Armand Colin , Collection Armand Colin Malicorne sur Sarthe, 72, Pays de la Loire, France 1951 Book condition, Etat : Bon broché, sous couverture imprimée éditeur crème et bleue, plastifiée petit In-8 1 vol. - 224 pages
69 figures dans le texte en noir et blanc 4eme édition refondue, 1951 Contents, Chapitres : Introduction, définitions et lois fondamentales - Le diamagnétisme - Le paramagnétisme, gaz parfaits et solutions étendues - Théories quantiques du magnétisme - Les paramagnétiques à champ moléculaire - Le ferromagnétisme - Théorie du ferromagnétisme - Etude détaillée de la courbe d'aimantation - Ferromagnétisme des cristaux - Propriétés énergétiques des ferromagnétiques - Sur le mécanisme de l'aimantation et de l'hystérèse, et le phénomène de Barkhausen - La nature et propriétés du champ moléculaire - Les moments atomiques - Pierre Ernest Weiss, né le 25 mars 1865 à Mulhouse (Haut-Rhin) et mort le 24 octobre 1940 à Lyon, est un physicien français spécialiste du magnétisme, c'est-à-dire des mécanismes qui provoquent l'aimantation des matériaux. Il a cherché en particulier à savoir pourquoi et comment une substance comme le fer peut s'aimanter de façon forte et permanente alors que la plupart des autres matériaux restent inertes ou s'aimantent faiblement et transitoirement quand ils sont mis en présence d'un champ magnétique. Pierre Weiss a fait d'importantes découvertes théoriques qui l'ont conduit à inventer des électroaimants très puissants. Il a enseigné à Rennes, à Lyon, à l'École polytechnique fédérale de Zurich dont il avait été élève, et enfin à Strasbourg. Dans ces Universités, il a fondé des laboratoires renommés par leurs recherches et par les chercheurs qui s'y sont formés. - Pierre Weiss s'intéresse aux propriétés magnétiques de la matière en présence d'un champ magnétique extérieur. Ses recherches s'inscrivent dans une longue série de travaux initiée par Michael Faraday en 1845 et poursuivie par André-Marie Ampère, James Clerk Maxwell, James Ewing, Pierre Curie et Paul Langevin. Ces travaux se développent dans le cadre de la physique classique complétée par la thermodynamique statistique de Ludwig Boltzmann. Pierre Weiss prend le relais des travaux de Curie et Langevin. Il jette les fondements de la théorie du ferromagnétisme qui sera, par la suite, réinterprétée par Werner Heisenberg et Niels Bohr en 1929 dans le cadre de la mécanique quantique. Et c'est Louis Néel, un élève de Pierre Weiss, qui poursuit ces recherches pour lesquelles il obtient le Prix Nobel de Physique en 1970. (source : Wikipedia) couverture plastifiée, transparente, un peu jaunie avec d'infimes traces de pliures, plusieurs manques de papier au dos, sous le plastique, intérieur en bon état, papier un peu jauni, cela reste un bon exemplaire de lecture, complet et sain - format de poche
Armand Colin. 1941. In-12. Relié. Bon état, Couv. convenable, Dos satisfaisant, Papier jauni. VIII + 215 pages - nombreuses figures en noir et blanc dans le texte - auteur, titre, filets dorés sur pièce de titre.. . . . Classification Dewey : 530-Physique
Collection armand colin section de physique n°71. Classification Dewey : 530-Physique
Wien & Leipzig, Wilhelm Braumüller, 1898-99. Bound in 2 contemp. half calf bindings.Stamp on titlepage. XVIII,350VIII,255 pp.
Berlin, Springer, 1935. 8vo. Bound in contemporary half cloth with gilt lettering, In ""Zeitschrift für Physik"", Band 96, 1935. Entire issue offered. Two stamps to title page, otherwise fine. Pp. 431-458. [Entire volume :VIII, 801 pp].
First printing of Weizsäcker's exceedingly important paper containing the first appearance of Bethe-Weizsäcker formula, or Semi-Empirical Mass Formula (SEMF), a theoretical formula relating the curve of nuclear binding energy, nuclear masses, and certain other nuclear properties.In nuclear physics, the semi-empirical mass formula (SEMF) (sometimes also called Weizsäcker's formula, the Bethe-Weizsäcker formula, or the Bethe-Weizsäcker mass formula to distinguish it from the Bethe-Weizsäcker process) is used to approximate the mass and various other properties of an atomic nucleus. As the name suggests, it is based partly on theory and partly on empirical measurements. The theory is based on the liquid drop model proposed by George Gamow, which can account for most of the terms in the formula and gives rough estimates for the values of the coefficients. Although refinements have been made to the coefficients over the years, the structure of the formula remains the same today.The present volume also contain conttributions by Wener Heisenberg: Die Struktur der leichten Atomkerne.
Berlin, Springer, 1935. 8vo. Bound in contemporary half cloth with gilt lettering, In ""Zeitschrift für Physik"", Band 96, 1935. Entire issue offered. Stamp to front free end-paper. Fine and clean. Pp. 431-458. [Entire volume :VIII, 801 pp].
First printing of Weizsäcker's exceedingly important paper containing the first appearance of Bethe-Weizsäcker formula, or Semi-Empirical Mass Formula (SEMF), a theoretical formula relating the curve of nuclear binding energy, nuclear masses, and certain other nuclear properties.In nuclear physics, the semi-empirical mass formula (SEMF) (sometimes also called Weizsäcker's formula, the Bethe-Weizsäcker formula, or the Bethe-Weizsäcker mass formula to distinguish it from the Bethe-Weizsäcker process) is used to approximate the mass and various other properties of an atomic nucleus. As the name suggests, it is based partly on theory and partly on empirical measurements. The theory is based on the liquid drop model proposed by George Gamow, which can account for most of the terms in the formula and gives rough estimates for the values of the coefficients. Although refinements have been made to the coefficients over the years, the structure of the formula remains the same today.The present volume also contain conttributions by Wener Heisenberg: Die Struktur der leichten Atomkerne.
Erlangen, 1910 xviii + 179pp., with 103 illustrations in text, 23cm., Doctoral Dissertation ("Inaugural-Dissertation zur Erlangung der Doktorwürde der hohen philosophischen Fakultät der Friedrich-Alexanders-Universität Erlangen"), stamp at verso of title page, text is clean and bright, W115256
[Librairie Polytechnique Ch. Béranger, Successeur de Baudry et Cie] - WERNICKE, Karl ; HALPHEN, A.
Reference : 63798
(1909)
Traduit de l'allemand par A. Halphen, 1 vol. in-8 reliure éditeur pleine percaline bordeaux, Librairie Polytechnique Ch. Béranger, Successeur de Baudry et Cie, Paris, 1909, 2 ff., II-181 pp. et 8 pp. (catalogue de livres sur l'électricité).
Bon état
P., Bachelier, 1848, in-8°, (6)-114-28-12-45-43-135-30 pp, 4 pl. lithographiées dépliantes hors texte, reliure demi-chagrin vert, dos à 4 nerfs pointillés et fleurons dorés, titres dorés (rel. de l'époque), bon état. Rare. 1. Mémoire sur l'élasticité et sur la cohésion des métaux. 2. Mémoire sur l'élasticité et sur la cohésion des alliages. 3. Mémoire sur l'influence du courant galvanique et de l'électro-magnétisme sur l'élasticité des métaux. 4. Mémoire sur les sons produits par le courant électrique. 5. Note sur l'élasticité et sur la cohésion des différentes espèces de verre (par E. Chevandier et G. Wertheim). 6. Mémoire sur l'équilibre des corps solides homogènes. 7. Mémoire sur la vitesse du son dans les liquides. 8. Mémoire sur les propriétés mécaniques du bois (par E. Chevandier et G. Wertheim). 9. Mémoire sur l'élasticité et sur la cohésion des principaux tissus du corps humain.
Désormais les frais d'envoi sont de 6 € seulement pour les livres jusqu'à 1 kg (colissimo suivi), pour la France métropolitaine.
Stockholm, Almqvist & Wiksells 1953, 305x230mm, 50pages, paperback.
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P., Eyrolles, 1931, grand in 8° broché, 191 pages ; illustrations et figures ; couverture fanée.
Cours professé à l'école spéciale des travaux publics. ...................... Photos sur demande ..........................
Phone number : 04 77 32 63 69
P., Blanchard, 1922, un volume in 8, broché, couverture imprimée (légèrement défraîchie), 8pp., 290pp.
---- PREMIERE EDITION FRANCAIS ---- "H. Weyl, the most universal mathematicians of his generation, had an important role in the development of mathematical physics, the field to which his most famous books, Raum, Zeit und Materie (1918), on the theory of relativity, and Gruppentheorie und Quantenmechanik, are devoted". (DSB XIV pp. 281/285)**5283/M6DE-CAV/F4(3)
Erlangen, Weltkreis-Verlag, 1926. Orig. printed wrappers. Offprint/Sonderdruck des Symposion heft 3. (1),32 pp. Owners name on top of titlepage.
First edition.
Leipzig und Berlin, B.G. Teubner, 1913. Orig. green printed wrappers. Frontwrapper nearly loose but without loss. Backstrip faded. Very small nicks to spineends. IX,(1),169,(1) pp. + Publishers catalogue. Textillustrations. Internally clean and fine.
Scarce first edition. As privatdozent Hermann Weyl had given a course on Riemann's theory of functions" but instead of following his predecessors in their constant appeal to intuition for the definition and properties of Riemann surfaces, he set out to give to their theory the same kind of axiomatic and rigorous treatment that Hilbert had given to Euclidean geometry. Using Hilbert's idea of defining neighborhoods by a system of axioms, and influenced by Brouwer's clever application of Poincare's simplicial methods (which had just been published), he gave the first rigorous definition of a complex manifold of dimension 1 and a throughout treatment (without any appeal to intuition) of all the questions regarding orientation, homology, and fundamental groups of these manifolds. ""Die Idee der Riemannschen Fläche"" (1913) immediately became a classic and inspired all later developments of the theory of differential and complex manifolds.(J.Dieudonne in DSB).
Berlin, Julius Springer, 1928. 8vo. Contemp. hcloth. Gilt lettering to spine. In: Zeitschrift für Physik, Vol. 46. VII,902 pp. (Entire volume offered). Weyl's paper: pp. 1-46. Clean and fine.
First printing of the paper in which Weyl developed the concept of continous groups by using matrix representations in dealing with the mathematical formalism of quantum theory.
Berlin, Julius Springer, 1928. 8vo. Bound in contemporary half cloth with gilt lettering, In ""Zeitschrift für Physik"", Band 46, 1928. Entire issue offered. Two stamps to title page, otherwise fine. Pp. 1-46. [Entire volume: VII, 902 pp].
First printing of the paper in which Weyl developed the concept of continous groups by using matrix representations in dealing with the mathematical formalism of quantum theory.
Berlin, Julius Springer, 1927. 8vo. In contemporary half cloth with gilt lettering to spine. In ""Zeitschrift für Fhysik"", vol. 46. Entire volume offered. Library stamp to title page. Pp. 1-46. [Entire volume: VII, (1), 902 pp.].
First printing of Weyl's exceedingly important paper which initially did not attract much attention but ""its repercussion turned out to be remarkably strong in the long range"". (Scholz, Weyl Entering the ’New’ Quantum Mechanics Discourse , p. 14). In it Weyl put forth an analysis of the foundations of quantum mechanics.""Weyl's (1927) paper, referred to by Yang above, is entitled Quantenmechanik und Gruppentheorie (Quantum Mechanics and Group Theory). In it, Weyl provides an analysis of the foundations of quantum mechanics and he emphasizes the fundamental role Lie groups play in that theory. Weyl begins the paper by raising two questions: (1) how do I arrive at the self-adjoint operators, which represent a given quantity of a physical system whose constitution is known, and (2), what is the physical interpretation of these operators and which physical consequences can be derived from them? Weyl suggests that while the second question has been answered by von Neumann, the first question has not yet received a satisfactory answer, and Weyl proposes to provide one with the help of group theory."" (SEP)Weyl’s approach to quantization was so general that for decades to come it did not attract much attention of physicists. At the beginning it even attracted very few successor investigations inside mathematics and was not noticed in the foundation of QM discourse, which was exclusively shaped by the Hilbert and von Neumann view until the 1950s. Although the immediate reception of Weyl’s early contributions to QM until about 1927, in particular his (Weyl 1927), was very sparse, its repercussion turned out to be remarkably strong in the long range:""1. A first and immediate next step was made by Marshall Stone and John von Neumann. They both took up Weyl’s statement of a uniquely determined structure of irreducible unitary ray representations. The result of this work is (for finite n) the now famous Stone/von Neumann representation theorem.2. A second line of repercussions may be seen in that part of the work of E. Wigner and V. Bargmann, which dealt with unitary and semi-unitary ray representations. In particular Wigner’s now famous work (at the time among physicists completely neglected) on the irreducible unitary ray representations of the Poincar´e group (Wigner 1939) looks like a next step beyond Weyl’s non-relativistic quantum kinematics from 1927. 3. A third impact is clearly to be seen in George Mackeys’s work. Mackey expressedly took up Weyl’s perspective (Mackey 1949) and developed it into a broader program for the study of irreducible unitary representations of group extensions.4.Finally, Weyl quantization was taken up by mathematical physicists from the later 1960s onwards with the rise of deformation quantization (Pool 1966). Here the starting point was the idea to translate the operator product introduced by Weyl’s own quantization.The last two points lead straight into very recent developments of mathematical physics."" (Scholz, Weyl Entering the ’New’ Quantum Mechanics Discourse).
Leipzig, Ambrosius Barth, 1917. 8vo. In full black cloth with gilt lettering to spine. In ""Annalen der Physik"", Vierte Folge, Band 54. Entire volume offered. Library labels to front end papers and stamp to title page, otherwise fine and clean. Pp. 117-145. [Entire volume: (2), 626, VIII pp. + 3 plates.].
First appearance of Weyl's first paper on gravitation and Einstein's theory of relativity.
Leipzig, Ambrosius Barth, 1919. 8vo. In contemporary half cloth with gilt lettering to spine. In ""Annalen der Physik"", Vierte Folge, Band 59. Entire volume offered. Hinges weak a library labels pasted on the pasted down front free end paper. Stamp to title page, othrewise a fine copy. Pp. 101-133"" Pp. 743-752. [Entire volume: VII, (1), 760 pp.].
First printing of WEYL ambitious paper in which he used the Stoney units, named after the Irish physicist George Johnstone Stoney, to unify quantum processes and gravity thereby seeking to create a ""Unified Field Theory"". The paper appears to have inspired Dirac's fascination with the large number hypothesis.Also contain in this volume is the first appearance of EÖTVÖS' important paper in which he explains the eastward deflection of falling objects. In the paper, he also describes a device with which the effect can be demonstrated experimentally.The Eötvös effect is the change in perceived gravitational force caused by the change in centrifugal acceleration resulting from eastbound or westbound velocity. When moving eastbound, the object's angular velocity is increased (in addition to the earth's rotation), and thus the centrifugal force also increases, causing a perceived reduction in gravitational force. This phenomenon had been observed in the early 20th century on research ships on which gravity was measured" they noticed that measurements of g yielded smaller values when the ship went eastward, and larger ones when they went westward. These observations are mentioned by Eötvös in a paper in which he provides the explanation of the effect.
(London, Richard Taylor, 1833). 4to. No wrappers as extracted from ""Philosophical Transactions"" 1833 - Part II. Pp. 593-633 and many tables with vibrating figs. Clean and fine.
First printing of this classic paper on acoustics.""Wheatstones interest in acoustics was basically inspired by his desire to understand properties of a tone, such as timbre, interms of vibration. During the fifteen years he worked on acoustics, he investigated the mechanical transmission of sound, visible demonstrations of vibrations, and properties of the vibrating air column...""(DSB XIV, p. 289).
1968. 8vo. Entire issue of The American Scholar in the original printed wrappers. A slight bump to upper spine, otherwise exceptionally fresh, clean, and bright. Internally near mint. Wheeler: pp. 248-274. With an illustration of a black hole and diagrams in the text. [Entire volume: (17) pp. + pp. 210-378).
First printing of the seminal paper that coined the term ""black hole"", giving name to a then peculiar and controversial field of study that today is considered one of the most important in modern physics and a key to understanding the universe. ""In 1968, physicist John Archibald Wheeler popularized the term ""black hole"" to describe collapsed stars that have undergone total gravitational collapse, leading to a singularity from which no light can escape... Wheeler's introduction of the term helped to demystify the concept of black holes and fostered greater public and scientific interest in the field. His pioneering research contributed to the understanding of the potential existence of black holes as significant energy sources, particularly in the centers of galaxies, and positioned him alongside other prominent figures in theoretical physics. The ongoing search for black holes, including candidates like Cygnus X-1, continues to inspire research and deepen our understanding of fundamental cosmic phenomena and the fabric of space-time."" (Zabilka). A black hole is a supermassive star that has collapsed due to exhausting its supply of nuclear fuel, and therefore gravity compresses it into a superdense sphere that absorbs anything that approaches it"" not even light can escape. John Archibald Wheeler was a pioneer in black hole research and responsible for popularizing our undersatnding of this complex phenomenon. He was a prominent physicist and mentor for Nobel prize winner, Kip S. Thorne. ""John Archibald Wheeler is a major figure in twentieth century particle and gravitational physics. Along with Schwarzschild, Oppenheimer, Roy Kerr, and Stephen W. Hawking, he stands as a pioneer in the understanding and theory of black holes. Among the most significant contributions Wheeler made was breaking down the psychological barrier that exists for scientists and public alike to believe in something that has an esoteric name. By giving the singularity a common name like black hole, Wheeler put it within reach and made acceptance of the unusual theoretical results easier. Wheeler’s timing was also impeccable. While Wheeler and many others, especially Hawking, had been studying singularities for several years immediately after the radio discovery of the pulsars and their explanation in terms of neutron stars, the total collapse into singularities was the next logical step. By giving these objects a catchy name, Wheeler was able to bring them to attention and start the massive outpouring of interest that followed. Black holes provide clues to the resolution of outstanding difficulties in cosmology. They have been proposed as explanations of the missing mass needed to bring the mass of the universe to a level where the expansion will be slow and eventually reverse into the next phase of collapse. They have been proposed as a source of the massive energy outpouring of the quasars. Further, they appear to hold significant implications for studies in the field of general relativity. Wheeler has pioneered in seeking a theory that would combine quantum physics and general relativity into a theory of quantum gravity, a first step in formulating the long-sought unified field theory in relativity studies. At the present time, relativistic equations break down when confronted with the infinite forces and gravity of a singularity. The most fruitful consequence of the naming and study of black holes has been the significant research stimulated by the effort to find black holes. While incontrovertible proof is not yet available, Cygnus X-1 and two or three other dynamical doubles where objects on the order of 10 solar masses are invisible are circumstantial candidates for status as black holes. The search to strengthen the evidence continues, and exciting results will continue to develop.""
New Haven: Yale University Press, 1951. 8vo. Publishers full cloth. XII,264 pp.
London, Richard Taylor, 1836. 4to. Contemp. hcloth. Spine with gilt lettering. Stamp on title-page. (2),pp.289-341 and 3 large folded maps, 1 folded plate. Offprint with own title-page from ""Philosophical Transactions, Part II. for 1836."" Inscribed by Whewell on top of title-page ""The Minister of Marine, denmark/ from/ The Author.""
First edition. The paper summarises Whewell's importent observations on the tides,
Oxford, Clarendon Press, 1951. Orig. full cloth. XV, 271 pp. Old inscription on flyleaf.
A Dutton Book Malicorne sur Sarthe, 72, Pays de la Loire, France 1992 Book condition, Etat : Bon hardcover, editor's full black and brown clothes, no dust-jacket grand In-8 1 vol. - 315 pages
1st edition Contents, Chapitres : Contents, Preface, Acknowledgments, xi, Text, 304 pages - The day Galileo died - Classical cosmology - Going up - Doctors and doctorates - From Black Holes to the Big Bang - Marriage and fellowship - Singular solutions - The breakthrough years - When Black Holes explodes - The foothills of fame - Back to the beginning - Science superstardom - When the Universe has babies - A Brief History of Time - The end of physics ? - Hollywood, fame and fortune - References and index no dust-jacket, else fine copy, no markings
Troisième édition refondue et augmentée, 1 vol. in-8 br., H. Dunod et E. Pinat, Paris, 1909, VIII-73 pp.
Bon état (couv. lég. frottée)