Ultra-precision Bearings
Autor F Wardleen Limba Engleză Hardback – 18 feb 2015
- Provides practical information relating to precision bearing design and application
- Provides an insight into the basic mechanisms that influence precision bearing performance
- Written by an experienced and well respected bearing specialist
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Specificații
ISBN-13: 9780857091628
ISBN-10: 085709162X
Pagini: 442
Dimensiuni: 156 x 234 x 25 mm
Editura: ELSEVIER SCIENCE
ISBN-10: 085709162X
Pagini: 442
Dimensiuni: 156 x 234 x 25 mm
Editura: ELSEVIER SCIENCE
Cuprins
- List of figures and tables
- Preface
- About the author
- 1. Introduction
- Abstract
- 1.1 Benefits of ultra precision bearings
- 1.2 A systems approach
- 1.3 Bearing motion error
- 1.4 Static stiffness
- 1.5 Damping
- 1.6 The bearing as a dynamic machine element
- 1.7 Thermal characteristics
- 1.8 Closure
- 1.10 Notation
- 2. Ball bearings
- Abstract
- 2.1 Scope
- 2.2 Bearing sections
- 2.3 Bearing arrangements
- 2.4 Bearing tolerances
- 2.5 Ring fits and mounting parameters
- 2.6 Ball bearing load–deflection characteristics
- 2.7 Static stiffness characteristics of ball bearings
- 2.8 Damping in ball bearings
- 2.9 Motion error
- 2.10 Power consumption and thermal distortion
- 2.11 Life and reliability
- 2.12 Closing remarks
- 2.13 Appendix 2A, Vibration forces generated by waviness on the rolling surfaces of thrust bearing ball bearings
- 2.15 Notation
- 3. Hydrostatic bearings
- Abstract
- 3.1 Introduction
- 3.2 Bearing description
- 3.3 Basic operating principles
- 3.4 Pocket geometries
- 3.5 Hydrostatic bearing arrangements
- 3.6 Types of compensation
- 3.7 Approximate load capacity and static stiffness
- 3.8 Oil flow through a narrow gap
- 3.9 Temperature dependence of oil viscosity
- 3.10 Bearing load and deflection characteristics
- 3.11 Damping
- 3.12 Motion error
- 3.13 Power consumption and heat generation
- 3.14 Reliability
- 3.16 Notation
- 4. Aerostatic bearings
- Abstract
- 4.1 Introduction
- 4.2 Bearing geometries and arrangements
- 4.3 Principle of operation
- 4.4 Types of compensation
- 4.5 Approximate load capacity and static stiffness
- 4.6 Load–deflection analysis
- 4.7 Mass flow rate of air through an orifice
- 4.8 Mass flow rate of air through a porous insert
- 4.9 Grooved and recessed bearings
- 4.10 Porous air bearings
- 4.11 Air bearing static stiffness characteristics
- 4.12 Damping and dynamic stability
- 4.13 Motion error
- 4.14 Thermal characteristics
- 4.15 Reliability
- 4.17 Notation
- 5. Hydrodynamic herringbone and spiral grooved bearings
- Abstract
- 5.1 Introduction
- 5.2 Bearing types
- 5.3 Operating principles
- 5.4 Past developments
- 5.5 Load–deflection analysis of annular thrust bearings
- 5.6 Annular thrust bearing design examples
- 5.7 Radial load–deflection analysis of herringbone grooved journal bearings
- 5.8 Load capacity and static stiffness characteristics of herringbone grooved journal bearings
- 5.9 Damping and dynamic stability
- 5.10 Motion error
- 5.11 Thermal characteristics
- 5.12 Overview
- 5.14 Notation
- 6. Aerodynamic herringbone and spiral grooved bearings
- Abstract
- 6.1 Introduction
- 6.2 Bearing types
- 6.3 Past developments
- 6.4 Static load capacity and stiffness of aerodynamic annular thrust bearings
- 6.5 Design example
- 6.6 Static load capacity and stiffness of aerodynamic herringbone grooved journal bearings
- 6.7 Example of static stiffness and load capacity
- 6.8 Damping and dynamic stability
- 6.9 Thermal characteristics
- 6.10 Overview
- 6.12 Notation
- Index