We are unaware of any major project failures in
magnetic fusion research.
There will also be lectures by top physicists and engineers that will offer a more in - depth look at
the magnetic fusion research taking place at PPPL and some of the related projects.
In 1958,
magnetic fusion research was declassified, allowing all nations to share their results openly.
PPPL has used such diagnostic systems, called X-ray crystal spectrometers, for decades to study the data from the laboratory's
magnetic fusion research.
Magnetic fusion research at Princeton began in 1951 under the code name Project Matterhorn.
«The Department of Energy sponsors all
the magnetic fusion research in the country.
Not exact matches
The Department of Energy offers several
research stints, including one at its
magnetic fusion facility at Lawrence Livermore National Laboratory in California.
The Interactive Plasma Physics Education Experience provides a detailed introduction to plasma physics and
fusion research, including the «virtual tokamak» and the «virtual
magnetic stability module.»
In
research machines such as
fusion reactors, scientists use strong
magnetic fields to confine plasma, but those fields interfere with seeing what might happen during a natural dynamo.
On the other hand, in
magnetic field confinement
fusion plasma intended for a
fusion reactor, which
research is being conducted at the National Institute for
Fusion Science, development of high precision electron density measurements is becoming an important
research topic.
Most
fusion research focuses on
magnetic confinement, using powerful electromagnets to contain a thin plasma of hydrogen isotopes and heat it until the nuclei fuse.
In fact, some of the more promising technologies involved with nuclear
fusion research use
magnetic fields to contain plasmas.
Aiming for the achievement of
fusion energy,
research on confining a high temperature, high density plasma in a
magnetic field is being conducted around the world.
Research in
magnetic - confinement
fusion has produced excellent results.
New
research suggests scientists are getting close to using
magnetic fields and powerful particle beams to control
fusion reactions.
The books describe where
research on
magnetic fusion energy comes from and where it is going, and provide a basic understanding of the physics of plasma, the fourth state of matter that makes up 99 percent of the visible universe.
Dozens of PPPL scientists presented the results of their cutting - edge
research into
magnetic fusion and plasma science.
A main goal of tokamak
research is to use
magnetic plasma confinement to develop the means of operating high - pressure
fusion plasmas near stability and controllability boundaries while avoiding the occurrence of transient events that can degrade performance or terminate the plasma discharge.
Berkeley Lab's inertial
fusion energy
research has emphasized ion beams — focused by
magnetic fields, not materials like glass, and accelerated by induction accelerators.
Papers, posters and presentations ranged from
fusion plasma discoveries applicable to ITER, to
research on 3D
magnetic fields and antimatter.
The method contrasts with the
research done at PPPL and other laboratories, which controls plasma with
magnetic fields and heats it to
fusion temperatures in doughnut - shaped devices called tokamaks.
To Prof. John Holdren: I am a graduate student of U.C. Berkeley doing thesis
research on
magnetic fusion energy (MFE) at the DIII D tokamak in San Diego, CA.
At this moment,
research investment by the rest of the world — China, Korea, the EU — is surging in
magnetic fusion, while the U.S. investment is stagnating.
Two major
fusion research reactors are being built over the next decade — the international ITER
magnetic confinement reactor (for $ 5 to 10 billion) and the US National Ignition Facility (NIF — $ 2 to 5 billion) to study «inertial confinement».