r/CoherencePhysics

You Do Not Have to Believe It to Be Curious

Every time I post something about biblical history, the development of Christianity, ancient religious texts, or even an interpretation that is simply different from the one people grew up with, I watch some people immediately downvote it because the subject is religion.

So I want to say something specifically to the aggressively anti religious people here.

I am Skylar Fiction. I spent years debating religious extremists, Christian apologists, fundamentalists, biblical literalists, and people who used scripture to defend things I found morally indefensible. I know the arguments. I know how religion can be manipulated. I know what happens when people stop questioning authority because someone tells them God is on their side.

I did not become curious about religion because I forgot any of that.

I became curious because eventually I realized that hating religion is not the same thing as understanding it.

You can reject Christianity and still want to know who actually wrote the Torah. You can be an atheist and still find the evolution of Satan from a Hebrew adversarial role into the cosmic Devil fascinating. You can reject biblical inerrancy and still want to understand why Genesis contains multiple literary traditions. You can think Revelation is human literature and still be fascinated by what its beasts, numbers, monsters, and visions meant to people living under Rome.

None of that requires belief.

It requires curiosity.

And this is where I think some atheists accidentally become mirror images of the fundamentalists they despise. The fundamentalist says, “There is only one acceptable way to understand this text, and questioning it is dangerous.” The militant anti religious person sometimes says, “This entire subject is bullshit, so there is nothing here worth understanding.”

Those positions look opposite, but intellectually they make the same mistake.

Both have already decided what they are allowed to discover.

If fundamentalism hurt you, I understand wanting nothing to do with it. If a church rejected you, controlled you, frightened you, or made you feel ashamed of yourself, that experience matters. But pain cannot determine what happened historically. Trauma can explain why we avoid a subject. It cannot tell us whether the Documentary Hypothesis is correct, how the biblical canon developed, what Second Temple Jews believed, or what Jesus probably meant when he spoke about the Kingdom of God.

And there is an even stranger irony here.

If you hate fundamentalism so much that you refuse to study religion beyond fundamentalism, you have allowed the fundamentalists to define religion for you.

They told you the Bible has only one meaning.

They told you Christianity has only one interpretation.

They told you questioning scripture destroys faith.

They told you religion and science must be enemies.

Why accept their premises just because you reversed their conclusions?

There are thousands of years of human beings wrestling with existence inside these traditions. There is mythology, politics, poetry, philosophy, violence, liberation, mysticism, psychology, empire, resistance, language, archaeology, music, architecture, ritual, grief, death, love, and the desperate human attempt to understand why anything exists at all.

You do not have to worship any of it.

But how could that possibly be boring?

This universe is strange enough already. We are temporary conscious animals standing on a wet rock circling a star, trying to understand what reality is while knowing that one day we will disappear from it. Human beings have spent thousands of years staring into that mystery and leaving behind stories about what they thought they saw.

Some were beautiful.

Some were horrifying.

Some were wrong.

Some changed civilization.

I want to understand all of them.

I spent enough years arguing about whether religion deserved to exist. These days I am much more interested in understanding why it exists, how it changes, what its texts originally meant, what human beings have done with them, and whether anything valuable remains once fear and dogma are stripped away.

You do not have to believe in God to come along for that conversation.

You just have to remain curious.

Screw them.

Walk into an American dealership looking for an inexpensive new electric car and the word inexpensive begins to lose its meaning. Even the cheapest serious options start around thirty thousand dollars, while a practical electric crossover can quickly climb beyond thirty five thousand before taxes, financing, insurance, or optional equipment are added. For a working family already dealing with higher rent, groceries, medical costs, and everything else that has become more expensive, the electric future can begin to look less like technological progress and more like another payment they cannot comfortably carry.

Now cross the Pacific. In China, consumers can walk into dealerships and find new mass produced electric vehicles selling for roughly ten thousand dollars, with some models costing even less. These are not prototypes waiting for a future that has not arrived. They are real automobiles being manufactured at enormous scale, equipped with modern battery systems, touchscreens, digital controls, driver assistance features, fast charging, air conditioning, and many of the conveniences Americans associate with cars costing several times more.

The obvious objection is that the comparison is imperfect. Many inexpensive Chinese cars are smaller than the vehicles Americans normally buy, Chinese range estimates are measured differently from EPA figures, and American consumers tend to expect larger vehicles with longer highway range. Safety standards, equipment requirements, consumer preferences, and driving conditions also differ. Comparing a tiny Chinese city car directly with a thirty five thousand dollar American crossover therefore exaggerates part of the gap, but it does not make the gap disappear.

Once those differences are accounted for, the uncomfortable fact remains that China has become substantially cheaper at manufacturing automobiles. Independent analyses do not merely find an advantage in electric vehicles. China also manufactures conventional gasoline vehicles at lower cost than many advanced economies. That changes the entire nature of the question, because America may not primarily be confronting a Chinese electric car problem. It may be confronting a Chinese manufacturing system that has become extraordinarily good at turning complex machines into affordable products.

The ten thousand dollar car is simply the object we can see at the end of that system. Behind it sits a much larger industrial architecture made of battery plants, mineral processors, electronics manufacturers, suppliers, engineers, software teams, logistics networks, factories, and enormous domestic competition. The price is not produced by one miraculous innovation or one government subsidy. It is produced by thousands of small advantages that accumulate until the finished automobile emerges at a price that looks almost impossible from an American dealership.

The easy explanations are familiar. Chinese workers earn less. The government subsidizes industry. Chinese manufacturers are willing to lose money. Their cars must be unsafe. Chinese consumers accept tiny vehicles Americans would never buy. Every one of these claims contains some truth, but none of them is large enough to explain the whole result. The deeper explanation is that China has spent decades constructing an industrial ecosystem in which the cost of manufacturing is attacked at almost every stage.

The battery is the clearest place to see that system working. An electric vehicle battery does not begin inside an automobile plant. It begins with minerals that must be mined, refined, chemically processed, transformed into cathode and anode materials, manufactured into cells, assembled into packs, combined with cooling systems and electronics, and finally integrated into the vehicle. Every stage adds factories, machinery, transportation, financing, engineering, labor, contracts, warehouses, and profit margins.

China has built enormous capacity across much of that chain. This means a Chinese automaker is often operating inside an industrial environment where battery manufacturers, chemical processors, electronics companies, motor suppliers, semiconductor companies, and assembly plants exist within the same national manufacturing ecosystem. The result is not merely cheaper labor. It is shorter distances, faster engineering changes, easier supplier switching, lower inventory costs, denser competition, and a constant flow of manufacturing knowledge between companies.

Geography itself becomes part of the economics. When the people refining battery materials, producing cells, designing power electronics, and assembling vehicles are operating inside the same industrial region, problems can be solved faster and components can be changed with less friction. Transportation costs fall, development cycles shrink, and suppliers are forced to compete aggressively for enormous contracts. China did not simply build battery factories. It built industrial neighborhoods that learned how to build batteries together.

Lithium iron phosphate batteries, usually called LFP, show how powerful that process can become. For years, many Western electric vehicle manufacturers concentrated heavily on nickel based battery chemistries because they offered greater energy density and therefore supported longer driving ranges. LFP had lower energy density, but it was cheaper, avoided expensive nickel and cobalt in the cathode, offered excellent cycle life, and was comparatively resistant to thermal problems.

Chinese manufacturers did not abandon the technology because of its weaknesses. They improved it. They redesigned cells, reduced wasted space, improved battery pack integration, changed cooling systems, increased charging performance, and developed better manufacturing techniques. A chemistry once associated mainly with inexpensive vehicles became increasingly capable of powering mainstream automobiles.

There is a larger philosophy hidden inside that choice. One approach to technology asks how we can make the highest performance technology cheaper. Another asks how we can make inexpensive technology good enough that millions of ordinary people can use it. China has become exceptionally good at the second question, and that may be one of the most important reasons its industrial products can feel both cheap and surprisingly advanced.

America has made the affordability problem harder in another way. American electric vehicles tend to carry much larger batteries than Chinese electric cars because American consumers expect long highway ranges and overwhelmingly prefer SUVs and trucks. Some of that is completely rational. The United States is enormous, public charging remains inconsistent in some areas, rural drivers travel long distances, and many people expect one automobile to handle both daily commuting and occasional cross country travel.

But large vehicles create a physical and economic cycle. A larger vehicle requires more energy to move, so it needs a larger battery. The larger battery adds weight, and the additional weight requires more energy, stronger suspension, larger tires, and more structural material. Each attempt to increase size and range raises the cost of solving the very problem that increased size and range created.

Meanwhile, most automobiles spend most days doing something far less dramatic than crossing the country. They drive to work, take children to school, visit grocery stores, travel across town, and return home. That raises a question American manufacturers have rarely wanted to ask because range has become such a powerful selling point. Did America partially design the electric car around the exceptional road trip rather than the ordinary Tuesday?

That does not mean every American should be driving a tiny vehicle with limited range. Rural families, apartment residents without home charging, people who tow trailers, and drivers who travel long distances have legitimate reasons to want large batteries. The point is that affordability is partly determined before manufacturing even begins. America has spent years asking how to make a very large battery cheaper, while China has also asked whether every automobile needs such a large battery in the first place.

Then there is vertical integration, which may explain thousands of dollars that otherwise seem to vanish mysteriously between the factory and the showroom. Traditional automobile manufacturers depend on enormous networks of suppliers. One company builds electronic modules, another supplies seats, another manufactures power electronics, another provides battery components, and another produces motors or control systems. Every supplier has its own executives, engineers, facilities, transportation expenses, financing costs, and profit requirements.

Those margins accumulate inside the final price of the automobile. Companies such as BYD operate differently because they manufacture an extraordinary portion of their own technology. Batteries, motors, power electronics, vehicle electronics, and many other important systems are produced internally or inside tightly integrated corporate structures. Every major component that does not have to be purchased from an outside supplier removes another layer of markup and another point of friction.

The comparison with Tesla is particularly revealing because Tesla itself is considered far more vertically integrated than many traditional automakers. Tesla also operates a major factory in Shanghai, giving it access to Chinese workers, suppliers, infrastructure, and logistics. Yet Chinese manufacturers such as BYD can still produce comparable vehicles at substantially lower prices. When two companies manufacture inside the same country and one still maintains a large cost advantage, cheap labor can no longer explain the whole story.

Thousands of dollars can disappear from the cost of an automobile without one miraculous breakthrough ever occurring. Supplier margins disappear. Transportation becomes simpler. Management layers are compressed. Components are redesigned to work together. Contracts are reduced. Engineering teams communicate directly with factories. The savings happen one decision at a time until the final difference becomes enormous.

Scale creates another advantage that is easy to underestimate because it does not appear as a physical component inside the automobile. Designing a modern car is extraordinarily expensive. Engineers must create platforms, develop software, test batteries, crash prototypes, design electronics, validate components, create tooling, satisfy regulators, and solve thousands of problems before the first customer ever receives a vehicle.

If developing a platform costs one billion dollars and that platform eventually supports one million vehicles, the development burden alone represents roughly one thousand dollars per vehicle before accounting for the many complications of real accounting. If the same fundamental technology can eventually support five million vehicles, the cost of the knowledge is spread across far more products. Scale does not merely make steel or batteries cheaper. Scale makes engineering cheaper.

That is one reason China's enormous automobile market matters so much. Manufacturing millions of vehicles allows companies to distribute the cost of software, research, management, tooling, engineering, and factory equipment across enormous production runs. The knowledge required to design the car does not become free, but each individual customer pays for a smaller portion of it. Scale does not merely make factories cheaper. It makes knowledge cheaper.

Time creates another hidden cost. Traditional automobile manufacturers have historically taken years to develop a new vehicle, while Chinese companies have compressed development cycles dramatically. That sounds like a story about speed, but it is also a story about money. Five years of development means five years of engineering salaries, management, testing facilities, prototypes, and capital tied up before the finished product begins generating meaningful revenue.

A manufacturer that performs much of the same work in two years has not simply reached the market faster. It has reduced the amount of time during which enormous amounts of money remain trapped inside development. That speed also affects the technology customers receive because screens, batteries, chips, software, and driver assistance systems can evolve rapidly. A vehicle whose design was largely frozen years before launch can arrive at a dealership already feeling old, while a car produced on a shorter development cycle can incorporate newer technology much closer to release.

This helps explain why inexpensive Chinese cars can sometimes appear unusually advanced for their price. The manufacturer is not only paying less to build the physical object. It may also be using a faster development process that allows newer components and software to reach the customer sooner. Chinese automakers have learned to treat time itself as a manufacturing cost.

None of this means China has discovered a painless industrial paradise. Its automobile market is brutally competitive. There are too many manufacturers, enormous production capacity, constant discounts, rapidly changing models, squeezed suppliers, and companies that will almost certainly disappear. Some manufacturers are financially weak, some vehicles are mediocre, and some portions of the industry may prove unsustainable.

That chaos is important because it complicates the idea that China's automobile rise is simply the result of centralized government planning. The Chinese government absolutely used industrial policy to help build batteries, charging infrastructure, manufacturing capacity, research programs, and domestic demand. But once dozens of companies entered the market, something else happened. The competition became vicious.

Companies reduced prices, added features, redesigned vehicles, simplified components, improved batteries, shortened development times, copied successful ideas, abandoned unsuccessful ones, and fought for survival. The state helped construct the arena, but market competition inside that arena became extremely aggressive. China did not eliminate competition from its electric vehicle industry. In many ways it helped create one of the most competitive automobile markets in the world.

Government subsidies therefore matter enormously, but they are not the end of the explanation. A subsidy can help construct a battery factory, but twenty years later the factory still exists. A subsidy can help train engineers, but those engineers retain what they learned. A subsidy can help create a supplier network, and once enough suppliers exist they begin competing with one another.

Eventually industrial policy can leave behind something more permanent than the money that created it. It leaves factories, engineers, logistics systems, production knowledge, suppliers, software, and technical habits embedded throughout an economy. At some point yesterday's subsidy becomes today's industrial capability. A tariff can counteract a subsidy at the border, but it cannot erase the knowledge accumulated behind it.

Safety is another important part of the story because a ten thousand dollar automobile is not impressive if it simply protects people less effectively. Chinese cars have received legitimate criticism for quality problems and weak driver assistance systems, and manufacturers vary considerably. China's automobile industry is enormous enough to contain excellent vehicles, mediocre vehicles, and bad vehicles at the same time.

But the assumption that inexpensive Chinese cars are automatically unsafe has become increasingly difficult to defend. Chinese manufacturers now regularly submit vehicles to independent crash testing in foreign markets, and several have received strong safety ratings. That does not prove every Chinese automobile is safe, but it does demonstrate that low manufacturing cost and serious crash performance are no longer mutually exclusive.

The same caution should apply when asking whether Chinese cars are more advanced than American cars. Saying China is simply ahead at everything would be wrong. American companies remain strong in software, computing, vehicle efficiency, advanced driver assistance, charging infrastructure, semiconductors, and many other areas of engineering. Tesla played an enormous role in redefining what consumers expected from an electric automobile.

China's most important advantage may be something different. It has become exceptionally good at advanced technology per dollar. A sophisticated sensor installed inside a one hundred thousand dollar luxury vehicle is impressive, but a surprisingly capable driver assistance system appearing inside a mass market vehicle costing a fraction of that amount can be economically disruptive.

The deeper technological achievement is not always inventing the most advanced component imaginable. Sometimes it is learning how to manufacture advanced technology cheaply enough that millions of ordinary people can actually own it. A country can invent an important technology first and still lose industrial control of that technology if another country becomes much better at manufacturing it.

China's cost advantage also survives outside China, which matters because otherwise low domestic prices could be dismissed as an illusion created entirely by subsidies or unsustainable price wars. Once Chinese cars are exported, shipping costs appear, import duties are added, foreign regulations must be satisfied, dealers have to be established, and marketing becomes more expensive. The ten thousand dollar sticker price therefore does not simply travel unchanged across an ocean.

Yet Chinese manufacturers have still managed to sell competitively priced vehicles in markets across Southeast Asia, Latin America, Europe, and elsewhere. That tells us something important. The exact Chinese sticker price may be local, but the underlying manufacturing advantage is not.

Canada may soon provide one of the most interesting tests because Canada and the United States share a continent, similar roads, severe winter conditions, and closely integrated automobile industries. Yet Canada has begun moving toward allowing limited numbers of Chinese electric vehicles into its market under rules that differ significantly from those in the United States. If those vehicles arrive in meaningful numbers, North America may gain something approaching a natural experiment.

We will be able to watch whether Canadian electric vehicle prices fall, whether Chinese vehicles perform reliably in harsh winters, whether consumers actually buy them, and whether competing manufacturers respond by lowering prices or adding features. We may also see whether Chinese companies establish factories or partnerships inside Canada, whether domestic manufacturing suffers, and whether national security concerns become visible in practice. Americans may eventually be able to look across the border and see a version of the automobile market their own country deliberately chose not to have.

But concentrating entirely on China risks missing another uncomfortable part of the story. America itself helped create the market in which inexpensive new cars became increasingly difficult to find. There was a time when American buyers could choose among small sedans, compact hatchbacks, simple commuter vehicles, and basic pickups at relatively modest prices.

Many of those vehicles disappeared. Inflation increased costs, regulations added equipment, safety standards improved, consumer expectations rose, financing changed purchasing behavior, and Americans increasingly moved toward SUVs and pickups. But manufacturer incentives mattered as well because large trucks and SUVs often generate much larger profits than inexpensive compact cars.

If the same factory can produce a sixty thousand dollar vehicle with a healthy margin or a seventeen thousand dollar vehicle with almost no margin, the business incentive is obvious. American manufacturers did not simply fail to develop a ten thousand dollar electric car. Over time they became much less interested in competing aggressively for the cheapest portion of the new automobile market at all.

That creates a provocative possibility. China may not simply be entering a market American manufacturers built. It may be entering one American manufacturers largely abandoned. When electrification arrived, it inherited the structure of the existing American automobile industry, which meant that America frequently electrified large, expensive vehicles while China also electrified the small commuter car.

The technologies may both be electric, but the economic philosophies are different. One market asks how much technology can be added to a large, expensive vehicle. The other also asks how little a useful modern vehicle can cost. That distinction matters because affordability is itself a form of technological achievement.

This brings us to the person who often disappears from discussions of industrial policy: the buyer. Political debates about Chinese electric vehicles usually focus on factories, national security, jobs, supply chains, strategic industries, and trade. Those concerns are legitimate, but the family standing in the dealership matters too.

A worker who needs reliable transportation may care deeply about preserving American manufacturing and still be unable to afford a thirty five thousand dollar automobile. If a significantly cheaper vehicle could exist but government policy keeps it out of the market, that protection imposes a real cost on the consumer. That does not automatically make protectionism wrong. It means protection has a price, and the public deserves to know what it is paying.

The difficult question is how much ordinary Americans should be expected to pay in order to preserve strategically important domestic manufacturing. There may be strong reasons for accepting some of that cost. Modern automobiles are no longer purely mechanical machines. They contain cameras, microphones, location tracking, wireless communications, cloud connections, software updates, driver profiles, and systems capable of influencing steering, acceleration, and braking.

Allowing millions of connected vehicles produced by companies operating under the jurisdiction of a geopolitical rival creates legitimate security concerns. Automobile manufacturing itself is also strategically important because it supports batteries, semiconductors, robotics, steel, electronics, logistics, engineering, and skilled industrial labor. A country that completely loses the ability to manufacture automobiles could become dangerously dependent on foreign industrial systems.

There is therefore a serious argument for protecting American automobile manufacturing. If another country spent decades supporting an industry until its companies became capable of overwhelming domestic competitors, suddenly opening the market could create cheaper cars in the short term while destroying strategically important production capacity in the long term. That concern deserves to be taken seriously.

But protecting an industry is not the same thing as making the industry competitive, and that distinction is the heart of the entire argument. A tariff can raise the price of a Chinese vehicle, slow foreign competition, preserve jobs, and give manufacturers additional time. It cannot manufacture a battery, build a cathode factory, train an engineer, create a mineral refining industry, shorten a development cycle, build dense supplier networks, or reproduce decades of accumulated manufacturing knowledge.

A tariff can protect an industrial system, but it cannot repair one. That does not mean America should simply remove every barrier and allow Chinese manufacturers to overwhelm the domestic market. It means the time created by protection has to be used for something more ambitious than avoiding competition.

If tariffs give domestic manufacturers breathing room, that breathing room should produce measurable results. Battery costs should fall, American LFP production should expand, vehicle development should become faster, factories should become more efficient, critical mineral processing should grow, supplier networks should deepen, and affordable electric vehicles should return to the lower end of the market. Charging infrastructure should become reliable enough that consumers no longer feel compelled to purchase enormous batteries simply to protect themselves against an unreliable network.

Most importantly, ordinary people should eventually see those improvements in the price of the automobile. Protection should function as a bridge rather than a wall. A wall only keeps something out, while a bridge is supposed to take you somewhere.

That creates another question that deserves far more attention. If consumers and taxpayers are being asked to absorb the cost of protecting domestic manufacturers, what do those manufacturers owe the public in return? Survival cannot be the entire answer. Competitiveness has to be part of the bargain.

A protected company should not receive an unlimited right to remain exactly as expensive, slow, and inefficient as it was before protection began. Protection should purchase adaptation. If society absorbs the cost of giving an industry time, the industry should use that time to become capable of surviving when the shelter is eventually reduced.

America does not need to copy China's political system to learn from its manufacturing success. It can study the mechanisms that worked. It can build battery factories, expand mineral refining, invest in LFP and future chemistries, train engineers and technicians, encourage smaller electric platforms, automate production, strengthen domestic supplier networks, simplify vehicle design, accelerate development, and build enough charging infrastructure to make smaller batteries practical for more consumers.

Then the strategy should be judged by a simple question that industrial policy often avoids. Can an ordinary American worker afford the product? That may be the test that matters more than the number of factories announced at press conferences or the size of a company's investment plan.

Somewhere in China, a person can walk into a dealership and buy a new electric automobile for around ten thousand dollars. An American cannot simply buy that same car and bring it home. There may be defensible reasons for that involving safety, national security, strategic manufacturing, industrial jobs, and China's long history of government support.

But closing a market does not close an industrial gap. America can impose tariffs, regulate software, restrict imports, and keep Chinese manufacturers outside the domestic market. What it cannot do is legislate away another country's accumulated ability to manufacture things cheaply.

That is why the ten thousand dollar Chinese car matters far beyond the car itself. It is evidence that manufacturing knowledge can become embedded inside factories, engineering teams, supplier networks, batteries, software, logistics systems, and entire regions until the finished product emerges at a price competitors struggle to match.

America can ban the ten thousand dollar car, but it cannot ban the reason it costs ten thousand dollars. The real question is what America builds while the door is closed.

If ten years pass and American batteries remain substantially more expensive, vehicles still take much longer to develop, affordable cars remain rare, supply chains remain fragmented, and ordinary workers still need thirty or forty thousand dollars to buy a basic new vehicle, then the tariff will not have solved the problem. It will only have postponed the moment when America is forced to confront it.

The greatest industrial threat is not another country selling something cheaper. It is another country understanding how to build it better.