Hello Jim, I am glad you brought this up.
I think Jeremy England is right to make connection between thermodynamics and evolution, and I agree that there must have been a spontaneous emergence of life. However, I don't agree with his thesis that life is self-organised to efficiently dissipate heat.
It seems to me that the most efficient way to dissipate heat is to be a black surface that absorbs radiation and radiates it back as black body radiation. You don't need nucleic acids for that. I may be doing him an injustice because I have not read his work in detail so perhaps he is saying something more sophisticated than the pop-sci version. Perhaps if you define "efficient way to dissipate heat" in the right way then he is right.
The surface of the Earth is a non-equilibrium system which dissipates heat from the sun (mostly) and such non-equilibrium systems have complex emergent behavior. Note that tides and nuclear heating in the Earth's core are other energy sources which are also important in evolution and possibly in the emergence of life too. A simpler setup would probably not have worked.
The overall effect of life on how well heat is dissipated must be very small. What life does well is build up ever more complex systems that can self-replicate. Ultimately this leads to a high level of intelligence. While life is dissipating heat, what really matters is that it creates a little bit of localised order in exchange, rather than disorder. I think memory is the improtant link with thermodynamics. There is instinctive memory in the genes and short-term memory in our brains. Memory is connected to the arrow of time.
I think this happens because chemistry and physics is fine-tuned to make DNA based evolution and then intelligence possible. This is the bootstrapping. To do this it takes advantage of principles of non-equilibrium physics that we probably don't understand well enough yet, but there are many examples of self-organisation on planetary surfaces of a less extreme nature (e.g. the formation of sand-dunes) but there is a limit to how far that can go. You don't expect sand-dunes to keep increasing their complexity until they replicate genetically.
I think the best way to put it is that life is an accident waiting to happen. It requires chance events but the odds are stacked in favour of those chance events happening somewhere, so for practical purposes it is inevitable. This happens on different levels. Firstly the number of possible vaccua solutions in the master theory means that enough fine-tuning is going to happen in some of them. Secondly this creates a universe big enough with fine-tuning so that evolution will inevitably happen somewhere, with enough chance events to produce rare intelligent life in some cases.