Neuro-urology research : a comprehensive overview /

**Selected for Doody's Core TitlesĀ® 2024 in Urology**Neuro-Urology Research: A Comprehensive Overview describes the current status of the neuro-urology field including the latest discoveries, explains in detail some of the neuroscience tools that can be used when studying the neural control of...

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Bibliographic Details
Corporate Author: ScienceDirect (Online service)
Other Authors: Verstegen, Anne M. J. Hanneke
Format: eBook
Language:English
Published: [London] : Academic Press, 2023.
Subjects:
Online Access:Connect to the full text of this electronic book
Table of Contents:
  • Front Cover
  • Neuro-Urology Research
  • Neuro-Urology Research
  • Copyright
  • Contents
  • Contributors
  • About the editor
  • Preface
  • Acknowledgments
  • 1
  • Neuro-urology research: a comprehensive overview
  • Outline
  • Chapter 1-Neuro-urology research: a comprehensive overview
  • Chapter 2-Barrington's nucleus: a century of progress identifying neurons that control micturition
  • Chapter 3-Voluntary versus reflex micturition control
  • Chapter 4-The bladder as a readout in neuroscience research
  • Chapter 5-How treatment of lower urinary tract symptoms can benefit from basic research
  • Chapter 6- ``Translational effects of neuro-urology research on clinical practice''
  • Patient population-specific lower urin ...
  • Chapter 7-Effect of androgens and estrogens on bladder/lower urinary tract function
  • Chapter 8-Transcriptomic identification of cell types in the lower urinary tract
  • Chapter 9-Exploring urinary bladder neural circuitry through calcium imaging
  • Chapter 10-The periaqueductal gray and control of bladder function
  • Chapter 11-Impact of spinal neuromodulation on spinal neural networks controlling lower urinary tract function
  • Chapter 12-Neural control of continence
  • Introduction to neuro-urology
  • The past and present of neuro-urology research
  • Research questions and directions in the neuro-urology field
  • Research topic 1: neuroanatomical sites for micturition behavior
  • Research topic 2: neural circuits involved in bladder function
  • Research topic 3: the functional brain-bladder connection
  • Research topic 4: the "brain cause" of common lower urinary tract symptoms
  • A quick guide to the "neuroscience toolbox"
  • Transgenic animal models: knock-in and knockout (mice)
  • Transgenic mice and CRISPR/Cas9 technology
  • Cre-lox system and genetic tools
  • Neural circuit tracing.
  • Transcriptomics for identifying the gene expression profile of cells
  • Spatially resolving gene expression profiles in intact biological samples
  • Recording neural activity
  • Fiber photometry during awake CMG
  • Cell-specific manipulation of activity
  • Optogenetic stimulation or inhibition of neuron activity
  • Optogenetics 2.0 and special tools
  • Chemogenetics for stimulating or inhibiting neuron activity
  • Diphtheria toxin-mediated ablation and tetanus toxin-induced neuronal silencing
  • Channelrhodopsin-assisted circuit mapping
  • Bladder function readout that can be used with the described tools
  • Micturition video thermography void spot assay
  • Video cystometry
  • Conclusions
  • References
  • I
  • Neuroscience in urology research
  • 2
  • Barrington's nucleus: a century of progress identifying neurons that control micturition
  • Introduction
  • The micturition reflex
  • Neuroanatomical landscape surrounding Barrington's nucleus
  • Locus coeruleus
  • Pontine central gray
  • Pre-locus coeruleus
  • Laterodorsal tegmental nucleus
  • Mesencephalic nucleus of the trigeminal nerve and fourth ventricle
  • Discovery and characterization of the neurons in Barrington's nucleus
  • Neuroanatomic identification of Bar neurons
  • Molecular characterization of Bar neurons
  • Additional features of Bar neurons
  • Human pontine tegmentum and micturition
  • Efferent projections of Bar neurons
  • Afferent projections to Bar neurons
  • Conclusion
  • References
  • 3
  • Voluntary versus reflex micturition control
  • Introduction
  • Neural circuits involved in reflex micturition control
  • Peripheral nervous system
  • Parasympathetic pathways
  • Sympathetic pathways
  • Somatic pathways
  • Afferent pathways
  • Intraspinal pathways
  • Organization of storage reflexes
  • Spinal reflex pathways
  • Supraspinal pathways
  • Organization of voiding reflexes.
  • Spinobulbospinal reflex pathways
  • Brainstem circuitry
  • Role of PMC
  • Properties of neurons in the PMC
  • Role of the PAG
  • Spinal micturition pathways
  • Developmental changes in micturition pathways
  • Reorganization of spinal micturition reflexes due to spinal cord legions
  • Neural circuits involved in voluntary micturition control
  • Cortical modulation of micturition
  • Human imaging studies
  • Animal studies
  • Subcortical modulation of micturition
  • Hypothalamus
  • Basal ganglia, substantia nigra pars compacta, and ventral tegmental area
  • Cerebellum
  • Neurotransmitters in cortical and subcortical controls of micturition
  • Glutamate
  • Acetylcholine
  • GABA and glycine
  • Dopamine
  • Serotonin (5-hydroxytryptamine)
  • Stress-related peptides
  • Conclusion
  • References
  • 4
  • The bladder as a readout in neuroscience research
  • Introduction
  • Bladder function as a readout in basic neuroscience studies Electrical stimulation of the brain and measurement of bladder ...
  • Pontine micturition centers
  • The periaqueductal gray area
  • PPN and rostral pontine areas affecting the micturition reflex
  • Cerebellum
  • Thalamus and hypothalamus
  • Subthalamic nucleus
  • Basal ganglia
  • Higher (cortical) areas
  • Recording of neural activity within the brain during physiological changes in bladder activity
  • Optogenetics and pharmacological manipulation of brain circuits with measurement of bladder function
  • Bladder function as a readout in clinical neuroscience including developmental, regenerative, and degenerative neuroscience
  • Developmental neuroscience
  • Spina bifida and tethered cord
  • Postnatal emergence of continence in animals and humans
  • Degenerative neuroscience
  • Parkinson's disease
  • Normal pressure hydrocephalus
  • Multiple system atrophy
  • Regenerative neuroscience
  • Cauda equina/conus medullaris compression.
  • The autonomic nervous system and bladder control
  • The organization of autonomic pathways innervating the bladder
  • The central autonomic network and the bladder
  • The bladder as a readout in affective and social neuroscience: understanding the cognition of voiding
  • Conclusion
  • References
  • Further reading
  • II
  • Fundamental and translational neuro-urology research
  • 5
  • How treatment of lower urinary tract symptoms can benefit from basic research
  • Introduction
  • Afferent bladder pathways
  • Location of afferent neurons in lower urinary tract
  • Pelvic and pudendal nerve afferents
  • Hypogastric nerve afferents
  • Spinal interneurons
  • Role and properties of lower urinary tract afferent nerves
  • Two types of afferent neurons
  • Chemical properties of afferent nerves
  • Afferent neurons in bladder reflexes
  • Role of urothelium
  • Neuronal afferents role in LUTS
  • Neuronal afferents' role in painful bladder syndrome and interstitial cystitis
  • Conclusion
  • References
  • 6
  • "Translational effects of neuro-urology research on clinical practice"
  • Patient population-specific lower urina ...
  • Brain-bladder axis in health
  • Nomenclature
  • Localization-related symptoms in patients with neurological disease
  • Neurological populations with frequent lower urinary tract dysfunction
  • Dementia
  • Stroke
  • Parkinson's disease
  • Multiple system atrophy
  • Multiple sclerosis
  • Spinal cord injury
  • Spina bifida
  • Cauda equina syndrome
  • Idiopathic urinary retention: Fowler's syndrome and functional urological disorders
  • Treatment options for patients with neurological disorders
  • Treatment for storage dysfunction
  • Behavioral treatment
  • Antimuscarinic drugs
  • Mirabegron
  • Desmopressin
  • Alpha-blockers
  • Intravesical drug treatment
  • Intravesical botulinum toxin
  • Intravesical antimuscarinics
  • Tibial neuromodulation.
  • Sacral neuromodulation
  • Treatment for voiding dysfunction
  • Intermittent self-catheterization
  • Surgical options
  • Bladder augmentation
  • Urinary diversion
  • Bladder neck and urethral procedures
  • Artificial urinary sphincter
  • Urethral sling
  • Urinary tract infections
  • New investigation and treatment possibilities
  • Lower urinary tract classifications and urinary biomarkers
  • Deep brain stimulation
  • Cannabinoids
  • Prophylaxis for UTI bacteriophages
  • Early tibial nerve stimulation after SCI
  • Conclusion
  • References
  • 7
  • Effect of androgens and estrogens on bladder/lower urinary tract function
  • Sex differences in bladder histology
  • Sex differences in anatomy and physiology
  • Sex differences in histology
  • Muscle and collagen
  • Impact of testosterone and estradiol on smooth muscle physiology
  • Smooth muscle
  • Nerves
  • Testosterone and estradiol in benign bladder diseases
  • Lower urinary tract symptoms
  • Aging and testosterone and estradiol
  • LUTS, testosterone and estradiol, and innervation
  • Muscle sensitivity
  • Testosterone as a therapy for LUTS
  • Stress incontinence
  • Aging and T and E2
  • Estrogens and innervation
  • Estradiol as a therapy
  • Overactive bladder
  • TRPs in overactive bladder
  • Environmental factors that mediate changes in testosterone and estradiol concentrations
  • Diet
  • Environmental chemical exposure
  • Summary and conclusions
  • References
  • Further reading
  • 8
  • Transcriptomic identification of cell types in the lower urinary tract
  • Bulk transcriptional profiling
  • Example of bulk RNA sequencing protocol
  • Single-cell transcriptional profiling
  • Example of tissue digestion protocol
  • Overview of single-cell RNA sequencing protocol
  • Overview of bioinformatics
  • Validation of cell type identification
  • Spatial transcriptomics
  • Conclusion
  • References.
  • III
  • Neurobiological tools applied to neuro-urology research.