Sledge
Grammaton Cleric
- Joined
- Oct 4, 2009
- Messages
- 7,114
Excellent. So that's that finished.True, I can't prove anything.
Excellent. So that's that finished.True, I can't prove anything.
True, I can't prove anything.
The TV announcer said (in 1968 or whatever) "I thought they were supposed to be able to jump higher." Why aren't they bouncing around?
It's not my job to filter out all your logical fallacies and rule breaches to get at some truth with which to respect you.
The point is that the computer in the lunar lander had less memory and and probably less computational power than an early TRS80 before expansion. The early TRS-80 had 16K Ram and 32K ROM before adding the expansion interface and extra memory. The memory was far too small to allow much computation.
Firstly, I'm sure the code was written in machine language or assembly language on the lunar lander computer in order to maximize the efficient use of the limited memory.
Secondly, I'm also sure that the lunar lander was designed to be theoretically functional. I believe that the engineers back then were far better than today's engineers.
Thirdly, for some reason, I don't think the lunar lander was ever landed with astronauts on board. Problems found in the vicinity of the moon, Itheorize,speculate prevented a human descent.
The following Wikipedia quote discusses the 36K or Core Rope Memory that was used in the LM and the CM. Note that it was also called the LOL memory (little old lady) memory, because the program was hand woven into the memory.
The memory density of this memory was 72 kilobytes per cubic foot. That is pretty large by today's standards.
The TRS-80 had 32K ROM before the expansion interface and 64K ROM after the expansion interface was added. The TRS-80 had approximately twice the ROM.
The TRS-80 also had 64K RAM with the expansion interface. (I put an extra 64K Ram in mine for a total of 128 K)
The TRS-80 was, however, technology of the 1980's whereas the AGC was 1960's technology.
I worked on a lot of '60s technology at Raytheon. I remember a whole cabinet of electronics contained nothing but a shift register. Each board in that five foot tall cabinet that contained the shift register had one or two discrete component flip flops. That was the era just before DTL, RTL and TTL.
I'm still a skeptic that there was sufficient programming or memory to allow for calculations I would have wanted in a lunar mission. Engineers of that era were very ingenious and I know they must have had a plausible/viable solution to the calculations necessary for flight. I would have felt more secure if it had the computational power of a TRS-80 with a floppy drive.
Today's computers have to handle GUI and pictures which consume immense amounts of memory. However, the GUI of todays' computers isn't necessary to obtain a mathematical result or run a relatively simple program. Thus much smaller computers of the Apollo era could do much more. I'm sure the computer had the power to fly to and around the moon. I'm a skeptic that it had sufficient power to help sufficiently with the descent to the moon, the launch from the moon and then control the docking with the CM.
The following is a quote from Wikipedia describing one of the logical fallacies. Simple minds make frequent use of the ad homenim attack. Please don't use them. They are also against member rules.
JayUtah said:Arguments of the form, "You say X happened, but you don't have evidence to show that Y didn't happen instead," deny the inductive leap. When a jury convicts someone, they acknowledge that it's possible that all the evidence against him could still be true, but that he is nevertheless innocent.
Most conspiracy theories taken the approach of trying to widen the inductive leap required in the prevalent theory. That is, they say, "There are so many anomalies and inconsistencies that you really have to stretch your imagination in order to believe that X happened." Or, as I sometimes call it, the FUD (Fear, Uncertainty, and Doubt) approach. The goal is to so erode faith in X that any alternative Y, no matter how ludicrous, starts to look better by comparison. Often Y can explain individual anomalies with much greater facility, but that isn't sufficient as we discover below.
Remember that the goal of conspiracy rhetoric is to bog down the discussion, not to make progress toward a solution. As long as conspiracy theories simply "call for more research" or assert that "it remains an open question," their proponents will continue to enjoy attention.
As we discover, the alleged "anomalies" and "inconsistencies" almost always turn out to be a failure to meet the ignorant and ill-founded expectations of the conspiracy theorists. And so it's tempting to spend a lot of time arguing whether those expectations are right or wrong. Hog-heaven for the conspiracist. By quibbling over just how wide that inductive leap is, the argument becomes endlessly subjective and fails to acknowledge that the absolute width of the leap is utterly irrelevant.
Whether one's inductive leap is trivial or strenuous is irrelevant if it's still the shortest one. That is, the theory to which we rationally subscribe is always the best theory, regardless of how objectively good it is. If the inductive leap for one theory is long, we can still hold to it if the leap in other theories is still longer.
The only meaningful challenge to one line of induction is another line of induction whose inductive leap is shorter. The question is thus not that X isn't proved sufficiently to remove the inductive leap altogether and thus reject Y categorically. It isn't that X's inductive leap is so long that you're just better off believing Y on general principles. The question -- the only proper question, that is -- is whether the inductive leap associated with Y is greater or lesser than X's leap.
That's why you never get a coherent Y out of conspiracists. That's why they'll have individual scenarios that explain individual anomalies (thermite on the steel, missiles at the Pentagon, etc.) but no coherent full-scale theory. Why? Because by giving you just bits and pieces, or by claiming they don't have or need a Y because they're only "raising issues", they don't give you anything whose inductive leap can be measured against X's. [italics original, bolding mine]
Is there a point to quoting back sources to people? It's nice, though, that you are reading a little bit about it.The following Wikipedia quote discusses the 36K or Core Rope Memory that was used in the LM and the CM. Note that it was also called the LOL memory (little old lady) memory, because the program was hand woven into the memory.
So? We already know that computers are faster, smaller, etc. today. This doesn't advance your argument.The memory density of this memory was 72 kilobytes per cubic foot. That is pretty large by today's standards.
There's no need to keep repeating yourself.The TRS-80 had 32K ROM before the expansion interface and 64K ROM after the expansion interface was added. The TRS-80 had approximately twice the ROM.
The TRS-80 also had 64K RAM with the expansion interface. (I put an extra 64K Ram in mine for a total of 128 K)
The TRS-80 was, however, technology of the 1980's whereas the AGC was 1960's technology.
I am skeptical of your memory - and unlike what you call "skeptical", I have reasons to be:I worked on a lot of '60s technology at Raytheon. I remember a whole cabinet of electronics contained nothing but a shift register. Each board in that five foot tall cabinet that contained the shift register had one or two discrete component flip flops.
Wrong. Again. The AGC was built with resistor-transistor logic (RTL). The Block II AGC integrated circuits were already in use in other aerospace applications.That was the era just before DTL, RTL and TTL.
Irrelevant, again, since you cannot say what would be needed to perform a landing in the Apollo scheme of things.I'm still a skeptic that there was sufficient programming or memory to allow for calculations I would have wanted in a lunar mission. Engineers of that era were very ingenious and I know they must have had a plausible/viable solution to the calculations necessary for flight. I would have felt more secure if it had the computational power of a TRS-80 with a floppy drive.
You just contradicted yourself.Today's computers have to handle GUI and pictures which consume immense amounts of memory. However, the GUI of todays' computers isn't necessary to obtain a mathematical result or run a relatively simple program. Thus much smaller computers of the Apollo era could do much more. I'm sure the computer had the power to fly to and around the moon. I'm a skeptic that it had sufficient power to help sufficiently with the descent to the moon, the launch from the moon and then control the docking with the CM.
These things had to make two take offs and two landings on every flight.
First you claim you saw some movie that said you showed some faking of a landing or something - your big piece of evidence. But you can't even tell us the name of this movie.
Um... I'd like to think this only happens if you're being tried by the Quintessons.For those of you going round and round with Justinian2, I'd like to offer some words of wisdom from Jay Windley (for anyone unfamiliar, Jay is unquestionably the world's foremost authority on moon-hoax conspiracism):
When a jury convicts someone, they acknowledge that it's possible that all the evidence against him could still be true, but that he is nevertheless innocent.
... Whether it was 1K or 4K, it is still pitiful small given the big job it had to do.
I will concede that the memory was probably theoretically sufficient to get the job done...
...Thirdly, for some reason, I don't think the lunar lander was ever landed with astronauts on board. Problems found in the vicinity of the moon, I theorize, prevented a human descent.
I'm still a skeptic that there was sufficient programming or memory to allow for calculations I would have wanted in a lunar mission. Engineers of that era were very ingenious and I know they must have had a plausible/viable solution to the calculations necessary for flight. I would have felt more secure if it had the computational power of a TRS-80 with a floppy drive...
... I'm sure the computer had the power to fly to and around the moon. I'm a skeptic that it had sufficient power to help sufficiently with the descent to the moon, the launch from the moon and then control the docking with the CM.
And he also had this howler which he has yet to explain
This video proves how the Moon Landings are all Hoaxes by NASA. Please view the footage at the 2:28-29......... This will certainly make some people upset who formerly believed in the space race.
http://www.youtube.com/watch?v=wdMvQTNLaUE
[snip]
I guess splashdown is sort of a 'landing'.