Not exact matches
They accepted the notion that the entire observable universe — 100 billion galaxies, each stuffed with 100 billion stars, stretching out more
than 10 billion light - years in all directions — was once squashed into a space far
smaller than a single
electron.
An
electron may have no meaningful property of size but could be thought of as 10 million times
smaller than the nucleus.
For a monopole with twice the minimum charge, Rajantie and Gould determined that magnetic monopoles must be more massive
than about 10 billion
electron volts, going by data from collisions of lead nuclei in the Super Proton Synchrotron, a
smaller accelerator at CERN.
The
Electron rocket,
smaller and cheaper
than most of its commercial competitors, has put three satellites into orbit
To their surprise, they found that the thermal conductivity attributed to the
electrons is ten times
smaller than what would be expected from the Wiedemann - Franz Law.
Using circuits that control photons rather
than electrons, individual components can be made far
smaller and support immense information bandwidths.
Even though
electrons entered only at the 1D atomic edge of the graphene sheet, the contact resistance was remarkably low, reaching 100 ohms per micron of contact width — a value
smaller than what is typically achieved for contacts at the graphene top surface.
Because a proton or a neutron is on the order of a million times
smaller than an atom, nuclear fission and fusion typically require energies on the order of millions of
electron volts (MeV).
Electron tomograms can be obtained from much
smaller volumes
than with X-ray-based techniques.
In a series of ever - more - sensitive experiments over the past 30 years, researchers have established that if the shape of the
electron has any distortion at all, the bulge must be
smaller than 1 thousand trillion trillionths of a millimeter (10 - 27 mm).
The spatial elongation of nuclei in a vibration is much
smaller than the distance between atoms, the latter being determined by the distribution of
electrons.
The detector essentially fits on a tabletop, and the space in which
electrons are detected is
smaller than a postage stamp.
First proposed in the 1980s, a quantum computer harnesses the principles of quantum mechanics (the physics of very
small things like
electrons and photons) to process information significantly faster
than traditional computers.
But for the physicist interested in
electrons, which are far
smaller, lighter, and faster
than the atomic nuclei they swarm around, that timescale is just too slow.
Within porous silicon,
electrons and holes are confined in a
small space, and they attract one another more strongly
than in bulk silicon.
As reported recently in Nature, physicists at the Weizmann Institute of Science used a similar trick to measure the interaction between the
smallest possible magnets — two single
electrons — after neutralizing magnetic noise that was a million times stronger
than the signal they needed to detect.
With much shorter wavelengths
than photons of visible light,
electron beams can be used to observe objects hundreds of times
smaller than those that can be resolved with an optical microscope.
Iron atoms, which have a nucleus with
smaller positive charge
than copper, exert less pull on the circulating
electrons.
Upending accepted theory, he discovered that light could be transmitted very efficiently through holes
smaller than its own wavelength with the involvement of surface plasmons, the interaction of light with
electron waves on metal surfaces.
The method employs cryo -
electron microscopy to diffract extremely
small 3 - D protein crystals, a million to 100 million times
smaller in volume (100 times per side)
than used in a traditional X-ray crystallography experiment.
While most LCDs still use amorphous silicon (a-Si), many high - ppi LCDs use low - temperature polysilicon (LTPS), which has considerably higher
electron mobility
than a-Si, allowing the circuitry to be made much
smaller.