BECOMING A GLOBALLY COMPETITIVE PLAYER: THE CASE OF THE MUSIC INDUSTRY IN JAMAICA

This paper uses the NSI approach to examine the prospects for industrial development in Jamaica, a small middle-income developing country. It argues that the present state of the Jamaican NSI is not adequately developed to provide the necessary support to ensure that one of its key emerging industries – the music sector – becomes competitive on global markets. It suggests various policy options aimed at industrial upgrading and better integration with those markets. The type of applied research presented here is highly original and speaks to a wider audience, as it represents a novel attempt to operationalize the concept of NSI in a developing country context, with particular reference to the music and entertainment sector, which is not traditionally treated in the NSI context. This sector, however, has been selected as one of the leading emerging sectors for the Jamaican economy identified in its national industrial policy.

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Noms variants de l'empresa : Lloyds Banking Grou

Annual report & accounts

Noms variants de l'empresa: Lloyds Banking Grou

Nonequilibrium thermodynamics of interacting tunneling transport: variational grand potential, density-functional formulation, and nature of steady-state forces

The standard formulation of tunneling transport rests on an open-boundary modeling. There, conserving approximations to nonequilibrium Green function or quantum-statistical mechanics provide consistent but computational costly approaches; alternatively, use of density-dependent ballistic-transport calculations [e.g., Phys. Rev. B 52, 5335 (1995)], here denoted `DBT', provide computationally efficient (approximate) atomistic characterizations of the electron behavior but has until now lacked a formal justification. This paper presents an exact, variational nonequilibrium thermodynamic theory for fully interacting tunneling and provides a rigorous foundation for frozen-nuclei DBT calculations as a lowest order approximation to an exact nonequilibrium thermodynamics density functional evaluation. The theory starts from the complete electron nonequilibrium quantum statistical mechanics and I identify the operator for the nonequilibrium Gibbs free energy. I demonstrate a minimal property of a functional for the nonequilibrium thermodynamic grand potential which thus uniquely identifies the solution as the exact nonequilibrium density matrix. I also show that a uniqueness-of-density proof from a closely related study [Phys. Rev. B 78, 165109 (2008)] makes it possible to provide a single-particle formulation based on universal electron-density functionals. I illustrate a formal evaluation of the thermodynamics grand potential value which is closely related to the variation in scattering phase shifts and hence to Friedel density oscillations. This paper also discusses the difference between the here-presented exact thermodynamics forces and the often-used electrostatic forces. Finally the paper documents an inherent adiabatic nature of the thermodynamics forces and observes that these are suited for a nonequilibrium implementation of the Born-Oppenheimer approximation.Comment: 37 pages, 3 Figure

Announcement regarding the publication of Prospectus

Announcement regarding the publication of Prospectus, update on timetable and details of the Excess Application Facility for Lloyds TSB Group plc (“Lloyds TSB”) shareholders in the context of the Placing and Open Offer

FORM 20-F: REGISTRATION STATEMENT

Commission file number 001-15246; LLOYDS BANKING GROUP plc (previously Lloyds TSB Group plc