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Mark M. Turnbull

Researcher at Clark University

Publications -  298
Citations -  4698

Mark M. Turnbull is an academic researcher from Clark University. The author has contributed to research in topics: Magnetic susceptibility & Crystal structure. The author has an hindex of 34, co-authored 277 publications receiving 4211 citations. Previous affiliations of Mark M. Turnbull include Washington State University & University of Tennessee.

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MonographDOI

Molecule-based magnetic materials : theory, techniques, and applications

TL;DR: Molecule-Based Magnets: An Introduction Exchange Interaction of organic spin systems Theoretical Approaches to Molecular Magnetism Magnetic-Susceptibility Measurement Techniques Superconducting Quantum Interference Device Studies in Molecule-based Magnetism Continuous Wave and Fourier Transform Pulsed Electron Magnetic Resonance Spectroscopy in Organic-Molecular Magnetism: Theory and Applications Heat-Capacity Calorimetry of Molecule Based Magnetic Materials Use of Mssbauer Effect Spectroscope in the Study of the Low-Dimensionality Magnetism and Long-
Journal ArticleDOI

Two-dimensional S=1/2 Heisenberg antiferromagnets: Synthesis, structure, and magnetic properties

TL;DR: The magnetic susceptibility and magnetization of two layered S =½ Heisenberg antiferromagnets with moderate exchange were reported in this paper, and the magnetization curves are consistent with recent theoretical predictions.
Journal ArticleDOI

Review: A gentle introduction to magnetism: units, fields, theory, and experiment

TL;DR: A good introduction to the workings, units of measure, and general properties of magnetic materials can be found in this paper, which is intended as a "primer to interpretation of magnetic data" for those entering the field, or those who are encountering magnetic measurements in the literature.
Journal ArticleDOI

Extended Quantum Critical Phase in a Magnetized Spin- 1 2 Antiferromagnetic Chain

TL;DR: Measurements are reported of the magnetic field dependence of excitations in the quantum critical state of the spin S=1/2 linear chain Heisenberg antiferromagnet copper pyrazine dinitrate (CuPzN), and the intensities are consistent with exact diagonalization and Bethe ansatz calculations.