MATERIALS SELECTION IN MECHANICAL DESIGN. M.F. Ashby and D. Cebon. Engineering Department, Trumpington Street, Cambridge CB2 1PZ, UK. download Materials Selection in Mechanical Design - 5th Edition. Print Book Authors: Michael Ashby. eBook ISBN: DRM-free (EPub, Mobi, PDF). × DRM-. download Materials Selection in Mechanical Design - 3rd Edition. E-Book. ISBN Authors: Michael Ashby. eBook ISBN:
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MATERIALS SELECTION. MECHANICAL DESIGN. IN. SECOND EDITION. MICHAEL F. ASHBY. Department of Engineering, Cambridge University, England . Materials Selection in Mechanical Design Third Edition Michael F. Ashby . Edition Image bank The Image Bank provides adopting tutors and lecturers with PDF. Materials Selection in Mechanical Design Third Edition Michael F. Ashby AMSTERDAM BOSTON HEIDELBERG LONDON NEW YORK OXFORD PARIS SAN.
Written for all students of engineering, materials science and design, this book describes the procedures for material selection in mechanical design in order to ensure that the most suitable materials for a given application are identified from the full range of materials and section shapes available. Fully revised and expanded for this third edition, Materials Selection in Mechanical Design is recognized as one of the leading texts, and provides a unique and genuinely innovative resource. Materials are introduced through their properties; materials selection charts now available on line capture the important features of all materials, allowing rapid retrieval of information and application of selection techniques. Merit indices, combined with charts, allow optimization of the materials selection process. Sources of material property data are reviewed and approaches to their use are given. Material processing and its influence on the design are discussed. New chapters on environmental issues, industrial engineering and materials design are included, as are new worked examples, and exercise materials.
Selection of Material and Shape Abstract Microscopic Shape Material and Shape: Case Studies Abstract Wood, Bamboo or Steel? Thin or Light? Leaf and Strand Structures Designing Hybrid Materials Abstract Foams and Lattices The Stiffness and Strength for Multilayers Heat-Spreading Surfaces Natural Materials Chapter Materials and the Environment Abstract Drink Containers and Crash Barriers Materials and Industrial Design Abstract Analysing Product Personality Sustainable Response to Forces for Change Abstract Sustainable Development Data for Engineering Materials A.
Material Indices C.
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We will be sure to forward your positive feedback to the editorial. There is everything in this book for anyone interested in materials science, mechanical engineering and materials mechanical design concepts. Every university library should own one. This book is important, both for teaching and research.
A Aroa D. Materials Selection in Mechanical Design.
Once a path is found, it is always possible to make it look linear and logical and many books do this , but the reality is more like Figure 2. Thus a key part of design, and of selecting materials for it, is flexibility, the ability to explore alternatives quickly, keeping the big picture as well as the details in focus.
Our focus in later chapters is on the selection of materials and processes, where exactly the same need arises. The selection charts of Chapter 4 and the methods of Chapter 5 help do this. Described in the abstract, these ideas are not easy to grasp.
An example will help — it comes in Section 2. First, a look at types of design.
Original design does: it involves a new idea or working principle the ball-point pen, the compact disc. New materials can offer new, unique combinations of properties that enable original design. Thus high-purity silicon enabled the transistor; high-purity glass, the optical fiber; high coercive-force magnets, the miniature earphone, solid-state lasers the compact disc.
Sometimes the new material suggests the new product; sometimes instead the new product demands the development of a new material: nuclear technology drove the development of a series of new zirconium-based alloys and low-carbon stainless steels; space technology stimulated the development of light-weight composites; turbine technology today drives development of high-temperature alloys and ceramics. Adaptive or developmental design takes an existing concept and seeks an incremental advance in performance through a refinement of the working principle.
This, too, is often made possible by developments in materials: polymers replacing metals in household appliances; carbon fiber replacing wood in sports goods.
The appliance and the sports-goods market are both large and competitive. Markets here have frequently been won and lost by the way in which the manufacturer has adapted the product by exploiting new materials.
Variant design involves a change of scale or dimension or detailing without change of function or the method of achieving it: the scaling up of boilers, or of pressure vessels, or of turbines, for instance. Change of scale or circumstances of use may require change of material: small boats are made of fiberglass, large ships are made of steel; small boilers are made of copper, large ones of 2.
They are shown as inputs, attached to the left of the main backbone of the design methodology in Figure 2. The tools enable the modeling and optimization of a design, easing the routine aspects of each phase. Function-modelers suggest viable function structures. Configuration optimizers suggest or refine shapes. Geometric and 3D solid modeling packages allow visualization and create files that can be down-loaded to numerically controlled prototyping and manufacturing systems.
Information about materials is needed at each stage, but at very different levels of breadth and precision. Finite element FE and Computational Fluid Dynamics CFD packages allow precise mechanical and thermal analysis even when the geometry is complex and the deformations are large.
Materials selection enters each stage of the design. The nature of the data needed in the early stages differs greatly in its level of precision and breadth from that needed later on Figure 2.
At the concept-stage, the designer requires approximate property-values, but for the widest possible range of materials. All options are open: a polymer may be the best choice for one concept, a metal for another, even though the function is the same.
The problem, at this stage, is not precision and detail; it is breadth and speed of access: how can the vast range of data be presented to give the designer the greatest freedom in considering alternatives?
At the embodiment stage the landscape has narrowed. Here we need data for a subset of materials, but at a higher level of precision and detail.