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Passive and Active Environmental Controls: Informing the Schematic Designing of Buildings [Multiple-component retail product]

  • Formatas: Multiple-component retail product, 512 pages, aukštis x plotis x storis: 262x213x38 mm, weight: 1905 g
  • Išleidimo metai: 16-Sep-2003
  • Leidėjas: McGraw-Hill Professional
  • ISBN-10: 0072922281
  • ISBN-13: 9780072922288
Kitos knygos pagal šią temą:
  • Formatas: Multiple-component retail product, 512 pages, aukštis x plotis x storis: 262x213x38 mm, weight: 1905 g
  • Išleidimo metai: 16-Sep-2003
  • Leidėjas: McGraw-Hill Professional
  • ISBN-10: 0072922281
  • ISBN-13: 9780072922288
Kitos knygos pagal šią temą:
Passive and Active Environmental Controls: Informing the Schematic Designing of Buildings is written for the architecture audience. It primarily addresses how to design and construct buildings to satisfy occupants’ physical and physiological needs. The text serves as an introduction to the subject of environmental controls and presents information necessary for the schematic design of buildings. It describes the various components of a particular system, developing how a system functions, how the systems components fit together and how spaces are organized to accommodate these components. The book demonstrates how each system is integrated with other building systems, such as the structural systems and the overall architecture of the building.
Preface xvii
Acknowledgements xix
An Introduction to the Environmental Control of Buildings
1(8)
What are environmental control devices for?
2(3)
A brief description of the building design process and how information about environmental controls can fit within it
5(4)
The Basics of Heat Transfer
9(22)
The first two laws of thermodynamics and what they have to do with how buildings function
10(1)
The two fundamental forms of heat transfer
11(16)
Transfer by molecular action
11(1)
Conductive heat transfer
11(2)
Convective heat transfer
13(3)
Radiative heat transfer
16(10)
A summary example: how is heat transferred through an uninsulated stud wall?
26(1)
Differentiating between sensible and latent heat exchange
27(2)
Further readings about heat, thermodynamics, and heat transfer
29(2)
Establishing Thermal Comfort
31(36)
How do you get an unbiased view of what constitutes thermal comfort?
33(1)
Thermal regulation in the human body: maintaining a thermal balance with the environment
34(7)
Heat production within the human body
34(2)
Maintaining a heat balance with the environment
36(2)
The thermoregulatory system in the human body
38(3)
What is thermal comfort?
41(1)
Eight parameters that affect heat transfer between the human body and the environment
42(8)
The four environmental parameters that affect the maintenance of thermal comfort
42(1)
The four personal parameters that affect the maintenance of thermal comfort
43(7)
Time as an essential parameter affecting one's thermal comfort
50(1)
Describing thermally comfortable conditions in and out of buildings
50(7)
Two summary examples considering the attainment of thermal comfort
57(2)
Why is the chairman ``cold''?
57(2)
What clothes are appropriate for skiing?
59(1)
Some thoughts about how one's ``state-of-mind'' and other factors may affect thermal comfort
59(4)
The role (and limitations) of sensation in describing thermal comfort
60(1)
Differentiating between thermal preference and thermal comfort
60(1)
What happens to one's thermal comfort when you alter non-thermal aspects of your environment?
61(1)
Consequences of long-term exposure to different thermal environments
62(1)
Selected references for human thermoregulation and comfort
63(4)
Weather and Climate (As Determinants of Building Form)
67(52)
What are weather and climate?
68(5)
Distinguishing between weather and climate
68(4)
The variability of climates
72(1)
Should you create buildings to recognize the properties of weather or climate?
73(1)
Climate classification (as a basis for building design)
74(11)
The development of climatic classification systems
75(1)
Description of the Trewartha climate classification system
76(5)
A brief explanation of the basic premises of the Trewartha climatic classification system
81(3)
A compression of the Trewartha system for building design and construction
84(1)
Deriving building design guidelines for a specific climate
85(30)
Using the Mahoney Tables (for examining warm and hot climates)
86(1)
Establishing the requisite climatic data
87(1)
Filling in the Mahoney Tables
87(4)
A worked example using the Mahoney Tables for analyzing the climate of Miami, Florida
91(10)
Using the Modified Mahoney Tables (for examining temperate and cool/cold climates)
101(1)
Establishing the requisite climatic data
101(1)
Filling in the Modified Mahoney Tables
101(12)
Some thoughts about determining which of these two climatic analyzers to use
113(2)
A brief summary for
Chapter 4
115(4)
Guidelines and Other Approximations for Creating Buildings with Good Thermal Performance
119(88)
Designing and building for the warm-humid climate
120(16)
Locations and characteristics of these climatic types
120(1)
Features of the tropical wet climate
120(4)
Features of the tropical wet-and-dry climate
124(1)
Features of the subtropical humid climate
124(2)
Challenges and problems for human occupancy in these climatic types
126(2)
Selecting building forms and operating strategies to respond to the warm-humid climate
128(1)
Fundamental operation strategies
128(1)
Specific design and construction guidelines for warm-humid climates
129(6)
Further references for designing and constructing buildings for warm-humid climates
135(1)
Designing and building for the hot-dry climate
136(22)
Locations and characteristics of these climatic types
137(1)
Features of the hot-arid and hot-semiarid climates
137(3)
Features of the subtropical dry-summer climate
140(2)
Features of the cool coastal arid climate
142(1)
Challenges and problems for human occupancy in hot-dry climates
142(1)
Selecting building forms and operating strategies that respond to the hot-dry climate
143(1)
Fundamental operation strategies
143(1)
Specific design and construction guidelines for hot-dry climates
144(13)
Further references for designing and constructing buildings for hot-dry climates
157(1)
Designing and building for cold climates
158(22)
Locations and characteristics of these climatic types
158(1)
Features of the temperate continental with cool summer climate
158(3)
Features of the boreal climate
161(1)
Features of the polar climate
162(3)
Features of the highland climate
165(1)
Challenges and problems for human occupancy in these climatic types
165(1)
Basic forms of heat loss experienced in buildings
166(1)
Heat transmission: what is it and how can we control it?
166(1)
Heat exchange by infiltration: what is it and how can we control it?
167(1)
Heat loss by ventilation: how does it happen and what controls are reasonable?
168(2)
Selecting building forms and operating strategies that respond to cold climates
170(1)
Fundamental operation strategies
170(1)
Specific design and construction guidelines
170(9)
Further references for designing and constructing buildings for cold climates
179(1)
Designing and building for the temperate climate
180(22)
Locations and characteristics of the temperate climate
180(1)
Features of the temperate continental warm-summer climate
180(2)
Features of the temperate maritime climate
182(2)
Challenges and problems for human occupancy in these climatic types
184(1)
An overview of operating strategies for the temperate climate
185(1)
Operating strategies for the overheated season
185(1)
Operating strategies for the underheated season
186(1)
A short explanation about how passive solar heating assemblies function
186(1)
The basic types of passive solar systems
187(4)
Three ``rules-of-thumb'' for rough-sizing the basic elements of a passive solar system
191(3)
Selecting building forms and operating strategies that respond to the temperate climate
194(7)
Further references for designing and constructing buildings for temperate climates
201(1)
A general proviso concerning a limit for the application of the guidelines presented in Sections 5.1 through 5.4
202(5)
The ``Physics'' of Light
207(38)
Sources of light
208(6)
Luminous sources
208(5)
How do you see a light beam?
213(1)
Selected properties of light
214(8)
Light as a means of moving energy
214(3)
The interaction of light with surfaces and media
217(1)
The transmission of light
217(2)
The absorption of light
219(1)
The reflection of light
220(2)
Some thoughts about color from a psychophysical point of view
222(12)
Why is a red rose ``red''?
223(3)
Classifying colors
226(1)
Colorimetry
227(4)
Color systems
231(3)
Measuring light from sources and nonluminous surfaces
234(11)
Parameters for quantifying light
234(1)
Rate of light emission
234(1)
Spread of light over a surface
235(1)
Physical brightness of a source or surface
236(1)
Reflectance of nonluminous surfaces
237(1)
Measuring light
238(7)
What Do We See?
245(56)
Vision as a sensory experience
246(3)
Indentifying components of the sensory process
246(2)
Why do we sense light?
248(1)
The composition and operation of the visual system
249(11)
The structure and function of the outer eye
249(3)
The role of the retina in human vision
252(2)
Light sensitivity: scotopic versus photopic vision
254(3)
Spectral sensitivity in the retina
257(2)
Deriving ideas about creating built environments from this description of the visual system
259(1)
Visual perception as a fundamental step in seeing
260(5)
Some thoughts about how visual perception occurs
260(2)
Attributes of the visual perception process
262(3)
Being able to see well: describing environmental attributes that affect vision
265(19)
How can we assess what environmental attributes affect vision?
265(5)
How the world around us affects visual acuity and performance
270(1)
The primary attributes affecting acuity and performance
270(7)
Secondary attributes which affect acuity and performance
277(3)
Personal factors that can influence task vision
280(3)
Some guidelines for treating the environmental and personal factors that affect seeing
283(1)
Visual comfort: environmental factors and human responses
284(12)
The presence of glare in the view field and means for its control
287(6)
Veiling reflections, flicker, and visual fatigue
293(3)
A brief summary for
Chapter 7
296(5)
Using the Sky as a Light Source
301(64)
Why do we have windows in buildings?
302(8)
Benefits and costs of window presence
302(3)
The role of view in window planning
305(3)
Is there a substantive basis for or against windowless spaces?
308(2)
The availability of daylight
310(11)
Light from the sky (and the sun)
311(2)
Rates of sky illuminance
313(4)
How uniform is the daylighting sky?
317(4)
Using the Daylight Factor to describe the presence of daylight in buildings
321(14)
How Daylight Factors are used
322(3)
Estimating daylight admission using the DF protractors
325(3)
Representations of Daylight Factors on building drawings
328(3)
Designing with alternative Daylight Factor design aids
331(4)
How much light do you need?
335(11)
What are the bases for lighting standards?
336(4)
What are the primary lighting standards?
340(6)
Designing for daylighting
346(13)
Alternative approaches for using these standards for designing windows
346(1)
A worked example showing a procedure for designing for daylight admission
347(12)
A brief summary for
Chapter 8
359(6)
Guidelines for Creating Buildings with Good Daylighting
365(62)
Site development guidelines for daylight
366(3)
Accessibility to the sky vault
366(1)
Use of vegetation for controlling the admission of daylight
367(1)
Reflectances of surfaces external to a building
368(1)
Choosing building forms to enhance the daylighting of building interiors
369(7)
Organizing buildings with narrow widths for daylight penetration
369(1)
The use of atria for bringing daylight into building interiors
370(2)
Appropriate orientations for admitting daylight
372(4)
Suggestions for locating windows for the daylighting of building interiors
376(14)
Higher windows foster better daylighting than do lower windows
376(1)
Using windows in vertical walls and as clerestories
376(5)
Windows used as skylights
381(6)
Using windows on multiple space-enclosing planes to balance illumination
387(1)
Using low window sills to reduce glare presence from windows
388(2)
What shape should a window have?
390(4)
How large do windows need to be?
394(6)
Defining window size based on studies of occupant satisfaction with reduced window areas
394(4)
Establishing minimum window areas for admitting daylight: some rules-of-thumb
398(1)
Rules-of-thumb for sizing windows in the vertical envelope
398(1)
Rules-of-thumb for sizing roof openings
399(1)
Alternative window treatments for passing daylight deeper into buildings
400(5)
Using light shelves to bring light into buildings
401(1)
Using clerestories and roof-top openings to admit daylight into the building interior
402(1)
Borrowing light from a perimeter space to use in building interiors
403(1)
Using these three devices in pairs or alltogether
404(1)
Alternative fenestration assemblies and materials
405(10)
What are the principal materials for windows?
406(1)
Choosing window materials for luminous performance
407(1)
Controlling radiation transmission through glazing
407(3)
Using devices external to the window to control the admission of radiation into buildings
410(3)
Employing internal shading devices to control the admission of solar radiation
413(1)
The benefit of using operable radiation controls
413(1)
Selecting window-framing elements for luminous performance
414(1)
Internal building surface shapes and finishes
415(2)
Shaping building surfaces surrounding windows
415(1)
Finishing building surfaces near windows
416(1)
Recommended reflectances for interior surfaces
416(1)
Three concluding guidelines for designing and building for daylight
417(2)
Match daylighting needs and specific work and life activities
417(1)
Take care with bright light sources and surfaces
418(1)
Teach building occupants to use daylighting wisely
418(1)
Thinking about designing for electric lighting
419(3)
Basic capabilities to be furnished by lighting systems
419(1)
Simple guidelines for anticipating later placement of electric lighting systems
420(1)
Using building forms that can accommodate electric lighting fixtures
421(1)
Additional readings
422(5)
Additional readings about designing for providing daylight
422(1)
A brief bibliography about electric illumination designing
423(4)
The ``Fundamentals'' of Sound
427(38)
What is sound?
428(6)
Sound emanates from a vibrating body
429(2)
The wave nature of sound
431(2)
Media in which sound waves propagate
433(1)
Selected behaviors of sound waves
434(9)
The transmission of sound waves
434(1)
The reflection of sound waves
434(1)
How the mechanical impedances of adjoining media affect the reflection of sound waves
435(1)
Predicting the direction that a reflecting sound wave will follow
436(1)
The absorption of sound waves
436(2)
The diffusion of sound waves
438(3)
The diffraction of sound waves
441(2)
The existence of sound fields
443(2)
Four basic properties of sound
445(6)
The frequency of a sound wave
446(1)
The intensity of a sound wave
446(2)
Simple and complex sound wave forms
448(2)
The role of time in the behavior of sound
450(1)
Quantifying the natures of common sounds
451(5)
Sound levels and the decibel scale
451(1)
Defining the intensity level of a sound
451(3)
Describing sound in terms of sound pressure levels
454(2)
Whole and one-third octave bands
456(1)
Some basic methods for measuring sound presences
456(9)
Some qualifications about sound management strategies
456(3)
Common sound (and noise) measurement devices
459(6)
Hearing and Speech
465(36)
Properties of the human auditory system: sensitivity and performance
466(12)
Thresholds of hearing
467(2)
Loudness and the Equal-Loudness-Level Curves
469(5)
Perceiving pitch
474(1)
Discriminating among changes in the frequency and intensity of sounds
475(2)
Some additional tonal qualities of sound
477(1)
Speech as a fundamental form of communication
478(23)
Speech production
479(3)
Basic components of speech
482(1)
Some acoustical qualities of speech
483(1)
Characteristics of elemental sounds in speech
483(4)
Sound pressure levels across the sound spectrum for speech
487(3)
Speech intelligibility
490(1)
Basic requirements for maintaining speech intelligibility
490(2)
The Articulation Index and the Speech Interference Level
492(9)
Noise in the Built and Natural Environments
501(42)
Physical (and psychosocial) characteristics of noise
503(12)
Common (and uncommon) noise sources
503(2)
Properties of noise sources
505(1)
Physical properties of noise
505(1)
Perceptual properties of noise (or how physical properties can have subjective components)
506(4)
Transmission mechanisms of noise through buildings
510(2)
Noise rating schemes
512(3)
How does noise affect us?
515(15)
Distinguishing between loudness, noisiness, and annoyance
516(4)
The effects of noise on speech intelligibility
520(3)
The effects of noise on human hearing and health
523(1)
Hearing loss from noise exposure
524(1)
The effects of noise on sleep
525(2)
The effects of noise on work performance
527(3)
Defining acceptable noise levels
530(7)
Single-number acceptable noise level statements
531(2)
The Noise Criterion curves
533(4)
A brief summary for
Chapter 12
537(6)
Guidelines for Controlling Sound and Noise in the Built Environment
543(76)
The four basic requirements for good hearing
544(1)
To impede or propagate sound waves?
545(14)
A general vocabulary of noise control strategies
546(7)
General strategies for enhancing communication by sound
553(6)
Specific site-planning guidelines
559(12)
Site planning and operating strategies for noise control
560(2)
Manipulating physical forms (and functions)
562(1)
Using barriers to reduce site noise
562(4)
Depressing urban noise sources below grade levels
566(5)
Using more pleasant maskers to override off-site noises
571(1)
Approaches for laying out buildings
571(6)
Planning devices to use when the building site is noisy
571(6)
Criteria for the selection of building envelope compositions
577(8)
Describing the admission and control of external noise
577(1)
Noise-separating behaviors for envelope compositions
578(1)
Opaque walls as noise separators
578(1)
Floors and roofs
579(1)
Window assemblies
580(5)
Developing building interiors for good acoustical performance
585(34)
Separating interior spaces for sound and noise control
585(1)
Acoustical characteristics of partition systems
585(5)
Designing building spaces for good communication
590(1)
Recommended room shapes
590(1)
Room shapes to be avoided
591(3)
Using absorbing materials to control the presence of sound and noise
594(1)
The two major types of sound-absorptive materials and assemblies
595(7)
Mounting practices for sound-absorbing materials
602(1)
Locating absorption materials in building spaces
603(5)
Determining how much absorption should be provided in rooms
608(1)
Establishing volumetric standards for spaces
608(1)
A definition for the reverberation times of rooms
608(4)
Providing diffusing surfaces in building spaces
612(3)
Providing special furnishings for rooms for music and/or speech performance
615(4)
HVAC Systems for Buildings
619(80)
The basic functions of HVAC systems
619(6)
The principal components of HVAC systems
620(3)
The traditional building spaces for locating HVAC systems
623(2)
Describing the HVAC system for a typical university classroom building
625(22)
Design conditions
626(1)
Thermal conditioning issues
626(2)
The HVAC system for Gould Hall
628(1)
The physical presence of the HVAC system: components, sizes, locations
628(11)
The operating protocol for the HVAC system
639(8)
The four basic types of nonresidential HVAC systems
647(28)
Thermal-conditioning equipment and placement
647(1)
Producing hot water
647(4)
Producing chilled water
651(4)
All-air system types
655(1)
Air distribution strategies for all-air systems
655(3)
Equipment used in all-air systems
658(4)
Locating air distribution equipment for all-air systems
662(1)
Building applications for all-air systems
663(1)
Air-water distribution systems
663(1)
Building applications for air-water systems
663(1)
Equipment used for air-water systems
664(5)
All-water systems
669(2)
Building applications for all-water systems
671(1)
Equipment and its operation for all-water systems
671(1)
Direct-refrigerant systems
672(3)
Rules-of-thumb and other planning guidelines for anticipating spatial requirements for nonresidential HVAC systems
675(24)
Space-defining rules-of-thumb for all-air and air-water systems
682(1)
Spatial guidelines for heating and refrigeration equipment
682(1)
Spatial guidelines for air-handling equipment
683(5)
Spatial guidelines for vertical accessways
688(1)
Spatial guidelines for ceiling plenums
689(4)
Spatial guidelines for in-the-room equipment
693(1)
Spatial guidelines for rooftop (or immediately adjacent external) equipment for all-air and air-water systems
694(1)
Space-sizing guidelines for all-water systems
695(1)
Space-sizing guidelines for direct-refrigerant systems
696(1)
Small-capacity single units and split-system assemblies
696(1)
Medium-to-large-capacity single packaged units
697(1)
Medium-to-large capacity split-system assemblies
697(2)
Small-Building HVAC Systems and Related Issues
699(50)
Differentiating HVAC services between large- and small-scale buildings
699(1)
Alternative HVAC systems for small-scale buildings
700(15)
Establishing which HVAC services should be provided
700(1)
Primary types of HVAC systems for small-scale buildings
701(1)
Differentiating between air- and water-based systems
701(6)
Alternative means for furnishing ventilation air to occupied spaces
707(4)
Active systems alternatives for space cooling
711(4)
Designing HVAC systems for small-scale buildings
715(20)
Identification of design conditions
715(2)
Estimating thermal loads
717(2)
System selection
719(1)
Laying out system components
720(1)
Placing terminal devices
720(2)
Placing warm-air furnaces, heat pumps, and split-system units
722(1)
Organizing ducting
723(1)
Approximate sizing of ducting for small-scale buildings
724(2)
Integrating and fine-tuning the design of HVAC system components
726(1)
Factors that may influence system designing
727(1)
Energy conservation standards and codes
727(1)
Promoting indoor air quality
728(5)
Debating the benefits and liabilities of natural ventilation
733(2)
A sample design and integration of an HVAC system
735(14)
Organizing a systems design solution
737(12)
Services and Systems for Achieving Fire Safety and Protection
749(44)
Providing for fire safety during the schematic design phase
750(22)
Establishing means of egress
750(4)
Design guidelines for planning means of egress
754(4)
Setting up automatic suppression systems
758(4)
Planning guidelines for automatic sprinkler systems
762(3)
Providing support for potential fire fighting actions
765(3)
Providing barriers to prevent fire spread
768(4)
Fire behavior and the active systems used to control fire in buildings
772(21)
Properties and characteristics of fire
772(1)
Contributions to combustion
772(1)
The combustion process
773(1)
Fire products
774(2)
Detection systems
776(1)
Fire detector operations
776(1)
Alternative fire detector types
777(1)
Guidelines for placing detectors
778(3)
Fire alarms
781(1)
Fire extinguishment alternatives
782(3)
Other fire protection systems
785(8)
Electrical Systems for Buildings
793(50)
Basic premises of electrical power systems
793(2)
Circuits, systems, and components
795(9)
Introducing circuit terminology
795(1)
Direct and alternating currents
796(7)
One-phase versus polyphase electricity generation and transporting
803(1)
Large-scale production and transportation of electrical power
804(7)
Supplying electrical power to buildings on the University of Washington campus---a case example
808(3)
Dispersion and utilization of electrical energy in buildings
811(7)
Equipment for energy control and manipulation
811(2)
Equipment for transporting electrical energy throughout buildings
813(5)
Electricity dispersion and utilization in a conventional University of Washington building---Gould Hall
818(4)
Major power system components
818(4)
Space planning guidelines for electrical (power) equipment in buildings
822(13)
Service entrance rooms
823(1)
Principal components and their functions
823(1)
Planning considerations for service entrance rooms
823(4)
Spatial guidelines for service entrance rooms
827(1)
Electrical closets (and intermediate electrical rooms)
828(1)
Principal components and their functions
828(1)
Planning guidelines
829(3)
Branch circuit layout and planning
832(1)
Spatial accommodations for lighting fixtures
833(1)
Electrical equipment planning for buildings with smaller power demands
834(1)
Electrical equipment components
834(1)
Design guidelines
835(1)
Communication and signaling systems: components and space planning
835(5)
Telephony facilities
836(3)
Data transfer systems facilities
839(1)
Suggested references for gaining further information about building electrical systems
840(3)
Plumbing Systems in Buildings
843(42)
Plumbing system functions and services
844(1)
Accommodating fixtures---requirements and guidelines
845(13)
Fixture types and numbers required for occupancy types
845(1)
Provisions for conventional fixtures
845(7)
Providing accessible fixtures
852(3)
Spatial sizing to accommodate plumbing fixtures
855(1)
Sizing for spaces to provide for conventional fixtures
855(2)
Sizing for accessible spaces
857(1)
Water supply systems
858(14)
Common components of building water supply systems
861(2)
Organization of building water supply systems
863(1)
Materials choices for water supply systems
864(1)
Pressure relationships in water supply systems
864(1)
Designing building water supply systems
865(5)
Hot water supply systems
870(2)
Plumbing drainage systems
872(8)
Basic drainage system components: forms and functions
874(4)
Materials and sizing for drainage system components
878(1)
Storm water drainage
879(1)
Guidelines for planning plumbing system layouts
880(5)
Systems for Conveying People in Buildings
885(42)
Creating building spaces for elevators
886(26)
A brief history of the development of elevators
886(1)
The basic types of elevators
886(7)
The principal components of elevators
893(5)
Designing to accommodate elevator systems
898(1)
Major system organization issues
898(1)
Guidelines for designing for elevator systems
899(13)
Creating building spaces for escalators
912(9)
Principal components of an escalator unit
914(2)
Guidelines for designing for escalators
916(5)
Design principles for moving walkways
921(3)
Guidelines for accommodating moving walkway units in building designs
923(1)
Bibliography for human conveyance systems
924(3)
Illustration Credits 927(2)
Index 929