4127 books match the query 'Science' and 16 start with q
The University of Chicago Press
University of Chicago Press Journals, 2020
Isadore Newman and Carolyn R. Benz
Southern Illinois University Press, 1998
Rejecting the artificial dichotomy between qualitative and quantitative research strategies in the social and behavioral sciences, Isadore Newman and Carolyn R. Benz argue that the two approaches are neither mutually exclusive nor interchangeable; rather, the actual relationship between the two paradigms is one of isolated events on a continuum of scientific inquiry.
Through graphic and narrative descriptions, Newman and Benz show research to be a holistic endeavor in the world of inquiry. To clarify their argument, they provide a diagram of the "qualitative-quantitative interactive continuum" showing that qualitative analysis with its feedback loops can easily modify the types of research questions asked in quantitative research and that the quantitative results and its feedback can change what will be asked qualitatively.
In their model for research—an "interactive continuum"—Newman and Benz emphasize four major points: the research question dictates the selection of research methods; consistency between question and design can lead to a method of critiquing research studies in professional journals; the interactive continuum model is built around the place of theory; and the assurance of "validity" of research is central to all studies.
Dmitry A. Kondrashov
University of Chicago Press, 2016
Edited by Christine R. B. Boake
University of Chicago Press, 1994
Paul Davies
University of Chicago Press, 2025
Quantum computers, quantum cryptography, and even quantum AI—a century after the discovery of an unexpected physical world, researchers are putting this puzzling science to work in dazzling new ways.
In this exhilarating and mind-bending book, renowned scientist and author Paul Davies offers readers a glimpse of how quantum physics has led to a quantum technology revolution. Quantum 2.0 reveals how today’s brightest minds are harnessing exotic states of matter that have no counterpart in everyday life. Specifically, all eyes are on entanglement, called “spooky” by Einstein, which links the activities of separated particles even across vast distances.
By manipulating these weird properties of atoms, electrons, and photons, scientists are driving the burgeoning field of “quantum information science,” featuring new tools such as quantum computers, quantum cryptography, and the quantum internet. In turn, their efforts have attracted billions of dollars in investments and triggered a frantic quantum arms race between nations. At the same time, theorists are taking a closer look at quantum systems themselves, which possess properties that defy intuition and shred everyday notions of reality. Davies explains how researchers, including himself, are wrestling with quantum theory to make sense of this realm, where ghostly quantum particles produce tiny forces in nanotechnology, cause black holes to evaporate, and may even contribute to the universe’s accelerating expansion. A trusted guide, Davies takes readers from the basic concepts to today’s cutting edge, inviting us all to glimpse the wonderland of quantum physics and its stunning implications.
Paul Davies
University of Chicago Press, 2025

Paul Thomas
Intellect Books, 2018
Mara Beller
University of Chicago Press, 1999
Robert M. Wald
University of Chicago Press, 1994
David Kaiser
University of Chicago Press, 2024
Richard A. Healey
University of Minnesota Press, 1998
A new approach to the quantum measurement dilemma.
With relativity theory, quantum mechanics stands as the conceptual foundation of modern physics. It forms the basis by which we understand the minute workings of the subatomic world. But at its core lies a paradox: standard conceptions of quantum mechanics imply that the results of many of the actual measurements supporting and verifying quantum mechanical theory can have no definite outcomes. Some quantity such as position or momentum is always indefinite on a quantum system; and if an indefinite quantity is measured, the macroscopic state of the measuring apparatus that is supposed to record the outcome instead becomes indefinite itself. In Quantum Measurement, editors Richard A. Healey and Geoffrey Hellman marshal the resources of leading physicists and philosophers of science, skillfully joining their insights and ingenuity to yield some of the most innovative and altogether promising thought to date on this enigmatic issue.
Throughout this authoritative volume, these authors explore the subtle and varied ways in which quantum mechanics informs the conditions, indeed the very process, of quantum measurement. The latest work on decoherence phenomena is combined with sophisticated modal interpretations, suggesting that definite values might be systematically attributed to a limited class of quantum observables while gauging the correspondent impact of environmental interactions on quantum interference terms. What emerges from this careful synthesis is a theoretically powerful and energetic new approach to the measurement dilemma, one that furthers our conceptual understanding of the fundamental interconnections between micro- and macroscopic systems, and that strives, ultimately, to describe and define within a unified quantum mechanical framework the breadth of our physical reality.Contributors: Guido Bacciagaluppi, Balliol College, Oxford; Jeffrey Bub, U of Maryland; Rob Clifton, U of Pittsburgh; Michael Dickson, Indiana U; Dennis Dieks, Utrecht U, Netherlands; Andrew Elby; Meir Hemmo; Anthony J. Leggett, U of Illinois; Bradley Monton; Abner Shimony, Boston U; William G. Unruh, U of British Columbia; Pieter E. Vermaas.ISBN 0-8166-3065-8 Cloth/jacket $39.95x 232 pages 5 figures 5 7/8 x 9 JuneMinnesota Studies in the Philosophy of Science Series, Volume 17Translation inquiries: University of Minnesota PressJames T. Cushing
University of Chicago Press, 1994
František Šanda
Karolinum Press, 2026
A text designed for courses in quantum statistical physics, which explains the concept of the density matrix and links it with the quantum theory of relaxation and decoherence and with the most common spectroscopic probes.
This book covers the material for a one-semester introductory course in quantum statistical physics, designed for Master’s students in chemical physics and biophysics preparing to work in the fields of NMR, vibrational spectroscopy, or electronic spectroscopy. The course introduces the density matrix formalism and connects it to students’ existing knowledge of classical statistical physics. It then presents the main results of quantum relaxation theory in terms of population transfer and decoherence, and relates quantum relaxation to its most widely used experimental probes in spectroscopy.
Edited by Paul S. Martin and Richard G. Klein
University of Arizona Press, 1984
Delia Clark and Steven Glazer
University Press of New England, 2006
Irven M. Albert the Great
Catholic University of America Press, 2008