Index
Note: Page numbers followed by f indicate figures, t indicate tables, and p indicate plates.
A
American Society of Mechanical Engineers (ASMEs) third annual survey
engineers and organizations
402
B
Bahrain World Trade Center, Wind Turbines
97,
98p
Beach Groynes, Bournemouth
69,
70p
procedure, analyst/designer
266–269roof beam loading regime
265sectional view, intended
268f
Blue Angel certification
388
environmental impact, industrial activity
352
energy efficiency improvement/in-built usage
380–381,
381fnet cost-benefit argument, longevity/reparability
381–382C
emissions, waste, environmental quality
347quality, natural environment
347
Cantilever lifting device
292
Carbon fiber impact attenuator
252,
254f
advantages and disadvantages
362goods and services, climate change
361life cycle assessment
361
Carbon Reduction Label
389
Carstacker Mk2 with concrete base ,
2p
analogy and association generation techniques
153–156,
162fgenerated solutions, phases
155–156topic and ground rules
153
presentation, designs
223styles, methods and presentation
223
Combined Heat and Power Act (KWKG)
350
The Comet, First Jet Airliner
instructions, drawing
213oft-repeated convention
214title block and border
213
Computational fluid dynamics (CFD)
air pressure profile, 70 Mph velocity
259,
260f100 mm-height intervals, road surface
259,
261fred-colored areas, maximum air disruption
259standard passenger vehicle
259,
259f
accelerator pedal,
in situ in pedal bracket
234,
236ffinal concept design, high-performance vehicle
234,
234ffinite element stress analysis model
235,
238ffirst solid plate iteration without weight saving
234,
237fside view, accelerator pedal initial concept design
234,
235fstrength and weight, component/structure
234
Computer-aided failure (CAF)
supermarket (Mall) roof
256
Concept design specification (CDS)
function and performance
52physical architectural model
52,
53pheuristic redefinition
44–45imaginary brainstorming
45word-picture associations and analogies
45technical informations
54typical 3-D model
52,
52p
benchmarking, competitive products
129“development iteration”
125electric arc welding unit
126,
127fidentification, customer needs
125–126
D
“Biggest Pie in the World”
279cross-section, single beam element
281,
281fone single column within fabrication
281
advantages, structural analysis
299CAD modeling and simulation software
24cantilever lifting device
292classic design approach
31f,
32decision-making process
30flywheel energy storage system
tasks list and sequence number allocation
175,
177fFootball stadium roof structure
298,
298pfunctional parameters and metrics
kinetic energy storage device project
33–34high-performance vehicle
25,
25fhigh-priority/low-priority activities
172accelerator pedal
25,
26finnovative process methods
295assembly direction minimization
307design parts, fabrication and assembly
304–305handling minimization
307industry, 20
th century
22multifunctional parts
303multiuse design parts
304passenger vehicle body
296product creation process
291product types and optimization approaches
293,
294fquality, manufactured goods
23recycling infrastructure
310requirements and tools, product
25second concept design
25,
27fsingle-unit production
299statistical, stress and structural analysis
25,
27f,
292,
295sustainable design function
310–311uniformly stressed beams
299
Design constraints and team formation
engineering purchaser
322manufacturing engineer
322multidisciplinary design team
321
constructive discontent
29flywheel kinetic energy storage system
28knowledge and skills
25–28magnetic levitation bearings
28
Design information process model
5–6,
6f
Digital analytical prediction
296
assembly and subassembly drawings
200detail/manufacturing drawings
199–200
allocation, drawing numbers
216–219material specification
211text and formal lettering
212tolerances and surface finish
210–211E
environmental impact and carbon footprint (CO
2) scores
362
recycling issues and “hidden flow”
360virtual material (VM)
360 World Summit on Sustainable development (WSSD)
358–360
resistance, shock load
229
Energy Conservation Act (EnEg)
350
basic design process, feedback evolution ,
3fbicycle, modern concept ,
3pBloodhound SSC 1,000-mph Car ,
9pCarstacker Mk2 with concrete base ,
2p3-D computer-aided design (CAD)
design information process model
5–6,
6fdevelopment, passenger vehicle , ,
8penvironmental impact and sustainability
16–18information, communication ,
10“information is the currency of design”
5–6Laufmaschine bicycle ,
2pThe London Millennium Footbridge
13–14,
14plubrication delivery systems
12motorcycle helmet model ,
9ppackages, CAD software
10product concept and cost ,
12suppliers and manufacturers
Environmental impact assessment (EIA)
carbon emission reductions
358“fit-and-forget” approach
358
framework directives, national law
349mandatory product requirements,
Ecodesign Directive 347–348product groups, working plan
348sustainable and renewable energy generation
348F
Fatigue strength prediction
The Comet, First Jet Airliner
236gear tooth crack propagation
240,
241psurface profile, typical 3D surface finish profile
239,
241ftypical 3D surface finish profile, average roughness
239,
240f
redesign/substitution
368standardized reusable transport crates
369
Flywheel Battery 20KWh Storage
97,
97fG
Generic product development process
geometry, materials and tolerances
122prototype testing and refinement
124
implementation, German Environmental Legislation
351,
351fKWKG and EnEg in 2008
350nonrecyclable packaging materials
350responsibility, federal government
349sustainability strategy
349
academic users, private companies and corporations
363CAD software programs
364issues across life cycle stages
363–364“material intelligence” design aid tool
363
low-to high-level precision
195H
Happy Planet Index (HPI)
400
Heat transfer, Denby Dale pie
282–283
High-density polythene (HDPE)
I
J
Basic Environment Plan
354control, pollution levels
354disaster at Fukushima
354hybrid and electric vehicles
3542010 OECD review, Japanese policy
354K
L
Laufmaschine bicycle ,
2p
drivers, sustainable design
and international environmental regimes
European Environment Agency (EEA)
355“fit-and-forget” approach
355lawyers and lawmakers
356positive and preventative approach
357“race-to-the-bottom” argument
356
Lifetime usage, environmental impact
carbon footprint and embodied energy
323–324steel fabricated footbridge
325p,
325
The London Millennium Footbridge
13–14,
14p
Lubrication delivery systems
dual-line-injection measurement valve
336,
336fM
Market-driving sustainability
398–399
financial performance
377social responsibility
376three-axis representation
377,
377f
N
Nonlegislative measurements
development, “eco” tools
357energy-based and carbon-based models
357models, databases and algorithms
358research and educational institutions
357O
Old-style chassis design
296
Organisation Environmental Footprint (OEF)
384
P
purchasing department
219
advanced computational analytical techniques
249basic electronic calculation tools
249bearings and seals suppliers
247brake pedal bracket, example
250,
250fcarbon fiber impact attenuator
252,
254fcomputational analysis
248,
2503D picture development, stresses
233standard beam calculations
233fluid flow analysis, whole vehicle assembly
252,
254fFormula One racing car engine
225by guesswork/sheer experience
225engineers, industrial revolution
226mathematicians and engineers
226Ukrainian
Stephen P. Tymoshenko (1878–1972)
226analytical techniques
226typical tensile test characteristic, mild steel
227,
227fmathematical techniques
225safety, structures and devices
accurate material strengths, experimental data
230multiple safety factor
231pivot points, “Car Stacker”
232stainless steel pipeline junction
257–258thermal analysis, brake disc
252,
253fUniversity of Huddersfield 2013 Entry, Formula Student Vehicle Contest Run
253,
256,
256fvibration isolation vendors
247
Practical product, design approach
3-D component, gearbox casing
58,
60fdesigner performance
56,
57
Product design specification (PDS)
cost and sustainability
40economic and manufacturing
42requirements and constraints
43
lack of team responsibility
118minimal cross functional expertise
118
Product Environmental Footprint (PEF)
384
Programme evaluation and review technique (PERT)
174–175
Project/technical reports
executive summary/abstract
189landscape viewing position, A4-sized paper
192–193,
193fpictures, diagrams and tables
194portrait viewing position, A4-sized paper
192–193,
192fR
Renault Tangiers Smart Factory
information process technology
79,
79f,
80sustainable manufacturing
77,
78–79
brick-and-block clamp
93,
94fmachinery and equipment
91self-lube plastic bearing
94
Reused Byzantine Sculptures, Citadel Walls
69,
70p
Roman Lintel Reused, Citadel Walls
69,
69p
“alarming”, urban and industrial areas
352environmental specialists
352sovereign guarantees, environmental loans
353S
shaft with cycling loading
calculation, diameter
244infinite number, stress reversals
244maximum bending moment
244working stress σ
w, 100 MN/m
2 245
carbon emission reduction
365consumer product suppliers
365direct emission reductions
367Dyson Airblade™ hand dryer
366,
366fGerman activism and legislation
365public awareness, energy savings
365stringent Stage IIIB/Tier 4i emissions
367
bicycle relative components
274fdesign engineers, project requirements
271–275dynamics, powering a bicycle
247pedal-wheel relationship
272f
Stainless steel pipeline junction
calibration within software
258finite element analysis, pressurized tee-junction
257,
258fwith integral tee-joint test rig
257,
257pstrain gauges, tee-junction
257,
257p
Steel Recycling Rates, United States
69,
70f
Stress concentration factors
determination, gear-mounted shaft
262–264elements, shoulders/undercuts
245maximum stress, shaft
265shaft between two bearings
245,
246fshaft showing relief groove
245,
246f
Sustainability measurement systems
architects and builders
69blogs and public rating systems
390–391Blue Angel/Blauer Engel
388Brundtland Commission Report
65Carbon Reduction Label
389classic design and manufacture model
71–72,
71fclosed loop material cycle
67coal-and oil-powered power stations
68design, manufacture
77–81D to AAA rating system
387Eco-rucksack and Envirowise
100embodied energy, flywheel rotor
101,
101fEnergy Saving Trust Recommended scheme
389–390engineering designers and design
104ISO 9000 and ISO 14000 series
387,
393labels and quality management systems
393mechanical engineering
69pollution in Manchester, U.K.
68,
68psourcing/ecosourcing
73–76TerraChoice organization
391
Sustainability umbrella model
design and manufacture process
287–288reduction, haulage dependence
290–291
measurement and certification industry
384–393
Sustainable disposal value (SDV)
EOL disposal techniques
88repair and refurbish
89–91reuse and refurbish
91–95
Sustainable engineering design (SED)
72–73
Sustainable giveback value (SGBV)
97
Sustainable life value (SLV)
Sustainable maintenance value (SMaV)
internal combustion engines
83–84trailer-mounted water well rock drill
85,
86f
Sustainable manufacturing value (SMV)
safe product, minimal embodied energy value
299
Sustainable use value (SUV)
design optimization
81–82
Systematic approach, design development
hook configuration, wall mounting
133,
134fwall mount option and cable capture method
133,
135finvention and lateral thinking
143“primary need” product
130concept design specification
130–131product design specification
130T
solution generation technique
163
design engineers, project requirements
269–271
assembly direction minimization
319design constraints and team formation
320–322handling minimization
320minimizing number of parts
312multifunctional parts
313product creation process
311embodied energy proportions
287,
287faccessibility, ease of component removal
329component life prediction
328detail design, quick-and-easy maintenance
330–331lubrication and lubricant delivery
334–335simplicity, components and standardization
329stages, product’s development
287sustainability umbrella model
285–286
Cascade Engineering Inc.
378company’s financial performance
374financial health and profitability
374manufacturing companies, TBL
377–378public decision-making
379society’s emerging trends
374
U
Ultimate tensile strength (UTS)
228
Uniformly distributed load (UDL)
297–298
DEFRA, waste hierarchy
349Waste and Emissions Trading Act 2003
349
academics and engineering bodies
346environmental protection
346“gas guzzler tax”, vehicles
346UK’s BREEAM and LEED certification systems
346water pollution and resources development
346
V
engine mount arrangement, large diesel engine
277
Virtual material (VM)
360W
Word-picture associations and analogies
aircraft design, Supermarine S6
158,
159pbiotechniques/biomechanics
microscopic image, Velcro
158,
158p
World Summit on Sustainable development (WSSD)
358–360
memoranda, business letters and e-mail
186–187revising, editing and proofreading
185–186rewriting and proofreading
185