Cellular networks do not share the same frequency limitations as radio. In radio, a single frequency will be used to cover a range of 100 miles or so. This is a natural range, so that you can cross a city and continue to listen to the same station. However, you will eventually lose the station. Cellular networks are fundamentally different, in that you can regularly jump between towers (changing frequencies, as it happens) and still maintain the phone call. It's possible to drive vast distances and maintain a single phone call, while using many, many towers in the process.

The whole reason it's called a "cellular" network is because they are "cells" - one for each tower (give or take multiple carriers sharing a tower). These cells overlap, and operate in different parts of the frequency spectrum. The important point about understanding this "cell" nature is that there is no reason a cell in rural Kansas has to be the same size as a cell in downtown NYC. In fact, they generally aren't the same. That's related to why they previously prohibited (and how they now can technologically allow) cell phones on planes - there is a "femtocell" placed on the plane so that cell phones use their minimum power. The use of higher power levels can cause an overlap of a flying cell phone with multiple distant cells (using the same frequency) on the ground... and cause a whole chain of confusion (for a system effectively designed to be 2-dimensional).

You make it out like additional bandwidth (in the form of more parallel downloads) is not an economic problem. Additional bandwidth has a cost: More tower density (or at least more radio antenna if you can mount on existing buildings) using smaller cells, and that's absolutely an economic problem. (It's also a permitting problem, and in suburban areas likely a ditch-digging problem, both of which are likely worse than buying the equipment)

A few other notes:

You need to calculate 3X/Y, not X/Y, as 4G Cell towers will likely use Tri-sectored directional antenna. It's widely deployed in 3G environments, and is basically a requirement in any dense area (and also facilitates cellular 911 location when more accurate location isn't available)

There are also additional technologies that could be deployed that change the rules of spectrum usage. MIMO comes to mind. (The major problem of MIMO is much like other things in the cellular world, in that signal reflections (and interference in general) are somewhat of a royal pain and the resulting demand of processing power makes the basestations and phones infeasible to deploy at this time.)

Net is that smaller cell sizes and using additional technologies could absolutely reduce congestion, but the expense in doing so is enormous. It doesn't really change why the cap needs to exist at some level (they are up against wall, even if a financial loss wall rather than a physics wall), but we're nowhere near the fundamental laws of physics.

Have you ever tried to generate the view of what a proposed communications tower would look from your back yard? I have. While Google Earth was useful, It took me a lot of time modeling tree heights from pictures, GPS coordinates (of photo locations) and pacing.

I don't know if their algorithm/data takes in account height, but if it does, or if they add it (and it wouldn't be hard at this point), it would be ENORMOUSLY useful in my opinion. It gives resources to the population to get an accurate rendition that isn't limited to the two or three (very carefully chosen) views that have to be provided by the owning company in the permitting process.

Articles VI and VII of The Treaty disagree.

Which - for reference - is different from the law of the sea.

The students agreed to a certain limits when they enrolled in the school, and committed that they would NOT cheat. That should be sufficient to impose punishment if those limits are unreasonably breached.

The behavior that is being discouraged is not sharing work. The behavior that is being punished is unreasonably breaching an agreement. The real world also has that type of limit. Most companies have some form of code of conduct. Part of that is likely to avoid breaking laws.

As a specific example from the 'real world', look at what SAP did with Oracle's code. It would be a breach of section 1 of SAP's Employee Code of Conduct. Seems that creativity will result in something between $40 million and $1.6 billion in punishment. That's not creativity, it's illegal.

The fact that the limits may be at different points (one set by a student's contract with the school, the other set by law) doesn't mean they shouldn't be enforced as written.

The rules are at the bottom of this section

These rules happen to be one of the main reasons I still have cable. The Stanley Cup playoffs are nationally televised, thus blacked out online.

I agree the GP is wrong that the Constitution is not relevant. In fact, I think it is still highly relevant to the issue

The thing is that copyright in its current form is a social contract - you are provided a temporary monopoly in exchange for producing that thing... with the underlying principle and power being "To promote the Progress of Science and useful Arts, by securing for limited Times to Authors and Inventors the exclusive Right to their respective Writings and Discoveries;". (emphasis added)

If I am prevented from EVER copying an item (and remember that DRM has NO provision to provide an end to its protection), then I ask a more fundamental question: Given the social contract and the power provided to Congress in the Constitution, should an item that is protected with DRM actually be protected by copyright? If they want to take away the return of that item to the public domain, then shouldn't they have to give up some of the protection?

The fact is, the Constitution hasn't been fundamentally broken, but DRM changes the equation, because it impacts the underlying social contract in copyright. Congress and the courts haven't caught up to that tradeoff (which isn't a surprise, as the law generally lags technology by years or decades), and may not until something released solely with DRM enters the public domain (by which point the solution may be to legalize the breaking of such decades old [and computationally irrelevant] DRM)

2000 is entirely plausible. Sonera installed the first set of mobile enabled vending machines selling Coca-Cola at Helsinki-Vantaa airport in 1997. Read the Background section at the bottom of this 2002 article

This (almost) all exists today, if you're willing to buy the components required. (Almost depends on who built your camera)

Kensington will sell you cell phone connectors that will allow you to charge a cell phone from a laptop or other USB power source. It also has a portable battery that can provide an additional charge for your cell phone. Or step up to a fully universal laptop battery if you want to power that netbook

Some cameras can also be charged from USB, allowing you to use the Kensington portable battery or your netbook. Google to find out if yours can be charged that way.

There are at least half a dozen systems to charge a laptop (or in your case, a netbook) from solar power, effectively making it your portable power station, using solar power as the source.

While I agree that the level of change is reasonably slow, I think you've taken the conclusion a bit too far in inferring the observed rate of change matches transcription accuracy.

The reason I would be cautious about extending observed mutation rate to infer transcription accuracy is that there is likely to be significant selection bias, similar to how "old furniture" always appears to be great quality (because anything that isn't great quality is in a landfill). Any fatal mutations would never progress and therefore can't be detected by this method. Thus, the 0.00012% is a (very) loose lower bound on the transcription error rate.

To follow your computer analogy, it's like saying a program running for 204 years only produces a wrong answer 0.00012% of the time *that it produces an answer*. What you may be missing is the 50% (making up a number) of the time that it dumped stack because a bounds check failed due to an error.

Purdue University http://www.youtube.com/watch?v=TBLr_XrooLs