5^th International Conference on Quantum Physics and Mechanics November 25-26, 2020 Tokyo, Japan

The history of quantum field theory starts with its creation by Paul Dirac. He tried to quantize the electromagnetic field in the late 1920s. Major developments in the theory were made in the 1950s, and directed to the introduction of quantum electrodynamics (QED). QED was so successful and truly predictive that efforts were made to apply the same basic concepts for the other forces of nature. By the late 1970s, these efforts were successful in the utilization of gauge theory to the strong nuclear force and weak nuclear force, producing the modern standard model of particle physics. Efforts to describe gravity using the same techniques have, to date, failed. Learning of quantum field theory is still flourishing, as are applications of its methods to many physical problems. It remains one of the most vital areas of theoretical physics today, providing a common language to several different branches of physics.

Quantum mechanics is the subdivision of physics relating to the very small. At the scale of electrons and atoms, several equations of classical mechanics, which define how things move at everyday speeds and sizes, cease to be useful. In classical mechanics, the objects stay in an exact place at an exact time. However, in quantum mechanics, objects instead exist in a haze of probability; they have a certain chance of being at point A, another chance of being at point B and so on. Vital implementation of quantum theory consists of quantum superconducting magnets, chemistry, the laser and light-emitting diodes, semiconductors and the transistor such as the research, microprocessor and medical imaging such as magnetic resonance imaging and electron microscopy. Descriptions for several physical and biological phenomena are rooted in the nature of the chemical bond, most notably the macro-molecule DNA. The second quantum revolution takes profit of the phenomenon of entanglement. It's a usual phenomenon that basic researchers recognized as early as the 1930s. Until now, all the technologies you mentioned derive their utility from the wave property upon which quantum physics is based. Though, they are not perceived all things considered, quantum innovations are accordingly officially present and without them, many of our instruments would not be conceivable. The nature of entanglement has been known for past 85 years by contrast, has only been experimentally studied in the last four decades based on results by John Bell in the 1960s. Nowadays, entanglement forms the basis for various new potential applications such as quantum metrology, quantum communications and quantum computing. The second quantum revolution is usually understood to be the realization of these new possibilities.

Perhaps the greatest challenge of modern theoretical physics is the quantization of the gravitational field. A consistent theory of quantum gravity seems to be required to answer questions about the early universe and the nature of black holes. A few Candidate Theories have been advanced in the course of the most recent decades. From one perspective, Superstring Theory and Super Gravity go for a unification of gravity with the other key cooperation, and have their origins in QFT. Then again, non-perturbative methodologies, for example, Loop Quantum Gravity, Spin Foams and Group Field Theory continue from essential standards of General Relativity (GR). The first core area concerns the underlying structures and symmetries of these different theories, with the aim of distilling the crucial physical and mathematical objects for the correct formulation of quantum gravity. Among the endeavors to bring together quantum theory and gravity, string theory has attracted the most attention. Its premise is simple: Everything is made of tiny strings. The strings may be closed unto themselves or have loose ends; they can vibrate, stretch, join or split. Furthermore, in these complex appearances lay the clarifications for all wonders we watch, both matter and space-time included.

As per quantum physics attempted to enlarge into the nucleus of the atom, new strategies were required. The quantum theory of the atomic nucleus, and the particles that make it up, is called quantum chromodynamics (QCD). String theory arose out of an attempt to explain this same behavior. QED attempted to simplify the situation by only analyzing two aspects of the atom — the photon and the electron — which it could do by treating the nucleus as a giant, very distant object. The laws of subatomic physics dictate that individual quarks are never seen in the wild; they always travel around in twos or threes. At sufficiently high temperatures, however—such as those reached in a high-energy particle collider—protons and neutrons are thought to disintegrate into a soup, or plasma, of individual quarks and gluons, before cooling and recombining into ordinary matter. The small building blocks are antiquarks and quarks, in which all the stuff is built, binding together to form neutrons and protons in a procedure explained by quantum chromodynamics. Currently, scientists are searching for the existence of mesons that don't fit the traditional patterns. If a meson is found to weigh more than predictable, something else must be going on. Scientists call these hypothetical particles exotic mesons and believe that gluons play an important role in their structure.

The field of condensed matter physics discovers the microscopic and macroscopic properties of matter. Condensed Matter physicists study how matter arises from a large number of interacting atoms and electrons, and what physical properties it has as a result of these interactions. Monte Carlo techniques are effective computational instruments for studies of equilibrium properties of classical numerous molecule systems. Using a stochastic process for generating random configurations of the system degrees of freedom, such methods simulate thermal fluctuations, so that expectation values of physical observables of interest are directly obtained by averaging “measurements” on the configurations. The worldwide superconducting wire market was valued at USD 638.1 Million in 2016, and is required to develop at a CAGR of 9.6% from 2016 to 2021. The growing demand for superconductor based MRI systems, advancement in computer chip design technology, and synergies of high voltage transmission application and high efficiencies are the major factors driving the superconducting wire market. For the worldwide magnetic sensors market, the size is relied upon to achieve USD 3.65 billion by 2022 as indicated by another report by Grand View Research, Inc. Asia Pacific region dominates the global market in terms of demand and is projected to grow at a CAGR of nearly 12% over the forecast period. Existence of chief end-use industries in the region has prompted an expanding demand for such sensing modules in the region. Countries such as China, Japan, and India house most of the technological and automotive giants leading to an escalating demand over the forecast period.

Quantum transport is now inspected with great success in other experimental platforms as cold atomic systems and photonic. The study of quantum effects on transport properties has been a precious tool to unveil fundamental properties of quantum matter. At the same time, it has been the key to the design of new nano-devices with specific functionalities. The Global Heat Transfer Market is poised to grow at a CAGR of around 9.8% over the next decade to reach approximately $4.2 billion by 2025. This report estimates and forecasts for all the segments on global along with the regional levels presented in the research scope. Europe has the largest market share for heat transfer materials, followed by North America and Asia-Pacific. Europe accounted for more than one-third of global heat transfer fluid market. The major European market is in Spain and Germany. Asia-Pacific region is expected to witness higher growth rate compared to other regions. Europe is expected to remain the market leader owing to growing industrial expansion in the region. Emerging market in India and China is expected to raise the market share of Asia-Pacific in the global heat transfer market in upcoming future. The market size is calculated based on the revenue generated through sales from all the given segments and sub segments in the research scope. The market analysis includes bottom-up and both top-down approaches for exact measures and data validation.

Quantum optics utilizes quantum-mechanical and semi-established material science to look at wonders including light and its joint efforts with issue at sub tiny levels. Quantum dots (QD) are very small semiconductor particles, only several nanometres in size, so small that their optical and electronic properties differ from those of larger particles. The quantum dot market is relied upon to develop at a noteworthy CAGR rate; it holds an awesome potential to various industries, for example, purchaser, healthcare among others. The quantum dots technology is used in many applications due to the technological advancement such as low energy consumption, vibrant displays. The quantum dots market is estimated to grow at a CAGR of 63.23% from 2014 to 2020, which includes an in-depth analysis of the market by product, application, material, and geography. This report depicts market drivers, trends, and challenges concerning the worldwide quantum dots market, and forecasts the market size from 2014 to 2020, based on the materials, products, geography, and applications. This worldwide report gives a point by point perspective of the market across regions, specifically – North America (the U.S., Canada, Mexico), Europe (France, Germany, the U.K., Others), Asia-Pacific (Japan, China, India, South Korea, Rest of APAC), and RoW. The competitive landscape of the market presents a very interesting picture. The market is seeing new item dispatches, huge scale joint efforts, and agreements and partnerships over the esteem chain, with a number of tier-one players around the globe. Major players in the global quantum dot market include QD Vision, Inc. (U.S.), Nanosys, Inc. (U.S.), Nanoco Group Plc. (U.K.) among many others.

Theoretically, quantum computing aids in transmission power and processing, and will be capable of solving complex problems quicker than modern classical binary supercomputers. Quantum computing technology has potential to change dynamics in commerce, military affairs and strategic balance of power. Rising investments to progress quantum computing solutions for commercial applications is expected to support growth of the Global Quantum Computing Market. The U.S. Department of Energy announced its plans to invest US$ 16 Mn, with the objective to aid in designing new materials for supercomputers in August 2016. In September 2016, the Government of Canada announced its plans to invest in The University of Waterloo's Institute for Quantum Computing, a Canada based research institute, received a grant of US$ 76 Mn for the development of quantum technology solutions. A quantum computing research hub - Networked Quantum Information Technologies was formed by the UK Government under the UK National Quantum Technologies Programme (UKNQTP). The quantum computing market in Asia Pacific (APAC) is expected to be commercialized by 2019. The growth of quantum computing would be mainly in industries such as healthcare & pharmaceuticals, power & energy, defence, banking & finance, chemicals and the list goes on. Many researchers working on this domain would be attending the conference to share their valuable works and this would be a perfect platform to share yours with the global community.

Quantum technology is a new arena of engineering and physics. In quantum technology transitions some of the properties of quantum mechanics, especially quantum superposition, quantum entanglement and quantum tunnelling, into practical applications such as quantum sensing, quantum computing, quantum simulation, quantum cryptography, quantum imaging and quantum metrology. Quantum superposition states can be very sensitive to many external effects, such as electric, magnetic and gravitational fields; rotation, acceleration and time, and therefore can used to make very accurate sensors. Quantum secure correspondences are the methods which are anticipated to be 'quantum safe' in the approach of a quantum processing frameworks that could break current cryptography frameworks. One significant component of a quantum secure communication systems is expected to be Quantum key distribution, or 'QKD': a method of transmitting information using entangled light in a way that makes any interception of the transmission obvious to the user.

Nuclear physics is the field of science that studies about atomic nuclei, constituents and interactions. Nuclear Physics on the other hand, apprehensions itself with the particles of the nucleus called nucleons (protons & neutrons). The research in this field has led to many applications such as  nuclear power, nuclear weapons, nuclear medicine, nuclear magnetic resonance imaging. The modern nuclear physics includes nuclear fusion, nuclear fission, nuclear decay and Production of "heavy" elements using atomic number greater than five.

Quantum physics also known as quantum mechanics which includes the quantum field theory is a division of physics which describes the nature at the minimum scales of energy levels of subatomic particles and atoms. Quantum physics can release the separate performances of the subatomicparticles that consists all forms of matter (electrons, protons, neutrons, photons, and others). Heavy nucleus which contains hundreds of nucleons is treated as a quantum-mechanical one.

Nuclear reactor physics deals with the study and application of chain reaction to make a controlled rate of fission in a nuclear reactor for the production of energy. Many nuclear reactors use this chain reaction to bring a controlled rate of nuclear fission in fissile material which releases both energy and free neutrons. The reactor comprises of nuclear fuel, generally surrounded by a neutron moderator such as regular water, heavy water, graphite or zirconium hydride.

Nuclear engineering is the division of engineering, which is the analysis (fission) as well as the arrangement (fusion) of atomic nuclei or the application of other sub-atomic physics, based on the ideologies of nuclear physics. Nuclear engineering deals with the application of nuclear energy which includes nuclear power plants, submarine propulsion systems, food production, nuclear weapons and radioactive-waste disposal facilities. The field also includes the study of medical and other applications of radiation, nuclear safety and the problems of nuclear proliferation.

Nuclear Astrophysics is a combination of nuclear physics and astrophysics which studies about the nuclear reaction and nuclear-level processes that occur naturally in space. Nuclear astrophysics has the spectacular movement in modelling the structure and evolution of stars, as well as in the experimental and theoretical understanding of the atomic nucleus and of its spontaneous or induced transformations.

Radioactive decay is also known as nuclear decay and it occurs when an unsteady atom loses energy by emitting radiation such as alpha particle, beta particle, gamma rays or electron in the case of internal conversion. Radioactivity is the result of the decay or disintegration of unstable nuclei. This process of radioactive decay can be done using three primary methods; by spontaneous fission (splitting) into two fragments, a nucleus can change one of its neutrons into a proton with the done at the same time emission of an electron (beta decay), by emitting a helium nucleus (alpha decay).

Nuclear fission and Nuclear fusion are dissimilar types of reactions that release due to the formation of nuclei with higher nuclear binding energy. Nuclear fission is also a nuclear reaction or a radioactive decay process in which the nucleus of an atom splits into lighter nuclei, which produces neutrons and photons and also releases a large amount of energy. Nuclear fusion is a reaction in which two or more atomic nuclei collide at very high energy to form one or more altered atomic nuclei and subatomic particles.