This is the first book-length study to trace the origin of the essay to the brief narrative tale. While the form of the conte gave shape to the essay, the violence of the times destabilized a known genre to create a new one. It was the disruption of the times and the impact on Montaigne's personal and public life that led to the birth of the new form, a form he so aptly named the essay. Historic events and his reaction to the violence impacted and transformed Montaigne's work. We witness a change from the initial efficient style with which he had set out to interweave his own reflections, self-portraits, and anecdotes with the tales from ancient and contemporary storytellers, poets, and historians. Eventually the growing political disruption pulled Montaigne away from the exemplary claims of the tales to borrow from the more contingent, detailed observations of ethnographers and physicians.

The first book-length study to trace the origins of the essay to the conte, Montaigne and Brief Narrative Form puts the reader in touch with how unstable times and exceptional artistic insights transform one genre to create a new artistic form.

The past few decades of research and development in solid-state semicon ductor physics and electronics have witnessed a rapid growth in the drive to exploit quantum mechanics in the design and function of semiconductor devices. This has been fueled for instance by the remarkable advances in our ability to fabricate nanostructures such as quantum wells, quantum wires and quantum dots. Despite this contemporary focus on semiconductor "quantum devices," a principal quantum mechanical aspect of the electron - its spin has it accounts for an added quan largely been ignored (except in as much as tum mechanical degeneracy). In recent years, however, a new paradigm of electronics based on the spin degree of freedom of the electron has begun to emerge. This field of semiconductor "spintronics" (spin transport electron ics or spin-based electronics) places electron spin rather than charge at the very center of interest. The underlying basis for this new electronics is the intimate connection between the charge and spin degrees of freedom of the electron via the Pauli principle. A crucial implication of this relationship is that spin effects can often be accessed through the orbital properties of the electron in the solid state. Examples for this are optical measurements of the spin state based on the Faraday effect and spin-dependent transport measure ments such as giant magneto-resistance (GMR). In this manner, information can be encoded in not only the electron's charge but also in its spin state, i. e.

The manipulation of electric charge in bulk semiconductors and their heterostructures is the basis of nearly all modern electronic and opto-electronic devices. Recent studies of spin-dependent phenomena in semiconductors open the door to technologies that harness the spin of the electron in semiconductor devices. In addition to providing spin-dependent analogies that extend existing electronic devices into the realm of semiconductor "spintronics," the spin degree of freedom also offers prospects for fundamentally new functionality in the quantum domain, ranging from storage to computation. This is likely to play a crucial role in the information technologies in the 21st century. This book, written by a team of experts, provides an overview of emerging concepts in this rapidly developing field. The topics range from spin transport and injection in semiconductors and their heterostructures to coherent processes and computation in semiconductor quantum structures and microcavities.