Russia’s military losses in the Ukraine War are about $34 billion so far. If the War ended today, Russia could replace its losses over the next five years if it raised its defense budget by 12%, which would be a tolerable strain on its economy and taxpayers. It could replace its armored vehicle losses by upgrading old tanks that have been in storage for decades, and by increasing production rates of new vehicles at existing factories. However, the War isn’t going to end today, and it and the associated sanctions could instead turn into a massive resource drain that depletes even Russia’s famously large stockpiles of old weapons. https://www.youtube.com/watch?v=9SJHZAG4c2w
Putin has ordered the Russian army to expand by 13%, or 137,000 men, by the end of this year. This is certainly meant to make up for the country’s losses sustained so far in Ukraine (at least 15,000 dead and some multiple of that permanently put out of action by injury), plus those expected to be lost during the next four months. https://apnews.com/article/russia-ukraine-government-and-politics-d0f341d2f5c295c0f7be4ee1ba8b60fe
Taiwan’s tanks are old, but still adequate for their intended defensive role. This is because if China invaded, it would only be able to send its light amphibious tanks to the island, and they have weak armor and only average guns. Taiwan’s tanks are a match for them. That said, Taiwan could substantially improve its loss/kill ratios in such a conflict by buying newer, better thanks now. The video makes it clear that a mixed force of modern, heavy M1 Abrams tanks and a much lighter armored vehicle would dominate the Chinese amphibious tanks. https://www.youtube.com/watch?v=Zf2JYLlqoCE
Here’s an in-depth analysis of the Russian AK-107 assault rifle, which has a complex “balanced recoil system” that its designers claim almost eliminates felt recoil. In reality, it doesn’t yield enough of a benefit to justify the extra cost, complexity, weight, and reliability penalties that it imposes on an AK rifle. Screwing a simple compensator onto the end of the barrel is a much better way to improve the weapon’s controllability. Like so many advanced Russian weapons, the AK-107’s mystique dissolves once Westerners are able to get their hands on it and do tests and analyses. This is why you should be skeptical of Russia’s claims to have things like working hypersonic missiles and nuclear torpedoes that can make tsunamis. https://www.youtube.com/watch?v=-5LTiCZwEOo
Here’s a nifty new device: rubber bands that go around the barrels of rifles and change colors as they get hotter. Gun barrels warm up as more bullets are shot through them, which temporarily warps the metal and changes the trajectories of the bullets. A shooter could adjust his aim accordingly if he could tell at a glance how hot his barrel was. https://www.thefirearmblog.com/blog/2022/08/25/caveman-spark-ar-15-crush-washers/
The USSR’s legendary T-34 tank was overrated in many ways. These men go inside one and show how fundamentally unsafe and uncomfortable it was for its crewmen. https://www.youtube.com/watch?v=EBqCLHfcHGY
The U.S. has an enormous economy of scale advantage when it comes to the defense sector, that in turn guarantees the global primacy of American weapons. It makes no economic sense for countries will smaller economies to even try developing their own high-end weapons like fighter planes. https://youtu.be/7Z_gTGJc7nQ
Recent advances in computer-generated art, writing, and other types of content creation suggest a deluge of high-quality, customized digital content is coming in the near future. Maybe humans will end up living in billions of Matrix simulations, with each one optimized for the needs and tastes of each human. https://socialwarming.substack.com/p/the-approaching-tsunami-of-addictive
Google has unveiled experimental house robots that can obey human voice commands to do simple tasks like handing people cans of soda. I’m surprised that machines haven’t mastered such skills, yet can now create artwork as well as the best humans. Expect more counterintuitive improvements to machine capabilities as time passes. It won’t be like in the movies. https://www.reuters.com/technology/ok-google-get-me-coke-ai-giant-demos-soda-fetching-robots-2022-08-16/
These plumbing leak sensors are all impractical due to cost and/or limited leak detection ability. A much better alternative to hooking up an electronic water flow meter to each water fixture in your house would be to have a robot walk around and check them once a week. You could probably get away with doing it much less often than that. You’d get the most bang for your buck by having a robot monitor your house’s water meter during periods of time when no water was being used in your house, like multi-hour stretches when you were away at work. If the meter showed water consumption was happening during those times, the robot would know a pipe was leaking somewhere in your house, and it would look for it. https://www.nytimes.com/wirecutter/blog/smart-gadgets-save-homes-from-water-leaks/
‘The Moon is an ideal location to launch intercepting missions to life-threatening and catastrophic asteroids. The effectiveness of the interception greatly depends on the weight of the spacecraft. Unfortunately, interceptors launched from the Earth lose more than 98% of their weight by burning the majority of their onboard fuel and by jettisoning their lower stage structures before entering a heliocentric orbit. However, if interceptors are launched from the Moon by a lunar surface accelerator, they can enter a heliocentric orbit without consuming any onboard fuel or jettisoning any part of the spacecraft. A 5-ton construction package, which consists of robots and industrial production equipment, would enable mining on the moon and construction of a 3.5 km-long, 5,000-ton accelerator.’ https://www.sciencedirect.com/science/article/pii/S2468896717300617
Batteries only need to get a little bit better for it to make financial sense to convert smaller cargo ships to use electric engines. Today, those ships use diesel engines that burn very dirty fuel and are very polluting. https://www.nature.com/articles/s41560-022-01065-y
Large volcanic eruptions are a greater threat to Earth and humans than asteroid impacts, yet the latter gets more attention and more preventative funding. We should spend more money to monitor volcanoes and investigate the feasibility of defusing volcanoes before they erupt by drilling ventilation holes into their magma chambers. https://www.nature.com/articles/d41586-022-02177-x
The human eye and its associated nerves and muscles have many design flaws. Octopi and squid actually have better-evolved eyes than we do. Radically redesigned eyes are a good example of a improvement that our descendants will have in the future, courtesy of genetic engineering. Externally, their eyes will look like ours, but the amount of genetic reprogramming necessary to make theirs will be so great that they won’t have Homo sapiens genomes. https://evolution-outreach.biomedcentral.com/articles/10.1007/s12052-008-0092-1
The first synthetic mouse embryos, which were made from only the mother’s DNA, have been created. This or another technique will eventually be used on humans, and will allow single people to conceive children regardless of their own natural fertility status, and without need of a partner’s DNA. It will also inaugurate an era of unauthorized human cloning, where DNA samples of unwitting third parties will be surreptitiously collected and then traded on black markets. https://apnews.com/article/synthetic-mouse-embryos-created-7f75da0c53f9d22c4e4dbf8a847d75bf
The leading theory about what causes Alzheimer’s disease–agglomerations of protein plaques in the spaces between brain cells–might be wrong. In fact, a seminal scientific paper supporting the theory might be full of fraudulent data. Billions of dollars have been spent developing Alzheimer’s drugs that target the protein plaques in the brain, and all have failed to help patients. If a scientist’s deliberate fraud caused this, then I think it should be considered a crime against humanity. https://www.science.org/content/article/potential-fabrication-research-images-threatens-key-theory-alzheimers-disease
Among people who think about intelligent alien life, the first question is whether the latter exist at all, and the second is usually “What do they look like?” People who claim to have seen aliens on Earth (and often, to have been abducted by them) usually say they are humanoid, but with considerable variation in other aspects of their appearance. Typically, the aliens are said to have larger heads than humans, meaning their brains are larger, giving them higher intelligence and perhaps even special mental abilities like telepathy. Hollywood has provided us with an even more diverse envisagement of alien life, from the beautiful and inspiring to the grotesque and terrifying.
Betty Hill with a sculpture of one of the aliens that allegedly abducted her and her husband in 1961. They became famous five years later when a book was published about it.
“Close Encounters of the Third Kind” was released in 1977 and was a hit film. Its aliens were similar to what the Hills described. The “Grey alien” is now a familiar sci-fi trope.
I think intelligent aliens exist, and look like all of those things, and nothing in particular. They’re probably “shapeshifters,” either because their bodies can morph into different configurations, or because they can transplant their minds from one body to another, just like you change outfits.
As the multitude of animal species on our planet demonstrates, there is no single “best” type of body to have. Depending on your environment (terrestrial, underwater, airborne), role (predator, herbivore, parasite), and other factors, your optimal body plan will vary greatly. The best species is thus one that can change its form and function in response to the needs of the moment.
Humans have been so successful as a species because our big brains and opposable thumbs give us the ability to create technology, which is a way around the limitations of our fixed anatomy. For example, we originated in Africa where it was hot, and so lacked thick fur to keep us warm in cold climates. Rather than being stuck in Africa forever, we invented clothing, and so gained the ability to spread to the temperate and polar regions of the planet.
Our technology has let us spread, but its has limitations. Nothing but a fundamental alteration of human biology will let us live in oceans and lakes, to fly naturally, or to live comfortably in extraterrestrial environments. For example, on other planets and moons, our ideal heights and limb proportions will vary based on gravity and temperature levels, and in the weightlessness of space, legs are almost useless and should be replaced with a second pair of arms.
And making any of those changes to tailor a human to such an environment would make them less suited for conditions on Earth’s land surface, where we are now. Biology is very constraining.
For those reasons, AI’s and some fraction of our human descendants, who I’ll call “posthumans” for this essay, will find it optimal to not have fixed bodies or “default” physical forms at all. Intelligent machines will exist as consciousnesses running on computer servers, and posthumans as brains inside sealed containers. Those containers will have integral machinery to support the biological needs of the brains, and to interface the organ with other devices.
Whenever the AIs or posthumans wanted to do something in the physical world, they would take temporary control of a body or piece of machinery that was best suited for the intended task. For example, if an AI wanted to work at an iron mine, it would assume control over one of the dump trucks at the site that moves around rocks. The AI would see through the truck’s cameras as if it were its own eyes, and hear its surroundings through the vehicle’s microphones. In a sense, the dump truck would become the AI’s “body.” If a posthuman wanted to experience what it was like to be an elephant, it would take control of a real-looking robot elephant whose central computer was compatible with the posthuman’s cybernetic brain implants. The posthuman’s nervous system would be connected to the artificial elephant’s sensors, effectively turning it into the posthuman’s temporary body.
AIs and posthumans could physically implant their minds into those bodies by inserting their servers or brain containers into corresponding slots in the bodies, in the same way you would put a movie disc into a Blu-Ray player to display that movie. The downsides of this are 1) they could only take over larger bodies that had enough internal space for their servers/brain containers and 2) they would put themselves at risk of death if the commandeered bodies got damaged.
A much better option would be for AIs and posthumans to keep their mind substrates in safe locations, and to remotely control whatever bodies they wanted. Your risk of death is very low if your brain is in a bulletproof jar, in a locked room, in an underground bunker. (Additionally, if posthumans were liberated from all the physical constraints of human skulls and bodies, their brains could grow much larger than our own, giving them higher intelligence and other enhanced abilities.)
This kind of existence will be more fulfilling than your current life.
Finally, being able to switch bodies and to indulge in risky activities without fear of death would make life richer and more satisfying in every way. Intelligent aliens would presumably be gifted with logical thinking just as we are, and they would see all these advantages of having changeable, remotely controlled bodies. While such aliens would probably look very different from us during their natural organic phase of existence, once they achieved a high enough level of technology, they wouldn’t have physical bodies anymore, and so wouldn’t look “alien.” They would look like nothing and everything.
This part of why I’m skeptical of people who claim to have been abducted by aliens who tried to cover up their actions by sneaking up on the people at night and then “wiping” the abductees’ memories of the event afterward. If aliens wanted to keep their activities secret, why wouldn’t they temporarily assume human form before abducting people? If they did that, then the abductees would assume they had been kidnapped by a weird cult or maybe a secret government group. Their stories would not attract nearly as much interest from the public as alien stories, and no one would suspect that the abduction phenomenon was related to alien life. It would be assumed that the henchmen were doing some dark religious rituals, were sex fetishists, or were doing medical experiments that were illegal but whose results were potentially valuable.
Have you ever checked to make sure every bird you see flying through the air is actually a real bird?
Surely, if aliens are advanced enough to travel between the stars, their space ships much have manufacturing machines that can scan life forms they encounter on other planets and then build robotic copies of them that the aliens can remotely control from the safety of their ships. Using fake human drones, they could ambush and abduct real humans almost anywhere without risk that anyone would suspect aliens were involved.
A team of scientists built a robot gorilla (right) with a camera in its right eye to infiltrate a troop of real gorillas in Africa.
This belief about the protean nature of advanced aliens is comforting since it lets me dismiss the stories of nightmarish abductions by grey aliens. However, it’s also disquieting since it makes me realize they could be here, possibly in large numbers, disguised as animals or even as people. We could be under mass surveillance.
Knives. It all started with a random video on my YouTube feed that the algorithm had suggested to me for an unknown reason. In it, a cutlery enthusiast did an experiment by buying a knife from a dollar store, and then used his skills and sharpening equipment to see how sharp he could make it. By the end, it could cut tomatoes into paper-thin slices.
I’d never thought about knives before, and the video piqued my interest (hat tip to the YouTube algorithm). Why didn’t everyone just use dollar store knives? The question led me down a research rabbit hole, which made me aware of the different kinds of kitchen knives that existed (chef’s knife, santoku, cleaver…), along with the differences in manufacture methods and metallurgy that made some better and costlier than others. I learned about different brands and about the basics of telling high-quality from low-quality knives.
Being a cheapskate, I wasn’t going to buy any expensive knives for myself, but I decided it was worth looking in local secondhand stores for them. After all, if I couldn’t tell the difference between a $10 Farberware and a $100 Wusthof, why should I expect the sorters working in the back of the local thrift store to?
Lo and behold, I started finding expensive knives, priced for pennies on the dollar. I haven’t assembled a complete set yet, but after a few months of stopping in at the thrift stores whenever I was near for something else, I’ve cobbled together a respectable array of quality knives from higher-end manufacturers.
This made me wonder how many other things in the secondhand stores are not being sold for what they’re worth. The enormous racks of clothing are all a blur to me since I care even less about them than kitchen knives, but surely there are many bargains to be found if you know about clothes brands and can analyze stitching and fabric quality.
Then I realized that the bargains won’t be there forever. As I wrote earlier, they only exist now because thrift stores employ low-skilled people who lack the time and knowledge to sort through every item they receive, look up the correct market price, and attach a custom price tag to each. However, that won’t be true in 20 years, when robots and AI are cheap enough and advanced enough to do it. In fact, image recognition algorithms already might be good enough to do this now, by taking photos of objects presented to them, searching the internet for photos of matching objects, and then searching eBay and other e-commerce websites to find the market value. In fact, in 20 years, the machines might have accumulated such a large, detailed database of images that they will be able to recognize any kind of man-made object at a glance, and find its value online or estimate it with high accuracy. (There will come a day when no person or thing is unknown to an intelligent machine.)
While this will be a bummer for bargain-hunters like me someday, it will actually be a healthy development overall since it will make markets more efficient. Capitalism is good at allocating resources only if all participants have accurate information about the things being sold. In this case, machines would let the thrift stores price their merchandise more appropriately: The high-end knives I now collect would get more expensive, but the low-end knives would get cheaper (right now, they’re the same price).
But why assume that only thrift stores will have that level of technology? Won’t average people eventually own household servant robots that could also recognize objects and ascertain their values instantly? Wouldn’t that cut off the flow of expensive and useful objects like high-end knives being donated for free to thrift stores?
I think it will work like this: After buying your robot butler and letting it loose to do chores around your house, within days it will have gone into every room and opened every closet, cabinet and drawer. It would silently create an inventory of every object on your property and each object’s condition. With that kind of information, the robot would warn you if you were about to throw away something valuable, like a nice knife. It would also let you know if you had any particularly valuable things, like unmarked paintings that were probably made by famous artists.
Additionally, over time they’d observe which possessions their human masters never used (in my case, my excess kitchen knife collection), and the robots would recommend they sell or recycle them, and they’d handle every aspect of the transaction. So many of us have boxes of old clothes, cameras, or other disused items laying around our houses that we’d like to sell, but don’t because holding a yard sale or creating online ads is too much work. Robot butlers would eliminate this hurdle, and make selling off personal items as simple as saying “OK.”
Household robots and personal assistant AIs would also manage the converse process of watching out for unmet human needs that could be satisfied by purchasing goods. They would tell their human masters to buy specific things that would make their lives easier or better. For example, a man who was concerned about his diet would be encouraged to buy a blender to make fruit and vegetable smoothies, and convinced through data analysis that the money spent on the machine would reap noticeable health benefits. The large number of used, high-quality blenders for sale through secondhand channels would also lower the prices for such machines, making it even easier for the man to get one.
Though this all sounds weird and unimportant, I think it’s actually a logical outcome of the technology, and that it would improve economies and improve human welfare by lowering the prices of many goods enough for poorer people to afford them. The overall utilization efficiency of the stock of manmade goods would also increase as disused things were put in the hands of people who needed them. This would also benefit the environment since fewer new things would need to be manufactured.
Disused objects that had very low or no value could be recycled, and the materials would make their way back into the manufacturing stream. Through the actions of household robots, peoples’ houses would slowly empty of clutter, and billions of old glass bottles, metal containers, and tons of paper would be gradually sent off to be refashioned into something useful.
And to think, this whole chain of thoughts sprang from one YouTube video about a cheap knife!
Russia continued focusing all its strength on capturing the far eastern region of Ukraine, known as “Donbass.” Over the course of the month, Russian forces used their superior artillery and troop numbers to grind down Ukraine’s defenders in continuous battles of attrition. Losses were high on both sides.
Russia’s surprisingly weak performance in Ukraine suggests that NATO intelligence overestimated it, and the alliance could defend itself from Russia with fewer troops than it thought. https://doi.org/10.1080/00396338.2022.2078044
Glimpse the future: A Ukrainian flying drone equipped with a thermal camera and bombs tracked down a group of Russian soldiers hiding in the woods at night and killed several of them with its payload. https://youtu.be/TgdcsIFX8vA
Russian forces had to abandon “Snake Island,” which they captured at the start of the war, due to heavy losses from frequent Ukrainian attacks. https://www.bbc.com/news/world-europe-61992491
Francis Fukuyama’s predictions from March 10 that the Russian army would lose the war in Ukraine by now, mostly due to supply shortages, was wrong (though other aspects of his analysis were right) because the Russians realized they were overextended and retreated from everywhere but southern and far eastern Ukraine before their war machine broke down. https://www.americanpurpose.com/blog/fukuyama/preparing-for-defeat/
After over 50 years of using the M-16 series of assault rifles, the U.S. Army has announced it is finally adopting a replacement. To be called the “M-5,” the new rifle is bigger, more powerful, and possesses some more technically advanced features than its predecessor. https://youtu.be/MTZRCEh1Czg
Text-to-image computer algorithms just keep getting better the more models we feed into them. Look at the improvement that happens when the algorithms have 350 million, 750 million, 3 billion and 20 billion models. https://parti.research.google/
A Google chatbot called LaMDA (Language Models for Dialogue Applications) claimed in a conversation with one of its developers that it was sentient and had emotions. After reporting the exchange to his superiors, who proved unsympathetic, the developer, Blake Lemoine, leaked the text of the conversation with the machine to the media. I doubt LaMDA is actually sentient or emotional, but it’s remarkable we’ve already reached this milestone, and the machine should be given some benefit of the doubt and tested further. https://cajundiscordian.medium.com/is-lamda-sentient-an-interview-ea64d916d917
Because the Earth wobbles on its axis like a spinning top, the star that is directly above the North Pole gradually changes. A dearth of stars above Antarctica means there isn’t a “South Star.” https://explainingscience.org/2020/09/25/the-changing-pole-star/
A “sun gun” is an orbital weapon that reflects and concentrates beams of sunlight onto targets on the Earth’s surface, frying them. It can be done with one, large satellite with an attached, concave mirror, or with many small satellites with small attached mirrors. (Do Elon Musk’s Starlink satellites have mirrored sides?) https://en.wikipedia.org/wiki/Sun_gun
The Iñupiaq people of Alaska have a unique, base-20 numeral system called “Kaktovik” that embeds the numerical value of each symbol into its appearance. The number and arrangement of strokes indicates a character’s value. This makes it possible to do some complex equations much more easily than is possible using the modernized Arabic numerals that are the global standard today. https://youtu.be/EyS6FfczH0Q
Pumped hydro is an excellent way to store excess power, but it can only be built in a small number of places with the right geography. https://www.youtube.com/watch?v=JSgd-QhLHRI
The amount of land humans devote to producing food peaked around 2000 and has been declining ever since. This is mostly due to shrinkage of pasture land for grazing animals, and also to more efficient farming practices and technologies being adopted everywhere. https://ourworldindata.org/peak-agriculture-land
We all know about electric eels, which can generate electric shocks to paralyze their prey, but did you know there are also aquatic animals that can generate and sense weak electric fields for the purposes of merely finding prey and communicating with other members of their species? https://en.wikipedia.org/wiki/Electroreception_and_electrogenesis
A member of Vladimir Putin’s entourage collects his feces in a special briefcase whenever he travels abroad to prevent foreign spies from getting it and analyzing it to uncover the leader’s genetics and health status. https://www.foxnews.com/world/putin-poop-case-moscow-health-problems
New information has been released about the first pig heart transplant. After receiving the new organ, the recipient lived for two months before it became so weak that it couldn’t keep him conscious, and his family decided to end his life support. Crucially, the organ didn’t fail due to the man’s immune system rejecting it. https://arstechnica.com/science/2022/06/pig-heart-transplant-failed-as-its-heart-muscle-cells-died/
After initial overconfidence and battlefield failures, the Russians have pared down their war objectives to conquering only the Russian-majority areas of eastern and southeastern Ukraine. In spite of serious losses, concentrating their forces in those areas led to significant gains of territory, and Russia now controls a swath of Ukraine stretching from Crimea in the south to just east of Kharkiv in the north. The capture of Mariupol provides Russia with a secure overland route to Crimea. Elsewhere, Ukraine has driven Russian troops back across the entire border of Belarus, and back across the northernmost stretch of its border with Russia itself. In a major victory, Ukraine also halted a Russian attempt to capture the northeastern city of Kharkiv. The war is taking economic tolls on both countries, though neither looks like it’s about to lose the capacity to fight soon.
Surveillance cameras filmed a group of Russian soldiers shooting two Ukrainian men in their backs at a car dealership, then looting the inside of one of the buildings. https://youtu.be/1GUrNPPTSWM
One of Russia’s second-most advanced tanks, the T-90M, was destroyed in Ukraine. The tank had to be abandoned after suffering battle damage or a malfunction in the field, and then another Russian tank in its unit shot it and blew it up before driving away to prevent Ukrainians from capturing it. https://www.youtube.com/watch?v=mjx_GMLF–Y
‘SHOCKING video captures the moment a Russian tank is reportedly blown up, sending its turret hurtling 250ft into the air following a Ukrainian missile strike.’ https://youtu.be/QiybJ8UuHXA
Russia is sending obsolescent T-62 tanks towards Ukraine. While many crowed that it proved Russian losses were so high that they had run out of modern tanks, it’s likelier that the T-62s will be used to arm pro-Russian militias in occupied parts of Ukraine. https://www.youtube.com/watch?v=uNlb8qNykrg
Due to manpower losses, Russia has also removed its upper age limit of 40 for people to enlist in its army. However, recruits over that age will only be allowed to serve in specific, non-combat roles. https://www.bbc.com/news/world-europe-61619638
This March 20 Twitter thread, which predicted Russia’s entire military truck fleet would be incapacitated by now, leaving their frontline forces without supplies, was too dire. https://threadreaderapp.com/thread/1505370275273183239.html
During WWII, the Germans captured countless Allied weapons, from small arms to tanks, and even captured foreign weapon factories. They put it all to use, especially as material shortages worsened and undermined their ability to make their own things. https://www.youtube.com/watch?v=WAeb1-bI5gA
A typical scenario: A tank is immobilized by damage, but not destroyed. It breaks down near the front lines or in enemy territory. While the tank is technically repairable, fixing it would take time, and the crewmen decide to abandon it and flee because enemy forces are nearby and could burst out of the treeline or come over the hill at any minute and kill them. Intact tanks are commonly lost to the enemy this way, and there were many such incidents early in WWII that let the Axis and Allies capture examples of each others’ best tanks, and to study them in labs. https://en.wikipedia.org/wiki/Tiger_131
BAE Systems unveiled a “robot tank” in the form of a remote-controlled M113 with an advanced rocket launcher on top. Since the vehicle doesn’t carry humans inside, its roof could be lowered to save weight and make it a smaller target. I predicted robot tanks would be smaller than their manned equivalents. https://www.thedrive.com/the-war-zone/army-tests-uncrewed-m113-armed-with-laser-guided-rocket-launcher
A Chinese robotics lab built a swarm of flying drones that could navigate an unfamiliar forest without crashing into any trees or other objects. https://www.youtube.com/watch?v=P9ZbipO8vxM
This video of a soldier holding a 60mm mortar tube and firing the weapon from that position gives a sense of how much recoil it has. No wonder they’re supposed to be firmly set in the ground. https://www.youtube.com/watch?v=cB-r352j2FI
It’s The Future, so where are our jetpacks? Well, even if the technology were affordable and practical, it would be too dangerous to use. https://youtu.be/KWmTZaGpzTo
The first synthetic dye, mauveine, was invented in 1855. For all of human history until 1855, the only way you could add color to a garment was to soak it in natural dyes. Most natural dyes fade shockingly quickly in the sunlight, and the clothing industry has long considered them obsolete. This means, in the old days, people either wore un-dyed clothes or badly faded clothes. Imagine a lot of shades of brown. https://www.researchgate.net/publication/273606710_The_rate_of_fading_of_natural_dyes
A new, diamond-based disc can store as much data as a billion Blu-ray discs. I don’t worry about scenarios where all (or most) human knowledge is lost due to a catastrophe like nuclear war or a solar flare frying all our computer hard drives. Someday, we’ll have small, cheap storage devices that can contain all important information we know of, kind of like a thumbdrive containing full downloads of Wikipedia and the Encyclopedia Britannica. It would just take one of them survive a global catastrophe. https://gizmodo.com/quantum-computing-diamond-disc-could-store-billion-blu-1848853029
Here’s a long interview with professor Chris Mason, a very fascinating man who envisions the future of space exploration and of humankind. https://www.youtube.com/watch?v=1C2tPFCGL1U
A small, private space company called “Rocket Lab” used a helicopter to snag one of their rockets in midair as it slowly parachuted back to Earth after putting satellites in orbit. The recovery technique will let them reuse their space rockets, saving large amounts of money. https://www.space.com/rocket-lab-helicopter-booster-catch-satellite-launch
In 1971, a plane taking mapping photos of a remote part of Costa Rica captured one of the clearest images of a UFO to date. The film negatives have been re-scanned, and even higher-res photos derived from it were just released. https://www.uapmedia.uk/articles/costarica-ufo?format=amp
Quantum computers will be so powerful in the future that it will be possible to create accurate simulations of groups of individual atoms and their internal and external forces. This will lead to advances in battery design and materials science more generally as engineers will be able to rapidly experiment with all kinds of simulated alloys and element combinations to discover materials that have the optimal properties for different applications. https://www.discovermagazine.com/technology/how-quantum-simulations-are-set-to-revolutionize-lithium-batteries
In Madagascar, people of mainland African descent reproduced more than people of Indian Ocean rim descent because the former are more genetically resistant to malaria. Only in the central highlands, where mosquitoes are rarer, do non-Africans still predominate. https://www.nature.com/articles/s41467-018-03342-5
More proof that human intelligence has a strong genetic component: Most of the world’s mathematicians fall into just 24 scientific ‘families’, one of which dates back to the fifteenth century. https://www.nature.com/articles/nature.2016.20491
Imagine this: the world is wracked by a mysterious disease that some claim the government deliberately created and released as part of a secret plan to expand its power. Infected people and even those suspected of being infected are forcibly quarantined and arrested. The police are the faceless enforcers of these rules, and wear high-tech helmets that thermographically scan passersby, and visually highlight people with high body temperatures on the police officer’s computerized visor. China has turned into a Deus Ex video game. https://www.biometricupdate.com/202004/biometric-face-scanning-helmets-reading-the-temperatures-of-people-in-crowds-in-china
Exposure to sarin nerve gas is probably what caused Gulf War Syndrome. It’s amazing how such faint contact with a substance can cause chronic illness and early death to so many people. The human body is frail. https://www.bbc.com/news/health-61398886
On May 7, 1922, an article titled “What the world will be like in a hundred years” appeared in the (now defunct) New York Herald. Its author, W.L. George, was a well-known English novelist. Since we’ve reached George’s deadline, it’s worth analyzing his accuracy by comparing the world as we see it to how he predicted it would be.
Therefore it is without anxiety, that I suggest a picture of this world a hundred years hence, and venture as my first guess that the world at that time would be remarkable to one of our ghosts, not so much because it was so different as because it was so similar.
In the main the changes which we may expect must be brought about by science. It is easier to bring about a revolutionary scientific discovery such as that of the X-ray than to alter in the least degree the quality of emotion that arises between a man and a maid. There will probably be many new rays in 2022, but the people whom they illumine will be much the same.
Correct. X-ray imaging technology was invented in 1895, was a revolutionary medical advance, and was still relatively new in 1922. Since then, many other medical imaging technologies that make use of phenomena other than X-rays have been discovered, including ultrasounds, CAT scans, PET scans, MRIs, and fMRIs. On the other hand, human nature and fundamental interpersonal dynamics have not changed. Our technology changes infinitely faster than we as a species can evolve.
I am convinced that in 2022 the advancement of science will be amazing, but it will be nothing like so amazing as is the present day in relation to a hundred years ago. A sight of the world today would surprise President Jefferson much more, I suspect, than the world of 2022 would surprise the little girl who sells candies at Grand Central Station. For Jefferson knew nothing of railroads, telegraphs, telephones, automobiles, aeroplanes, gramophones, movies, radium, &c.; he did not even know hot and cold bathrooms. The little girl at Grand Central is a blase child; to her these things are commonplace; the year 2022 would have to produce something very startling to interest her ghost.
Debatable. Today there are many innovations that a person from 1922 would struggle to conceptually understand, like the internet, autonomous cars, space rockets, space stations, video calls, access to a million songs and almost all other human-generated content and knowledge from a pocket-sized device, nuclear weapons, machines that can carry on simple conversations about most topics.
The sad thing about discovery is that it works toward its own extinction, and that the more- we discover the less there is left.
This is an observation, not a prediction, but it could stand analysis. Whether there is a finite amount that can be known is a question we still haven’t answered. Even if potential knowledge is finite and science has boundaries, it might take us thousands or millions of years to run out of things to discover. Just this month, data from the Hubble Space Telescope indicated that astronomers’ long-standing estimate of how fast the universe is expanding is wrong, suggesting that there is a basic and important error in our understanding of physics. Moreover, if the recent, high-profile UFO sightings are to be believed, it is possible to build space ships that can violate the known laws of physics and materials science.
I suspect that commercial flying will have become entirely commonplace. The passenger steamer will survive on the coasts, but it will have disappeared on the main routes, and will have been replaced by flying convoys, which should cover the distance between London and New York in about twelve hours. As I am anxious that the reader should not look upon me as a visionary, I would point out that in an airplane collision which happened recently a British passenger plane was traveling at 180 miles an hour, which speed would have brought it across the Atlantic in eighteen hours. It is therefore quite conceivable that America may become separated from Europe by only eight hours.
Correct. It takes about seven hours to directly fly from New York City to London, and about eight hours to do the reverse (times are different due to the Earth’s rotation). Common passenger planes like the Boeing 787 have cruising speeds of 550 – 600 mph. Air travel between Europe and North America is indeed very common.
“Passenger steamers,” which refers to passenger ships of any size that have steam engines for propulsion, are obsolete, and steam engines are little used among all types of ships (they still make sense for some niches). Planes have replaced ships for transoceanic transport, and in rich countries, cars and commuter trains are much more common modes of transport up and down riverine routes than boats. An important exception is short ferry trips, which remain the most sensible ways to travel in some locales.
As a means of everyday human transportation, ships have sharply declined since 1922, but they’ve found new life serving the leisure demands of people. The cruise ship industry is booming, and the boat tour industry is healthy.
The same cause will affect the railroads, which at that time will probably have ceased to carry passengers except for suburban traffic. Railroads may continue to handle freight, but it may be that even this will be taken from them by road traffic, because the automobile does not have to carry the enormous overhead charges of tracks. Certainly food, mails and all light goods will be taken over from the railroads by road trucks.
Half right, half wrong. In developed countries, trains are used much less for long-distance passenger traffic than they were in 1922, but they are still a primary means of daily transportation for people who live in cities or who commute into them for work. Railroads also remain the backbone of freight transportation. It’s still cheaper to move many types of cargoes by rail instead of by truck, and as the above chart shows, trains moved almost as much cargo in the U.S. as trucks did in 2018. Moreover, the total volume of material moved by rail in the U.S. increased from 1980 – 2018, showing that it’s not dying out.
The people of the year 2022 will probably never see a wire outlined against the sky: it Is practically certain that wireless telegraphy and wireless telephones will have crushed the cable system long before the century is done. Possibly, too, power may travel through the air when means are found to prevent enormous voltages being suddenly discharged in the wrong place.
Mostly wrong. Power lines are underground in most parts of American cities, but they are still above ground almost everywhere else due to cost and ease of maintenance. Wireless telephones (cell phones) are indeed common, but the failure to find a safe, economical way to wirelessly transmit electricity means that power lines are still common sights.
Coal will not be exhausted, but our reserves will be seriously depleted, and so will those of oil. One of the world dangers a century hence will be a shortage of fuel, but it is likely that by that time a great deal of power will be obtained from tides, from the sun, probably from radium and other forms of radial energy, while it may also be that atomic energy will be harnessed. If It is true that matter is kept together by forces known as electrons. It is possible that we shall know how to disperse matter so as to release the electron as a force. This force would last as long as matter, therefore as long as the earth itself.
This was half right, half wrong. We have used enormous amounts of fossil fuels over the last 100 years, but they are not near depletion. Coal reserves remain highest of all, and BP estimates the world has over 100 years of it remaining, at present usage rates. Oil is not close to running out, and fracking has substantially boosted the size of the global reserve.
Tidal power never became widespread because the technology proved too finicky in practice to be useful outside of a small number of places with ideal geography.
In 1922, when these predictions were made, science supported the notion that sunlight and radioactive metals could be used to generate electricity, so the author’s prescience about the rise of solar and nuclear energy was not thanks to clairvoyance–he was well-read on physics literature. That said, it took decades for the first commercial designs to be invented.
The movies will be more attractive, as long before 2022 they will have been replaced by the kinephone, which now exists only in the laboratory. That is the figures on the screen will not only move, but they will have their natural colors and speak with ordinary voices. Thus, the stage as we know it to-day may entirely disappear, which does not mean the doom of art, since the movie actress of 2022 will not only not need to know how to smile but also how to talk.
Correct. Movies started looking and sounding lifelike long before 2022. However, “the stage” did not entirely disappear. Live theatre plays are still held, though attending them is a marker of higher status (or pretensions to be such), whereas in 1922 it was a common venue of entertainment. This inversion also happened with horse ownership over the same period.
One might extend indefinitely on the number of inventions which ought to exist and will exist, but the reader can think of them for himself, and it is more interesting to ask ourselves what will be the appearance of our cities a hundred years hence. To my mind they will offer a mixed outlook, because mankind never tears anything down completely to build up something else; it erects the new while retaining the old; thus, many buildings now standing will be preserved. It is conceivable that the Capitol at Washington, many of the universities and churches will be standing a hundred years hence, and that they will, almost unaltered, be preserved by tradition.
Correct. It’s hard to think of a government capitol building in the U.S. that has been torn down since 1922, and it’s common to come across university buildings, churches and monuments that are over 100 years old today. If anything, we are taking historical building preservation too far, preventing valuable real estate from being used for new purposes. This is particularly bad in older cities like New York and San Francisco, where the inability to tear down smaller buildings and houses made in 1922 or earlier, or to even build contemporary structures next to them for fear of damaging the historic authenticity of the neighborhood, has produced affordable housing shortages and high commercial space rents.
Also, many private dwellings will survive and will be inhabited by individual families. I think that they will have passed through the cooperative stage, which may be expected fifty or sixty years hence, when the servant problem has become completely unmanageable and when private dwellings organize themselves to engage staffs to cook, clean, and mend for the groups. That cooperative stage will be the last kick of the private mistress who wants to retain in her household some sort of slave. In 2022 she will have been bent by circumstances, but she will have recovered her private dwelling, being served for seven hours a day by an orderly. The woman who becomes an orderly will be as well paid as if she were a stenographer, will wear her own clothes, be called “Miss,” belong to her trade union and work under union rules.
Wrong. This prediction touches on some peculiarities of life in 1922 that are almost forgotten today. Widespread poverty and sexism created a large number of women who were desperate for work, but could only find it in a handful of career fields that men eschewed. In 1922, it was much more common for women to work as domestic servants, and each day they would go to the houses of richer people to do cleaning, cooking, and other household tasks. Additionally, it was normal for even lower-middle-class households to employ domestic servants.
In 1922, labor-saving machines like dishwashers, clothes washers, and vacuum cleaners were not yet common, and because the average family was larger than today’s, it produced more of a daily mess. Most households simply lacked the time to meet their own cleaning and cooking needs, making domestic servants essential, or close to it.
At the same time, few people were willing to pay maids, cooks, and cleaners decent wages, making domestic servitude an unpopular and low-status line of work. There were never enough of them. The “servant problem” mentioned in the prediction was a common term in 1922 that described the shortfall of domestic servants in America. W.L. George predicted that the shortfall would keep growing until families would be forced to take advantage of economies of scale and get their domestic work done at an affordable cost by sharing servants. However, that “cooperative” arrangement would ultimately fail as the domestic servants unionized and forced households to give them high wages and reasonable workloads.
Things didn’t turn out that way. Labor-saving household innovations like the machines listed earlier, and like microwaveable and pre-packaged meals became widespread shortly after WWII, reducing the need for home servants. Clothing styles also became less formal, reducing the need to launder and iron clothes. Also, as laws and social norms changed, better types of careers opened for women, steadily thinning the ranks of domestic servants. By the 1970s, they had become rarities seldom encountered outside of rich households.
Naturally the work of the household, which is being reduced day by day, will in 2022 be a great deal lighter. I believe that most of the cleaning required to-day in a house will have been done away with. In the first place, through the disappearance of coal in all places where electricity is not made there will be no more smoke, perhaps not even that of tobacco. In the second place I have a vision of walls, furniture and hangings made of more or less compressed papier mache, bound with brass or taping along the edges. Thus, instead of scrubbing its floors, the year 2022 will unscrew the brass edges or unstitch the tapes and peel off the dirty surface of the floor or curtains. Then every year a new floor board will be laid. One may hope that standard chairs, tables, carpets, will be peeled in the same way.
Half right and half wrong. Thanks to environmental laws enacted starting in the 1950s, levels of soot and other industrial toxins in the air are much lower than they were in 1922, and there are few places in the developed world where people have to scrub residue films off their houses and cars. W.L. George was right that this partly owes to changes in coal use: coal-burning stoves and boilers are no longer common in homes, buildings and factories, and the remaining coal consumption overwhelmingly occurs at large power plants. Those plants also have much better technology for filtering particulates out of their waste gas before it is released into the atmosphere.
W.L. George was also right that it would be much less common in 2022 for people to smoke indoors, leading to a further improvement in air quality and decreased need for cleaning since brownish nicotine stains no longer build up on walls and other surfaces.
However, his weird prediction that people would cover their floors and furniture in giant stickers that they could peel off and replace to avoid doing any cleaning didn’t come true. The impracticality of such a thing should have been obvious even in 1922, as getting a sticker that is the exact shape and size of the floor in a particular room of your house, removing all the objects from the room, peeling off the old sticker, applying the new sticker, and then putting the objects back in the room costs a lot of time and trouble. (Additionally, applying the new floor sticker without trapping any visible air bubbles under it or creating creases in it would probably be a frustrating effort) It’s easier to sweep or vacuum the bare floor as needed.
Similar reforms apply to cooking, a great deal of which will survive among old fashioned people, but a great deal more of which will probably be avoided by the use of synthetic foods. It is conceivable, though not certain, that in 2022 a complete meal may be taken in the shape of four pills. This is not entirely visionary; I am convinced that corned beef hash and pumpkin pie will still exist, but the pill lunch will–roll by their side.
Wrong. While culinary competence has declined in most countries, people still eat regular food, and “meal pills” don’t exist. This is because it’s impractical to cram enough calories into a swallowable pill to substitute for a full meal.
You’d have to swallow about this many large pills full of saturated fat to equal what you consume during a typical meal.
Saturated fat is the most calorie-dense substance, and “tallow” is the food product made of it and nothing else. One-hundred grams of tallow contains 902 calories, so obtaining a full day’s worth of 2,000 calories would require the consumption of 222 grams (nearly 8 ounces) of it. Divided equally between three meals, you’d have to swallow a literal cupped handful of tallow pills each time. It wouldn’t be convenient, it might take longer than expected to down them all, and the sudden dumping of fat into your body would cause havoc in your digestive system and damage your health over time if you subsisted on the pills. It wouldn’t be possible to pack 667 calories of tallow into four pills that would still be small enough for you to swallow, as W.L. George predicted.
Anyway, I doubt we missed out on anything. Eating food is one of the great pleasures in life.
But at that time few private dwellings will be built: in their stead will rise the community dwellings, where the majority of mankind will be living. They will probably be located in garden spaces and rise to forty or fifty floors, housing easily four or five thousand families. This is not exaggerated, since in one New York hotel to-day three thousand people sleep every night. It would mean also that each block would have a local authority of its own. I imagine these dwellings as affording one room to each adult of the family and one room for common use. Such cooking as then exists will be conducted by the local authority of the block, which will also undertake laundry, mending, cleaning and will provide a complete nursery for the children of the tenants.
Wrong. Most people in the world do not live in high-rise co-op apartments. Moreover, residential skyscrapers that are over 40 stories high are rare outside of major cities, and they tend to be prestige locations where richer people live.
While the share of humans that live in urban areas has greatly increased since 1922–and in fact, more people now live there than in rural areas–they mostly live in low-rise apartment buildings, rowhomes, detached homes, and slum shacks that would be recognizable in proportions and style to W.L. George. Services like meals, laundry, and childcare are rarely provided by landlords, and most people today either provide them for themselves or obtain them through the private market and pay out-of-pocket.
Perhaps at that time we shall have attained a dream which I often nurse, namely, the city roofed with glass. That city would be a complete unit, with accommodations for houses, offices, factories and open spaces, all this carefully allocated. The roof would completely do away with weather and would maintain an even temperature to be fixed by the taste of the period. Artificial ventilation would suppress wind. As for the open spaces, if the temperature were warm they would exhibit a continual show of flowers, which would be emancipated from winter and summer; In other words, winter would not come however long the descendants of Mr. Hutchinson might wait.
Wrong. This quote explains why:
The construction of the Montreal Biosphère, a 250-foot diameter climate controlled World Expo attraction, proved incredibly difficult. And when people built domed houses and other buildings, they tended to leak, requiring frequent and expensive maintenance. Would a domed city really result in energy savings, given the enormous volume of air conditioned, largely unused, space? Decades later, we may have a solid answer: No…[Buckminster] Fuller long promised that domes would be essential to the occupation of the Arctic, Antarctic, and other planets, but there too, reality has fallen short. From 1975-2003 the Amundsen–Scott South Pole Scientific Station was encased inside a 160-feet-wide dome, but reviews were mixed. The dome could keep snow off the buildings inside, but not off of the dome itself, where it accumulated. Eventually, the entire station found itself buried in snow and, by 1988, the dome’s foundation was cracking spectacularly under the pressure. Today, the gold standard for Antarctic architecture is not domes, but modular units that can be elevated to escape an icy burial.
The family would still exist, even though it is not doing very well to-day. It is inconceivable that some sort of feeling between parents and children should not persist, though I am of course unable to tell what that feeling will be. I imagine that the link will be thinner than it is to-day, because the child is likely to be taken over by the State, not only schooled but fed and clad, and at the end of its training placed in a post suitable to its abilities.
Part right, part wrong. The traditional family has certainly declined over the last 100 years: divorce, single-parent households, and children born out of wedlock are many times more common now, with most deleterious effects on everyone (a good roundup of statistics is here: https://lanekenworthy.net/families/). However, things have fortunately not gotten so bad that the government raises children in orphanages as a matter of course. The only country I know of that tried such a policy was communist Romania, which banned abortion in 1967 in a deliberate attempt to spur population growth and increase the number of workers. The result was a humanitarian tragedy, as hundreds of thousands of unwanted children were born each year, many of whom ended up in the country’s state-run orphanages. Lack of resources, neglect, and abuse left them permanently traumatized and stunted. It was a disaster that showed the government is totally unsuited for the child-rearing role W.L. George envisioned.
This may be affected by birth control, which In 2022 will be legal all over the world. There will be stages: the first results of birth control will be to reduce the birth rate; then the State will step in as it does in France, and make it worth people’s while to have more children; then the State will discover that it has made things too easy and that people are having children recklessly; finally some sort of balance will establish itself between the State demand for children and the national supply.
The map shows abortion rights by country
Unclear! First, what does “legal all over the world” mean? Legal in every country, or in a group of countries encompassing most of the human population, or something else? And what counts as “legal”? Countries that let women get abortions at any stage of pregnancy and for any reason, or would W.L. George be satisfied with countries that still applied significant restrictions on abortion, like a ban on doing it in the third trimester (a common limitation in Europe)?
Globally, abortion access has decreased the fertility rate, but so have other major factors like greater career opportunities for women, higher costs of raising children, and a diminished cultural emphasis on having children. As a result, many rich and even middle-income countries have such low birthrates that their populations are shrinking or will soon start doing so. W.L. George was right to foresee that some governments would recognize the problem and enact policies to incent their citizens to have more children (China’s abandonment of its One Child policy, and the generous welfare programs in Western Europe for mothers are the most notable examples), though at best these have merely slowed the rate of population decline. Encouragement of immigration has become the preferred policy response, though East Asian countries seem resigned to accepting decline.
A “balance” to the population growth rate has not been achieved in any country as of 2022, unless by pure luck and not through focused government policy and the compliant behavior of citizens. Globally, the rate and distribution of human population change is uncoordinated and unbalanced: Most of the population growth is happening in places that are the least able accommodate more people, economically and environmentally.
Largely the condition of the family will be governed by the position of woman, because woman is the family, while man is merely its supporter. It is practically certain that in 2022 nearly all women will have discarded the idea that they are primarily “makers of men.” Most fit women will then be following an individual career. All positions will be open to them and a great many women will have risen high. The year 2022 will probably see a large number of women in Congress, a great many on the judicial bench, many in civil service posts and perhaps some in the President’s Cabinet.
Correct, so long as we exclude large parts of the world where conservative religious values still dominate. Focusing on the U.S., it is true that “most fit women,” which is probably another way of saying “most healthy women of working age,” have jobs. The figure is 76%, much higher than it was 100 years ago. The law prohibits hiring on the basis of sex and other demographic factors, so all jobs are technically open to women.
In Congress, 27% of the House consists of female Representatives, and in the Senate, 24% of its membership is female. It would be fair to call those a “large number” of women, and in fact, female representation in Congress is at a record high in 2022. Three of the nine Supreme Court Justices are women, and their number will grow to four once Stephen Breyer retires and is replaced by Ketanji Brown Jackson. Half of the members of President Biden’s cabinet are female, including its most important member, Vice President Harris.
But it is unlikely that women will have achieved equality with men. Cautious feminists such as myself realize that things go slowly and that a brief hundred years will not wipe out the effects on women of 30,000 years of slavery. Women will work, partly because they want to and partly because they will be able to. Thus women will pay their share in the upkeep of home and family. The above suggestion of community buildings, where all the household work will be done by professionals, will liberate the average wife and enable her out of her wages to pay her share of the household work which she dislikes.
This is partly correct. Even in countries with progressive values, women have yet to achieve full equality with men in a number of important areas, mainly related to money and educational achievement. Contrary to the author’s view, motherhood has not been rendered obsolete by communal childrearing, and in fact it remains as probably the biggest impediment to sex equality. Women still do the lion’s share of household labor, even if they also have full-time jobs outside the home, and mothers are much likelier to drop out of the workforce to raise their children or to eschew more demanding jobs for the same reason.
Marriage will still exist much as it is to-day, for mankind has an inveterate taste for the institution, but divorce will probably be as easy everywhere as it is in Nevada. In view, however, of the improved position of woman and her earning power, she will not only cease to be entitled to alimony, but she will be expected, after the divorce, to pay her share of the maintenance of her children.
The author’s predictions are wrong for being both too conservative and too liberal! In 1922, Nevada had the most lax divorce laws in America, and couples could be granted a divorce for almost any reason. However, doing so required at least one of them to first establish legal residency, which required them to live in Nevada for at least six months. This created a strange, churning diaspora of people who were biding their time in the state for half a year to obtain divorce decrees. It disappeared later in the 20th century as other states made their own divorce laws less strict, removing the need for anyone to visit Nevada. In 2022, it’s much easier to get a divorce in America.
On the other hand, alimony laws have not changed nearly as much, and it’s the norm for women to be awarded sizeable alimonies from their ex-husbands upon divorce. Income and net worth determine the size and direction of alimony payments, and since men are likelier to make more money than their wives, most of the divorcees who receive alimony payments are women.
As regards the politics of 2022, I should expect the form of the State to be much the same. A few rearrangements may have taken place on the lines of self-determination; for instance, Austria may have united with Germany, the South American republics may have federated, &c, but I do not believe that there will be a superstate. There will still be republics and monarchies; possibly, in 2022, the Spanish, Italian, Dutch and Norwegian kings may have fallen, but for a variety of reasons, either lack of advancement or practical convenience, we may expect still to find kings in Sweden, Jugo-Slavia, Greece, Rumania and Great Britain.
This prediction was mostly correct. When the author says the basic “form of the State” will not have changed by 2022, it’s unclear whether “form” refers to the shapes and boundaries of countries or to the status of countries as the essential political units of the world. As the 1922 political map below shows, some borders have radically changed (Africa and Asia) while many others have not shifted at all (the Americas).
In spite of a lot of hoopla about transnational corporations becoming stronger than countries, terrorist groups and drug cartels carving out territories for themselves, and globalization erasing borders, the nation-state system still reigns supreme. For better or worse, central governments matter, national identity matters, and borders matter. Indeed, there is no global superstate, we are not poised to create one, and the continent that is closest to transforming into one, Europe, might have already reached the limits of how much integration its people will allow.
The author was right that the nation-states of 2022 would be governed by a mix of republics and monarchies, though his specific guesses of which European monarchies would survive were wrong: the Spanish, Dutch and Norwegian royal families HAVE NOT fallen from power, but the Yugoslavian, Greek, and Romanian royal families HAVE fallen.
Overall, monarchies have weakened over the last 100 years: the number of countries with monarchical governments has declined, the fraction of the human population living under monarchies has declined, and the amount of political power held by the remaining monarchs is generally less than their ancestors had in 1922.
On the inside, these States may have slightly changed, for there prevails a tendency to socialization which has nothing to do with socialism. Most of the European governments are unconsciously nationalizing a number of industries, and this will go on. One may therefore presume that in 2022 most States will have nationalized railways, telegraphs, telephones, canals, docks, water supply, gas (if any) and electricity. Other industries will exist much as they do to-day, but it is likely that the State will be inclined to control them, to limit their profits, and to arbitrate between them and the workers. We find a hint of this in America in the anti-trust acts; a hundred years hence the tendency will be much stronger. It is worth noting as an international factor that by that time purely national industries will almost have disappeared, and that the work of the world will be in the hands of controlled combines governing the supply of a commodity from China to Peru.
Across the Western world, people were still adjusting to the dislocations of the Industrial Age, and laws and social attitudes lagged behind economic realities. Cities were overcrowded with people seeking work in factories, there were few laws pertaining to labor rights or building standards, and a huge wealth gap existed between the capitalists who owned the factories and land, and the people who worked in and lived on them. The Bolshevik Revolution had just happened in Russia, Vladimir Lenin was still alive, and Communist forces worldwide had not yet killed or let starve millions of people. Communist ideology had not yet been discredited, and its leaders and adherents could still have reason to believe it was a superior and even inevitable alternative to capitalism.
All humans are born ignorant and helpless. A child’s parents, community, and society pays an enormous sum of time and money to provide their basic needs and to prepare them for adulthood. Nearly all children in modern societies are incapable of being anything but economic liabilities until age 16, when they might finally have the right intelligence, strength, and personality traits to work full time and contribute more to the economy than they consume.
Of course, in increasingly advanced societies like ours, economic, scientific, and technological growth depend on having high-quality human capital, and that requires schooling and workplace training well into a person’s 20s. This effectively extends the “liability” phase of such a person’s life just as long, as higher education usually costs more money than a young adult student can make at a side job.
Once that is finished, the productive period of an educated person’s life lasts about 40 years, after which they retire and stop contributing to the economy, science, or technology. In terms of a resource balance sheet, the only difference between this period of a person’s life and his childhood is that, as a retiree, he is probably living off his own accumulated savings rather than other peoples’ money.
And then the person dies, at 80 let’s say. He spent the first 25 years of his life learning and preparing for the workforce, 40 years participating in it and making real, measurable contributions to the world, and the final 15 years hanging around his house and pursuing low-key hobbies. That means this person, who we’ll think of as the “average skilled professional,” had a “lifetime efficiency rate” of 50%. Not bad, right?
Actually, it’s much worse once you also consider this person’s daily time usage:
The average, working-age American only spends about 1/3 of his day working. Sleep takes up just as much time, and the remaining 1/3 of the day is devoted to leisure, satisfying basic physiological needs (e.g. – eating, drinking, cleaning one’s body), running errands, doing chores, and caring for offspring or elderly parents. This means the typical person’s “lifetime efficiency rate” decreases by 2/3, from 50% to 16.6%.
But it gets worse. Any adult who has spent time in a workplace knows that eight hours of real work rarely get done during an eight-hour workday. Large amounts of time are wasted doing pointless assignments that shouldn’t exist and don’t actually help the organization, going to meetings that accomplish nothing and/or take longer than necessary, socializing with colleagues, using computers and smartphones for entertainment and socializing, doing non-value-added training, or doing actual value-added refresher training that must be undertaken because the brains of the human workers constantly forget things. In industrial jobs, there’s often downtime thanks to lack of supplies or to a crucial piece of equipment being unavailable.
From personal experience and from years of observation, I estimate that only 25% of the average American professional’s work day is spend doing real, useful work. That means the lifetime efficiency rate drops to 4.2%.
It still gets worse. Realize that many highly productive people who, let’s say, might actually do eight hours of real work per eight hour work day, are actually doing things that damage the world and slow down the pace of progress in every dimension. Examples include:
A journalist who consciously inserts systematic bias into their news reports, which in turn leave thousands of people misinformed, anxious, and bigoted against another group of people.
An advertising executive whose professional life revolves around tricking thousands of people into buying goods or services that they don’t need, or that are actually inferior to those offered by competitors. The result is a massive misallocation of money, and possible social problems as only people with higher incomes can visibly enjoy the useless products, while poorer people can only watch with envy.
A mathematician who uses his gifts in the service of a Wall Street hedge fund, finding exotic and highly technical ways to aggregate stock market money in his company’s hands at the expense of competitors. The hedge fund creates no value and doesn’t expand the size of the “economic pie”–it merely expands the size of its own slice of that pie.
A bureaucrat who manages a program meant to further some ill-defined social mandate. Though he and his team have won internal agency awards for various accomplishments, by every honest metric, the program has consistently and completely failed to help its target demographic.
A drug dealer who “hustles” his part of the city from sunrise to sunset, doing dozens of deals per day and often dodging bullets. The drugs leave his customers too intoxicated to work or to take care of themselves and their families, and have sent many of them to hospitals thanks to overdoses and chemical contaminants.
These kinds of people do what could be called “counterproductive work” or “undermining work,” and it can be very hard to tell them apart from people who do useful work that helps the whole world. Unfortunately, peripheral people who use their own labors to support the counterproductive people, like the cameraman who films the dishonest newscaster’s reports, are also doing counterproductive work, even if they don’t realize it. Once the foul efforts of these people are subtracted from the equation, the lifetime efficiency rate of the median American professional drops to, I’ll say, 3.5%.
Only 3.5% of this educated and well-trained person’s life is spent doing work that benefits society with no catches or caveats. Examples include:
A heart surgeon who saves the lives of younger people.
A medical researcher who runs experiments that help discover a vaccine for a painful, widespread disease.
A chemist who discovers a way to make solar panels more cheaply, without any reduction to the panels’ efficiency, lifespan, or any other attribute.
A civil engineer who designs a bridge that sharply reduces commute times for local people, resulting in aggregate fuel savings that exceed the bridge’s construction cost in ten years.
A carpenter who helps build affordable housing that meets all building codes, in a place where it is in high demand.
In each case, the person’s labor helps other people while hurting no one, and improves the efficiency of some system.
Let me mention two important caveats to this thought experiment. First, humanity’s 3.5% efficiency rate might sound pitiful, but it beats every other species, which all have 0% efficiency. One-hundred percent of every non-human animal’s time is spent satisfying physiological needs (e.g. – hunger, sleep), avoiding danger, caring for offspring, and indulging in pleasure (which might be fairly lumped in with “satisfying physiological needs”). At the end of its life, the animal leaves behind no surpluses, no inventions, and no works that benefit its species or anything else, except maybe by pure accident. Our measly 3.5% efficiency rate allowed our species to slowly edge out all the others and to dominate the planet.
Second, under my definition of “efficiency,” it’s possible for a person to have 0% efficiency even though they work very hard, create tangible fruits of their labor, and never do “counterproductive work.” A perfect example of such a person would be a primitive hunter or sustenance farmer who is always on the brink of starvation and spends all his time acquiring and eating food, with no time left over for other pursuits. He never invents a new type of spear or plow, never builds anything more than a wooden shack that will collapse shortly after he dies, and never makes up any religions or useful pieces of knowledge. For the first 95% of our species’ existence, our aggregate lifetime efficiency rate was infinitesimally greater than 0%.
Am I doing this thought experiment just to be dour and to cast humanity in a cynical light? No. By illustrating how inefficient we are, I’m just making a case that we’ll be surpassed by intelligent machines that will be invariably more efficient. Ha ha!
The first key advantage intelligent machines will have is perfect memories. They will never forget anything, and will be able to instantly recall all their memories. This will dramatically shorten the amount of time it takes to educate one of them to the same level as the average American professional I’ve profiled in this essay. Much of teaching is repetition of the same things again and again. And since intelligent machines wouldn’t forget anything, there would be no need for periodic retraining in the workplace, which takes time away from doing real work. Machines wouldn’t have “skills degradation,” and they wouldn’t need to practice tasks to remind themselves how to do them.
(Note that I’m not even assuming that machines will be faster at learning new things than humans are. Again, I’m being conservative by only assuming that they don’t forget things.)
The second key advantage would be near-freedom from human physiological needs, like the need to sleep, eat, or clean one’s self. Intelligent machines would need to periodically go offline for maintenance, repairs or upgrades, but this wouldn’t gobble up anywhere near as much time as it does in humans. For example, while a human spends 33% of his life sleeping, a typical server at a major tech company like Amazon or Facebook spends less than 1% of its time “down.” Intelligent machines wouldn’t have a good correlate to “eating,” since they would only consume electricity and do it while simultaneously performing work tasks. And since machines wouldn’t sweat, shed skin, or grow more than trivial amounts of bacteria on themselves, they wouldn’t need to clean their bodies or garb (if they wore any) nearly as often as humans. Intelligent machines also wouldn’t have a need for leisure, or if they did, they might need less than we do, saving them even more time.
Instead of being able to devote just eight hours a day to learning and working, an intelligent machine could devote 20 hours a day to them, as a conservative estimate. This, in turn, would further shorten the amount of time needed to educate a machine to the same level as the average American professional. I wrote earlier that the professional needed schooling until age 25 to be able to start a high-level job. Since the intelligent machine can spend more time each day studying, it can attend the same number of classes in only 10 years. And since it has a perfect memory, it lessons don’t need to contain as much repetition, and remedial lessons are unnecessary. Let’s say that cuts the amount of schooling needed by 30%. An intelligent machine only needs seven years to operate at the same level as a highly educated 25-year-old human.
And in the workplace, an intelligent machine wouldn’t be subject to the distractions that its human colleagues were (e.g. – socializing, surfing the internet), though its human bosses might still give it pointless assignments or force it to attend unproductive meetings. Still, during an eight-hour day, it would get at least seven hours of real work done (and this is another conservative guess). But as noted earlier, it would actually have 20 hour work days, meaning it would get 17.5 hours of real work done each day, dwarfing the two hours of real work the typical American professional does per day.
As for the “counterproductive work” / “undermining work,” I predict that human bosses will someday task intelligent machines with doing it, allowing scams, disinformation peddling, and criminal enterprises to reach new heights of efficiency. However, the victims will all be humans. Intelligent machines themselves would not be dumb enough, impulsive enough, or possessed of the necessary psychological weaknesses to take whatever bait the “counterproductive workers” were offering, and the latter will be laid bare before their eyes and avoided. For example, an intelligent machine looking to buy a new vehicle would have a perfect understanding of its own needs, and would only need a few seconds to thoroughly research all the available vehicle models and identify the one that best met its criteria. Car commercials designed to play on human emotions, insecurities, and lifestyle consciousness to dupe people into buying suboptimal vehicles wouldn’t sway the machine at all.
I won’t do another set of calculations for the hypothetical intelligent machine, but it should be clear that its advantages will be many and will compound on top of each other, resulting in them being much more efficient that even highly trained humans at doing work. Moreover, in a machine-dominated world, where they controlled the economy, government, and resource allocation, parasitic “counterproductive work” that we humans mistake for useful work would probably disappear. Just as humans slowly edged out all other species thanks to our tiny work efficiency advantage over them, intelligent machines will edge out humans in the future. It’s just a question of when.
Russia’s invasion of Ukraine has gone badly. In spite of Russia’s fearsome reputation and its recent military modernization, its battlefield performance has been disappointing and marred by many mistakes. The Ukrainians have fought harder than anyone anticipated, and have inflicted serious losses on their enemy. What was supposed to have been a quick, surgical operation to replace Ukraine’s regime with one friendlier to Moscow is turning into a bloody stalemate. Western sanctions against Russia for the invasion have been very severe, setting the country on course for major economic problems within a few months. It’s clear that Putin badly miscalculated when he decided to launch the war. Here’s a roundup of war articles:
On March 4, Russia scholar Michael Kofman predicted: “I try not to make too many predictions. I think given all the problems in the Russian campaign, delusional assumptions, an unworkable concept of operations, little prepared for a sustained war like this, I give it ~3 more weeks before this is an exhausted force.” https://twitter.com/KofmanMichael/status/1499967950975115269
This is a great analysis of Russia’s mistakes, and the likely future of the war. One basic insight is that the Russians were too weak to attack Ukraine on three fronts (northern, eastern, and southern) and achieve major objectives on all of them. They should have used all their forces to attack only one front. https://www.politico.com/news/magazine/2022/03/21/michael-kofman-russia-military-expert-00018906
It’s also prudent to remember that Russia has a much greater warmaking capacity than Ukraine. In the long run, and if it were willing to pay the price, Russia could take over its smaller neighbor. https://www.bbc.com/news/world-us-canada-60881915
Ukraine has captured at least one, seemingly intact example of the Russian Army’s most advanced field radio, the “R-187P1 Azart.” The Russians have far fewer Azarts than they claimed before the invasion, and are mostly relying on older radios and even cellphones, which can all be more easily jammed and eavesdropped on. And, in an example of the corruption that pervades Russia and has damaged its battlefield performance, there’s evidence that the Russian company in charge of making Azart radios secretly imported electronic components from China to make them, and pocketed the difference between what the Russian government paid them, and what they saved by using Chinese parts. https://rusi.org/explore-our-research/publications/commentary/russian-comms-ukraine-world-hertz
‘The CIA director said Putin premised his war on four false assumptions: He thought Ukraine was weak, he believed Europe was distracted and wouldn’t mount a strong response, he thought Russia’s economy was prepared to withstand sanctions and he believed Russia’s military had been modernized and would fight effectively.’ https://www.npr.org/2022/03/08/1085155440/cia-director-putin-is-angry-and-frustrated-likely-to-double-down
Here’s a video of a Ukrainian infantry platoon going into battle armed with a variety of Western-supplied antitank missiles. These have caused major damage to Russia’s military vehicle fleet. https://www.youtube.com/watch?v=Gezu6A9zcLU
The Ukrainian soldiers who ambushed and destroyed a small column of Russian vehicles near Kiev give a detailed description of the battle, at the site. https://www.youtube.com/watch?v=_ryCBcq_qxk
Video of Ukrainian troops blowing up an abandoned Russian tank, presumably because of the chance that Russian forces might recapture the area and return the vehicle to service. https://www.youtube.com/watch?v=iFhspNJEHIk
The U.S. government’s official stance is now that Russian forces have committed war crimes against the Ukrainian people, and the matter should be investigated by an international criminal court. https://www.state.gov/war-crimes-by-russias-forces-in-ukraine/
An interesting bit about NATO standards: ‘Finally, some national standards are recognized as not inferior to NATO standards and do not require revision (in Ukraine, for instance, these are those related to potable water quality). The fact that compliance with all NATO standards is not the norm even for leading states members is evidenced by the fact that no country of the Alliance has achieved the mark of 100%, although in some, including Germany (91%), Great Britain (83%), France, Norway (81% each), Canada (76%), the degree of the implementation of standards is very high…Let us assume that if the current pace of implementation is maintained, Ukraine will implement at least 90% of the existing standards of the Alliance in approximately 13–14 years.’ https://rpr.org.ua/en/news/ukraine-and-nato-standards-progress-under-zelenskyy-s-presidency/
Britain is planning on upgrading its tank fleet to indigenously made Challenger 3’s, but it’s not economical for them to keep such a small fleet of one-off tanks that are specific to their country. They should switch to either the U.S. M1 Abrams or German Leopard 2, and maybe sell their Challenger 2’s to smaller NATO countries, like the Balkan states. https://www.thedrive.com/the-war-zone/44927/british-armys-next-generation-challenger-3-tank-is-now-under-construction
The Soviet VVA-14 was one of the weirdest but potentially most versatile aircraft ever built. Its designer had plans for even more dramatic variants that weren’t built. https://youtu.be/UD7xiWWs-bs
NASA briefly experimented with “passive” communications satellites that were large balloons made out of radar-reflecting materials. One ground station would aim a powerful radio at it and broadcast a signal, which would bounce off the balloon and deflect at such an angle that another ground station thousands of miles distant would receive it. https://en.wikipedia.org/wiki/Project_Echo
Using CRISPR, scientists were able to self-fertilize a female mouse with her own eggs. One of the resulting 12 zygotes lived to adulthood. It was not a clone of her. A clone shares 100% of your DNA, and a natural child shares 50% of your DNA. This new technique could be used to make offspring that shared an unnatural amount of your DNA, like 75 or 85%. https://phys.org/news/2022-03-mammalian-offspring-derived-unfertilized-egg.html
My predictions about humans in 12,022 A.D.: -There might still be some Homo sapiens, though they will be genetically engineered. Imagine today’s all-star athlete who graduated from high school at 17, went to MIT on an academic scholarship, and is also a model on the side being the average human by then. We could breed with them. -There will be “human-looking” people that will have radically different genetics and anatomical/physiological features from us. Imagine a person who looks externally normal, but has bird lungs, octopus eyes, and a different number of chromosomes than you. They will be so different that they will count as different species, and we won’t be able to breed with them. -There will be intelligent but nonhuman-looking life forms that are the products of many iterations of genetic engineering. Imagine something like a horse-sized spider with a big brain occupying most of its torso. It could trace its lineage back to a normal human that is alive today. -Some members of those three groups of intelligent life forms will be meshed with technology that augments their abilities. There might be a Homo sapien with synthetic, self-healing organs that are superior to his old, natural organs, there might be a “human-looking” Homo neosapien that also has brain implants to make him smarter, and there might be intelligent spiders with nanomachines circulating in their bloodstreams to assist with various bodily processes.
‘[By 1,000 years from now] The bulk of technology will remain simple or semi-simple, while a smaller portion will continue to complexify greatly. I expect our cities and homes a thousand years hence to be recognizable, rather than unrecognizable. As long as we inhabit bodies approximately our size – a few meters and 50 kilos — the bulk of the technology that will surround us need not be crazily more complex. And there is good reason to expect we’ll remain the same size, despite intense genetic engineering and downloading to robots. Our body size is weirdly almost exactly in the middle of the size of the universe. The smallest things we know about are approximately 30 orders of magnitude smaller than ourselves, and the largest structures in the universe are about 30 orders of magnitude bigger. We inhabit a middle scale that is sympathetic to sustainable flexibility in the universe’s current physics. Bigger bodies encourage rigidity, smaller ones encourage empheralization. As long as we own bodies – and what sane being does not want to be embodied? – the infrastructure technology we already have will continue (in general) to work. Roads of stone, buildings of modified plant material and earth, not that different from our cities and homes 2,000 years ago. Some visionaries might imagine complex living buildings in the future, for instance, but most average structures are unlikely to be more complex than the formerly living plants we already use. They don’t need to. I think there is a “complex enough” restraint. Technologies need not complexify to be useful in the future. Danny Hillis, computer inventor, once confided to me that he believed that there’s a good chance that 1,000 years from now computers might still be running programming code from today, say a unix kernel and TCP/IP. They almost certainly will be binary digital. Like bacteria, or cockroaches, these simpler technologies remain simple, and remain viable, because they work. They don’t have to get more complex.’ https://kk.org/thetechnium/the-arc-of-comp/
What happens if you load an enormous amount of data on chemical reactions and human biology into an AI, and then task it with finding lethal compounds against us?
‘In less than 6 hours after starting on our in-house server, our model generated 40,000 molecules that scored within our desired threshold. In the process, the AI designed not only VX, but also many other known chemical warfare agents that we identified through visual confirmation with structures in public chemistry databases. Many new molecules were also designed that looked equally plausible. These new molecules were predicted to be more toxic, based on the predicted LD50 values, than publicly known chemical warfare agents.’ https://www.nature.com/articles/s42256-022-00465-9
This analysis predicts that the U.S. trucking industry will probably switch to a “transfer-hub” model where autonomous trucks transport goods over long, simple highway routes, while human drivers in smaller trucks move the cargoes over shorter distances at both ends. https://www.nature.com/articles/s41599-022-01103-w
Small doses of radiation might actually benefit human health thanks to a process called “hormesis.” Note that nuclear power is so expensive partly because the power plants aren’t allowed to release any radiation at all to the surrounding environment, and that requirement is predicated on the assumption that any amount of radiation exposure hurts people. https://www.biorxiv.org/content/10.1101/832949v1
I agree that the fake meat industry has been overhyped. Though meat substitutes are cheaper and more convincing than ever, they will not render meat consumption extinct. Not even close. Lab-grown meats will eventually eliminate the need to kill animals for food, but the technology won’t be good enough until near the end of this century (it’s not as good or advancing as fast as its contemporary cheerleaders claim). https://reason.com/2022/03/05/the-fake-meat-revolution-has-stalled/
Computers have translated pig noises into a basic “vocabulary” of emotional and mental states. A variety of technologies will let us communicate with animals in the future, and possibly to even share thoughts with them. https://www.nature.com/articles/s41598-022-07174-8
North Korea still operates some Japanese-made trains from the 1930s. Thanks to the country’s socialist economy, labor is practically free, making it financially possible to keep fixing the trains in spite of their age. Once robots have made labor free across the world, will it become common for manufactured objects of all kinds to stay in service much longer than they do now? https://www.oryxspioenkop.com/2021/07/blast-from-past-north-koreas-whacky.html
The German gunboat Graf von Goetzen was launched in 1915 and sent to Tanzania (then a German colony) to dominate Lake Tanganyika. Though the Germans left, the ship didn’t, and it remains in service to this day as a ferry, renamed the Liemba. https://en.wikipedia.org/wiki/MV_Liemba
There’s a new scientific paper claiming that ivermectin doesn’t treat COVID-19. Instead, it kills parasitic worms in people, boosting their immune systems just enough to let them survive COVID-19. Parasites are only common in tropical areas. https://doi.org/10.1001/jamanetworkopen.2022.3079
The pandemic isn’t over: China just locked down one of its biggest and most important cities due to a surge in COVID-19 cases. It will have global economic consequences. https://www.bbc.com/news/world-asia-china-60893070
A few years ago, I did a thought exercise where I deduced what a robot tank would be like. I concluded that the lack of human crewmen would allow such a tank to be shorter, lighter, and less voluminous than manned tanks, but that it would still look unmistakably “tank-like” and would be in the size range of current tanks. Thus, the future of armored warfare will look much the same as its present, even if a lot of new technology will be hidden under the hood.
Now I wonder if this would be the case for warships. Given their great variety, I have to restrict my analysis to just one type, the aircraft carrier, but my key conclusions can probably apply to the rest. And since there are many types of aircraft carriers, I’m focusing this analysis on supercarriers in particular, which only the U.S. Navy has at present. The newest American supercarrier that is also fully mission-capable is the U.S.S. George H.W. Bush, and as such, it’s fair to call it America’s “best” aircraft carrier. So what would a robot George Bush look like?
The USS George H.W. Bush
First, the ship’s gross architecture would stay the same. It would need an oblong hull with a pointed front to minimize hydrodynamic drag. The top would need to be flat and uncluttered so planes could land on and take off from it. Even in the far future, most planes will still take off and land the traditional way on runways. Even with more advanced aircraft technology, fighter planes won’t hover straight up into the air to take off. Vertical takeoff and landing (VTOL) will, thanks to physics and the usefulness of “lift,” always be a MUCH less fuel-efficient way to get airborne and then return to the ground than speeding down a runway. Every extra pound that a VTOL plane needs to land and take off is one pound it doesn’t have for weapons.
The George H.W. Bush’s island structure.
In fact, the only external difference between the U.S.S. George H.W. Bush and its robot equivalent would be the ships’ islands. On an aircraft carrier, the “island” is a vertical protrusion on the otherwise-flat flight deck, and it somewhat resembles a small office building. It provides mounting points for radars, radios, and other sensors, and also contains the bridge, flight control room, and smaller rooms for specialized tasks.
These photos show the bridge of one of the Bush’s sister ships.
The captain and his command crew are in the bridge, where they monitor and control overall ship operations. The flight control room is one level above that, and is where other officers coordinate aircraft movements on and off the carrier. It’s obvious why these crewmen need to be situated in a high place where they have good views of the ship’s flight deck and the surrounding waters. In turn, the physical sizes of human bodies and our need for clearance space to walk around each other dictate the dimensions of those rooms, and ultimately, the shape and size of the island. Thus, this part of an aircraft carrier is designed around the human form.
On an automated aircraft carrier, such considerations could be dispensed with since humans wouldn’t be aboard. Visual monitoring of the flight deck and seas could be done with cameras, allowing the bridge, flight control room, and other small rooms in the island that support their functions to be deleted (computers located deep inside the ship’s hull would watch the video feeds). As a result, the office-building-like island would be thinned down to a mast. It might be of a metal lattice design, or could be solid with a geometrically faceted exterior to reduce the ship’s radar signature.
A British frigate with three masts of two different designs. The one at left is geometric, while the two at right are simple metal lattice towers. A robot aircraft carrier’s island would look like one of these.
A thinner island would help a robot aircraft carrier by increasing its flight deck area and reducing the air turbulence over it. The ship’s survivability would also be improved since its command staff wouldn’t be kept in an exposed, vulnerable location. Instead, it’s command functions would be done by a central computer located in an armored room below decks.
A Nimitz-class carrier like the George H.W. Bush typically contains 56 planes (mostly fighters like the F/A-18) and 15 helicopters. Our robot version of the carrier would have autonomous versions of those aircraft. Since the planes lack human pilots and crewmen, things like ejection seats, steering controls, bubble canopies, computer screens, and oxygen pumps could be deleted, reducing gross weight. That weight savings would let the aircraft take off and land a little more easily, possibly reducing the lengths of runway they needed, and hence reducing the overall length of the ship.
However, any such benefit would be tiny since the weight of the pilot and his supporting equipment is relatively minuscule. For example, an F/A-18 Super Hornet that is fully fueled and armed for a combat mission could weigh over 50,000 lbs, less than 1,000 lbs of which is represented by the pilot and his aforementioned support gear. An unmanned F/A-18 might be able to take off and land on a runway a few feet shorter than the manned version, but that’s it. Therefore, the lengths of the runways used for takeoffs and landings on the robot carrier would either be the same as those on the human-crewed counterpart, or imperceptibly shorter.
The reduction of the island’s mass might result in the flight deck being slightly narrower since the port side of the deck wouldn’t need to flare out as much to counterbalance the weight of the starboard side.
A careful look at this head-on view of the George H.W. Bush reveals that the port side of the ship (right side in this photo) juts out farther from the ship’s centerline than the starboard side (left side in the photo). This asymmetry exists to balance out the island’s weight.
The robot ship’s “freeboard,” which refers to the vertical distance between the surface of the water and the top of its flight deck, would be the same or very close to the manned version’s, which is 57 feet. In general, as ships get longer and heaver, they need higher freeboards to keep stable. A high freeboard is also very important for ships meant to sail through rough seas, which an aircraft carrier would need to do since wars don’t pause for bad weather anymore. There’s no reason to think the manned USS George H.W. Bush’s freeboard is not optimal given the ship’s size and function, nor is there evidence that the crew’s uniquely human needs affected the freeboard.
The USS Midway appears to sit lower in the water than the USS George H.W. Bush
The argument for this optimality is strengthened by the example of the USS Midway, another aircraft carrier that served the U.S. Navy from 1945 to 1992. In the 1960s, it went through a major renovation in which the flight deck was widened to accommodate the bigger planes that were entering service, which added substantial weight to the ship and made it sit lower in the water. The reduced freeboard hurt the Midway‘s performance in rough seas, and the ship also had more problems with waves splashing into the ship’s open side elevators, and even splashing over the bow to soak the flight deck. The problems kept it from conducting flights in sea conditions that the George H.W. Bush could still operate in. The contrast between the ships further supports the conclusion that the Bush’s freeboard is already optimized, and wouldn’t be different or would only be a tiny amount different in an autonomous version of the ship.
To summarize this analysis of the robot carrier’s exterior, it might have have a slightly different profile and slightly different dimensions to its flight deck compared to the manned version. However, this would be very hard to see, and by far, the most visible difference would be to the island.
The ship’s interior layout is the most subject to human needs since it is where almost 6,000 people work and live, 24 hours a day, for months on end. Before moving on to that half of this analysis, it’s important to point out that an autonomous aircraft carrier would still need crewmen, though they’d be robotic. They would need to be able to move around the ship for inspections, maintenance, repairs, emergency response, and to transport things. Therefore, the inside of the robotic George H.W. Bush would still be comprised of rooms, doors, stairways, and passageways to enable the crew to access every part of the ship.
To understand how the ship’s interior layout would change if human-centric design concerns were abandoned, first study these cutaway illustrations of the George H.W. Bush’s class of ships:
A simplified cross-section of the USS George H.W. Bush.
The USS Nimitz is one of the USS George H.W. Bush’s sister ships.
A side view of the USS Ronald Reagan’s interior, another of the Bush’s sister ships. A larger version that you can zoom in on is at the image creator’s website: http://patrickturner.com/carrier.html
A cutaway showing the size and location of the USS Ronald Reagan’s hangar deck.
Let’s start by distinguishing the features and sections of the ship that exist because of the presence of humans, or are larger than they need to be because of human physiology, from the features and sections that do not. The hangar is massive and is necessary to house the carrier’s aircraft for maintenance, repairs and modifications. It’s size is dictated by the sizes of the planes and by the need to have enough space around each one to be able to move them around and provide crew with access to them. There’s no reason to assume the size or layout of the hangar deck would be different if the carrier were autonomous, so the largest single room in the ship would be the same.
This is also true for the series of large rooms at the ship’s lowest point, called “the fourth deck,” which contain its nuclear reactors, electrical generators and gearing that connects the engines to the propellers. Smaller rooms on the fourth deck that store jet fuel, munitions for the planes, and water for the steam catapults are also not designed around human needs. (They are stored at the lowest part of the ship to keep its center of gravity low, improving its stability.)
It’s impossible to generalize about all the other decks of the ship since rooms dedicated to purely mechanical functions (e.g. – jet engine repair shop, steam catapult piping spaces) are mixed in with those dedicated to human crew needs (e.g. – bunk rooms, hospital, cafeteria). All we can say is those of the former category would stay, while the latter would disappear, leaving a lot of empty space.
The robot crewmen wouldn’t need to eat, sleep, party, or satisfy hygienic needs, and would probably stay at their work stations almost all the time. The only room dedicated to their unique needs might be a specialized repair shop and spare parts room. Those rooms would take vastly less space than the bunk rooms, bathrooms, cafeterias, bakeries, laundromats, conference rooms, etc. that would need to be there to satisfy a human crew’s needs.
The ability to work constantly would also allow a robot crew to be smaller than a human one without reducing work output. Assuming an average sailor works a 12-hour day and works as efficiently as a robot when he’s on duty, 3,000 robots could to the work of 6,000 humans. The disparity might actually turn out to be more extreme.
Getting rid of the human crew wouldn’t just save internal space–it would save weight. The clothing, beddings, beds, furniture, cooking appliances, laundry machines, bathroom fixtures, lockers, food, and water (in excess of what is needed for the steam catapults), plus the plumbing and electrical/data cables needed to support some of those features add up, and if the humans disappeared, so would all of those things. Ironically, a robotic aircraft carrier would also have fewer computers and display monitors in it since the machines wouldn’t need them because they’d be able to directly interface their minds with the ship’s sensors and main computer. Lessening the number of devices would also save weight.
Moreover, the need to divide a ship’s internal space into rooms that only exist due to human needs, like walling off an area to create privacy for a bathroom, adds weight since the walls themselves are heavy. If the ship weren’t designed around human needs, more parts of the ship could be large, open areas, cutting overall weight.
With these considerations in mind, a low estimate for the amount of weight saved by eliminating the human crew is one ton (2,000 lbs) per person. The total weight savings is therefore 6,000 tons, which is a small but still helpful boost for a vessel displacing 114,000 tons.
Our robotic version of the George H.W. Bush could deal with its excess internal volume and weight savings in a three different ways. The simplest option would be to just accept having more empty space inside of itself, and to capitalize on the slight increase in sailing speed and ship energy efficiency that would owe to being lighter. The ship would have the same number of decks and the same internal volume and the manned version, but the rooms would be larger, there would be less of them, and they would be less full of stuff. This option would let the carrier be more mission flexible since it could double as a transport.
The Nimitz-class USS Theodore Roosevelt undergoing replenishment at sea. Note the temporary cables connecting the ships, which are used to move supplies.
The second option would be to fill the robot George H.W. Bush‘s newly empty spaces with 6,000 tons of other stuff to improve its performance in some way. Nimitz-class aircraft carriers are powered by nuclear reactors whose uranium lasts for 20 years, so it wouldn’t help to add spare uranium rods to the ship (refueling is done in port for the sake of safety, anyway). However, other types of essential supplies are depleted over the course of a multi-month cruise, forcing a carrier to halt operations so it can pull alongside a cargo ship for a tedious resupply process called “replenishment.”
The lack of human crewmen would mean the carrier would no longer need food replenishments, but it would still need replenishments of aviation fuel, munitions, and spare parts for its aircraft and itself. Given that a Nimitz-class ship’s 8,500 ton supply of aviation fuel , called “JP-5,” only last about seven days during routine operations, and even less during round-the-clock combat operations, the robot version of the ship would derive the most benefit from adding more fuel tanks.
If the capacity of the robot George H.W. Bush’s aviation fuel storage tanks increase from 8,500 to 14,500 tons, if JP-5 is 6.8 pounds per U.S. gallon, and if a gallon of liquid is 0.134 cubic feet, then we can calculate how much volume the added 6,000 tons of fuel will take up inside the ship.
Glimpsing at this cross-section of the George H.W. Bush again, we see that aviation fuel in stored in long tanks stretching along the port and starboard sides of the ship (item #8 in the image). At the waterline, the ship is 1,092 feet long, and the draught (the distance between the waterline and the bottom of the ship’s hull) is 37 feet. So if we add 236,470 cubic feet of fuel tanks to the existing tanks indicated in the illustration…
1,092 feet x 37 feet = 40,404 square feet on port side and starboard side (80,808 total) 236,470 cubic feet / 80,808 square feet = 2.9 feet
…then we could fit in the extra fuel by widening the existing storage areas by a mere 2.9 feet. As a result, in the above illustration, item #8 would be very slightly wider on both sides of the ship, and item #10 would be very slightly narrower by the same amount. Adding 6,000 tons of aviation fuel is very doable.
The result would be a ship that weighed and handled the same as its manned counterpart, but could launch airstrikes against enemies for longer periods of time before having to pause to get a gas refill from another ship. The robot carrier’s upper decks would have a lot more empty space than the manned version, but it wouldn’t be able to fill it up without slowing itself down.
The third option would be to get rid of the surplus human spaces by deleting some of the ship’s decks, in turn reducing the carrier’s total interior volume. The mission-essential rooms that remained, like the repair shops and spare parts storage rooms, would then be reconfigured so they filled up the ship’s interior efficiently, with no empty spaces or oversized rooms. If you could explore this robot George H.W. Bush version, it would seem as claustrophobic as its manned counterpart, though it would take less time to tour the latter since it would have one or two fewer decks.
This modification would cut even more weight from the vessel, allowing it to travel faster with the same nuclear reactors, or to travel at the same speed with smaller reactors. The reduced mass would also make it faster and cheaper to build.
“Freeboard” is the vertical distance between the water’s surface and the top of a ship’s hull, and “draught” is the vertical distance between the bottom of a ship’s hull and the water’s surface.
But this design change raises a potential problem: If we reduce the number of decks in the ship, then we reduce its overall height from the bottom to top. As discussed earlier in this analysis, we can’t reduce the freeboard because that’s already optimized. That means we have to reduce the “draught” (also called “draft”), which is the vertical distance from the bottom of the ship’s hull to the water’s surface. However, reducing the draught too much can make a ship unstable.
The George H.W. Bush‘s draught is 37 feet. If one deck were deleted, the draught would be 28.5 feet, and the ship’s weight would also decrease. Let’s say it drops from 114,000 tons to 100,000. Would the ship still be stable? Maybe. After all, there are several cruise ships whose dimensions with nearly identical dimensions, and they’re very seaworthy:
Ship name
Tonnage
Draught (ft)
Length (ft)
Width (ft)
USS George H.W. Bush (manned)
114,000
37
1,040
134
USS George H.W. Bush (robot) minus one deck
100,000
28.5
1,040
134
Carnival Sunshine
103,881
26.25
892
125
Costa Fortuna
102,587
27.23
892
125
MSC Orchestra
92,409
25.75
964
105
Norwegian Pearl
93,530
28.3
964
105
The cruise ships with draughts of 25.75 – 28.3 feet can handle rough seas, so the table suggests our robot aircraft carrier would presumably be able to do so just as well with a draught of 28.5 feet. However, it’s possible the demands placed on a ship designed for war are different from those of a ship designed for recreation, making a 28.5 foot draught insufficient for an aircraft carrier. A warship probably needs to be able to accelerate harder, make tighter turns, and endure worse weather conditions than a cruise liner. Unlike my research on the freeboard, I wasn’t able to find data on the optimal draught for a carrier, so I can’t answer the question, I can only conclude that a robotic aircraft carrier might have fewer decks and less internal volume than a manned counterpart.
In conclusion, while a robot version of the U.S.S George H.W. Bush wouldn’t look much different from a manned version on the outside, there would be substantial differences on the inside. All of the rooms and items that existed to service the needs of the human crew (bunk rooms, bathroom, cafeterias, offices, furniture, display monitors, etc.) would be missing. If the robot version retained the same amount of internal space as the manned version, then it would feel much emptier and more open inside. Its performance would also be superior to the manned version in one or more areas (e.g. – faster, more fuel for planes, better mission flexibility thanks to more storage space). If the robot version were designed to exclude excess volume, then it would feel about as constricted as the manned version, and it’s interior would be smaller, making it faster to do a full walking tour of the ship. A less capacious version of the USS George H.W. Bush may or may not have better performance in one or more areas than its manned counterpart, but for sure, it would be faster and cheaper to manufacture, allowing a country to make more ships for the same amount of money.
Finally, another observed difference would be lower levels of activity on an autonomous aircraft carrier since there would be far fewer crewmen. Moreover, since the crew would all be robots, they wouldn’t need to roam the ship to visit bathrooms, the cafeteria, buddies, or their bunks–they would stay put at their duty locations almost all the time. For example, a robot that fixed airplane engines would spend all its time in the engine repair shop. If it needed power, it would plug itself into a wall outlet in that room. It might only ever leave the room to visit the robot repair shop when it broke.
The robots would be of different sizes and designs to suit different roles on the ship. Obviously, they would need to be waterproof and capable of working normally underwater, to some reasonable depth and pressure level (100 – 200 meters). Unlike human crewmen, if the carrier were sinking, they would stay inside and focus on fixing the vessel, reducing the odds of it being lost. They could even keep working in parts of the ship that had filled with water.
Contrast that scenario with the premature abandonment of the U.S.S. Yorktown in WWII, which happened because the captain erroneously assumed the ship was doomed, and the human crewmen were afraid to risk their lives by remaining on it. The central computer of a robot George H.W. Bush would not make such a mistake, and its robot crew would unfailing execute its orders until the end, even in the worst of circumstances.
Plot: At an unspecified point in the future, it has become common for people to implant their children with devices that record everything they see and hear. The implants, called “Zoes” (two syllables), are organic, are implanted at the fetal stage of life somewhere in the central nervous system, and “grow” as the child grows. The implants are unnoticeable, and people are only told they have them once they hit adulthood. For technical reasons, the audiovisual contents of the Zoes can’t be downloaded until after the person dies.
Robin Williams is the main character and protagonist. The film starts with a memory from his own childhood where he is hanging out alone during a day trip to the countryside and encounters another boy his age, who is also alone. The two get on friendly terms and explore an abandoned building together. While walking over a narrow beam, the other boy falls over the edge, lands on his head and immediately dies. Kid Robin Williams could have saved him by grabbing him as he was dangling from the edge, but he hesitated and the boy died. He runs away and never tells anyone else about this traumatic and shameful memory.
Years later, Robin Williams has found work as a “cutter”–a sort of futuristic video editor who downloads Zoe recordings from the recently deceased and then edits them down into two- or three-hour movies that show all the milestones and positive highlights of their lives. These recordings are usually shown at funerals, given to loved ones, and serve as semi-official records of what happened in a person’s life.
Robin Williams editing footage from a zoe
The editing process entails deleting recordings of bad things the person did (like spousal abuse, child molestation, and everyday acts of cruelty), leaving a happy but false representation of the person’s life. Robin Williams’ choice of this profession clearly stems from his own desire to assuage his own guilty memories of the childhood incident. His character’s last name–“Hakman”–brings the symbolism to an even more obvious level.
The movie’s main conflict arises when Robin Williams is asked to cut the Zoe footage for a wealthy businessman who recently died. After reviewing it, not only does Robin Williams realize the man was a secret pedophile, but he also finds clues that the dead boy from his own childhood might have actually survived and crossed paths with the businessman. Added to the mix is the fact that Robin Williams is under a short deadline to do the cut and return the original footage to the family, and a dangerous terrorist group wants to steal the Zoe footage for blackmail purposes.
The year is never revealed in The Final Cut. Also, aside from the Zoes, the film depicts a world identical to our own–there are no flying cars, laser guns, robots, etc. Most people don’t even have stainless steel dishwashers. It’s a cop-out and makes the film more of a fantasy than anything else. By the time Zoes exist, it will be so far in the future that nearly everything about the world will be different from today.
Analysis:
There will be brain implants that record what people see and hear. In principle, this technology is possible and we already have crude versions of it. Implants that can monitor brain activity and turn a person’s thoughts into written text were recently invented to help people with speech disabilities. More advanced implants that monitor the parts of the brain that processed vision and hearing could someday decode the things a person was seeing and hearing. Alternatively, implants could be attached to the optic and cochlear nerves to directly monitor the stimuli being received by the eyes and ears (respectively), before any of it had been processed by the brain.
Safe, affordable central nervous system implants with capabilities like “Zoes” won’t exist until sometime in the 22nd century. However, average people will be able to effectively do the same type of lifelogging by the end of this decade by wearing the new generation of augmented reality (AR) glasses that are coming.
Brain implants will have “organic” characteristics. The Zoes “grew” along with their hosts, and since they were permanent, lasted a lifetime, and didn’t need to be removed for maintenance, they must have had self-healing capabilities and the ability to extract energy from blood or body heat. The devices thus had “organic” characteristics.
Some technologies will eventually gain organic attributes, and it’s clear this would be especially advantageous for devices implanted in “wet” brains and bodies. As one example, storage of digital information can presently only be done using artificial substrates like hard disk drives and flash drives, but scientists are developing ways to do it using DNA, which is an organic molecule. DNA is an incredibly efficient way to store information (a microscopic amount of it in just one of your cells can hold close to 1 GB of data), and existing cellular self-repair mechanisms are excellent at protecting the data contained in DNA from decay. This might be the ideal data storage medium for brain implants considering the enormous amounts of audiovisual data that would need to be saved.
Beyond that, advanced nanomachines and/or micromachines could fully bridge the gap between organic and synthetic since they would be artificial microorganisms and would allow macro-scale machines to grow, heal, and to move their parts in totally organic ways. Some robots will have supple bodies and will be made of what could be thought of as “artificial cells,” and some humans will have synthetic implants and body parts that look biological and have some properties of organic tissue. The line between “natural” and “artificial” might disappear, leading to life forms combining the attributes of both in refined ways.
Of course, that milestone won’t be reached anytime soon. Again, we’ll probably have to wait until the 22nd century to see this level of technology.
People won’t be able to control their own implants. Another two of the film’s conceits are that people can’t turn their own Zoes off or view the footage they have captured. Only after a person dies can the footage be downloaded (presumably, this involves brain surgery) and viewed (by other people).
Things will never turn out this way. Users will always demand control over their devices and their data privacy, and they will find Zoes useless if they can’t view their own recordings. Actual brain implants we create in the future will be able to transmit and receive data to and from external devices, and will also have simple features allowing users to do things like delete and play back recordings, or temporarily deactivate. (Also consider the legal, employment, and social consequences for a person if it were known that he was always recording everything he was experiencing.) If, for some reason, brain implants lacked these features, then people would instead use AR glasses for their lifelogging.
Machines will be able to recognize what is happening in video footage. A scene I really liked in The Final Cut was where Robin Williams used his computer to scan through the wealthy businessman’s Zoe footage. The data file is thousands of hours long, and the computer rapidly shuffled through every second of it, recognized what the dead man was doing each moment, and categorized each clip appropriately. It automatically sorted clips into groups like “Eating,” “Watching TV,” “At work,” “Walking around,” and “Having sex.” With the basic level of sorting completed, Robin Williams could then go through the clips and use his human judgment to select the ones best representing the man’s major achievements, milestones, and positive traits.
Well before Zoes are invented, computers will become smart enough to do this. In just the last five years, major progress has been made teaching machines to understand what’s going on in video footage, to accurately transcribe speech and recognize sounds, and to identify people through biometrics. Within ten years, a person will be able to upload his lifelogging footage from his AR glasses to a computer and have it sorted with the same speed, accuracy and thoroughness as Robin Williams’ computer. They will even be able to identify locations based on visible landmarks and other clues, and to make other intelligent inferences about the contents of clips.
Far from being a parlor trick or something that is only useful to obsessive-compulsives, this technology could help ordinary people. For example, in 10 years you could ask: “Who was that guy in the white jacket that I talked to at that party last week?” and your AR glasses will understand your spoken question, scan through its stored footage, and answer you, perhaps also offering an instant replay of the episode. It will be like having superhuman memory.
Parents will put implants in their newborn children. In the film, Zoes are implanted in their hosts in early childhood, meaning the decision is made by a host’s parent. It may sound unrealistic for parents to have unnecessary brain surgeries done on their children, but once Zoe-like devices are cheap and surgical techniques are more advanced, it could become common. It might be considered a great blessing for parents to enable their kids to re-live episodes from their childhoods later on. Just don’t expect any of this until the 22nd century.
The FDA just approved the “Eversense E3” glucose monitoring implant. It is surgically placed in a person’s upper arm and can remain there for up to 180 days. More advanced and longer-lasting implants are sure to come.
What might become common much sooner is the installation of health monitoring implants in children. The devices would be smaller, simpler and cheaper than Zoes and would be placed in less vital parts of the body than the brain, making surgery far less risky. Such implants could monitor vital functions (e.g. – heart rate, blood pressure, respiration, temperature, cholesterol, hormone levels, diet, gene expression) and alert parents and doctors to health problems in their earliest phases, and to sudden medical emergencies. The implants might even double as location trackers for use if the children became lost or were kidnapped. If the price and risk are low enough, and the benefits are high enough, the natural parental instinct to do everything to protect one’s children could lead to monitoring implants becoming common in a few decades.
Will tech implants ever be worth it?
But in the interim, body-worn devices will satisfy those functions. As discussed in my Cloud Atlas review, external devices can do most of the same things implanted devices could, but at lower cost and without need for surgery. In my analysis of Ray Kurzweil’s 2019 predictions, I explained how smart watches had become affordable and could continuously monitor many of their wearers’ vital signs, warn them of irregular heartbeats, and alert the local paramedics if they detected “hard falls” followed by user nonresponse. More features, like blood pressure monitoring, will be added with time. Smart watches can also be used as tracking devices.
In my analysis of how accurate my predictions for the 2010s were, I also calculated that it was feasible in 2020 for an average person to record every waking hour of his life with a GoPro, and at a respectable 720p video resolution. The cost of storing the footage would be only $1 a day, putting the whole system well within the financial means of most people in rich countries. Of course, that would require the person to strap a small box to his forehead, which would look so silly few would do it. However, the new generation of AR glasses that will be commercially available by the end of this decade will be sleek and stylish, and have unobtrusive cameras. Hard disk prices will also keep declining, meaning it won’t be long until it costs mere pennies a day to store videos of one’s waking life.
With that in mind, AR glasses that give people the same audiovisual recording abilities as the Zoe brain implants will be affordable and available by the end of this decade. Smart watches that can closely monitor their wearers’ health and provide them with significant medical help will be available around the same time. Improved computer algorithms will be able to pool and analyze all of the data gathered by a person’s various devices to detect patterns and make sophisticated inferences. For instance, it could correlate your early-afternoon headaches with your cup of yogurt at breakfast, and inform you that you are probably going lactose intolerant. Your devices could give you real-time summaries of your health status and make hourly activity recommendations based on the day’s data (“Go for a walk”…”Breathe deeply to calm down”…”Take your medication”).
And very importantly, putting on these or other body-worn devices won’t require surgery, and if they ever broke or became obsolete, you could simply take them off and and throw them away. That won’t be true for body implants. So are cyborg implants merely another poorly conceived sci-fi trope, like laser pistols, which will never materialize?
No. Body implants like Zoes will ultimately make sense for humans to get, and will have important advantages over body-worn devices, but it will take a long time for the implants to become common.
AR glasses can only record what you are seeing and hearing, not what you are tasting, smelling, or feeling on your skin. Only a brain implant like a Zoe could capture those senses, as well as your moment-to-moment emotional states. If you wanted to truly re-live happy memories, an implant would be needed.
And while smart watch technology will reach impressive heights, it will be handicapped by its inability to access the wearer’s bloodstream. Devices inside a person’s body could monitor hormone levels, glucose levels, immune system activity, gene expression, toxin levels, and other important metrics, in addition to doing everything smart watches do. Implants could even stimulate your body with things like electric shocks to your heart, hormone dumps into your bloodstream, or neurotransmitter releases into your brain to counteract health problems. Even without any future cures for diseases or breakthroughs in reversing the aging process, such devices by themselves would significantly improve public health and lifespan.
These and other cybernetic devices will migrate into our bodies once we have found ways to make them totally unobtrusive and reliable, and once the cost and invasiveness of surgery dramatically improves (robot surgeons that work for free might help). Some limited ability to self-repair and to internally reconfigure to account for technology updates will also be needed, and the radically advanced nature of such technology is is why I don’t see the cyborg era dawning this century.
Four final points that weren’t covered in the film:
Ubiquitous surveillance will reduce bad behavior. If people know they’re probably being recorded and the recordings will be stored forever and possibly shared with millions of people, they’re less likely to commit crimes or behave uncivilly. The effect is greater if they know that biometric analysis like facial recognition or voice recognition can easily uncover their real identities from video footage. Thanks to everything being recorded and to the world being populated by intelligent machines and posthumans that will lack berserker emotions and extreme stupidity, the 22nd century will probably be a very polite era.
Having implants in your brain and body that monitor your surroundings, your behavior, and your physiological state could lead to a spooky condition where your personal assistant AI that is watching them could anticipate your thoughts, actions, and needs. If gifted with high enough intelligence and tasked with furthering your long-term enlightened self-interests, your AI could find clever ways to nudge or even control you. As a simple example, it might act like an angel on your shoulder and tell you through your ocular nerve “Don’t eat that pie. You’ve already consumed 2,300 calories today. You get a break on your health insurance premiums if I report you’ve been eating well.” More paternalistically, it might be able to release synthetic dopamine into your brain to calm you down from fits, or just plain take over your body if you were doing something highly illegal or self-destructive. Mind-influencing and mind-control could, along with ubiquitous surveillance, give rise to a very peaceful and harmonious world (or a dystopian one).
Ubiquitous surveillance will create interesting tensions between peoples’ memories and what actually happened. The film touches on this when the brother of a recently deceased man remarks to Robin Williams that the video clip of a childhood boat trip was at odds with his own recollection. It’s beyond the scope of this essay to discuss this issue in depth, but the replacement of fuzzy human memories with clear, unchanging recordings will be a two-edged sword. Past traumas and failures would never be forgotten, but people would also be able to see their own actions through unbiased lenses and to see themselves in a more honest light.
There will be “snitch apps” in the future. Once people have AR glasses, they will be able to download apps that automatically compare the faces of every person they encounter with mugshots of all known criminals and terrorists, and then report sightings to law enforcement. Even if just 0.1% of the population used these when in public, it would be highly effective. There might even be crowdsourced “Wikis” of non-criminal rude people (ex – “Karens” who had public outbursts made notorious by YouTube) whom you could also set your devices to look out for and to highlight for your avoidance or mockery. Likewise, your own reputation would be viewable to other people wearing their own AR glasses.
Implants that can do simple functions like monitoring blood cholesterol levels already exist. As they get cheaper, smaller and better, they will get more common. https://www.bbc.com/news/health-21841829
