
Relatively complete list of current nanoparticles used for nanomedicine

The repellency of the CNTs–Teflon treated fabrics to hot beverages (water, milk, coffee and tea, 50–80 °C) was studied. The spray test shows that although some superhydrophobic surfaces exhibit high repellency to static water they show reduced repellency to dynamic water.

The passage of a free-electron beam through a nano-hole in a periodically layered metal/dielectric structure creates a new type of tuneable, nanoscale radiation source - a ‘light-well’. With a lateral size of just a few hundred nanometers, and an emission intensity of 200 W/cm2 such light-wells may be employed in nanophotonic circuits as chip-scale sources, or in densely packed ensembles for optical memory and display applications.
We provide the first proof-of-concept demonstration of a tuneable, electron-beam-driven, nanoscale radiation source in which light is generated as free-electrons travel down a ‘light-well’ - a nano-hole through a stack of alternating metal and dielectric layers. Near-infrared emission is demonstrated in the present case but the concept may readily be scaled to other wavelength ranges by varying the periodicity of the structure. The simplicity and nanoscale dimensions of the lightwell geometry make it a potentially important device for future integrated nanophotonic circuit, optical memory and display applications where it may be driven by the kinds of microscopic electron sources already developed for ultrahigh-frequency nanoelectronics and next generation flat-panel displays
The form of matter containing and subsuming all the atom’s particles [from nucleons (neutrons, protons), electrons and other nuclear particles] into the nucleus is named degenerate matter. Degenerate matter found in white dwarfs, neutron stars and black holes. Conventionally this matter in such large astronomical objects has a high temperature (as independent particles!) and a high gravity adding a forcing, confining pressure in a very massive celestial objects. In nature, degenerate matter exists stably (as a big lump) to our knowledge only in large astronomical masses (include their surface where gravitation pressure is zero) and into big nuclei of conventional matter. Our purpose is to design artificial small masses of synthetic degenerate matter in form of an extremely thin strong thread (fiber, filament, string), round bar (rod), tube, net (dense or non dense weave and mesh size) which can exist at Earth-normal temperatures and pressures. Note that such stabilized degenerate matter in small amounts does not exist in Nature as far as we know. Therefore I have named this matter AB-Matter.

One side of closed box 1 is evaporation mask 2. In the other size are located the sources of neutrons, charged nuclear particles (protons, charged nuclei and their connections) and electrons. Sources (guns) of charged particles have accelerators of particles and control their energy and direction. They concentrate (focus) particles, send particles (in beam form) to needed points with needed energy for overcoming the Coulomb barrier. The needed neutrons are received also from nuclear reactions and reflected by the containing walls.
Various other means are under consideration for generation of AB-Matter, what is certain however is that once the first small amounts have been achieved, larger and larger amounts will be produced with ever increasing ease. Consider for example, that once we have achieved the ability to make a solid AB-Matter film (a sliced plane through a solid block of AB-matter) and then developed the ability to place holes with precision through it one nucleon wide, a modified extrusion technique may produce AB-Matter strings (thin fiber), by passage of conventional matter in gas, liquid or solid state through the AB-Matter matrix (mask). This would be a ‘femto-die’ as Joseph Friedlander of Shave Shomron, Israel, has labeled it. Re-assembling these strings with perfect precision and alignment would produce more AB-matter film; leaving deliberate gaps would reproduce the ‘holes’ in the initial ‘femto-die’.
The developing of femtotechnology is easier, in one sense, than the developing of fully controllable nanotechnology because we have only three main particles (protons, neutrons, their ready combination of nuclei 2D, 3T, 4He and electrons) as construction material and developed methods of their energy control, focusing and direction.
Last year (2008) Chinese bought about 90% of the 23 million e-bikes sold worldwide. Experts say that next regions to likely embrace e-bikes are Southeast Asia, where gas-powered scooters are popular, and India, where rising incomes mean personal transportation is starting to be in reach of hundreds of millions. Japan has seen steady annual sales of about 300,000 for several years, and in the cycle-crazy Netherlands e-bikes are beginning to take off. In the U.S., where bikes are still overwhelmingly used for recreation rather than transportation, e-bike sales are expected to break 200,000 this year, or about 1% of China's sales.
Motorcycles are too dangerous, cars are too expensive, public transportation is too crowded and pedal bikes leave you too tired
The device is an electric motor with a nano-crystalline core. It is the size of a casserole dish, and more powerful than a 600cc motorcycle engine. Okonsky’s company, KLD Energy, is supplying the motor to the Vietnamese motorbike company Sufat and by the end of the year he expects to startle Hanoi with something it has never seen before — a clean, quiet electric scooter that can accelerate from zero to 60 miles per hour in under 10 seconds.
The main difference, though, is that KLD’s electric motors are simply much stronger than those on traditional electric scooters, because they use a different technology. Electric motors work by alternating the polarity of several magnets back and forth, causing a rotor to spin. Most materials release heat each time their polarity shifts, and if the frequency of alternation goes too high, the motor will overheat.
But the nano-crystalline material at the core of a KLD motor scarcely heats up when its polarity shifts. That means the motor can alternate much faster, generating more power. The KLD motor is so strong and so small that it doesn’t need a drivetrain, or gears. It is simply built into the motorbike’s rear wheel, which it turns directly, like pedaling a unicycle. Eliminating the drivetrain saves energy and improves reliability — there are fewer parts to break down.
The new bikes are slated to sell for between $1,500 and $2,000 U.S. dollars. That’s a reasonable price in the Vietnamese market; a mid-range Honda Future gas-powered bike sells for $1,700, while more chic bikes, such as the Piaggio Honda SH, sell for $4,000 or more.

The high-performance motor system's technology innovates in several key areas to drive performance:
* With a high-frequency to low RPM ratio, the motor system does not require a transmission.
* Through the use of an innovative nano-crystalline composite material the motor conducts energy ten times more efficiently than traditional iron-core motors, eliminating the need for additional cooling mechanisms and enabling greater responsiveness.
* As a result of the more efficient material used to build the motor, it can achieve 2500 hertz, outperforming traditional motors' 250 hertz average.
* The system's computerized motor controller is designed specifically to perform and respond to the higher-frequency output of the motor

Government regulations limit the top speed of e-bikes to about 12 mph. But manufacturers are building bigger and bigger machines with speed regulators that are easily removed. E-bikes that are basically pedal-powered machines with an electric boost are common in cities like Beijing and Shanghai, but e-scooters with heavier motors and top speeds of around 30 mph, fast enough to rival mopeds, are growing in popularity.
Major Chinese cities have extensive bicycle lanes, which means riders can avoid the worst of rush-hour congestion. In cities such as Shanghai, local governments have drastically raised licensing fees on gas-powered scooters in recent years, effectively driving hoards of consumers to e-bike manufacturers.
The electric bikes (EBs) contain lightweight, compact, NdFeB [Neodymium-Iron-Boron] magnets for their miniature motors. They use approximately 350grams of NdFeB per bicycle. The chemical formula is (Nd-2-Fe-14-B) so this yields 86g Nd/EB. In 2007, EBs accounted for 5800 tons NdFeB or 13% of the worldwide total. I don't have figures for the neodymium produced in 2008 but if it was the same as 2007, the share would have increased to 18%. The average growth rate for the past 8 years was 35%. If this continues then by 2014 Chinese demand would be 100 million/year or 35000 tons NdFeB.
There does not appear to be an alternative to NdFeB in bicycles due to space and weight considerations. The price of NdFeB magnets are about $40/kg so the bicycle contains $14 of magnets and $1.70 of Nd @ current $20/kg.Nd. EBs retail @ $290 and neodymium represents 0.6% of that.
A hybrid car's electric motor can be up to 100kW although 55kW is a reasonable figure. For a 55kW motor 0.65kg of Nd-Dy-Co-Fe-B is required which gives 200g Nd/Motor (3.6g/kW) and 30g Dy/Motor (0.55g/kW). A 25kW generator is typically required to recoup braking energy so for analysis purposes a hybrid vehicle contains 288g Nd and 44g Dy. At $20/kg a car contains $5.76 worth of Nd and at $110/kg Dy a car contains $4.84 worth of Dy. At $10.60 worth of REs per car and a selling price of, say, $20,000, REs represent 0.05% of sticker price.
Genescient’s first longevity product — to be ready for human trials later this year — will be tested at a laboratory in Bangalore. Genescient’s patent advisor also is an Indian.
The company uses directed evolution techniques — molecular biology methods that mimic natural evolution in laboratory conditions — to produce long-lived animals. The genomics of these animals are used to find critical pathways to longevity. “Using those, we find substances, some from traditional Indian medicine, interestingly, to devise pills to enhance the longevity pathways we already have. Those are our first products — arrived at by further testing on animals, to be sure they work and have no bad side effects,” he says.
Garmin Forerunner 310XT
Garmin's latest GPS watch uses wireless ANT+ and networking to send data straight to your desktop. Plus, it's waterproof, so you can splish-splash without a crash.
$350, garmin.com
Training Peaks 3.0
Training Peaks sucks up data from dozens of fitness devices and reports back with visualizations of heart rate, power output, speed, distance, elevation, and much more.
$119/year, trainingpeaks.com
RunKeeper Pro
Turn your iPhone into a mobile fitness center. Using the GPS chip in 3G iPhones, this app tracks speed and distance and lets you upload and share your routes on the company's site.
$10, runkeeper.com
WeEndure
Performance monitoring meets Web 2.0 trash talk. This social network not only logs your data, it also shows your friends' numbers so you can "comment" on their workouts.
$20/year, weendure.com
SMHeart Link
This little gadget syncs with your favorite exercise gear — heart rate monitors, power meters, even fitness equipment — and sends the data back to your iPhone or iPod Touch wirelessly.
$125, smheartlink.com


This is the first time that anybody has demonstrated that a single plane of fibers, or 'fabric,' can collect images just like a camera but without a lens.
The team starts with a macroscopic cylinder, or preform, of these elements. That preform is placed into a special furnace that melts the components, carefully drawing them into miniscule fibers that retain the original orientation of the various layers. The process can produce many meters of fiber.
Fink's team demonstrated the power of their approach by placing an object - a smiley face - between a light source and a small swatch of fabric composed of the fibers that was in turn connected to an external amplifying electrical circuit and computer.
The individual fibers measure the intensity of the light illuminating them and convert it to an electrical signal. Importantly, they are also designed to differentiate between light at different wavelengths or colors. A mesh of fibers is then deployed to measure light intensity distribution at different wavelengths across a large area.
In the current work, the smiley face was illuminated with light at two separate wavelengths. This generated a distinct pattern on the fabric mesh that was then fed into a computer. From there, an algorithm described earlier by the Fink team in Nature Materials assimilates the data to create a black-and-white image of the object on a computer screen.
First author Fabien Sorin, a postdoctoral associate in RLE, DMSE and ISN, said that as the individual fibers become more sophisticated, it is possible to envision fabrics with more intriguing and complex functionalities, such as ones capable of producing crisper images in color.
The opportunities and challenges of realizing sophisticated functionality by assembling many nanoscale devices, while covering large areas, remain for the most part unrealized and unresolved. In this work, we demonstrate the successful fabrication of an eight-device cascaded optoelectronic fiber structure in which components down to 100 nm are individually electrically addressed and can operate collectively to deliver novel functionality over large area coverage. We show that a tandem arrangement of subwavelength photodetecting devices integrated in a single fiber enables the extraction of information on the direction, wavelength, and potentially even color of incident radiation over a wide spectral range in the visible regime. Finally, we fabricated a 0.1 square meter single plane fiber assembly which uses polychromatic illumination to extract images without the use of a lens, representing an important step toward ambient light imaging fabrics.


The electrically driven eROCKIT is best described as the alignment of two extremely different characteristics. Conventional handling that is familiar to everyone, coupled with a highly innovative and revolutionary propulsion system.
Everything about eROCKIT’s general handling comes from the common bicycle. From using the pedals to accelerate and ride the vehicle, to the rear and front wheel brakes, whose handles are positioned in natural locations on the left and right handlebars.
The revolutionary propulsion system is based on muscle force multiplication and delivers comparable power to a regular motorcycle. This is possible due to the proprietary eROCKIT electronics monitoring the driver's muscular effort and multiplying it by a factor of up to 50. The multiplied force is then transmitted to the rear wheel propelling the eROCKIT to a top speed of up to 80 kph (50 mph).


Single-walled carbon nanotubes (SWNTs) are a family of molecules that have the same cylindrical shape but different chiralities. Many fundamental studies and technological applications of SWNTs require a population of tubes with identical chirality that current syntheses cannot provide. The SWNT sorting problem—that is, separation of a synthetic mixture of tubes into individual single-chirality components—has attracted considerable attention in recent years. Intense efforts so far have focused largely on, and resulted in solutions for, a weaker version of the sorting problem: metal/semiconductor separation. A systematic and general method to purify each and every single-chirality species of the same electronic type from the synthetic mixture of SWNTs is highly desirable, but the task has proven to be insurmountable to date. Here we report such a method, which allows purification of all 12 major single-chirality semiconducting species from a synthetic mixture, with sufficient yield for both fundamental studies and application development. We have designed an effective search of a DNA library of 10^60 in size, and have identified more than 20 short DNA sequences, each of which recognizes and enables chromatographic purification of a particular nanotube species from the synthetic mixture. Recognition sequences exhibit a periodic purine–pyrimidines pattern, which can undergo hydrogen-bonding to form a two-dimensional sheet, and fold selectively on nanotubes into a well-ordered three-dimensional barrel. We propose that the ordered two-dimensional sheet and three-dimensional barrel provide the structural basis for the observed DNA recognition of SWNTs.
SNCWs can be regarded as tubes of graphene, but these tubes can differ both in radius and in the angle between the tube’s axis and the lattice axes of the graphene sheet*. Different structures are metallic, insulating, or semiconducting, and not functionally interchangeable. Building on previous work that showed how single-strand DNA could wrap and solubilize CWNTs [Carbon MultiWall Nanotubes], the DuPont group searched the vast, combinatorial space of DNA sequences for those that would wrap tubes in an orderly and selective way that enables different kinds to be separated.
The results are surprisingly effective, enabling the separation of a dozen kinds of tubes of similar diameter, each to a purity of 60–90% or better. Each kind is preferentially wrapped by a different DNA sequence.
There are two basic strategies for getting atomically precise structures: either make them precisely, or make a mixture of kinds, and separate them. Precise CWNTs are increasingly available by means of the second strategy. Further, the ability to wrap them in well-organized sheaths of engineered biomolecules provides a natural way to interface them to complex biomolecular nanosystems.
