Integrated reliability : condition monitoring and maintenance of equipment /: condition monitoring and maintenance of equipment. (2015)

• Record Type: Book
• Further Information: Note: John Osarenren.
• Authors: Osarenren, John Osarodion
• Contents: Overview for Condition Monitoring and Maintenance of Equipment in the Industries of the Future; Increasing the Existing Maintenance and Operations of Industrial Equipment Productivity in Plants; Analysis of Maintenance and Operations of Industrial Equipment Productivity in Plants; Condition Monitoring and Maintenance of Industrial Equipment in the Industries of the Future; Existing Maintenance Strategies of Industrial Equipments in the Industries of the Future; Limitations of Existing Condition Monitoring and Maintenance Strategies of Industrial Equipment in the Industries of the Future; Maximum Achievable Reliability Condition and Maintenance Requirements for Part-Process-Equipment System with the Technological Inheritance Technique; Equipment Reliability Degradation and Failure Variation Control with the Technological Inheritance Technique; Equipment Reliability Growth and Optimum Condition Variation Control with the Technological Inheritance Technique; Conclusions; References; Integrated Reliability of Material-Part-Equipment System Life Cycle with the Technological Inheritance Technique ; Introduction to Integrated Reliability Condition Monitoring and Maintenance Process of Material-Part-Equipment System Life Cycle; Measuring the Impact of Equipment Integrated Reliability Condition Monitoring and Maintenance on a Business; Equipment-Part Life Cycle and Phase-Out Conditions; Equipment Failures and Part Replacement System; Measuring the System Reliability Degradation and Rate of Failures with the Technological Inheritance Technique; Concepts and Feasibility of Part Material: Manufacturing Method of Part-Equipment System Reliability Condition Control with the Technological Inheritance Coefficient; Hard Alloy-Coated Part Surface Quality and Process Performance Variations with the Technological Inheritance Model; Material, Part, and Process Selection for Wear-, Corrosion-, and Temperature-Resistant Applications in the Industries of the Future; Measurement Points; Optimum Selection of Parts, Manufacturing Processes, and Industrial Equipment System for Maximum Achievable Reliability with the Technological Inheritance Technique; Integrated Reliability Condition Monitoring and Maintenance of Material and Manufacturing Processes and Equipment with the Technological Inheritance Technique; Developing Quality, Reliability Growth, Degradation Chain, and Maintenance Cost Program with Technological Inheritance Coefficients; Conclusion; References; Reliability Growth and Degradation of System Condition Monitoring with the Technological Inheritance Technique ; Reliability Definitions; Integrated Reliability Theory for Manufacturing Process, Part, and Equipment System Condition Monitoring with the Technological Inheritance Technique; Component and System Reliability Growth and Degradation Assessment with the Technological Inheritance Technique; Maximum Achievable Reliability Requirements of Hard Alloy-Coated Part in the Manufacturing Process and Equipment for Wear- and Other Competing Failure-Resistant Applications; Integrated Reliability Condition Monitoring of the Manufacturing Process and Equipment System; Integrated Reliability Condition Monitoring and Maintenance of Manufacturing Processes and Equipment Mechanism with the Technological Inheritance Model; Quantitative and Qualitative Assessments of Integrated Reliability Coefficient Test; Integrated Reliability Condition Monitoring and Maintenance with Technological Inheritance Coefficient Assessment for Manufacturing Processes and Industrial Equipment; Reliability Condition Growth Prediction Using Multivariate Quality with the Multivariate Regression Model; Setting Integrated Reliability Requirements with Multivariate Regression and Technological Inheritance Models; Optimization of Reliability Condition Monitoring and the Maintenance of Processes, Parts, and Equipments with the Technological Inheritance Technique; Developing Reliability Growth and Degradation Improvement Tests for Optimum Component Conditions and the Failures of Equipment with the Technological Inheritance Technique; Conclusions; References; Role of Technological Inheritance Technique for Condition Monitoring and Maintenance of Industrial Equipment ; Integrated Reliability Condition Monitoring and Maintenance Assessment with the Technological Inheritance Technique; Integrated Reliability Condition Monitoring and Maintenance Route with the Mathematical Technological Inheritance Model; Determination of Component Quality and Failure Mode Condition Characteristics with the Technological Inheritance Model; Multiple Mathematical Modeling for Integrated Reliability Condition Monitoring and Maintenance of Parts, Manufacturing Processes, and Industrial Equipments with the Technological Inheritance Technique; Determination of Component Reliability Degradation and Maintenance with the Technological Inheritance Model; Determination of Component Reliability Growth and Maintenance with the Technological Inheritance Technique; Benefits of the Role of the Technological Inheritance Technique in Integrated Reliability Condition Monitoring and Maintenance of Manufacturing Processes, Parts, and Industrial Equipment; Conclusion; References; Maximum Achievable Reliability Design for Critical Parts of Equipment with Technological Inheritance Model ; Robust Design of Hard Alloy-Coated Part Surface for Wear-, Corrosion-, and Temperature-Resistant Applications; Design of Experiments for Maximum Achievable Lifetime Reliability of Hard Alloy-Coated Critical Part Surface Conditions; Planning the Design of Experiment for Maximum Achievable Quality-Reliability Chain of Critical Parts, Manufacturing Processes, and Industrial Equipments with the Multivariate Regression Model; Statistical Experimental Planning of a Multifactorial Design for Optimum Quality and Reliability of Parts, Processes, and Equipment Conditions; Experimental Plan of the Second-Order Design for Optimum Reliability of Part, Process, and Equipment Conditions; Rotatable Experimental Plan Design for Optimum Reliability of Part, Process, and Equipment Conditions; Multivariate Regression Models for Hard Alloy Workpiece Surface Quality Condition for Wear and Other Competing Failure Resistance Applications by Rotary Cutting with Plasma Flame; Multivariate Regression Models of a Hard Alloy-Coated Part Surface Condition for Wear and Other Competing Failure Resistance Application; Multivariate Regression Model Analysis of a Hard Alloy-Coated Part Surface Condition for Wear and Other Competing Failure Resistance Application; Determination of the Optimum Rotary Cutting with Plasma Flame Machining and Workpiece Surface Quality Conditions for Reliability Requirements; Reliability Requirements and Measurement Characteristics for Integrated Reliability Monitoring and Maintenance of Parts and Equipments with a Technological Inheritance Model-Based Program; Reliability Testing and Measurement of Reliability Growth and Degradation of Part, Process and Equipment System with a Technological Inheritance Model-Based Program; Component and Process Performance Condition Profile with the Technological Inheritance Model-Based Design; Integrated Reliability Condition Monitoring and Maintenance Mechanisms with Technological Inheritance Coefficients for Wear and Other Competing Failure Resistance Applications; Design Procedures for Integrated Reliability Monitoring and Maintenance of Machine Parts, Manufacturing Processes, and Industrial Equipment with the Technological Inheritance Model-Based Technique; Conclusions; References; Selection of Coating Materials, Parts, and Equipment System with the Technological Inheritance Technique ; Characteristics of Industries of the Future; Existing Materials Models and Databases; Selection of Nickel-Based Alloys for Corrosion-Resistant Applications; Selection of Self-Fluxing Alloy Powders for Wear and Temperature Resistance Applications; Optimum Selection of Materials for Failure-Resistant Coatings with Multivariate Regression and a Technological Inheritance Model-Based Program; Optimum Component/System Reliability Selection; Reliability Testing for Optimum Condition and Failures of Coating Materials with Multivariate Regression and Technological Inheritance Model-Based Design; Conclusions; References; Reliability Growth Condition of Coating Material and Deposition Process with a Technological Inheritance Model-Based Program ; Existing Selection of Part Surface Coating Material and Deposition Process for Wear and Other Competing Failure Resistance Applications; Coating Deposition Techniques and Processes for Wear, Corrosion, and Temperature Failure Resistance Applications; Mechanical Properties; Industrial Experience of Thermal Spraying Processes for Failure Resistance Applications; Recommendations and Its Future; Reliability Test for Growth of Hard Alloy-Coated Materials and Workpiece Surface Optimum Conditions with a Technological Inheritance Model-Based Program; Integrated Reliability Condition Monitoring and Maintenance of Hard Coating Materials and Coated Workpiece Part Surface with a Technological Inheritance Model-Based Program<
• Edition: 1st
• Publisher Details: Boca Raton : CRC Press
• Publication Date: 2015
• Extent: 1 online resource, illustrations (black and white)
• Subjects: 621.816; Industrial equipment -- Maintenance and repair; Machinery -- Monitoring
• Languages: English
• ISBNs: 9781482249422
• Related ISBNs: 9781482249408
• Notes: Note: Includes bibliographical references and index.; Note: Description based on CIP data; item not viewed.
• Access Rights: Legal Deposit; Only available on premises controlled by the deposit library and to one user at any one time; The Legal Deposit Libraries (Non-Print Works) Regulations (UK).
• Access Usage: Restricted: Printing from this resource is governed by The Legal Deposit Libraries (Non-Print Works) Regulations (UK) and UK copyright law currently in force.