L
phase change condition,
111
law of conservation of energy,
6–7
law of conservation of mass,
law of conservation of momentum,
Lawrence Berkeley National Laboratories,
466
Lawrence Livermore National Laboratory,
331
laws of thermodynamics,
4–5
Leadership in Energy and Environmental Design,
478,
480,
645
life cycle assessment,
xxi
and environmental profiling of building materials,
175–91
characterisation example,
180
LCA data/life cycle inventory information,
181–2
methodologies and product category rules,
180
environmental labelling,
178–9
framework and declaration,
179
materials sustainability,
175–6
healthy and safe materials,
189–90
responsible sourcing,
190–1
European committee for standardisation,
187
inputs and influences on service life planning,
186
suite of related international standards,
185
environmental profiles specification scheme,
189
Green guide to specification,
188
UK BRE environmental profiles methodology,
188
life cycle inventory data,
181–2
light emitting diode,
610
construction example,
436
lightweight thermal mass,
446
Linde Molecular Sieves,
414
Living with Risk – Promoting better public space design, ,
150
local turbulence intensity,
140
London Climate Change Adaptation Strategy,
634
loose-fill cellulose insulation,
244
low temperature supercritical drying,
326
lowest predicted percentage dissatisfied,
136
lumped capacitance method,
12–13
M
Mark-Houvink-Sakurada equation,
268
mean molecular free path,
41
Mechanical and Electrical Equipment for Buildings,
465
supply and extract system,
78
vs natural ventilation,
78–9
Medicines and Healthcare products Regulatory Agency,
599,
600
Medium Density Fibreboard – Hazard Assessment Document, ,
165
mesophase pitch-based fibres,
415
thermal conductivity,
407
micro-combined heat and power systems,
541
mineral insulation products, main applications,
204,
206–7
pipework insulation and ducts,
207
mixed mode ventilation,
566,
570
Model Energy Code guidelines,
462
modern methods of construction,
xxii
ultra thin flexible reinforced concrete membrane,
449–50
Kastell building system,
439
advancements for buildings,
446–8
portable/re-locatable building,
432
prefabricated building units,
427–50
comfort factors in lightweight buildings,
440–1
delivering sustainable comfort,
442–4
design led materials for addressing lightweight performance issues,
441
materials led building design,
427–8
new membrane developments,
448–9
standardisation in construction,
431
thermal mass in offsite potential,
445
temperature control,
443–4
moisture buffer value,
347,
349
classification scheme,
348
experimental data graph, 348 test,
33
moisture conversion factor,
11
Monsanto Chemical Co.,
320
absorbed water layers surrounding clay particle,
353
Movement for Innovation,
563
N
nano insulation materials,
18
narrow techno-economic calculation,
559
National Atmospheric Emissions Inventory,
508
National Calculation Method,
612
National Human Activity Pattern Survey,
151
National Renewable Energy Laboratory,
394
natural fibre materials,
356–7
for insulation in buildings,
229–55
evaporative cooling,
89–90
Ionica Building and RWE Ag Building,
479
proposed naturally ventilated middle school for Blacksburg, VA,
477
rate illustrative variation,
84
small middle school designed to celebrate rainwater harvesting,
480
vs mechanical ventilation,
78–9
challenges facing the new build construction sector,
632–4
legislation role, shape and trend,
634–7
materials for energy efficiency and thermal comfort,
631–47
new flats at risk of overheating in summer,
633
phase change materials,
640–3
high-mass Queens Building in reducing peak temperatures in summer,
641
vegetation and reflective materials,
643–5
white painted houses on Mediterranean island,
646
with phase-change materials,
94–6
normalised performance indicator,
495
normal–normal transmittance,
488,
494
O
Oak Ridge National Laboratory,
458
carbon dioxide emissions from ECG019's office types
Good Practice offices,
567
comparison of cumulative life cycle energy,
578
energy efficiency and thermal comfort,
563–70
air conditioning and natural ventilation,
568–70
good practice/typical practice,
566–7
lighting and artificial lighting,
568
main differences from dwellings,
563
range and 50th percentile for operational and embodied CO
2,
564
external design of office buildings,
565
internal design of office buildings,
565
productivity in office buildings,
565
sick building syndrome,
565–6
theory behind the PSALI system,
569
Official Journal of the European Communities,
232
future trends and materials development,
440
mechanical and electrical services,
439–40
pods and room modules,
434
volumetric buildings,
432–4
park homes and caravans,
433–4
portable and relocatable buildings,
432
volumetric (modular) building systems,
432–3
oil-filled switchgear,
609
opaque surface emissivity,
488
optical transparency,
335
Orange Mode Solar roof,
475
Ordinance for the Change of Chemical Ordinances,
214
Organisation for Economic Co-operation and Development,
650
P
effects of immersion time and PCM temperatures on PCM absorptivity,
388
Parthenocissus tricuspidata, ,
644
Passiv Haus Institut,
642
passive air conditioning,
354
and heating strategies,
690–6
thermal energy storage materials,
123–4
Passive House standard,
639
refurbishment projects,
666
PCM-gypsum wallboards,
386–9
perfluorooctane sulfonate,
166
performance assessment method, ,
501
Permanent Supplementary Artificial Lighting of Interiors,
568
permeability/hygroscopicity,
370
phase change materials,
xxii,
94,
120,
122,
123,
124,
385,
396,
445–6,
516,
584,
640–3
advancements for buildings,
446–8
application benefits of thermal energy storage,
390–4
peak-load shifting in winter season,
392–4
thermal comfort in summer season,
390–2
computer simulation,
394–6
thermal building model,
394–6
effects of immersion time and temperatures on absorptivity,
388
full-scale testing facilities,
389–90
test room schematic plan view,
389
heat energy storage and thermal comfort in buildings,
384–97
hypothetical four layers of walls in the ORD case,
395
PCM selection and PCMGW fabrication,
386–9
temperature profiles in ORD and PCM cases,
397
thermo-physical properties
mass types used in ORD case,
395
PCM used in PCM case,
395
phenol-formaldehyde foams,
257
photocatalytic oxidation ionisation,
369
façade-integrated PV component with local power use,
489
PIR
see passive infra red
Planning Policy Statement, ,
571
plate replicator pods,
624
platinum-cobalt-alumina aerogel,
325
indoor-outdoor ratio,
155
polycarbonate honeycomb,
495
polymeric foam materials,
xxi
foams classification, materials and foaming mechanism,
258–62
insulation in buildings,
257–69
processing technologies,
262–5
injection moulding,
264–5
thermoplastic and thermosetting foams,
265–9
polystyrenesulfonic acid sodium salt,
372
direct and indirect evaporative cooling in buildings,
399–423
potential applications in buildings,
417–22
cellulose fibre air-to-air heat and mass exchanger,
420
façade-based evaporative cooling system,
417
heat pipe with metal wick,
421
module façades for indirect evaporative cooling,
418
module façades in building application,
419
sharp wet front analogy applied to stage 1 and stage 2 evaporative drying,
47
positive displacement cooling,
90
Creative Energy Homes,
670
distribution panels with their individual circuits power monitoring,
674
domestic energy CO
2 emissions,
671
environmental monitoring sensors,
673
E.ON UK's 2016 Research House,
669
locations of sensors and occupants within the house,
675
thermal images of E.ON 2016 Research House,
676
predicted percentage dissatisfied,
135–7
prefabricated building units
and modern methods of construction,
427–40
Procedures for Determining Declared and Design Thermal Values, ,
350
Programme for the Endorsement of Forest Certification,
190
public architectural space,
541
purpose-provided openings,
84
pyrogenic silicic acid,
221
R
applications and assemblies,
307–9
background and definitions,
305–7
basis for thermal performance,
309–13
thermal performance measurement,
313–15
radiative heat exchange,
20
rainwater harvesting system,
481,
615
Rammed Earth Design & Construction Guidelines, ,
354
Random Mixed Cube Model,
350
reference service life,
185
applications and assemblies,
307–9
background and definitions,
305–7
basis for thermal performance,
309–13
standards and specifications,
317
thermal performance measurement,
313–15
approaches to low carbon retrofit systems/technologies,
661–8
annual savings per measure for average 3-bed semi-detached house,
664–5
PassivHaus refurbishment projects for old buildings,
667
building refurbishment energy issues,
655–6
circa 1990 CEE high-rise comprising nine storeys,
660
five-storey residential high-rise block,
659
St. Petersburg, Russia,
658
change of use in buildings,
656–61
City Centre Eco-Home Conversion Project,
657
factory conversion into a city centre eco house,
657–8
materials for energy efficiency and thermal comfort of existing buildings,
649–77
Creative Energy Homes,
670
distribution panels with their individual circuits power monitoring,
674
domestic energy CO
2 emissions,
671
environmental monitoring sensors,
673
E.ON UK's 2016 Research House,
669
locations of sensors and occupants within the house,
675
thermal images of E.ON 2016 Research House,
676
the existing stock,
654–5
Regional Air Pollution,
508
relative water content,
29
vs capillary potential,
36
residual moisture content,
33
respiratory irritants,
153
responsible sourcing,
190
energy efficiency and thermal comfort,
570–4
environmental design,
572
freezer cabinets in supermarkets,
573
lighting and artificial lighting,
571–2
natural ventilation and air conditioning in supermarkets,
573
shopping centres and supermarkets,
571
typical construction,
573–4
Roger's model of new product diffusion,
555
rolling insulation materials,
688
solar reflectance and thermal performance
aluminium roof coats,
469
common types of roof insulation,
461
demountable precast concrete hollow core roof decking,
460
environmentally responsive roof solutions,
457
materials thermal performance,
464–6
exterior weather-protection layer,
465–6
new omni-directional venturi roof vent,
471
solar radiation intensities,
465
natural ventilation,
476–8
role in building rating systems,
480–1
solar integrated system,
474–6
solar reflecting characteristics of roofsite tile,
470
thatched roof structures,
456
thermal performance and environmental integration of buildings,
455–81
question of design,
455–8
rooftop air collector,
475
Royal Institute of British Architects,
668
DSC graph after a number of thermal cycles,
388
S
Sainsbury Distribution Centre,
576
seasonal energy efficiency ratio,
383
specific heat and molecular structure,
109
specific heat and temperature,
108–9
sharp wet front theory,
37,
44
analogy applied to stage 1 and stage 2 evaporative drying,
47
sick building syndrome,
565–6
Society for the Protection of Ancient Buildings (1877),
540
Society of Environment Toxicology and Chemistry,
177
Solar Energy Research Institute,
394
solar integrated roofing system,
474–6
annual energy savings from Solar Wall enclosure system integration,
477
OMSolar thermal solar integrated roof system schematic view,
476
UniSolar Inc. PV integrated roof system,
475
sorption-type storage,
115
spacer ring constructions,
297–8
and molecular structure,
109
Specified Animal Pathogens Order (2008),
604
stabilised earth materials,
354–5
stabilised rammed earth walls,
354
Standard Assessment Procedure,
635
standard environment,
132
Standard Guide for Documentation of Hygrothermal Models for Moisture Control Design in Building Envelopes,
63
standard temperature and pressure,
17
Stefan-Boltzmann equation,
309
Stefan–Boltzmann constant,
490,
494
sticking coefficient,
156
Stirling Engine micro-combined heat and power unit,
658
Sun, Wind and Light, ,
463
supercritical drying,
326–9
schematic illustrating use of carbon dioxide,
328
energy cost breakdown,
572
support constructions,
297–8
surface-fluid boundary layer,
45
Sustainability Board,
622
sustainable thermal comfort,
144–6
T
Target Emission Rate,
581
Technical Committee TC350,
187
tetramethylthiuram monosulphide,
155
theory of equipartition energy,
109
thermal buffer value,
349
thermal building model,
394–6
applications of design and passive technologies in modern buildings,
696–8
Centre for Energy Studies,
697
Jeddah International Airport,
697
Patoka Interpretative Nature Centre,
698
University guest house,
698
approaches and lessons learned from traditional hot-climate architecture,
689–96
behavioural thermoregulation, thermal comfort and the adaptive model,
141–2
climate impact on building fabric,
688–9
climate impact on urban pattern and building form and fabric,
685–7
design and passive technologies in buildings in hot and tropical climates,
681–705
different climates,
681–5
influencing parameters,
682
domestic buildings materials,
533–59
equivalent clothing index,
142–4
the comfort temperature range and temperature limits in offices,
144
high performance buildings materials,
589–625
clothing insulation values estimates,
138
equations for components of heat balance equation,
134
metabolic rates estimates,
138
PMV values from Fanger,
139
predicted mean vote and predicted percentage dissatisfied,
135–7
relationship between PMV and PPD,
137
six basic parameters,
132–3
sweat rate and skin temperature for comfort,
135
terms used in predicted mean vote,
134
International Standards,
137–41
ISO 7726: thermal environment,
141
ISO 7730: moderate thermal environments,
138–41
ISO 10551: assessing the influence of thermal environment,
141
subjective scales considered in ISO 10551,
141
materials for the refurbishment of existing buildings,
649–77
ASHRAE and Bedford scales of warmth sensation,
130
behavioural and observational measures,
131–2
new buildings materials,
631–47
passive solar systems thermal performance,
699–704
trombe wall with vents,
701
sustainable thermal comfort,
144–6
thermal index: an assessment technique,
132
traditional passive cooling and heating strategies,
690–6
city of Ghadames, Libya,
693–4
city of Marrakech, Morocco,
690
mountain dwellings of Morocco,
691
Mzab valley, Algeria,
691–2
town of El-Oued, Algeria,
692
traditional architecture in Egypt,
694–5
traditional floor heating in Korea, China and Afghanistan,
696
underground dwellings in Libya,
692–3
values for range of adaptive opportunities,
143
thermal conduction, ,
119
moisture-dependent,
10–11
temperature difference,
287
depending on apparent density and temperature,
281
depending on apparent density and thickness,
282
preformed pipe insulation material,
290
pipe sections and tubes,
283
thermal convection,
14–18
thermal decrement factor,
23
thermal diffusivity,
11–12
thermal effusivity,
12,
347
application benefits,
390–4
peak-load shifting in winter season,
392–4
thermal comfort in summer season,
390–2
comparison of weekly-averaged indoor air temperatures,
392
incorporated with active cooling/heating,
124
chemical heat storage,
120–1
heat transfer in heat storage materials,
121–2
materials for passive cooling,
123–4
operating strategies,
386
solar radiation and wind speed
summer ambient and indoor temperatures in two rooms,
391
winter ambient and indoor temperatures in two rooms,
393
Thermal Insulation – Determination of Steady State Thermal Resistance and Related Properties, ,
350
thermal insulation material
form pieces and form parts,
296–7
form piece made of polyurethane,
297
pre-manufactured form piece,
297
declaration of conformity and designation,
293–5
employability as insulant,
279
influential factors when determining thermal conductivity,
289
label for designation,
296
mineral wool insulant composition of designation code,
295
minimum and maximum service temperatures,
292
possible fire behaviour classes,
292
quality assurance/third party control,
295–6
readily available insulation products,
277–9
symbols for properties, levels and classes for designation code,
294
temperature application ranges,
280
thermal conductivity depending on apparent density and temperature,
281
thermal conductivity of insulants depending on apparent density and thickness,
282
values for industrial installations,
291
water vapour diffusion resistance factor,
293
operational installation heat loss,
301–3
heat transfer coefficient values of claddings,
302
national regulations,
303
required insulation layer thickness,
302–3
support and spacer ring constructions,
297–8
vapour retarder materials,
298
various surfaces emissivity,
298
thermal insulation product
insulation manufacture,
207–8
raw materials extraction and processing,
207
transport to retail unit,
208
high-mass Queens Building in reducing peak temperatures in summer,
641
in offsite potential,
445
principal applications,
637–8
thermal modelling software,
612
thermal performance,
xxii
calculated values for reflective air spaces,
308
dependence on distance across air space,
308
thermal storage density,
110
thermal transmission coefficient,
194
thermoplastic foams,
265–9
mechanical properties,
267–8
thermal conductivity,
266–7
mechanical properties,
267–8
closed cell panel system,
437
Innovare Systems Limited,
437
fleet cell panel system,
436
open cell panel system,
435–6
total heat transfer coefficient,
700
application in buildings in hot and tropical climates,
681–705
approaches and lessons learned,
689–96
climate impact on building fabric,
688–9
climate impact on urban pattern and building form and fabric,
685–7
thermal comfort in different climates,
681–5
thermal performance in passive solar systems,
699–705
application in modern buildings,
696–8
transparent insulation,
488
impact of staining on transmissivity,
489
tris(2-chloroisopropyl)phosphate,
160
tropical summer index,
685
V
vacuum-based switchgear,
609
vacuum insulation panels,
221,
222
vaporised hydrogen peroxide,
603
vapour retarder materials,
298
vegetated roofing system,
466–74
Green Tech Inc. polyethylene modular green roof trays,
473
horizontal surface temperatures for various sunlit materials,
472
air quality and airtightness in buildings,
77–99
feasibility of natural ventilation,
86–90
evaporative cooling,
89–90
Ionica Building and RWE Ag Building,
479
issues concerning materials,
92–7
adventitious leakage on balanced mechanical system,
93
adventitious leakage on natural ventilation system,
93
night cooling with phase-change materials,
94–6
porous materials and dynamic insulation,
96–7
room air temperature variations,
95
natural ventilation design,
90–2
physical mechanisms,
81–6
flow through envelope openings,
83
natural ventilation characteristics,
83–4
natural ventilation rate illustrative variation,
84
types of envelope openings,
84
proposed naturally ventilated middle school for Blacksburg, VA,
477
small middle school designed to celebrate rainwater harvesting,
480
low-energy ventilation systems,
79–81
Veterinary Medicines Directorate,
599
virtual thermal mass,
446
volatile organic compounds,
369,
372
Volatile Organic Compounds in Indoor Air: A Review of Concentrations Measured in North America Since 1990, ,
150
volumetric buildings,
432–4
park homes and caravans,
433–4
photo of portable/re-locatable building,
432
portable and relocatable buildings,
432
volumetric (modular) building systems,
432–3
voluntary product certification,
198