Atom placement frequency - Revision history

Apm: /* Related / added The speed of nanorobotics

2024-09-15T18:23:31Z

Related: added * The speed of nanorobotics

← Older revision		Revision as of 20:23, 15 September 2024
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	=> 8.3.2.a. Basic constraints imposed by mechanosynthesis <br>		=> 8.3.2.a. Basic constraints imposed by mechanosynthesis <br>
	=> 8.3.2.a. '''Loss of natural parallelism'''		=> 8.3.2.a. '''Loss of natural parallelism'''
			----
			* [[The speed of nanorobotics]]

	[[Category:Pages with math]]		[[Category:Pages with math]]

Apm: /* Example */

2024-04-20T15:59:58Z

Example

← Older revision		Revision as of 17:59, 20 April 2024
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	== Example ==		== Example ==

	Assuming f<sub>0</sub> = '''1MHz''' atom placement frequency per [[mechanosynthesis core]] how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = '''1kg/h''' ? <br>		Assuming f<sub>0</sub> = '''1MHz''' atom placement frequency per [[mechanosynthesis core]] <br>
			how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = '''1kg/h''' ? <br>
	N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an '''1.4 Petacore system'''). (m<sub>C</sub> … mass of carbon atom.) <br>		N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an '''1.4 Petacore system'''). (m<sub>C</sub> … mass of carbon atom.) <br>
	A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>		A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>

Apm: /* Example */

2024-04-20T15:59:27Z

Example

← Older revision		Revision as of 17:59, 20 April 2024
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	A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>		A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>
	'''All the cores together then take a volume of size ~45(mm<sup>3</sup>)''' = ~ 45microliters. <br>		'''All the cores together then take a volume of size ~45(mm<sup>3</sup>)''' = ~ 45microliters. <br>
	This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second (1.4ZHz – '''1.4 [https://en.wikipedia.org/wiki/Zetta- Zettahertz]''' – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>		This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second <br>(1.4ZHz – '''1.4 [https://en.wikipedia.org/wiki/Zetta- Zettahertz]''' – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>

	Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.		Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.

Apm: /* Related */ added two links

2023-07-02T12:53:57Z

Related: added two links

← Older revision		Revision as of 14:53, 2 July 2023
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	----		----
	* '''[[There is limited room at the bottom]]'''		* '''[[There is limited room at the bottom]]'''
			* [[Semi hard-coded structures]] for higher throughput in …
			* … [[Bottom scale assembly lines in gem-gum factories]]
	----		----
	[[Nanosystems]] chapter 8 Mechanosynthesis <br>		[[Nanosystems]] chapter 8 Mechanosynthesis <br>

Apm: /* Related / '''There is limited room at the bottom'''

2023-07-02T12:46:23Z

Related: * '''There is limited room at the bottom'''

← Older revision		Revision as of 14:46, 2 July 2023
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	* [[Convergent assembly]]		* [[Convergent assembly]]
	* [[Pages with math]]		* [[Pages with math]]
			----
			* '''[[There is limited room at the bottom]]'''
	----		----
	[[Nanosystems]] chapter 8 Mechanosynthesis <br>		[[Nanosystems]] chapter 8 Mechanosynthesis <br>

Apm: /* Example */

2021-06-17T10:02:08Z

Example

← Older revision		Revision as of 12:02, 17 June 2021
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	Note: <br>		Note: <br>
	Despite the similarity in name [[mechanosynthesis core]]'s are totally different (and much more complicated) in nature compared to data processing arithmetic logic ~~in computer processors~~. [[Mechanosynthesis core]]'s are much more simple in nature and controlled in whole groups by contolling logic.		Despite the similarity in name [[mechanosynthesis core]]'s are totally different (and much more complicated) in nature compared the "cores" we have in our computer processors (data processing arithmetic logic units ALUs).
			[[Mechanosynthesis core]]'s are much more simple in nature and controlled in whole groups by contolling logic.
	Thus the enormous number of ~1.4*10<sup>15</sup> cores is actually achievable. Not to say that bootstrapping to there will be easy.		Thus the enormous number of ~1.4*10<sup>15</sup> cores is actually achievable. Not to say that bootstrapping to there will be easy.

Apm: /* Example */ added a note to avert misinterpretation

2021-06-17T10:00:54Z

Example: added a note to avert misinterpretation

← Older revision		Revision as of 12:00, 17 June 2021
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	* they may be only two dimensional		* they may be only two dimensional
	* but they'll be already massively parallel		* but they'll be already massively parallel

			Note: <br>
			Despite the similarity in name [[mechanosynthesis core]]'s are totally different (and much more complicated) in nature compared to data processing arithmetic logic in computer processors. [[Mechanosynthesis core]]'s are much more simple in nature and controlled in whole groups by contolling logic.
			Thus the enormous number of ~1.4*10<sup>15</sup> cores is actually achievable. Not to say that bootstrapping to there will be easy.

	== Related ==		== Related ==

Apm: /* Example */ linked wikipedia definition of Zetta-

2021-06-17T09:51:29Z

Example: linked wikipedia definition of Zetta-

← Older revision		Revision as of 11:51, 17 June 2021
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	A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>		A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>
	'''All the cores together then take a volume of size ~45(mm<sup>3</sup>)''' = ~ 45microliters. <br>		'''All the cores together then take a volume of size ~45(mm<sup>3</sup>)''' = ~ 45microliters. <br>
	This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second (1.4ZHz – '''1.4 Zettahertz''' – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>		This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second (1.4ZHz – '''1.4 [https://en.wikipedia.org/wiki/Zetta- Zettahertz]''' – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>

	Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.		Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.

Apm: /* Example */ made important parts bold – nice

2021-06-17T09:34:42Z

Example: made important parts bold – nice

← Older revision		Revision as of 11:34, 17 June 2021
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	== Example ==		== Example ==

	Assuming f<sub>0</sub> = 1MHz atom placement frequency per [[mechanosynthesis core]] how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = 1kg/h ? <br>		Assuming f<sub>0</sub> = '''1MHz''' atom placement frequency per [[mechanosynthesis core]] how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = '''1kg/h''' ? <br>
	N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an '''1.4 Petacore system'''). (m<sub>C</sub> … mass of carbon atom.) <br>		N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an '''1.4 Petacore system'''). (m<sub>C</sub> … mass of carbon atom.) <br>
	A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>		A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>
	All the cores together then take a volume of size ~45(mm<sup>3</sup>) = ~ 45microliters. <br>		'''All the cores together then take a volume of size ~45(mm<sup>3</sup>)''' = ~ 45microliters. <br>
	This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second (1.4ZHz – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>		This can be spread out plenty to remove high levels of waste heat. <br> The effective atom placement frequency in this system is f<sub>0</sub>N<sub>core</sub> = 1.410<sup>21</sup> atoms per second (1.4ZHz – '''1.4 Zettahertz''' – quite mind boggling) (>> 10<sup>9</sup> Atoms/second). <br>

	Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.		Early mechanosynthetic systems will be several orders of magnitude lower in throughput though.

Apm: /* Example */ bold

2021-06-17T09:30:24Z

Example: bold

← Older revision		Revision as of 11:30, 17 June 2021
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	Assuming f<sub>0</sub> = 1MHz atom placement frequency per [[mechanosynthesis core]] how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = 1kg/h ? <br>		Assuming f<sub>0</sub> = 1MHz atom placement frequency per [[mechanosynthesis core]] how many cores (N<sub>core</sub>) does one need to reach the desired throughput of Q<sub>0</sub> = 1kg/h ? <br>
	N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an 1.4 Petacore system). (m<sub>C</sub> … mass of carbon atom.) <br>		N<sub>core</sub> = Q<sub>0</sub> / (m<sub>C</sub> * f<sub>0</sub>) = ~1.4*10<sup>15</sup> cores (about an '''1.4 Petacore system'''). (m<sub>C</sub> … mass of carbon atom.) <br>
	A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>		A core size of ~(32nm)<sup>3</sup> = ~32000(nm<sup>3</sup>) seems to be a sensible guess for advanced APM systems. <br>
	All the cores together then take a volume of size ~45(mm<sup>3</sup>) = ~ 45microliters. <br>		All the cores together then take a volume of size ~45(mm<sup>3</sup>) = ~ 45microliters. <br>
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	* They will have low temporal placement frequency		* They will have low temporal placement frequency
	* they may be only two dimensional		* they may be only two dimensional
	* but they'll be already massively parallel		* but they'll be already massively parallel

	== Related ==		== Related ==

Atom placement frequency - Revision history

Apm: /* Related */ added * The speed of nanorobotics

Apm: /* Example */

Apm: /* Example */

Apm: /* Related */ added two links

Apm: /* Related */ * '''There is limited room at the bottom'''

Apm: /* Example */

Apm: /* Example */ added a note to avert misinterpretation

Apm: /* Example */ linked wikipedia definition of Zetta-

Apm: /* Example */ made important parts bold – nice

Apm: /* Example */ bold

Apm: /* Related / added The speed of nanorobotics

Apm: /* Related / '''There is limited room at the bottom'''