Showing posts with label 01EN1. Show all posts
Showing posts with label 01EN1. Show all posts

Thursday, 24 September 2020

Various articles - 01EN1

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Condensed matter physics arose out of solid state physics, which is now considered one of the major subfields. The term condensed matter physics was apparently coined by Philip Anderson when he renamed his research group - formerly solid-state theory - in 1967. In 1978, the solid-state physics division of the American Physical Society was renamed the Condensed Matter Physics Division. Condensed matter physics has great overlap with chemistry, materials science, nanotechnology, and engineering.
Astrophysics
Astrophysics and astronomy are the application of the theories and methods of physics to the study of stellar structure, the evolution of stars, the origin of the solar system, and problems related to cosmology. Because astrophysics is a broad subject, physicists typically apply many disciplines of physics, including mechanics, electromagnetism, statistical mechanics, thermodynamics, quantum and relativity mechanics, nuclear physics, and atomic and molecular physics.
The discovery by Karl Jansky in 1931 that the radio signals emitted by celestial bodies initiated radio astronomy. More recently, the frontiers of astronomy have been expanded by space exploration. Disturbances and interference from Earth's atmosphere make space observations essential for infrared, ultraviolet, gamma and X-ray science.
The Big Bang was confirmed by the success of Big Bang's nuclear synthesis and the discovery of the cosmic microwave background radiation in 1964. The Big Bang model rests on two theoretical pillars: Albert Einstein's general relativity and the cosmological principle. Cosmologists have recently created a Lambda-CDM model for the evolution of the universe, which includes cosmic inflation, dark energy and dark matter.
Many possibilities and discoveries are expected to emerge from new data from the Fermi Gamma Ray Observatory over the next decade and to substantially refine or clarify existing models of the universe.
In particular, the possibility of a massive discovery about dark matter is possible over the next few years. Fermi will search for evidence that dark matter is composed of massive weak interaction particles, completing similar experiments with the Large Hadron Collider and other underground detectors.
Medical Physics (also called Biomedical Physics, Medical Biophysics, Applied Physics in Medicine, Applications of Physics in Medical Sciences, Radiation Physics or Hospital Radio Physics)
It is generally the application of physics concepts, theories, and methods of medicine or healthcare. Medical physics departments can be found in hospitals or universities.

Monday, 14 September 2020

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When working in a hospital, the term "medical physicist" is the title of a specific healthcare profession, usually working within a hospital. Medical physicists are often found in the following healthcare specialties: diagnostic and interventional radiology (also known as medical imaging), nuclear medicine, radiation protection, and radiation oncology.
The departments of specialization at the university are of two types. The first type is primarily concerned with preparing students for a career as a hospital medical physicist and research focuses on improving the practice of the profession. As for the second type.
It has a much broader scope and may include research into any applications of physics to medicine from studying biomolecular structure to microscopy and nanomedicine. For example, physicist Richard Feynman spoke about the future of nanomedicine. Books on the idea of ​​the medical use of biological machines. Feynman and Albert Hipes suggested that some repair machines might someday be downsized to the point where it becomes possible (as Feynman said) "to be nanoscale." The idea is discussed in Feynman's 1959 essay “There is enough space at the bottom
In short matter physics, an important unresolved theoretical problem is the high temperature superconductivity problem. Many condensed matter experiments are aimed at fabricating viable microelectronics and quantum computers. In particle physics, the first pieces of experimental evidence for physics are beginning to appear outside the standard model. On top of these indications are that neutrons have a non-zero mass. These experimental results seem to have solved the long-standing problem of solar neutrinos, and the physics of massive neutrinos remains an area of ​​active theoretical and experimental research. The Large Hadron Collider has found the Higgs boson, but future research aims to prove or disprove the supersymmetry, which extends the Standard Model of particle physics. Research on the nature of the major mysteries of dark matter and dark energy is also continuing at the present time.
Theoretical attempts to unify quantum mechanics and general relativity into one theory of quantum gravity, a program that has been going on for more than half a century, have yet to be resolved decisively. The current major candidates are M-theory, superstring theory and toroidal quantum gravity.
Many astronomical and cosmic phenomena have yet to be satisfactorily explained, including the origin of super-energy cosmic rays, baryon asymmetry, the acceleration of the universe and anomalous spin rates of galaxies.
Despite significant advances in high-energy physics, quantum and astrophysics, many everyday phenomena involving complexity, chaos, or turbulence are still not well understood. Complex problems that seem to be solved by clever application of dynamics and mechanics remain unresolved; Examples include the formation of sand masses and nodes in flowing water, the shape of water droplets, mechanisms of surface tension disasters, and self-sorting in heterogeneous groups.

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Elementary particles (such as quarks, neutrinos, and electrons) into the largest superclusters of galaxies. Included in these phenomena are the basic things that make up all other things. Therefore, physics is sometimes called "basic science".
Physics aims to describe the different phenomena that occur in nature in terms of the simpler ones. Thus, physics aims to relate things that can be observed in humans with root causes, and then link these causes together.
For example, the ancient Chinese noticed that some rocks (limestone and magnetite) were attracted to each other by an invisible force. This effect was later called magnetism, which was first thoroughly studied in the seventeenth century. But even before the Chinese discovered magnetism, the ancient Greeks knew about other things like amber that when rubbed on the fur would cause a similar invisible attraction between the two.
This was also first studied in the 17th century and came to be called electricity. Thus, physics became to understand two observations of nature in terms of some root causes (electricity and magnetism). However, further work in the nineteenth century revealed that these two forces were just two different aspects of one force, electromagnetism. This process of "union" of forces continues today, and electromagnetism and the weak nuclear force are now considered two aspects of electroweak interaction. Physics hopes to find a final cause (theory of everything)
Research areas
Contemporary research in physics can be broadly divided into nuclear and molecular physics; Condensed matter physics; Atomic, molecular and optical physics; Astrophysics. And Applied Physics. Some physics departments also support physics education research and physics communication. Since the twentieth century, individual fields of physics have become increasingly specialized, and today most physicists work in one field throughout their careers. "Internationalists" such as Albert Einstein (1879-1955) and Lev Landau (1908-1968), who worked in various fields of physics, are now very rare.
Particle physics is the study of the elementary components of matter and energy and the interactions between them. In addition, particle physicists design and develop high-energy accelerators, detectors, and computer software needed for this research. The field is also called "high energy physics" because many elementary particles do not occur naturally but are only created during high energy collisions of other particles. Currently, the interactions of elementary particles and fields are described by the Standard Model. The model explains the twelve known particles of matter (quarks and leptons) that interact through the strong, weak and electromagnetic fundamental forces. Dynamics are described in terms of matter particles that exchange scale bosons (gluons, W and Z bosons, and photons, respectively). The Standard Model also predicts the existence of a particle known as the Higgs boson. In July 2012, CERN, the European Laboratory for Particle Physics, announced the discovery of a particle compatible with the Higgs boson, an integral part of the Higgs mechanism.

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Nuclear physics is the field of physics that studies the components and interactions of the atomic nucleus. The most common applications of nuclear physics are nuclear power generation and nuclear weapons technology, but the research has provided application in many fields, including those related to nuclear medicine, magnetic resonance imaging, and ion implantation in materials engineering and radiocarbon history in geology and archeology.
Atomic, Molecular and Optical Physics (AMO) is the study of the interactions of matter and light matter on the scale of single atoms and molecules. The three regions are grouped together due to their interrelationships, similarity of methods used, and interdependence of related energy scales. All three areas include classical, semi-classical and quantitative treatments; They can treat their topic from a microscopic point of view.
Atomic physics studies the electronic shells of atoms. The current research focuses on the activities of quantum control, cooling, and trapping of atoms and ions,
Low-temperature collision dynamics and electronic link effect on structure and dynamics. Atomic physics is influenced by the nucleus, but phenomena within nuclear such as fission and fusion are considered part of nuclear physics.
Molecular physics focuses on polyatomic structures and their internal and external interactions with matter and light. Photophysics differs from optics in that it tends to focus not on controlling classical light fields by microscopic objects but on the basic properties of optical fields and their interactions with matter in the microscopic field.
Condensed matter physics is the field of physics that deals with the macroscopic physical properties of matter. In particular, it is concerned with the "condensed" phases that appear whenever the number of particles in a system is extremely large and the strong interactions between them. The most common examples of condensed phases are solids and liquids, which arise from the bonding by means of the electromagnetic force between atoms. More exotic condensed phases include superfluid and Bose-Einstein condensers found in some atomic systems at very low temperatures, the superconducting phase shown by conduction electrons in some materials, and magnetic and antipyretic phases in atomic lattice cycles
Physical cosmology is the study of the formation and development of the universe on its larger scales. Albert Einstein's theory of relativity plays a major role in all modern cosmological theories. In the early 20th century, Hubble's discovery that the universe is expanding, as shown in a Hubble diagram, competing interpretations known as the steady-state universe and the Big Bang.

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Mathematics provides a compact and precise language used to describe arrangement in nature and was advocated by Pythagoras, Plato, Galileo, and Newton.
Physics uses mathematics to organize and formulate experimental results. From these results, accurate or estimated solutions are obtained, quantitative results from which new predictions can be experimentally confirmed or denied. Results from physics experiments are numerical data, with units of measurement and estimates of errors in measurements. Mathematics-based technologies, such as computation, have made computational physics an active area of ​​research.
Ontology is a prerequisite for physics, but not for mathematics. This means that physics is ultimately concerned with descriptions of the real world, while mathematics is concerned with abstract patterns, even outside the real world. Thus, physical data is synthetic, while mathematical data is analytical. Mathematics contains hypotheses, while physics contains theories. Mathematics statements should only be logically correct, while predictions of physics data should match observed and experimental data.
The distinction is clear, but not always clear. For example, mathematical physics is the application of mathematics to physics. Its methods are mathematical, but its subject matter is material.
Problems in this field begin with a "mathematical model of a physical state" (a system) and a "mathematical description of a physical law" that will be applied to that system. Every mathematical phrase used to solve has a hard-to-find physical meaning. The ultimate mathematical solution has a meaning that is easy to find, because it is what the analyst is looking for.
Physics is a branch of the basic sciences, not the applied sciences. Physics is also called "basic science" because the subject matter of studying all branches of natural sciences such as chemistry, astronomy, geology and biology is restricted by the laws of physics,
Similar to how chemistry is often called the central science because of its role in linking the physical sciences, chemistry studies the properties, structures, and reactions of matter (chemistry's focus on the atomic scale distinguishes it from physics). Structures are formed because particles exert electrical forces on each other, and include the physical properties of certain materials, and the interactions are bound by the laws of physics, such as the conservation of energy, mass and charge.
Physics is applied in industries such as engineering and medicine.
Applied physics is a general term for physics research and is intended for a specific use. The applied physics curriculum usually contains a small number of classes in an applied discipline, such as geology or electrical engineering. It usually differs from engineering in that an applied physicist may not design something special, but rather use physics or conduct physics research with the goal of developing new technologies or solving a problem.

Sunday, 13 September 2020

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Applied physicists use physics in scientific research. People who work in acceleration physics may seek to build better particle detectors for research in theoretical physics.
Physics is used extensively in engineering. For example, static science, a subfield of mechanics, is used in the construction of bridges and other static structures.
Understanding and using acoustics leads to better sound control and concert halls; Likewise, the use of optics creates better optical devices. An understanding of physics makes flight simulators more realistic, video games and movies, and is often crucial in criminal investigations.
With the standard consensus that the laws of physics are universal and do not change over time, physics can be used to study things that would normally be mired in uncertainty. For example, in the study of the origin of the Earth, one can reasonably depict the Earth's mass, temperature, and rate of rotation, as a function of time that allows a person to extrapolate forward or backward in time and thus anticipate future or past events. It also allows engineering simulations that greatly speed up the development of a new technology.
But there are also many multidisciplinary disciplines in the methods of the physicist, with many other important areas influenced by physics.
Physicists use the scientific method to test the validity of a physical theory. By using the methodology to compare the implications of a theory with the conclusions drawn from relevant experiments and observations, physicists are better able to test the validity of a theory in a logical, unbiased, and iterative way. To this end, experiments and observations are made in order to determine the validity or invalidity of a theory. A scientific law is a concise oral or mathematical statement of a relationship that expresses a fundamental principle of some theories, such as Newton's law of general attraction.
Theorists seek to develop mathematical models that are consistent with current experiments and predict the success of future experimental results, while experimentalists innovate and experiment to test theoretical predictions and explore new phenomena. Although theory and experiment are developed separately, they are very interdependent. Advances in physics occur frequently when experimentalists discover that existing theories cannot be explained, or when new theories generate experimentally testable predictions that inspire new experiments. Physicists who work at the interaction between theory and experiment are called phenomenologists, who study complex phenomena. Which were observed in the experiment and they are working to connect it with a fundamental theory.
Theoretical physics has historically been inspired by philosophy. Electromagnetism has been standardized in this way. Beyond the known universe, the field of theoretical physics also deals with hypothetical issues, such as parallel universes, multiple universes, and higher dimensions. Theorists invoke these ideas in the hope of solving certain problems with existing theories. Then they explore the consequences of these insights and make testable predictions

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