raiflip
The reality is closer that, state should be immutable, and minimized as much as possible, but at the end of the day, almost every interesting problem requires storing state. Once you reach that point, classes are simply a better solution for state than closures. Especially if your class and its variables are immutable, you get all the benefits I mentioned and none of these tradeoffs. Your state is explicitly stated.
The high expenses of the bay area are a policy choice by the local and state government to disallow investment. As such everyone is competing for the same old housing stock and office space that cost a 1/3rd of what it does now years ago. In effect, house owners and landlords are appropriating tech profits to themselves.
I hope the banning of single home zoning in California helps to alleviate this issue.
The reason no other explanation makes sense to me is that any purely market based explanation, like energy or China, we would see a corresponding drop in US labor force productivity, but the whole point is that that productivity did not drop.
One question i have for you is, why didn’t the union just fight the cuts? A union is not a nicety granted by the corporation, its whole reason to be is to fight corporate power when needed. It sounds to me like that union was already made powerless by the time the crisis occurred.
You can see union membership was on the decline since the 1950s, but it accelerated around the 70s. It is hard to see the timeline in that graph, in this one it is harder to see the acceleration, but it is easier to see the timeline: https://rpubs.com/jncohen/uniondensity
For some kinds of monads, like maybe, that’s all you need.
But, some other kinds of monads need more logic. List is one, IO is another.
In OOP language, sometimes all you need is the parent class. But sometimes you need to extend the parent and add more.
Shameless plug for my own article that did something similar about a week ago: https://medium.com/@ameltzer91/an-easy-to-understand-monad-g...
Entropy is defined as: "It quantifies the number of microscopic configurations that are consistent with the macroscopic quantities that characterize the system."
Where there are two levels - microscopic - which in this case doesn't necessarily mean invisible to the eye, it means the individual units of the system. In this case shoes. And macroscopic - which is the system as a whole, or in this case, the set of all shoes. A single macroscopic state is the set of shoes in some (maybe random) order.
Finally "macroscopic quantities" refers to a property of the macroscopic system. In this case the author is using the macroscopic quantity of "how fast can I find a shoe of a particular order".
In this case, entropy measures, for a given macroscopic quantity, how many microscopic configurations exist. For example, lets say the given macroscopic quantity is "I find a given color shoe in O(n) time." Then every configuration of shoes that does not attempt to order the shoes is a possible microscopic state. There are lots of those, so high entropy.
Another possible macroscopic quantity is "I find a given color shoe in O(logn) time". In this case the shoes need to be ordered, leading to far fewer states. Hence lower entropy.
If this is not clear, it is easier to see if we constrain ourselves to having one pair of shoes for each color. Then the O(logn) configuration has 1 state, while O(n) clearly has many more, so obviously the O(logn) state has lower entropy.
However the same logic applies to having >1 pair of shoes for each color. In the O(logn) case, we can only swap shoes of the same color to have the same macro state. In O(n), we can always swap any shoes of any color, as long as this swap isn't the last swap needed to achieve order.
A pre-req for that would be to secure complete control over all territorial claims. So if they can speed up the hong kong integration, they would do so.
Now I kinda know some sensible answers to this question. For one, genetic diversity in life is critical for survival given diversification means at least a few strands can survive sudden unexpected events. i.e if everything were giant dinosaurs there may have been no life left after the dinosaur extinction. The other answer is that we are pre-built to aesthetically enjoy thriving nature (which is probably meant to drive us towards protecting genetic diversity).
However given the human backlash to human trashing the environment, I could easily see us settling on an equilibrium where life is not, at least for the most part, the kind of wild chaotic world that it was before us, but a world where the environment is increasingly managed to some degrees by humans. You see this as nations getting richer stop eating cats, dogs, care more about preserving the environment, raising better treated wildlife, etc.
In that case, perhaps humans can help facilitate a new epoch in nature where genetic diversity is not just a biproduct of a random process, but a conscious goal. Granted this would require a much deeper knowledge of nature, humility to know when we can't control everything, and a cultural shift towards being stewards of nature. But given the shifts that have already occurred in human thinking around nature, I don't think this is outside the realm of possibility. Given our increasing energy usage, it's probably the only route in which we don't end up causing environmental catastrophes that either kill us off, or our civilization. That and finding new planets.