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This function manages the design, fabrication and operation of PPPL experimental devices, and oversees the Laboratory’s facilities and its electrical and infrastructure systems.

Look, up in the sky! Interns develop a device that levitates droplets of water

Among the many projects that interns worked on this summer at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) is an acoustical levitator that causes droplets of water to levitate in mid-air so their interaction with plasma can be examined. Assembled by Remy Plattiers, now a freshman at the University of New Haven, the device suspends droplets with sound waves whose high frequency is hard to hear.

Really fun

New national facility will explore low-temperature plasma, a dynamic source of innovation for modern technologies

Low-temperature plasma, a rapidly expanding source of innovation in fields ranging from electronics to health care to space exploration, is a highly complex state of matter.  So complex that the Princeton Plasma Physics Laboratory (PPPL) has teamed with Princeton University to become home to a collaborative facility open to researchers from across the country to advance the understanding and control of this dynamic physical state.

Extensive resources

New national facility will explore low-temperature plasma, a dynamic source of innovation for modern technologies

Low-temperature plasma, a rapidly expanding source of innovation in fields ranging from electronics to health care to space exploration, is a highly complex state of matter.  So complex that the Princeton Plasma Physics Laboratory (PPPL) has teamed with Princeton University to become home to a collaborative facility open to researchers from across the country to advance the understanding and control of this dynamic physical state.

Extensive resources

New technique could streamline design of intricate fusion device

Stellarators, twisty machines that house fusion reactions, rely on complex magnetic coils that are challenging to design and build. Now, a physicist at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) has developed a mathematical technique to help simplify the design of the coils, making stellarators a potentially more cost-effective facility for producing fusion energy.

New technique could streamline design of intricate fusion device

Stellarators, twisty machines that house fusion reactions, rely on complex magnetic coils that are challenging to design and build. Now, a physicist at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) has developed a mathematical technique to help simplify the design of the coils, making stellarators a potentially more cost-effective facility for producing fusion energy.

Small but mighty: A mini plasma-powered satellite now under construction may launch a new era in space exploration

A tiny satellite under construction at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) could open new horizons in space exploration.  Princeton University students are building the device, called a cubic satellite, or CubeSat, as a testbed for a miniaturized rocket thruster with unique capabilities being developed at PPPL.

Small but mighty: A mini plasma-powered satellite now under construction may launch a new era in space exploration

A tiny satellite under construction at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) could open new horizons in space exploration.  Princeton University students are building the device, called a cubic satellite, or CubeSat, as a testbed for a miniaturized rocket thruster with unique capabilities being developed at PPPL.

Tiny granules can help bring clean and abundant fusion power to Earth

Beryllium, a hard, silvery metal long used in X-ray machines and spacecraft, is finding a new role in the quest to bring the power that drives the sun and stars to Earth. Beryllium is one of the two main materials used for the wall in ITER, a multinational fusion facility under construction in France to demonstrate the practicality of fusion power. Now, physicists from the U.S.

Tiny granules can help bring clean and abundant fusion power to Earth

Beryllium, a hard, silvery metal long used in X-ray machines and spacecraft, is finding a new role in the quest to bring the power that drives the sun and stars to Earth. Beryllium is one of the two main materials used for the wall in ITER, a multinational fusion facility under construction in France to demonstrate the practicality of fusion power. Now, physicists from the U.S.

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