The Future That Didn’t Happen

By: John F Groom

Why 1970 Sometimes Seemed More Future-Oriented Than 2026

When Alvin Toffler published Future Shock in 1970, the future seemed to be arriving everywhere at once. Humans had just walked on the Moon. Nuclear power promised an entirely new energy economy. Supersonic passenger aircraft were becoming real. Scientists were discussing weather modification. The oceans appeared likely to become humanity's next great economic frontier. Advances in biology raised possibilities ranging from genetic engineering to better communication with animals. Even the search for extraterrestrial life seemed increasingly like an empirical scientific project rather than pure speculation.

Toffler also expected enormous changes in information and computing. On that point, if anything, the transformation exceeded what most people in 1970 could have imagined. But something strange happened to the rest of the future.

More than half a century later, we carry computers in our pockets that provide instant access to much of recorded human knowledge. Artificial intelligence can write software, interpret images, generate music, translate languages, and participate in sophisticated intellectual discussions.

Yet we still fly through the atmosphere at roughly the speeds our parents did. Humans have not traveled beyond the Moon. Nuclear power remains important but never produced the energy revolution once envisioned. We cannot meaningfully control the weather. We have found no confirmed extraterrestrial life. We have made interesting progress in understanding animal communication without learning to converse with other species. And the oceans, despite covering most of the planet, never became the great new human frontier that many futurists expected. In an odd way, 1970 sometimes seems more future-oriented than 2026. The reason tells us something important about how technological progress actually works.

The World Toffler Saw

It is easy, looking backward, to dismiss inaccurate predictions. That is unfair to Toffler. Imagine standing in 1970 and looking backward instead of forward. Within living memory, humanity had gone from propeller aircraft to jetliners and supersonic flight. Nuclear physics had progressed from laboratory experiments to weapons capable of destroying cities and reactors capable of powering them. Television had entered ordinary homes. Antibiotics had transformed medicine. Organ transplantation had become possible. Satellites orbited Earth. Agriculture was being transformed by the Green Revolution.

And humans had gone from the first powered airplane flight in 1903 to walking on another celestial body only 66 years later. Extrapolation seemed perfectly reasonable. If technological progress had transformed transportation, warfare, medicine, communications, agriculture, and space travel so dramatically, why wouldn't the next fifty years bring comparable revolutions everywhere else?

The future therefore appeared physical. People imagined new forms of transportation, new sources of energy, underwater settlements, space colonies, artificial control of natural systems, new relationships between humans and other species, and radical new cities and buildings. Instead, much of the technological revolution migrated somewhere less visible. It went into information.

Bits Raced Ahead of Atoms

The defining technological fact of the last half-century may be the extraordinary divergence between our ability to manipulate information and our ability to manipulate the physical world. Consider someone transported from 1970 onto an ordinary American suburban street in 2026.

Much of what he saw would be surprisingly familiar. There would still be asphalt roads, traffic lights, automobiles, wooden houses, electrical wires, plumbing, supermarkets, and commercial aircraft overhead. Cars would look different and contain vastly more technology, but they would still move along essentially the same roads at roughly the same speeds.

Put that same person in front of a modern computer and the experience would be completely different. Give him a smartphone. Show him satellite navigation. Make a video call to someone in Indonesia. Give him access to virtually unlimited music and video. Ask an artificial intelligence a complicated question and watch it answer in seconds. That is where much of the fifty-six years went.

The physical environment evolved. The information environment exploded. There are good reasons for this difference. Computing possesses several characteristics that make technological progress unusually powerful. Information can be reproduced at almost zero marginal cost. Software can be distributed globally almost instantly. Improvements in computing help engineers design better computers. Networks become more useful as more people and machines join them. Information can travel enormous distances without transporting significant physical mass. Many of the technologies imagined in 1970 have almost the opposite characteristics.

Consider the ocean. Toffler and others saw the oceans as an enormous underutilized frontier. Biologically, the attraction is obvious. Within a few meters of the surface exists an extraordinary world of coral, fish, mammals, crustaceans, and ecosystems displaying almost unimaginable diversity.

Yet industrial activity underwater proved extremely difficult. Pressure rises rapidly with depth. Salt water corrodes equipment. Radio communication works poorly underwater. Currents move structures and vehicles. Humans require complicated life-support systems. Maintenance becomes difficult. Moving large quantities of material from the seabed to the surface is expensive. The resources exist. That doesn't mean extracting them creates value.

Possibility Is Not Value

This may be one of the most important mistakes in conventional thinking about technological progress. We frequently ask: Can we do it? The more important question is: Should we do it, given all the alternatives available to us? Technical feasibility and value creation are entirely different things.

Humanity can build supersonic passenger aircraft. We demonstrated that decades ago. That does not mean most passengers value arriving a few hours earlier enough to compensate for the additional cost, noise, fuel consumption, and operational complications.

We can extract minerals from very deep water. That doesn't mean doing so is preferable to obtaining the same minerals elsewhere. We can construct buildings in extraordinary shapes. That doesn't necessarily make them better places to live. Technology continually expands the set of things humans can do. It does not eliminate the requirement for judgment about what is worth doing.

Some Technological "Failures" Are Actually Successes

Nuclear weapons provide an especially important example. Someone living in 1970 could reasonably have expected nuclear technology to play an enormous role in the following half-century. Thousands of weapons existed. More countries were developing them. The Cold War dominated international affairs.

Yet one of the most extraordinary technological facts of the period since 1945 is something that didn't happen. No nuclear weapon has been used in warfare since Hiroshima and Nagasaki.

Humanity acquired a revolutionary technological capability and then largely organized itself around preventing that capability from being used. That should count as technological history just as surely as the invention itself. It also demonstrates why measuring technological progress simply by adoption is inadequate. Sometimes the highest-value decision concerning a technology is not to use it.

We Learned to Predict the Weather Instead of Controlling It

Weather modification provides another revealing example. Mid-twentieth-century technological optimism encouraged the idea that humans might eventually control weather systems. That largely didn't happen.

Instead, something less dramatic but extraordinarily useful happened. We became vastly better at observing weather. Satellites watch the atmosphere. Sensors collect enormous quantities of information. Computers model complex systems. Forecasts improve. Warnings reach people almost instantly.

The hurricane remains beyond our control. But our knowledge of where it is going has improved enormously. This reflects a broader transition in the technological project. The twentieth-century model often looked like: Understand nature → Control nature The information-age model increasingly looks like: Observe → Measure → Model → Predict → Decide The second approach looks less spectacular. It may often create more value.

Technology Cannot Guarantee an Interesting Answer

Some of Toffler's anticipated frontiers also demonstrate a fundamental limitation of technology. Better instruments allow us to ask nature better questions. They cannot force nature to provide the answer we hoped for.

We can build enormously sensitive instruments for detecting extraterrestrial signals. But if no technologically advanced civilization is transmitting something we can detect, improved computing does not manufacture one. Artificial intelligence may reveal sophisticated patterns in whale or dolphin vocalizations. That does not guarantee that another species possesses anything resembling human language.

Technology increases our ability to investigate reality. It does not determine what reality contains. That distinction becomes increasingly important as our tools become more powerful.

The Ocean May Have Been Misunderstood

The failure of the ocean to become an industrial frontier does not necessarily mean Toffler was wrong about its future importance. He may have misunderstood what kind of value it contains. The twentieth-century conception of the ocean frontier was largely extractive: Ocean resources → extraction → production → wealth

But consider a different trajectory. Artificial intelligence can already generate extraordinary images of coral reefs. Virtual reality will eventually make simulated environments extraordinarily convincing. Manufactured objects will become increasingly customizable. Digital experiences can be reproduced almost without limit. A real coral reef cannot.

It represents billions of years of biological evolution producing an ecosystem of independently living organisms interacting in a physical environment. That may become more valuable precisely because synthetic alternatives become abundant.

The future value chain might therefore look more like: Ocean → biological complexity → authenticity → scarcity → experience → value The technologically sophisticated decision may not be figuring out how to transform the reef. It may be recognizing the value of leaving it alone.

Not Every Problem Is a Problem

This points toward a broader DU principle concerning technology. Modern culture often treats efficiency as inherently positive. Faster is better. Cheaper is better. Automated is better. Less effort is better. But none of those propositions is universally true.

Suppose someone spends fifteen minutes every morning cleaning his kitchen. An AI-enabled household robot might eventually eliminate that task. Has a problem been solved? Perhaps. But perhaps those fifteen minutes provided light physical activity, a low-cognitive-load transition into the day, an immediate sense of accomplishment, and a pleasant environment afterward.

The relevant unit of analysis isn't the isolated task. It is the human life containing the task. The same principle applies at civilization scale. The existence of a technological solution does not establish the existence of a problem requiring it. And eliminating friction does not necessarily create value if the friction itself serves a useful function.

Choosing Technology Becomes More Important as Technology Improves

This creates a paradox. As technology becomes more powerful, technological judgment becomes more important rather than less. When only a few things are technologically possible, there aren't many choices to make. When almost anything becomes possible, selection becomes critical.

Should AI perform this task? Should this process be automated? Should this natural environment be developed? Should this biological limitation be treated? Should this human activity become faster? Should this physical object be replaced by a digital one? Should we use the newest technology simply because it exists?

Those are not engineering questions. They are value questions. And AI makes them increasingly urgent because the cost of implementing technological alternatives is falling rapidly.

Perhaps the Physical Future Is Merely Late

There is another possibility. The physical future imagined in 1970 may not have disappeared. It may simply have been delayed while humanity built the information layer required to create it.

AI combined with robotics could transform physical labor. AI-assisted materials science could produce new substances and construction methods. Autonomous laboratories could accelerate biology and medicine. Automated engineering could make previously uneconomic infrastructure practical. Cheap robotics might eventually make ocean development economically sensible. Space transportation may become sufficiently inexpensive to support industries that currently make no sense.

In that scenario, the information revolution was not an alternative to the physical revolution. It was its prerequisite. The strange fifty-year divergence between bits and atoms could begin to close. But even if it does, the lesson of the last half-century remains.

The Future Requires Judgment

The future imagined in 1970 assumed, implicitly, that technological capability would naturally turn into technological adoption. Experience has shown otherwise. The actual path looks more like: Possibility × economics × incentives × physical constraints × human desire × consequences = adoption And even adoption isn't synonymous with value. The question for the next technological era therefore should not simply be: What can we invent? Nor even: What can AI make possible? It should be: Which technologies, applied where and under what circumstances, create durable value for actual human beings?

That is a less spectacular conception of the future than underwater cities, weather machines, and colonies on Mars. But it may be a more mature one. The great technological achievement of the next fifty years may not be that humanity finally learns how to transform everything. It may be that, having acquired unprecedented power to transform the world, we become much better at deciding what should be transformed, what should be preserved, and what was never a problem in the first place.