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E-grāmata: Handbook of Developmental Neurotoxicology

Edited by (Division of Neurotoxicology, National Center for Toxicological Research, US FDA, Jefferson, AR, USA), Edited by (Division of Neurotoxicology, National Center for Toxicolog), Edited by (National Center for Toxicological Research, Jefferson, US FDA, AR, USA)
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  • Izdošanas datums: 04-Jan-2018
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  • ISBN-13: 9780128093948
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  • Izdošanas datums: 04-Jan-2018
  • Izdevniecība: Academic Press Inc
  • Valoda: eng
  • ISBN-13: 9780128093948

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Handbook of Developmental Neurotoxicology, Second Edition, provides a comprehensive view of the fundamental aspects of neurodevelopment, the pathways and agents that affect them, relevant clinical syndromes, and risk assessment procedures for developmental neurotoxicants. The editors and chapter authors are internationally recognized experts whose collaboration heralds a remarkable advance in the field, bridging developmental neuroscience with the principles of neurotoxicology. The book features eight new chapters with newly recruited authors, making it an essential text for students and professionals in toxicology, neurotoxicology, developmental biology, pharmacology, and neuroscience.

  • Presents a comprehensive, up-to-date resource on developmental neurotoxicology with updated chapters from the first edition
  • Contains new chapters that focus on subjects recent to the field
  • Includes well-illustrated material, with diagrams, charts, and tables
  • Contains compelling case studies and chapters written by world experts
List of Contributors xiii
Preface and Acknowledgments xvii
I Cellular And Molecular Morphogenesis Of The Nervous System
1 Brain Morphogenesis and Developmental Neurotoxicology
Karl F. Jensen
Jeanene K. Olin
I Introduction
3(1)
II Man Proposed Computational Models be Integrated Over Three Levels
4(1)
III Morphogenetic Features Emerge From Interactions Across Multiple Levels of Biological Organization
4(3)
IV Whole Brain Assessment of Larval Zebrafish Reveals Patterns of Connectivity
7(2)
V Conclusions: Morphology Informs Predictive Models of Developmental Neurotoxicity
9(1)
References
10(7)
2 Neural Cell Adhesion Molecules in Normal and Abnormal Neural Development
Cheng Wang
Qi Yin
Tucker A. Patterson
Shuliang Liu
Xuan Zhang
Fang Liu
Merle G. Paule
William Slikker Jr
I Introduction
17(1)
II The Expression Levels of NCAM and PSA-NCAM During the Development
18(1)
III Regulating PSA-NCAM Expression and Cell Migration
19(1)
IV Requirement of PSA-NCAM for Activity-Induced Synaptic Plasticity
19(2)
References
21(2)
3 Neurite Development and Neurotoxicity
Zhen He
Sherry A. Ferguson
Tucker A. Patterson
Merle G. Paule
I Introduction
23(6)
II Conclusions
29(1)
References
29(4)
4 Myelin: Structure, Function, Pathology, and Targeted Therapeutics
Joseph Hanig
Geeta Negi
I Introduction
33(1)
II Myelin Architecture and Assembly: Old and New Perspectives
34(2)
III Neuron-Glia Communication and its Regulation
36(1)
IV Myelinating Glial Cell Lineages in Peripheral and Central Nervous Systems
37(2)
V Chemical Composition of Vertebrate Myelin
39(1)
VI Dysmyelination: Myelin Mutant Models for Dysmyelination
39(2)
VII Demyelination: Effect of Various Factors on Developmental Myelination
41(5)
VIII Remyelination and CNS Disorders: Myelin to Axonal Regeneration
46(1)
IX Newer Treatment Strategies for Myelin Disorders
47(1)
X Conclusions
48(1)
References
49(6)
II Developmental Neurobiology/Toxicology
5 Neurotrophic Factors
Jimcy Platholi
Francis S. Lee
I Neurotrophic Factors
55(1)
II Expression Pattern and Regulation
55(1)
III Neurotrophin Receptors
56(1)
IV Neurotrophic Factors in Cell Survival and Cell Death
57(1)
V Neurotrophins and Synaptic Plasticity
58(1)
VI Neurotrophins and Behavior
59(1)
VII Other Neurotrophic Factors
60(1)
VIII Clinical Correlates to Neurodegenerative Disorders
60(1)
IX Clinical Correlates to Psychiatric Disorders
61(1)
X Genetic Polymorphisms
62(1)
XI Neurotrophins as Therapeutic Agents
62(1)
References
63(2)
6 Serotonin Signaling as a Target for Craniofacial Embryotoxicity
Robert M. Greene
Michele M. Pisano
I Introduction-Serotonin and Embryonic Development
65(1)
II Serotonin Signal Transduction
66(1)
III Role of Serotonin in Development
67(5)
IV Conclusions
72(1)
References
72(3)
7 Neurotoxic and Neurotrophic Effects of GABAergic Agents on the Developing Brain
Julia M. Gohlke
I Introduction
75(1)
II The GABAergic System During Development
76(1)
III GABAergic Agents and Consequences of Perturbations of GABAergic System Development
76(1)
IV Animal Models of GABAergic System Perturbation
77(1)
V In Vitro and Cell-Based Models of GABAergic System Perturbation During Neurodevelopment
78(1)
VI Bioinformatic and Computational Approaches
78(1)
VII Protecting the Developing GABAergic System: Prospects for the Future
79(2)
References
81(4)
8 Neural Stem Cell Biology and Application to Developmental Neurotoxicity Assessment
Fang Liu
Cheng Wang
I Neural Stem Cells in the Developing Brain
85(1)
II Neural Stem Cells in the Adult Brain
86(1)
III NSCs-Derived From Embryonic Stem Cells and Induced Pluripotent Stem Cells
87(1)
IV Application of NSCs to Developmental Neurotoxicity Assessments
87(1)
V Conclusions
88(1)
References
89(2)
9 Apoptosis as a Mechanism of Developmental Neurotoxicity
Pamela J. Lein
Suangsuda Supasai
Michelle Guignet
I Introduction
91(1)
II Molecular Mechanisms of Apoptosis in the Developing Nervous System
92(3)
III Physiological Roles of Apoptosis in Neurodevelopment
95(1)
IV Chemical-Induced Apoptosis
96(10)
V Conclusions
106(1)
References
106(7)
10 Periods of Susceptibility: Interspecies Comparison of Developmental Milestones During Ontogenesis of the Central Nervous System
John M. Desesso
Amy L. Williams
I Introduction
113(1)
II Overview of Central Nervous System Development
114(6)
III Developmental Milestones
120(4)
IV Conclusions
124(1)
References
124(3)
11 Modeling the Neurovascular Unit In Vitro and In Silico
Katerine S. Saili
Todd J. Zurlinden
Thomas B. Knudsen
I Introduction
127(1)
II Animal Models of BBB Development and Function
128(1)
III Cell-Based Models
128(2)
IV Static Three-Dimensional (3D) Models
130(1)
V Organotypic Culture Models (OCMs) and Microphysiological Systems(MPS)
131(2)
VI Implementing In Vitro BBB Models for DNT
133(4)
VII In Silico Models: BBB Permeability
137(1)
VIII In Silico Models: Virtual NVU
138(1)
IX Summary and Conclusions
138(1)
References
139(4)
12 Zebrafish as a Model for Developmental Biology and Toxicology
Courtney Roper
Robert L. Tanguay
I Introduction
143(1)
II Developmental Biology
144(2)
III Developmental Toxicology
146(1)
IV Concordance With Mammalian Models
147(1)
V Conclusions
148(1)
References
148(5)
13 Using Caenorhabditis Elegans to Study Neurotoxicity
Margaret M. Sedensky
Philip G. Morgan
I Introduction
153(1)
II Studies of Specific Neurotoxins
154(3)
III Anesthetic-Induced Neurotoxicity
157(1)
IV Conclusions
158(1)
References
158(5)
III Synaptogenesis And Neurotransmission
14 Human 3D In Vitro Models for Developmental Neurotoxicity
Lena Smirnova
Thomas Hartung
I Developmental Neurotoxicity Represents a Societal Testing Need
163(1)
II The Current Testing Approach for DNT In Vivo and In Vitro does not Satisfy Our Needs
164(1)
III The Process of Developing In Vitro Strategies for DNT
164(2)
IV The Development of a Reproducible BMPS for Modeling Neurodevelopment and Testing its Perturbation
166(3)
V Ongoing Developments of the Mini-Brain
169(1)
VI Conclusions
170(1)
References
171(2)
15 Ontogeny of Monoamine Neurotransmitters
Sumit Sarkar
Syed Z. Imam
Jennifer L. Walters
I Introduction
173(1)
II Innervation of Terminal Fields
174(1)
III Neurochemical Synaptogenesis
175(5)
References
180(3)
16 Developmental Toxicity Within the Central Cholinergic Nervous System
David A. Jett
Michelle Guignet
Suangsuda Supasai
Pamela J. Lein
I Introduction
183(1)
II The Cholinergic System in CNS Development
184(1)
III Vulnerable Time Periods of Developmental Neurotoxicity
185(1)
IV Functional Effects of Developmental Exposure to Anticholinesterases
185(1)
V Cholinergic Mechanisms of Developmental Neurotoxicity
186(4)
VI Other Cholinergic Developmental Neurotoxicants
190(2)
VII Conclusions
192(1)
References
193(6)
17 Ontogeny of Second Messenger Systems
Syed Z. Imam
Hector Rosas-Hernandez
Elvis Cuevas
Susan M. Lantz
Sumit Sarkar
Syed F. Ali
Merle G. Paule
I Introduction
199(1)
II Second Messenger Systems: General and Ontogenic Aspects
199(2)
III Specific Roles of the Second Messenger System in Brain Development
201(1)
IV Developmental Neurotoxicants and Second Messenger Systems
202(2)
V Conclusions
204(1)
References
204(3)
18 The NMDA Receptors: Physiology and Neurotoxicity in the Developing Brain
Qiang Gu
Cheng Wang
I Introduction
207(1)
II Molecular Structure of the NMDA Receptor
208(1)
III Functional Role &the NMDA Receptor
209(1)
IV Anatomical Distribution and Developmental Changes in NMDA Receptors in Brain
210(1)
V Role of the NMDA Receptor in Neurotoxicity During Brain Development
210(2)
References
212(5)
IV Nutrient And Chemical Disposition
19 Physiologically Based Pharmacokinetic (PBPK) Models
Jeffrey W. Fisher
Xiaoxia Yang
Charles Timchalk
I Introduction
217(1)
II Selected PBPK Models for Developmental Neurotoxicology
218(7)
III Future Directions for Modeling CNS Active Materials
225(1)
References
225(4)
20 Blood-Brain Barrier: Physiological and Functional Considerations
Hector Rosas-Hernandez
Elvis Cuevas
Susan M. Lantz
Syed Z. Imam
Merle G. Paule
Syed F. Ali
I Introduction
229(1)
II Development of the Blood-Brain Barrier
230(2)
III Disruption of the Blood-Brain Barrier
232(2)
IV Summary
234(1)
References
234(3)
21 Toxicological Mechanisms of Engineered Nanomaterials: Role of Material Properties in Inducing Different Biological Responses
Richard L. Salisbury
Richard Agans
Mary E. Huddleston
Andrew Snyder
Alexandra Mendlein
Saber Hussain
I Introduction
237(2)
II Manganese NP Toxicity
239(1)
III The Role of Charge in Gold Nanotoxicity
240(1)
IV Toxicity of Amorphous Silica Nanoparticles
240(1)
V Unique Cellular Interactions of Silver Nanoparticles
241(1)
VI Chronic Toxicity of Nanoparticles in Enhanced Models
242(1)
VII Impact of Nanoparticles on Cellular Mitochondria
243(2)
VIII Understanding Molecular Mechanisms of Nanoparticle Toxicity Through Gene-Editing Technology
245(1)
References
246(5)
22 Food and Nutrient Exposure Throughout the Life Span: How Does What We Eat Translate Into Exposure, Deficiencies, and Toxicities?
Keli M. Hawthorne
I Introduction
251(1)
II Nutrient Assessment
252(1)
III Bioavailability and Beyond
253(1)
IV Current Nutrient Standards
254(1)
V Global Causes of Deficiency
254(1)
VI Global Causes of Toxicity
255(1)
VII Effects of Deficiency and Excessive Amounts of Selected Nutrients
255(4)
VIII Approaches to Addressing Micronutrient Deficiencies
259(1)
IX Further Directions in Research About Lifelong Effects of Nutrition
260(1)
X Summary
261(1)
References
261(4)
23 The Microbiome Gut-Brain Axis
Carl E. Cerniglia
I Introduction
265(1)
II What is the Human Microbiome?
266(1)
III What is the Gut-Brain Axis?
267(1)
IV Current Knowledge on How the Intestinal Microbiota Influences the Gut-Brain Axis
268(1)
V Intestinal Microbiota-Derived Neuroactive Metabolites
269(1)
VI Neurological Disorders
269(1)
VII Conclusions and Research Data Gaps
270(1)
Definitions for the Gut-Brain Axis
271(1)
References
271(4)
24 Drug and Chemical Contaminants in Breast Milk: Effects on Neurodevelopment of the Nursing Infant
Tom Leibson
Prateek Lala
Shinya Ito
I Introduction
275(1)
II Effects of Breastfeeding on Infant Neurodevelopment
276(1)
III Exposure of Nursing Infants to Drugs in Breast Milk
277(1)
IV Effects of Maternal Exposure to Environmental Contaminants on the Nursing Infant
278(2)
V Drugs and Nonmedicinal Substances
280(1)
VI Information Resources
280(1)
VII Conclusions
280(3)
References
283(5)
V Behavioral Assessment
25 Behavioral Phenotyping in Developmental Neurotoxicology-Simple Approaches Using Unconditioned Behaviors in Rodents
Devon L. Graham
Jerrold S. Meyer
Gregg D. Stanwood
I Introduction
288(1)
II Basic Considerations
288(2)
III Simple Unlearned Behaviors and Other Measures for Assessing Developmental Neurotoxicity
290(7)
IV Behavioral Test Batteries in Developmental Neurotoxicology
297(4)
V Conclusions
301(1)
References
302(8)
26 Psychometric Tools to Study Cognition, Sensory Functioning, and Social Behavior in Infant and Adolescent Nonhuman Primates
Thomas M. Burbacher
Kimberly S. Grant
I Developmental Assessments for Young Macaque Infants (Birth to 3-4 Months of Age)
310(2)
II Assessing Cognition in Older Infants and Juveniles
312(1)
III Methodologies for Measuring Learning and Memory
312(1)
IV Tests of Cognition Suitable for Infant and Adolescent Monkeys
313(1)
V Raising the Bar on Difficulty: Measuring Complex Learning Abilities
314(1)
VI Tools to Measure Vision and Hearing
315(1)
VII Social Behavior in Play Groups and Mother-Infant Pairs
316(1)
VIII Concluding Remarks
317(1)
References
317(4)
27 Automated Assessment of Cognitive Function in Nonhuman Primates
John C. Talpos
Merle G. Paule
I Introduction
321(1)
II Measuring Cognition Very Early in Life
321(1)
III Evaluation of Cognitive Abilities From Late Infancy Into Adulthood
322(3)
IV Toxicological Testing Using Operant Methods During Development
325(1)
References
326(3)
28 Determining the Validity of Preclinical Behavioral Assessments for Extrapolation to a Clinical Setting
John C. Talpos
John J. Chelonis
I Introduction
329(2)
II Ecological Validity
331(1)
III Face Validity
332(1)
IV Convergent Validity
332(1)
V Construct Validity
333(1)
VI Predictive Validity
333(1)
VII Conclusions
334(1)
References
335(3)
29 Behavioral Outcome as a Primary Organizing Principle for Mechanistic Data in Developmental Neurotoxicity
Christina Sobin
Mari Golub
I Current Challenges in Risk Assessment
338(1)
II Organizing Principles for Mechanistic Data in Developmental Neurotoxicity are Needed Because the Brain is a "Complex Adaptive System"
338(1)
III Changes in Mechanistic Function During Neurodevelopment and Developmental Toxic Exposure May be Indistinguishable
338(1)
IV Behavior as an Organizing Principle for Mechanistic Data
339(1)
V Using a Single Behavioral Outcome at a Single Developmental Stage to Develop a Hierarchy of Mechanistic Effects: Rearing in Preadolescent Lead-Exposed Mice
339(2)
VI Which Mechanisms Have Been Associated With Mouse and Rat Rearing Behavior?
341(1)
VII Is There Mechanistic Evidence That Lead Exposure Disrupts Cholinergic Transmission?
341(1)
VIII How do We Understand Other Mechanistic Effects From Lead Exposure Relative to the Cholinergic System Disruption Indicated By Rearing Behavior?
341(1)
IX Does Evidence Suggest That Disruptions in the Cholinergic System Impact Glutamate/GABA Function?
341(1)
X What was Gained by Using Rearing Behavior at Preadolescence as a Starting Point for Organizing Extant Mechanistic Data?
342(1)
XI Limitations
342(1)
XII Using a Single Behavioral Outcome Measured at Multiple Developmental Stages to Understand the Salience of a Given Mechanism Across a Developmental Trajectory: Elevated Plus Maze (EPM) Performance as a Behavioral Measure of Anxiety
342(1)
XIII Bisphenol A as a Developmental Neurotoxicant
342(1)
XIV Anxiety as a Domain of Concern in BPA Risk Assessment
343(1)
XV EPM Anxiety and BPA Effects at Multiple Developmental Stages
343(1)
XVI What Brain Mechanisms are Relevant to EPM-Assessed Anxiety?
343(1)
XVII What Mechanism Pathways are Plausible Candidates for Developmental BPA Effects on EPM Anxiety?
343(2)
XVIII What is Gained by Using Behavior as an Organizing Principle?
345(1)
XIX Limitations
345(1)
XX Concluding Remarks
345(1)
References
345(6)
VI Clinical Assessment And Epidemiology
30 Evaluation of the Human Newborn Infant
Lilly Bogicevic
Marjolein Verhoeven
Annelqes Van Baar
I Introduction
351(1)
II A First Impression
352(1)
III Neurobehavioral Evaluations
353(3)
IV Neuroimaging
356(1)
V Neurophysiglogical Assessments
357(1)
VI Perinatal Riskcores
358(1)
VII Discussion
359(1)
References
359(4)
31 Neuropsychological Assessment of Children in Studies of Developmental Neurotoxicity
David C. Bellinger
Johanna Calderon
I Introduction
363(1)
II Selecting the Age at Which to Conduct a Neuropsychological Assessment
364(1)
III Considerations in Designing an Assessment Battery
364(3)
IV Interpretation
367(2)
References
369(2)
32 Neurodevelopmental Assessment of the Older Infant and Child
William J. Barbaresi
Julie Bickel
I Epidemiology of Pediatric Neurodevelopmental and Behavioral Disorders
371(1)
II Toolkit for Evaluation
372(4)
References
376(3)
33 Longitudinal Studies of the Effects of Prenatal Cocaine Exposure on Development and Behavior
Gale A. Richardson
Nancy L. Day
I Methodological Issues in the Study of Prenatal Cocaine Exposure
379(2)
II A Longitudinal Study of Prenatal Cocaine Exposure: The Maternal Health Practices and Child Development Project
381(2)
III Results From the Maternal Health Practices and Child Development Project and Other Longitudinal Investigations of Prenatal Cocaine Exposure
383(1)
IV Conclusions
384(1)
References
385(4)
34 Assessment of Case Reports and Clinical Series
Jan M. Friedman
I Introduction
389(1)
II Recognition of Patterns of Anomalies
389(1)
III Syndromes of Cognitive or Behavioral Abnormalities
390(4)
IV Limitations of Pattern Recognition
394(1)
References
395(4)
VII Specific Neurotoxic Syndromes
35 Fetal Minamata Disease: A Human Episode of Congenital Methylmercury Poisoning
Alessandra A. Dos Santos
Louis W. Chang
Grace Liejun Guo
Michael Aschner
I Introduction
399(1)
II Human Episodes
399(1)
III Neuropathology of Fetal Minamata Disease
400(4)
IV Concluding Remarks
404(1)
References
405(2)
36 The Developmental Neurotoxicity of Cadmium
Ashley J. Malin
Robert O. Wright
I Introduction
407(1)
II Prenatal and Postnatal Cadmium Exposure
408(1)
III Mechanisms of Developmental Neurotoxicity
408(1)
IV Neurobehavioral Outcomes in Animals
409(1)
V Neurodevelopmental Outcomes in Children and Adolescents
410(1)
VI Conclusions
411(1)
References
411(3)
37 Developmental Neurotoxicology of Lead: Neurobehavioral and Neurological Impacts
Stephen M. Lasley
I Lead Neurotoxicity in Children
414(4)
II Neurological Effects of Lead Neurotoxicity in Animals: Cognition and Plasticity
418(5)
References
423(4)
38 Fetal Alcohol Spectrum Disorder
Irena Nulman
Talya Shulman
Feiyuan Liu
I Introduction
427(1)
II Epidemiology of Alcohol Consumption in Pregnancy
428(1)
III Alcohol Mechanism of Action
428(2)
IV Epigenetics
430(1)
V Epidemiology of FASD and Economic Burden
430(1)
VI FASD Diagnosis
430(2)
VII FASD Disabilities
432(1)
VIII FASD and Mental Health
433(1)
IX FASD Challenges and Future Directions
434(1)
X FASD Prevention
434(1)
XI Conclusions
435(1)
References
435(4)
39 Developmental Neurotoxicity of Nicotine and Tobacco
Edward D. Levin
Yael Abreu-Villaca
I Tobacco and Nicotine Exposure During Pregnancy
439(1)
II Epidemiological Studies Find Neurobehavioral Dysfunction Associated With Tobacco Exposure in Pregnancy
440(1)
III Animal Models Show That Nicotine Exposure During Development Causes Neurobehavioral Impairment
441(2)
IV Nicotine Disrupts Neuronal Development
443(2)
V Neurotoxicity of Other Compounds in Tobacco
445(1)
VI Second Hand Smoke
446(1)
VII Other Nicotinic Compounds
447(1)
VIII Conclusions
447(1)
References
448(5)
40 Developmental Neurobehavioral Neurotoxicity of Insecticides
Yael Abreu-Villaca
Edward D. Levin
I Introduction
453(1)
II Organochlorines
454(2)
III Organophosphates
456(2)
IV Carbamates
458(1)
V Pyrethroids
459(1)
VI Neonicotinoids
460(1)
VII Concluding Remarks
461(1)
References
462(5)
41 Developmental Exposure to Polychlorinated Biphenyls Induces Deficits in Inhibitory Control and May Enhance Substance Abuse Risk
Mellessa M. Miller
Helen J.K. Sable
I Introduction
467(1)
II Developmental Neurobehavioral Neurotoxicity of PCBs
468(2)
III Developmental PCB Exposure Impairs Dopamine Function
470(1)
IV Perinatal PCB Exposure Changes the Developing Brain, But Males May Be More Sensitive
471(1)
V Where Do We Go From Here?
472(1)
References
472(5)
42 Developmental Neurotoxicity of General Anesthetics
Jennifer L. Walters
Merle G. Paule
I Introduction
477(1)
II Classes of Anesthetics and Mechanisms of Action
477(1)
III Nonclinical Studies of Anesthetic-Induced Neurotoxicity
478(2)
IV Clinical Studies
480(2)
V Protective Compounds
482(1)
VI Conclusions
482(1)
References
482(5)
43 Maternal Drug Abuse and Adverse Effects on Neurobehavior of Offspring
Diana Dow-Edwards
I Introduction
487(2)
II Opiates
489(2)
III Cocaine
491(1)
IV Cannabinoids/Marijuana
492(2)
V Methamphetamine
494(1)
VI MDMA
494(1)
VII Transgenerational and Paternal Exposures
495(1)
VIII Summary
495(1)
References
495(4)
44 Developmental Neurotoxicology of Antiepileptic Drugs
Jocelyn M. Lutes
Jolene E. Borchelt
Patricia A. Janulewicz
Jane Adams
I Introduction
499(1)
II Neurobehavioral Effects of Prenatal Exposure to Monotherapy Treatment
500(5)
III Putative Underlying Causes of Neuroteratogenic Effects
505(1)
IV Conclusions
506(1)
References
507(4)
VIII Risk Assessment
45 Current Approaches to Risk Assessment for Developmental Neurotoxicity
Susan L. Makris
Andrew D. Kraft
I Introduction
511(1)
II Risk Assessment Paradigm and General Concepts
512(1)
III Conduct and Considerations in Developmental Neurotoxicity Risk Assessment
513(9)
IV Common Data Gaps for DNT Studies of Environmental Chemicals
522(1)
V Summary
523(1)
References
524(3)
46 Animal/Human Concordance
Larry P. Sheets
William Slikker Jr
I Introduction
527(1)
II Human Conditions
528(2)
III Assessment of Neurobehavioral Development in Infants and Children
530(1)
IV Animal Models
530(4)
V Targeted Testing
534(1)
VI Newer Models and Approaches
535(1)
References
536(3)
47 Physiologically Based Pharmacokinetic Models in the Risk Assessment of Developmental Neurotoxicants
Kannan Krishnan
I Introduction
539(1)
II Construction and Evaluation of PBPK Models
540(6)
III Brain Dosimetry in PBPK Models
546(2)
IV PBPK Modeling of Developmental Neurotoxicants
548(2)
V Application of PBPK Models in the Risk Assessment of Developmental Neurotoxicants
550(3)
References
553(6)
48 Application of Quantitative Dose-Response Data in Risk Assessment and the Incorporation of High-Throughput Data
John C. Lipscomb
I Introduction
559(1)
II Problem formulation
560(3)
III Risk Assessment Fundamentals in the Federal Government
563(2)
IV Defining Adversity
565(2)
V Data From High-Throughput Assays
567(1)
VI Risk Quantitation
568(4)
References
572(1)
Index 573
Dr. William Slikker, Jr. was the director of FDAs National Center for Toxicological Research (NCTR) before his retirement. He received his Ph.D. in pharmacology and toxicology from the University of California at Davis. Dr. Slikker holds adjunct professorships in the Department of Pediatrics, as well as the Department of Pharmacology and Toxicology at the University of Arkansas for Medical Sciences. He has held committee chairmanships or elected offices in several scientific societies including the Teratology Society (serving as president) and the American Society for Pharmacology and Experimental Therapeutics (chair, Developmental Pharmacology Section and member, Program Committee). Dr. Slikker is also the co-founder and past president of the MidSouth Computational Biology and Bioinformatics Society. He is currently associate editor for NeuroToxicology and associate editor for the Environmental Health” section of Experimental Biology and Medicine. He is the past president of The Academy of Toxicological Sciences and the Society of Toxicology. He is a recipient of the 2014 George H. Scott Memorial Award from The Toxicology Forum and was invited to present the Warkany Lecture at the 2015 annual meeting of the Teratology Society. In early 2019, the Academy of Toxicological Sciences selected Dr. Slikker to receive the prestigious Mildred S. Christian Career Achievement Award. The Society for Birth Defects Research and Prevention selected Dr. Slikker to be the recipient of the 2022 Edward W. Carney Distinguished Service Award.

Dr. Slikker has authored or co-authored over 380 publications in the areas of transplancentalpharmacokinetics, developmental neurotoxicology, neuroprotection, systems biology, and risk assessment. Dr. Slikkers recent research has highlighted the concern for thousands of infants and toddlers who undergo longer-duration general anesthesia. He has performed research with his team and published over 25 peer-reviewed papers outlining the issue of brain-cell death and cognitive-function deficits in animal models that may result from several hours of anesthesia at a critical time of development. He has also, with the use of in vitro and in vivo techniques in rodents and nonhuman primates, defined possible mechanisms of toxicity and protective pathways to prevent the detrimental effects of general anesthesia. Through these and related scientific contributions, he has identified and characterized a host of minimally invasive biomarkers of neurotoxicity including the use of preclinical imaging (MRI, MicroPET/CT), genomic and lipidomic analysis, and modeling approaches to characterize and quantify adult and developmental neurotoxicity. He has also served on several national/international advisory panels for ILSI, HESI, CIIT, EPA, NIEHS, NAS, NIH and WHO. Dr. Paule received his B.S. in Biochemistry and his Ph.D. in Pharmacology and Toxicology at the University of California at Davis. In 1983 he began work at the FDAs National Center for Toxicological Research in Jefferson, Arkansas, where he remains today. He attained certification as one of FDAs Senior Biomedical Research Scientists in 2000 and in 2005 became the Director of the Division of Neurotoxicology at NCTR. Dr. Paule has played a major role in developing an automated system for monitoring multiple complex brain functions in nonhuman primates, children, and rodents. Utilization of similar or identical behavioral tasks across species serves to facilitate the interspecies extrapolation of exposure data and, thus, the risk assessment process. He is past President of the Behavioral Toxicology Society, the Neurobehavioral Teratology Society and the Neurotoxicology Specialty Section of the Society of Toxicology and Associate Editor for the journals NeuroToxicology and Neurotoxicology and Teratology. Dr. Paule has published over 225 research articles and 30 book chapters and holds Adjunct Professorships at the University of Arkansas for Medical Sciences in the Departments of Pharmacology and Toxicology and in Pediatrics. He is an elected Fellow in the Academy of Toxicological Sciences and in the International Behavioral Neuroscience Society. Cheng Wang, M.D., Ph.D. is a Senior Scientist at the National Center for Toxicological Research (NCTR)/US Food and Drug Administration (FDA). He is also an Adjunct Faculty member in the Department of Pharmacology and Toxicology, University of Arkansas for Medical Sciences (UAMS). Dr. Wang is the P.I. of protocols (grants) supported by the NCTR/FDA, National Toxicology Program and NICHD. He is currently responsible for leading a research team that provides unique and highly specialized skills in neural toxicology, pharmacology, systems biology and stem cell biology research. Dr. Wang has published more than 80 peer-reviewed research articles in prestigious journals and 20 book chapters. Dr. Wang is a Co-Editor-in-Chief of the book entitled Developmental Neurotoxicology Research: Principles, Models, Techniques, Strategies, and Mechanisms” and Neural Cell Biology”. He also serves as Editor-in-Chief for Journal of Evolving Stem Cell Research (JESR) and Global Journal of Anesthesiology.

Dr. Wang was awarded the Outstanding Performance Award at the Society of Toxicology 44th Annual Meeting and the 2007 FDA Scientific Achievement Award for Excellence in Laboratory Science. He also was awarded a 2008 FDA Group Recognition Award for his participation in the Pediatric Anesthesia Research Group.

Research Interests Neural Stem Cell Biology Application of Systems Biology in Neurotoxicological Studies during Development Activity-induced Synaptic Plasticity and Neural Cell Adhesion Molecule Potential Pediatric Anesthetic-induced Neural Cell Death and the Potential Role of Neurotransmission (Mechanistic Studies) Mitochondrial DNA Damage and Expression Levels of DNA Repair Enzymes