Batch transport for reduction of friction losses - Revision history

Apm: /* Related / added link to yet unwritten page Zero friction freestanding attachment chain transport

2023-03-12T17:24:05Z

Related: added link to yet unwritten page * Zero friction freestanding attachment chain transport

← Older revision		Revision as of 19:24, 12 March 2023
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	* [[Friction in gem-gum technology]]		* [[Friction in gem-gum technology]]
	* [[gem-gum on-chip factories]]		* [[gem-gum on-chip factories]]
			----
			* [[Zero friction freestanding attachment chain transport]]

Apm: /* Other means of reduction of friction losses by change of bearing area (not only decrease) */ some improvements - still could be way better

2023-03-12T16:13:38Z

Other means of reduction of friction losses by change of bearing area (not only decrease): some improvements - still could be way better

← Older revision		Revision as of 18:13, 12 March 2023
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	Minimizing bearing surface area is not as effective as reducing operation seeds. <br>		Minimizing bearing surface area is not as effective as reducing operation seeds. <br>
	~~– But once~~ quadratic efficiency gains from slowdown are maxed out (1/10th the speed => 1/100th the losses) <br>		After quadratic efficiency gains from slowdown are maxed out (1/10th the speed => 1/100th the losses) <br>
	– Reducing bearing contact area can still give some linear gains (1/10th the area => 1/10th the losses) <br>		<small>(there is a caveat to that reducing it to liner improvement only - see below)</small> <br>
			Reducing bearing contact area can still give some linear gains (1/10th the area => 1/10th the losses) <br>

	Note that initial gains from slowdown are diminished by <br>		Note that initial gains from slowdown are diminished by <br>
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	So effectively it's only a linear gain in efficiency. <br>		So effectively it's only a linear gain in efficiency. <br>
	For details see: [[Increasing bearing area to decrease friction]] <br>		For details see: [[Increasing bearing area to decrease friction]] <br>

	Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery. <br>		Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery. <br>
	It only focuses of bearing surface area per machine unit. <br>		It only focuses of bearing surface area per machine unit. <br>

Apm: /* Other means of reduction of friction losses by change of bearing area (not only decrease) */ added link to yet unwritten page piezomechanochemistry backpressure pane

2023-03-12T14:21:06Z

Other means of reduction of friction losses by change of bearing area (not only decrease): added link to yet unwritten page piezomechanochemistry backpressure pane

← Older revision		Revision as of 16:21, 12 March 2023
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	Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery. <br>		Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery. <br>
	It only focuses of bearing surface area per machine unit. <br>		It only focuses of bearing surface area per machine unit. <br>
	Machine unit like e.g. a [[mechanosynthesis core]].		Machine unit like e.g. a [[mechanosynthesis core]]. <br>
			Reduce contact area (and perhaps contact time too) in <br>
			'''[[piezomechanochemistry backpressure pane]]s'''.

	Macroscale friction power losses (normal-force x friction-coefficient x sliding-speed) <br>		Macroscale friction power losses (normal-force x friction-coefficient x sliding-speed) <br>

Apm: fixed link

2023-03-12T14:06:45Z

fixed link

← Older revision		Revision as of 16:06, 12 March 2023
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	One way to reduce dynamic friction in [[advanced productive ~~nanosystems~~]] is to reduce bearing surface area. <br>		One way to reduce dynamic friction in [[advanced productive nanosystem]]s is to reduce bearing surface area. <br>
	And one way to do this is by transporting [[parts]]/[[components]] in batches. <br>		And one way to do this is by transporting [[parts]]/[[components]] in batches. <br>
	There are other ways too. See sections further below.		There are other ways too. See sections further below.

Apm: removed stub marker

2023-03-12T14:05:22Z

removed stub marker

← Older revision		Revision as of 16:05, 12 March 2023
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	~~{{stub}}~~

	One way to reduce dynamic friction in [[advanced productive nanosystems]] is to reduce bearing surface area. <br>		One way to reduce dynamic friction in [[advanced productive nanosystems]] is to reduce bearing surface area. <br>
	And one way to do this is by transporting [[parts]]/[[components]] in batches. <br>		And one way to do this is by transporting [[parts]]/[[components]] in batches. <br>

Apm: /* Other means of reduction of friction losses by change of bearing area (not only decrease) */ added linebreak

2023-03-12T14:05:01Z

Other means of reduction of friction losses by change of bearing area (not only decrease): added linebreak

← Older revision		Revision as of 16:05, 12 March 2023
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	So effectively it's only a linear gain in efficiency. <br>		So effectively it's only a linear gain in efficiency. <br>
	For details see: [[Increasing bearing area to decrease friction]] <br>		For details see: [[Increasing bearing area to decrease friction]] <br>
	Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery.		Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery. <br>
	It only focuses of bearing surface area per machine unit.		It only focuses of bearing surface area per machine unit. <br>
	Machine unit like e.g. a [[mechanosynthesis core]].		Machine unit like e.g. a [[mechanosynthesis core]].

Apm: /* In microcomponent distribution systems */ fixed link

2023-03-12T14:02:24Z

In microcomponent distribution systems: fixed link

← Older revision		Revision as of 16:02, 12 March 2023
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	See: [[Optimal sublayernumber for minimal friction]]		See: [[Optimal sublayernumber for minimal friction]]

	== In [[microcomponent ~~distribution systems~~]] ==		== In [[global microcomponent redistribution system]]s ==

	See: [[Capsule transport]]		See: [[Capsule transport]]

Apm: added some essential missing parts for a basic page

2023-03-12T14:01:26Z

added some essential missing parts for a basic page

← Older revision		Revision as of 16:01, 12 March 2023
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	{{stub}}		{{stub}}

	One way to ~~minimize~~ dynamic friction in [[advanced productive nanosystems]]		One way to reduce dynamic friction in [[advanced productive nanosystems]] is to reduce bearing surface area. <br>
	is to ~~minimize~~ bearing surface area.		And one way to do this is by transporting [[parts]]/[[components]] in batches. <br>
			There are other ways too. See sections further below.

	~~{{wikitodo\|add main explanation here}}~~		== In [[gem-gum on-chip factories]] ==

	== ~~Notes~~ ==		Instead of many individual attachment chains carrying parts (fills 1D volume) <br>
			an option may be to have a wide attachment chain carrying many small parts side by side (2D volume). <br>
			Furthermore they may be stacked such that the attachment chains carry part carrying lamellas (3D volume).

			This might be especially relevant for the input transport channels crossing [[sublayers]]. <br>
			See: [[Optimal sublayernumber for minimal friction]]

			== In [[microcomponent distribution systems]] ==

			See: [[Capsule transport]]

			== Other means of reduction of friction losses by change of bearing area (not only decrease) ==

	Minimizing bearing surface area is not as effective as reducing operation seeds. <br>		Minimizing bearing surface area is not as effective as reducing operation seeds. <br>
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	So effectively it's only a linear gain in efficiency. <br>		So effectively it's only a linear gain in efficiency. <br>
	For details see: [[Increasing bearing area to decrease friction]] <br>		For details see: [[Increasing bearing area to decrease friction]] <br>
	~~Supsequent~~ sole focus on reduction of bearing area excludes reduction of number of machinery.		Subsequent sole focus on reduction of bearing area excludes reduction of number of machinery.
	It only focuses of bearing surface area per machine unit. ~~Like~~ e.g. a		It only focuses of bearing surface area per machine unit.
			Machine unit like e.g. a [[mechanosynthesis core]].


	Macroscale friction power losses (normal-force x friction-coefficient x sliding-speed) <br>		Macroscale friction power losses (normal-force x friction-coefficient x sliding-speed) <br>
	is not area dependent but it's contribution to total friction is negligable.		is not area dependent but it's contribution to total friction is negligable.


	== Related ==		== Related ==

Apm: Created page with "{{stub}} One way to minimize dynamic friction in advanced productive nanosystems is to minimize bearing surface area. {{wikitodo|add main explanation here}} == Notes =..."

2023-03-12T08:50:29Z

Created page with "{{stub}} One way to minimize dynamic friction in advanced productive nanosystems is to minimize bearing surface area. {{wikitodo|add main explanation here}} == Notes =..."

New page

{{stub}}

One way to minimize dynamic friction in [[advanced productive nanosystems]]
is to minimize bearing surface area.

{{wikitodo|add main explanation here}}

== Notes ==

Minimizing bearing surface area is not as effective as reducing operation seeds. 
– But once quadratic efficiency gains from slowdown are maxed out (1/10th the speed => 1/100th the losses) 
– Reducing bearing contact area can still give some linear gains (1/10th the area => 1/10th the losses) 

Note that initial gains from slowdown are diminished by 
an increase in surface area from more machinery fully compensating the loss in throughput 
So effectively it's only a linear gain in efficiency. 
For details see: [[Increasing bearing area to decrease friction]] 
Supsequent sole focus on reduction of bearing area excludes reduction of number of machinery.
It only focuses of bearing surface area per machine unit. Like e.g. a

Macroscale friction power losses (normal-force x friction-coefficient x sliding-speed) 
is not area dependent but it's contribution to total friction is negligable.

== Related ==

* [[Optimal sublayernumber for minimal friction]]
* [[Capsule transport]]
* [[Global microcomponent redistribution system]]
* [[Friction in gem-gum technology]]
* [[gem-gum on-chip factories]]