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Author:   Thomas J. Meade (Northwestern University, IL, USA)
Publisher:   Taylor & Francis Ltd
Imprint:   CRC Press
Weight:   0.244kg
ISBN:  

9781032135786

ISBN 10:   1032135786
Pages:   330
Publication Date:   27 September 2022
Audience:   Professional and scholarly ,  College/higher education ,  Professional & Vocational ,  Postgraduate, Research & Scholarly
Format:   Hardback
Publisher's Status:   Active
Availability:   In Print  
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Table of Contents

Foreword by Peter J. Sadler Chapter 01 Metalloid-Sensing Transcriptional Regulatory Proteins Chapter 02 Magnetic Resonance Imaging Bio-Sensors for Calcium(II) Chapter 03 Sensing Calcium Dynamics and Calcium Signaling Chapter 04 Fluorescent Bio-Sensors for Manganese(II) and Iron(II) Chapter 05 Fluorescent Probes for Zinc Ions and Their Applications in the Life Sciences Chapter 06 Chemo- and Bio-Sensors for Copper Ions Chapter 07 Molecular Design for Cadmium-Specific Fluorescent Sensors Chapter 08 Molecular Bio-Sensors and the Biological and Biomedical Activities of Vanadium Chapter 09 Non-invasive Detection of Stem Cell Therapies Facilitated by Metal Ion-Based Contrast Agents Chapter 10 Optical and Electrochemical Metal-Based Sensors in Biological Systems

Reviews

Foreword Peter J. Sadler Department of Chemistry, University of Warwick, UK The sensing of metals and use of metals as sensors are very important topics in the Life Sciences. At least 10 metals are essential in the human body. Their distribution, oxidation states, coordination numbers, coordination geometries, and ligand types, are carefully controlled to suit their functions, be they charge carriers, structural control centers or triggers, redox centres, or catalysts. Probably the biochemistry of most of them is controlled by genes and feedback loops, but we are not sure. Their special and temporal behavior needs to be mapped on timescales of nanoseconds to hours, resolutions of nanometers to meters, and concentrations of molar to picomolar and below. Moreover, non-essential metals can also enter the body, from the environment, from medicines and from diagnostic agents. Micro-organisms may have different requirements for metals compared to humans. The symbiotic relationship of human life with over 30 trillion microbial cells in the body, cannot be overlooked. Also a range metals have favourable useful sensing properties related to, for example, their electronic or nuclear composition, their optical and x-ray absorptions and emissions, or their radioactive emissions. In theory individual isotopes of metals need to be tracked. Heavier isotopes slow down reactions. This volume illustrates some of the exciting advances being made in the metal-sensing field. Regulation of the uptake, transport and activity of metals in biochemical pathways is not only important for essential metals but also for metallodrugs. The metalloid arsenic is in an effective drug for treatment of promyelocytic leukemia. About 250 As-regulated proteins have been identified in leukemia cells, and there is a huge family of >500 arsenic resistance regulator proteins in bacteria. Tracking Ca2+ at micro- to milli-molar concentrations, and the structural changes it induces in proteins on a sub-millisecond timescale, is critical to understanding a variety of cellular events. The optical and magnetic probe properties of lanthanide 3+ ions, of similar size ligand (oxygen) preferences as Ca2+ find application in a wide range of biosensors. Gd3+, for example. can modulate the relaxation of protons creating contrast in magnetic resonance imaging (MRI), even on a submillimetre scale for studies of cellular organisation in tissues. Remarkable is a Tb3+-specific biosensor based on the recently discovered bacterial protein lanmodulin which binds lanthanide ions with picomolar affinity. Interestingly, Er3+ complexes can be designed which upconvert infrared radiation to red and green emissions. Riboswitches which control gene expression by transcriptional or translational attenuation can be adapted as biosensors for Fe2+ and Mn2+ within the range of concentrations maintained by metalloregulators. Turn-on emissive probes for Zn2+ can sense free zinc ions released during apoptosis, and Cu2+ sensors for understanding the subcellular compartmentalization and roles of copper. Importantly fluorescence biosensors can distinguish between Zn2+ and Cd2+. Biosensors for ubiquitous metals such as vanadium are likely to provide insight into their potentially essential physiological roles, not only in the body, but also in micro-organisms. There is perhaps no more important area than sensing and understanding the roles of metals in the brain. Neuroscience has traditionally been to territory of only organic chemistry. Metal biosensing is now beginning to reshape that landscape.

Taken from the book review of Mark D. Pagel in Coord. Chem. Rev. 478 (2023) 214994 The book Molecular Bio-Sensors and the Role of Metal Ions consists of 10 chapters that review the roles of calcium, vanadium, manganese, iron, copper, zinc, arsenic, and cadmium in the life sciences. The volume especially focuses on the development of bio-sensors that can be used with a variety of analytical methods that cover a wide range of spatial and temporal scales. Importantly, many of these analytical methods can be used to evaluate biological specimens to improve our understanding of biology and physiology, and many of these methods can be translated into the workflow of medical practice. Overall, this book is comprehensive while presenting content at a very approachable level. The figures add to the quality of the writing, especially by presenting schematics that clarify complicated concepts, chemical structures that clarify subtle differences between agents, and biological & biomedical images that are eye-catching reminders of the value of molecular imaging. Although each chapter stands alone, insights for the detection and utility of detection of each metal can be gleaned from other chapters. Together, the 10 chapters of Volume 23 clearly continue the strong value of this book series, and clearly justify the rebranding of this series with the expanded title of Metal Ions in Life Sciences (MILS).

Author Information

Thomas J. Meade completed his Ph.D. at The Ohio State University (1985), was a NIH Fellow in Harvard Medical School (1985-1987), was a Postdoctoral Fellow in CalTech (1988-1990). Currently, he is a Professor in the Department of Chemistry, Northwestern University, Evanston, Illinois; Eileen M. Foell Professor of Cancer Research, Director, Center for Advanced Molecular Imaging; Professor of Weinberg College of Arts and Sciences and Radiology. Focus of work: The Meade Lab research focuses on inorganic coordination chemistry for the study of molecular imaging of in vivo gene expression and intracellular messengers, transition metal enzyme inhibitors, and electronic bio-sensors. The design, synthesis, and physical properties of transition metal and lanthanide coordination complexes are the foundation of our research. Academic Focus Program Area(s): Bioinorganic Chemistry; Nanochemistry; Organometallic & Coordination ComplexesInterest(s): Organic, Synthetic, Chemical Biology, Inorganic, Bioinorganic, Physical, Biophysical, Nanoscience. Astrid Sigel has studied languages; she was an Editor of the Metal Ions in Biological Systems (MIBS) series (until Volume 44) and also of the Handbook on Toxicity of Inorganic Compounds (1988), the Handbook on Metals in Clinical and Analytical Chemistry (1994; both with H.G. Seiler and H.S.), and Handbook on Metalloproteins (2001; with Ivano Bertini and H.S.). She is also an Editor of the MILS series from Volume 1 on, and she has co-authored more than 50 papers on topics in Bioinorganic Chemistry. Helmut Sigel is Emeritus Professor (2003) of Inorganic Chemistry at the University of Basel, Switzerland. He is a Co-editor of the series Metal Ions in Biological Systems (1973-2005; 44 volumes) as well as of the Sigels' new series Metal Ions in Life Sciences (since 2006). He has also co-edited three handbooks and published over 350 articles on metal ion complexes of nucleotides, amino acids, coenzymes, and other bio-ligands. Together with Ivano Bertini, Harry B. Gray, and Bo G. Malmstrom, he founded (1983) the International Conferences on Biological Inorganic Chemistry (ICBICs). He has lectured worldwide and was named Protagonist in Chemistry (2002) by Inorganica Chimica Acta (issue 339). Among Endowed Lectureships, appointments as Visiting Professor (e.g., Austria, China, Japan, Kuwait, UK), and further honors, he received the P. Ray Award (Indian Chemical Society, of which he is also a Honorary Fellow), the Alfred Werner Award (Swiss Chemical Society), and a Doctor of Science honoris causa degree (Kalyani University, India). He is also a Honorary Member of SBIC (Society of Biological Inorganic Chemistry). Eva Freisinger is Associate Professor for Bioinorganic Chemistry and Chemical Biology (2018) at the Department of Chemistry at the University of Zurich, Switzerland. She obtained her doctoral degree (2000) from the University of Dortmund, Germany, working with Bernhard Lippert and spent 3 years as a postdoc at SUNY Stony Brook, New York, with Caroline Kisker. Since 2003, she performs independent research at the University of Zurich, where she held a Forderungsprofessur of the Swiss National Science Foundation from 2008 to 2014. In 2014, she received her Habilitation in Bioinorganic Chemistry. Her research is focused on the study of plant metallothioneins with an additional interest in the sequence-specific modification of nucleic acids. Together with Roland Sigel, she chaired the 12th European Biological Inorganic Chemistry Conference (2014 in Zurich, Switzerland) as well as the 19th International Conference on Biological Inorganic Chemistry (2019 in Interlaken, Switzerland). She also serves on a number of Advisory Boards for international conference series; since 2014, she is the Secretary of the European Biological Inorganic Chemistry Conferences (EuroBICs), and is currently co-Director of the Department of Chemistry. She joined the group of Editors of the MILS series from Volume 18 on. Roland K. O. Sigel is Full Professor (2016) of Chemistry at the University of Zurich, Switzerland. In the same year, he became Vice Dean of Studies (B.Sc./M.Sc.), and in 2017, he was elected Dean of the Faculty of Science. From 2003 to 2008, he was endowed with a Forderungsprofessur of the Swiss National Science Foundation, and he is the recipient of an ERC Starting Grant 2010. He received his doctoral degree summa cum laude (1999) from the University of Dortmund, Germany, working with Bernhard Lippert. Thereafter, he spent nearly 3 years at Columbia University, New York, with Anna Marie Pyle (now Yale University). During the 6 years abroad, he received several prestigious fellowships from various sources, and he was awarded the EuroBIC Medal in 2008 and the Alfred Werner Prize (SCS) in 2009. From 2015 to 2019, he was the Secretary of the Society of Biological Inorganic Chemistry (SBIC), and since 2018, he is the Secretary of the International Conferences on Biological Inorganic Chemistry (ICBICs). His research focuses on the structural and functional role of metal ions in ribozymes, especially group II introns, regulatory RNAs, and on related topics. He is also an Editor of Volumes 43 and 44 of the MIBS series and of the MILS series from Volume 1 on.

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