Not exact matches
Cardinal Mercier not only began the revival of the study of St. Thomas in the late 19th century, with the gratitude and encouragement of Leo XIII, but it was he who noticed the mathematical precocity of a young seminarian, and fellow Belgian, whom he encouraged to study the then revolutionary new branch of
physics developed by Albert Einstein.
The growth of astronomy was influenced
by astrology and navigation; work on the properties of gases was stimulated
by the need for better pumps; and more recently electronics and atomic
physics have been
developed in large measure for military purposes.
Looking at our universe, we observe the stable laws of
physics, the scientifically measurable and predictable qualities of matter, the ordered relationships of organisms to their environment and the process we call «evolution»
by which living things
develop.
However, I do not believe that the view represented
by the neurosciences has absorbed the implications of the revolutionary developments of the twentieth century in
physics, in particular the physical theory of quantum mechanics,
developed originally to account for atomic phenomena, where the Newtonian theory breaks down.
«The laws of
physics, in whatever mathematical formulation we come to express them, do not suddenly start up randomly out of absolute emptiness and then bring in stability and directionality everywhere... At all times in the history of the universe we are in the presence of an equational harmony of being, and of mutual control and direction within that «Equation»
by which the
developing cosmos is held in stable order.
He looks for guidance to the seventeenth century, specifically to Descartes, whose philosophy was meant as a handmaid of science and whose
physics —
developed much more fully
by Newton — became the foundation of the new cosmology.
«Quantum cryptography is a fundamentally new way to give us unconditional security ensured
by the laws of quantum
physics,» says Chao - Yang Lu, a physicist at the University of Science and Technology of China in Hefei, and a member of the team that
developed the satellite.
Working in a Harvard
Physics Department lab, a team of researchers led
by Harvard Professors Mikhail Lukin and Markus Greiner and MIT Professor Vladan Vuletic has
developed a special type of quantum computer, known as a quantum simulator, which is programmed
by capturing super-cooled rubidium atoms with lasers and arranging them in a specific order, then allowing quantum mechanics to do the necessary calculations.
Developed by artist Jonathon Keats, quantum entanglement marriage is as «non-denominational and nonpartisan as the laws of
physics.»
Currently ideas of gravity,
developed by Einstein and Newton, explain how
physics operates on a very large scale, but do not work at the sub-atomic level.
Data previously collected
by Tarduno and Rory Cottrell, an EES research scientist, together with theoretical models
developed by Eric Blackman, a professor of
physics and astronomy at Rochester, suggest the core region beneath southern Africa may be the birthplace of recent and future pole reversals.
Their model, which employs concepts from the
physics of complex atomic systems, was
developed by Didier Sornette of the Financial Crisis Observatory in Zurich, Switzerland, and Wei - Xing Zhou of the East China University of Science and Technology in Shanghai.
«The frontiers of fundamental
physics have traditionally been studied with particle colliders, such as the Large Hadron Collider at CERN,
by smashing together subatomic particles at great energies,» says UCSD physicist George Fuller, who collaborated with Paris and other staff scientists at Los Alamos to
develop the novel theoretical model.
Recording these temperatures continuously can help scientists
develop a detailed picture of the
physics by which the ocean melts the ice shelves from below, says oceanographer Laurence Padman of Earth & Space Research in Corvallis, Oregon.
The new capability,
developed by physicist Mario Podestà at the U.S. Department of Energy's (DOE) Princeton Plasma
Physics Laboratory (PPPL), outfits the code known as TRANSP with a subprogram that simulates the motion that leads to the loss of energetic ions caused
by instabilities in the plasma that fuels fusion reactions.
By comparing these complex signatures with powerful computer codes
developed at the Princeton Plasma
Physics Laboratory, Dr. Chen and her colleagues are able to understand with unprecedented detail, the underlying physics in
Physics Laboratory, Dr. Chen and her colleagues are able to understand with unprecedented detail, the underlying
physics in
physics involved.
This is evidenced
by the fact that the detector physicists are part of the author lists of the final
physics papers and certainly
by the fact that Charpak got the Nobel Prize in
physics for
developing a detector.
For the study, published in the journal Nature
Physics, the Kaiserslautern team around Professor Widera (Department of
Physics and State Research Center OPTIMAS)
developed a novel model system: A single atom is cooled
by lasers near to absolute zero temperature and trapped
by light within a near - perfect vacuum.
Lee Smolin, professor of
physics at the Center for Gravitational Physics and Geometry at the Pennsylvania State University, is a leading proponent of this idea, which also takes on board notions about baby universes developed by Andrei Linde of the Lebedev Physics Institute in Moscow and Stephen Hawking of the University of Cam
physics at the Center for Gravitational
Physics and Geometry at the Pennsylvania State University, is a leading proponent of this idea, which also takes on board notions about baby universes developed by Andrei Linde of the Lebedev Physics Institute in Moscow and Stephen Hawking of the University of Cam
Physics and Geometry at the Pennsylvania State University, is a leading proponent of this idea, which also takes on board notions about baby universes
developed by Andrei Linde of the Lebedev
Physics Institute in Moscow and Stephen Hawking of the University of Cam
Physics Institute in Moscow and Stephen Hawking of the University of Cambridge.
A new imaging technology to grade tumour biopsies has been
developed by a team of scientists led
by the Department of
Physics and the Department of Surgery and Cancer at Imperial College London.
MAIUS is part of the QUANTUS mission funded
by DLR in which new technologies involving quantum
physics will be
developed for cooling, entangling, and manipulating atoms.
The researchers used a technique
developed by Durian with Penn Ph.D. graduate Samuel Schoenholz, and Harvard University Ph.D. graduate Ekin Dogus Cubuk, both currently at Google Brain; Andrea Liu, Hepburn Professor of
Physics in Penn's School of Arts and Sciences; and Efthimios Kaxiras, John Hasbrouck Van Vleck Professor of Pure and Applied
Physics, Harvard School of Engineering and Applied Sciences.
Developed by Greg Kopp of the University of Colorado's Laboratory for Atmospheric and Space
Physics, the imager collected radiance data for nearly half of its eight - and - a-half hour flight, demonstrating improved techniques for future space - based radiance tests.
Using a new model of dusty galaxies
developed by Richard Tuffs of the Max Planck Institute for Nuclear
Physics, Driver then recalculated how much energy the dust blocks for 10,000 galaxies.
This is a cross-section of the quantum dots
developed, constructed and tested
by the Institute of Experimental
Physics at the Faculty of
Physics at the University of Warsaw.
This unique approach,
developed by Dr Gavin Bell and Dr Yorck Ramachers from Warwick's Department of
Physics, uses gas — rather than vacuum — to transport electrical energy,
The mathematical model
developed for the latest work determines how termite mounds affect plant growth
by applying various tools from
physics and mathematical and numerical analysis to understand a biological phenomenon, said first author Juan Bonachela, a former postdoctoral researcher in the research group of co-author Simon Levin, Princeton's George M. Moffett Professor of Biology.
A Columbia Engineering team led
by Pierre Gentine, professor of earth and environmental engineering, and Adam Sobel, professor of applied
physics and applied mathematics and of earth and environmental sciences, has
developed a new approach, opposite to climate models, to correct climate model inaccuracies using a high - resolution atmospheric model that more precisely resolves clouds and convection (precipitation) and parameterizes the feedback between convection and atmospheric circulation.
«A warning message from our magnetometer network
developed by Trinity and the Dublin Institute for Advanced Studies notified me of the onset of a large geomagnetic storm as I watched the Saint Patrick's Day parade with my family,» according to Professor Peter Gallagher, head of solar
physics and space weather at Trinity.
Inspired
by his teachers, he decided to specialize in
physics and spent 3 months at the
physics department of Stanford University in Palo Alto, California, working in the group of atomic physicist Steven Chu, one of the three scientists who jointly received the 1997
physics Nobel Prize for methods they
developed to cool and trap atoms with laser light.
The theory reconciled the
physics of moving bodies
developed by Galileo Galilei and Newton with the laws of electromagnetic radiation.
The variety of physical situations described
by statistical
physics and the power of the methods
developed and used over the past 50 years make the field particularly exciting.
The Fermi - Hubbard model was
developed by Philip Anderson, Princeton's Joseph Henry Professor of
Physics, Emeritus, who won a Nobel Prize in
Physics in 1977 for his work on theoretical investigations of electronic structure of magnetic and disordered systems.
To speed things up, UK Sport will soon begin testing the nanoparticle - based scanner,
developed by Argento Diagnostics, a spin - out from the UK's National
Physics Laboratory in Teddington.
These measurements may also shed light on the proportion of radioactive elements like uranium and thorium inside the Moon, since their decay produces heat and should increase the amount of heat radiated
by the Moon, says Paul Spudis of the Johns Hopkins University Applied
Physics Laboratory in Laurel, Maryland, US, who is
developing radar instruments to fly on LRO and Chandrayaan - 1.
To carry out the test, the patients and control group were asked to provide breath samples, which were collected using a breath sampling protocol
developed by Ms. Raquel Fernandez del Rio, a Marie Curie Early Stage Researcher in the Molecular
Physics Group.
A newly
developed laser technology has enabled physicists in the Laboratory for Attosecond
Physics (jointly run
by LMU Munich and the Max Planck Institute of Quantum Optics) to generate attosecond bursts of high - energy photons of unprecedented intensity.
The consortium will oversee the development and delivery of the cameras, and take the lead in supporting the UK solar
physics community in their use of DKIST
by providing a set of processing tools for DKIST data, synthetic observations to validate diagnostic approaches, and support for
developing observing proposals.
OCT was jointly
developed by the Center for Medical
Physics and Biomedical Technology and the Ophthalmology Department of MedUni Vienna and is constantly being refined
by Viennese physicists and ophthalmologists.
The new approach was
developed by Assistant Professor of Mathematics Marcelo Disconzi in collaboration with
physics professors Thomas Kephart and Robert Scherrer and is described in a paper published earlier this year in the journal Physical Review D.
The technique,
developed by two separate research groups, one at Princeton led
by Thomas Gregor, associate professor of
physics and the Lewis - Sigler Institute for Integrative Genomics, and the other led
by Nathalie Dostatni at the Curie Institute in Paris, involves placing fluorescent tags on RNA molecules to make them visible under the microscope.
Physicists at the Laboratory for Attosecond
Physics (LAP), which is run jointly
by LMU Munich and the Max Planck Institute of Quantum Optics (MPQ), has
developed a novel light source that brings the age of optoelectronics closer.
This ensemble was «confined» in an ion trap known as CryPTEx, which was
developed by researchers at the Max Planck Institute for Nuclear
Physics (see Background).
The study, published in Atmospheric Chemistry and
Physics, forecast that rising HFC use in the
developing world would push global temperatures up
by 0.35 °C to 0.5 °C
by 2100.
A set of references was
developed by the IOMP Science Committee covering the medical
physics aspect of radiation therapy, medical imaging, nuclear medicine, and radiation safety.
Weeks before the actual events, students learned about the mission, its science theme, and space - related careers through classroom activities and videos
developed by the Applied
Physics Laboratory and Discovery Education.
Led
by Andrei Faraon, assistant professor of applied
physics and materials science in the Division of Engineering and Applied Science and a member of the Kavli Nanoscience Institute, the team
developed silicon oxide and aluminum surfaces studded with tens of millions of tiny silicon posts, each just hundreds of nanometers tall.
Osmotic pressure, the pressure that
develops in a solution separated from a solvent
by a membrane permeable only to solvent, was first described
by Abbé J.A. Nollet, who became professor of experimental
physics at the College of Navarre.
The MoU will provide a structured framework for cooperation across a broad range of issues of common interest, with emphasis on consolidating and further
developing the European Research Area and facilitating the implementation of the European Strategy for Particle
Physics, as defined
by the CERN Council.
Finally, in a collaboration with Frank Jülicher's group at the Max Planck Institute for the
Physics of Complex Systems, we are using these data to
develop physical models that will help us understand how local cellular adhesive, elastic and contractile properties are influenced
by PCP proteins and other molecules, and how they combine to produce specific packing geometries at a global level.