Nanotechnology-enhanced paints and coatings are already on the market. Several companies have collaborated to create a paint product that containes no toxic volatile organic compounds (VOCs) and which has the additional functions of stopping algae and fungal growth while also destroying bacteria the come in contact with it (link). The initial application is intended to be doctor’s offices, clinics, and hospitals, but I am sure there will be other uses such as biological laboratories and even breweries and wineries, where the intrusion of unwanted microorganisms can cause serious production and quality problems. A Wired magazine article from February of 2006 detailed a variety of other Nanotechnology applications in the area of paint and coatings (link). Paint manufacturer Behr is now selling a line of kitchen and bath paints that resist stains and mildew (link), and giant Dupont is getting into the act with paints that cure in seconds under ultraviolet light and have enhanced properties (link). In October 2007 Industrial Nanotech announced a line of nanotech-enhanced, thermally insulating paints that have the interesting property of generating electricity from the difference in temperature between the two sides of the surface they are coating (link). These new products are just a beginning, however.
More sophisticated developments in paint can be expected as nanotechnology matures. One of the big problems with maintaining painted wood structures is that once moisture penetrates the wood it can damage it before it can be dried out, and moisture that gets behind a 99% painted surface won’t dry out quickly enough to avoid dry rot and destruction of the wood itself. Could a more sophisticated nanotechnology-enhanced paint not only penetrate the fine cracks in the existing paint, but change water molecules encountered in the wood to stop the damage process? Could nanobots identify and change molecules that are the result of damage to the wood? Could they link together to form a strong matrix, anchored into the damaged area, and restrengthen the wood while preventing further incursion of moisture?
Other materials besides wood could benefit from nanotechnology-enhanced paint. One of the problems in handling and storage of raw steel products is surface rust, which must be removed before the steel can be painted for its final use. Could a nanotechnology-enhanced spray coating automatically spread out to coat all surfaces of the steel exposed to air and moisture, de-oxidize surface rust to convert it back into something much closer to the original iron or steel, and then be easily removed when the metal needed to be cleaned and coated for its final use?
More advanced nanotechnology really sounds like science fiction, but could be of great benefit. In a previous entry I wrote here titled “Will Nanotechnology Provide Us Black Houses That Generate and Store Electricity?” I speculated on self-assembling nanotechnology paints that integrate solar cell technology into the paint, and include a back layer that comprises a battery where it can store the electricity generated. On the scale at which paint can be manufactured and applied, this could be a much lower cost way to provide alternative electricity generation than currently-expensive solar panels. I priced a solar panel out and ran calculations on line (link) to see how long it would take to pay it off at my current electrical rates, and the time involved was nearly 50 years. That would be very hard to justify. I do have to paint my house every so often anyway, however, and economies of scale in the paint business can be enormous, so I speculate that much more sophisticated paint systems may be available within a decade or two. It looks like we will need them.
To make yellow paint liquid, you would typically mix yellow pigment with a liquid medium such as water, oil, or acrylic medium. The exact ratios of pigment to medium will depend on the type of paint you are using and the desired consistency. Stir the mixture thoroughly to ensure the pigment is fully incorporated and the paint is well mixed.
Nanotechnology was created through advancements in engineering and science that allowed researchers to manipulate materials at the atomic and molecular level. The development of tools like the scanning tunneling microscope and other nanoscale instruments have enabled scientists to study and fabricate structures at nanoscale, leading to the field of nanotechnology.
Because Nanotechnology has the potential to change every part of our lives. Nanotechnology affects all materials: ceramics, metals, polymers, and biomaterials. New materials are the foundation of major technological advances. In the coming decade nanotechnology will have an enormous impact. Future advances could change our approaches to manufacturing, electronics, IT and communications technology making previous technology redundant and leading to applications which could not have been developed or even thought about, without this new approach.Another perspective:Nanotechnology simply means "really small technology" Having established that, what /who would benefit from "really small technology"?The circuitry within a computer chip can be considered to be nanotechnology. Some of the circuits are so small that they cannot be seen with an optical microscope. Really small integrated circuits allow us to make smaller, faster computers that can often use less power.The delivery of some medicines can be nanotechnology. The medicines can be treated with a covering, and then guided to the site of a tumor, for example, then once at the desired location, the outer covering can be dissolved using, for example, a small microwave.Nanites are mostly theoretical, really small devices that can perform simple functions.As of yet, nanotechnology is still mostly experimental.
if your are using paint, then mix red with a tiny dab of white. if you are using crayons/colored pencils, then color red lightly. if it's not as light as you want it to be,then add white.
Nanotechnology in mascara involves using nanoparticles to enhance the formulation, texture, and performance of the product. These nanoparticles can help improve the adherence, coverage, and longevity of the mascara on lashes, providing a more even application and enhancing volumizing or lengthening effects. Additionally, nanotechnology allows for the incorporation of beneficial ingredients like vitamins or minerals into the mascara formula for added nourishment and conditioning benefits.
hard to make them reproducibly at this point
No, the integrated circuits that make an iPad are not considered nanotechnology.
You can make paint dry faster by increasing air circulation, using a fan or dehumidifier, applying thin layers of paint, and using fast-drying paint products.
by using paint and a paint brush
they painted by using a egg and rocks and dirt to make paint
by putting food coloring into water
By using oil paint on canvas,. He applied it with brushes.
As of now, you can't. It's a purely imaginary item, constructed using nanotechnology, which is the unobtainium flavor du jour.
By using silver paint!
using the program paint
to make our life easier....
He could not make paintings without using paint. Other painters also use paint.