Plot:
In the year 2019 a race of “bioengineered” humans called “replicants” exists, and are used as slave laborers and soldiers on space colonies. While made superior to ordinary humans in most respects (strength, pain tolerance, intelligence), replicants have deliberately capped lifespans of only four years to limit the amount of damage they can do should they rebel against their masters, and they are not allowed on Earth itself. This doesn’t stop a small group of replicants–including several who have enhanced combat traits–from hijacking a space ship and traveling to Earth to confront their “creator,” the head of the company the manufactured them and all other replicants, and to force him to technologically extend their lifespans. The replicants smuggle themselves into Los Angeles, where the company’s headquarters is.
Upon discovering the infiltration, the LAPD hires a bounty hunter named “Rick Deckard” to hunt down the replicants. Deckard’s background is never clearly explained, but he has good detective skills and has killed replicants before. As he follows leads and tracks them down, Deckard meets a love interest and is forced to confront his biases about replicants and consider existential questions about them and himself.
An important fact must be clarified and emphasized. Replicants ARE NOT robots or androids; they are “bio-engineered” humans. They don’t have metal body parts or microchip brains, and instead are made of flesh and blood like us. As proof, there are several scenes in Blade Runner where the replicant characters are hurt or killed, and they display pain responses to injuries and bleed red blood.
Additionally, it’s made clear that replicants can only be distinguished from humans by a sit-down interview with a trained examiner in which the subject is asked a series of odd questions (called the “Voight-Kampff Test”) while their physiological and spoken responses are analyzed. The procedure looks like a polygraph test. If replicants were robots with metal bones, microchip brains, or something like that, then a simple X-ray scan or metal detector wand would reveal them, and there’d be no need for a drawn-out interview. Likewise, if the replicants were organic, but fundamentally different from humans, then this could also be quickly detected with medical scans to vision their bones and organs, and with DNA tests to check for things like something other than 46 chromosomes.
By deduction, it must be true that replicants are flesh-and-blood humans, albeit ones that are produced and birthed in labs and biologically/genetically engineered to have trait profiles suited for specific jobs. The available evidence leads me to suspect that replicants are “assembled” in the lab by fitting together body parts and organs, the way you might put together a Mr. Potato Head. They are then “born” as full-grown adults and come pre-programmed with fake memories and possibly work skills. Replicants are human slaves, technologically engineered for subservience and skill.
Analysis:
Los Angeles will be polluted and industrial. In the film, Los Angeles is a grim, hectic place where fire-belching smokestacks are within sight of the city’s residential core. During the few daylight scenes, the air is very hazy with smog. This depiction of 2019 fortunately turned out wrong, and in fact, Los Angeles’ air quality is much better than it was when Blade Runner was released in 1982.
This improvement hasn’t just happened to L.A.–across the U.S. and other Western countries, air pollution has sharply declined over the last 30-40 years thanks to stricter laws on car emissions, industrial activity, and energy efficiency. With average Westerners now accustomed to clean air and more aware of environmental problems, I don’t see how things could ever backslide to Blade Runner extremes, so long as oxygen-breathing humans like us control the planet.
Of course, the improvements have been largely confined to the Western world. China and India–which rapidly industrialized as the West was cleaning itself up–now have smog levels that, on bad days, are probably the same as Blade Runner’s L.A. This has understandably become a major political issue in both countries, and they will follow the West’s path improving their air quality over the coming decades. In the future, particulate air pollution will continue to be concentrated in the countries that are going through industrial phases of their economic development.
Real estate will be cheap in Los Angeles. One of the minor characters is a high-ranking employee at the company that makes the replicants. He lives alone in a large, abandoned apartment building somewhere in Los Angeles. After being tricked into letting the replicants into his abode, he gestures to the cavernous space and says: “No housing shortage around here. Plenty of room for everybody.” In fact, the exact opposite of this came true, and Los Angeles is in the grips of a housing shortage, widespread unaffordability of apartments and houses, and record-breaking numbers of poorer people having to live on the streets or in homeless shelters.
The problems owe to the rise of citizen groups that oppose new construction, historical preservationists, and innumerable new zoning, environmental, and labor laws that have made it too hard to build enough housing to keep up with the city’s population growth since 1982, and priced affordably for the people who actually work there. Blade Runner envisioned a grim 2019 for Los Angeles, courtesy of unchecked capitalism (e.g. – smokestacks in the city, smoggy air, megacorporations that play God by mass producing slaves), yet the city (and California more generally) actually went down the opposite path by embracing citizen activism, unionists, and big government, ironically leading to a different set of quality of life problems. Fittingly, the building that stood in for the derelict apartment building in Blade Runner has now been fully renovated, is a government-protected landmark, and is full of deep-pocketed, trendy businesses.
There will be flying cars. One iconic element of Blade Runner is its flying cars, called “spinners.” They’re shaped and proportioned similarly to conventional, road-only cars, and they’re able to drive on roads, but they can also take off straight up into the air. Clearly, we don’t have flying cars like this today, and for reasons I discussed at length in my blog entry about flying cars, I doubt we ever will.
I won’t repeat the points I made in that other blog entry, but let me briefly say here that the spinners are particularly unrealistic types of flying cars because they don’t have propellers or any other device that lifts the craft up by blowing air at the ground. Instead, they seem to operate thanks to some kind of scientifically impossible force–maybe “anti-gravity”–that lets them fly almost silently. There are brief shots in the film where low-flying spinners belch smoke from their undersides, which made me wonder if they were vectored thrust nozzles like those found on F-35 jets. But because the smoke comes out at low speed, the undermounted nozzles are not near the crafts’ centers of gravity, and the smoke isn’t seen coming out when the spinners are flying at higher altitudes, I don’t think they help levitate the spinners any more than a tailpipe helps a conventional car drive forward on a road.
People will smoke indoors. In several scenes, characters are shown smoking cigarettes indoors. This depiction of 2019 is very inaccurate, though in fairness the people who made the movie couldn’t have foreseen the cultural and legal sea changes towards smoking that would happen in the 1990s and 2000s.
When judging the prediction, also consider that if we average people and the legal framework were more enlightened, vaping indoors would be much more common today. While not “healthy,” vaping nicotine is vastly less harmful to a person’s health than smoking cigarettes, and science has not yet found any health impact of exposure to “secondhand vape smoke.”
There will be genetically engineered humans. In Blade Runner, mankind has created a race of genetically engineered humans called “replicants” to do labor. The genetic profile of each replicant is tailored to the needs of his or her given field of work. For example, one of the film’s replicant characters, a female named “Pris,” is a prostitute, so she is made to be physically attractive and to have average intelligence. All of the replicant characters clearly had high levels of strength and very high pain tolerances.
In the most basic sense, Blade Runner was right, because genetically engineered humans do exist in 2019. There are probably dozens of people alive right now who were produced with a special in vitro fertilization (IVF) procedure called “mitochondrial replacement therapy” in which an egg from a woman with genetically defective mitochondria is infused with genetically normal mitochondria from a third person, and then the “engineered” egg is combined with sperm to produce a zygote. The first such child was born in 1997.
Additionally, there are now two humans with genetically engineered nuclear DNA, and they were both born in November 2018 in China after a rogue geneticist used CRISPR to change both of their genomes. Those edits, however, were very small, and will probably not manifest themselves in any detectable way as the babies grow up, meaning Blade Runner‘s prediction that there would be genetically engineered adults with meaningfully enhanced strength, intelligence, and looks in 2019 failed to come true. This is because it has proven very hard to edit human genes without accidentally damaging the target gene or some other one, and because most human traits (height, IQ, strength, etc.) are each controlled by dozens or hundreds of different genes, each having a small effect.
For example, there’s no single gene that controls a human’s intelligence level; there are probably over 1,000 genes that, in aggregate, determine how smart the person is and in what areas (math, verbal, musical). If you use CRISPR to flip any one of those genes in the “smart” direction, it will raise the person’s IQ by 1 point, so you just have to flip 40 genes to create a genius. But CRISPR is an imprecise tool, so every time you use it to flip one gene, there’s a 20% chance that CRISPR will accidentally change a completely different gene as well, perhaps causing the person to have a higher risk of cancer, schizophrenia or a birth defect.
The discovery of CRISPR was a milestone in the history of genetic technology, and it improved our ability to do genetic engineering by leaps and bounds, but it’s simply not precise enough or safe enough to make humans with the major enhancements that the replicants had. We’ll have to wait for the next big breakthrough, I can’t predict when that will happen, and I doubt anyone else could since there’s no “trend line” for this area of technology.
That’s not to say that we couldn’t use existing (or near-term) genetic technologies to make humans with certain attributes. A technique called “preimplantation genetic screening” (PGS) involves the creation of several human zygotes through IVF, followed by gene sequencing of each zygote and implantation of the one with the best genetic traits in the mother. This isn’t true “genetic engineering,” but it accomplishes much the same thing. And you could sharply raise the odds of getting a zygote with specific characteristics if you did the IVF using sperm or eggs from adults who already had those those characteristics. For example, if you wanted to use genetic technology to make a physically strong person, you would get the sperm or eggs of a bodybuilder from a sperm/egg bank, use them for an IVF procedure, and then employ PGS to find the fertilized egg that had the most gene variants known to correlate with high strength. This would almost certainly yield a person of above-average physical strength, without making use of bona fide “genetic engineering.” There are no statistics on how many live babies have been produced through this two-step process, but if we assume just 0.1% of IVF procedures are of this type, then the number is over 8,000 globally as of this writing.
Furthermore, I can imagine how, within 20 years, genetic engineering could be applied to enhance the zygotes farther. Within that timeframe, we will probably discover which mitochondrial genes code for athleticism, and by using mitochondrial replacement therapy, we could tweak our PGS-produced zygote still farther. Let’s assume that there are ten nuclear genes coding for physical strength. The average person has five of those genes flipped to “weak” and five flipped to “strong,” resulting in average overall strength. Our carefully bred, deliberately selected zygote has nine genes flipped to “strong” and one flipped to “weak.” Since we only have to change one gene to genetically “max out” this zygote’s physical strength, the use of CRISPR is deemed an acceptable risk (error rates are lower than they were in 2019 anyway thanks to lab techniques discovered since then), and it works. The person grows up to be a top bodybuilder.
There will be genetically engineered super-soldiers. The leader of the replicant gang in Blade Runner is named “Roy Batty,” and he was designed with traits suited for military combat. Having governments or evil companies make genetically engineered or cloned super-soldiers is a common trope in sci fi, but I doubt it will ever happen, except perhaps in very small numbers.
First, I simply don’t believe that the government of any free country, and even most authoritarian ones, would be willing to undertake such a project. And even if one of them were, the diplomatic costs imposed by other countries on the basis of human rights would probably outweigh the benefits of having the small number of super-soldiers. Mass producing millions of super-soldiers to fill out an army (to be clear, there was no evidence of anything but than small-batch production in Blade Runner) is even less plausible, as it would be too fascist and dehumanizing a proposal for even the most hardline dictatorships. Censure from the international community would also be severe. What damage can you do with an army of genetic super-soldiers if years of economic sanctions have left you without any money for bullets?
Second, a country’s ability to make super-soldiers will be constrained by its ability to raise and educate them. In spite of their genetic endowments, the super-soldiers would only be effective in combat if they were educated to at least the high school level and psychologically well-adjusted, which means costly, multi-year investments would need to be made. Where would the state find enough women who were willing to be implanted with super-soldier embryos and carry them until birth? If the government coerced its women into doing this, the country would become an international pariah for sure, and its neighbors would strengthen their own armies out of concern at such derangement.
Who would raise the children? State-run orphanages are almost universally terrible at this, and too many of the super-soldiers would turn out to be mentally or emotionally unfit for military service, or perhaps fit, but no better overall than a non-genetically engineered soldier who was raised by a decent family. If the government instead forced families to raise the super-soldier kids, doubtless many would be damaged by family dysfunction at the hands of parents who didn’t want them or parents who raised them improperly.
Third, by the time we have the technology to make genetic super-soldiers at relatively low cost, and by the time any such super-soldiers get old enough to start military service, militaries will probably be switch to AIs and combat robots that are even better. As I predicted in my Starship Troopers review, a fully automated or 95% automated military force could exist as early as 2095.
And if the super-soldiers were all clones of each other, they could develop very close personal bonds, come to feel alienated from everyone else, and behave unpredictably as a group. Identical twins and triplets report having personal bonds that can’t be understood by other people.
That said, I think human genetic engineering will become widespread this century, it will enable us to make “super people” who will be like the most extraordinary “natural” humans alive today, some of those genetically engineered people will serve in armed forces and under private military contractors across the world, and they will perform their jobs excellently thanks to their genetically enhanced traits. While it’s possible that some of these “genetic super-soldiers” will be made by governments or illegally made by evil companies, people like that will be very small in number, and dwarfed by genetic super-soldiers who are the progeny of private citizens who decided, without government coercion, to genetically engineer their children. Those offspring will then enter the military through the same avenues as non-genetically engineered people, either by joining voluntarily or being drafted. Yes, there will be genetically engineered super-soldiers someday, but their presence in the military or in private security firms will be incidental, and not–except in some rare cases–because a government or company made them for that purpose and controlled their lives from birth.
There will be “artificial animals”. While visiting the luxurious office of a tycoon, Deckard sees the man’s pet owl flying around, and he’s told that it is “artificial.” Later, he comes across an artificial pet snake, whose scales (and presumably, all other body parts) were manufactured in labs and bear microscopic serial numbers. To the naked eye, both animals look indistinguishable from normal members of their species. It’s unclear whether “artificial” means “organic” like human replicants, or “mechanical” like robots with metal endoskeletons and computer chips for brains. We have failed to create the latter, and the robotic imitations of animals we have today are mostly toys that don’t look, move, or behave convincingly. Our progress achieving the former (replicant animals) is more equivocal.
Our technology is still far too primitive for us to be able to grow discrete body parts and organs in a lab and to seamlessly join them together to make healthy, fully functional animals. This is the likeliest process used to make the replicants, so in the strictest sense, we have failed to live up to vision Blade Runner had for 2019. However, we are able to genetically modify animals and have done so many times to hone our genetic engineering techniques. For example, Chinese scientists used CRISPR to make dogs that have twice the normal muscle mass. For all I know, they’re now the pets of a rich man like the film’s tycoon.
Additionally, we are reasonably good at cloning animals, and, considering the vagueness of the terms “artificial” and “bioengineered” as they are used in the film, it could be argued that they apply to clones. Cloning a cat costs about $25,000 and a dog about $50,000, putting the service out of reach for everyone but the rich, and there are several rich people who have cloned pets, most notably Barbra Streisand, who had two clones made of her beloved dog after it died. A celebrity of her stature owning cloned animals is somewhat analogous to Blade Runner‘s depiction of the tycoon who owned the artificial owl.
There will be non-token numbers of humans living off Earth. At several points in Blade Runner, references are made to the “off-world colonies,” which are space stations and/or celestial bodies that have significant human populations. Advertisements encourage Los Angelinos to consider moving there, which implies that the colonies are big enough and stable enough to house people other than highly trained astronauts. The locations of the colonies aren’t described, but I’ll assume they were in our solar system.
This prediction has clearly failed. The only off-world human presence is found on the International Space Station, it only has a token number of people (about six at any time) on it, only elite people can go there, and its small size and lack of self-sufficiency (cargo rockets must routinely resupply it) means it fails to meet the criteria for a “colony”.
There are no plans or funds available to expand the ISS enough to turn it into a true “space colony,” and in fact, it might be abandoned in the 2020s. Other space stations might be built over the next 20 years by various nations and conglomerates, but they will be smaller than the ISS and will only be open to highly trained astronauts.
While a manned Moon landing is possible in the next ten years (probably by Americans), I doubt a Moon base comparable in size and capabilities to the ISS will be built for at least 20 years (note that 14 years passed from when U.S. President Reagan declared the start of the ISS project and when the first part of it was launched into space, and no national leader has yet committed to building a Moon base, which would probably be even more expensive). In fact, in my Predictions blog post, I estimated that such a base wouldn’t exist until the 2060s. It would take decades longer for that base or any other on the Moon to get big enough to count as a “colony” that was also open to large numbers of average-caliber people. A Mars colony is an even more distant prospect due to the inherently higher costs and technological demands.
I think the human race will probably be overtaken by intelligent machines before we are able to build true off-world colonies that have large human populations. Once we are surpassed here on Earth, sending humans into space will seem all the more wasteful since there will be machines that can do all the things humans can, but at lower cost. We might never get off of Earth in large numbers, or if we do, it will be with the permission of Our Robot Overlords to tag along with them since some of them were heading to Mars anyway.
Cars will be boxy and angular instead of streamlined. Many of the cars shown in the movie are boxy and faceted. While this may have looked futuristic to Americans in 1982, boxy, angular cars were in fact already on their way out, and would be mostly extinct by the mid-90s. The cars of Blade Runner look retro today, and no mass-produced, modern vehicles look like them.**
The change to curvaceous, streamlined car bodies was driven by stricter automobile fuel efficiency requirements, enacted by the U.S. government in response to the Arab Oil Embargoes of the 1970s. Carmakers found that one of the easiest ways to make cars more fuel efficient was to streamline their exteriors to reduce air resistance.
Since there’s no reason to think vehicle fuel efficiency standards will ever come down (if anything, they will rise), there’s also no reason to expect boxy, angular cars to return.
**IMPORTANT NOTE I’M ADDING AT THE LAST MINUTE: On November 21, 2019, Elon Musk debuted Tesla’s “Cybertruck” at an event in Los Angeles, and the vehicle is a trapezoidal, sharp-angled curiosity that looks fit for the dark streets of Blade Runner. While I doubt it heralds a shift in car design, and it’s possible the Cybertruck could be redesigned between now and its final release date in 2021, I’d be remiss not to mention it here.
Therapeutic cloning will be a mature technology. There’s a scene in the film where two fugitive replicants confront and kill the man who designed their eyes in his genetics lab. It further establishes the fact that the replicants are made of organic parts that are manufactured in separate labs and then assembled. This technology is called “therapeutic cloning,” and today it is decades less advanced than Blade Runner predicted it would be.
We are unable to grow fully-functional human organs like eyes in labs, and can barely grow rudimentary human tissues using the same techniques. The field of regenerative medicine research was in fact dealt a serious blow recently, when a leading scientist and doctor Paolo Macchiarini was exposed as a fraud. Dr. Macchiarini gained worldwide fame for his technique of helping people with terminal trachea problems by removing tracheas from cadavers, replacing the dead host’s cells with stem cells from the intended recipient, and then transplanting the engineered trachea into the sick person. For a time, his work was touted as proof that therapeutic cloning was rapidly advancing, and that maybe Blade Runner levels of the technology would exist by 2019. Unfortunately, time revealed that Macchiarini had faked the results in his medical papers, and that most of his patients died soon after receiving their engineered tracheas.
Legitimate work in regenerative medicine is overwhelmingly confined to labs and involves animal experiments, and there are no signs of an impending breakthrough that will enable us to start making fully functional organs and tissues that can be surgically implanted in humans and expected to survive for non-trivial lengths of time. The best the field can muster at present is a few dozen procedures globally each year, in which a small amount of simple tissue, such as a bladder or skin graft, is made in the lab and implanted in a patient under the most stringent conditions. (Of note, only a small fraction of people with missing or non-functional bladders have received engineered bladders, and the preferred treatment is to do surgery [called a “urostomy”] so the person’s urine drains out of their abdomens through a hole and into an externally-worn plastic bag.) As noted in my Predictions blog entry, I don’t think therapeutic cloning will be a mature field until about 2100.
Advertisements will be everywhere. In Blade Runner, entire sides of buildings in L.A. have been turned into huge, glowing, live-action billboards advertising products. This prediction was right in spirit, but wrong in its specifics: Advertisements are indeed omnipresent, and the average person in Los Angeles is probably more exposed to ads in 2019 than they would have been in 1982. However, the ads are overwhelmingly conveyed through telecommunications and digital media (think of TV and radio commercials, internet popup ads, browser sidebar ads, and auto-play videos), and not through gigantic billboards. Partly, I think this is because huge video billboards would be too distracting–particularly if they also played audio–and would invite constant lawsuits from city dwellers who found them ruinous of open spaces and peace.
No one will turn on the lights. Blade Runner is a dark movie. No, I mean literally dark: Almost all of the scenes are set at night, and no one in the movie believes in turning on anything but dim lights. It may have been a bold, iconic look from a cinematography standpoint, but it’s not an accurate depiction of 2019. People do not prefer dimmer lights now, and in fact, nighttime artificial light exposure is higher than at any point in human history: satellites have confirmed that the amount of “light pollution” emanating from the Earth’s surface (mainly from street lights and exterior building lights) is greater than ever and still growing. Also, people now spend so much time staring into glowing screens (smartphones, computer monitors, TVs) that circadian rhythm disruption has become a public health problem.
Intriguingly, I don’t think this trend will continue forever, and I think it’s possible the world will someday be much darker than now. I intend to fully flesh out this idea in another blog entry, but basically, as machines get smarter and better, the need for nighttime illumination will drop. Autonomous cars will have night vision, so they won’t need bright headlights or bright streetlights to see the road. Streetlights will also be infused with “smart” technology, and will save energy by turning themselves off when no cars are around. And if intelligent machines replace humans (and/or if we evolve into a higher form), then everyone on Earth will have night vision as well, which will almost eliminate the need for all exterior lights.
Note that, in controlled environments, machines can already function in the dark or with only the dimmest of lights. This is called “lights-out manufacturing.” As machines get smarter and move from factories and labs to public spaces, they will bring this ability with them. My prediction merely seizes upon a proof of concept and expands upon it.
It will be possible to implant fake memories in people. Very early in a replicant’s life, he or she is implanted with fake memories. The process by which this is done is never revealed, but it is sophisticated enough to fill the subject’s mind with seeming decades of memories that are completely real to them. We lack the ability to do this, though psychological experiments have shown in principle that people can be tricked into slowly accepting false memories.
Since memories exist as physical arrangements of neurons in a person’s brain and as enduring patterns of electrochemical signaling within a brain, it should be possible in principle to alter a person’s brain in a way that implants a false memory in him or her, or any other discrete piece of knowledge or skill. However, this would require fantastically advanced technology (probably some combination of direct brain electrical stimulation, hypnosis, full-immersion virtual reality, drugs, and perhaps nanomachines) that we won’t have for at least 100 years. This is VERY far out there, along with being able to build humans from different body parts grown in different labs.
Computer monitors and TVs will be deep, and there will not be any thin displays. In one scene, we get a good look at a personal computer, and it appears to have an old-fashioned CRT monitor, and is almost a foot deep. Additionally, flat-panel TVs, computer monitors, laptops, or tablets and never seen in the film. This is a largely inaccurate depiction of 2019, as flat-panel screens are ubiquitous, and the average person owns several flat-screen devices that they interact with countless times per day.
I said the depiction was largely inaccurate because, even though CRT monitors and TVs are obsolete and haven’t been manufactured in ten years, millions of them are still in use in homes and businesses across the world, mainly among poor people and old people who lack the money or interest in upgrading. There’s even a subculture of younger people who prefer using old CRT TVs for playing video games because the picture looks better in some ways than it does on the best, modern OLED displays. In short, while it’s increasingly rare and unusual for people to have deep, CRT computer monitors in their homes, it is common enough that this scene from Blade Runner can be considered accurate in its depiction.
The median and mean lifespan of a CRT TV is 15 years, and almost none of them last more than 30 years. With that in mind, functional CRT monitors will not be in use by 2039, except among antique collectors. The Baby Boomers will be dead by then, and their kids will have thrown away any CRT screens they were clinging to.
People will talk with computers. Deckard’s apartment building has a controlled entry security feature: anyone who enters the elevator must speak his or her name, and the “voice print” must match with someone authorized to have access to the building, or else the elevator won’t go up. Also, in his apartment, Deckard uses voice commands to interface with his personal computer. Blade Runner correctly predicted that voice-user interfaces would be common in 2019, though it incorrectly envisioned how we would use them.
Electronic, controlled entry security technology in common areas of apartment buildings, like elevators and lobbies, are very common, but overwhelmingly involve using plastic cards and key fobs to unlock scanner-equipped doors. In fact, I’ve never seen a voice-unlocked door or elevator, and think most people would feel silly using one for whatever reason.
Smart speakers like the Amazon Echo are also very common and can only be interfaced with via speech. Modern smartphones and tablets can also be controlled with spoken commands, but it’s rare to see people doing this.
This brings up the valuable point that, though speech is an intuitive means of communication, we’ve found that older means of interface involving keyboards, mice, and reading words on a screen are actually better ways to interact with technology for most purposes, and they are not close to obsolescence (and might never be). An inherent problem with talking with a computer is you lose privacy since anyone within earshot knows what you’re doing. Also, while continuous speech recognition technology is now excellent, the error rates are still high enough to make it an aggravating way to input data into a machine compared to using buttons. Entering complex data into a computer, such as you would do for a computer programming task, is also much faster and easier with a keyboard, and anything involving graphical design or manipulation of digital objects on a screen is best done with a mouse or a stylus.
To understand, watch this clip of Deckard talking to his computer, and think about whether it would be easier or harder to do that image manipulation task using a mouse, with intuitive click-and-drag abilities to move around the image, and a trackball for zooming in and out: https://youtu.be/QkcU0gwZUdg
Hard copy photographs are still around. In that scene, Deckard does the image manipulation on a photograph that he found. He inserts it into a slot in his computer, and it scans it and shows the digital scan on his screen. While hard-copy photographs are still being made in 2019, they’re very uncommon, especially when compared to the number of photographs that were taken this year across the planet, but never transferred from digital format to a physical medium. I doubt that even 0.01% of the personal photographs ordinary people take are ever printed onto paper, and I doubt this will ever change.
Image scanners will be common. The computer’s ability to make a digital copy of a physical image of course means it has a built-in scanner. This proved a realistic prediction, as flatbed scanners with excellent image scan fidelity levels cost under $100. When Blade Runner was filmed, scanners were physically large, very expensive, made low-quality image conversions, and were almost unknown to the general public.
Cameras will take ultra high-resolution photos. The photo that Deckard analyzes is extremely detailed and has a very high pixel count, allowing him to use his computer to zoom in on small sections of it and to still see the images clearly. In particular, after zooming in on the round mirror hanging on the wall (upper right quadrant of the photo shown above), he spots an image of one of the replicants. While grainy, he can still make out her face and upper body.
It’s impossible to tell from the film sequence exactly how high-res the photo is, but today we have consumer-grade cameras that can take photos that are about as detailed. The Fujufilm XT30 costs $800 and is reasonably compact, putting it within the range of average-income people, and it takes very high quality 26.1 MP photos. One of its photos is shown above, and if you download the non-compressed version from the source website and open it in an imaging app, you’ll be able to zoom in on the rear left window of the car far enough to see the patterns of the decals and to read the words printed on them. (https://www.theverge.com/2019/4/12/18306026/fujifilm-xt30-camera-review-fuji-xt3-mirrorless)
Firearms will still be in use. The only handheld weapons we see in the film are handguns that use gunpowder to shoot out metal bullets. One is shown for only a split-second at the start of the movie when a replicant shoots a human, and the other is seen several times in Deckard’s hands. It’s big, bulky, looks like it shoots more powerful bullets than average, and has some glowing lights that seem to do nothing. In short, it’s nothing special, and probably isn’t any better than handguns that most Americans can easily buy for $500 today. Thus, the depiction the 2019’s state-of-the-art weaponry is accurate.
And I do say “state-of-the-art” because, being an elite bounty hunter on an important mission to kill abnormally strong, dangerous people, Deckard has his choice of weapons, and it says a lot that he picks a regular gunpowder handgun instead of something exotic and stereotypically futuristic like a laser pistol. As noted in my reviews of The Terminator and Starship Troopers, we shouldn’t expect firearms to become obsolete for a very long time, and possibly never.
Video phone calls and pay phones will be common. There’s a scene where Deckard uses a public pay phone to make a video call to a love interest. This depiction of 2019 turned out to be half right and half wrong, but for the better: Pay phones have nearly disappeared because even poor people have cell phones (which are more convenient to use). Video call technology is mature and widespread, the calls can be made for free through apps like Skype and Google Hangouts, and even low-end smartphones can support them.
It’s surprising that video calls, long a staple of science fiction, became a reality during the 2010s with hardly anyone noticing and the world not changing in any major way. Also surprising is the fact that most people still prefer doing voice-only calls and texting, which is even more lacking in personal substance and emotional conveyance. Like talking with computers, using video calls to converse with other humans has proved more trouble than it’s worth in most cases.
Links:
- Why cars got curvy – https://www.vox.com/2015/6/11/8762373/car-design-curves
- Famous Lancet retraction of Dr. Macchiarini’s papers – https://www.thelancet.com/journals/lancet/article/PIIS0140-6736(18)31484-3/fulltext
- A patient who got a cloned bladder – https://www.bbc.com/news/business-45470799
- Light pollution is bad and getting worse – https://www.scientificamerican.com/article/the-end-of-night-global-illumination-has-increased-worldwide/
- Swedish study that found CRT TVs almost never survive longer than 30 years, and CRT monitors die by 20 – https://www.sciencedirect.com/science/article/pii/S0956053X1530101X
- Review of the Fujifilm X-T30 – https://www.theverge.com/2019/4/12/18306026/fujifilm-xt30-camera-review-fuji-xt3-mirrorless
- Vaping is not as bad for your health as smoking – https://www.politifact.com/truth-o-meter/article/2019/oct/21/vaping-safer-smoking/
- Three-person IVF done to overcome the mother’s mitochondrial genetic defects – https://www.bbc.com/news/health-47889387
- Barbra Streisand has two cloned dogs – https://variety.com/2018/film/news/barbra-streisand-oscars-sexism-in-hollywood-clone-dogs-1202710585/
- The ISS took 14 years to go from approval to space – https://www.issnationallab.org/about/iss-timeline/
