NanoMedibot.com
Nanomedicine and Robotics

Advances in nanofluidics, nanotube flow sensors, and nanotechnology in general are leading toward the creation of nanomedibots -- miniature, implantable robots that function on an atomic scale to: diagnosis and treat disease and injury; and restore or enhance health and functioning. For substances and inventions in several disciplines, incorporating circuitry and medicine, being smaller is commonly better.  Smaller electronic circuits can accomplish more mathematical operations with less energy requirements.  Smaller medical machines may interact with tissue in the human body at a molecular level for more specific diagnosis and guided elimination of malignancy.   For these reasons, there is expanding awareness in the discipline of nanotechnology -- innovation that deals with objects that are very, very little.  A nanometer is just one billionth of a meter, a length into which one can only position approximately ten atoms. Nanotechnology is the construction and use of composites, mechanisms and products that are: only a few billionths of a nanometer in dimension; or are composed of particles assembled on this dimension.   Construction of objects on this scale requires direction of specific atoms or small clusters of atoms.   The long-term vision of nanotechnology includes self-replication and immense synergism, in which nano-tech inventions work together to deliver macro-scale configurations and functions.  The combination of self-replication and gigantic synergism creates enormous potential for nano-level invention.  However, since these are also attributes of organic viruses, it is important that these processes be carefully controlled. Nanotechnology spans and merges disciplines dealing with matter at the micro stage (physics, chemistry, and biology) with those dealing with matter at the macro stage (engineering, composites science and computer science).  Other Nanostring Technologies. The vision of assembling an endless variety of objects one atom at a time is so remarkable that it would be easy to dismiss nanotechnology as science fiction.  This has been reinforced by visions on television and in the motion pictures of swarms of self-replicating “nanobots.”  These visions are far from reality.  However, rudimentary and useful nanotechnology applications are already in use. Click on illustrations for nanotechnology theme T-shirts and sweatshirts: It is hard to build materials that you cannot contact.  During the past two decades, analysts have made implements that allow them to see, touch and move material on the level of specific atoms and molecules.  The Atomic Force Microscope (AFM) has an atomic probe that shows images of the exterior of substance at a dimension of nanometers.  The interaction of the probe with the surface may additionally be used to estimate the hardness of the exterior.  The Scanning Tunneling Microscope (STM) may move atoms across the veneer of material in a vacuum, liquid or gas.  It also can write on the outside by making nano-scale scratches.  And Digital Virtual Reality. Future developments at the intersection of substances science and nanotechnology will probably lead to the generation of intelligent elements that sense and react to their ecology.  These "smart materials" will respond to temperature, pressure, illumination, electricity, or other stimuli.  Nanotechnology may form smart substances (and things made with such materials) equipped with nanosensors and versatile internal patterns that modification structure and function with varying conditions and commands. There are numerous usages for nanotechnology in the area of electronics and computing.  Nanochips will likely be made by stringing individual atoms together into computing elements or grown using nanocrystalline processes.  For example, one will likely scratch lines in silicon substrate using an Atomic Force Microscope, spread polymer over these lines, apply heat and electricity to produce wires, and then manufacture them into circuits.   Nanocomputers with subsets less than 100 nanometers in dimension and quantum memory will greatly decrease computing heat and increase computing velocity.  Additional California University. In the telecommunications field, nanotechnology will play an important role in the coming years particularly with respect to fiber optics.  Nanocrystalline matter may be made with finer resolution than standard fibers for more advanced optic cables, switches, lenses and junctions.  In telecommunications more customarily, the subjects of nanotechnology and holotechnology will overrun in the invention of the projection screens and user interfaces of the next generations of holographic cell phones, “Holographones,” and televisions, “HoloTVs.”  For more Virtual Links. Nanopharmacology products and services: diagnose conditions and identify pathogens; identify ideal biological compound agents to treat the condition or pathogens; fuel high-yield production of matched pharmaceuticals (potentially in vivo); locate, attach or enter target tissue, designs or pathogens; and dispense the ideal amount of matched pharmaceutical to the target locations. Click on images for nanotechnology theme T-shirts and sweatshirts: Nanotechnology chips with biosensors will generally distinguish genes, guide drug discovery, monitor body functioning, and recognize biological and chemical pathogens.  Implanted nanochips can accomplish these functions continuously, even deep within the human body, but there are barriers.  For example, the body tends to coat and isolate foreign objects -- breaking the contact with body fluids and tissues that nanochips need to collect information about the body.  Scientists are seeking recent ways to prevent or circumvent this coating action so that implantable nanochips will likely achieve functions, such as continuous glucose monitoring, for longer periods of time.  Additional STT: Netherlands Study Center for Technology Trends. Nanotechnology can additionally be used to partially repair neurological damage.  For example, it will likely improve the correctness of cochlear implants that turn sound into electrical impulses and form light-activated implants in the retina to partially restore lost vision.  Also, biomemetic scaffolds will likely help damaged nerves to regrow and reconnect. Click on illustrations for nanotechnology theme T-shirts and sweatshirts: In addition to delivering drugs as discussed above, nanotech medical robots ("nanomedibots") will potentially be able to: monitor body function; repair damaged tissue at the molecular scale; deconstruct pathologic or abnormal mass or tissue such as cancer or plaque; and advance human health and functioning. Although nanomedibots have not been explored, there are ongoing advances in nanofluidics and carbon nanotube flow sensors that will potentially become their building blocks.  As nanotechnology and biotechnology advance, nanomedibots and designed beneficial microorganisms could be integrated.  See additionally Shenzhen Nanotech Port Co. Inquiries about this material and the domain NanoMedibot.com may be sent to: NanoMedibot.com © 2004-2006 by NanoMedibot.com