Reference terms from Wikipedia, the free encyclopedia
 

Pneumatic motor

A pneumatic motor (air motor), or compressed air engine, is a type of motor which does mechanical work by expanding compressed air. Pneumatic motors generally convert the compressed air energy to mechanical work through either linear or rotary motion. Linear motion can come from either a diaphragm or piston actuator, while rotary motion is supplied by either a vane type air motor, piston air motor, air turbine or gear type motor.

Pneumatic motors have existed in many forms over the past two centuries, ranging in size from hand-held motors to engines of up to several hundred horsepower. Some types rely on pistons and cylinders; others on slotted rotors with vanes (vane motors) and others use turbines. Many compressed air engines improve their performance by heating the incoming air or the engine itself. Pneumatic motors have found widespread success in the hand-held tool industry, but are also used stationary in a wide range of industrial applications. Continual attempts are being made to expand their use to the transportation industry. However, pneumatic motors must overcome inefficiencies before being seen as a viable option in the transportation industry.

 
Note:   The above text is excerpted from the Wikipedia article Pneumatic motor, which has been released under the GNU Free Documentation License.
 

Check out these latest Nanowerk News:

 

Harvesting unused micro-vibration to generate electricity

Researchers developed a metamaterial that traps and amplifies micro-vibrations in small areas. This innovation is expected to increase the power output of energy harvesting, which converts wasted vibration energy into electricity, and accelerate its commercialization.

Gold nanomembrane coaxes secrets out of surfaces

Using a special wafer-thin gold membrane, researchers have made it significantly easier to study surfaces. The membrane makes it possible to measure properties of surfaces that are inaccessible to conventional methods.

Researchers propose the next platform for brain-inspired computing

Neuromorphic computing mimics the brain's structure for energy efficiency. Using 2D TMD-based TFETs, it could achieve energy needs 100 times closer to the human brain.

Researchers develop tuneable anticounterfeiting material

New material continues to glow after UV light removed, can be programmed to disappear in stages.

Novel application of optical tweezers: colorfully showing molecular energy transfer

Using a novel non-contact approach, a research team has successfully controlled the speed and efficiency of Foerster resonance energy transfer between fluorescent molecules by varying the intensity of a laser beam.

Scientists discover new behavior of membranes that could lead to unprecedented separations

Researchers use new technique to overcome perceived limitation of membranes with pores of consistent size.

Controlling electronics with light: the magnetite breakthrough

Researchers have found that different light wavelengths can alter magnetite's state, affecting its electrical conductivity. This could revolutionize material design for electronics.

Breakthrough in nanoscale force measurement opens doors to unprecedented biological insights

Groundbreaking research has revealed a new way to measure incredibly minute forces at the nanoscale in watery solutions, pushing the boundaries of what scientists know about the microscopic world.

Generation of intense terahertz waves with a magnetic material

Researchers have discovered a new magnetic material that generates terahertz waves at an intensity about four times higher than that of typical magnetic materials.

Electric fields catalyse graphene's energy and computing prospects

A new study reveals how electric field effects can selectively accelerate coupled electrochemical processes in graphene.