LonghornDave: Sorry, but your analysis is just too superficial to be useful.
The various mixes of energy production and consumption around the world are controlled by the economics of importation vs local production. The fact that the U.S. produces the energy that it does tells you very little without looking at why the markets have evolved the way they have. The U.S. could import twice as much energy and still not have a ‘production problem’ if the reason for importing was simply that it could get it cheaper that way. It gets complex enough that countries which are net energy exporters still find it economically advantageous to import energy as well.
Also, the comparisons of energy per capita are somewhat meaningless, because different countries have different mixes of industries. You need to consider that a country with high energy efficiency might wind up actually being the largest consumer of energy per capita, simply because that country has a comparative advantage in energy efficiency and therefore attracts more high-energy manufacturing than do other countries.
Really, the only numbers that are useful in your analysis are those for energy efficiency. Even those have to be used with caution, because some processes are simply more energy efficient than others, so the overall energy efficiency of a country will depend on what it makes, and for whom.
So for example, you could have two roughly equivalent countries - one of which is mainly a provider of services and intellectual capital to the other, which is a heavy-industry manufacturing country (such a situation could evolve simply because the manufacturing country has better access to raw materials, energy sources, water for cooling, etc). The manufacturing country could be extremely energy efficient, and the population could be made up of staunch conservationists, and it could still wind up using more energy per capita than the other country, which is made up of rich people who drive SUVs to their mansions.
So let’s look at energy efficiency for a minute. You made big hay out of the fact that the U.S. is 46th, but the countries above it are largely made up of smaller, poorer countries. The proper way to use that data is to compare the U.S. against other large, 1st world countries with large manufacturing bases. If we do that…
10) France $235,132
13) United Kingdom $232,340
15) Germany $228,361
17) Japan $224,668
43) Australia $150,237
46) United States $140,517
51) New Zealand $123,639
57) Mexico $114,169
62) Indonesia $105,359
67) Canada $95,909
73) Malaysia $85,967
75) Korea, South $82,958
78) Singapore $71,143
86) India $65,100
87) China $61,151
93) Russia $41,344
But even here, some huge discrepancies pop out. How come South Korea is only 1/3 as energy efficient as France? The answer lies in the mix of industry. South Korea is a heavy industry manufacturer - it’s the largest shipbuilder in the world. It makes a lot of steel and other high-energy goods. So even here, the comparisons aren’t all that useful. To do it right, you’d want to try to normalize this in some way by looking at exactly what each country manufactures and in what quantity.
And to make it even more complex, let’s consider a potential unintended consequence of energy conservation policy in the U.S.
First, note that almost all countries that are potential offshore sources of American manufactured goods are less energy efficient than is the U.S. So let’s start with two potential factories - one in China, and one in the U.S. I’m trying to decide where to locate my factory, and my breakdown looks like this:
Cost per product
----------------------
U.S. China
Energy 2bbl($180) 5 bbl($450)
Transportation $150 $280
Labor $600 $100
Management $300 $500
Total: $1230 $1330
Based on these numbers, I’m going to build my plant in America because the labor savings I could get in China don’t overcome the additional cost of energy and transportation and management.
But now, in an attempt to cut greenhouse gas emissions, we add a carbon tax of $60/bbl to American oil consumption. My product would now cost $1350 per unit to make in the U.S., and $1330 in China. As a result of this difference, I’m going to build my plant in China - and for every product that comes off the assembly line, 5 barrels of oil will be consumed instead of 2. I’ve more than doubled the carbon footprint of this product in my attempt to be ‘green’.
So forget the simplistic analysis. Any analysis of the value of conservation vs consumption has a million factors that have to be considered, and any estimate of carbon savings through forced consumption by way of carbon taxes or cap and trade has to consider the potential environmental costs of the inevitable increase in offshoring that will occur.