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QSAR in safety evaluation and risk assessment / Huixiao Hong, editor.
- Format:
- Book
- Language:
- English
- Subjects (All):
- Drugs--Structure-activity relationships.
- Drugs.
- QSAR (Biochemistry).
- Quantitative Structure-Activity Relationship.
- Consumer Product Safety.
- Environmental Pollutants.
- Toxicity Tests.
- Medical Subjects:
- Quantitative Structure-Activity Relationship.
- Consumer Product Safety.
- Environmental Pollutants.
- Toxicity Tests.
- Physical Description:
- 1 online resource (566 pages)
- Edition:
- 1st ed.
- Other Title:
- Quantitative structure–activity relationship in safety evaluation and risk assessment
- Place of Publication:
- Kidlington, England : Matthew Deans, [2023]
- Summary:
- QSAR in Safety Evaluation and Risk Assessment provides comprehensive coverage on QSAR methods, tools, data sources, and models focusing on applications in products safety evaluation and chemicals risk assessment. Organized into five parts, the book covers almost all aspects of QSAR modeling and application. Topics in the book include methods of QSAR, from both scientific and regulatory viewpoints; data sources available for facilitating QSAR models development; software tools for QSAR development; and QSAR models developed for assisting safety evaluation and risk assessment. Chapter contributors are authored by a lineup of active scientists in this field. The chapters not only provide professional level technical summarizations but also cover introductory descriptions for all aspects of QSAR for safety evaluation and risk assessment.
- Contents:
- Front Cover
- QSAR IN SAFETY EVALUATION AND RISK ASSESSMENT
- Copyright
- Contents
- List of contributors
- Preface
- 1 - QSAR facilitating safety evaluation and risk assessment
- Introduction
- Data sources for QSAR
- QSAR methods
- Evaluation of QSAR models
- Machine learning and deep learning accelerate QSAR development
- Machine learning
- Deep learning
- Perspectives
- References
- I - Methods and advances of QSAR
- 2 - Development of QSAR models as reliable computational tools for regulatory assessment of chemicals for acute tox ...
- Introduction: growing regulatory pressure to develop alternative computational methods for chemical toxicity assessment
- Comparison of computational approaches for chemical toxicity prediction
- Contrasting alerts and QSAR-based predictions of acute toxicity
- Integration of interpretative QSAR models and chemical alerts
- The continuing importance of data quality and curation in the age of big data and AI
- Biomedical knowledge mining to identify mechanistic pathways underlying chemical toxicity effects
- Conclusions and perspectives
- Acknowledgments
- 3 - Neural network-based descriptors as input for QSAR
- Deep learning-based methods for generating descriptors
- Element expression and summarization
- Latent representation of the whole structure
- Other methods for generating descriptors
- Black box approach in deep learning-based descriptors
- Summary
- Combination with different modalities: phenotype-based descriptors
- Future perspectives
- Further reading
- 4 - Decision forest-a machine learning algorithm for QSAR modeling
- Decision forest algorithm
- Two-class classification
- Multiclass classification.
- QSAR models developed using decision forest
- QSAR models for predicting estrogen receptor activity
- QSAR models for predicting androgen receptor activity
- QSAR models for predicting drug-induced liver injury
- Conclusion remarks
- 5 - Integrated modeling for compound efficacy and safety assessment
- Compound representation
- Molecular representation
- MOA representation
- Datasets for compound discovery
- Virtual screening
- Quantitative structure-activity relationship
- Generative models
- Read-across
- Biomarker discovery
- Systems pharmacology
- Knowledge graph-based approaches for chemical safety and drug design
- Conclusions
- 6 - Deep learning quantitative structure-activity relationship methods for chemical toxicity prediction and risk as ...
- Deep learning methods
- Deep neural network
- Convolutional neural network
- Recurrent neural network
- Graph neural network
- Key DL techniques for QSAR researches
- Hyperparameter optimization and overfitting controlling
- Model visualization and interpretation
- Recent advances in DL-based QSAR researches in toxicity prediction and risk assessment
- Consensus, heterogenous, and other DL methods
- Free available DL-based tools for chemical toxicity prediction
- Conclusions and future perspectives
- 7 - Predictive modeling approaches for the risk assessment of persistent organic pollutants (POPs): from QSAR to ma ...
- Significant breakthroughs in QSAR modeling of POPs
- Current advancements and guidelines for QSAR model development of POPs
- Different molecular endpoints for the classification of POPs.
- Molecular descriptors utilized in the QSAR modeling of POPs
- Statistical and ML-based approaches for model development of POPs
- Classical approaches for QSAR model development
- ML-based QSAR approaches
- Contemporary QSAR tools for PBT analysis of POPs
- 8 - Machine learning-based QSAR for safety evaluation of environmental chemicals
- ML-driven QSAR modeling
- Molecular structure descriptors
- ML-driven fingerprints
- Algorithms
- ML-driven QSAR applications
- High-throughput screening toxicity data-driven QSAR model
- Read-across coupled with ML-based QSAR
- Adverse outcome pathway-based modeling
- Multiomics-based modeling
- Challenges in QSAR model construction
- 9 - Advances in QSAR through artificial intelligence and machine learning methods
- Roadmap of QSAR method
- QSAR methods based on molecular descriptors
- Artificial intelligence in drug screening
- Iterative integration of different models in QSAR
- Neural network learning
- Artificial neural network-quantitative structure-activity relationship
- Machine learning models-Quantitative structure-activity relationship
- Deep learning-Quantitative structure-activity relationship
- Decision tree algorithms
- Random forest
- Supervised learning
- Intrinsic proximity measure
- AdaBoost classifier
- Partial least squares regression
- Software's available for QSAR
- Concluding remarks
- 10 - Advances of the QSAR approach as an alternative strategy in the environmental risk assessment
- The principal aspects of ERA
- New approach methodologies (NAMs)
- The QSAR approach and its fundaments
- QSAR theory
- Similarity influence in the QSAR models
- Aims of QSAR modeling.
- General methodologies of the QSAR models
- Structure-activity relationship approach
- Multivariable linear regression
- Comparative molecular fields analysis
- QSAR modeling
- Training
- Modeling processes
- Validation and interpretation of the QSAR models
- Features, contributions, and advances of QSAR modeling in ERA processes
- Future perspective of QSAR modeling within ERA approach
- 11 - QSAR modeling based on graph neural networks
- QSAR models for the management of chemicals
- QSAR models for predicting chemical properties
- QSAR models for screening PBT chemicals
- GNN algorithm
- Basic principles of GNNs
- Principles of graph attention networks
- QSAR model based on graph attention network
- GNN for QSAR modeling
- GNN models for chemical property predictions
- GAT models for screening PBT chemicals
- Applicability domains for GNN-based QSAR models
- II - Tools and data sources for QSAR
- 12 - Modeling safety and risk assessment with VEGAHUB
- The global needs of modern society about risk assessment and safety
- The VEGAHUB components
- The VEGA in silico models
- The read-across tools
- The VERMEER tools
- The ToxEraser tool
- The JANUS tool
- The architecture and the conceptual basis within VEGAHUB
- The use of VEGAHUB for safety and risk assessment
- The role of VEGAHUB within a larger network
- 13 - Recent advancements in QSAR and machine learning approaches for risk assessment of organic chemicals
- Brief overview of the methodologies used for QSAR modeling in predictive toxicology
- Data collection and data preparation
- Molecular descriptor computation
- Feature selection
- Modeling algorithms
- Basics of ML
- ML algorithms
- SVM.
- Decision tree
- k-NN
- RF
- Naive Bayes
- Gaussian process regression
- Neural networks
- QSAR model validation
- Other methods
- Read-across structure-activity relationship
- QSPR applications in toxicity prediction of organic chemicals
- Prediction of endocrine disruptive chemical toxicity using QSTR
- Prediction of miscellaneous chemical toxicity using QSTR
- Conclusion
- Acknowledgment
- 14 - admetSAR-A valuable tool for assisting safety evaluation
- Basic architecture of admetSAR
- Details of admetSAR
- Data collection and preparation
- Data representation and model building
- Model evaluation and prediction
- Property optimization module-ADMETopt
- Usage of admetSAR
- Submission web page
- Output web page
- ADMETopt web page
- Applications of admetSAR
- Evaluation of newly synthesized molecules
- ADMET evaluation in virtual screening
- ADMET evaluation in mechanism exploration
- Comparison with other tools
- Conclusions and outlook
- 15 - QSAR tools for toxicity prediction in risk assessment-Comparative analysis
- The basic information of toxicity prediction software package
- Development background
- Toxicity prediction endpoints
- User experience
- Modeling methods of the toxicity prediction software packages
- Type of endpoints
- Raw datasets
- Structural characterization method
- Application domain
- 16 - Fast and efficient implementation of computational toxicology solutions using the FlexFilters platform
- The "filter" concept
- Syntax for the filter calls
- Frequently used filters in FlexFilters platform
- Building FlexFilters modules
- Applying the modules for prediction.
- Examples of computational toxicology solutions built using the FlexFilters methodology.
- Notes:
- Includes bibliographical references and index.
- Description based on print version record.
- Other Format:
- Print version: Hong, Huixiao QSAR in Safety Evaluation and Risk Assessment
- ISBN:
- 9780443153402
- 044315340X
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