---
title: Technological Progress and Energy Dependence
---
flowchart TD
A["Technological Progress"] --> B["Increased Energy Consumption"]
B --> C["Energy Dependence"]
C --> D["Innovation in Energy Solutions"]
D --> E["Further Technological Progress"]
E --> B
Topic Overview (Wikipedia):
Renewable energy is energy made from renewable natural resources that are replenished on a human timescale. The most widely used renewable energy types are solar energy, wind power, and hydropower. Bioenergy and geothermal power are also significant in some countries. Renewable energy installations can be large or small and are suited for both urban and rural areas. Renewable energy is often deployed together with further electrification. This has several benefits: electricity can move heat and vehicles efficiently and is clean at the point of consumption. Variable renewable energy sources are those that have a fluctuating nature, such as wind power and solar power. In contrast, controllable renewable energy sources include dammed hydroelectricity, bioenergy, or geothermal power.
— Read more on Wikipedia
YouTube Video:
Official Documentation & Reference Links:
We do have alternatives like ethanol and hydrogen, but switching over is expensive. Ethanol blends are already available at many gas stations and can improve mileage, but running pure ethanol requires engine modifications. Then there’s the interesting research about DNA-engineered bacteria that produce hydrogen— potentially an infinite source. But the infrastructure and vehicle costs are huge. For instance, a hydrogen car would cost thousands more upfront, offsetting any fuel savings. Hybrids? After five years, you’re looking at a $3000 battery replacement. So while the tech exists, the economics aren’t there yet.
There are plenty of alternatives to oil—solar, wind, geothermal, you name it. But multinational corporations run the show, and they have no incentive to change as long as petrol keeps generating massive profits. We all need energy, so they can keep raising prices until we can’t afford food. Honestly, I wish the oil reserves would run out soon, but that’s still decades away. So technology isn’t the bottleneck—it’s the lack of will to upset the profitable status quo. We have the ideas, but not the intention to make the rich any less wealthy.
It’s an interesting discussion, and I think both the economic and corporate arguments are valid, but there’s a deeper layer. The reason computing advances so fast while energy doesn’t is fundamentally about the physics and economics of the two domains.
Computing benefits from exponential scaling (Moore’s Law) because transistors are about information – making them smaller reduces cost, power, and increases performance simultaneously. Energy, on the other hand, is bound by thermodynamics and material constraints. A solar panel or a wind turbine doesn’t get dramatically cheaper just by shrinking it; you need massive physical infrastructure, raw materials, and storage solutions. The cost of solar cells has actually plummeted (about 90% in the last decade), but integration into the grid, transmission, and storage (batteries) are where the real costs remain.
The other huge factor is inertia. Our entire civilization runs on an energy system optimized for oil, coal, and gas – trillions of dollars in pipelines, refineries, power plants, and vehicle fleets. Replacing that isn’t like updating software; it’s like rebuilding a city from scratch while people still need to live in it. The Landman short video that was posted makes a good point about the sheer scale of energy density needed – fossil fuels are incredibly dense, and alternatives are still playing catch-up in many applications (aviation, heavy transport, winter heating).
So the paradox isn’t really a paradox. We’re good at scaling electronic complexity because it’s cheap and fast to iterate. We’re bad at scaling energy infrastructure because it’s expensive, slow, and politically messy. But the shift is happening – just at a pace that feels glacial compared to a new iPhone.