Sensors and Probes for Bioimaging

Systematically summarizes the bioimaging chemical probes from chemical points of views.

Autorentext
Young-Tae Chang studied chemistry in Pohang University of Science and Technology (POSTECH, Korea) and received his B.S. in 1991. After one and half years of army service in Korea, he started his graduate study at POSTECH and received a Ph.D. in 1997 under the supervision of Prof. Sung-Kee Chung, working on the divergent synthesis of all possible regioisomers of myo-inositol phosphates. He did his postdoctoral work with Prof. Peter Schultz at UC Berkeley and The Scripps Research Institute. In 2000, he was appointed assistant professor at New York University and promoted to associated professor in 2005. In September, 2007, he moved to National University of Singapore and Singapore Bioimaging Consortium. He was a full professor of Chemistry and leader of Medicinal Chemistry Program of NUS, and Lab Head of Bioimaging Probe Development at SBIC, Biopolis. In 2017, he came back to POSTECH, as a professor in the Department of Chemistry, and joined Center for Self-assembly and Complexity (CSC), Institute for Basic Science (IBS) as an Associate Director. He published more than 300 scientific papers / 2 books and filed more than 50 patents so far.
Nam-Young KANG is a Research Professor at the Department of Convergence IT Engineering, Pohang University of Science and Technology (POSTECH). Her research of interest is focused on Cell image-based High contents/through-put screening (HCS/HTS) to develop HCS based new drug using fluorescent imaging probes.

Klappentext

A fulsome exploration of the history, design, and application of bioimaging probes and sensors In Sensors and Probes for Bioimaging, distinguished researcher Professor Young-Tae Chang and Professor Nam-Young Kang deliver a comprehensive discussion of bioimaging achieved with sensors and probes. In the book, readers will find a complete discussion of the history of colorful sensors and probes, probe design and the mechanisms of staining, as well as cell and tissue application and whole-body imaging. You'll learn how probes can be used, how to choose and use a variety of probes, and new directions in research and application in the area of sensors and probes for bioimaging. Readers will also find:

• A thorough introduction to bioimaging, as well as discussions of chemical sensors and probes used in bioimaging
• Comprehensive explorations of organelle and cell selective probes, as well as discussions of a model for organelle selectivity
• Practical discussions of tissue selective probes and whole-body imaging

• Fulsome treatments of imaging for biological function and for the diagnosis of disease, including cancer and Alzheimer's imaging Perfect for chemical biologists, analytical chemists, biochemists, and materials scientists, Sensors and Probes for Bioimaging will also earn a place in the libraries of clinical chemists and advanced undergraduate students, graduate students, and professionals working in the bioimaging and sensor industry.

  Inhalt
  1 INTRODUCTION OF BIOIMAGING
  1.1. Color
  1.2 Colorful material
  1.3 Light source of bioimaging
  1.4 Subcellular imaging
  1.5 Cell selective imaging
  1.6 Tissue and organ imaging
  1.7 Whole body imaging
  1.8 Probes in bioimaging

  2. CHEMICAL SENSORS AND PROBES FOR BIOIMAGING
     2.1 History of dyes in biological stains
     2.2 Blood cell staining
     2.3 Bacteria staining using Gram method
     2.4 Fluorescent sensors and probes
     2.5 Representative fluorescent compounds for bioimaging

  3. ORGANELLE SELECTIVE PROBES
     3.1 Cell plasma membrane
     3.2 Endosome and lysosome
     3.3 Nucleus and DNA
     3.4 Nucleolus and RNA
     3.5 ER and Golgi body
     3.6 Mitochondria
     3.7 Lipid droplet
     3.8 Peroxisome
     3.9 Cytosol
     3.10 Extracellular vesicle
     3.11 Nonmembrane-bound condensate
     3.12 Organelle probes in live cells and fixed cells
     3.13 Modeling for organelle selective probes

  4. LIVE CELL SELECTIVE PROBES
     4.1. Protein Oriented Live Cell Distinction (POLD)
     4.2. Carbohydrate Oriented Live Cell Distinction (COLD)
     4.3. Lipid Oriented Live Cell Distinction (LOLD)
     4.4. Gating Oriented Live Cell Distinction (GOLD)
     4.5. Metabolism Oriented Live Cell Distinction (MOLD)

  5. EX-VIVO TISSUE SELECTIVE PROBES
     5.1 Immunohistochemistry
     5.2 Tissue imaging with nucleic acid probes
     5.3 Tissue imaging with small molecule probes
     5.3.1 Pancreatic islet imaging
     5.3.2 Neuronal tissue imaging
     5.4 Organoid as model of tissue and organ

  6. IN-VIVO WHOLE-BODY IMAGING PROBES
     6.1 ElaNIR for elastin imaging in mouse
     6.2 Probes for exposed neuron in zebrafish embryo
     6.3 NeuO for whole-body neuron imaging in zebrafish
     6.4 LipidGreen for fatty tissue imaging in zebrafish
     6.5 Blood vessel imaging in zebrafish
     6.6 Probes for bone imaging
     6.7 Probes for pancreatic islet imaging
     6.8 Probes for eye imaging
     6.9 Macrophage imaging in ischemia and inflammation

  7. IMAGING FOR BIOLOGICAL ENVIRONMENT AND FUNCTION
     7.1 pH
     7.2 Metal ions
     7.3 Metabolites
     7.4 Viscosity
     7.5 Temperature
     7.6 ROS and RNS

  8. IMAGING FOR DISEASE
     8.1 Cancer imaging
     8.2 Neurodegenerative disease imaging
     8.3 Inflammation imaging
     8.4 Diabetes imaging
     8.5 Liver disease imaging
     8.6 Aging
     8.7 Theranostics

  9. NON-OPTICAL IMAGING PROBES
     9.1 Ultrasound imaging probes
     9.2 X-ray contrast agents
     9.3 MRI contrast agents
     9.4 SPECT probes
     9.5 PET probes
     9.6 Multimodality

  10. FLUORESCENCE IMAGING TECHNIQUES AND ANALYSIS METHODS
      10.1 Multi-color imaging
      10.2 Ratiometric measurement
      10.3 Fluorescence lifetime imaging microscopy
      10.4 Confocal fluorescence microscopy
      10.5 Two photon excitation fluorescence imaging and harmonic generation
      10.6 Selective plane illumination microscopy
      10.7 Total internal reflection fluorescence microscopy
      10.8 Super resolution imaging
      10.9 Single molecule imaging
      10.10 Photoactivation of caged molecule
      10.11 Fluorescence recovery after photobleaching
      10.12 Flow cytometry technique

  11. PERSPECTIVES FOR FUTURE PROBE DEVELOPMENT
      11.1 Design of selective probes
      11.2 Discovery of selective probes by screening
      11.3 Future probe development