Familiar with, Tenney, Thermotron, Envirotronics, Unholtz - Dickie, Watlow, Kenny, and multiple ranges
of vacuum chambers.
On Earth, gravity pulls at the atoms the moment they are released, typically giving physicists just 10 to 20 milliseconds to make their measurements before the BEC crashes to the bottom
of the vacuum chamber.
This is an end - on view
of the vacuum chamber, showing ion pump, which maintains the high vacuum, to the left, and the photomultiplier tube and light collection lenses to the right.
Hudson's laboratory used laser light to cool tiny amounts of the reactant atoms and molecules to an extremely low temperature — one one - thousandth of a degree above absolute zero — and then levitate them in a space smaller than the width of a human hair, inside
of a vacuum chamber.
Behind him are powerful superconducting magnets on either side
of the vacuum chamber.
Not exact matches
This consists
of an ultra-high
vacuum chamber containing individual atoms and simulates the low - density conditions
of empty space so that screening is reduced.
Inside lies a smaller
vacuum chamber — about the size
of an MRI machine — that contains the rocket's magnets.
«Everything happens in a small
vacuum chamber where we have a very dilute vapor
of atoms which are cooled close to absolute zero,» Lukin said.
In the weightlessness
of orbit, a BEC should hover for up to 10 seconds before lingering gas in the
vacuum chamber warms it up, Sackett says, allowing time for measurements that can't be made on Earth.
Its heart is a
vacuum chamber about the size
of a stick
of butter.
To test theories such as general relativity, the strength
of gravity is measured precisely using ensembles
of supercold atoms falling in a
vacuum chamber.
The experiment, housed in a laboratory adjacent to his office at the University
of Washington, is a supercooled, magnetized
vacuum chamber equipped with a sensitive detector that listens for the microwave «ping»
of passing particles called axions.
A 64.5 - foot - wide test version
of the Sunjammer solar sail sits unfurled in a large
vacuum chamber during tests at NASA's Plum Brook facility in Ohio.
So he isolated a single ytterbium atom in a
vacuum chamber, shined a laser at it, and focused in on the resulting 450 - nanometer gap
of darkness that landed on his digital image sensor.
For this particular research, the scientists tested samples
of common salt — sodium chloride — along with mixtures
of salt and water, in their
vacuum chamber at Europa's chilly surface temperature
of minus 280 degrees Fahrenheit (minus 173 Celsius).
VACUUM PUMP Suck all the unwanted particles out
of the
chamber.
Though the computer chips themselves are tiny, they depend on large cooling systems,
vacuum chambers or other bulky equipment to maintain the delicate quantum properties
of the qubits.
Bruce Kane at the University
of Maryland in College Park sprayed charged graphene flakes a micron wide into a
vacuum chamber.
Most
of them are produced in
vacuum chambers that use tons
of energy to deposit thin layers
of semiconductor materials onto a flawless wafer.
The experimenters introduced acetylene or silane into the
vacuum chamber as sources
of carbon or silicon, respectively.
Conventional sputtering processes involve bombarding a solid object such as an ingot
of titanium, referred to as the target, with energy - rich ions in a
vacuum chamber.
Before building the Megatron ®, the scientists carried out simulations to answer questions such as: What is the best way to separate the gas systems
of the two
vacuum chambers containing the different targets?
The «teats» are actually receptacles containing aluminium, gallium and arsenic; the «udders» are high -
vacuum reaction
chambers in which ultrathin layers
of crystal are grown on circular wafers
of gallium arsenide, 75 or 100 millimetres across.
Zewail's team used a laser to fire a pulse
of photons into a
vacuum chamber filled with a heavy form
of methane containing two iodine atoms.
The electrons flew into the
vacuum chamber, where some
of them ricocheted off the dissociating methanes.
Within a tall
vacuum chamber, the researchers released droplets
of alcohol onto a dry glass plate from heights ranging from 20 centimeters to 3 meters.
Pulickel Ajayan and Sumio Iijima
of NEC's Fundamental Research Laboratories in Tsukuba put some nanotubes in a
vacuum chamber and deposited lead particles on them using a technique called electron beam evaporation.
The aim
of firing this massive bank
of laser beams would be to either heat a
chamber sufficiently high — about 1029 degrees Kelvin — to create a false
vacuum inside or compress a pair
of spherical plates to within the Planck distance
of each other, creating negative energy via the Casimir effect.
Secondly, the design leads to small — aperture
vacuum chambers that result in low
vacuum conductance and the need for distributed pumping as well as for the distributed absorption
of heat deposited by the synchrotron radiation.
This is a schematic
of an optical tweezer used in a
vacuum chamber by Purdue University researchers, who controlled the «electron spin»
of a levitated nanodiamond.
Typically, a RGA is connected to a researcher's high -
vacuum chamber, with the probe end
of the RGA inside the
vacuum chamber, and the support electronics hanging outside in the room.
While the dots settle, a small quantity
of other atoms (for example magnetic ones) can be introduced into the
vacuum chamber, with some becoming a part
of the emerging dots.
To find out, Xu and his adviser Sidney Nagel along with colleague Wendy Zhang used high - speed photography to study the splash
of ethanol drops as they landed on a glass plate inside a
vacuum chamber.
The researchers said that their method
of attaining fusion in a
vacuum chamber can be replicated with «100 per cent accuracy», but the reports have failed to convince the sceptics.
This
chamber is filled with dry air — at a pressure
of about 1 atm — to prevent the electronics package from overheating, while the high -
vacuum probe end
of the RGA is specifically designed to protrude out
of the
chamber so it can perform gas sampling.
In the new study, researchers placed tiny particles
of silicon carbide (one represented by the group
of tan molecules in this artist's concept) covered with graphite (hexagonal networks
of gray atoms) in a
vacuum chamber that duplicated the deep - space conditions surrounding many stars (temperatures between 900 and 1500 kelvins and pressures less than one - billionth that found at Earth's surface).
They eliminated the power - consuming electrical pump by using a «one - push
vacuum,» where a user mechanically activates a negative - pressure
chamber to move a sequence
of reagents pre-stored on a cassette.
They also have been tested successfully in a JPL thermal
vacuum chamber, with total
vacuum conditions and temperatures
of minus 76 degrees Fahrenheit (minus 60 degrees Celsius) to simulate the conditions
of space.
The kits will include a
vacuum chamber, pump, sensors, and a set
of instructions, all for around # 350 000.
But such
vacuum chambers are expensive to build and complicated to operate (requiring monitoring
of pressure, temperature, current, voltage, time and other factors during the process
of making the thin film).
Until now, thin - film solar cells have been made in
vacuum chambers — the semiconductor materials are placed on the glass or metal and then air is pumped out
of the
chamber, creating pressure that fuses the materials.
Nanoalloys
of platinum (grey) and yttrium (blue) are created using sputtering in a
vacuum chamber.
To that end the researchers utilized a pair
of ytterbium ions as quantum bits, or qubits, each confined to a private
vacuum chamber about a meter apart in an experimental system at the Joint Quantum Institute
of the University
of Maryland and the National Institute
of Standards and Technology.
About 1 million cold rubidium atoms are held in a
vacuum chamber in the lower left
of the photo.
A team
of researchers has devised perhaps the world's most intricate coin toss, a device utilizing
vacuum chambers, magnetic fields, lasers and microwave pulses to produce a random string
of 0s and 1s — each representing heads or tails, essentially.
With colleague Fred Baas, he installed equipment to chill a shoebox - size
chamber to within several degrees
of absolute zero and depressurize it to a near
vacuum.
The strontium atoms in each standard are isolated from the environment and from one another: cooled to a temperature below 10 microkelvins, they are situated inside an ultrahigh
vacuum chamber and immobilized in a specially constructed optical trap generated by the beam
of a supplementary laser.
This involves heating a sample
of a precursor compound at several hundred °C elsius for only a few milliseconds in a
vacuum chamber.
When the user puffs on the end
of the device and creates a
vacuum, a battery powers the heater and creates vapor, which then goes into a
chamber.
Ligterink says his team filled a
vacuum chamber with a gas mixture
of isocyanic acid and methane and chilled it to 15 K, freezing the gases onto a gold surface.