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Introductory Chapter: The Testimony of Condensed Matter Physics - A Viewpoint on the Achievements and Their Applications

By Jagannathan Thirumalai

Submitted: February 26th 2020Reviewed: March 9th 2020Published: May 6th 2020

DOI: 10.5772/intechopen.92061

Downloaded: 217

1. A succinct testimony of advances in condensed matter physics

One of the important topics in the protuberant area of physics is condensed matter physics and it broadly encompasses the microscopic and macroscopic physical properties of materials. In condensed matter physics, the basic laws of general physics include quantum physics laws, electromagnetism, and statistical mechanics. There is a wide variety in the branch of condensed matter physics such as crystallography, metallurgy, elasticity, and magnetism. Again, this condensed matter physics is also known as solid state physics. Thus, basically, condensed matter physics deals with the solid state of substances. The study of condensed matter physics deals with the substances in their obstinate material or solid state by means of crystallography, quantum mechanics, electromagnetism, semiconductors, and metallurgy and looks after the theoretical concepts of materials science and so on. Further, the exploration comprises both crystalline and non-crystalline solids in which the position of atoms is in the form of ordered three-dimensional lattice, such as diamond and sodium chloride, and on the non-crystalline (amorphous) materials in which the position of atoms is more irregular, like in glass, respectively. Studies on condensed matter physics show significant properties in solid materials especially in the atomic scale. The structure and properties of materials in solids are a general subject matter of scientific community for epochs; however, a distinct area moving in the designation of solid state physics and did not materialized in anticipation of the 1940s. One of the largest branches of condensed matter physics is solid state physics. The industrial and solid state physicists developed that and only through the research on solid state materials, the scientific applications and innovations are made conceivable [1, 2, 3, 4, 5]. Gargantuan group of people of solid state physicists also transpired in Europe after World War II, more specifically in Germany, England, and the Soviet Union [1, 2, 3, 4, 5]. In the Europe and the United States, solid state condensed matter turns out to be a protuberant field based on its systematic explorations into semiconductors, dielectrics, magnetic materials, superconductivity, electron and nuclear magnetic resonance, and its relevant occurrences. However, in the period of Cold War, major researches focused on solid state physics were not limited to only solids, which led some physicists in the 1970s and 1980s to found the field of solid state condensed matter physics, which systematized the universal method used to scrutinize solids, liquids, plasmas, and additional complex matter [1, 2, 3, 4, 5]. Thus, solid state physics forms a theoretical basis of materials science. The main theme of solid state condensed matter physics is the exertion to interpret the well-established microscopic interactions, in many-body systems, into higher-level descriptions containing a smaller number of degrees of freedom. In the recent decades, the sophisticated nature of these protuberant fields has shown interesting properties and concomitant phenomena that frequently insinuate into a bonanza of fundamental physics. Though the viewpoint is mutable persistently with innovative discoveries, the elementary defies in condensed matter physics are to forecast and perceive novel phenomena and its materials properties are frequently assertive at the frontlines of quantum mechanics [2]. Today, condensed matter experiments are mainly deliberated on the nature and structure of condensed state of compact materials where relations between adjacent electrons, molecules, and atoms regulate the solid properties with crystal systems and so on. Also, in physics, condensed matter physics has got a unique niche. Progresses in this field of solid state condensed matter are ever so often important for scientific achievements and for enlightening our ultimate understanding about the nature of materials. A strong revolution instigated its rapid growth in condensed matter physics with strong investigation in physics of scattering, photonics, advanced materials physics, surface analysis, low-temperature physics, low-dimensional electronic systems, structure of biological chemistry, and high-temperature superconductors. However, most discoveries and inventions concern the goings-on of short historical achievements of condensed matter physics, as abridged in Table 1, with some additional literatures in condensed matter physics, on the basis of historical accomplishments in different eras.

PeriodHappenings/achievements/folksNobel laureatesRef.
-3000 BC
3000–500 BC
500 BC-
Early
Theories
ca. 1700
Eighteenth century
1712
1745
1796
1799
Nineteenth century
1802
1820
1839
1859
1853
1879
1897
Stone Age
Bronze Age
Iron Age
Demokritos: idea that an “atom” exists
Aristotle: all metals are a mixture of sulfur and mercury
Revival of the idea of an atom by Newton and others
Thomas Newcomen builds the first commercial steam engine to pump water out of mines
Musschenbroek and Kleist developed the Leyden jar, an early form of capacitor
Alois Senefelder invents the lithography printing technique
George Medhurst invents the first motorized air compressor
Physics is considered to be “solved” by classical mechanics, electromagnetism, and thermodynamics. Metallurgy becomes important and is described by empirical laws
Humphry Davy invents the arc lamp
Classification of crystal symmetries (Brillouin)
Edmond Becquerel invents a method for the photovoltaic effect, effectively producing the first solar cell
Gaston Planté invents the first rechargeable (lead acid) battery
Wiedemann-Franz Law (for thermal and electrical conductivity)
Hall effect
Thomson discovered the electron using a cathode ray tube
[1, 2, 3, 4]
1900
1911
1912
1913
1905
1907–1913
1920s
1925–1928
1926–1928
1928–1933
1947
Drude (and Lorentz): classical electron gas in metals
Onnes (and Holst) discover superconductivity in mercury
Van Laue discovers diffraction of X-rays by crystals
W.H. & W.L. Bragg use X-rays to analyze crystals
Fundamentals of photoemission (Einstein)
Specific heat of solids (Einstein, Debye, and Born)
Raman scattering
Electron diffraction (Davisson, Thomson)
Quantum mechanics (Schrödinger, Heisenberg, Pauli, and Dirac)
Sommerfeld, Pauli: the electron gas with Dirac statistics
The quantum theory of an electron in a solid.
Band structure (Bloch, Peierls, Brillouin, Van Vleck)
Magnetism (Pauli, Landau, Heisenberg, Bethe)
Transistor effect (Shockley, Bardeen, Brattain)
Onnes 1913
Van Laue 1914
H&L. Bragg 1915
Einstein 1921
Raman 1930
D., T. 1937
Anderson, Mott, Van Vleck 1977
Alvén, Néel 1970
S., B., B. 1956
1950s
1950
Late 1950s
1956
1957
1958
1960s
1970s
1972
1980
1982
1985
1986
1988
1988
1991
1995
Development of quantum field theory (Feynman, etc.)
Ginzburg-Landau: phenomenological theory of superconductors
Theory of interacting electrons in solids (Landau, Migdal)
Neutron scattering and diffraction (Brockhouse, Shull)
Invention of the transistor
Bardeen, Cooper, Schriefer: theory of superconductivity
Josephson effect of electron tunneling in superconductors
The understanding of the resistance minimum in metals: the Kondo effect (Kondo, Anderson 1969)
Density functional theory (Kohn, Pople)
Theory of liquid crystals
The renormalization group
Superfluid He3 (Lee, Osheroff, Richardson)
The integer quantum hall effect
The fractional quantum hall effect (Tsui, Störmer, Laughlin)
Fullerenes C60 (Curl, Kroto, Smalley)
Discovery of high-temperature superconductivity
Discovery of the muon neutrino
Giant magnetoresistance
Carbon nanotubes (Iijima)
Experimental Bose-Einstein condensation (Ketterle, Cornell, Wieman)
Ginzburg, Leggett, Abrikosov, 2003
Landau 1962
B.,S., 1994
W. Shockley, J. Bardeen, and W. Brattain
B.,C.,S. 1972
Esaki, Giaever, Josephson 1973
Anderson, Mott, Van Vleck 1977
1998 (Chemistry)
de Gennes 1991
Wilson 1982
L.,O.,R. 1996
von Klitzing 1985
T, S., L. 1998
1996 (Chemistry)
Müller, Bednorz 1987
Lederman, Schwartz & Steinberger, 1988
Fert, Grünberg 2007
K., C.,. W. 2001
2003
2007
2008
2009
2010
2012
2013
2014
2015
2016
2017
2018
2019
Single graphene sheets discovered
Discovery of giant magnetoresistance (GMR)
Discovery of the mechanism of spontaneous broken symmetry in subatomic physics
Invention of an imaging semiconductor circuit-the CCD sensor
Two-dimensional material graphene
Measuring and manipulation of individual quantum systems
Discovery-understanding the origin of mass of subatomic particles
Invention of efficient blue light-emitting diode
Discovery of neutrino (have mass) oscillations
Theoretical discoveries of topological phase transitions and phases of matter
Decisive contributions to the LIGO detector and the observation of gravitational waves
Invention-laser physics: optical tweezers and their application to biological systems
Invention-laser physics: generating high-intensity, ultra-short optical pulses
Theoretical discoveries in physical cosmology
Discovery of an exoplanet orbiting a solar-type star
Geim, Novoselov 2010
Fert, Grünberg 2007
Yoichiro Nambu, 2008
Boyle, Smith, 2009
Geim, Novoselov, 2010
Haroche, Wineland, 2012
Englert, Higgs, 2013
Akasaki, Amano, Nakamura, 2014
Kajita, McDonald, 2015
Haldane, Kosterlitz, 2016
Thorne, Barish, 2017
Ashkin, 2018
Mourou, Strickland, 2018
Peebles, 2019
Mayor, Queloz, 2019

Table 1.

Squat historical achievements of condensed matter physics.

Courtesy:


Ref. [1].


Ref. [3].


Ref. [4].


Ref. [5].


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2. Topical advancements in recent advancements in the field of condensed matter and materials physics

The recent advancements in the field of condensed matter and aterials physics through fabrication of electronic devices such as computers and mobiles, opto-electronic devices such as fiber optics and lasers with different types, magnetic devices such as magnetic resonance imaging (MRI) and vibrating magneto devices, silicon-based logic and memory bits. The entire perception of contemporary technology is established upon the ideologies of condensed matter and materials physics. Routine things like the building that is made up of electrical wiring, the windowpane, and a refrigerator door equipped with the magnet, are all reliant on the principles resultant from condensed matter and materials physics. Further, Table 2 shows the list of recent advancements in the field of condensed matter and materials physics.

FieldStudies/applicationExperiments (examples)
Superconductors
  • Iron pnictidesuperconductor family

  • F-doped LaOFeAs [6]

  • Majorana fermions(particles that are their own antiparticle)

  • Gauge bosons and Higgs bosons [7]

  • Plutonium-based heavy-fermion systems

  • Plutonium, owing to strong electron-electron interactions [8]

  • Superconducting qubitsallow arbitrary rotations in the Bloch sphere with pulsed microwave signals, thus implementing arbitrary single qubit gates

  • Superconducting qubitsare leading candidates in the reach of modern supercomputers [9]

Topological materials
  • First example of a conducting material with a nontrivial electronic structure topology

  • Weyl metal [10]

  • Isolated quantum many-body systems (statistical and quantum physics)

  • Ultra cold quantum gases [11]

  • Symmetry-protected topological (SPT) phases

  • Topological defects [12]

  • Anyon condensation is the inverse process of passing from C/G to C

  • Bose condensation is central to our understanding of quantum phases of matter [13]

Spin liquids
  • Nematic Fermi fluids

    Correlated electron fluids can exhibit a startling array of complex phases, among which one of the more surprising is the electron nematic, a translationally invariant metallic phase with a spontaneously generated spatial anisotropy

  • Sr3Ru2O7 [14]

  • Non-Fermi liquids are unconventional metals whose physical properties deviate qualitatively from those of noninteracting fermions due to strong quantum fluctuations near Fermi surfaces

  • Non-Fermi liquid,also known as “strange metal,”also called the Luttinger liquid[15]

Water science
  • Fouling resistant oil–waterseparation

  • Superhydrophilic lithium exchanged vermiculite as a thin coating layer on microfiltration membranes to resist fouling [16]

  • Swimming dropletsare artificial microswimmers based on liquid droplets that show self-propelled motion when immersed in a second liquid

  • Mechanisms involve self-propulsion, microswimmers, Marangoni stress in the biological systems [17]

  • Wave turbulence on water surface-gravity waves on the surface of an infinitely deep fluid

  • Nonlinear Hamiltonian equations govern the water-wave system and describe the premises of the weak wave turbulence theory [18]

Quantum materials & spintronics
  • Fractonphases constitute a new class of quantum state of matter

  • Emergent topological quasiparticle excitation [19]

  • Quantum spin Hall effect

    It is a state of matter proposed to exist in special, two-dimensional, semiconductors that have a quantized spin-Hall conductance and a vanishing charge-Hall conductance

  • Crystalline solids, and ferromagnets [20]

  • Quantum anomalous Hall effect

    Quantized Hall effect realized in a system without an external magnetic field

  • Topological structure in many-electron systems and may have potential applications in future electronic devices [21]

  • Quantum Monte Carlo simulationsencompass a large family of computational methods whose common aim is the study of complex quantum systems

  • Quantum criticality, quantum spin liquid [22]

  • Quantum turbulence-the chaotic motion of a fluid at high flow rates (cooled to temperatures close to absolute zero)

  • 4He (He II) & 3He-B (Type-II SC) [23]

  • Quantum-thermal fluctuationsof electromagnetic waves are the cornerstone of quantum statistics and inherent to phenomena such as thermal radiation and van der Waals forces

  • Three manifestations: (a) the Stefan-Boltzmann law, (b) the heat transfer between two bodies, (c) Casimir forces [24]

  • Spintronics encompasses the ever-evolving field of magnetic electronics

  • Switching magnetic moments by spin-polarized currents, and photonic fields [25]

Magnetoelectric (ME)
  • Multiferroics are materials that combine coupled electric and magnetic dipoles

  • Magnetoelectric effect, spiral magnetic order [26]

Physics with atoms in an optical lattice and some theorems
  • The Fermi-Hubbard modelis a key concept in condensed matter physics and provides crucial insights into electronic and magnetic properties of materials

  • Key experiments in the metallic, band-insulating, superfluid, and Mott-insulating regimes [27]

  • Nambu-Goldstone modes(NGMs) that govern the low-energy property of the system

  • This theorem ranges from high-energy, particle physics to condensed matter and atomic physics [28]

Medical
  • Arrhythmogenesiswas one of the first biomarkers of particulate matter (PM) cardiovascular toxicity observed in controlled animal studies

  • Cardiac arrhythmias, excitable media, spiral & scroll waves, turbulence, nonlinear dynamics [29]

  • Viral Shells-studied the condensed matter physics to the assembly and maturation of viral capsids [30]

  • Three-dimensional morphological subunits in a protein shell of a virus

  • Apiece organismfollows its own evolutionary course and it also obeys a set of common (Newton’s law to Neurons) laws

  • Insect flight-physics of behavior (fly must sense its orientation in order to balance in air) [31]

  • Intracellular oscillations and waves-dynamic processes in living cells are highly organized in space and time

  • At the interface between physics and biology, the underlying molecular mechanism of spatiotemporal formation remains owing defies [32]

Table 2.

List of recent advancements in the field of condensed matter physics and materials physics.

3. Conclusion

In summary, condensed matter physics is living in the form of several technical and high-tech challenges in our everyday life. The field of condensed matter and materials physics finds major developments and brings out the rudimentary comprehending toward the concepts, phenomena, and materials that facilitate scientific improvements and leads to entering into a new-fangled epoch, motivated by new competences in the research related to neutron, cyclotron, and synchrotron, probing and imagining in the atomic scale, nano−/micro-fabrication, and supercomputing, etc. These competencies offer prospects to scrutinize the nature of materials at complex levels with degrees of microscopic control that are exceptional. The modern era providing assurances to revolutionize the systematic technological advancements in preparing materials which leads in developing the knowledge elsewhere and through the physics of impeccable coordination the tangible solid materials that develop day-to-day environment. Understanding the basic concepts and techniques in the opto-electronic process provides information about the assemblies of multifaceted atoms and multicomponent materials and phenomena of non-equilibrium, and biological ideologies will stimulate improvements in technological scale from micro-/nano-electronics to structure of materials to the field of medicine. The new era retains the possibilities of ground-breaking advancements in condensed matter physics that will subsidize the national security, economic growth, and the excellence of life.

Acknowledgments

All authors contributed toward data analysis, drafting, and revising the paper and agree to be accountable for all aspects of the work.

The authors apologize for inadvertent omission of any pertinent references.

Conflict of interest

The authors declare that there is no conflict of interests regarding the publication of this paper.

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Jagannathan Thirumalai (May 6th 2020). Introductory Chapter: The Testimony of Condensed Matter Physics - A Viewpoint on the Achievements and Their Applications, Advances in Condensed-Matter and Materials Physics - Rudimentary Research to Topical Technology, Jagannathan Thirumalai and Sergey Ivanovich Pokutnyi, IntechOpen, DOI: 10.5772/intechopen.92061. Available from:

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