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

Taken from the book review of Mark D. Pagel in Coord. Chem. Rev. 478 (2023) 214994The 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).

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

Taken from the book review of Mark D. Pagel in Coord. Chem. Rev. 478 (2023) 214994The 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).

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

Taken from the book review of Mark D. Pagel in Coord. Chem. Rev. 478 (2023) 214994The 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).