Sentences with phrase «nuclear physicists»

Work Individually Worked in close cooperation with engineers and nuclear physicists.

For instance, neurosurgeons and nuclear physicists will find no success in scanning newspaper employment want ads, while welders and warehousemen will discover want ads to be an excellent resource.

New tools often upend pre-existing hierarchies, because they empower folks (think archers versus knights at Agincourt, or nuclear physicists versus battleship commanders in World War II) who create and use the new tools at the expense of those who were on top with the previous generation of tools.

1950s: Research on military applications of radar and infrared radiation promotes advances in radiative transfer theory and measurements = > Radiation math — Studies conducted largely for military applications give accurate values of infrared absorption by gases = > CO2 greenhouse — Nuclear physicists and chemists develop Carbon - 14 analysis, useful for dating ancient climate changes = > Carbon dates, for detecting carbon from fossil fuels in the atmosphere, and for measuring the rate of ocean turnover = > CO2 greenhouse — Development of digital computers affects many fields including the calculation of radiation transfer in the atmosphere = > Radiation math, and makes it possible to model weather processes = > Models (GCMs)-- Geological studies of polar wandering help provoke Ewing - Donn model of ice ages = > Simple models — Improvements in infrared instrumentation (mainly for industrial processes) allow very precise measurements of atmospheric CO2 = > CO2 greenhouse.

The previous two occupants of that position were nuclear physicists.

Presumably then the employees of both could go out and get jobs like taxi drivers, plumbers, farmers, nuclear physicists, or some other productive occupation that doesn't meet the definition of rent seeker.

That is why AGW, SSMand BBC (Anthroprogenic Global Warming, Standard Solar Model and Big Bang Cosmology) are designed to hide a flaw inserted in the SNM, the Standard Nuclear Model by nuclear physicists:

«But when Warren Buffett is competing against nuclear physicists like he is today, it's much harder.

This phenomenon, first theoretically described by nuclear physicists in 1957, creates elements in nature that are heavier than iron.

In a study published March 26 in Physical Review Letters, nuclear physicists from the Department of Energy's Lawrence Berkeley National Laboratory (Berkeley Lab) and other institutions working on the MAJORANA DEMONSTRATOR experiment have shown that they can shield a sensitive, scalable, 44 - kilogram germanium detector array from background radioactivity.

Comprised of radiation biology experts, nuclear physicists, industrial designers, engineers and backed by world - leading scientists including 3 Nobel Laureates, StemRad provides cutting edge technology to protect our heroes on Earth and beyond.

Cooper gave the two nuclear physicists framed copies of the statement about the discovery that he read into the Congressional Record, and they gave him a signed copy of the newly revised periodic table that includes Tennessine.

Aug. 13, 2016 — U.S. Representative Jim Cooper honored nuclear physicists Joe Hamilton and A.V. Ramayya Aug. 12 for their role in the discovery of the new superheavy element 117 that has been provisionally named Tennessine.

Just like chemists want to understand the electronic structure of a molecule, nuclear physicists want to unravel the structure of the atomic nucleus.

Nuclear physicists call this the strong force.

Designed and developed by a team of nuclear physicists led by senior scientist Howard Wieman at Lawrence Berkeley National Laboratory, now retired, the HFT is the first silicon detector at a collider that uses a technology found in digital cameras called monolithic active pixel sensor technology.

The collisions free the quarks and gluons from their confinement within ordinary particles — the protons and neutrons that make up the nucleus of atoms — so nuclear physicists can study their interactions and the force that holds them together in the universe today.

They attributed the radio silence to the culture gap separating nuclear and particle physics: «Nuclear physicists didn't know what to make of it» since claims of new particles are not really their thing, Feng said, «and particle physicists, who are of course extremely interested in any sign of a new particle, simply don't read the [experimental nuclear physics] arxiv listings.»

Last year, a team of nuclear physicists in Hungary observed an anomaly in the decays of excited beryllium - 8 atoms — an unexpected preference for spitting out pairs of particles with a particular angle of separation.

The results are freely available to the nuclear physicists» community so that other groups can perform their own nuclear structure calculations, even if they have only limited computational resources.

However, my girlfriend is a geologist, and she looks at natural radiation that comes from rocks, particularly in the south of England — geologists know what elements and radioactive isotopes they have in the ground because nuclear physicists have been able to find out which of these the radiation comes from.

First, a number of sensational discoveries were made by two English groups; the identification of the pion (by Powell) and the so - called V particles or kaons (by Rochester and Butler) led many nuclear physicists to turn to the study of cosmic rays.

As a result, many European nuclear physicists will have no machine to work on when the Nuclear Structure Facility (NSF) at the Daresbury Laboratory in Cheshire closes this spring.

With the demise of the NSF this spring, high - energy nuclear physicists in Europe face an uncertain future.

Around the world, pygmy resonance studies are becoming increasingly popular among nuclear physicists.

In experiments, nuclear physicists use particle colliders to smash together heavy nuclei, like gold or lead atoms that are stripped of electrons.

Yet try as they might, Alburger and his colleagues at the Brookhaven National Laboratory on Long Island, New York — all nuclear physicists highly versed in this kind of painstaking measurement — couldn't find it.

Nuclear physicists create the fireballs by colliding ordinary nuclei — made of protons and neutrons — in an «atom smasher» called the Relativistic Heavy Ion Collider (RHIC), a U.S. Department of Energy Office of Science User Facility at Brookhaven National Laboratory.

But many nuclear physicists and engineers are not on board with nuclear airplanes, especially in the aftermath of the September 11, 2001, attacks during which terrorists plowed jumbo jets into the World Trade Center and Pentagon.

More data will help resolve this spin mystery by reducing uncertainties and allowing nuclear physicists to tease out other unaccounted for contributions.

In order to determine the mass of the strange hydrogen nucleus as accurately as possible, the nuclear physicists observed the radioactive decay of the nucleus using a combination of several magnetic spectrometers.

But despite its everday appearance, the proton remains something of a mystery to nuclear physicists, says Randolf Pohl, a researcher at the Max Planck Institute of Quantum Optics in Garching, Germany, and an author on the Nature paper.

The numbers 20 and 28 are what nuclear physicists call «magic numbers,» and nuclei with this many protons or neutrons get an extra measure of stability.

The ability to accurately determine the rate of this H - 17O fusion reaction provides nuclear physicists with another key puzzle piece, alongside direct observations of oxygen elemental and isotopic abundances in stellar atmospheres and in primitive meteorites, to zero in on complete and accurate models of stars.

To whip up a batch of ununoctium, a team of Russian and American nuclear physicists shot calcium atoms (element 20) at a target of radioactive californium (element 98) in a particle accelerator at the Joint Institute for Nuclear Research in Dubna, Russia.

It's time to set yet another place at the periodic table: In 2013, an international team of nuclear physicists and chemists found new and confirming evidence that establishes another new chemical element — one of the growing family of superheavy substances.

Nuclear physicists have long suspected the existence of atoms far heavier than any yet discovered, but they lacked the technology needed to synthesize them.

Based on this example, they believe young nuclear physicists have the opportunity to bring their results to practitioners in other fields of research.

Nuclear physicists have extended the solid state physics results to the limit of a single Cooper pair and studied Cooper pair tunneling to individual quantum states — something which is not possible in solid state physics.

«This research illustrates a deep connection between two seemingly unrelated fields, and required contributions from an interdisciplinary team of condensed matter and nuclear physicists,» said James Misewich, the Associate Laboratory Director for Energy Science at Brookhaven Lab and a professor of physics at Stony Brook University, who played the central role of introducing the members of this research team to one another.

Kharzeev had explored similar behavior of subatomic particles in the magnetic fields created in collisions at the Lab's Relativistic Heavy Ion Collider (RHIC, https://www.bnl.gov/rhic/), a DOE Office of Science User Facility where nuclear physicists explore the fundamental building blocks of matter.

Nuclear physicists have long thought that those elements are generated in r - process, but haven't known where in the cosmos that happens — whether in the collapse of single stars or in merging neutron stars.

Its recommendations include «mount [ing] a massive experiment to search for a hypothesized type of nuclear decay that is possible only if an elusive, nearly massless particle called the neutrino is — weirdly — its own antiparticle,» «building a new collider,» and «fully exploit [ing] the three major facilities U.S. nuclear physicists already have.»

The new atom counter, named Atom Trap Trace Analysis, or ATTA, was developed by a team of nuclear physicists led by Zheng - Tian Lu at Argonne National Laboratory near Chicago.

Whatever Martin and Stan had found and made public was not a cold version of «hot fusion», the kind familiar to nuclear physicists.

From these scanty glimpses nuclear physicists are attempting to identify the particles and the forces at play in the dark, violent world of the nucleus of the atom.

[40] Leading nuclear physicists at the Federal Institute of Technology Zürich such as Paul Scherrer made this a realistic possibility.

Well, to the nuclear physicists who keep sprouting that one: please direct me to another team or bunch of players who DO like it — how dumb can anyone be?

If there are actual nuclear physicists from accredited programs who believe the bullshit in your link, post their namess.

There are nuclear physicists who believe it, and they would make hash out of all of you BTW.