Nano-ecology, Nanecology - Text by Anders Sandberg A distributed system of nanodevices and the structures constructed by them that self-organizes in a bottom-up manner without any central control; analogous to an ecology. Sometimes used to denote the entire nanosphere of a world, even when parts of it are under top-down control.
Nanochondria - Text by Anders Sandberg in his Transhuman Terminology Hylonano or bionano devices existing inside living cells, participating in their biochemistry (like mitochondria) and/or assembling various structures. A type of nanosome.
Nanodesign - Text by M. Alan Kazlev The design of materials and goods using nanotechnology.
Nanodust - Text by Anders Sandberg Layers of dead nanomachinery sedimenting in the dust, on the bottom of lakes and elsewhere. Ideally nanodust should self-destruct, but there are always bugs in that. Micro- and biotech scavengers collect them, but there are always places they miss. So the puddles on a roof collect diamond dust which blows away when they dry out, which can both erode shiny facades, irritate people and catch fire.
Nanoengineer - Text by M. Alan Kazlev One who designs or programs assemblers or nano-devices, or designs functional structures on the atomic scale. Nanoengineering is based on applications from quantum mechanics, applied thermodynamics, chemistry, MEMS, mesotech, robotics, and swarm theory. Most nanoengineers are cyborgs or vecs who incorporate extensive pragmatic nanoborg augmentations, and generally work in a specific field of application, or as dedicated sophonts for a higher toposophic. Contrast with nanohacker.
Nanofacture - Text by Geoff Dale in Anders Sandberg's Transhuman Terminology The fabrication of goods, especially but not necessarily macroscale items, using nanotechnology. Fabrication may occur on a large industrial scale, or from a small personal autofab unit.
Nanometallurgy - Text by M. Alan Kazlev Using industrial and assembler nanotech to manufacture specific alloys or metallic configurations on the molecular scale. Although nanometals do not have the strength and lightness of diamondoid, they are excellent conductors of electric current, are malleable, do not catch fire as easily as carbon-based nano, and can easily be installed with shape-memory features.