Skip to main content
Elsevier

Handbook on the Physics and Chemistry of Rare Earths

Including Actinides

  • 1st Edition, Volume 50 - October 31, 2016
  • Latest edition
  • Editors: Jean-Claude G. Bunzli, Vitalij K. Pecharsky
  • Language: English

Handbook on the Physics and Chemistry of Rare Earths: Including Actinides is a continuous series of books covering all aspects of rare earth science, including chemistry, life scie… Read more

Data Mining & ML

Unlock the cutting edge

Up to 20% on trusted resources. Build expertise with data mining, ML methods.

Explore now

Description

Handbook on the Physics and Chemistry of Rare Earths: Including Actinides is a continuous series of books covering all aspects of rare earth science, including chemistry, life sciences, materials science, and physics. The book's main emphasis is on rare earth elements [Sc, Y, and the lanthanides (La through Lu], but whenever relevant, information is also included on the closely related actinide elements.

Individual chapters are comprehensive, broad, up-to-date, critical reviews written by highly experienced, invited experts. The series, which was started in 1978 by Professor Karl A. Gschneidner Jr., combines, and integrates, both the fundamentals and applications of these elements with two published volumes each year.

Key features

  • Presents up-to-date overviews and new developments in the field of rare earths, covering both their physics and chemistry
  • Contains Individual chapters that are comprehensive and broad, with critical reviews
  • Provides contributions from highly experienced, invited experts

Readership

Researchers working on rare earth materials, scientists and engineers in the rare earth industry, university libraries, research institutes

Table of contents

  • Preface
    • Chapter 282: Systematics
    • Chapter 283: The Rare Earths as Critical Materials
    • Chapter 284: Theory of Rare-Earth Electronic Structure and Spectroscopy
    • Chapter 285: Ab Initio Calculations on Excited States of Lanthanide Containing Materials
    • Chapter 286: Magnetic Bistability in Lanthanide-Based Molecular Systems: The Role of Anisotropy and Exchange Interactions
    • Chapter 287: Lanthanide Luminescence: From a Mystery to Rationalization, Understanding, and Applications
    • Chapter 288: Thermoelectric Properties of Zintl Antimonides
    • Chapter 289: Ceria-Based Materials in Catalysis: Historical Perspective and Future Trends
    • Chapter 290: Lanthanide Metal–Organic Frameworks for Luminescent Applications
    • Chapter 291: Rare Earth Coordination Chemistry in Action: Exploring the Optical and Magnetic Properties of the Lanthanides in Bioscience While Challenging Current Theories
    • Chapter 292: Lanthanide Nanoparticles: Promising CandidateS for Magnetic Resonance Imaging Contrast Enhancement
    • Chapter 293: Expanding the + 2 Oxidation State of the Rare-Earth Metals, Uranium, and Thorium in Molecular Complexes
    • Chapter 294: Coordination Chemistry in Rare Earth Containing Ionic Liquids
  • Contents of Volumes 1–49
  • Index of Contents of Volumes 1–50
  • Chapter 282: Systematics
    • Abstract
    • 1 Introduction
    • 2 Systematics
    • 3 4f Hybridization
    • 4 Epilogue
  • Chapter 283: The Rare Earths as Critical Materials
    • Abstract
    • 1 What is a Critical Material?
    • 2 Resources, Supply Chains, and Life Cycles
    • 3 Barriers to Rare-Earth Production
    • 4 Research Efforts and Needs
    • 5 Summary and Conclusions
    • Acknowledgments
  • Chapter 284: Theory of Rare-Earth Electronic Structure and Spectroscopy
    • Abstract
    • 1 Introduction
    • 2 Energy Levels
    • 3 Transition Intensities
    • 4 The Superposition Model
    • 5 Ab Initio Calculations
    • 6 Conclusions
    • Acknowledgments
  • Chapter 285: Ab Initio Calculations on Excited States of Lanthanide Containing Materials
    • Abstract
    • 1 Introduction
    • 2 Ab Initio Methods vs Empirical Models
    • 3 Wave Function Theory Methods
    • 4 DFT Methods
    • 5 Reducing the Gap with Experiments
    • Acknowledgments
  • Chapter 286: Magnetic Bistability in Lanthanide-Based Molecular Systems: The Role of Anisotropy and Exchange Interactions
    • Abstract
    • 1 Introduction
    • 2 Magnetic Anisotropy in Low Symmetry Coordination Environments
    • 3 Exchange Interactions in Lanthanide-Based Molecular Materials
    • 4 Conclusion and Outlook
    • Acknowledgments
  • Chapter 287: Lanthanide Luminescence: From a Mystery to Rationalization, Understanding, and Applications
    • Abstract
    • 1 Introduction
    • 2 Early Applications and the Discovery of Rare-Earth Elements
    • 3 Understanding Rare-Earth Optical Spectra
    • 4 Luminescence Sensitization and Its Modeling
    • 5 A Firework of Applications
    • 6 What Is Next?
  • Chapter 288: Thermoelectric Properties of Zintl Antimonides
    • Abstract
    • 1 Background
    • 2 Zintl Phases
    • 3 Concluding Remarks
    • Acknowledgments
  • Chapter 289: Ceria-Based Materials in Catalysis: Historical Perspective and Future Trends
    • Abstract
    • 1 Introduction
    • 2 Structural Properties of Cerium Dioxide
    • 3 Auto-Exhaust Catalysts
    • 4 Role of Ceria–Metal Interface in Catalysis
    • 5 Shape and Face Matter
    • 6 Ceria in Energy Applications and Technologies
    • 7 Conclusive Remarks
  • Chapter 290: Lanthanide Metal-Organic Frameworks for Luminescent Applications
    • Abstract
    • 1 Introduction
    • 2 The Status and Advantages of Lanthanide MOFs
    • 3 Lanthanide MOFs for Luminescent Sensing
    • 4 Lanthanide MOFs for White-Light-Emitting Devices
    • 5 Biomedical Applications of Lanthanide MOFs
    • 6 Conclusion and Outlook
    • Acknowledgments
  • Chapter 291: Rare Earth Coordination Chemistry in Action: Exploring the Optical and Magnetic Properties of the Lanthanides in Bioscience While Challenging Current Theories
    • Abstract
    • 1 Background: A Personal Historical Perspective
    • 2 Critical Assessment of the Theoretical Background
    • 3 Lanthanide Emission in Action
    • 4 Lanthanide Shift and Relaxation Probes
  • Chapter 292: Lanthanide Nanoparticles: Promising Candidates for Magnetic Resonance Imaging Contrast Enhancement
    • Abstract
    • 1 Introduction
    • 2 Gd-Based NPs for T1-Weighted MRI Contrast Enhancement
    • 3 Ln NPs for T2-Weighted MRI Contrast Enhancement
    • 4 Ln NPs for Multimode Imaging
    • 5 Perspective
  • Chapter 293: Expanding the + 2 Oxidation State of the Rare-Earth Metals, Uranium, and Thorium in Molecular Complexes
    • Abstract
    • 1 Introduction
    • 2 Background
    • 3 Reduction of Dinitrogen
    • 4 La2 + and Ce2 + Complexes
    • 5 An Y2+ Complex
    • 6 Ho2 + and Er2 + Complexes
    • 7 Pr2 +, Gd2 +, Tb2 +, and Lu2 + Complexes
    • 8 UV–Visible Spectra and DFT Analysis of Y2+, Pr2 +, Gd2 +, Tb2 +, Ho2 +, Er2 +, and Lu2 + in (Cp′3Ln)1− Complexes
    • 9 A Surprise With Dy2 + and Nd2 + in (Cp′3Ln)1− Complexes
    • 10 Magnetic Properties of the New Ln2 + Ions in (Cp′3Ln)1− Complexes
    • 11 U2+ Complexes
    • 12 Th2 + Complexes
    • 13 Reactivity of Complexes of the New Ln2 + and An2 + Ions
    • 14 Bimetallic Rare-Earth Metal Complexes With the New Ln2 + Ions
    • 15 Earlier Literature Regarding the New Ions
    • 16 Summary and Outlook
    • Acknowledgments
  • Chapter 294: Coordination Chemistry in Rare Earth Containing Ionic Liquids
    • Abstract
    • Acknowledgments
  • Index

Product details

  • Edition: 1
  • Latest edition
  • Volume: 50
  • Published: November 3, 2016
  • Language: English

About the editors

JB

Jean-Claude G. Bunzli

Jean-Claude Bünzli (he/him) is an Honorary Professor emeritus at the EPFL where he founded the Laboratory of Lanthanide Supramolecular Chemistry He earned a degree in chemical engineering in 1968 and a PhD in 1971 from the Swiss Federal Institute of Technology, Lausanne (EPFL). After two years at the University of British Columbia as a teaching postdoctoral fellow (photoelectron spectroscopy) and one year at the Swiss Federal Institute of Technology in Zürich (physical organic chemistry) he was appointed in 1974 as assistant-professor at the University of Lausanne. He launched a research program on the coordination and spectroscopic properties of f-elements and was promoted to full professor of inorganic and analytical chemistry in 1980. During 2009-2013 he was also a World Class University professor at Korea University (South Korea) at the WCU Center for Next Generation Photovoltaic Devices. In 2016, he has been appointed as adjunct professor at the Haimen Institute of Science and Technology (Haimen, Jiangsu, P.R. China) which is a satellite campus of Hong Kong Baptist University. His research interests deal with various aspects of luminescent lanthanide coordination and supramolecular compounds, developing luminescent bioprobes and bioconjugates for the detection of cancerous cells with time-resolved microscopy as well as luminescent materials for various photonic applications, including solar energy conversion. In 1989, he founded the European Rare Earths and Actinide Society which coordinates international conferences in the field and for which he is presently acting as president.
Affiliations and expertise
Swiss Federal Institute of Technology Lausanne (EPFL), Switzerland

VP

Vitalij K. Pecharsky

V.K. Pecharsky received a combined BSc/MSc degree in Chemistry (1976) and a PhD degree in Inorganic Chemistry (1979) from Lviv State University (now Ivan Franko National University of Lviv) in Ukraine. He held a faculty appointment at the Department of Inorganic Chemistry at Lviv State University between 1979 and 1993, after which he moved to Ames, Iowa, where he became a staff member at the U.S. Department of Energy Ames Laboratory. In 1998 he accepted a faculty position at the Department of Materials Science and Engineering at Iowa State University, while remaining associated with Ames Laboratory. He was named an Anson Marston Distinguished Professor of Engineering in 2006. He also serves as a Faculty Scientists, Field Work Project Leader, and Group Leader at Ames Laboratory. While in Lviv, V. Pecharsky was studying phase relationships and crystallography of ternary intermetallic compounds containing rare earths. After moving to Ames his research interests shifted to examining composition-structure-physical property relationship of rare-earth intermetallic compounds. Together with Karl Gschneidner, Jr., he discovered a new class of materials that exhibit the giant magnetocaloric effect in 1997, triggering worldwide interest in caloric materials and caloric cooling, which promises to become an energy-efficient, environmentally-friendly alternative to conventional vapor-compression approach. Today his research interest include synthesis, structure, experimental thermodynamics, physical and chemical properties of intermetallic compounds containing rare-earth metals; anomalous behavior of 4f-electron systems; magnetostructural phase transformations; physical properties of ultra-pure rare earth metals; caloric materials and systems; hydrogen storage materials; mechanochemistry, mechanically induced solid-state reactions and mechanochemical transformations. He organized the 28th Rare Earth Research Conference in Ames, Iowa in 2017. He serves as co-editor of the Handbook on the Physics and Chemistry of Rare Earths and senior editor of the Journal of Alloys and Compounds. He has published over 500 WOS papers (>22 600 cites, h factor = 60).
Affiliations and expertise
Ames Laboratory, Iowa State University, Ames, IA, USA

View book on ScienceDirect

Read Handbook on the Physics and Chemistry of Rare Earths on ScienceDirect