dogmatic:
The Rational Empiricist:
1) Human beings have needs (food, water, shelter) and desires (paintings, books, cars, televisions). These needs and values are unlimited.
2) In order to fulfill these unlimited needs and desires, human beings require the use of goods and services.
3) These goods and services are created through the use of natural resources and capital goods. Natural resources are limited and capital goods (as they are created by these resources) are also limited.
4) As such, there is the problem of scarcity by which only some of people's unlimited needs and desires can be fulfilled by limited natural resources and capital goods. In other words, there is unlimited demand for a limited supply.
Note: For brevity's sake, I will refer to “natural resources and capital goods” as just “resources.”
5) Given this problem of scarcity, the allocation of resources needs to be economized in order to best use them to meet people's demand.
Note: This is where I think I may possibly be getting something wrong and where I am still trying to understand.
6) The ECP is: How can the economization of resources be calculated so that these scare resources may be most rationally and efficiently allocated?
7) In order for a proposed economic system to be valid, it must solve the ECP because if it cannot provide a method of calculating the best economization of the allocation of resources then it is not (by definition) a possible economy. This is because the purpose of an economy is to economize and any “economy” that cannot economize is not an economy at all.
RBE (as far as I understand) tackles this scarcity problem by efficient use of goods through sharing which Peter calls "strategic access" and would work similarly to how a library functions. People do not wish to own all these goods, but merely wish to have them available for use whenever they want to use them.
The goods that are not available in this "library" would be requested by the person into a program or on a webserver and this would be added to the global accounting system so that demand can effectively be tracked.
an example of how this could work:
- Z amount of people in a region X request a camera.
- variable Y: Average use/year in days a person actually uses the camera. -> this is taken from previous recorded data from surveys or "library" data.
- Z / (365 days/ Y) = Q = How many cameras are needed for that region's strategic access "library" (this is just a rough example, idk what the best algorithm would be but it wouldn't be too hard to figure out for people who are good in mathemathics/statistics)
- Q amount of camera's would be requested for production at the most local production spot to that region as to not waste travel energy. Production system is updated often as to make the most efficient use of resources and energy and make as little waste as possible.
- Once produced, the cameras are then transported completely automated (automated production and transportation technology is already being implemented in all mass-production companies)
- Update to people who requested camera that they have arrived.
I'm not sure if this "solves" the problem, but it seems to me that the ECP had a lot of revelance before we go so technologically advanced and before the internet was born.
If you think of money as control of labor, the calculation problem makes mare sense.
1.) Human needs and desires are unlimited
2.) To fulfill some of these, humans must expend labor to convert natural resources into a human-usable form
3.) The desires and needs of those converting natural resources must be met in a way to sufficiently incentivise, through the meeting of some needs and wants, that conversion
4.) Humans must know what other humans need and want to incentivise the meeting of needs and wants
5.) Needs and wants(subjective) must be prioritized on a reasonable basis(objective) other than needs and wants.
A non-capital-based perspective will attempt to transact about needs and wants, but without an objective means of distribution of human-usable goods, the whole of the economy becomes a subjective free-for-all.
Closer examination of the camera scenario will reveal the failing in the strategic-access model. There are significantly more possible configurations of devices than currently exist. As an example, no one has yet built a medicine bottle with a thumb-print scanner. It's not that such a device cannot exist, but a child-proof lid has proven to be the superior solution to the problem. When we talk about a camera, we're discussing a specific device that serves a single purpose.
Problem 1: Why lend out cameras that are only cameras?
Today, most cameras have, at a minimum, several functions. They may also be phones, hand held gaming systems, data storage devices, tiny computers, alarm clocks, blue tooth transmitters, or any other number of things. Suppose that, by some unknown means, the people in the RBE have perfect knowledge of their material requirements. People will request the usage of goods based on what best serves their perceived needs. Suppose that a single individual needs a phone, an alarm clock, and car. The best solution, for him alone, is to combine these three functions into a single device. However, suppose he needs the phone all day, every day, the alarm clock once a day, and the car for 3 hours a day. A single device would then be sub-optimal. The correct combination of devices to meet needs, in the RBE, requires each individual to know, in advance, not only what they need, but how often, and how it should be manufactured. The RBE model needs each person to have perfect knowledge, which they cannot have.
Problem 2: Distinctions in the Quality of Cameras.
There are different applications of the camera that the individual may choose. A person may wish to take a picture of a sunset, an atom, or the whole universe. The camera that performs any one of these applications cannot perform the other two. It may be possible, at a great expenditure of raw materials, be possible to create a single super-camera; however, such a device would, almost certainly, be more difficult to design and manufacture than three separate devices. Thus, each person must know, not only what device they need, but the specific applications of those devices. That is, I would not only need to know that I need a camera, but that my camera will be used for scientific, not personal, applications. Equally problematic, the robot, camera factory can only make so many cameras in a given time. The more complex and resource intensive each camera is, the fewer of them can be made in a given time period. Thus, manufacturing-time vs quality vs specific application optimization is required months in advance of the needs of the individual.
Problem 3: Cameras or Watermelons?
A phone and a camera can be combined into one device, a watermelon and a camera cannot. There is a limited amount of space, electricity, and raw materials to dedicate to the production of cameras and watermelons. There is no reason that people cannot need both cameras and water melons in excess of the robot factory's capability to manufacture both. What is the RBE solution to a sum of watermelon and camera requests that exceed production potential? A capital-based economy will simply deny cameras to those without a sufficient supply of capital. Additionally, in the RBE, there is no way to express the value of a camera in terms of watermelons. Using capital, I can say that, if a watermelon costs $1 and a camera costs $5, 5 watermelons is worth 1 camera. The RBE has no such exchange system.
Problem 4: Efficiency or Innovation?
The process of invention, invariably, involves failure. Suppose that an individual, in an RBE, requests 10,000 cameras to build a global raccoon-tracking system. The idea maybe fully scientific in application. The individual may be highly educated in both biology and electrical engineering. How does the RBE judge this idea as valuable or insane? In a capitalist society, if the individual could raise capital to proceed, we'd call the idea worth pursuing. Equally, if he couldn't raise funds, we'd say it was an idea, not worth pursuing. Further, suppose this individual isn't the only person with the same idea. Suppose that no less than a thousand people, scattered all over the world, have the same raccoon-tracking system idea. Who gets the 10,000 cameras? That number of cameras is well beyond the strategic-access model. Worse, suppose all 10,000 cameras are destroyed under all versions of the raccoon-tracking system. Will the RBE turn out 10,000,000 cameras, for raccoon-tracking?
Problem 5: Limited Thought
Suppose that there are 50,000 highly trained scientists in the RBE, how are they allocated? Research is an extensive proposition. Consider the resources that went into curing Smallpox or Polio. Suppose that, in the RBE, there are about the same number of ailments that there are today. Given that it is impossible to know how much research is required to yield results, how will the RBE determine the correct allocation of scientists to problems? Alternatively, if the scientists are allowed to pursue any problem of their choosing, how can we guarantee autism will be cured before a global raccoon-tracking system is constructed? There are, in reality, a limited amount of human resources. As we don't want everyone to be slaves to the RBE, these resources will allocate randomly across the RBE. Isn't random allocation of resources the least efficient method?