Good morning everyone.
A clarification on the difference in resilience between the lateral cranes made with the method I illustrated and with a 3D printer.
I confirm that, in my opinion, the one made with my method is much more resilient and durable than those made with a 3D printer.
I can say this with certainty.
First of all (although I don't claim to be a 3D printer expert), I've used several types of 3D printers.
Although I've never owned one, I've printed (by adjusting the application and printer settings directly) and had others print many of my own designs.
Everything I've printed directly or indirectly is my own drawings.
Over the years, I've tried different brands and materials.
Secondly (but no less importantly), I've performed breakage tests comparing the various cranes made with a 3D printer and those made with my method.
The 3D-printed cranes always failed much sooner and with less force applied in various directions (upward pull, downward pull, outward pull, inward pull, torsion).
Obviously, this was an empirical test, not a scientific one. I didn't use a dynamometer or other instruments, but simply relied on direct observation of the same phenomenon (applying force with my fingers). For me, this was more than sufficient, given the vast differences in behavior.
As already mentioned, my method has a weak point. The weak point is the paper between the plastic layers. So I don't know how long it will last, but I trust the paper is completely impregnated with cyanoacrylate.
If the transparent layers had been glued directly together (without the paper), the structure would have been much more compact.
This time, I couldn't do without the paper because I needed a reliable guide for the various progressive overlaps (which differed by tenths of a millimeter).
The method was also tested on smaller pieces, and the direct comparison was even more striking.
Of course, I'm not saying (and I never have) that a piece of that size and shape, made with a 3D printer, is absolutely fragile.
It's clear that even a 3D part is more than sufficient to support a small lifeboat of that size and weight.
It's not sufficient by my standards.
I admit I have very demanding standards, but they apply to the entire ship.
I could go on and on about my criteria, but there's no need; suffice it to say that I simply chose the strongest piece (among the lightweight, non-metallic ones I've tested).
Saying that, in my opinion, the piece made with my method is stronger than one made with a 3D printer doesn't disparage the 3D printer at all.
But to understand this, you have to be intellectually honest and not deliberately misrepresent what's being said, as some people always do.
Therefore, I confirm and reiterate my statement:
"
As I said, I would have saved a lot of time if I had 3D-printed the part, but it certainly wouldn't have been as resilient."
This clarification is addressed to those interested in other construction methods, not to those who criticize without any constructive spirit, just for the sake of it and without understanding the meaning of what is being written.
Certainly not to those who don't even deserve a response (given the explicit insults they've posted privately in the past, which perhaps I should publish to help you understand who they are).
This clarification wouldn't have been necessary if there hadn't been some pointless comments, based on lack of knowledge and a desire to boast and show off at the expense of others.
Someone who writes that someone else has never tried something or doesn't know that thing, belittling the knowledge of others, or accuses someone of telling a lie, is not only presumptuousโhow could one define them?
But in general, it's well known that the ignorant know everything.
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