Scale agnostic mechanical design principles: Difference between revisions
improvements |
→Related: added Physics change aware scale transposed prototyping + some bold |
||
| (6 intermediate revisions by the same user not shown) | |||
| Line 1: | Line 1: | ||
{{stub}} | {{stub}} | ||
This is is set of elegant natural design principles <br> | |||
that have been found and compiled by [[the author of this wiki]] <br> | |||
These principles are meant for recomposable modular mechanical systems. <br> | |||
== List of principles == | |||
* [[Self centering]] – more concrete: '''[[Multi V-groove self-centering]]''' | * [[Self centering]] – more concrete: '''[[Multi V-groove self-centering]]''' | ||
* [[Positive locking]] – more concrete: '''[[ReChain positive locking mechanism]]''' | * [[Positive locking]] – more concrete: '''[[ReChain positive locking mechanism]]''' | ||
* [[Form closure]] | |||
* [[Design principle of passive pretension]] – [[clip connector]]s applied such that pretension remains <br>(for strong connections clips orthogonal to load) | * [[Design principle of passive pretension]] – [[clip connector]]s applied such that pretension remains <br>(for strong connections clips orthogonal to load) | ||
'''Tension principles:''' | '''Tension principles:''' | ||
* [[Tension redirection principle]] – more concrete: '''[[ReChain tension redirection method]]''' | * [[Tension redirection principle]] – more concrete: '''[[ReChain tension redirection method]]''' | ||
* [[Rebar chain tensioning]] (tension applied only after loose pre-assembly). <br>This last one builds on pretty much all the other principles here. | * [[Rebar chain tensioning]] (tension applied only after loose pre-assembly). <br>This last one builds on pretty much all the other principles here. <br> The principle more generally: [[Post-tenstioning after pre-assembly]] | ||
== Limits to the scale agnosticness == | |||
There is a bit of overhead to all these principles when consequently applied. <br> | |||
So they may become increasingly practical the smaller the mechanical parts of the systems become. <br> | |||
Much like standardized electronic building elements (R,C,L) and dicgital circuits <br> | |||
became increasingly practical with progressing miniaturization. <br> | |||
Related here is the topic of: [[Digital control over reversibly composable units of matter]]. <br> | |||
Also the principles may only come into full effect of their benefit only once applied applied together. <br> | |||
As so done in: [[ReChain frame systems]] <br> | |||
There are other less general limits discussed on the sub-pages. | |||
== Related == | == Related == | ||
[[ReMec project]]: | '''[[ReMec project]]''': | ||
* [[ReChain frame systems]] & [[ReChain]] index & [[:Category:ReChain]] | * [[ReChain frame systems]] & [[ReChain]] index & [[:Category:ReChain]] | ||
* [[RepRec pick-and-place robots]] & [[:Category:RepRec]] | * [[RepRec pick-and-place robots]] & [[:Category:RepRec]] | ||
| Line 18: | Line 37: | ||
* [[Design principles for crystolecular systems]] | * [[Design principles for crystolecular systems]] | ||
* [[The DAPMAT demo project]] | * [[The DAPMAT demo project]] | ||
---- | |||
* '''[[Digital control over reversibly composable units of matter]]''' | |||
---- | |||
* '''[[Physics change aware scale transposed prototyping]]''' … what is not scale agnostic | |||
Latest revision as of 15:18, 9 July 2026
This is is set of elegant natural design principles
that have been found and compiled by the author of this wiki
These principles are meant for recomposable modular mechanical systems.
List of principles
- Self centering – more concrete: Multi V-groove self-centering
- Positive locking – more concrete: ReChain positive locking mechanism
- Form closure
- Design principle of passive pretension – clip connectors applied such that pretension remains
(for strong connections clips orthogonal to load)
Tension principles:
- Tension redirection principle – more concrete: ReChain tension redirection method
- Rebar chain tensioning (tension applied only after loose pre-assembly).
This last one builds on pretty much all the other principles here.
The principle more generally: Post-tenstioning after pre-assembly
Limits to the scale agnosticness
There is a bit of overhead to all these principles when consequently applied.
So they may become increasingly practical the smaller the mechanical parts of the systems become.
Much like standardized electronic building elements (R,C,L) and dicgital circuits
became increasingly practical with progressing miniaturization.
Related here is the topic of: Digital control over reversibly composable units of matter.
Also the principles may only come into full effect of their benefit only once applied applied together.
As so done in: ReChain frame systems
There are other less general limits discussed on the sub-pages.
Related
- ReChain frame systems & ReChain index & Category:ReChain
- RepRec pick-and-place robots & Category:RepRec
Non scale agnostic:
- Physics change aware scale transposed prototyping … what is not scale agnostic