79,160 research outputs found

    R.I.O. 1973, p. 79. Lettre de M. Emile Lambert, le 10.2.1973

    No full text
    Lambert Émile. R.I.O. 1973, p. 79. Lettre de M. Emile Lambert, le 10.2.1973. In: Revue Internationale d'Onomastique, 25e année N°3, juillet 1973. pp. 227-228

    Aspects of supersymmetry in multiple membrane theories

    No full text
    PhDThis thesis consists of two parts. In the rst part we investigate the worldvolume supersymmetry algebra of multiple membrane theories. We begin with a description of M-theory branes and their intersections from the perspective of spacetime and worldvolume supersymmetry algebras. We then provide an overview of the recent work on multiple M2-branes focusing on the Bagger-Lambert theory and its relation to the Nambu-Poisson M5-brane and the ABJM theory. The worldvolume supersymmetry algebras of these theories are explicitly calculated and the charges interpreted in terms of spacetime intersections of M-branes. The second part of the thesis looks at l3 p corrections to the supersymmetry transformations of the Bagger-Lambert theory. We begin with a review of the dNS duality transformation which allows a gauge eld to be dualised to a scalar eld in 2+1 dimensions. Applying this duality to 02 terms of the non-abelian D2-brane theory gives rise to the l3 p corrections of the Lorentzian Bagger-Lambert theory. We then apply this duality transformation to the 02 corrections of the D2-brane supersymmetry transformations. For the `abelian' Bagger-Lambert theory we are able to uniquely determine the l3 p corrections to the supersymmetry transformations of the scalar and fermion elds. Generalising to the `non-abelian' Bagger-Lambert theory we are able to determine the l3 p correction to the supersymmetry transformation of the fermion eld. Along the way make a number of observations relating to the implementation of the dNS duality transformation at the level of supersymmetry transformations

    R.I.O., 1967 et 1968 : Relevé toponymique du canton de Meulan, lettre de M. Emile Lambert, 1er juin 1968

    No full text
    Lambert Émile. R.I.O., 1967 et 1968 : Relevé toponymique du canton de Meulan, lettre de M. Emile Lambert, 1er juin 1968. In: Revue Internationale d'Onomastique, 21e année N°1, mars 1969. p. 75

    M. H. Torczyner (Die Bundeslade und die Anfänge der Religion Israels, p. 217-297)

    No full text
    Lambert Mayer. M. H. Torczyner (Die Bundeslade und die Anfänge der Religion Israels, p. 217-297). In: Revue des études juives, tome 75, n°150, octobre-décembre 1922. pp. 221-222

    Multiple membranes in M-theory

    No full text
    JB acknowledges support from the U.S. National Science Foundation, grant NSF-PHY-0910467. NL was supported in part by STFC grant ST/G000395/1. CP is supported by the U.S. Department of Energy under grant DE-FG02-96ER40959

    Legs fait à l'Institut par M. Lambert

    No full text
    Legs fait à l'Institut par M. Lambert. In: Bulletin administratif de l'instruction publique. Tome 4 n°43, juillet 1853. p. 258

    Discours de M. Lambert de Frondeville concernant l'affaire de la chambre des vacations du parlement de Bretagne, lors de la séance du 9 janvier 1790

    No full text
    Lambert de Frondeville Thomas Louis César. Discours de M. Lambert de Frondeville concernant l'affaire de la chambre des vacations du parlement de Bretagne, lors de la séance du 9 janvier 1790. In: Archives Parlementaires de 1787 à 1860 - Première série (1787-1799) Tome XI - Du 24 décembre 1789 au 1er mars 1790. Paris : Librairie Administrative P. Dupont, 1880. pp. 136-140

    Legs fait à l'Institut par M. Lambert

    No full text
    Legs fait à l'Institut par M. Lambert. In: Bulletin administratif de l'instruction publique. Tome 4 n°43, juillet 1853. p. 258

    Lambert multipliers between LpL^p spaces

    No full text
    summary:In this paper Lambert multipliers acting between LpL^p spaces are characterized by using some properties of conditional expectation operator. Also, Fredholmness of corresponding bounded operators is investigated

    Investigation of glacial dynamics in lambert glacial basin using satellite remote sensing techniques

    No full text
    The Antarctic ice sheet mass budget is a very important factor for global sea level. An understanding of the glacial dynamics of the Antarctic ice sheet are essential for mass budget estimation. Utilizing a surface velocity field derived from Radarsat three-pass SAR interferometry, this study has investigated the strain rate, grounding line, balance velocity, and the mass balance of the entire Lambert Glacier ��– Amery Ice Shelf system, East Antarctica. The surface velocity increases abruptly from 350 m/year to 800 m/year at the main grounding line. It decreases as the main ice stream is floating, and increases to 1200 to 1500 m/year in the ice shelf front. The strain rate distribution defines the shear margins of ice flows. The major ice streams and their confluence area experience the most severe ice deformation. The width of the shear margin decreases as it flows downstream except for the convergent areas with tributary glaciers. The grounding line for the main ice stream and the boundary of Amery Ice Shelf and surrounding tributary glaciers is delineated. The total basal melting is estimated to be 87.82 ���� 3.78 Gt/year for the entire Amery Ice Shelf. Compared with the ice flux (16.35 ���� 3.11 Gt/year) at the ice shelf front, basal melting is apparently the dominant discharging process of the system. The melting rate for the Amery Ice Shelf decreases rapidly from the grounding zone (21.64 ���� 2.17 m/year) to the ice shelf front (-0.95 ���� 0.14 m/year). The Lambert Glacial Basin contributes the total ice mass of 95.64 ���� 2.89 Gt/year to the ocean, which is equivalent to increasing the global sea level by 0.24 mm/year. Considering 90.54 ���� 1.55 Gt/year of snow accumulation, the entire Lambert Glacier ��– Amery Ice Shelf system is slightly negatively imbalanced at -5.09 ���� 3.46 Gt/year. Although the entire system is estimated to have a slight negative mass balance, three sub-glacial systems have a net positive mass balance due to a relatively high snow accumulation rate or relatively slow ice motion. Considering the large mass loss in West Antarctica, it is believed that the overall mass budget in Antarctica is negative based on this research
    corecore