Rifts Theory 101: Nanotechnology and its effect on Materials
Posted: Tue Oct 25, 2005 3:51 pm
Rifts Theory 101: Nanotechnology and its effect on Materials Technology in Rifts.
All the recent threads on nanotech, and Rifts economics have inspired me to come with an essay or possible future Rifter article, on Rifts materials technology, and also try to address using plausible reasoning the gap in Mega-Damage Capacity between small-scale units such as RPA's and large-scale units like full tanks, and giant robots.
I'm looking for thoughts, comments, criticisms (be polite), and addtional questions to try to address. Here's what I've got so far.
Points to include:
- Nanotechnology is used to increase structural integrity in materials by increasing molecular bonding force in affected materials.
- Also makes use of Carbon-60 molecules for increased density, but with less mass, therefore less overall weight.
- Nanotechnology can be applied to the material fabrication stage of assembly, and to a limited degree is also used for full fabrication of completed high-tech items, especially for small electronics components such as AI control systems, RPA computers systems, and also for RPA myomar musculature, and external armor plating.
- Usually used on smaller scale industrial processes. There is a break point at which nano-fabrication will actually take longer, and cost exponentially more for macro- or large scale materials fabrication. E.g. Armor plating for large-scale vehicles, or internal superstructure for large-scale vehicles. Still may be used for microelectronics in large-scale vehicles.
- Reason for this is the scale of the Modular Nano-Assembler Lattice Matrix Arrays used in Assembler factories determines the scale possible for the finished products that can be fabricated in a given factory. Nanites are suspended in an electrolytic gel compound that conducts power, and provides a substrate for the nanites to move freely within the matrix from task to task.
- Most MNALMA’s are built on a scale to allow for rapid fabrication of advanced micro-components, and are able to produce molecularly bonded materials for armor fabrication up to a scale of RPA’s and small vehicles. Can also be used for fabrication of Military Damage Grade components.
- Cost in terms of price to construct the initial MNALMA, and power requirements increases exponentially for large scale or macro-fabrication. Production of large quantities of the electrolytic gel for larger factories is also cost prohibitive.
- Macro-construction of large-scale assemblies will normally make use of traditional construction techniques using methods such as AI controlled Robotic Auto-Lathes and Synthetic Compression Molding.
- This means that nano-molecular structural bonding techniques are not yet commercially viable for macro assemblies.
All the recent threads on nanotech, and Rifts economics have inspired me to come with an essay or possible future Rifter article, on Rifts materials technology, and also try to address using plausible reasoning the gap in Mega-Damage Capacity between small-scale units such as RPA's and large-scale units like full tanks, and giant robots.
I'm looking for thoughts, comments, criticisms (be polite), and addtional questions to try to address. Here's what I've got so far.
Points to include:
- Nanotechnology is used to increase structural integrity in materials by increasing molecular bonding force in affected materials.
- Also makes use of Carbon-60 molecules for increased density, but with less mass, therefore less overall weight.
- Nanotechnology can be applied to the material fabrication stage of assembly, and to a limited degree is also used for full fabrication of completed high-tech items, especially for small electronics components such as AI control systems, RPA computers systems, and also for RPA myomar musculature, and external armor plating.
- Usually used on smaller scale industrial processes. There is a break point at which nano-fabrication will actually take longer, and cost exponentially more for macro- or large scale materials fabrication. E.g. Armor plating for large-scale vehicles, or internal superstructure for large-scale vehicles. Still may be used for microelectronics in large-scale vehicles.
- Reason for this is the scale of the Modular Nano-Assembler Lattice Matrix Arrays used in Assembler factories determines the scale possible for the finished products that can be fabricated in a given factory. Nanites are suspended in an electrolytic gel compound that conducts power, and provides a substrate for the nanites to move freely within the matrix from task to task.
- Most MNALMA’s are built on a scale to allow for rapid fabrication of advanced micro-components, and are able to produce molecularly bonded materials for armor fabrication up to a scale of RPA’s and small vehicles. Can also be used for fabrication of Military Damage Grade components.
- Cost in terms of price to construct the initial MNALMA, and power requirements increases exponentially for large scale or macro-fabrication. Production of large quantities of the electrolytic gel for larger factories is also cost prohibitive.
- Macro-construction of large-scale assemblies will normally make use of traditional construction techniques using methods such as AI controlled Robotic Auto-Lathes and Synthetic Compression Molding.
- This means that nano-molecular structural bonding techniques are not yet commercially viable for macro assemblies.