Yes, capitalism will always choose the most efficient path to acquiring capital, which is evidently acquisition + mergers until they can artificially limit supply, then exploit and extort society wholesale; regardless of the consequences.

Yep… Doesn’t matter if the answer is war, famine, mass incarceration, crippling debt, homelessness, mental illness, pollution, climate change, ecocide, or genocide — capitalists will always find the most efficient path to the acquisition of capital.

Monopolies are the natural, direct result of unbrindled capitalism. So yeah, capitalism at work.

The only higher Return On Investment than creating yourself or finding and securinb a monopoly position and squeezing costumers is, maybe, buying politicians and having laws written to favour you, so naturally people guided only by the personal upside maximization idology will engage in both if they think they can get away withnit (or the penalties if caught are less than the profits).

It is absolutelly natural in Capitalism for companies to seek and even create monopoly positions and then squeeze customers, and to corrupt those who make the laws and regulations as well as those who enforce them, and often these things are combined: notice for example how the artifical monopoly which is Copyright has been repeatedly extended in duration to well beyond the point were there is an upside for Society, and now none of us will ever see the works created during our lifetime become Public Works.

Never, not in our free markets!

At least a duopoly for the illusion of competition

Rinse and repeat

I think it’s only collusion if they all talk about doing it. Reading that your competitor raised prices and then raising your own isn’t the same as using back channels with your competitor in order to agree to both raise prices

Actually a common practice to gain a leg up in the market and kill the competition. This can drag on for long, but the endgame is always buyers getting screwed by a monopoly/oligopoly.

Exactly, if forced scarcity was regulated, we’d be in an entirely different situation. For instance diamonds would be practically worthless.

Unless this is a matter of price collusion (which I doubt as it appears more as a supply demand issue) I don’t think this unregulated capitalism is bad. Last I checked making any kind of products involving semiconductors isn’t cheap or easy. Maybe it is once you figure out how to, but the R&D costs involved are insane.

We as consumers want prices as low as possible. Suppliers want prices as high as possible. Samsung (and the like) clearly aren’t willing to make more of a product at the price that it is currently at (which is a mistake to begin with). There are plentu of other players making ssds, and the prices are all very similar. Something tells me that they’re not gonna price things for cheaper because they can’t survive that way.

No need to downvote this. It’s an insidery technically correct statement. We’ve redefined how we measure Moore’s law several times to make it “keep working” and some people designing chips, not selling them, think it’s not only outlined it’s usefulness but also not true anymore.

Moore’s law hasn’t died, if you mean number of transistors per area. Linear scaling to transistor counts has.

Moore’s law is the observation that the number of transistors in an integrated circuit doubles about every two years. Moore’s law is an observation and projection of a historical trend.

It is.

It’s about the shrinking in integrated circuit feature size, hence increase in IC element densities, so it applies to memories which are integrated circuits such as flash memory and the various kinds of RAM, but not to magnetic storage such as in HDDs as they’re something else altogether.

That said, I believe (but am not absolutelly sure) that IC feature size has been shrinking slower than Moore’s Law predicts for maybe a decade as the size of the features becomes so small that quantum-level effects start becoming a problem (think stuff like signal leaks due to quantum tunnelling).

yes.

Yeah, I had 4tbs for only about a year. upgraded this summer to 4 8TB.

Oh I know what they’re limited to now. But imagine a 3D printer that is capable of writing its own PCBs. Hell we have people with their own basic lithographers, it can’t be that far off, though probably a decade or two, granted.

Lies!

I can 3D print all the parts of an Abacus, giving me tens of bits of memory and a calculating device!

But yeah, on the serious side, nobody is going to be 3D printing any time soon, if ever, the kind of stuff small enough (and hence with sufficient memory densities for modern applications) to require advanced lythographic techniques and clean rooms to make, even if somebody went to the trouble of figuring out printeable materials for each of the kinds of layer (undoped semiconductor, various variants of doped semiconductors, conductive layer, isolating layer and others) currently present in ICs.

You can print “kiddy electronics” (really big transitors, resistors, capcitors and so on) on flexible substrates, but that’s way too big for any halfway decent memory densities (the Abacus joke is only half joking).

Actually, DIY lithography is a thing and in the uprise.

Is it not possible to print a plastic tape storage device?

Good enough for me! I’m not looking for a perfect solution, I can work with incomplete products with weak parts, as long as those parts are readily replaceable

Here’s the summary for the wikipedia article you mentioned in your comment:

Magnetic-core memory was the predominant form of random-access computer memory for 20 years between about 1955 and 1975. Such memory is often just called core memory, or, informally, core. Core memory uses toroids (rings) of a hard magnetic material (usually a semi-hard ferrite) as transformer cores, where each wire threaded through the core serves as a transformer winding. Two or more wires pass through each core. Magnetic hysteresis allows each of the cores to "remember", or store a state. Each core stores one bit of information. A core can be magnetized in either the clockwise or counter-clockwise direction. The value of the bit stored in a core is zero or one according to the direction of that core's magnetization. Electric current pulses in some of the wires through a core allow the direction of the magnetization in that core to be set in either direction, thus storing a one or a zero. Another wire through each core, the sense wire, is used to detect whether the core changed state. The process of reading the core causes the core to be reset to a zero, thus erasing it. This is called destructive readout. When not being read or written, the cores maintain the last value they had, even if the power is turned off. Therefore, they are a type of non-volatile memory. Using smaller cores and wires, the memory density of core slowly increased, and by the late 1960s a density of about 32 kilobits per cubic foot (about 0.9 kilobits per litre) was typical. However, reaching this density required extremely careful manufacture, which was almost always carried out by hand in spite of repeated major efforts to automate the process. The cost declined over this period from about $1 per bit to about 1 cent per bit. The introduction of the first semiconductor memory chips in the late 1960s, which initially created static random-access memory (SRAM), began to erode the market for core memory. The first successful dynamic random-access memory (DRAM), the Intel 1103, followed in 1970. Its availability in quantity at 1 cent per bit marked the beginning of the end for core memory. Improvements in semiconductor manufacturing led to rapid increases in storage capacity and decreases in price per kilobyte, while the costs and specs of core memory changed little. Core memory was driven from the market gradually between 1973 and 1978. Depending on how it was wired, core memory could be exceptionally reliable. Read-only core rope memory, for example, was used on the mission-critical Apollo Guidance Computer essential to NASA's successful Moon landings. Although core memory is obsolete, computer memory is still sometimes called "core" even though it is made of semiconductors, particularly by people who had worked with machines having actual core memory. The files that result from saving the entire contents of memory to disk for inspection, which is nowadays commonly performed automatically when a major error occurs in a computer program, are still called "core dumps".

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