𝔖 Scriptorium
✦   LIBER   ✦

πŸ“

Gas sensing in cells

✍ Scribed by Aono, Shigetoshi


Publisher
Royal Society of Chemistry
Year
2018
Tongue
English
Leaves
314
Series
RSC metallobiology series 11
Category
Library

⬇  Acquire This Volume

No coin nor oath required. For personal study only.

✦ Synopsis


This book provides the first comprehensive overview of gas sensing in living cells and describes a wide spectrum of proteins that produce, sense or use gas molecules in both prokaryotic and eukaryotic cells.


Abstract:
This book provides the first comprehensive overview of gas sensing in living cells and describes a wide spectrum of proteins that produce, sense or use gas molecules in both prokaryotic and Β Read more...

✦ Table of Contents


Content: Machine generated contents note: ch. 1 Overview of Gas-sensing Systems / Shigetoshi Aono --
1.1.Introduction --
1.2.Biological Signal-transduction Systems Including Gas Sensing --
1.2.1.Single-component Systems --
1.2.2.Two-component Systems --
1.2.3.Multicomponent Systems --
1.3.Prosthetic Groups Utilized to Sense Gas Molecules --
1.3.1.Haem --
1.3.2.Iron-Sulfur Clusters --
1.3.3.Nonhaem Iron Centres --
References --
ch. 2 Haem-based Sensors of Nitric Oxide / E. M. Boon --
2.1.Introduction --
2.2.The Mammalian NO Sensor: Soluble Guanylyl Cyclase (sGC) --
2.3.Bacterial NO-sensing H-NOX Proteins --
2.3.1.Discovery of the H-NOX Family --
2.3.2.Operon Organization of H-NOX Proteins --
2.3.3.Ligand-binding Properties of H-NOX Proteins --
2.3.4.Structural Characterization of H-NOX Proteins --
2.3.5.Hydrogen Bonding Through a Tyrosine Residue in the Distal Pocket Facilitates Ligand Discrimination --
2.3.6.H-NOX Haem Distortion and Its Role in Signal Transduction Note continued: 2.3.7.Iron --
Histidine Bond Cleavage Upon NO Binding Leads to Haem Relaxation --
2.3.8.Ligand Migration Through the H-NOX Tunnel System --
2.4.The YybT Family of Haem --
PAS Domains --
2.4.1.Discovery That YybT is a Haemoprotein Family --
2.4.2.Evidence That YybT is an NO Sensor --
2.5.The E75 Family of Haem-bound Transcription Factors --
2.5.1.Characterization of E75 in Drosophila melanogaster --
2.5.2.Rev-erbs: Mammalian Homologues of E75 --
2.6.Haem and NO Signalling in Regulating Biofilm Formation in Pseudomonas aeruginosa --
2.6.1.NO Regulation of Biofilm Formation in P. aeruginosa --
2.6.2.The Discovery of a Novel Bacterial NO-sensing Protein (NosP) --
2.7.DNR: Transcriptional Regulator of Denitrification --
2.7.1.Protein Structure of Inactive and Active DNR --
2.7.2.Ligand-binding Properties of DNR --
2.7.3.Activation of DNR by NO --
2.8.Conclusions and Perspectives --
References --
ch. 3 Haem-based Sensors of Dioxygen / Yoshitsugu Shiro Note continued: 3.1.Introduction --
3.2.Variations in the Sensor Domain of Haem-based O2-sensor Proteins --
3.2.1.PAS Domain --
3.2.2.GAF Domain --
3.2.3.GCS Domain --
3.3.Two-component Signal Transduction Regulated by O2 Sensing --
3.3.1.FixL --
3.3.2.DevS (DosS) and DosT --
3.3.3.AfGcHK --
3.4.Aerotaxis Control for the Regulation of Bacterial Flagellar Rotation --
3.4.1.HemAT --
3.4.2.Aer2 --
3.5.Synthesis and Hydrolysis of Nucleotide Second Messengers --
3.5.1.YddV (DosC) and EcDOS (DosP) --
3.5.2.HemDGC --
3.5.3.AvGReg and BpeGReg --
3.5.4.AxPDEA1 --
3.5.5.Atypical sGCs: Gyc-88E and GCY-35 --
3.5.6.HemAC-Lm --
3.6.Conclusions --
References --
ch. 4 Haem-based Sensors of Carbon Monoxide / Shigetoshi Aono --
4.1.Introduction --
4.2.Biological Production of CO --
4.2.1.Endogenous CO Production for Ligand of the Metal Clusters in Hydrogenases --
4.2.2.Endogenous CO Production by Haemoxygenases --
4.3.Biological Utilization of CO --
4.3.1.Ni/Fe CO Dehydrogenase Note continued: 4.3.2.Mo/Cu CO Dehydrogenase --
4.4.Bacterial CO-sensor Protein CooA --
4.4.1.Structure of CooA --
4.4.2.Allosteric Control of CRP as a Model of CooA --
4.4.3.Allosteric Control of CooA by CO --
4.4.4.Coordination Structures of the Haem in CooA --
4.4.5.Redox Properties of the Haem in CooA --
4.4.6.Spectroscopic Properties of the Haem in CooA --
4.4.7.Ligand Discrimination of CooA --
4.4.8.CO-binding Kinetics of CooA --
4.4.9.DNA Binding and Transcriptional Activation of CooA --
4.5.Bacterial CO-sensor Protein RcoM --
4.5.1.PAS Domain in RcoM --
4.5.2.Spectroscopic Properties of the PAS Domain in RcoM --
4.5.3.Coordination Structure of the Haem in RcoM --
4.5.4.CO-binding Kinetics of RcoM --
4.5.5.LytTR Domain as a DNA-binding Motif --
4.5.6.DNA Binding of LytTR Domain --
4.6.Mammalian CO-sensor Proteins NPAS2 and CLOCK --
4.6.1.Structure of CLOCK/BMAL1 bHLH-PAS Domains --
4.6.2.DNA Binding of bHLH Domain Note continued: 5.4.6.Corynebacterium glutamicum ArnR --
5.5.Conclusions and Future Perspectives --
Acknowledgements --
References --
ch. 6 Nonhaem Iron-based Sensors of Reactive Oxygen and Nitrogen Species / Dayeon Nam --
6.1.Introduction --
6.2.Sensors for Reactive Oxygen Species --
6.2.1.Transcription Factors that Defend Against ROS --
6.2.2.PerR as Peroxide Sensor --
6.2.3.Redox Sensor SoxR and Reactive Oxygen Species --
6.2.4.Regulator Protein Utilizing Nonhaem Iron and ROS --
6.3.Sensor Proteins for Reactive Nitrogen Species --
6.3.1.Reactive Nitrogen Species in Biological System --
6.3.2.Biological Significance of NO: As a Key Molecule for Biological Signal Transduction and Respiratory Denitrification and as a Potent Oxidizing Cytotoxin to Fight Invading Pathogens --
6.3.3.NorR as NO Sensor --
6.3.4.Iron-Sulfur Proteins as NO Sensors --
6.4.Conclusions --
References --
ch. 7 Mammalian O2 Sensing and Signalling / Michael J. Knapp --
7.1.Cellular O2 Sensing Note continued: 7.1.1.HIF Transcriptional Regulator --
7.1.2.Other O2-sensing Enzymes --
7.1.3.Discovering New Targets for the HIF Hydroxylases --
7.1.4.New Target Identification --
7.1.5.Selected Hypoxia-sensitive Pathways --
7.2.Hydrogen Sulfide and Hypoxia --
7.3.FBXL5 --
7.4.Tissue Signalling --
7.4.1.Acute Hypoxia Sensing by Mammalian Tissue --
7.5.Conclusions --
Acknowledgements --
References --
ch. 8 Plant Ethylene Sensing and Signalling / Brad M. Binder --
8.1.Introduction --
8.2.Overview of Ethylene Biosynthesis --
8.3.Overview of the Ethylene Signal-transduction Pathway in Plants --
8.4.The Ethylene Receptors --
8.4.1.Ethylene-binding Domain --
8.4.2.Copper and Ethylene Binding --
8.4.3.GAF Domain --
8.4.4.Kinase Domain --
8.4.5.Receiver Domain --
8.4.6.Unique and Nonoverlapping Functions of the Ethylene Receptors in Arabidopsis --
8.4.7.Receptor Clusters --
8.4.8.Other Receptor --
Protein Interactions --
8.5.Ethylene Signalling in Nonplants --
8.6.Summary Note continued: Acknowledgements --
References.

✦ Subjects


Cells;Biochemistry;Hemeproteins;chemistry;Gases;chemistry;Iron-Sulfur Proteins;chemistry;Signal Transduction;Ethylenes;chemistry


πŸ“œ SIMILAR VOLUMES


Gas Sensing in Cells
✍ Shigetoshi Aono, Shigetoshi Aono, C David Garner, Anthony Wedd, Elizabeth M Boon πŸ“‚ Library πŸ“… 2017 πŸ› Royal Society of Chemistry 🌐 English

Gas molecules such as O<SUB>2</SUB>, NO, CO and ethylene are present in the environment and are endogenously (enzymatically) produced to act as signalling molecules in biological systems, including the regulation of metabolic networks, chemotaxis, circadian rhythms, mammalian hypoxia responses, and

Functional Nanomaterials: Advances in Ga
✍ Sabu Thomas; Nirav Joshi; Vijay K. Tomer πŸ“‚ Library πŸ“… 2020 πŸ› Springer 🌐 English

This book provides a comprehensive overview of the current state-of-art in oxide nanostructures, carbon nanostructures and 2D materials fabrication. It covers mimicking of sensing mechanisms and applications in gas sensors. It focuses on gas sensors based on functional nanostructured materials, espe

Functional Nanomaterials: Advances in Ga
✍ Sabu Thomas, Nirav Joshi, Vijay K. Tomer πŸ“‚ Library πŸ“… 2020 πŸ› Springer Singapore;Springer 🌐 English

<p><p>This book provides a comprehensive overview of the current state-of-art in oxide nanostructures, carbon nanostructures and 2D materials fabrication. It covers mimicking of sensing mechanisms and applications in gas sensors. It focuses on gas sensors based on functional nanostructured materials

Gas Sensing Fundamentals
✍ Kohl, Claus-Dieter;Wagner, Thorsten πŸ“‚ Library πŸ“… 2014 πŸ› Springer 🌐 English

This volume, which addresses various basic sensor principles, covers micro gravimetric sensors, semiconducting and nano tube sensors, calorimetric sensors and optical sensors. Furthermore, the authors discuss recent developments in the related sensitive layers including new properties of nano struct

Gas Sensing Fundamentals
✍ Claus-Dieter Kohl, Thorsten Wagner (eds.) πŸ“‚ Library πŸ“… 2014 πŸ› Springer 🌐 English
Glucose-sensing Receptor in Pancreatic B
✍ Itaru Kojima πŸ“‚ Library πŸ“… 2018 πŸ› Springer Singapore 🌐 English

<p><p>Since the 1970s, there has been much discussion about the β€œglucoreceptor” and β€œsubstrate site” and which of these two is the dominant theory, but new findings on the glucose-sensing receptor have now shed new light on the β€œglucoreceptor theory.”</p><p>This volume reviews recent advances concer