I suspect you'll miss this and our commenting window will close soon, but...

Thanks for noting points of agreement. That's rare and appreciated.

I'm pretty familiar with the energy-lens-of-history model --- see Vaclav Smil (Energy in World History and Energy and Civilization and Manfred Weissenbacher Sources of Power, among others which are ... slipping my mind at the moment). I do agree that it explains much.

Energy, in the form of either flows (solar, wind, hydro, geothermal) or stocks (wood, fossil fuels, nuclear fissibles or fuseables) must be accessible and convertible. The ancient inhabitants of Appalachia, Great Britain, the Arabian peninsula, the Permian Basin, China, and Australia ... were living on top of the fossil fuels we've tapped over the past 200 years or so. But even where they were aware of them, they couldn't access and utilise them effectively. Much as we're presently not fully able to do with the solar and geothermal potential of the Earth, or with potential nuclear fuels. The pieces that have to come together are ... complicated, and the question of why the Industrial Revolution did occur where and when it did, and not at some other time or place is a popular one amongst academics and others. I suspect it's a bit like several of the biological milestones, say, emergence of eukaryotic (mitochondria-bearing) life, etc., in that the advantage conveyed and the spread of the pattern are both so overwhelming that the transition can only occur once. Contrast, say, the agricultural revolution which, though massively significant did not spread within a century or so around the globe as industrialisation did, but rather took many thousands of years.

The resource curse / Dutch Disease ... is another complex issue. My sense is that it's closely linked to Gresham's Law, in that the mechanism is one of how exchange values differ amongst goods, markets, places, or times. In the case of fossil fuels, there's a profound difference in the cost, price, and value of fuels. Humans do not immediately pay the full costs of either provisioning or utilising fossil fuels. The provisioning being the hundreds of millions of years and massive amounts of primordial plant matter which go into their creation (see Jeffrey S. Dukes, "Burning Buried Sunshine" (2003) <https://link.springer.com/article/10.1023/A:1026391317686>). If we did, the market price would be higher by a factor of millions. Utilisation costs include both short-term/local and long-term/global pollution effects, including but not limited to greenhouse gas emissions and global warming.

Oil extractors, even if undercompensated as I've noted, receive far more than enough to cover their own immediate costs, however, so they drill for and pump oil. And those of us who use it gain access to cheap, convenient energy useful for heat as well as motive and electrical power, amongst other uses. In a market, low price dominates most other factors, and such products tend (usually) to drive out others. (Geffen and Veblen goods being exceptions.) The resource curse is that easy riches drive out honest efforts elsewhere. That, combined with the long-term provisioning and utilisation costs, as well as other systemic risks, are among the reasons why more energy can in fact make you worse off. Not immediately, but over the long term. Which may come sooner than you expect.