that argue against certain technologies based on a desire to maintain humanity and human attributes, they must also realize that the very technologies they despise are in fact their only hope for doing so.  More importantly, the goal of maintaining what humans currently are goes against our natural evolution, and we should embrace change, even if we embrace it with caution.

If AI continues to become further integrated into ourselves, forming a Cyborg amalgam of some kind, as it advances to a certain point we may choose one day to entirely eliminate the biological substrate of that amalgam, if it is both possible and advantageous to do so.  Even if we maintain some of our biology, and merely hybridize with AI, then Hawking was right to point out that “The development of full artificial intelligence could spell the end of the human race.”  Although, rather than a doomsday scenario like we saw in the movie The Terminator, with humans and machines at war with one another, the end of the human race may simply mean that we will end up changing into a different species, just as we’ve done throughout our evolutionary history.  Only this time, it will be a transition from a purely biological evolution to a cybernetic hybrid variation.  Furthermore, if it happens, it will be a transition that will likely increase our intelligence (and many other capabilities) to unfathomable levels, giving us an unprecedented ability to act based on more knowledge of the consequences of our actions as we move forward.  We should be cautious indeed, but we should also embrace our ongoing evolution and eventual transhumanism.

Mind, Body, and the Soul: The Quest for an Immaterial Identity

leave a comment »

There’s little if any doubt that the brain (the human brain in particular) is the most complex entity or system that we’ve ever encountered in the known universe, and thus it is not surprising that it has allowed humans to reach the top of the food chain and also the ability to manipulate our environment more than any other creature on Earth.  Not only has it provided humans with the necessary means for surviving countless environmental pressures, effectively evolving as a sort of anchor and catalyst for our continued natural selection over time (through learning, language, adaptive technology, etc.), but it has also allowed humans to become aware of themselves, aware of their own consciousness, and aware of their own brains in numerous other ways.  The brain appears to be the first evolved feature of an organism capable of mapping the entire organism (including its interaction with the external environment), and it may even be the case that consciousness later evolved as a result of the brain making maps of itself.  Even beyond these capabilities, the human brain has also been able to map itself in terms of perceptually acquired patterns related to its own activity (i.e. when we study and learn about how our brains work).

It isn’t at all surprising when people marvel over the complexity, beauty and even seemingly surreal qualities of the brain as it produces the qualia of our subjective experience including all of our sensations, emotions and the resulting feelings that ensue.  Some of our human attributes are so seemingly remarkable, that many people have gone so far as to say that at least some of these attributes are either supernatural, supernaturally endowed, and/or are forever exclusive to humans.  For example, some religious people claim that humans alone have some kind of immaterial soul that exists outside of our experiential reality.  Some also believe that humans alone possess free will, are conscious in some way forever exclusive to humans (some have even argued that consciousness in general is an exclusively human trait), and a host of other (perhaps anthropocentric) “human only” attributes, with many of them forever exclusive to humans.  In the interest of philosophical exploration, I’d like to consider and evaluate some of these claims about “exclusively human” attributes.  In particular, I’d like to focus on the non-falsifiable claim of having a soul, with the aid of reason and a couple of thought experiments, although these thought experiments may also shed some light on other purported “exclusively human” attributes (e.g. free will, consciousness, etc.).  For the purposes of simplicity in these thought experiments, I may periodically refer to many or all purported “humanly exclusive” attributes as simply, “H”.  Let’s begin by briefly examining some of the common conceptions of a soul and how it is purported to relate to the physical world.

What is a Soul?

It seems that most people would define a soul to be some incorporeal entity or essence that serves as an immortal aspect or representation of an otherwise mortal/living being.  Furthermore, many people think that souls are something possessed by human beings alone.  There are also people who ascribe souls to non-living entities (such as bodies of water, celestial bodies, wind, etc.), but regardless of these distinctions, for those that believe in souls, there seems to be something in common: souls appear to be non-physical entities correlated, linked, or somehow attached to a particular physical body or system, and are usually believed to give rise to consciousness, a “life force”, animism, or some power of agency.  Additionally, they are often believed to transcend material existence through their involvement in some form of an afterlife.  While it is true that souls and any claims about souls are unfalsifiable and thus are excluded from any kind of empirical investigation, let’s examine some commonly held assumptions and claims about souls and see how they hold up to a more critical examination.

Creation or Correlation of Souls

Many religious people now claim that a person’s life begins at conception (after Science discovered this specific stage of reproduction), and thus it would be reasonable to assume that if they have a soul, that soul is effectively created at conception.  However, some also believe that all souls have co-existed for the same amount of time (perhaps since the dawn of our universe), and that souls are in some sense waiting to be linked to the physical person once they are conceived or come into existence.  Another way of expressing this latter idea is the belief that all souls have existed since some time long ago, but only after the reproductive conception of a person does that soul begin to have a physical correlate or incarnation linked to it.  In any case, the presumed soul is believed to be correlated to a particular physical body (generally presumed to be a “living” body, if not a human body), and this living body has been defined by many to begin its life either at conception (i.e. fertilization), shortly thereafter as an embryo (i.e. once the fertilized egg/cell undergoes division at least once), or once it is considered a fetus (depending on the context for such a definition).  The easiest definition to use for the purposes of this discussion is to define life to begin at conception (i.e. fertilization).

For one, regardless of the definition chosen, it seems difficult to define exactly when the particular developmental stage in question is reached.  Conception could be defined to take place once the spermatozoa’s DNA contents enter the zygote or perhaps not until some threshold has been reached in a particular step of the process afterward (e.g. some time after the individual parent DNA strands have mixed to produce a double-helix daughter strand).  Either way, most proponents of the idea of a human soul seem to assume that a soul is created or at least correlated (if created some time earlier) at the moment of, or not long after, fertilization.  At this point, the soul is believed to be correlated or representative of the now “living” being (which is of course composed of physical materials).

At a most basic level, one could argue, if we knew exactly when a soul was created/correlated with a particular physical body (e.g. a fertilized egg), then by reversing the last step in the process that instigated the creation/correlation of the soul, we should be able to destroy/decorrelate the soul.  Also, if a soul was in fact correlated with an entire fertilized egg, then if we remove even one atom, molecule, etc., would that correlation change?  If not, then it would appear that the soul is not actually correlated with the entire fertilized egg, but rather it is correlated with some higher level aspect or property of it (whatever that may be).

Conservation & Identity of Souls

Assuming a soul is in fact created or correlated with a fertilized egg, what would happen in the case of chimerism, where more than one fertilized egg fuse together in the early stages of embryonic development?  Would this developing individual have two souls?  By the definition or assumptions given earlier, if a soul is correlated with a fertilized egg in some way, and two fertilized eggs (each with their own soul) merge together, then this would indicate one of a few possibilities.  Either two souls merged into one (or one is actually destroyed) which would demonstrate that the number of souls are not conserved (indicating that not all souls are eternal/immortal), or the two souls would co-exist with that one individual and would imply that not all individuals have the same number of souls (some have one, some may have more) and thus souls don’t each have their own unique identity with a particular person, or it would indicate that after the merging of fertilized eggs took place, one of the two souls would detach from or become decorrelated with its physical counterpart, and the remaining soul would get to keep the booty of both fertilized eggs or so to speak.

In the case of identical twins, triplets, etc., a fertilized egg eventually splits, and we are left with the opposite conundrum. It would seem that we would be starting with one soul that eventually splits into two or more, and thus there would be another violation of the conservation of the number of souls.  Alternatively, if the number of souls are indeed conserved, an additional previously existing soul (if this was the case) could become correlated with the second fertilized egg produced. Yet another possibility would be to say that the “twins to be” (i.e. the fertilized egg prior to splitting) has two souls to start with and when the egg splits, the souls are segregated and each pre-destined twin is given their own.

The only way to avoid these implications would be to modify the assumption given earlier, regarding when a soul is created or correlated.  It would have to be defined such that a soul is created or correlated with a physical body some time after an egg is fertilized when it is no longer possible to fuse with another fertilized egg and after it can no longer split into fertilized multiples (i.e. twins, triplets, etc.).  If this is true, then one could no longer say that a fertilized egg necessarily has a soul, for that wouldn’t technically be the case until some time afterward when chimerism or monozygotic multiples were no longer possible.

If people believe in non-physical entities that can’t be seen or in any way extrospectively verified, it’s not much of a stretch to say that they can come up with a way to address these questions or reconcile these issues, with yet more unfalsifiable claims.  Some of these might not even be issues for various believers but I only mention these potential issues to point out the apparent arbitrariness or poorly defined aspects of many claims and assumptions regarding souls. Now let’s look at a few thought experiments to further analyze the concept of a soul and purported “exclusively human” attributes (i.e. “H”) as mentioned in the introduction of this post.

Conservation and Identity of “H”

Thought Experiment # 1: Replace a Neuron With a Non-Biological Analog

What if one neuron in a person’s brain is replaced with a non-biological/artificial version, that is, what if some kind of silicon-based (or other non-carbon-based) analog to a neuron was effectively used to replace a neuron?  We are assuming that this replacement with another version will accomplish the same vital function, that is, the same subjective experience and behavior.  This non-biologically-based neuronal analog may be powered by ATP (Adenosine Triphosphate) and also respond to neurotransmitters with electro-chemical sensors — although it wouldn’t necessarily have to be constrained by the same power or signal transmission media (or mechanisms) as long as it produced the same end result (i.e. the same subjective experience and behavior).  As long as the synthetic neuronal replacement accomplished the same ends, the attributes of the person (i.e. their identity, their beliefs, their actions, etc.) should be unaffected despite any of these changes to their hardware.

Regarding the soul, if souls do in fact exist and they are not physically connected to the body (although people claim that souls are somehow associated with a particular physical body), then it seems reasonable to assume that changing a part of the physical body should have no effect on an individual’s possession of that soul (or any “H” for that matter), especially if the important attributes of the individual, i.e., their beliefs, thoughts, memories, and subsequent actions, etc., were for all practical purposes (if not completely), the same as before.  Even if there were some changes in the important aspects of the individual, say, if there was a slight personality change after some level of brain surgery, could anyone reasonably argue that their presumed soul (or their “H”) was lost as a result?  If physical modifications of the body led to the loss of a soul (or of any elements of “H”), then there would be quite a large number of people (and an increasing number at that) who no longer have souls (or “H”) since many people indeed have had various prosthetic modifications used in or on their bodies (including brain and neural prosthetics) as well as other intervening mediation of body/brain processes (e.g. through medication, transplants, various levels of critical life support, etc.).

For those that think that changing the body’s hardware would somehow disconnect the presumed soul from that person’s body (or eliminate other elements of their “H”), they should consider that this assumption is strongly challenged by the fact that many of the atoms in the human body are replaced (some of them several times over) throughout one’s lifetime anyway.  Despite this drastic biological “hardware” change, where our material selves are constantly being replaced with new atoms from the food that we eat and the air that we breathe (among other sources), we still manage to maintain our memories and our identity simply because the functional arrangements of the brain cells (i.e. neurons and glial cells) which are composed of those atoms are roughly preserved over time and thus the information contained in such arrangements and/or their resulting processes are preserved over time.  We can analogize this important point by thinking about a computer that has had its hardware replaced, albeit in a way that matches or maintains its original physical state, and understand that as a result of this configuration preservation, it also should be able to maintain its original memory, programs and normal functional operation.  One could certainly argue that the computer in question is technically no longer the “same” computer because it no longer has any of the original hardware.  However, the information regarding the computer’s physical state, that is, the specific configuration and states of parts that allow it to function exactly as it did before the hardware replacement, is preserved.  Thus, for all practical purposes in terms of the identity of that computer, it remained the same regardless of the complete hardware change.

This is an important point to consider for those who think that replacing the hardware of the brain (even if limited to a biologically sustained replacement) is either theoretically impossible, or that it would destroy one’s ability to be conscious, to maintain their identity, to maintain their presumed soul, or any presumed element of “H”.  The body naturally performs these hardware changes (through metabolism, respiration, excretion, etc.) all the time and thus the concept of changing hardware while maintaining the critical aspects of an individual is thoroughly demonstrated throughout one’s lifetime.  On top of this, the physical outer boundary that defines our bodies is also arbitrary in the sense that we exchange atoms between our outer surface and the environment around us (e.g. by shedding skin cells, or through friction, molecular desorption/adsorption/absorption, etc.).  The key idea to keep in mind is that these natural hardware changes imply that “we” are not defined specifically by our hardware or some physical boundary with a set number of atoms, but rather “we” are based on how our hardware is arranged/configured (allowing for some variation of configuration states within some finite acceptable range), and the subsequent processes and functions that result from such an arrangement as mediated by the laws of physics.

Is the type of hardware important?  It may be true that changing a human’s hardware to a non-biological version may never be able to accomplish exactly the same subjective experience and behavior that was possible with the biological hardware, however we simply don’t know that this is the case.  It may be that both the type of hardware as well as the configuration are necessary for a body and brain to produce the same subjective experience and behavior.  However, the old adage “there’s more than one way to skin a cat” has been applicable to so many types of technologies and to the means used to accomplish a number of goals.  There are a number of different hardware types and configurations that can be used to accomplish a particular task, even if, after changing the hardware the configuration must also be changed to accomplish a comparable result.  The question becomes, which parts or aspects of the neural process in the brain produces subjective experience and behavior?  If this becomes known, we should be able to learn how biologically-based hardware and its configuration work together in order to accomplish a subjective experience and behavior, and then also learn if non-biologically-based hardware (perhaps with its own particular configuration) can accomplish the same task.  For the purposes of this thought experiment, let’s assume that we can swap out the hardware with a different type, even if, in order to preserve the same subjective experience and behavior, the configuration must be significantly different than it was with the original biologically-based hardware.

So, if we assume that we can replace a neuron with an efficacious artificial version, and still maintain our identity, our consciousness, any soul that might be present, or any element of “H” for that matter, then even if we replace two neurons with artificial versions, we should still have the same individual.  In fact, even if we replace every neuron, perhaps just one neuron at a time, eventually we would be replacing the entire brain with an artificial version, and yet still have the same individual.  This person would now have a completely non-biologically based “brain”.  In theory, their identity would be the same, and they would subjectively experience reality and their selves as usual.  Having gone this far, let’s assume that we replace the rest of the body with an artificial version.  Replacing the rest of the body, one part at a time, should be far less significant a change than replacing the brain, for the rest of the body is far less complex.

It may be true that the body serves as an integral homeostatic frame of reference necessary for establishing some kind of self-object basis of consciousness (e.g. Damasio’s Theory of Consciousness), but as long as our synthetic brain is sending/receiving the appropriate equivalent of sensory/motor information (i.e. through an interoceptive feedback loop among other requirements) from the new artificial body, the model or map of the artificial body’s internal state provided by the synthetic brain should be equivalent.  It should also be noted that the range of conditions necessary for homeostasis in one human body versus another is far narrower and less individualized than the differences found between the brains of two different people.  This supports the idea that the brain is in fact the most important aspect of our individuality, and thus replacing the rest of the body should be significantly easier to accomplish and also less critical a change.  After replacing the rest of the body, we would now have a completely artificial non-biological substrate for our modified “human being”, or what many people would refer to as a “robot”, or a system of “artificial intelligence” with motor capabilities.  This thought experiment seems to suggest at least one of several implications:

  • Some types of robots can possess “H” (e.g. soul, consciousness, free-will, etc.), and thus “H” are not uniquely human, nor are they forever exclusive to humans.
  • Humans lose some or all of their “H” after some threshold of modification has taken place (likely a modification of the brain)
  • “H”, as it is commonly defined at least, does not exist

The first implication listed above would likely be roundly rejected by most people that believe in the existence of “H” for several reasons including the fact that most people see robots as fundamentally different than living systems, they see “H” as only applicable to human beings, and they see a clear distinction between robots and human beings (although the claim that these distinctions exist has been theoretically challenged by this thought experiment).  The second implication sounds quite implausible (even if we assume that “H” exists) as it would seem to be impossible to define when exactly any elements of “H” were lost based on exceeding some seemingly arbitrary threshold of modification.  For example, would the loss of some element of “H” occur only after the last neuron was replaced with an artificial version?  If the loss of “H” did occur after some specific number of neurons were removed (or after the number of neurons that remained fell below some critical minimum quantity), then what if the last neuron removed (which caused this critical threshold to be met) was biologically preserved and later re-installed, thus effectively reversing the last neuronal replacement procedure?  Would the previously lost “H” then return?

Thought Experiment # 2: Replace a Non-Biological Neuronal Analog With a Real Neuron

We could look at this thought experiment (in terms of the second implication) yet another way by simply reversing the order of the thought experiment.  For example, imagine that we made a robot from scratch that was identical to the robot eventually obtained from the aforementioned thought experiment, and then we began to replace its original non-biologically-based neuronal equivalent with actual biologically-based neurons, perhaps even neurons that were each taken from a separate human brain (say, from one or several cadavers) and preserved for such a task.  Even after this, consider that we proceed to replace the rest of the robot’s “body”, again piecewise (say, from one or several cadavers), until it was completely biologically-based to match the human being we began with in the initial thought experiment.  Would or could this robot acquire “H” at some point, or be considered human?  It seems that there would be no biological reason to claim otherwise.

Does “H” exist?  If So, What is “H”?

I’m well aware of how silly some of these hypothetical questions and considerations sound, however I find it valuable to follow the reasoning all the way through in order to help illustrate the degree of plausibility of these particular implications, and the plausibility or validity of “H”.  In the case of the second implication given previously (that humans lose some or all of “H” after some threshold of modification), if there’s no way to define or know when “H” is lost (or gained), then nobody can ever claim with certainty that an individual has lost their “H”, and thus they would have to assume that all elements of “H” have never been lost (if they want to err on the side of, what some may call, ethical or moral caution).  By that rationale, one would find themselves forced to accept the first implication (some types of robots can possess “H”, and thus “H” isn’t unique to humans).  If anyone denies the first two implications, it seems that they are only left with the third option.  The third implication seems to be the most likely (that “H” as previously defined does not exist), however it should be mentioned that even this third implication may be circumvented by realizing that it has an implicit loophole.  There is a possibility that some or all elements and/or aspects of “H” are not exactly what people assume them to be, and therefore “H” may exist in some other sense.  For example, what if we considered particular patterns themselves, i.e., the brain/neuronal configurations, patterns of brain waves, neuronal firing patterns, patterns of electro-chemical signals emanated throughout the body, etc., to be the “immaterial soul” of each individual?  We could look at these patterns as being immaterial if the physical substrate that employs them is irrelevant, or by simply noting that patterns of physical material states are not physical materials in themselves.

This is analogous to the concept that the information contained in a book can be represented on paper, electronically, in multiple languages, etc., and is not reliant on a specific physical medium.  This would mean that one could accept the first implication that robots or “mechanized humans” possess “H”, although it would also necessarily imply that any elements of “H” aren’t actually unique or exclusive to humans as they were initially assumed to be.  One could certainly accept this first implication by noting that the patterns of information (or patterns of something if we don’t want to call it information per se) that comprise the individual were conserved throughout the neuronal (or body) replacement in these thought experiments, and thus the essence or identity of the individual (whether “human” or “robot”) was preserved as well.

Pragmatic Considerations & Final Thoughts

I completely acknowledge that in order for this hypothetical neuronal replacement to be truly accurate in reproducing normal neuronal function (even with just one neuron), above and beyond the potential necessity of both a specific type of hardware as well as configuration (as mentioned earlier), the non-biologically based version would presumably also have to replicate the neuronal plasticity that the brain normally possesses.  In terms of brain plasticity, there are basically four known factors involved with neuronal change, sometimes referred to as the four R’s: regeneration, reconnection, re-weighting, and rewiring.  So clearly, any synthetic neuronal version would likely involve some kind of malleable processing in order to accomplish at least some of these tasks (if not all of them to some degree), as well as some possible nano-self-assembly processes if actual physical rewiring were needed.  The details of what and how this would be accomplished will become better known over time as we learn more about the possible neuronal dynamic mechanisms involved (e.g. neural darwinism or other means of neuronal differential reproduction, connectionism, Hebbian learning, DNA instruction, etc.).

I think that the most important thing to gain from these thought experiments is the realization of the inability or severe difficulty in taking the idea of souls or “H” seriously given the incompatibility between the traditional  conception of a concrete soul or other “H” and the well-established fluidic or continuous nature of the material substrates that they are purportedly correlated with.  That is, all the “things” in this world, including any forms of life (human or not) are constantly undergoing physical transformation and change, and they possess seemingly arbitrary boundaries that are ultimately defined by our own categorical intuitions and subjective perception of reality.  In terms of any person’s quest for “H”, if what one is really looking for is some form of constancy, essence, or identity of some kind in any of the things around us (let alone in human beings), it seems that it is the patterns of information (or perhaps the patterns of energy to be more accurate) as well as the level of complexity or type of patterns that ultimately constitute that essence and identity.  Now if it is reasonable to conclude that the patterns of information or energy that comprise any physical system aren’t equivalent to the physical constituent materials themselves, one could perhaps say that these patterns are a sort of “immaterial” attribute of a set of physical materials.  This seems to be as close to the concept of an immaterial “soul” as a physicalist or materialist could concede exists, since, at the very least it involves a property of continuity and identity which somewhat transcends the physical materials themselves.

An Evolved Consciousness Creating Conscious Evolution

with 3 comments

Two Evolutionary Leaps That Changed It All

As I’ve mentioned in a previous post, human biological evolution has led to the emergence of not only consciousness but also a co-existing yet semi-independent cultural evolution (through the unique evolution of the human brain).  This evolutionary leap has allowed us to produce increasingly powerful technologies which in turn have provided a means for circumventing many natural selection pressures that our physical bodies would otherwise be unable to handle.

One of these technologies has been the selective breeding of plants and animals, with this process often referred to as “artificial” selection, as opposed to “natural” selection since human beings have served as an artificial selection pressure (rather than the natural selection pressures of the environment in general).  In the case of our discovery of artificial selection, by choosing which plants and animals to cultivate and raise, we basically just catalyzed the selection process by providing a selection pressure based on the plant or animal traits that we’ve desired most.  By doing so, rather than the selection process taking thousands or even millions of years to produce what we have today (in terms of domesticated plants and animals), it only took a minute fraction of that time since it was mediated through a consciously guided or teleological process, unlike natural selection which operates on randomly differentiating traits leading to differential reproductive success (and thus new genomes and species) over time.

This second evolutionary leap (artificial selection that is) has ultimately paved the way for civilization, as it has increased the landscape of our diet and thus our available options for food, and the resultant agriculture has allowed us to increase our population density such that human collaboration, complex distribution of labor, and ultimately the means for creating new and increasingly complex technologies, have been made possible.  It is largely because of this new evolutionary leap that we’ve been able to reach the current pinnacle of human evolution, the newest and perhaps our last evolutionary leap, or what I’ve previously referred to as “engineered selection”.

With artificial selection, we’ve been able to create new species of plants and animals with very unique and unprecedented traits, however we’ve been limited by the rate of mutations or other genomic differentiating mechanisms that must arise in order to create any new and desirable traits. With engineered selection, we can simply select or engineer the genomic sequences required to produce the desired traits, effectively allowing us to circumvent any genomic differentiation rate limitations and also allowing us instant access to every genomic possibility.

Genetic Engineering Progress & Applications

After a few decades of genetic engineering research, we’ve gained a number of capabilities including but not limited to: producing recombinant DNA, producing transgenic organisms, utilizing in vivo trans-species protein production, and even creating the world’s first synthetic life form (by adding a completely synthetic or human-constructed bacterial genome to a cell containing no DNA).  The plethora of potential applications for genetic engineering (as well as those applications currently in use) has continued to grow as scientists and other creative thinkers are further discovering the power and scope of areas such as mimetics, micro-organism domestication, nano-biomaterials, and many other inter-related niches.

Domestication of Genetically Engineered Micro and Macro-organisms

People have been genetically modifying plants and animals for the same reasons they’ve been artificially selecting them — in order to produce species with more desirable traits. Plants and animals have been genetically engineered to withstand harsher climates, resist harmful herbicides or pesticides (or produce their own pesticides), produce more food or calories per acre (or more nutritious food when all else is equal), etc.  Plants and animals have also been genetically modified for the purposes of “pharming”, where substances that aren’t normally produced by the plant or animal (e.g. pharmacological substances, vaccines, etc.) are expressed, extracted, and then purified.

One of the most compelling applications of genetic engineering within agriculture involves solving the “omnivore’s dilemma”, that is, the prospect of growing unconscious livestock by genetically inhibiting the development of certain parts of the brain so that the animal doesn’t experience any pain or suffering.  There have also been advancements made with in vitro meat, that is, producing cultured meat cells so that no actual animal is needed at all other than some starting cells taken painlessly from live animals (which are then placed into a culture media to grow into larger quantities of meat), however it should be noted that this latter technique doesn’t actually require any genetic modification, although genetic modification may have merit in improving these techniques.  The most important point here is that these methods should decrease the financial and environmental costs of eating meat, and will likely help to solve the ethical issues regarding the inhumane treatment of animals within agriculture.

We’ve now entered a new niche regarding the domestication of species.  As of a few decades ago, we began domesticating micro-organisms. Micro-organisms have been modified and utilized to produce insulin for diabetics as well as other forms of medicine such as vaccines, human growth hormone, etc.  There have also been certain forms of bacteria genetically modified in order to turn cellulose and other plant material directly into hydrocarbon fuels.  This year (2014), E. coli bacteria have been genetically modified in order to turn glucose into pinene (a high energy hydrocarbon used as a rocket fuel).  In 2013, researchers at the University of California, Davis, genetically engineered cyanobacteria (a.k.a. blue-green algae) by adding particular DNA sequences to its genome which coded for specific enzymes such that it can use sunlight and the process of photosynthesis to turn CO2 into 2,3 butanediol (a chemical that can be used as a fuel, or to make paint, solvents, and plastics), thus producing another means of turning our over abundant carbon emissions back into fuel.

On a related note, there are also efforts underway to improve the efficiency of certain hydro-carbon eating bacteria such as A. borkumensis in order to clean up oil spills even more effectively.  Imagine one day having the ability to use genetically engineered bacteria to directly convert carbon emissions back into mass-produced fuel, and if the fuel spills during transport, also having the counterpart capability of cleaning it up most efficiently with another form of genetically engineered bacteria.  These capabilities are being further developed and are only the tip of the iceberg.

In theory, we should also be able to genetically engineer bacteria to decompose many other materials or waste products that ordinarily decompose extremely slowly. If any of these waste products are hazardous, bacteria could be genetically engineered to breakdown or transform the waste products into a safe and stable compound.  With these types of solutions we can make many new materials and have a method in line for their proper disposal (if needed).  Additionally, by utilizing some techniques mentioned in the next section, we can also start making more novel materials that decompose using non-genetically-engineered mechanisms.

It is likely that genetically modified bacteria will continue to provide us with many new types of mass-produced chemicals and products. For those processes that do not work effectively (if at all) in bacterial (i.e. prokaryotic) cells, then eukaryotic cells such as yeast, insect cells, and mammalian cells can often be used as a viable option. All of these genetically engineered domesticated micro-organisms will likely be an invaluable complement to the increasing number of genetically modified plants and animals that are already being produced.


In the case of mimetics, scientists are discovering new ways of creating novel materials using a bottom-up approach at the nano-scale by utilizing some of the self-assembly techniques that natural selection has near-perfected over millions of years.  For example, mollusks form sea shells with incredibly strong structural/mechanical properties by their DNA coding for the synthesis of specific proteins, and those proteins bonding the raw materials of calcium and carbonate into alternating layers until a fully formed shell is produced.  The pearls produced by clams are produced with similar techniques. We could potentially use the same DNA sequence in combination with a scaffold of our choosing such that a similar product is formed with unique geometries, or through genetic engineering techniques, we could modify the DNA sequence so that it performs the same self-assembly with completely different materials (e.g. silicon, platinum, titanium, polymers, etc.).

By combining the capabilities of scaffolding as well as the production of unique genomic sequences, one can further increase the number of possible nanomaterials or nanostructures, although I’m confident that most if not all scaffolding needs could eventually be accomplished by the DNA sequence alone (much like the production of bone, exoskeleton, and other types of structural tissues in animals).  The same principles can be applied by looking at how silk is produced by spiders, how the cochlear hair cells are produced in mammals, etc.  Many of these materials are stronger, lighter, and more defect-free than some of the best human products ever engineered.  By mimicking and modifying these DNA-induced self-assembly techniques, we can produce entirely new materials with unprecedented properties.

If we realize that even the largest plants and animals use these same nano-scale assembly processes to build themselves, it isn’t hard to imagine using these genetic engineering techniques to effectively grow complete macro-scale consumer products.  This may sound incredibly unrealistic with our current capabilities, but imagine one day being able to grow finished products such as clothing, hardware, tools, or even a house.  There are already people working on these capabilities to some degree (for example using 3D printed scaffolding or other scaffolding means and having plant or animal tissue grow around it to form an environmentally integrated bio-structure).  If this is indeed realizable, then perhaps we could find a genetic sequence to produce almost anything we want, even a functional computer or other device.  If nature can use DNA and natural selection to produce macro-scale organisms with brains capable of pattern recognition, consciousness, and computation (and eventually the learned capability of genetic engineering in the case of the human brain), then it seems entirely reasonable that we could eventually engineer DNA sequences to produce things with at least that much complexity, if not far higher complexity, and using a much larger selection of materials.

Other advantages from using such an approach include the enormous energy savings gained by adopting the naturally selected economically efficient process of self-assembly (including less changes in the forms of energy used, and thus less loss) and a reduction in specific product manufacturing infrastructure. That is, whereas we’ve typically made industrial scale machines individually tailored to produce specific components which are later assembled into a final product, by using DNA (and the proteins it codes for) to do the work for us, we will no longer require nearly as much manufacturing capital, for the genetic engineering capital needed to produce any genetic sequence is far more versatile.

Transcending the Human Species

Perhaps the most important application of genetic engineering will be the modification of our own species.  Many of the world’s problems are caused by sudden environmental changes (many of them anthropogenic), and if we can change ourselves and/or other species biologically in order to adapt to these unexpected and sudden environmental changes (or to help prevent them altogether), then the severity of those problems can be reduced or eliminated.  In a sense, we would be selecting our own as well as other species by providing the proper genes to begin with, rather than relying on extremely slow genomic differentiation mechanisms and the greater rates of suffering and loss of life that natural selection normally follows.

Genetic Enhancement of Existing Features

With power over the genome, we may one day be able to genetically increase our life expectancy, for example, by modifying the DNA polymerase-g enzyme in our mitochondria such that they make less errors (i.e. mutations) during DNA replication, by genetically altering telomeres in our nuclear DNA such that they can maintain their length and handle more mitotic divisions, or by finding ways to preserve nuclear DNA, etc. If we also determine which genes lead to certain diseases (as well as any genes that help to prevent them), genetic engineering may be the key to extending the length of our lives perhaps indefinitely.  It may also be the key to improving the quality of that extended life by replacing the techniques we currently use for health and wellness management (including pharmaceuticals) with perhaps the most efficacious form of preventative medicine imaginable.

If we can optimize our brain’s ability to perform neuronal regeneration, reconnection, rewiring, and/or re-weighting based on the genetic instructions that at least partially mediate these processes, this optimization should drastically improve our ability to learn by improving the synaptic encoding and consolidation processes involved in memory and by improving the combinatorial operations leading to higher conceptual complexity.  Thinking along these lines, by increasing the number of pattern recognition modules that develop in the neo-cortex, or by optimizing their configuration (perhaps by increasing the number of hierarchies), our general intelligence would increase as well and would be an excellent complement to an optimized memory.  It seems reasonable to assume that these types of cognitive changes will likely have dramatic effects on how we think and thus will likely affect our philosophical beliefs as well.  Religious beliefs are also likely to change as the psychological comforts provided by certain beliefs may no longer be as effective (if those comforts continue to exist at all), especially as our species continues to phase out non-naturalistic explanations and beliefs as a result of seeing the world from a more objective perspective.

If we are able to manipulate our genetic code in order to improve the mechanisms that underlie learning, then we should also be able to alter our innate abilities through genetic engineering. For example, what if infants could walk immediately after birth (much like a newborn calf)? What if infants had adequate motor skills to produce (at least some) spoken language much more quickly? Infants normally have language acquisition mechanisms which allow them to eventually learn language comprehension and productivity but this typically takes a lot of practice and requires their motor skills to catch up before they can utter a single word that they do in fact understand. Circumventing the learning requirement and the motor skill developmental lag (at least to some degree) would be a phenomenal evolutionary advancement, and this type of innate enhancement could apply to a large number of different physical skills and abilities.

Since DNA ultimately controls the types of sensory receptors we have, we should eventually be able to optimize these as well.  For example, photoreceptors could be modified such that we would be able to see new frequencies of electro-magnetic radiation (perhaps a more optimized range of frequencies if not a larger range altogether).  Mechano-receptors of all types could be modified, for example, to hear a different if not larger range of sound frequencies or to increase tactile sensitivity (i.e. touch).  Olfactory or gustatory receptors could also be modified in order to allow us to smell and taste previously undetectable chemicals.  Basically, all of our sensations could be genetically modified and, when combined with the aforementioned genetic modifications to the brain itself, this would allow us to have greater and more optimized dimensions of perception in our subjective experiences.

Genetic Enhancement of Novel Features

So far I’ve been discussing how we may be able to use genetic engineering to enhance features we already possess, but there’s no reason we can’t consider using the same techniques to add entirely new features to the human repertoire. For example, we could combine certain genes from other animals such that we can re-grow damaged limbs or organs, have gills to breathe underwater, have wings in order to fly, etc.  For that matter, we may even be able to combine certain genes from plants such that we can produce (at least some of) our own chemical energy from the sun, that is, create at least partially photosynthetic human beings.  It is certainly science fiction at the moment, but I wouldn’t discount the possibility of accomplishing this one day after considering all of the other hybrid and transgenic species we’ve created already, and after considering the possible precedent mentioned in the endosymbiotic theory (where an ancient organism may have “absorbed” another to produce energy for it, e.g. mitochondria and chloroplasts in eukaryotic cells).

Above and beyond these possibilities, we could also potentially create advanced cybernetic organisms.  What if we were able to integrate silicon-based electronic devices (or something more biologically compatible if needed) into our bodies such that the body grows or repairs some of these technologies using biological processes?  Perhaps if the body is given the proper diet (i.e. whatever materials are needed in the new technological “organ”) and has the proper genetic code such that the body can properly assimilate those materials to create entirely new “organs” with advanced technological features (e.g. wireless communication or wireless access to an internet database activated by particular thoughts or another physiological command cue), we may eventually be able to get rid of external interface hardware and peripherals altogether.  It is likely that electronic devices will first become integrated into our bodies through surgical implantation in order to work with our body’s current hardware (including the brain), but having the body actually grow and/or repair these devices using DNA instruction would be the next logical step of innovation if it is eventually feasible.

Malleable Human Nature

When people discuss complex issues such as social engineering, sustainability, crime-reduction, etc., it is often mentioned that there is a fundamental barrier between our current societal state and where we want or need to be, and this barrier is none other than human nature itself.  Many people in power have tried to change human behavior with brute force while operating under the false assumption that human beings are analogous to some kind of blank slate that can simply learn or be conditioned to behave in any way without limits. This denial of human nature (whether implicit or explicit) has led to a lot of needless suffering and has also led to the de-synchronization of biological and cultural evolution.

Humans often think that they can adapt to any cultural change, but we often lose sight of the detrimental power that technology and other cultural inventions and changes can have over our physiological and psychological well-being. In a nutshell, the speed of cultural evolution can often make us feel like a fish out of water, perhaps better suited to live in an environment closer to our early human ancestors.  Whatever the case, we must embrace human nature and realize that our efforts to improve society (or ourselves) will only have long term efficacy if we work with human nature rather than against it.  So what can we do if our biological evolution is out-of-sync with our cultural evolution?  And what can we do if we have no choice but to accept human nature, that is, our (often selfish) biologically-driven motivations, tendencies, etc.?  Once again, genetic engineering may provide a solution to many of these previously insoluble problems.  To put it simply, if we can change our genome as desired, then we may be able to not only synchronize our biological and cultural evolution, but also change human nature itself in the process.  This change could not only make us feel better adjusted to the modern cultural environment we’re living in, but it could also incline us to instinctually behave in ways that are more beneficial to each other and to the world as a whole.

It’s often said that we have selfish genes in some sense, that is, many if not all of our selfish behaviors (as well as instinctual behaviors in general) are a reflection of the strategy that genes implement in their vehicles (i.e. our bodies) in order for the genes to maintain themselves and reproduce.  That genes possess this kind of strategy does not require us to assume that they are conscious in any way or have actual goals per se, but rather that natural selection simply selects genes that code for mechanisms which best maintain and spread those very genes.  Natural selection tends toward effective self-replicators, and that’s why “selfish” genes (in large part) cause many of our behaviors.  Improving reproductive fitness and successful reproduction has been the primary result of this strategy and many of the behaviors and motivations that were most advantageous to accomplish this are no longer compatible with modern culture including the long-term goals and greater good that humans often strive for.

Humans no longer exclusively live under the law of the jungle or “survival of the fittest” because our humanistic drives and their cultural reinforcements have expanded our horizons beyond simple self-preservation or a Machiavellian mentality.  Many humans have tried to propagate principles such as honesty, democracy, egalitarianism, immaterialism, sustainability, and altruism around the world, and they are often high-jacked by our often short-sighted sexual and survival-based instinctual motivations to gain sexual mates, power, property, a higher social status, etc.  Changing particular genes should also allow us to change these (now) disadvantageous aspects of human nature and as a result this would completely change how we look at every problem we face. No longer would we have to say “that solution won’t work because it goes against human nature”, or “the unfortunate events in human history tend to recur in one way or another because humans will always…”, but rather we could ask ourselves how we want or need to be and actually make it so by changing our human nature. Indeed, if genetic engineering is used to accomplish this, history would no longer have to repeat itself in the ways that we abhor. It goes without saying that a lot of our behavior can be changed for the better by an appropriate form of environmental conditioning, but for those behaviors that can’t be changed through conditioning, genetic engineering may be the key to success.

To Be or Not To Be?

It seems that we have been given a unique opportunity to use our ever increasing plethora of experiential data and knowledge and combine it with genetic engineering techniques to engineer a social organism that is by far the best adapted to its environment.  Additionally, we may one day find ourselves living in a true global utopia, if the barriers of human nature and the de-synchronization of biological and cultural evolution are overcome, and genetic engineering may be the only way of achieving such a goal.  One extremely important issue that I haven’t mentioned until now is the ethical concerns regarding the continued use and development of genetic engineering technology.  There are obviously concerns over whether or not we should even be experimenting with this technology.  There are many reasonable arguments both for and against using this technology, but I think that as a species, we have been driven to manipulate our environment in any way that we are capable of and this curiosity is a part of human nature itself.  Without genetic engineering, we can’t change any of the negative aspects of human nature but can only let natural selection run its course to modify our species slowly over time (for better or for worse).

If we do accept this technology, there are other concerns such as the fact that there are corporations and interested parties that want to use genetic engineering primarily if not exclusively for profit gain (often at the expense of actual universal benefits for our species) and which implement questionable practices like patenting plant and animal food sources in a potentially monopolized future agricultural market.  Perhaps an even graver concern is the potential to patent genes that become a part of the human genome, and the (at least short term) inequality that would ensue from the wealthier members of society being the primary recipients of genetic human enhancement. Some people may also use genetic engineering to create new bio-warfare weaponry and find other violent or malicious applications.  Some of these practices could threaten certain democratic or other moral principles and we need to be extremely cautious with how we as a society choose to implement and regulate this technology.  There are also numerous issues regarding how these technologies will affect the environment and various ecosystems, whether caused by people with admirable intentions or not.  So it is definitely prudent that we proceed with caution and get the public heavily involved with this cultural change so that our society can move forward as responsibly as possible.

As for the feasibility of the theoretical applications mentioned earlier, it will likely be computer simulation and computing power that catalyze the knowledge base and capability needed to realize many of these goals (by decoding the incredibly complex interactions between genes and the environment) and thus will likely be the primary limiting factor. If genetic engineering also involves expanding the DNA components we have to work with, for example, by expanding our base-four system (i.e. four nucleotides to choose from) to a higher based system through the use of other naturally occurring nucleotides or even the use of UBPs (i.e. “Unnatural Base Pairs”), while still maintaining low rates of base-pair mismatching and while maintaining adequate genetic information processing rates, we may be able to utilize previously inaccessible capabilities by increasing the genetic information density of DNA.  If we can overcome some of the chemical natural selection barriers that were present during abiogenesis and the evolution of DNA (and RNA), and/or if we can change the very structure of DNA itself (as well as the proteins and enzymes that are required for its implementation), we may be able to produce an entirely new type of genetic information storage and processing system, potentially circumventing many of the limitations of DNA in general, and thus creating a vast array of new species (genetically coded by a different nucleic acid or other substance).  This type of “nucleic acid engineering”, if viable, may complement the genetic engineering we’re currently performing on DNA and help us to further accomplish some of the aforementioned goals and applications.

Lastly, while some of the theoretical applications of genetic engineering that I’ve presented in this post may not sound plausible at all to some, I think it’s extremely important and entirely reasonable (based on historical precedent) to avoid underestimating the capabilities of our species.  We may one day be able to transform ourselves into whatever species we desire, effectively taking us from trans-humanism to some perpetual form of conscious evolution and speciation.  What I find most beautiful here is that the evolution of consciousness has actually led to a form of conscious evolution. Hopefully our species will guide this evolution in ways that are most advantageous to our species, and to the entire diversity of life on this planet.

Neuroscience Arms Race & Our Changing World View

leave a comment »

At least since the time of Hippocrates, people began to realize that the brain was the physical correlate of consciousness and thought.  Since then, the fields of psychology, neuroscience, and several inter-related fields have emerged.  There have been numerous advancements made within the field of neuroscience during the last decade or so, and in that same time frame there has also been an increased interest in the social, religious, philosophical, and moral implications that have precipitated from such a far-reaching field.  Certainly the medical knowledge we’ve obtained from the neurosciences has been the primary benefit of such research efforts, as we’ve learned quite a bit more about how the brain works, how it is structured, and the ongoing neuropathology that has led to improvements in diagnosing and treating various mental illnesses.  However, it is the other side of neuroscience that I’d like to focus on in this post — the paradigm shift relating to how we are starting to see the world around us (including ourselves), and how this is affecting our goals as well as how to achieve them.

Paradigm Shift of Our World View

Aside from the medical knowledge we are obtaining from the neurosciences, we are also gaining new perspectives on what exactly the “mind” is.  We’ve come a long way in demonstrating that “mental” or “mind” states are correlated with physical brain states, and there is an ever growing plethora of evidence which suggests that these mind states are in fact caused by these brain states.  It should come as no surprise then that all of our thoughts and behaviors are also caused by these physical brain states.  It is because of this scientific realization that society is currently undergoing an important paradigm shift in terms of our world view.

If all of our thoughts and behaviors are mediated by our physical brain states, then many everyday concepts such as thinking, learning, personality, and decision making can take on entirely new meanings.  To illustrate this point, I’d like to briefly mention the well known “nature vs. nurture” debate.  The current consensus among scientists is that people (i.e. their thoughts and behavior) are ultimately products of both their genes and their environment.

Genes & Environment

From a neuroscientific perspective, the genetic component is accounted for by noting that genes have been shown to play a very large role in directing the initial brain wiring schema of an individual during embryological development and through gestation.  During this time, the brain is developing very basic instinctual behavioral “programs” which are physically constituted by vastly complex neural networks, and the body’s developing sensory organs and systems are also connected to particular groups of these neural networks.  These complex neural networks, which have presumably been naturally selected for in order to benefit the survival of the individual, continue being constructed after gestation and throughout the entire ontogenic evolution of the individual (albeit to lesser degrees over time).

As for the environmental component, this can be further split into two parts: the internal and the external environment.  The internal environment within the brain itself, including various chemical concentration gradients partly mediated by random Brownian motion, provides some gene expression constraints as well as some additional guidance to work with the genetic instructions to help guide neuronal growth, migration, and connectivity.  The external environment, consisting of various sensory stimuli, seems to modify this neural construction by providing a form of inputs which may cause the constituent neurons within these neural networks to change their signal strength, change their action potential threshold, and/or modify their connections with particular neurons (among other possible changes).

Causal Constraints

This combination of genetic instructions and environmental interaction and input produces a conscious, thinking, and behaving being through a large number of ongoing and highly complex hardware changes.  It isn’t difficult to imagine why these insights from neuroscience might modify our conventional views of concepts such as thinking, learning, personality, and decision making.  Prior to these developments over the last few decades, the brain was largely seen as a sort of “black box”, with its internal milieu and functional properties remaining mysterious and inaccessible.  From that time and prior to it, for millennia, many people have assumed that our thoughts and behaviors were self-caused or causa sui.  That is, people believed that they themselves (i.e. some causally free “consciousness”, or “soul”, etc.) caused their own thoughts and behavior as opposed to those thoughts and behaviors being ultimately caused by physical processes (e.g. neuronal activity, chemical reactions, etc.).

Neuroscience (as well as biochemistry and its underlying physics) has shed a lot of light on this long-held assumption and, as it stands, the evidence has shown this prior assumption to be false.  The brain is ultimately controlled by the laws of physics since every chemical reaction and neural event that physically produces our thoughts, choices, and behaviors, have never been shown to be causally free from these physically guiding constraints.  I will mention that quantum uncertainty or quantum “randomness” (if ontologically random) does provide some possible freedom from physical determinism.  However, these findings from quantum physics do not provide any support for self-caused thoughts or behaviors.  Rather, it merely shows that those physically constrained thoughts and behaviors may never be completely predictable by physical laws no matter how much data is obtained.  In other words, our thoughts and behaviors are produced by highly predictable (although not necessarily completely predictable) physical laws and constraints as well as some possible random causal factors.

As a result of these physical causal constraints, the conventional perspective of an individual having classical free will has been shattered.  Our traditional views of human attributes including morality, choices, ideology, and even individualism are continuing to change markedly.  Not surprisingly, there are many people uncomfortable with these scientific discoveries including members of various religious and ideological groups that are largely based upon and thus depend on the very presupposition of precepts such as classical free will and moral responsibility.  The evidence that is compiling from the neurosciences is in fact showing that while people are causally responsible for their thoughts, choices, and behavior (i.e. an individual’s thoughts and subsequent behavior are constituents of a causal chain of events), they are not morally responsible in the sense that they can choose to think or behave any differently than they do, for their thoughts and behavior are ultimately governed by physically constrained neural processes.

New World View

Now I’d like to return to what I mentioned earlier and consider how these insights from neuroscience may be drastically modifying how we look at concepts such as thinking, learning, personality, and decision making.  If our brain is operating via these neural network dynamics, then conscious thought appears to be produced by a particular subset of these neural network configurations and processes.  So as we continue to learn how to more directly control or alter these neural network arrangements and processes (above and beyond simply applying electrical potentials to certain neural regions in order to bring memories or other forms of imagery into consciousness, as we’ve done in the past), we should be able to control thought generation from a more “bottom-up” approach.  Neuroscience is definitely heading in this direction, although there is a lot of work to be done before we have any considerable knowledge of and control over such processes.

Likewise, learning seems to consist of a certain type of neural network modification (involving memory), leading to changes in causal pattern recognition (among other things) which results in our ability to more easily achieve our goals over time.  We’ve typically thought of learning as the successful input, retention, and recall of new information, and we have been achieving this “learning” process through the input of environmental stimuli via our sensory organs and systems.  In the future, it may be possible to once again, as with the aforementioned bottom-up thought generation, physically modify our neural networks to directly implant memories and causal pattern recognition information in order to “learn” without any actual sensory input, and/or we may be able to eventually “upload” information in a way that bypasses the typical sensory pathways thus potentially allowing us to catalyze the learning process in unprecedented ways.

If we are one day able to more directly control the neural configurations and processes that lead to specific thoughts as well as learned information, then there is no reason that we won’t be able to modify our personalities, our decision-making abilities and “algorithms”, etc.  In a nutshell, we may be able to modify any aspect of “who” we are in extraordinary ways (whether this is a “good” or “bad” thing is another issue entirely).  As we come to learn more about the genetic components of these neural processes, we may also be able to use various genetic engineering techniques to assist with the necessary neural modifications required to achieve these goals.  The bottom line here is that people are products of their genes and environment, and by manipulating both of those causal constraints in more direct ways (e.g. through the use of neuroscientific techniques), we may be able to achieve previously unattainable abilities and perhaps in a relatively miniscule amount of time.  It goes without saying that these methods will also significantly affect our evolutionary course as a species, allowing us to enter new landscapes through our substantially enhanced ability to adapt.  This may be realized through these methods by finding ways to improve our intelligence, memory, or other cognitive faculties, effectively giving us the ability to engineer or re-engineer our brains as desired.

Neuroscience Arms Race

We can see that increasing our knowledge and capabilities within the neurosciences has the potential for drastic societal changes, some of which are already starting to be realized.  The impact that these fields will have on how we approach the problem of criminal, violent, or otherwise undesirable behavior can not be overstated.  Trying to correct these issues by focusing our efforts on the neural or cognitive substrate that underlie them, as opposed to using less direct and more external means (e.g. social engineering methods) that we’ve been using thus far, may lead to much less expensive solutions as well as solutions that may be realized much, much more quickly.

As with any scientific discovery or subsequent technology produced from it, neuroscience has the power to bestow on us both benefits as well as disadvantages.  I’m reminded of the ground-breaking efforts made within nuclear physics several decades ago, whereby physicists not only gained precious information about subatomic particles (and their binding energies) but also how to release these enormous amounts of energy from nuclear fusion and fission reactions.  It wasn’t long after these breakthrough discoveries were made before they were used by others to create the first atomic bombs.  Likewise, while our increasing knowledge within neuroscience has the power to help society improve by optimizing our brain function and behavior, it can also be used by various entities to manipulate the populace for unethical reasons.

For example, despite the large number of free market proponents who claim that the economy need not be regulated by anything other than rational consumers and their choices of goods and services, corporations have clearly increased their use of marketing strategies that take advantage of many humans’ irrational tendencies (whether it is “buy one get one free” offers, “sales” on items that have artificially raised prices, etc.).  Politicians and other leaders have been using similar tactics by taking advantage of voters’ emotional vulnerabilities on certain controversial issues that serve as nothing more than an ideological distraction in order to reduce or eliminate any awareness or rational analysis of the more pressing issues.

There are already research and development efforts being made by these various entities in order to take advantage of these findings within neuroscience such that they can have greater influence over people’s decisions (whether it relates to consumers’ purchases, votes, etc.).  To give an example of some of these R&D efforts, it is believed that MRI (Magnetic Resonance Imaging) or fMRI (functional Magnetic Resonance Imaging) brain scans may eventually be able to show useful details about a person’s personality or their innate or conditioned tendencies (including compulsive or addictive tendencies, preferences for certain foods or behaviors, etc.).  This kind of capability (if realized) would allow marketers to maximize how many dollars they can squeeze out of each consumer by optimizing their choices of goods and services and how they are advertised. We have already seen how purchases made on the internet, if tracked, begin to personalize the advertisements that we see during our online experience (e.g. if you buy fishing gear online, you may subsequently notice more advertisements and pop-ups for fishing related goods and services).  If possible, the information found using these types of “brain probing” methods could be applied to other areas, including that of political decision making.

While these methods derived from the neurosciences may be beneficial in some cases, for instance, by allowing the consumer more automated access to products that they may need or want (which will likely be a selling point used by these corporations for obtaining consumer approval of such methods), it will also exacerbate unsustainable consumption and other personal or societally destructive tendencies and it is likely to continue to reduce (or eliminate) whatever rational decision making capabilities we still have left.

Final Thoughts

As we can see, neuroscience has the potential to (and is already starting to) completely change the way we look at the world.  Further advancements in these fields will likely redefine many of our goals as well as how to achieve them.  It may also allow us to solve many problems that we face as a species, far beyond simply curing mental illnesses or ailments.  The main question that comes to mind is:  Who will win the neuroscience arms race?  Will it be those humanitarians, scientists, and medical professionals that are striving to accumulate knowledge in order to help solve the problems of individuals and societies as well as to increase their quality of life?  Or will it be the entities that are trying to accumulate similar knowledge in order to take advantage of human weaknesses for the purposes of gaining wealth and power, thus exacerbating the problems we currently face?

Technology, Evolution, and the Fate of Mankind

with 2 comments


One could easily argue that human technology is merely a by-product of evolution, or to be more specific, a by-product of natural selection, since any animal possessing a brain and body capable of manipulating their environment to such a high degree is likely to have a higher survival rate than those that do not.  Technology can also be seen as an external evolving feature of the human race, that is, it is changing over time based on environmental pressures that exist, yet it is evolving somewhat independently of our own physical evolution.  Environmental pressures aside, it is clear that our technology has also evolved as a result of our own desire for convenience, entertainment, and pure novelty.  Throughout this post, I plan to discuss our intimate relationship with technology, its evolutionary effects, and also how this may affect the future of our species.

Necessity for Survival?

While technology has provided us with many conveniences, it has also become something that many have come to rely on for their survival (albeit to varying degrees).  Certainly one of our largest problems as a species is our unprecedented reliance on so much technology, not to mention the lack of sustainability for its use.  We have so much infrastructure utilizing enormous amounts of non-renewable fossil fuels, and a host of other interconnected electro-mechanical technologies required for the operation of our civilized world.  We also have medicine and other medical devices that so many depend on, whether to survive an accident, to combat a chronic illness, or to compensate for any number of genetic shortcomings.  Whether it’s a need for prescription glasses, anti-biotics, or a dialysis machine, it is clear that there are a large number of people that couldn’t live without many of these technologies (or would be much less likely to survive without it).

Genetic Change Induced by Technology and Society

I find it interesting to think about how the gene pool has changed as a result of our technology.  There are a considerable number of people living with various life-threatening illnesses, poor eye-sight, obesity, diabetes, sexual dysfunction, etc., due in part to the fact that various synthesized pharmaceuticals and medical advancements have allowed many of these people to live long enough and reproduce.  Not long ago, many people living with these types of impairments would have died young and their genes would have been eradicated.  Now it goes without saying that any advancements we’ve made in terms of genetic engineering or gene therapy, that is, any advancements that actually increase our fitness genetically (and can thus be passed on to future offspring), are not an issue.  Rather, it is all of the other advancements that have merely provided a band-aid approach in order for the genetically less-endowed individuals to survive and reproduce.

Now granted, many of the health problems we encounter in society are largely a result of environmental circumstances (caused by technology or otherwise) transpiring ontogenically as opposed to those which are largely inherited genetically.  There are also a large number of conditions surfacing simply because we’ve increased our life expectancy in such a short amount of time.  Regardless, the gene pool has indeed been affected by a plethora of heritable factors resulting from our technologically pampered society.

It must be said that our gene pool has seen this genetically sub-par influx partly due to the fact that the previous environmental pressures that would have eradicated these genes has been replaced with a technologically savvy super-organism that values human life regardless of how much each life contributes to, or detracts from, the longevity of our species.  Unlike most species, we are at least self-aware, and many of us fully understand the possibility that some of our choices may lead to the extinction of our species (as well as others).  However, I believe that this possibility of extinction hasn’t been taken very seriously and thus there hasn’t been enough invested in evaluating the direction we are heading as a species, let alone the direction we are heading as an entire planet.

Engineered Selection

Now it may be that one day our technology will allow us to understand and manipulate our genome (or that of any other species) such that we can prevent and/or cure any disease or handle any environmental change, effectively eliminating our form of natural selection from the evolutionary equation.  After all, if we could simply modify our gene pool in order to survive any environmental change that is otherwise out of our control, then the gradual course for natural selection and the mutations previously required to make it an effective mechanism, would be replaced by what I would call an “engineered selection”.

We’ve already greatly altered natural selection (relative to other animals) by manipulating our own environmental pressures via technology.  We’ve also created artificial selection (i.e. selective breeding) and utilized this to domesticate various plants and animals, as well as to create breeds possessing traits we find advantageous.  If we actually managed to complement this with a mastery in genetic engineering technology, we would potentially be able to “select” our own species (and the future species we’d become) indefinitely.  The key would be in understanding genetic causal relationships, even if this knowledge required the use of complex genetic evolutionary simulations, supercomputers, etc.

I definitely think that the most significant change for our species lies in this field of genetic engineering, as opposed to any other technological niche.  The possibilities provided by mastering genetic engineering are endless.  We may use it in order to design future offspring with genetic traits that we’re already familiar with (preferably to increase their fitness in the present environment as opposed to superficial motivations), we may add traits from other species (e.g. ability to re-grow limbs, develop wings so we can fly, etc.), or we may even employ some method of integrating communication devices or other deemed “synthetic” technologies into our bodies such that they are biologically grown and repairable, etc.  Humans may use this to genetically engineer brains such that the resulting consciousness has completely different properties, or they may be able to use genetic engineering to create consciousness in a biological “robot”.  If genetically engineered brains result in a more beneficial form of consciousness, higher intelligence, etc., then genetic engineering may end up as a sort of cognitive-evolutionary/technological catalyst thus allowing us to exponentially increase our capacities to solve problems and build ever more advanced technologies.  That is, our enhanced brains and the resulting technology produced would help us to further enhance our brains and technology ad infinitum.  The possibilities are endless if we manage to acquire enough knowledge, acquire the ability to produce engineered DNA sequences, and potentially acquire a way to accelerate the ontogenic evolution of anything produced in order to verify experimental hypotheses/theories in the absence of sufficient computer simulation capabilities.

Fate of Mankind

We are definitely on the cusp of a potentially dramatic evolutionary change for our species.  However, we are also at a very vulnerable stage, for much of our technology has caused our gene pool to regress in terms of physical fitness within a society that could one day be deprived of much of this technology.  Technology has also led to an incredible population explosion, mainly due to agriculture and the fossil-fuel-catalyzed industrial revolution.  This population explosion has helped us in some ways by providing an increase in idea collaboration (thus leading to an exponential increase in technological evolution), but it has also led to much more disastrous effects on the environment including an increased difficulty in sustainability.

Now from an evolutionary perspective, one could argue that currently, our technology is but an extension of ourselves, and our well-developed brains have more than compensated for our physical regression.  While this claim has some truth to it (at the moment anyway), if we lost our ability to mass-produce the technology required for industrialized agriculture, running water, medicine, transportation, sanitation, etc., whether caused by depleting our non-renewable energy sources or even caused by something like a solar-induced electro-magnetic pulse that takes out our power distribution systems (i.e. the entire electrical grid), how many would perish as a result?  In my opinion, the ideal level of evolutionary progression should be such that removing any non-renewable energy source or other vulnerable technology isn’t catastrophic to the survival of our species.  This way our species is less vulnerable to anything that forces us to take a step backwards.  Currently, if we did lose our non-renewable infrastructure, I believe it would be catastrophic and it would be the hunter-gatherers and/or smaller-scale agrarians (i.e. those that are completely off the grid) that would survive, rise up and once again dominate the gene pool as was the case with our ancestors.

Will we survive until an exclusively “engineered selection” is attained?  Or will we simply fall off the evolutionary cusp and potentially extinguish ourselves with the very technology that led to civilization in the first place?  The answer may depend on our level of respect and caution for the technology we so often take for granted.