154 21 7MB
English Pages 144 Year 2012
Inside Prefab
Inside Prefab The Ready-made Interior Deborah Schneiderman
Princeton Architectural Press, New York
Published by Princeton Architectural Press 37 East Seventh Street New York, New York 10003 For a free catalog of books, call 1.800.722.6657. Visit our website at www.papress.com. © 2012 Princeton Architectural Press All rights reserved Printed and bound in China 15 14 13 12 4 3 2 1 First edition No part of this book may be used or reproduced in any manner without written permission from the publisher, except in the context of reviews. Every reasonable attempt has been made to identify owners of copyright. Errors or omissions will be corrected in subsequent editions. An earlier version of the Introduction, written by Deborah Schneiderman, appeared as “The Prefabricated Interior: Defining the Topic” in Interiors: Design, Architecture, Culture 2, no. 2 (2011). Editor: Nicola Bednarek Brower Designer: Jan Haux Special thanks to: Bree Anne Apperley, Sara Bader, Janet Behning, Fannie Bushin, Megan Carey, Carina Cha, Tom Cho, Penny (Yuen Pik) Chu, Russell Fernandez, Felipe Hoyos, Linda Lee, Jennifer Lippert, John Myers, Katharine Myers, Margaret Rogalski, Dan Simon, Andrew Stepanian, Paul Wagner, Joseph Weston, and Deb Wood of Princeton Architectural Press —Kevin C. Lippert, publisher Library of Congress Cataloging-in-Publication Data Schneiderman, Deborah, 1968– Inside prefab / Deborah Schneiderman. — 1st ed. p. cm. Includes bibliographical references and index. ISBN 978-1-56898-987-7 (alk. paper) 1. Prefabricated interior architecture. I. Title. NA2850.S34 2012 729—dc23 2011021974
27
Interior Walls
28
Flatform
Foreword
32
Active Phytoremediation Wall System
by Stanley Abercrombie
36
Blobwall
40
S3 Sustainable Slotted System
45
Kitchens
Table of Contents 6
7
Acknowledgments
8
Introduction
46
Closet #1, Parsons Kitchen
8
A Very Brief History of Prefabrication
50
Oma’s Rache
A Brief History of Prefabricated Interior Design
54
Flow2
58
Ekokook
63
Bathrooms
64
Cirrus MVR
68
The Flo
72
Kullman Bathroom PODS
76
Co-Pod
81
Furniture
82
After Words
86
90° Furniture
90
Kenchikukagu
94
Playground for Leif
99
Office
11
100
Clipper CS-1
104
Office POD
108
Dilbert’s Ultimate Cubicle
112
OfficePOD
117
Prefabricated House Interiors
118
Furniture House
122
A–Z Cellular Compartment Units
126
Composite House
130
Cell Brick House
134
Glossary
136
Notes
138
Select Bibliography
140
Image Credits
142
Index
Foreword By Stanley Abercrombie
I have a shelf full of books on prefabricated buildings and a whole wall of titles on interiors, but, seeing this manuscript, I realized with surprise that I had never before seen a book on prefabricated interiors. The reason, of course, is not because the subject is so obscure, but because it is so obvious. Throughout the industrial age, building components have been turned out by the hundreds and thousands in factories and shipped ready-made to building sites, including dimension lumber, windows and doors, sheets of plywood, metal flues, cylinder-printed fabrics and wallpapers, baseboards and cornices, tiles and drawer pulls, and light switches. This construction reality is so familiar and so quotidian as to be virtually invisible. But the more important point this book makes is that prefabrication, while often focused on structural elements, has had its most profound effect on our interiors. Indeed, some prefabricated exteriors go to great lengths to appear as if they had never been near a factory, while inside we have come to welcome the order, modularity, efficiency, and precision that prefabrication can bring. Interior prefabrication has a long and intriguing history, as this book’s introduction shows, but it also has a bright and even more intriguing future. The book’s two dozen case studies demonstrate the new looks, new materials, and new potential functions of interior prefabrication, not the least interesting of which are those dealing with our increasingly urgent environmental issues.
6
Acknowledgments Nicola Bednarek Brower, my editor, for her dedication. Princeton Architectural Press for its support in realizing this project. The designers and photographers of included work. The faculty and administration of the Interior Design department and the School of Art and Design at Pratt Institute for their belief in this project. The students of the Arizona State University Interior Design program and Master of Science in Design Program 2007– 2010 for their work on the topic “Prefabricated Interior Environment.” The faculty, administration, and students of Parsons The New School for Design Master of Fine Arts Interior Design thesis class of 2011 for their inspiration. The faculty and administration of the Herberger Institute for Design and the Arts at Arizona State University for their encouragement. Renata Hejduk for her sage advice and wisdom. Deborah Koshinsky and Alexa Griffith Winton for reading drafts of the manuscript. Jennifer Siegal for inspiring my research and for connecting me with Princeton Architectural Press. Stanley Abercrombie for his contribution to the field and to this project. My family—Scott, Chloe, and Eli Lizama; and Gerald, Reeta, and Jonathan Schneiderman—for their love and encouragement. Dedicated in memory of Norma Lizama for her strength, will, love, and support. Without her I would not have been in a place to write this book.
7
Introduction
constructed end product. Building off site in a controlled environment limits waste in materials
Prefabrication in the field of architecture is by no
and inefficiencies in labor, while the fabrication of
means a novel concept and has enjoyed continued
modular elements that can easily be transported
attention by prominent architects and designers,
allows for adaptability of installation, extending
owing much of its popularity to its efficiency and
the lifespan of building elements.
affordability. Recent prefabricated designs also
The term prefabrication, used to describe a
emphasize the inherently sustainable qualities of
building typology, was not coined until the 1930s,
this production technique. While the investigation
when the business of making building compo-
into modern prefabrication has attracted much
nents that could be assembled on a remote site
interest in the architecture community for over
developed into a substantial industry, although
a century, the literature documenting the sig-
the process of prefabrication has existed for
nificance of interior design and interior elements
thousands of years.1 The earliest known example
using this technology contains a notable gap.
of prefabrication in the built environment can be
Although there has been virtually no pointed dis-
dated back to the Sweet Track—a raised walkway
cussion of the influence of prefabricated interiors,
in Somerset County in England built around 3807
the techniques and applications of prefabricated
BCE and made of prefabricated timber sections
interior design have been around for thousands
that were quickly assembled on site.2 Another
of years, and prefabrication in the built environ-
important instance of prefabricated architecture
ment in fact owes much of its advancement to
was the panelized wood houses that were shipped
concepts first investigated for use in the interior.
from England to the United States in the mid-sev-
Innovations in prefabricated interior design have
enteenth century to be used for the quick con-
ranged from individual elements, such as wall
struction of homes in a Cape Ann, Massachusetts,
panels, staircases, or pieces of furniture, to com-
fishing fleet community.3
plete assemblages, such as kitchens, bathrooms, or
The first documented mass-produced
utility pods. These components are often more than
prefabricated house was the Manning Portable
simple objects, defining and programming space,
Cottage, introduced in 1830 and transported from
either as complete prefabricated assemblies or
England to Australia for the construction of its
through the fabrication and repetition of a module.
new settlements.4 [Fig. 1] These houses resembled
Prefabricated interiors thus become place-makers
cabins, with the interior not differing much from
within the built environment.
the exterior. A prefabricated building can also be a unique, site-specific structure, such as the Crystal
A Very Brief History of Prefabrication
Palace (1851) in London, which was built of pre-
Prefabrication, or off-site fabrication, refers to parts
fabricated iron modules. [Fig. 2]
of a building, interior or exterior, that are produced
The twentieth century saw a rise of mass-
and assembled in a place other than the building
produced prefabricated houses, and many of the
site (typically a controlled factory environment).
great modernist architects, including Le Corbusier,
Ideally, components are fabricated simultaneously
Marcel Breuer, R. Buckminster Fuller, Frank Lloyd
in various locations and fully assembled into the
Wright, Walter Gropius, and Konrad Wachsmann,
whole at the building site, reducing total construc-
explored the idea of prefabrication as a building
tion time and costs and creating a more precisely
technique. [Fig. 3] [Fig. 4] While their houses did not
8
Introduction
sell to the public in large quantities, vernacular prefabricated designs have achieved the goal of mass production, from the Sears, Roebuck and Company’s catalog kit homes of the first half of the twentieth century to mass-produced modular homes, such as the Lustron House, of the midtwentieth century to prefabricated trailers beginning in the latter part of the twentieth century and continuing to the present. The Lustron House, introduced by Carl Strandlund, president of the Lustron Corporation, in 1946, in particular demonstrates the significance of the interior in the history of prefabrication. The house’s built-in elements consisted of a system of prefabricated modular units that functioned not only as dividing elements, but also as programmed space, such as shelving, cabinetry, closets, and vanities. [Fig. 5] The interior panels were manufactured of the same porcelainenameled steel panels that covered the facade 9
[Fig. 1] Manning Portable Cottage, ca. 1833
[Fig. 2] The Last Promenade at the Crystal Palace, The Illustrated London News, May 1852
Introduction
[Fig. 3] R. Buckminster Fuller’s Wichita (Dymaxion) House, interior view, 1946 [Fig. 4] Wichita (Dymaxion) House, exterior view
[Fig. 5] Lustron House, advertisement, Life, October 11, 1948
10
[Fig. 6] Sears Modern Home 115, Sears Catalog, 1908
Introduction
and roof, establishing a clear visual connection
A Brief History of Prefabricated Interior Design
between the interior and exterior.5 Although the
The articulation of the prefabricated interior
Lustron House did not achieve its goal of true
has been critical in the development of modern
mass production, the integration and significant
prefabrication techniques. The design of interior
placement of its interior components informed the
partitions or walls; of whole spaces, including
evolution of the prefabricated interior.
the bathroom, the kitchen, and the office; and of
In the late twentieth and early twenty-first
furniture has both contributed to defining interior
century, many well-known designers turned to
space through placement and program and been
prefabrication, including those that pursue afford-
a critical step in the development of prefabricated
able, efficient, and environmentally sustainable
construction techniques on a greater scale, from
solutions, such as LOT-EK, Wes Jones, Michelle
the building to the city. Prefabricated interior
Kaufmann, Su11 architecture + design, Anderson
design includes both distinct elements and pre-
and Anderson, KieranTimberlake, Adam Kalkin,
fabricated wholes. Interior components, such as
and Jennifer Siegal, among others. Artist/architect
decorative elements, staircases, and mantles, have
Kalkin, for example, repurposes shipping contain-
a long tradition of prefabrication. Even gypsum
ers as dwellings, as in his 12 Container House
board, which was introduced in the early
(2003) and his Quik House (2003), which is cur-
twentieth-century Sears kit homes, serves as an
rently available to order. Siegal’s Office of Mobile
example of an interior element that is fabricated
Design (OMD) has also repurposed material, as
off site and brought to the house ready to install.6
demonstrated in the 2003 Seatrain Residence
[Fig. 6]
(Los Angeles), using shipping containers for the
nents follow three basic construction types, which
In general, prefabricated interior compo-
fabrication of living spaces and grain containers
are used singularly or combined. These include
for the construction of a lap pool and koi pond,
planar construction (utilizing the screen as a
as well as incorporating steel found on site. Based
planar element to divide space, either as a rela-
on the notions of new nomadism and mobility,
tively fixed or readily movable object), modular
many of Siegal’s projects explore architecture at
construction (using the module—a standardized
the intersection of portability and sustainabil-
component of a system—as a building block of
ity. Siegal’s 2006 prefabricated ShowHouse, for
customizable prefabricated space), and unit con-
example, exhibits ideas of portability and flexibil-
struction (employing a singular unit element that
ity and incorporates environmentally sustainable
is designed as an all-inclusive piece).
design solutions, including solar panels, radiant heat panels, a tankless water heater, and a variety
Planar Construction: the Screen
of sustainable floor and wall materials.
The earliest example of a prefabricated interior element is the screen. Although most people associate the advent of the paper screen with Japan, the first paper folding screen appeared in China, with literary references dating its inception back to 300 or 400 BCE, far predating the first prefabricated houses. The relatively permanent Chinese screens evolved into the Japanese shoji, a system of screens dating to as early as 200 BCE.
11
Introduction
These folding, fixed, or sliding screens could be
[Fig. 7]
used to create walls, doors, window coverings,
the topic of prefabrication, resulting in numer-
and standing partitions. In the West, the screen
ous works, including the iconic 1946 undulating
was first introduced in the mid-sixteenth century,
plywood folding screen.10 [Fig. 8]
but it did not gain popularity until the nineteenth
Charles and Ray Eames broadly investigated
Two significant sustainable twenty-first-
century, when, in 1853, the American government
century screens combine planar and modular
sponsored a trip by Commodore Matthew Perry
construction in their design. Nomad (2007) by
to Japan to inspire a trade relationship between
Jaime Salm and Roger Allen (of Mio) is a system of
the East and the West. From this visit began the
recycled, recyclable, and affordable two-dimen-
importation of Japanese and Chinese screens to
sional cardboard modular elements that assemble
European cities. Also increasing their popular-
without tools or hardware into customizable
ity was their display at the 1867 International
screens or partitions. [Fig. 9] [Fig. 10] Andrew Wilson
Exhibition for Industry and Art in Paris.
and Aza Raskin’s Bloxes (2008), designed by Jef
7
During the twentieth century the screen
Raskin, are also fabricated from two-dimensional
was most notably used as an architectonic
cardboard elements, which are folded into three-
domestic interior element in the works of Frank
dimensional modules and assembled into any
Lloyd Wright, Walter Gropius, Gerrit Rietveld,
shape; the screen is only one of many possibili-
Eileen Gray, and Charles and Ray Eames. The
ties. [Fig. 11] [Fig. 12]
Katsura Imperial Villa in Kyoto with its movable
In the commercial environment, it was
exterior and interior walls, its interchangeability of
not until the 1950s that office design incorpo-
modular components, and its use of prefabrication
rated prefabricated screen-based wall systems
in particular inspired Gropius, who experimented
to divide space, as evidenced in the Skidmore,
with similar concepts and techniques in his living
Owings & Merrill (SOM)/Knoll–designed interiors
spaces. Rietveld created perhaps the most influ-
for the 1957 Connecticut General Life Insurance
ential translation of the Japanese-style screening
Company.11 The German Quickborner Team revo-
of interior space in his archetypal de Stijl mas-
lutionized the use of the screen in prefabricated
terpiece of 1924, the Schröder House (Utrecht,
office space in the 1950s with their concept of a
the Netherlands). In a remarkable manner, the
Bürolandschaft. This “office landscape” utilized
Schröder House defined interior space through
a system of lightweight screens that could easily
the implementation of sliding walls, much like
be reconfigured as individual and organizational
those of a traditional Japanese residence, result-
needs changed.12
ing in a highly flexible modernist living space.
The Herman Miller Company, in particu-
Similarly, Gray’s architectural projects, including
lar designers Robert Probst and George Nelson,
her seminal E. 1027 house (Roquebrune-Cap-
has been credited with the design of the cubicle.
Martin, 1925–29) and the apartment on rue
The company’s 1964 modular Action Office is
Chateaubriand (Paris, 1931), utilized the screen
considered by many as the first prefabricated
as a primary place-making element.8 While
office space. Through his rigorous research, Probst
throughout her career, Gray made screens from
developed the concept and plan for the flex-
an array of materials, she is best known for her
ible movable furniture system, which was given
1923 Lacquered Block Screen, whose finish and
three-dimensional form by Nelson.13 [Fig. 13] While
fabrication is reminiscent of Japanese screens.
the design for the original Action Office received
12
9
Introduction
[Fig. 7] Black lacquer Brick screen, one of a small number of variants executed by Eileen Gray of the design first exhibited in 1923
[Fig. 8] Eames Molded Plywood Folding Screen, Charles and Ray Eames, 1946
13
[Fig. 9] Nomad Screen modules, Jaime Salm and Roger Allen (of Mio), 2007 [Fig. 10] Nomad Screen assembled
Introduction
[Fig. 11] Bloxes modules, Jef Raskin, Bloxes, 2008 [Fig. 12] Bloxes assembled
[Fig. 13] Action Office I, Robert Probst and George Nelson for Herman Miller Company, 1964 [Fig. 14] Action Office II (when first released), Robert Probst for Herman Miller Company, 1968
14
[Fig. 15] Resolve system, Ayse Birsel for Herman Miller Company, 1999 [Fig. 16] Joyn, Ronan and Erwan Bouroullec for Vitra, 2002
Introduction
much critical acclaim, it did not sell well, and the
balloon or platform construction, with prebuilt inte-
Herman Miller Company proceeded to develop
rior and exterior panels trucked to the job site ready
Action Office II, a lightweight, interchangeable,
to assemble. Descended from the balloon frame,
and easily reconfigured office system.
structural insulated panels (SIPs) are made of insu-
14, 15
The
prefabricated partition screen of the Action Office
lating foam core that is sandwiched between two
II, introduced in 1968, was structural, freestand-
sheets of plywood or oriented strand board. SIPs
ing, and movable.16 [Fig. 14] A contemporary office
were first introduced in 1935 but did not become
system by Herman Miller Company, the Resolve
readily available until the 1960s. Advancing CAD/
system (1999), designed by Ayse Birsel, reestab-
CAMM technologies in the 1990s made their
lishes a critical element of the original cubicle,
implementation more practical. The planar screen-
Probst’s concept of using 120-degree angles
like elements, which are produced off site, are used
between screen panels.17 [Fig. 15] By incorporating
to fabricate both interior and exterior structural and
canopies in her workstations, Birsel has advanced
nonstructural walls.18
the notion of the prefabricated office space a step
The screen is completely exteriorized in
further, recognizing that the typically ignored
curtain wall constructions, which first appeared in
overhead plane is critical to the construction of
the late nineteenth century and were increasingly
three-dimensional space.
implemented after World War II. The introduction
Twenty-first-century screen-based prefab-
of skeletal framing systems released the require-
ricated office designs continue to pursue adapt-
ment for the exterior wall to be load bearing,
ability within office environments, as evidenced
enabling the nonstructural panels or screens of the
in notable diversions from the standard cubicle
curtain wall to—like their interior counterparts—
model. Examples include communal worktables,
programmatically function as dividers, separating
such as Vitra’s 2002 planar Joyn system designed
interior from exterior.19
by Ronan and Erwan Bouroullec [Fig. 16], and the consciously sustainable mass-customizable 2004
Modular Construction
Dirtt (Doing It Right This Time) demountable wall,
The module plays an important role in Japanese
floor, electrical, and accessory system designed
interior design. Traditionally, the design of the
by Mogens Smed. Such systems challenge the
Japanese house relied on a regularized post and
permanence of the traditionally constructed wall,
beam system, allowing for the interior elements,
embracing instead the prefabrication of a system
including shoji, fusuma, and tatami, to be manu-
of parts that can be readily configured and recon-
factured by individual craftspeople and assembled
figured on site.
seamlessly on site.20 Proportional prefabricated
The use of screens has also informed exte-
building systems are recorded in Japan as early
rior elements, both structural and nonstructural.
as the Nara period (710–794 CE), though the
According to architectural historian Colin Davies,
measurements varied by region. The kiwari jutsu
prefabricated planar constructions were first evi-
system (dating to 1608) defines the modulariza-
denced in architecture in 1833. With the balloon
tion of space from the scale of the building itself
framing construction, walls can be assembled on or
to that of furniture elements, even including the
off site horizontally on the ground from studs and
proportions of the shoji screen. The tatami module
plates. Once assembled, the wall panels are lifted
has an overarching architectural significance in
into place. Tract houses today are still built using
the system, as the mats are utilized as units of
15
Introduction
measure. Room dimensions are described by the number of tatami that fit inside.21 [Fig. 17] The module also has a prominent place in
Around the turn of the twentieth century, both Lillian Gilbreth, industrial engineer and designer, and Christine Frederick, home econo-
Western design. One of the most basic architec-
mist, lecturer, and author, recognized that in order
tural modules is the brick, while in interior design
for a kitchen to work efficiently, it must allow
systems of modules are used in any number of
for adaptability, which was achieved through a
elements, from furniture to kitchens to office envi-
modular design.26 With her 1926 Frankfurt kitchen
ronments. On its own, the module, like the brick,
design, Margarete (Grete) Schütte-Lihotzky is
typically does not serve its intended function.
credited as the designer of the modern kitchen.27
However, when repeated, it can create defined
The Frankfurt kitchen is a hybrid of the modular
spatial environments. Modules constitute the basis
and unit typologies. [Fig. 19] Its individual elements
for much of the prefabricated interior.
are modular by nature, but those elements were
Within the domestic interior the module
assembled into a complete kitchen off site, which
is most significantly represented in the design of
was then integrated into the larger structure.28 The
kitchens and furniture. The systematic design of
Frankfurt kitchen established the significance and
the kitchen was first pursued by home econo-
potential of modern interior prefabricated ele-
mists in the United States as an academic and
ments and foreshadowed contemporary prefabri-
scientific endeavor, incorporating a multitude of
cation techniques. Today developer firms such as
studies in efficiency and workspace organization.
First Penthouse, founded in 1992, expand on the
Later, architects also laid claim to kitchen design;
Frankfurt kitchen’s concept of installing a com-
their approach embraced rationalist-functionalist
plete environment into a site-fabricated building,
principles and machine aesthetics. It is not
constructing complete apartment modules off site
surprising then that the kitchen has been a vehicle
that, like the Frankfurt kitchen, are craned into
for exploration of the mechanics of prefabrica-
place on site, in the case of First Penthouse the
tion in architecture and interior design. Early
rooftop of a previously constructed building.29
22
investigations into the design of the kitchen by
In 1945 Helen E. McCullough, associ-
educator Catherine Beecher and writer Harriet
ate professor of home economics at Cornell
Beecher Stowe in the nineteenth century stemmed
University, differentiated the typology of the pack-
from the desire to professionalize the work of the
aged kitchen of the mid-twentieth century from
housewife.23 Their proposed kitchen, the “sink
the unit kitchen, defining the packaged kitchen as
and cooking form,” is credited as a predecessor
one in which the manufacturer sells all necessary
of the twentieth-century kitchen, driven in large
equipment in one package—typically a modular
part by the necessity for organized storage. The
system with its own structural frame—and the
sink and cooking form was not merely a piece of
unit kitchen as a cast element that includes all
furniture but foreshadows the prefabricated pack-
equipment and cabinetry.30 The modular and
aged kitchen of the mid-twentieth century with
unit versions of these prefabricated kitchens are
an integrated mechanical core, including water
capable of transforming any room into a modern
heating and ventilation systems. While it was
kitchen regardless of the given architectural condi-
not itself prefabricated nor did it really gain wide
tion, as neither relies on the existing structure.
acceptance, its concept inspired the designers that
Charles C. White’s 1946 kitchen, called The White
followed.25 [Fig. 18]
Kitchen Compact, and the visionary 1953 Cornell
24
16
Introduction
[Fig. 17] Tatami proportion [Fig. 18] Sink and cooking form, Catherine Beecher and Harriet Beecher Stowe, 1869
17
[Fig. 19] Frankfurt kitchen, Margarete (Grete) Schütte-Lihotzky, 1926
Introduction
[Fig. 20] Cornell Kitchen packaging and transportation concept, Glen Beyer, Mary Koll Heiner, and Cornell University students, 1953 [Fig. 21] Cornell Kitchen construction, 1953
[Fig. 22] Glenn Beyer standing in the Cornell Kitchen, 1953
18
[Fig. 23] Universal Kitchen Snack Station, faculty and students, Architecture, Interior Architecture, and Industrial Design departments, Rhode Island School of Design, 1998
Introduction
Kitchen represent the modular packaged typol-
within the system, the Casier Standard was also
ogy. While the former was primarily concerned
designed to define space in the open plan house.
with efficiencies of construction, the design of the
Like Le Corbusier, Breuer had his roots in interior
latter also focused on user needs and ergonom-
and furniture design and experimented with the
ics. The Cornell Kitchen was executed through
module in his 33 design of 1925. The Breuer
Cornell University’s Housing Research Center
0system was based on a measure of thirty-three
as a collaborative effort among the students,
centimeters and comprised small modular cabi-
Home Economics Associate Professor Mary Koll
nets that could be placed against the wall, hung
Heiner, and Glenn Beyer, director of the center
from the wall, or supported on tubular steel legs.
and professor of housing and design. The basic
These modules appeared in virtually all of his
kitchen functions were grouped into five prefabri-
commissions going forward.34
cated movable “centers”—mix, serve, range, sink,
In the mid-twentieth century, Nelson,
refrigerator/oven—which could be arranged in any
the Eameses, and the Herman Miller Company
configuration and adjusted in height, and com-
devised several modular furniture systems. Nelson
prised a self-supporting structural system. With the
conceptualized his 1944 visionary Storagewall as
exception of the sink center, they had identical
a built-in element that would not only house all
base cabinets so that inner organizational compo-
storage necessary for the home within the typical
nents were interchangeable.31 [Fig. 20] [Fig. 21]
space of a wall but would also entirely replace
[Fig. 22] A
the wall with modular furniture-like elements.
contemporary example that similarly
addresses vertical dimension is the Rhode Island
The Storagewall is customizable by design, as
School of Design’s 1998 Universal Kitchen
the modules are selected by the user and can be
project, which resulted in the Min and the Max
assembled in any arrangement or direction, thus
kitchen, essentially kits of interchangeable
creating the opportunity to serve two rooms at
modular components. Each element is chosen by
once.35 The Storagewall is reminiscent of, yet more
the user and can be installed at varying heights
inclusive than, the prefabricated built-in ele-
and depths. [Fig. 23] Today’s standard kitchens are
ments of the Lustron House. It also foreshadowed
typically constructed from modularized pieces of
Shigeru Ban’s 1995 Furniture House, in which the
rational measurements constructed off site but are
prefabricated built-in elements become the actual
installed at a fixed standard height.
structure of the house.
The design of furniture also has a rich
The Eames Storage Units (ESUs) of 1950
history of modular construction. A 1909 Sears,
were the first mass-produced mass-customizable
Roebuck and Company catalog already adver-
storage elements. Their back and side panels
tised mass-produced sectional bookcases, but Le
were available in multiple materials, including
Corbusier (along with Breuer) has been cred-
Masonite and perforated aluminum, and were
ited as the first architect to conceive of modu-
available for order in an array of colors. ESUs can
lar furniture and thus of prefabricated interior
be combined as shelves or desks with open (or
space.32 Le Corbusier, with Pierre Jeanerette and
closed) storage in addition to drawers, creating an
later Charlotte Perriand, developed the Casier
infinite range of possible configurations.36 [Fig. 24]
Standard, a system of modular container elements,
[Fig. 25]
in 1925. Envisioned to serve all storage needs
sors, Joe Colombo’s 1969 Tube Chair and 1967
through various elements of storage available
Addition seating system are highly customizable,
33
19
In a marked departure from his predeces-
Introduction
[Fig. 24] Eames Storage Units brochure, Charles and Ray Eames, 1950 [Fig. 25] Eames Storage Units, 1950
[Fig. 26] Tube Chair, Joe Colombo, 1967 [Fig. 27] Cell Brick House, interior, Yasuhiro Yamashita/Atelier Tekuto, 2004
20
[Fig. 28] Hoosier Manufacturing Company advertisement for the Hoosier Kitchen Cabinet, 1919
Introduction
composed of modular upholstered elements that
the rational principles of domestic reformers
are nonfunctional and nonrecognizable as single
Christine Frederick and Erna Meyer. When closed,
elements.37 [Fig. 26] Yasuhiro Yamashita’s (of Atelier
the unit appeared to be an ordinary wardrobe,
Tekuto) 2004 Cell Brick House is a culminating
but when opened, it revealed a working kitchen.
investigation of prefabricated modular furniture
In his 1963 Minikitchen, Colombo reconceived
as place-maker. The typologies of the module as
the Hoosier Kitchen Cabinet typology of the late
programmatic interior element and as a building
nineteenth century as a prefabricated package that
block are fused in the house, as its construction
was even more compact, mobile, and utilitar-
relies on the modular furniture, which becomes its
ian. Melanie Olle and Ilja Oelschlägel’s twenty-
structure. [Fig. 27]
first-century kitchen, Oma’s Rache (“Grandma’s Revenge” in German), is a contemporary variation
The Unit
of the unit kitchen, which provides opportunities
The unit is often confused with the module as a
for cooking, dishwashing, dining, refrigeration,
building block. As a primary defining element
food preparation, and storage (see pages 50–53).
of prefabricated interior design, however, the
Predating and informing the unit kitchens
term describes elements that are created in their
were the office secretaries of the late nineteenth
entirety as single all-inclusive pieces. For example,
century, such as the Wooton Patent Cabinet
the unit kitchens of the 1950s consisted of a single
Office Secretary, which contained an entire office
object housing all elements necessary for the
environment for the individual user.39 [Fig. 29] In
kitchen, including cabinetry and appliances.
Wright’s 1906 Larkin Building clerical worksta-
As early as the 1890s, the United States
tion, the chair is cantilevered off the desk, forming
witnessed the first unit-based prefabricated
an integrated work environment delivered in
kitchen furniture elements in the form of factory-
a ready-to-use form.40 The 1951 design for the
produced freestanding “dressers” that were
Knoll Planning Unit’s own workspace premiered
designed to store kitchen equipment and dry
multifunctional furniture pieces that included a
goods. These dressers or wardrobes foreshadowed
tilting drafting surface, a built-in divider panel,
the prefabricated packaged unit kitchens of the
and storage.
mid-twentieth century in that they were originally
Notable contemporary unit workspaces
designed as large all-inclusive elements. Among
include prefabricated movable worker pods such
the manufacturers of this early kitchen furniture
as Planet 3 Studio’s 2009 Out-of-Box Workstation,
was the Hoosier Manufacturing Company, which,
which can be transformed from a portable
influenced by Beecher’s designs, produced a
luggage-shaped container into a home office, and
variety of kitchen cabinets. The Hoosier Kitchen
the 2009 OfficePOD by the eponymous company
Cabinets, which were often on wheels, included
that can be placed in a variety of environments
clearly defined areas of storage for all kitchen
(see pages 112–15). A less traditional workplace,
needs, as well as pull-out work areas, bins for
commissioned in 1994 by the architecture pro-
sugar and flour, and a rotating spice rack with
gram at Parsons The New School for Design, Allan
jars. [Fig. 28] At the 1931 German Building
Wexler’s Parsons Kitchen revisits the relationship
Exhibition in Berlin, modernist designer Lilly
between the unit kitchens and the office secretar-
Reich exhibited a fixed cabinet-type kitchen in her
ies. The cratelike element can be stored in a wall
Apartment for a Single Person that demonstrated
crevice in the department’s reception area (whose
38
21
Introduction
form inspired its design) and unfolds to become
interiorized appliance. The unit was designed to
an in-house bar as well as a meeting place for
transform any room into a bathroom and included
public events and receptions (see pages 46–49).41
all fixtures, a toilet, bathtub, shower, and lavatory;
The idea of the prefabricated unit as an interior element took hold not only in the design
it also incorporated storage and lighting.45 In his seminal 1966 investigation of the
of kitchens and workplaces but also of bath-
bathroom, Alexander Kira proposed his own pre-
rooms. Early plumbed interior bathrooms of the
fabricated designs. What separated Kira’s concept
nineteenth century were materially similar to
from those of his peers was his rigorous study of
traditional domestic spaces and included wood
anthropometry. His prefabricated proposal, the
furniture, rugs, and curtains. At the turn of the
“Experimental relaxing/washing facility,” provided
twentieth century, hygiene theories caused a shift
for the incorporation of “controls, support devices,
in bathroom design to an industrial aesthetic with
storage shelves, ventilation, lighting, etc.” To
nonporous equipment, priming bathrooms for the
ensure that all fixtures were properly located for
precision of prefabricated technologies.42
the best functionality, he held that the elements
Many architects and designers have
should be fabricated in a controlled environment,
explored the design of prefabricated bathrooms,
hence making prefabrication a pragmatic choice
including Le Corbusier and Perriand, but Fuller
to insure quality control.46 A notable contem-
is frequently credited with the design of the first
porary example, the 2008 Vertebrae Vertical
prefabricated bathroom. His Dymaxion Bathroom
Bathroom by Design Odyssey, is, in contrast to
unit of 1930 included a tub/shower module and
Kira’s bathroom, designed for efficiency rather
a lavatory/toilet module, all contained within
than ergonomics. Seven stacked elements rotate
five square feet of floor space and weighing only
around a central cylinder and include a sink, toi-
about as much as a conventional bathtub.43 [Fig.
let, container for storing water, two cabinets, and
30] The
two showers at different heights.
kinetic nature of Fuller’s bathroom pod,
often referred to as plug-in or pod-in architecture,
The ability of the unit to fabricate a com-
inspired a cross-cultural architectural move-
plete interior environment has its earliest roots
ment, with projects in Europe, Asia, and North
in furniture and is well represented by the boxed
America, including Peter Cook and Archigram’s
bed typology, in particular the lit clos (French for
1964 Plug-in City study, Moshe Safdie’s Habitat
“closed bed,” a seventeenth-century cabinetlike
Apartments (Montreal, 1967), Kisho Kurokawa’s
structure). When closed, the lit clos fully encap-
Nakagin Capsule Tower (Tokyo, 1972), and Zvi
sulates the bed, forming a room within a room.47
Hecker’s Ramot Housing (Jerusalem, 1975).
Colombo explored the inclusiveness of the unit
44
Early prefabricated bathrooms were typi-
with his 1969 Living Machines, which included
cally units designed for the assembly of a bath-
the Cabriolet Bed and the Roto-Living machine.
room in its entirety, incorporating the room’s
The Cabriolet Bed, inspired by both the lit clos
enclosure. In 1947 the magazine Architectural
and convertible automobiles, became an enclosed
Forum introduced a unique new concept, the
room within a room when its soft top was elec-
Standard Prefabricated Bathroom, an integrated
tronically closed. The Roto-Living unit was a
unit designed by Bertrand Goldberg that fit
kitchen and dining element with a central rotating
through a conventional door and incorporated
table. Colombo’s investigation into prefabricated
all bathroom functionality in a fully prefabricated
units culminated in the form of an entire house
22
Introduction
with his Total Furniture Unit, exhibited in the 1972 show Italy: The New Domestic Landscape at the Museum of Modern Art in New York. The Total Furniture Unit housed everything necessary for the home in a single unit. [Fig. 31] [Fig. 32] In the same exhibition, Ettore Sottsass, Jr., introduced his visionary mobile multifunctional fiberglass furniture. In these designs individual furniture elements, including a kitchen and bathroom, are reduced to equipped containers, which can either be linked together or stand alone. The elements can continually be reconfigured to make up the most appropriate interior environment.48 The interior envelope is turned inside out in Wexler’s 1991 Crate House investigation. This conceptual study externalizes the interior into four programmed crates—living room, bedroom, kitchen, and bathroom—which, when not in use, fit into an 8-foot interior cube. The crates are individually rolled into and out of the cube 23
[Fig. 29] Wooton’s Patent Cabinet Office Secretary, advertisement, The Popular Science Monthly 6, no. 4, 1875
[Fig. 30] Dymaxion Bathroom, lower quadrants, R. Buckminster Fuller, 1937
Introduction
[Fig. 31] Total Furniture Unit, Joe Colombo, 1972 [Fig. 32] Total Furniture Unit, kitchen detail, 1972
[Fig. 33] Crate House, Allan Wexler, 1991 [Fig. 34] Crate House, office detail, 1991
24
[Fig. 35] Lit Clos, Ronan and Erwan Bouroullec, 2000
Introduction
through specific openings, fulfilling programmatic
elements. In turn, the modern masters, including
requirements as needed.49 [Fig. 33] [Fig. 34] Industrial
Le Corbusier, Breuer, and Gropius (in addition to
designers Ronan and Erwan Bouroullec revisited
midcentury designers Eames and Nelson) have
the lit clos concept in 2000. Their Lit Clos further
situated modular furniture in the canon of modern
accentuates the separation of the prefabricated
architecture. The modern office, for better or
bedroom unit from the existing architecture by
worse, is deeply entrenched in the concept of the
being placed on stilts, making it autonomous from
cubicle. Its spaces derive from screenlike interior
the larger infrastructure. [Fig. 35]
wall elements that are fabricated off site. More
50
recent investigations into the office environment The Impact of the Prefabricated Interior
move away from the typical panelized cubicle
As the ubiquity of prefabricated interior designs
but have returned to its precursor—coordinated
shows, they have gained widespread mass-
furniture.
market appeal, achieving a status that arguably
The widespread use of prefabricated ele-
often exceeds that of site-built counterparts.
ments is of particular interest in today’s climate
Prefabricated interior elements, particularly the
of sustainability and green design. Although the
kitchen, do not appear to suffer the stigma fre-
prefabricated elements discussed here were not
quently associated with prefabricated housing as
in most cases designed to meet the material,
being cheap and substandard. Rather, elements of
environmental, or social basis of sustainability
the prefabricated interior historically have been
as we define it today, they do inherently possess
appreciated for the basic tenets of prefabrica-
sustainable qualities, and they were purpose-
tion—efficiency and accuracy of construction in
fully designed to do so. Building off site leads to
a controlled off-site environment—and have been
reduced material waste and labor costs, while the
influential in the development of prefabricated
fabrication of modular or transportable elements
technologies. The screen, used to divide interior
allows for adaptability and reuse. As the following
space, is arguably the first prefabricated architec-
contemporary case studies show, further investiga-
tural element. With the invention of the screen,
tions into the prefabrication of interior elements in
followed by the construct of the module and the
a purposefully sustainable manner will continue
unit, the elements of the interior have been driving
to advance the significant territory of prefabricated
forces in prefabrication.
interior design.
Of particular significance was the unit-type Dymaxion Bathroom, which has been a model for prefabricated designs since the 1930s. In addition, the development of prefabricated and packaged kitchens has informed the construction of prefabricated houses and buildings. The use of modular furniture as a place-maker has its roots in the advent of mass production and was also a consequence of Le Corbusier’s open plan design for the 1914 Maison Domino, which represented modernist ideals and did away with the necessity for interior and exterior walls as structural 25
Interior Walls
27
Interior Walls
Flatform Marble Fairbanks, 2008
Designed by the New York–based architecture firm
mass customization has multifaceted implica-
Marble Fairbanks for the 2008 exhibition Home
tions for the control of light, air, and acoustical
Delivery: Fabricating the Modern Dwelling at the
distribution.1
Museum of Modern Art, Flatform is an interior
The wall’s elements are CNC (computer
wall, whose components, cut and scored flat stock
numerically controlled) milled. The digital fab-
stainless steel panels, are fabricated off site and
rication is integral to the concept of Flatform, as
delivered flat-packed. On-site installation requires
design and production are merged into a common
no tools or hardware, as the panels’ precut tabs
language of digital information, with the final
are folded and interlocked by hand.
product being cut directly from the designer’s
The assembled wall is made up of two
CAD file. While the prefabricated elements
facing panels, connected by folding tabs that
eliminate manual labor, Flatform’s final assembly
act in a manner similar to Velcro, creating both
requires the human hand to fold its cut tabs, a
the wall’s structure and its aesthetic. The design
poignant juxtaposition.
includes an element of customization for the end user, as the space between the panels is variable. When the panels are set further apart, the wall’s thickness and opacity increases. This ability for Assembly of wall panels
Flatform at the Museum of Modern Art, New York
Prototype
overleaf: Detail
28
Interior Walls
29
Interior Walls
30
Interior Walls
31
Interior Walls
Active Phytoremediation Wall System CASE / Center for Architecture Science and Ecology, 2008–
The modular Active Phytoremediation Wall System
percent, resulting in a radical improvement of ambi-
created by the Case / Center for Architecture
ent indoor air quality through a reduction in volatile
Science and Ecology, a collaboration between the
organic compounds, particulate matter, and other
Rensselaer Polytechnic Institute and Skidmore,
biological and chemical pollutants.
Owings & Merrill (SOM), acts as an active hydro-
The pod elements are constructed of
ponic system for air purification and energy reduc-
vacuum-formed plastic configured to allow the
tion in building systems. A winner of Architect
maximum amount of air to reach the roots of
magazine’s 2009 R+D Award, this wall has envi-
the plants with the use of minimal material. The
ronmentally sustainable qualities that transcend its
modular nature of the design allows the wall to
basic functions as divider and structure.
be installed as effectively in a large commercial
The modules of the Active Phytoremediation
setting as in a small residential one. Even the
Wall consist of pods that house plants, which are
smallest system can be effective: the installation
grown hydroponically. The assembled wall works
of only four modules in an apartment would have
with the building’s existing HVAC system and serves
the air purification capability of 800 to 1,200
as a plenum for ductwork and air movement. The
houseplants. The system is currently undergoing
roots of the plants are exposed, increasing their
rigorous further testing to document the effective-
inherent air-cleaning capacity by 200 to 300
ness of the wall with a variety of plant species.2 Mechanisms of phytoremediation
32
System components
Interior Walls
33
Interior Walls
Diagram illustrating the contaminated air filtration system
Visualized detail of the wall
34
Shape variations based on programmatic conditions
Interior Walls
35
Interior Walls
Blobwall Greg Lynn FORM, 2007 (prototype), 2008 (production)
Italian interiors and children’s outdoor toys of the
interior solutions, although Lynn envisions them
1970s inspired Greg Lynn, of the Los Angeles–
as either interior or exterior elements. The design
based firm Greg Lynn FORM, in his conception
defies the typical assumption that the module is
of Blobwall. He originally created the amorphous
a rectilinear element and redefines the common
plastic building element for a residential interior
brick as an organic modular building element. The
wall for his own home in Venice, California, but
blob modules are robotically cut mass-produced
realized that it had potential for mass production.
hollow trilobed shapes formed through rotational
.
The first prototype of the Blobwall was
molding. When assembled, the modules, made of
built in 2007 for the exhibition Skin + Bones:
recyclable low-density polyethylene, seamlessly
Parallel Practices in Fashion and Architecture at
and inherently form the wall and, unlike the typi-
the Museum of Contemporary Art, Los Angeles.
cal brick module, readily transition to construct
In 2008 the wall was put into production and
the ceiling. Prefabricated Blobwall structures
exhibited at the Southern California Institute of
are available in S-, L-, I-, and U-shapes and as
Architecture (SCI-Arc) and at the Venice Biennale.
complete enclosures, including a Dome and Tree
The blob modules of the Blobwall Pavilion,
House. According to Lynn, the blobs are “both
a collaboration between Greg Lynn FORM,
product, like a child’s toy, and building.”3
Machineous, and Panelite, were developed as Robotic cutting of a Blobwall module
Installation at the Museum of Contemporary Art, Los Angeles
In transit in Los Angeles
Blobwall module
overleaf: Blobwall Pavilion at the opening of the SCI-Arc exhibition
36
Interior Walls
37
Interior Walls
38
Interior Walls
39
Interior Walls
S3 Sustainable Slotted System Interior Senior Design Studio, Arizona State University, 2009
The S3 Sustainable Slotted System is the result of
cost alternatives. The shapes are inspired by, or
a Senior Interior Design Studio project at Arizona
made from, everyday products, such as tissue or
State University. In phase one of this project stu-
cereal boxes. In one variant, called the Free DIY
dents developed five interior wall concepts. They
Adaptive Re-use Version, the cutting pattern can
were then challenged to select one design and, as a
be downloaded from a website for the user to slot
team (Allyson Speakes, Alicia Rampe, Felicia Chave,
their own empty cereal or tissue boxes. For the
Dyelle Fairbanks, Ivet Gesheva, Rachel Israel, Pei-
proposed recycled chipboard version, the product
Pei Kao, Linda Miao Li, Carisa Mowry, Leah Schoen,
would ship sustainably flat-packed and come
Erin Yi, and Professor Deborah Schneiderman),
in an assortment of sizes, with optional veneers
further that concept and fabricate it at full scale. The
and wall orientations. Easily assembled and
selected solution, a slotted prefabricated modular
lightweight, the S3 Sustainable Slotted System is
wall system, is a fun and creative way to make
portable, adaptable, and reusable.
interior partitions that are basic enough that most people can build them themselves. The wall system was designed to appeal to a broad population regardless of socioeconomic status, offering multiple material options and C-Box [refined], installation at Arizona State University, 2009
C-Box [refined] diagram and cutting pattern
C-Box [refined], detail, installation at Arizona State University
40
Interior Walls
41
Interior Walls
42
C-Box diagram and cutting pattern
T-Box diagram and cutting pattern
C-Box prototype
T-Box prototype
Interior Walls
43
Kitchens
45
Kitchens
Closet #1, Parsons Kitchen Allan Wexler Studio, 1994
Allan Wexler’s Closet #1, Parsons Kitchen addresses
Closet #1 is the primary element of four
the prefabrication of place by providing a mixed
crates (the other elements have since been
program of workstation and kitchen. Reminiscent
removed) and was originally inspired by the
of the Hoosier Kitchen Cabinet and the Wooton
discovery of a small hidden space behind a wall
Patent Office Secretary, the 1994 kitchen was com-
in the lobby of the architecture department; the
missioned by Parsons The New School for Design
negative space of this area became its form. The
architecture program with funds from Wilson Art.
kitchen, when closed, is 3 feet 9 inches by 6 feet
A cross between architecture and sculpture, it is a
3 inches by 7 feet 2 inches (1.1 by 1.9 by 2.2
functional work from Wexler’s Closet Architecture
meters) and is fabricated of construction-grade
series, which included the 1991 Crate House and
plywood with laminate on select surfaces.2 This
the 1991 Rebuilt Braun Coffee Maker and inves-
project is not meant to be mass-produced; rather,
tigated reducing our lives into a kit of parts. Not
its form is derived from the specificity of its site
a traditional kitchen environment, the Parsons
and its irregularities. Constructed like a storage
Kitchen functions as the meeting space and bar for
crate, the kitchen fills the void within the wall
public events and receptions in the current School
when not in use; and rolls out and unfolds into
of Constructed Environments at Parsons The New
a service element, reception area, and meeting
School for Design.
space when needed.
1
Allan Wexler storing the Parsons Kitchen in the lobby’s wall void
Parsons Kitchen expanded
Additional kitchen closet units
Detail
46
Kitchens
47
Kitchens
Process diagram 1
Process diagrams 3, 4, 5, 6
48
Process diagram 2
Kitchens
49
Kitchens
Oma’s Rache Melanie Olle and Ilja Oelschlägel, 2006
Oma’s Rache was designed by Melanie Olle
provisions for cooking, dishwashing, dining,
and Ilja Oelschlägel for a class called “Compact
refrigeration, food preparation, and storage. Oma’s
Kitchen,” led by Professor Klaus Michel of the
Rache is opened with a touch mechanism, reveal-
Department of Interior Design at the University of
ing a three-dimensional experience with elements
Art and Design in Halle, Germany. The concept
extending up to 43 inches (1 meter) from the
behind Oma’s Rache (“Grandma’s Revenge” in
cabinet. Two upper panels allow for the cooking
German) revisits the kitchen wardrobes, the first
area to be either exposed to or concealed from
prefabricated kitchens of the nineteenth century.
the diners with a mechanism that permits access
This twenty-first-century version is a departure
to the upper cabinet without revealing the lower
from the storage function of the Hoosier Kitchen
workspace. Oma’s Rache is one of many inves-
Cabinet, instead forming an interface between
tigations that return to the typology of movable
kitchen and dining. Even when closed, the cabinet
kitchen furniture.
makes reference to its multiple functions with purposeful reveals outlining a table, two chairs, and a lamp, suggesting a dining scene. The element is only 79 by 98 by 27 inches (2 by 2.5 by 0.7 meters) when closed and houses Oma’s Rache, closed
50
The partially open kitchen
Kitchens
51
Kitchens
52
Kitchens
Counter configuration
opposite: Transitioning to dining
53
Dining configuration
Kitchens
Flow2 Studio Gorm, 2009
John Arndt and Wonhee Jeong of the Oregon-
composting bin, which can manufacture fertil-
based industrial design firm Studio Gorm created
izer for the kitchen’s herb garden component. An
the Flow2 kitchen for the 2009 exhibition Call +
integrated refrigerator with double walls keeps
Response at the Museum of Contemporary Craft in
food cool through evapotranspiration; the space
Portland, Oregon. Flow2 is made up of a system
between the double walls is filled with water,
of parts that can be integrated into an existing
which then evaporates, causing internal cooling.
environment but are most effective when assembled into a whole. The design is reflective of the packaged
According to the designers, Flow2 is “a living kitchen where nature and technology are integrated in a symbiotic relationship, processes
kitchen of the mid-twentieth century, including all
flow into one another in a natural cycle, efficiently
storage and appliance elements in a fully inte-
utilizing energy, waste, water, and other natural
grated assembly. Flow2 goes far beyond the origi-
resources. It provides a space not only for prepar-
nal packaged model, though, incorporating the
ing food but an environment that gives a better
act of growing food and reusing waste products. A
understanding of how natural processes work.
critical element of the sustainable design is the
A kitchen where food is grown, stored, cooked, and composted to grow more food.”3 The studio continues to work on a production version. The kitchen’s herb garden
Flow2 with its integrated dish rack, herb garden, refrigerator box, sink, and composting bin
Side view showing fruit storage, cooking utensils, and gas cooktop
54
Kitchens
55
Kitchens
Compost bin
Integrated chop and compost station
56
Diagram explaining the kitchen’s stations
Flow2’s kitchen landscape concept
Kitchens
57
Kitchens
Ekokook Faltazi, 2010
Laurent Lebot and Victor Massip of the French
The kitchen is equipped with three built-in
design firm Faltazi developed Ekokook with the
microprocessing plants for selecting, process-
support of a 2010 VIA Carte Blanche grant. Their
ing, and storing various types of waste, including
design references the packaged kitchen typology
organic (through an earthworm composter), solid,
but expands it by not only including cabinets,
and liquid. Ekokook thus eliminates the necessity
fixtures, and traditional appliances, but providing
to truck waste off site, reducing carbon dioxide
solutions to four critical issues: waste manage-
generation and atmospheric pollution. Gray water
ment, healthy cooking, reducing energy consump-
from washing dishes is filtered on site for use in
tion, and intelligent storage. The designers were
watering the integrated herbs and other plants.
frustrated with contemporary kitchen manufac-
The included electrical appliances, such as a
turers who continue to apply the hygienist and
twin-tier dishwasher, steam ovens, and refrigerator
functional principles of the twentieth century.
with compartments, are energy-efficient, further
Ekokook, in contrast, addresses needs beyond
emphasizing the kitchen’s sustainable program.
cooking, such as the short-term storage of fresh vegetables, water conservation, container gardening, sorting waste, recycling, and composting.
Diagram illustrating Ekokook’s three microplants
58
Ekokook prototype
Kitchens
59
Kitchens
Microplant 1
Microplant 3
Microplant 2
Composter
opposite: Diagram explaining the kitchen’s functions
60
Kitchens
61
Bathrooms
63
Bathrooms
Cirrus MVR Crowd Productions, 2008
Designed by Michael Trudgeon and Anthony
unit. Its fundamental design strategy is based
Kitchener of the Australian architecture and design
on the dual understandings that water is a lim-
firm Crowd Productions for their House of the
ited resource and that it is critical to protect our
Future project, the Cirrus MVR is a mobile plug-in
environment. The integrated bathroom unit is
bathroom that enfolds a complete bathroom into a
equipped with its own internal weather cycle and
wall unit, measuring 71 by 79 by 16 inches (1.8 by
purifies gray water from the incorporated bath,
2 by 0.4 meters), with the toilet, sink, and shower-
shower, and sink in a UV sterilizer, distilling it in a
head retracting into the main body of the unit and
mechanical vapor compression unit that continu-
the bathtub folding up into the shower recess. A
ally produces fresh water. Gray water is boiled in a
professional finalist in the 2008 Reese Bathroom
partial vacuum, which creates lower atmospheric
Innovation Award, the Cirrus MVR is a redesign of an
pressure, requiring much less energy; it is then
earlier 1996 version called Mobile Plug-in Bathroom.
sterilized by an ultraviolet light source. In addition
The element can be rolled into any serviced space
to the implementation of gray-water recycling, the
and connected to traditional plumbing and electrical
fittings are designed to reduce water use by 50
services via flexible hoses and electrical cabling.
percent, and the toilet is a dry toilet, using only 10
Made of stainless steel, the Cirrus MVR
percent of the water required by a traditional toilet.
is built around a water recycling and purifying
The Cirrus MVR expanded
The partially open bathroom
The closed unit
Bathing function
64
Bathrooms
65
Bathrooms
Frame an scale 1:40
Operational diagrams scale 1:20 200-liter water holding tank Movable scale 1:75
Mechcanical vapor compression unit
The bathroom module can be rolled into any serviced space to make it habitable.
Pull-out shower head and extractor fan
Pull-down bath handle
Pivoting fold-out toilet
Pivoting fold-out bath
Bath scale 1:75 The bath folds out from the stainless-steel module. The reclining surface is shaped to create the most minimal, comfortable water body.
Vapor extractor vent
Bath scale 1:25
Fold-out translucent hand basin
Pull out tilting shower head
Shower scale 1:75
Drip-free shut-off connectors
Pull-out tilt shower head is combined with a vapor extractor. The vapor is returned to the MVR water cycle. Vanity storage space
Retractable seat and shelf
Retractable faucet unit
Fold-out hand basin
Pivoting fold-out bath Extractor fan
Hand basin scale 1:75 Blue translucent plastic hand basin is shaped to maximize access to the smallest practical water body.
Pivoting fold-out toilet
Toilet scale 1:25
Toilet scale 1:75 Aircraft-style fold-out toilet deployed with pump action macerator only requires 1.5 liters of water for flushing. Connection to household services
66
Bathrooms
Frame and cladding scale 1:40
module can be erviced space able.
ut from the module. The is shaped to minimal, er body.
Bath scale 1:25
wer head is a vapor apor is MVR water
plastic hand to maximize mallest practical
Toilet scale 1:25
d-out toilet ump action equires 1.5 flushing.
67
Operational diagrams
Bathrooms
The Flo John Takamura, Jr., Dosun Shin, Tamara Christensen, and Dean Bacalzo, 2006
The Flo toilet, developed by an industrial design
employs an electromagnetic ball valve to
faculty/graduate student team at Arizona State
transport water from the tanks to the toilet, thus
University (including John Takamura, Jr., Dosun
making it self-sustaining and independent from
Shin, Tamara Christensen, and Dean Bacalzo),
the power grid. Two toilet tanks are controlled by
reconsiders the design of the toilet in terms of
infrared sensors and supplied with water that is
physiology and sustainability Reflecting on Kira’s
captured from the sink. The bidet element reduces
seminal bathroom studies and his squat toilet,
material consumption by minimizing the use of
the Flo pays particular attention to the position
toilet paper.
of the user. The toilet, which was recognized
Going beyond a simple aesthetic reconsid-
by the Industrial Designers Society of America
eration of the toilet, the design team has addressed
North Western Invitational Competition 2009 as a
issues of sustainability in both material—Tenile
Silver Award winner, has an ergonomic form that
Cellulosics—and function, as well as promoted
requires a healthier posture by the user, strength-
the physiological health of users.
ening abdominal and back muscles. Smoothly incorporating in one element the functions of bidet and sink, the Flo has no mechanical parts, but Mechanical concept
The Flo toilet and sink
Sink detail
68
Bathrooms
69
Bathrooms
Flo diagram
Side view illustrating the toilet in use
Magnetic ball detail
70
Side and top view mechanical
Toilet detail
Bathrooms
71
Bathrooms
Kullman Bathroom PODS Kullman Buildings Corporation, 2009–2010
The Kullman Buildings Corporation of Lebanon,
multiple building typologies, including hospitals,
New Jersey, has been a manufacturer of modular
dormitories, and hotels.
buildings since 1927, and it is now a world leader
Unlike the Dymaxion Bathroom, the
in the production of prefabricated bathroom pods.
Kullman Bathroom POD is not a specific designed
The company was in fact its own first client for its
element, but can be customized to meet varied
line of prefabricated bathrooms. In the late 1980s,
client needs and designer specifications. Pods can
the firm realized that the complexities involved in
be installed into any project type (new construc-
the fabrication of the bathroom, such as qual-
tion or renovation) and can accommodate single
ity control, overruns in budget and schedule,
users or commercial applications with multiple
and the coordination of trades, were slowing
stalls. Similar to the Dymaxion, the pods are
down its modular construction processes. It was
inclusive fabrications with walls, ceiling, and
determined that a separate off-site assemblage of
floor, delivered to the site fully fitted with fixtures,
bathroom pods, slid into the partially constructed
plumbing, wiring, and finishes. As a sustainable
modular buildings at the appropriate point in
benefit, the pods can be repurposed; even if a
production, would save time and reduce cost. In
building is being demolished, the bathroom pods
2006 Kullman started marketing its bathroom pods
can be removed, renovated, and installed in
as a separate component and now installs them in
another project.
Kullman POD Tour promotional material, 2010
Kullman Bathroom PODS in the factory
Kullman POD Tour truck and trailer
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Bathrooms
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Bathrooms
PODs in the factory, interior view
PODs in transit
Bathroom POD installation
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POD wrapped for transit
opposite: Small Bathroom POD, interior
Bathrooms
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Bathrooms
Co-Pod colab architects, initial design 2005, updated 2010
The co-Pod, developed by Gary McLuskey, Steve
modern house, including power, lighting, ventila-
Penn, and Danijela Cannon of the London-based
tion, heating, electrical services, and communica-
firm colab architects, is a prefabricated system
tions, and can be used singularly or stacked to
composed of four pod typologies: a shower room
facilitate the building of a multilevel house.
and kitchen unit; a staircase, toilet, and kitchen
The pods are designed to be centrally
unit; a staircase and bathroom unit; and a stair-
located in the building and to work with any
case void and bathroom element. Incorporating
type of external envelope, including brick, metal
all of the fixtures and mechanical equipment
frame, and timber frame, among others, enabling
necessary for the bathroom and kitchen of a small
a variety of projects to achieve the consider-
house, the co-Pod, winner of the Best Off-Site
able economic and sustainable benefits of
Solution award at Interbuild in 2006, is remi-
off-site construction. The versatility of the design
niscent of the inclusiveness of the Dymaxion
enables mass customization—assembled units
Bathroom, as well as Bertrand Goldberg’s 1946
can become anything, ranging from the core of a
Standard Prefabricated Bathroom. The co-Pod’s
studio apartment to the formative planning basis
four typologies can be assembled in various
for an entire city.
configurations in a range of different house types. The units contain all of the services essential to a Stacked pods
Shower room pod
Bathroom pod
overleaf: Exploded axonometric (shower room)
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Bathrooms
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Bathrooms
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Bathrooms
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Furniture
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Furniture
After Words Hussein Chalayan, 2000
Cyprus-born fashion designer Hussein Chalayan
After Words is an assembly of furniture that
takes inspiration from the built environment to
transforms into clothing. A symbolic sitting room
create garments that reflect upon the intersection
is composed of mid-twentieth-century modern–
of body and space. His clothing line exemplifies
style chairs surrounding a circular coffee table.
shared strategies in fashion, interior design, and
The chair’s slipcovers transform into dresses,
architecture, while being grounded in storytelling.
and the circular table morphs to become a skirt
According to Chalayan, “Everything around us
through a telescoping mechanism, while the body
either relates to the body or to the environment.
of each chair folds into a suitcase. The inherent
I think of modular systems where clothes are like
camouflage is multilayered; the valuable dresses
small parts of an interior, the interiors are part
are disguised as an interior environment through
of architecture, which is then a part of an urban
the furniture, which is again transformed. The
environment. I think of fluid space where they are
integrated fashion/furniture can refabricate the
all a part of each other, just in different scales and
home that was fled in wartime migrancy. As best
proportions.” Inspired by the stories and images
described by Chalayan, the clothing becomes a
of people leaving behind their homes in Kosovo
means to transport the environment.2
1
during the Bosnian War and by his own childhood experience as a Turkish Cypriot fleeing Cyprus, After Words living room
Transformation of the slipcovers into dresses
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Furniture
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Furniture
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Furniture
Coffee table
Transformation of the coffee table
Coffee table skirt
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Suitcases and skirt
Furniture
90° Furniture KapteinBolt, 2008
90° Furniture, designed by Louwrien Kaptein of
lock the rotated portions of the panels into their
the Dutch design firm KapteinBolt, is a reflection
functional horizontal positions. The units, made
on the dialogue between space and furniture,
of medium-density fiberboard, are left unfinished,
constructing interior space through the assem-
providing the user with the freedom to custom-
blage of four units: a working unit, a sitting and
ize not only the three-dimensional space but also
sleeping unit, a cooking unit, and a storage unit.
the two-dimensional finish. The dimensions of
The name is derived from the concept of unfold-
the panels, 44 by 72 inches (1.1 by 1.8 meters),
ing the four preassembled two-part panels at a
are based on Le Corbusier’s Modular, but revised
90-degree angle, both horizontally and vertically,
with a consideration of the size and proportion of
to form the units. When unfolded, each unit is
today’s body.
a dividing screen and programmed living space at once. The elements can be sited individually to define discrete areas, or be assembled combined to become the basis for an entire interior environment. Delivered folded and flat-packed, the panels are secured with stainless steel pins that Closet panels
Assembled closet
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90° Furniture assembled
Furniture
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Furniture
Bedroom
Dining area
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Closet
Furniture
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Furniture
Kenchikukagu Atelier OPA, 2008
Kenchikukagu, designed by Toshihiko Suzuki of
The unit’s dimensions are reflective of the typically
the Japanese firm Atelier OPA and manufactured
small size of Japanese apartments, which often do
by the Tada Furniture Company, represents an
not have enough space for a guest room. When
intersection between architecture and furniture.
folded, it measures 16 by 71 by 47 inches (40 by
Composed of three cabinetlike elements—a
180 by 120 centimeters). The Foldaway Office is
Mobile Kitchen, Foldaway Guestroom, and
reminiscent of the Wooton Patent Cabinet Office
Foldaway Office—the system unfolds to form a
Secretary but includes an integrated chair, in addi-
complete interior environment with a high degree
tion to a desk, drawers, and a shelf. When folded,
of interchangeability.
the cabinet measures 20 by 61 by 29 inches (50
The Mobile Kitchen, which is representa-
by 155 by 100 centimeters). Like the other two
tive of the packaged unit typology and includes an
units, the Foldaway Office conceptually integrates
electrical connection, cooking element, and sink,
into an existing interior environment through
measures only 46 by 24 by 36 inches (116 by 61
transportability and adaptability, while also
by 88 centimeters), when closed. The Foldaway
providing the capability to segment and define
Guestroom expands the traditional concept of the
space.3
Murphy bed to an encapsulated lit-clos environment with a bed, a small shelf, and a light. Kitchen, office, and guest room cabinets
Assembling the kitchen
Mobile Kitchen, Foldaway Office, and Foldaway Guestroom in use
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Furniture
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Furniture
Office in use
Assembling the guest room
Guest room in use
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Kitchen detail
Furniture
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Furniture
Playground for Leif Designliga, 2009
Playground for Leif, designed by the Munich-
the child is on top, and wall and ceiling when the
based multidisciplinary design firm Designliga,
child occupies the tunnel spaces formed within
transcends the traditional concept of furniture,
and underneath. Each 16-by-16-by-19.5-inch
creating a holistic living environment for a
(40-by-40-by-50-centimeter) module conceals
child. The furniture system was developed for
a function, including a storage box, lamp, and
Designliga cofounder Sasa Stanojcic’s son Leif
wardrobe. Beyond the dimension of the single
and reinterprets the requirements of a children’s
cube, the assemblage also incorporates a desk, a
bedroom. The typical child’s room is a miniatur-
dresser, and a bed surrounded by the densely pad-
ized version of its adult counterpart, distinguished
ded lids of the modular elements that prevent the
merely in scale and surface. For this investigation,
child from falling out of the system. The modules
the designers observed Leif’s behavior and recog-
can be arranged and rearranged according to the
nized that children love to play, climb, build forts,
needs and wants of the user. When assembled, the
and make their own decisions about how they
construction is not only functional and safe, but
want to inhabit and behave in their own spaces.
the formed positive and negative spaces create
The system’s prefabricated modular ele-
habitats for play, including tunnels and climbers.
ments, when assembled, construct a transformable environment, becoming floor and furniture when Cubbyhole detail
Bed and storage modules
Bed modules
overleaf: Assembled modules with bed, desk, and storage functions
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Furniture
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Furniture
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Furniture
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Office
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Office
Clipper CS-1 Douglas Ball with Jeff Sokalski, 1993
The Clipper CS-1, designed by Douglas Ball with
prefabricated work environment had the ability
Jeff Sokalski and manufactured by Newspace from
to completely enclose the user. Narrower than its
1993 to 1996, is an efficient capsulelike worksta-
predecessor at 7 by 4 feet when closed and made
tion that places everything within reach of its occu-
of Lexan, with solid maple and stainless steel, the
pant. Industrial designer Ball developed its form to
capsule housed adjustable reading lights, ventila-
mimic the experience of driving his car. The work-
tion, and space for a computer, files, printer, and
station’s seat was more reclined than traditional
personal items. Like the original workstation, the
office chairs, and the computer screen was located
Clipper CS-1 has its grounding in ergonomics. Its
at eye level, like the road. An installed canopy
seat glides and tilts on a rail, and the footrest can
controlled the influx of natural light and created a
be adjusted to allow for an exact custom fit to a
shield from distractions. Constructed quickly, the
wide range of body sizes. Although scaled to the
1984 prototype was followed by a more durable
individual user, the design of the capsule fosters
model within which Ball did all of his work for the
flexibility and collaboration. The unit is equipped
next seven years.
with casters, making it readily relocatable (with
The 1993 Clipper CS-1, now in the perma-
the sides removed, it fits through a standard
nent collection of the Design Museum in London,
doorway), and the capsule’s extendable side-wing
was entirely reconsidered. The new capsulelike
tables provide meeting space for multiple users.1 Sketch for the original capsule
Clipper CS-1 Capsule, 1994
Capsule prototype, 1984
Original capsule
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Office
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Office
Interior showing air supply and lights
Working position of the user
Partially dismantled capsule for relocation by elevator
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Office
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Office
Office POD Image Products, 2008
Designed by the Australian photographer Ross
can easily be transported and reused, eliminating
Coffey, the Office POD recalls the Wooton Patent
the waste typically associated with trade show
Cabinet Office Secretary, incorporating storage
booths, while the materiality of the pod, which is
and a work surface in a prefabricated unit. Winner
made of translucent acrylic, allows for the trans-
of the 2008 Interior Design Excellence Award
mittal of light and air.
(IDEA), the design transcends the standard concept of a singular workstation, however, having the capability of morphing into an office, hospitality, or promotion space. The flexible mobile element is a combination of a unit and screen system, and can, when not in use, easily be closed and rolled to storage on caster wheels. The programmatic possibilities include using the system in a residential setting as a prefabricated interior wall to separate a bedroom from an office space in a loft or studio apartment, as well as utilizing it as a trade show booth. The unit Loading the Office POD into the elevator
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Transport on caster wheels
Office
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Office
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Storage shelves
The Office POD in use
Side view showing storage and desk
Expanded aerial view illustrating the pod’s possible use as a trade show booth
Office
107
Office
Dilbert’s Ultimate Cubicle IDEO, 2001
The visionary Dilbert’s Ultimate Cubicle, designed
modular design of Dilbert’s Ultimate Cubicle
by the global innovation and design practice
enables users to define, configure, and control
IDEO, was a collaborative effort between IDEO’s
their immediate work environment. The final
design team, led by Fred Durst, and Dilbert comic
prototype comprises a prefabricated kit of parts
strip creator Scott Adams, who approached the
from which the user can select elements based on
firm in 2001 to create the ideal cubicle for his
individual needs, wants, and styles of work.
comic figure. A 2002 IDEA Gold award winner,
Concept elements range from those with
the design reflects thousands of email commu-
programmed functionality, including modules
nications from cubicle users, input from Adams,
for whiteboards, corkboards, tray shelves, and
and the experience of the designers who lived in
drawers; a desk surface; and a drop-down seat
an assembled “Dilbertville” for several weeks as a
for visitors; and those considering user taste and
component of their research.
lifestyle, such as a hammock, an aquarium, a shoe
2
The primary concern of the designers’
polisher, and an acoustically activated mechani-
investigation was to make the cubicle more livable
cal flower that wilts when the user is absent and
and to solve critical issues within the standard
revives when the user returns.3
partition-based cubicle environment, including insufficient user control, privacy, and space. The Scott Adams in the prototype cubicle, which features a top row of lights that simulate the sun’s movement during the course of a day
108
Desk element
Storage modules
Office
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Office
Closet module
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Drop-down flower chair
Office
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Office
OfficePOD OfficePOD, 2009
The 2009 OfficePOD, manufactured by the
office, a backyard, or even a train station. As an
London-based company OfficePOD, is a prefabri-
interior element, the OfficePOD can be placed
cated work environment that can be assembled on
within an existing structure as a complete and
or off site. Made primarily from natural, recycled,
ready-to-use private office, including all elements
and recyclable materials, the unit is designed
necessary, incorporating walls, ceiling, and floor,
for low-energy consumption with a high level of
in addition to furniture, storage, power, lighting,
insulation and an innovative cooling system. The
and even ventilation.
self-contained element, measuring 6 feet 9 inches
The procurement of the OfficePOD is as
by 6 feet 9 inches (2 by 2 meters), is conceived
innovative as its design, as companies can lease
to provide an alternative office environment that
the units rather than purchase them, reducing or
may be used in multiple settings. When placed at
eliminating up-front construction costs. This pro-
home, it eliminates the need for commuting and
vides companies with abundant workspace flex-
hence reduces carbon emissions; when installed at
ibility, fostering innovation and creativity. When
work, it decreases construction costs and provides
companies no longer require their OfficePODs,
significant flexibility for future office reorganization
they can be leased to a new user.
projects. The units can be used in diverse locations, including an existing or newly constructed The OfficePOD placed in a private yard
The OfficePOD with integrated desk and storage
Door detail
overleaf: Interior
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Office
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Office
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Office
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Prefabricated House Interiors
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Prefabricated House Interiors
Furniture House Shigeru Ban, 1995
Shigeru Ban has exhibited a well-focused pur-
his investigations into unique forms of
pose in his design approach, uniquely devising
structure.2
techniques of prefabrication that not only exhibit
For the design and construction of the
a strong aesthetic but also reduce the building’s
first Furniture House, Ban collaborated with a
requirements for materials and time, and the
furniture manufacturer, with all elements manu-
amount of project waste. Ban’s design for the
factured and finished off site. Furniture House 1
Furniture House relies on the prefabrication of
included two types of furniture elements—open
furniture units that both function as place-making
bookcases and cabinets with doors—and the
elements and form the structural basis of the
construction was based on furniture modules
house. Furniture House 1 was completed in 1995,
measuring 35 by 94 by 18 inches (90 by 240 by
with five houses of the typology built to date,
45 centimeters) for bookcases and 35 by 94 by 28
including Furniture House 2 (a two-story house)
inches (90 by 240 by 70 centimeters) for cabinets.
and the Bamboo Furniture House.1 Ban’s devel-
With Furniture House 2, Ban expanded furniture
opment of furniture as a means for structure was
functionality by including additional elements,
prompted by the high frequency of earthquakes
such as a sink, kitchen, staircase, and closet hous-
in Japan, where many deaths result from falling
ing an air-conditioning unit.
furniture, and formed a natural progression in
118
Placement of furniture during construction
Furniture House I, construction
Cabinet element
Construction shot with furniture in place
Prefabricated House Interiors
119
Prefabricated House Interiors
Exploded axonometric
Interior
Plan
Section
120
Prefabricated House Interiors
121
Prefabricated House Interiors
A-Z Cellular Compartment Units Andrea Zittel, 2001
Andrea Zittel is an artist whose work balances on
the A-Z Cellular Compartment Units were
the boundary of art and design, often manifesting
produced for the IKON gallery in Birmingham,
in an architectonic form. In her investigations,
England, in 2001, and Zittel lived in them with a
Zittel has explored many prototypes for living,
few friends for four weeks. A second set was pro-
including her Living Units, Raugh Furniture,
duced for, and in collaboration with, Sammlung
Wagon Units, and Homestead Unit. The notion of
Goetz.4
the scale of the relationship of the body to physi-
The units are at the intersection of architec-
cal space is critical in Zittel’s work, though it is
ture and furniture, at once resembling a modern
more about the “physical experience of being in
apartment building and a cabinet system creating
that place rather than the practicalities of day-to-
a new exterior that resides within the interior envi-
day life in that space,” as the artist states.3
ronment. The modular elements, manufactured
The A-Z Cellular Compartment Units con-
from stainless steel, birch plywood, and glass, and
sist of ten stackable compartments, each measur-
containing household objects such as a stove, TV,
ing only 96 by 48 by 48 inches (2.4 by 1.2 by 1.2
and computer, can be arranged and readily recon-
meters), that transform a one-room space into a
figured according to user preference.
ten-room habitat. The first prototype elements for
Installation at Schaulager, Basel, 2008
Entry interior
Bedroom compartment Kitchen compartment
overleaf: Installation at the Andrea Rosen Gallery, New York, 2002
122
Prefabricated House Interiors
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Prefabricated House Interiors
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Prefabricated House Interiors
125
Prefabricated House Interiors
Composite House su11 architecture + design, 2002
Designed by Ferda Kolatan and Erich
unit.”5 The units’ epoxy finish meets the needs of
Schoenenberger of the New York–based firm su11
both the interior and exterior environments and
architecture + design, the Composite House is an
further de-emphasizes the role of the exterior by
inherently flexible prefabricated housing system
eliminating the difference in surface finishes.
based on programmed interior elements, which
Kolatan and Schoenenberger reconceived
the designers call “add-ons.” The house is an
this conceptual system several times, and in 2010
unbuilt prototype, whose organization of integral
designed and custom-fabricated, together with
and connected parts reflects a design ethos that
Associated Fabrication, the K_Residence, a multi-
is as much about the interior of a building as the
functional, multiprogrammatic evolution of an
exterior. The add-ons are prefabricated multipro-
add-on, which they dubbed the “Interior Sleeve.”
grammed furniture-type units, which are designed
In the K_Residence, the Interior Sleeve, a combi-
to fulfill specific functions, and are at once furni-
nation of highly customized Corian and generic
ture, appliance, and architecture. The units can
wood, wraps around walls and ceiling, thickening
have walls, stairways, doors, or storage attached
and thinning at times, providing spatial nooks and
to them and are at once interior and exterior, such
niches without fixed programmatic boundaries.
as a “kitchen sink-outdoor shower-rooftop hot tub unit” or an “indoor fireplace-outdoor grill-stairs Composite House II, sink/ tub/and hot tub/sauna configurations
Axonometric
Possible add-on configurations
126
Prefabricated House Interiors
127
Prefabricated House Interiors
Composite House II, possible configurations
K_Residence axonometric
K_Residence, bedroom Composite House II, possible configurations
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Prefabricated House Interiors
129
Prefabricated House Interiors
Cell Brick House Atelier Tekuto, 2004
The Cell Brick House, designed by Yasuhiro
storage element consisting of a modular box that
Yamashita of the Tokyo-based architectural firm
can be further subdivided with shelves or can
Atelier Tekuto, represents a culminating investiga-
incorporate drawers. The structural cubbyholes
tion of prefabricated modular furniture as place-
hold dishes, small appliances, and pantry items,
maker. The typologies of the module as interior
as well as books and other personal objects, ren-
furniture element and as a building block are
dering freestanding cabinets and shelves unnec-
fused in Yamashita’s design. Sited on a compressed
essary. An exterior coating, composed of a fused
Tokyo lot of only 355 square feet (33 square
ceramic material that has advanced properties of
meters), the house combines the building’s skin,
heat transmission and resistance, differentiates the
structure, and storage all in one.
materiality of interior and exterior. The modules
Prefabricated steel modules, measuring 35
are staggered with glass panels, some of which
by 18 by 12 inches (90 by 45 by 30 centimeters)
are operable, creating windows that allow the
each, are stacked three stories high and connected
transmittance of light.6 Like Ban’s Furniture House, the Cell Brick
with high-tension steel bolts. Yamashita termed this construction technique void masonry: From
House relies on furniture modules as structural ele-
the outside each module looks like a concrete
ments. Without the prefabricated interior/exterior
masonry unit. From the inside, however, it is a
elements, the building neither functions nor stands. Exterior
Children’s room
Living area
overleaf: Living area
130
Prefabricated House Interiors
131
Prefabricated House Interiors
132
Prefabricated House Interiors
133
Glossary Assemblies Small parts are preassembled off site into assemblies, thus reducing the number of components that require on-site construction. In the built environment, delivering too many individual parts has been blamed for the failure of prefabricated endeavors, such as the problematic Lustron House and the first iteration of the Eames Storage Unit. Coordinated Furniture Elements of a furniture group that when arranged, either as modular elements of a whole or as freestanding units, work together to create space in a place-making manner. Dymaxion R. Buckminster Fuller generated the term dymaxion with the assistance of a wordsmith to combine the words dynamic and maximum, and the scientific ending -ion. The term is copyrighted in Fuller’s name and is part of the names of many of his artifacts.1 Mass Customization Mass customization allows the user to customize a massproduced system of elements by assembling the complete whole in a variety of ways. Modular furniture in particular lends to mass customization of its prefabricated pieces. The Eames Storage Unit represented the first true such realization in furniture, as the user could not only customize the whole through the placement and selection of modules, but also choose the material and color of the individual parts that comprised the module. Mass Production The Industrial Revolution enabled the quantity-driven production of goods in factories, including those that construct the vocabulary of prefabricated interiors. Mass production was often the overarching vision for, if not the outcome of, prefabricated house investigations, as well as for prefabricated furniture (both modular and typical), kitchens, and bathrooms. Module A building block of customizable prefabricated space. The significance of the module is evident in architecture in the most basic unit of the brick. In interior design systems of modular components are the basis of any number of elements, from furniture to kitchens and office environments. The module on its own typically does not serve its intended function. However, in repetition, it can function as a creator of defined spatial environments. The module constitutes the basis for much of the prefabricated interior. 134
Off-site Fabrication This is a term that predates the word prefabrication and is also preferred by some contemporary designers who purport that it is a more accurate descriptor. Off-site fabrication refers to parts of the building, interior or exterior, that are being assembled in a place other than the building site (typically a controlled factory environment). Ideally, assemblies are fabricated simultaneously in various locations, reducing total construction time and costs, and fully assembled into the whole at the building site. This type of process has been best manifest in auto industry fabrication and assembly practices.2 Packaged The term packaged gained popularity in the 1940s to describe complete prefabricated kitchens. Walter Gropius’s prefabricated Packaged House of 1942, a collaboration with Konrad Wachsmann, further encouraged the use of the terminology.3 The mid-twentieth-century packaged kitchen could be characterized as either the unit or modular typology; in both instances, a packaged kitchen incorporated all cabinetry, appliances, lighting, and sometimes ventilation. Whether complete units or composed of modular elements, the kitchens were typically self-supporting, with the modular designs including a structural frame. As such, they were discrete assemblages that were separate from the structure of the house, and could be inserted into any building regardless of its structural definitions. In its most inclusive form, the packaged unit incorporated both the kitchen and the bathroom with a shared, fully mechanical core. Place-making Place-making occurs when elements act together to organize an undefined area into a cohesive defined and programmed space. Prefabrication Prefabrication refers to parts of the building, interior or exterior, that are assembled in a place other than the building site (typically a controlled factory environment).4 See also off-site fabrication. Productize In prefabricated interior design, productizing refers to the translation of a custom design into a mass-producible, marketable product. The custom design becomes the prototype.
Glossary
Prototype Full-sized functional model. Screen An element that is utilized to divide space either as a relatively fixed or readily movable object. The screen was the first prefabricated architectonic element. Unit As a primary defining element of prefabricated interior design, the term unit is used to describe elements that are created in their entirety as a single all-inclusive piece.
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Notes Introduction 1. Jill Herbers, Prefab Modern (New York: Harper Design International, 2004), 14. 2. Bryony Coles and John Coles, Sweet Track to Glastonbury: The Somerset Levels in Prehistory (New York: Thames and Hudson, 1986), 62–63. 3. Allison Arieff and Bryan Burkhart, Prefab (Layton, UT: Gibbs Smith, 2002), 13. 4. Gilbert Herbert, “The Portable Colonial Cottage,” Journal of the Society of Architectural Historians 31, no. 4 (1972): 261–64. 5. Douglas Knerr, Suburban Steel: The Magnificent Failure of the Lustron Corporation, 1945–1951 (Columbus, OH: Ohio State University Press, 2004), 78–79. 6. Katherine Cole Stevenson and H. Ward Jandl, Houses by Mail: A Guide to Houses from Sears, Roebuck and Company (Washington, DC: Preservation Press, 1986), 29–30. 7. Dianne Lee van der Reyden, “Technology and treatment of a folding screen: comparison of oriental and western techniques,” in The Conservation of Far Eastern Art: Preprints of the Contributions to the IIC Kyoto Congress, Kyoto, 19–23 September 1988, ed. John Mills, Perry Smith, and Kazuo Yamasaki (London: International Institute for Conservation of Historic and Artistic Works, 1988), 64–68. 8. Karen Franck and R. Bianca Lepori, Architecture from the Inside Out: From the Body, the Senses, the Site, and the Community (Chichester, England: Wiley-Academy, 2007), 69. 9. Penelope Rowlands, Eileen Gray, Compact Design Portfolio, ed. Marisa Bartolucci and Raul Cabra (San Francisco: Chronicle Books, 2002), 6–14. 10. John Neuhart, Marilyn Neuhart, and Ray Eames, Eames Design: The Work of the Office of Charles and Ray Eames (New York: Harry N. Abrams, 1989), 79. 11. Lance Knobel, Office Furniture: Twentieth-Century Design (London: Unwin Hyman, 1987), 44–46. 12. Alvin E. Palmer and M. Susan Lewis, Planning the Office Landscape (New York: McGraw-Hill, 1977), 3–5. 13. Stanley Abercrombie, George Nelson: The Design of Modern Design (Cambridge, MA: MIT Press, 1995), 210–11. 14. Ralph Caplan, The Design of Herman Miller (New York: Whitney Library of Design, 1976), 76. 15. Stanley Abercrombie, “Office Supplies: Evolving Furniture for the Evolving Workplace,” in On the Job: Design and the American Office, ed. Donald Albrecht and Chrysanthe B. Broikos (New York: Princeton Architectural Press, 2000), 81–97. 16. John F. Pile, Open Office Planning: A Handbook for Interior Designers and Architects (New York: Whitney Library of Design, 1978), 32–34. 17. “Post-Cubist: How a Hip, Young Turkish Designer is Breaking Down the Square American Office,” Metropolis 19, no. 3 (1999): 98–103. 18. Colin Davies, The Prefabricated Home (London: Reaktion Books, 2005), 44–55 and 148–49. 19. Jonathan Ochshorn, “Curtain Wall System,” in Encyclopedia of 20th Century Architecture, vol. 1, ed. R. Stephen Sennott (New York: Fitzroy Dearborn, 2004), 335–37. 20. Ken Tadashi Oshima, “Postulating the Potential of Prefab: The Case of Japan,” in Home Delivery: Fabricating the Modern Dwelling, by Barry Bergdoll and Peter Christensen (New York: Museum of Modern Art, 2008), 32. 21. Kiyoshi Seike, The Art of Japanese Joinery (New York: J. Weatherhill, 1977), 14. 22. Ruth Oldenziel, “Exporting the American Cold War Kitchen: Challenging Americanization, Technological Transfer, and Domestication,” in Cold
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War Kitchen: Americanization, Technology, and European Users, ed. Ruth Oldenziel and Karin Zachmann (Cambridge, MA: MIT Press, 2009), 315–40. 23. Catharine Beecher and Harriet Beecher Stowe, The American Woman’s Home (New York: J. B. Ford and Company, 1869), 32–33. 24. Dolores Hayden, The Grand Domestic Revolution: A History of Feminist Designs for American Homes, Neighborhoods, and Cities (Cambridge, MA: MIT Press, 1981) 58–60. 25. Mary Anne Beecher, “Promoting the ‘Unit Idea’: Manufactured Kitchen Cabinets (1900–1950),” APT Bulletin 32, no. 2 (2001): 27–28; Ellen Lupton and J. Abbott Miller, The Bathroom, the Kitchen, and the Aesthetics of Waste: A Process of Elimination (New York: Kiosk, 1996), 43. 26. Lupton and Miller, The Bathroom, the Kitchen, and the Aesthetics of Waste, 43. 27. Joy Parr, “Modern Kitchen, Good Home, Strong Nation,” Technology and Culture 43, no. 4 (2002): 661. 28. Susan R. Henderson, “A Revolution in the Woman’s Sphere: Grete Lihotzky and the Frankfurt Kitchen,” in Architecture and Feminism, ed. Debra Coleman, Elizabeth Danze, and Carol Henderson (New York: Princeton Architectural Press, 1996): 235–37. 29. Jill Herbers, Prefab Modern (New York: Collins Design, 2004), 82–87. 30. Helen McCollough, “The Kitchen of Tomorrow,” Journal of Home Economics vol. 37, no. 1 (1945): 8–10. 31. Glenn H. Beyer, The Cornell Kitchen: Product Design through Research (Ithaca, NY: New York State College of Home Economics in association with Cornell University Housing Research Center, 1953), 62–68. 32. Abercrombie, George Nelson, 93. 33. Charlotte Benton, “Le Corbusier: Furniture and the Interior,” Journal of Design History 3, no. 3 (1990): 104–16. 34. Christopher Wilk and Marcel Breuer, Marcel Breuer: Furniture and Interiors (New York: Museum of Modern Art, 1981), 59–61. 35. George Nelson and Henry N. Wright, Tomorrow’s House: How to Plan Your Post-War Home Now (New York: Simon and Schuster, 1945), 132–42. 36. Pat Kirkham, Charles and Ray Eames: Designers of the Twentieth Century (Cambridge, MA: MIT Press, 1995), 256. 37. Ignazia Favata, Joe Colombo and Italian Design of the Sixties: Commentary and Catalogue, 1st MIT Press ed. (Cambridge, MA: MIT Press, 1988), 20–22. 38. Beecher, “Promoting the ‘Unit Idea,’” 28–32. 39. Camille Showalter and Janice Driesbach, Wooton Patent Desks: A Place for Everything and Everything in its Place (Indianapolis, IN: Indiana State Museum, 1983), 35–37. 40. Ellen Lupton, Mechanical Brides: Women and Machines from Home to Office (New York: Cooper-Hewitt National Museum of Design Smithsonian Institution; New York: Princeton Architectural Press, 1993), 50. 41. Judith Nasatir, “Allan Wexler,” Interior Design 65, no. 7 (1994): 146–47. 42. Lupton and Miller, The Bathroom, the Kitchen, and the Aesthetics of Waste, 3 43. Alden Hatch, Buckminster Fuller: At Home in the Universe (New York: Crown Publishers, 1974), 279. 44. Colin Davies, The Prefabricated Home (London: Reaktion Books, 2005), 223. 45. “Prefabricated Bathroom,” Architectural Forum 87, no. 1 (1947): 13. 46. Alexander Kira, The Bathroom: Criteria for Design, (Ithaca, NY: Center for Housing and Environmental Studies, Cornell University, 1966), 1, 116.
Notes
47. Joseph Aronson, The Encyclopedia of Furniture, 3rd rev. ed. (New York: Clarkson Potter, 1965), 231, 285 48. Ettore Sottsass, Italy: The New Domestic Landscape: Achievements and Problems of Italian Design, ed. Emilio Ambasz (New York: Museum of Modern Art, 1972), 162–63. 49. Linda Garnitz, “Projects & People,” Pace Interior Architecture 78 (May 1995): 30, 32. 50. Erwan Bouroullec et al., Erwan and Ronan Bouroullec (London: Phaidon, 2003), 3.
4. Rainald Schumaker, “A-Z Cellular Compartment Units Customized by Sammlung Goetz,” in Andrea Zittel, ed. Sammlung Goetz and Ingvild Goetz, (Munich: Herausgeber, 2003), 119. 5. Eva Pankenier, “Systematic Variations: su 11 Designs Environments That Are Catching Up with the Way We Live,” 306090 no. 03 (2002): 9–17. 6. Ken Tadashi Oshima, “Postulating the Potential of Prefab: The Case of Japan,” in Home Delivery: Fabricating the Modern Dwelling, by Barry Bergdoll and Peter Christensen (New York: Museum of Modern Art, 2008), 102–104.
Interior Walls
Glossary
1. Barry Bergdoll and Peter Christensen, Home Delivery: Fabricating the Modern Dwelling (New York: Museum of Modern Art, 2008), 185. 2. Katie Gerfen, “Active Phytoremediation Wall System,” Architect, 98 no. 8 (August 2009): 48–51. 3. Greg Lynn, “Blobwall,” Architectural Design 27, no. 2 (2000): 97–99.
1. R. Buckminster Fuller and Robert Marks, The Dymaxion World of Buckminster Fuller (Garden City, NY: Anchor Books, 1973), 21. 2. Stephen Kieran and James Timberlake, Refabricating Architecture: How Manufacturing Methodologies are Poised to Transform Building Construction (New York: McGraw-Hill, 2004), 43–46. 3. Gilbert Herbert, The Dream of the Factory-Made House: Walter Gropius and Konrad Wachsmann (Cambridge, MA: MIT Press, 1984), 76. 4. Kieran and Timberlake, Refabricating Architecture, 43.
Kitchens 1. Judith Nasatir, “Allan Wexler,” Interior Design 65, no. 7 (1994): 146–47. 2. All measurements follow the order of width, height, depth. 3. John Arndt and Wonhee Jeong, “Flow2,” Studio Gorm Informational Material, 2009, 2.
Bathrooms 1. John Takamura, Jr., Dosun Shin, Tamara Christensen, and Dean Bacalzo, “The Flo Toilet,” Innovation: Quarterly of the Industrial Designers Society of America (Winter 2008): 63.
Furniture 1. Hussein Chalayan explains his philosophy of proportion in fashion as it relates to the built environment to Bradley Quinn in the article “A Note: Hussein Chalayan Fashion and Technology.” Bradly Quinn, “A Note: Hussein Chalayan, Fashion and Technology,” Fashion Theory 6, no. 4 (2002): 359–68, doi: 10.2752/136270402779615325. 2. Megan Hoffman, “Is a Fashion Show the Place for Social Commentary? Investigating the Spectacle Dressed Up in Ides in Hussein Chalayan’s After Words,” Austrailasian Drama Studies no. 54 (April 2009): 38–40. 3. Toshihiko Suzuki, “Design of Architectural Furniture,” Aidia Journal 8 (2008): 2–7.
Offices 1. Peggy McGuire, “Office Capsule,” Architectural Review, April 2005, 18–19. 2. Porter Anderson, “Scott Adams: Dilbert’s Ultimate Cubicle,” CNN. com, December 11, 2001, http://archives.cnn.com/2001/CAREER/ jobenvy/08/28/dilbert.scott.adams. 3. “Dilbert’s Ultimate Cubicle: Gold, Design Explorations,” Industrial Designers Society of America (IDSA) website, accessed March 15, 2010, http://www.idsa.org/content/content1/dilberts-ultimate-cubicle.
Prefabricated House Interiors 1. Matilda McQuaid, Shigeru Ban (New York: Phaidon, 2003), 168. 2. Riichi Miyake, “Shigeru Ban as an Empiricist,” The Japan Architect no. 30 (1998): 7–8. 3. Andrea Zittel, “Andrea Zittel in Conversation with Allan McCollum,” in Andrea Zittel: Diary no. 1, ed. Simona Vendrame (Milan: Tema Celeste Editions, 2002).
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Select Bibliography Abercrombie, Stanley. George Nelson: The Design of Modern Design. Cambridge, MA: MIT Press, 1995. Abercrombie, Stanley. “Office Supplies: Evolving Furniture for the Evolving Workplace.” In On the Job: Design and the American Office, edited by Donald Albrecht and Chrysanthe B. Broikos, 81–97. New York: Princeton Architectural Press, 2000. Abraham, Yvonne. “The Man behind the Cubicle.” Metropolis 18, no. 3 (1998): 76–77. Anderson, Porter. “Scott Adams: Dilbert’s Ultimate Cubicle.” CNN, December 11, 2001, accessed May 5, 2010, http://archives.cnn.com/2001/CAREER/ jobenvy/08/28/dilbert.scott.adams. Arieff, Allison, and Bryan Burkhart. Prefab. Layton, UT: Gibbs Smith, 2002. Aronson, Joseph. The Encyclopedia of Furniture. 3rd rev. ed. New York: Clarkson Potter, 1965. Ban, Shigeru. “Shigeru Ban: House of Furniture, Yamanakakomura, Yamanashi. ” GA Houses no. 47 (1995): 56–59. Beecher, Catharine, and Harriet Beecher Stowe. The American Woman’s Home. New York: J. B. Ford, 1869; Hartford, CT: Stowe-Day Foundation, 1975. Beecher, Mary Anne. “Packaged Kitchens: Understanding Prefabricated Manufactured Units as Mid-Century Interiors.” Paper presented at the annual Interior Design Educators Council, Montreal, Canada, March 5–8, 2008. Beecher, Mary Anne. “Promoting the ‘Unit Idea’: Manufactured Kitchen Cabinets (1900–1950).” APT Bulletin 32, no. 2 (2001): 27–37. Bell, Genevieve, and Joseph Kaye. “Designing Technology for Domestic Spaces: A Kitchen Manifesto.” Gastronomica 2, no. 2. Benton, Charlotte. “Le Corbusier: Furniture and the Interior.” Journal of Design History 3, no. 3 (1990): 104–16. Bergdoll, Barry, and Peter Christensen. Home Delivery: Fabricating the Modern Dwelling. New York: Museum of Modern Art, 2008. Berry, John. Herman Miller: Classic Furniture and System Designs for the Working Environment. London: Thames and Hudson, 2005. Beyer, Glenn H. The Cornell Kitchen: Product Design through Research. Ithaca, NY: New York State College of Home Economics in association with Cornell University Housing Research Center, 1953. Blauvelt, Andrew. Strangely Familiar: Design and Everyday Life. Minneapolis, MN: Walker Art Center, 2003. Bouroullec, Erwan et al. Erwan and Ronan Bouroullec. London: Phaidon, 2003. 138
Brown, Azby, and Joseph Cali. The Japanese Dream House: How Technology and Tradition Are Shaping New Home Design. New York: Kodansha International, 2001. Caplan, Ralph. The Design of Herman Miller. New York: Whitney Library of Design, 1976. Coles, Bryony, and John Coles. Sweet Track to Glastonbury: The Somerset Levels in Prehistory. New York: Thames and Hudson, 1986. Cook, Peter, ed. Archigram. New York: Princeton Architectural Press, 1999. Currey, Mason. “Blob Mentality.” Metropolis 28, no. 1 (September 2008): 100. Davies, Colin. The Prefabricated Home. London: Reaktion Books, 2005. Esposi, Lauren. “Taking it on the Road: Kullman embarks on U.S. tour to spread the benefits of bath pods.” Hotel Business (February 2010): 28–30. Favata, Ignazia. Joe Colombo and Italian Design of the Sixties: Commentary and Catalogue. 1st MIT Press ed. Cambridge, MA: MIT Press, 1988. Fetters, Thomas T. The Lustron Home: The History of a Postwar Prefabricated Housing Experiment. Jefferson, NC: McFarland, 2002. Franck, Karen, and R. Bianca Lepori. Architecture from the Inside Out: From the Body, the Senses, the Site, and the Community. Chichester, England: WileyAcademy, 2007. Fuller, R. Buckminster, and Robert Marks. The Dymaxion World of Buckminster Fuller. Carbondale, IL: Southern Illinois University Press, 1960; Garden City, NY: Anchor Books, 1973. Garnitz, Linda. “Projects & People.” Pace Interior Architecture vol. 78 (May 1995): 30–32 . Gerfen, Katie. “Active Phytoremediation Wall System.” Architect Magazine, 98 no. 8 (August 2009): 48–51. Hatch, Alden. Buckminster Fuller: At Home in the Universe. New York: Crown Publishers, 1974. Hayden, Dolores. The Grand Domestic Revolution: A History of Feminist Design for American Homes, Neighborhoods, and Cities. Cambridge, MA: MIT Press, 1981. Henderson, Susan R. “A Revolution in the Woman’s Sphere: Grete Lihotzsky and the Frankfurt Kitchen.” In Architecture and Feminism, edited by Deborah Coleman, Elizabeth Danze, and Carol Henderson, 221–52. New York: Princeton Architectural Press, 1996. Herbers, Jill. Prefab Modern. New York: Harper Design International, 2004.
Select Bibliography
Herbert, Gilbert. The Dream of the Factory-Made House: Walter Gropius and Konrad Wachsmann. Cambridge, MA: MIT Press, 1984. Herbert, Gilbert. “The Portable Colonial Cottage,” Journal of the Society of Architectural Historians 31, no. 4 (1972): 261–75. Hoffman, Megan. “Is a Fashion Show the Place for Social Commentary? Investigating the Spectacle Dressed Up in Ides in Hussein Chalayan’s After Words.” Austrailasian Drama Studies, no. (April 2009): 35–49. Jencks, Charles. Le Corbusier and the Continual Revolution in Architecture. New York: Monacelli Press, 2000. Kieran, Stephen, and James Timberlake. Refabricating Architecture: How Manufacturing Methodologies are Poised to Transform Building Construction. New York: McGraw-Hill, 2004. Kira, Alexander. The Bathroom: Criteria for Design. Ithaca, NY: Center for Housing and Environmental Studies, Cornell University, 1966. Kira, Alexander. The Bathroom. New and expanded ed. New York: Viking Press, 1976. Kirkham, Pat. Charles and Ray Eames: Designers of the Twentieth Century. Cambridge, MA: MIT Press, 1995. Knerr, Douglas. Suburban Steel: The Magnificent Failure of the Lustron Corporation, 1945–1951. Columbus, OH: Ohio State University Press, 2004. Knobel, Lance. Office Furniture: Twentieth-Century Design. London: Unwin Hyman, 1987. Koch, Carl, and Andy Lewis. At Home with Tomorrow. New York: Rinehart, 1958. Lupton, Ellen, and J. Abbott Miller. The Bathroom, the Kitchen, and the Aesthetics of Waste: A Process of Elimination. New York: Kiosk, 1996. Lupton, Ellen. Mechanical Brides: Women and Machines from Home to Office. New York: Cooper-Hewitt National Museum of Design Smithsonian Institution; New York: Princeton Architectural Press, 1993. Lynn, Greg. “Blobwall.” Architectural Design 27, no. 2 (2000): 96–99. McCollough, Helen. “The Kitchen of Tomorrow.” Journal of Home Economics 37, no. 1 (1945): 8–10. McGuire, Peggy. “Office Capsule.” Architectural Review, April 2005, 18–19. McQuaid, Matilda. Shigeru Ban. New York: Phaidon Press Inc., 2007. Miller, Judith. Furniture: World Styles from Classical to Contemporary. New York: Dorling Kindersley Publishing, 2005. 139
Morsiani, Paola, and Trevor Smith. Andrea Zittel: Critical Space. Munich: Prestel, 2005. Nasatir, Judith. “Allan Wexler.” Interior Design 65, no. 7 (1994): 146–47. Nelson, George, and Henry N. Wright. Tomorrow’s House: How to Plan Your Post-War Home Now. New York: Simon and Schuster, 1945. Neuhart, John, Marilyn Neuhart and Ray Eames. Eames Design: The Work of the Office of Charles and Ray Eames. New York: Harry N. Abrams, 1989. Oldenziel, Ruth. “Exporting the American Cold War Kitchen: Challenging Americanization, Technological Transfer, and Domestication.” In Cold War Kitchen: Americanization, Technology, and European Users, ed. Ruth Oldenziel and Karin Zachmann, 315–40. Cambridge, MA: The MIT Press, 2009. Oshima, Ken Tadashi. “Postulating the Potential of Prefab: The Case of Japan.” In Home Delivery: Fabricating the Modern Dwelling, by Barry Bergdoll and Peter Christensen, 32–37. New York: Museum of Modern Art, 2008. Palmer, Alvin E., and M. Susan Lewis. Planning the Office Landscape. New York: McGraw-Hill, 1977. Pankenier, Eva. “Systematic Variations: su 11 designs environments that are catching up with the way we live.” 306090 no. 09 (2002): 9–17. Parr, Joy. “Modern Kitchen, Good Home, Strong Nation.” Technology and Culture 43, no. 4 (2002): 657–67. Picci, Francesca. “Working at the Bar.” Domus no. 853 2002): 110–17. Quinn, Bradly. “A Note: Hussein Chalayan, Fashion and Technology.” Fashion Theory 6, no. 4 (2002): 359– 68, doi: 10.2752/136270402779615325. Ross, Phyllis. “Merchandising the Modern: Gilbert Rohde at Herman Miller.” Journal of Design History 17, no. 4 (2004): 359–76. Rowlands, Penelope. Eileen Gray. Compact Design Portfolio, edited by Marisa Bartolucci and Raul Cabra. San Francisco: Chronicle Books, 2002. Sadler, Simon. Archigram: Architecture without Architecture. Cambridge, MA: MIT Press, 2005. Schneiderman, Deborah. “The Prefabricated Kitchen: Substance and Surface.” Home Cultures 7, no. 3 (2010): 243–62. Schumaker , Rainald. “A-Z Cellular Compartment Units Customized by Sammlung Goetz.” In Andrea Zittel, edited by Sammlung Goetz and Ingvild Goetz, 117–39. Munich: Herausgeber, 2003. Seike, Kiyoshi. The Art of Japanese Joinery. New York: J. Weatherhill, 1977.
Select Bibliography
Image Credits Showalter, Camille and Janice Driesbach. Wooton Patent Desks: A Place for Everything and Everything in its Place. Indianapolis, IN: Indiana State Museum, 1983. Sottsass, Ettore, Jr. “To Nanda, Who Explained Everything to Me.” In Italy: The New Domestic Landscape: Achievements and Problems of Italian Design, edited by Emilio Ambasz, 162–63. New York: Museum of Modern Art, 1972. Stevenson, Katherine Cole, and H. Ward Jandl. Houses by Mail: A Guide to Houses from Sears, Roebuck and Company. Washington, DC: Preservation Press, 1986. Suzuki, Toshihiko. “Design of Architectural Furniture.” Aidia Journal 8 (2008): 1–9. Szenasy, Susan, and Christopher Wilk. “Time Space and the Workplace.” Metropolis 4, no. 5 (1984): 18–19. Takamura, John, Jr., et al. “The Flo Toilet.” INNOVATION Quarterly Journal, Winter 2008, 63. Takamura, John, Jr., et al. “A Transdisciplinary Approach Towards Toilet Design Innovation.” In Unintended Consequences Exhibition Catalog 39–44. Tempe, AZ: Arizona State University Press, 2006. Van der Reyden, Dianne Lee. “Technology and treatment of a folding screen: comparison of oriental and western techniques.” In The Conservation of Far Eastern Art: Preprints of the Contributions to the IIC Kyoto Congress, Kyoto, 19–23 September 1988, ed. John Mills, Perry Smith, and Kazuo Yamasaki, 64– 68. London: International Institute for Conservation of Historic and Artistic Works, 1988. Webb, Michael. George Nelson. Compact Design Portfolio, edited by Marisa Bartolucci and Raul Cabra. San Francisco: Chronicle Books, 2003. Wilk, Christopher and Marcel Breuer. Furniture and Interiors. New York: Museum of Modern Art, 1981. Wolfe, Tom, and Leonard Garfield. “‘A New Standard for Living’: The Lustron House, 1946–1950.” Perspectives in Vernacular Architecture 3 (1989): 51–61. Zeiger, Mimi. “Complete: Laboratories for Living.” In Andrea Zittel, edited by Sammlung Goetz and Ingvild Goetz, 105–15. Munich: Herausgeber, 2003. Zittel, Andrea. “Andrea Zittel in Conversation with Allan McCollum.” In Andrea Zittel: Diary no. 1, edited by Simona Vendrame. Milan, Italy: Tema Celeste Editions, 2002. Zittel, Andrea. “A-Z Cellular Compartment Units.” In More Mobile: Portable Architecture for Today, edited by Jennifer Siegal, 44–51. New York: Princeton Architectural Press, 2008
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Introduction Figure 1: The Illustrated London News, May 1852 Figure 2: Diagrams: after J. C. Loudon, An Encyclopedia of Cottage, Farm and Villa Architecture,, (Longman, Rees, Orme, Brown, Green, & Longman), 1833; advertisement: South Australian Record, 27 Nov 1837 Figure 3: Courtesy the estate of R. Buckminster Fuller Figure 4: Courtesy the estate of R. Buckminster Fuller Figure 5: Life, October 11, 1948 Figure 6: Sears Catalog, 1908, Courtesy of Sears Figure 7: Courtesy Philippe Garner Figure 8: Courtesy Herman Miller, Inc. Figure 9: Courtesy Mio Company, LLC, photo by Robert Hakalski Figure 10: Courtesy Mio Company, LLC, photo by Robert Hakalski Figure 11: Courtesy Bloxes LLC. Figure 12: Courtesy Bloxes LLC. Figure 13: Courtesy Herman Miller, Inc. Figure 14: Courtesy Herman Miller, Inc. Figure 15: Courtesy Herman Miller, Inc. Figure 16: Courtesy Ronan and Erwan Bouroullec Figure 17: By author Figure 18: Harriet Beecher Stowe Center Figure 19: Institut für Stadtgeschichte, Frankfurt am Main, Germany Figure 20: Courtesy of the Division of Rare and Manuscript Collections, Cornell University Figure 21: Courtesy of the Division of Rare and Manuscript Collections, Cornell University Figure 22: Courtesy of the Division of Rare and Manuscript Collections, Cornell University Figure 23: Courtesy of Rhode Island School of Design (RISD) Archives, Fleet Library at RISD Figure 24: Courtesy Herman Miller, Inc. Figure 25: Courtesy Herman Miller, Inc. Figure 26: Courtesy Joe Colombo Studio Figure 27: Courtesy Yasuhiro Yamashita / Atelier Tekuto and photographer Makoto Yoshida Figure 28: Courtesy Henry County Historical Society, Napoleon, Ohio Figure 29: The Popular Science Monthly 6, no. 4, 1875 Figure 30: Courtesy the estate of R. Buckminster Fuller Figure 31: Courtesy Joe Colombo Studio Figure 32: Courtesy Joe Colombo Studio Figure 33: Courtesy Allan Wexler Figure 34: Courtesy Allan Wexler Figure 35: Courtesy Ronan and Erwan Bouroullec and photographer Morgane Le Gall
Interior Walls Flatform Page 28: Courtesy Marble Fairbanks Pages 29 and 30–31: Courtesy Jongseo Kim and Marble Fairbanks Active Phytoremediation Wall Pages 32–35: Courtesy CASE / Center for Architecture Science and Ecology: Rensselaer Polytechnic Institute and Skidmore, Owings & Merrill Blobwall Pages 36–39: Design: Greg Lynn, www.glform.com. Exclusively produced and distributed by: Panelite, www.panelite.us. Robotic cutting technology: Machineous, www.machineous.com.
Image Credits
S3 Sustainable Slotted System Pages 40–41: Courtesy Allyson Speakes, Alicia Rampe, Felicia Chave, Dyelle Fairbanks, Ivet Gesheva, Rachel Israel, Pei-Pei Kao, Linda Miao Li, Carisa Mowry, Leah Schoen, Erin Yi, and Deborah Schneiderman Pages 42–43: Courtesy Allyson Speakes and Alicia Rampe
Office POD Pages 112–15: Courtesy OfficePOD
Prefababricated House Interiors Furniture House Pages 118–21: Courtesy Shigeru Ban Architects Page 121 top: Shigeru Ban Architects and Hiroyuki Hirai, photographer
Kitchens Closet #1, Parsons Kitchen Pages 46–59: Courtesy Allan Wexler
A-Z Cellular Compartment Units
Oma’s Rache Pages 50–53: Courtesy Melanie Olle and Ilja Oelschlägel
Page 122 bottom and 123 top: Photo by Tom Loonan, courtesy Albright Knox Art Gallery, Buffalo, and Andrea Rosen Gallery, New York © Andrea Zittel
Flow2 Pages 54–57: Courtesy Studio Gorm: John Arndt and Wonhee Jeong
Page 123 bottom: Courtesy New Museum of Contemporary Art, New York, and Andrea Rosen Gallery, New York © Andrea Zittel
Page 122 top: Photo by Tom Bisig, courtesy Andrea Rosen Gallery, New York © Andrea Zittel
Pages 124–25: Courtesy Andrea Rosen Gallery, New York © Andrea Zittel Ekokook Pages 58–61: Courtesy Faltazi: Victor Massip and Laurent Lebot
Composite House
Bathrooms
Pages 126–29: Courtesy su11 architecture + design: Erich Schoenenberger and Ferda Kolatan
Cirrus MVR Pages 64–67: Courtesy Crowd Productions: Michael Trudgeon, Anthony Kitchener, Costa Gabriel, John Burne, Glynis Nott, Veronica Saunders The Flo Pages 68–71: Courtesy John Takamura, Jr., Dosun Shin, Tamara Christensen, and Dean Bacalzo Kullman Bathroom PODS Page 73: Courtesy Kullman Co-Pod Pages 76–79: Courtesy colab architects: Gary McLuskey, Steve Penn, and Danijela Cannon
Furniture After Words Pages 83–85: Courtesy Hussein Chalayan 90° Furniture Pages 86–89: Courtesy KapteinBolt: Louwrien Kaptein and Menno Bolt Kenchikukagu Pages 90–93: Courtesy Atelier OPA: Toshihiko Suzuki Playground for Leif Pages 94–97: Created with passion by Designliga
Office Clipper CS–1 Pages 100–103: Courtesy Douglas Ball and Jeff Sokalski Office POD Pages 104–107: Courtesy Ross Coffey, designer and Kyra Webb, photographer Dilbert’s Ultimate Cubicle Pages 108–11: Courtesy IDEO
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Cell Brick House Pages 130–33: Photo by Makoto Yoshida, courtesy Yasuhiro Yamashita/ Atelier Tekuto
Index (images in italics) 90° Furniture, 86, 86–89 1923 Lacquered Block Screen, 12, 13 33, 19 A A-Z Cellular Compartments, 122, 122–25 A-Z East and West, 122 Action Office I and II, 12, 14, 15 Active Phytoremediation Wall, 32, 32–35 Adams, Scott, 108, 108 adaptive re-use, 40 Addition Seating System, 19–21 After Words, 82, 82–85 Allen, Roger, 12 Apartment for a Single Person, 21 Architect magazine, 32 Architectural Forum, 22 Arizona State University, 40, 68 Arndt, John, 54 Asia, 22 Assemblage, 72, 86, 94, 134 Assembly, 8, 22, 28, 54, 82, 134 Associated Fabrication, 126 Atelier OPA, 90 Atelier Tekuto, 20, 130 B Bacalzo, Dean, 68 Ball, Douglas, 100 balloon frame, 15 Bamboo Furniture House, 118 Ban, Shigeru, 19, 118 Bathroom, 8, 134, 11, 22–25, 63–79 bathroom pod, 22, 72 bathtub, 22, 6 bed, 22, 90, 94 bedroom, 23, 24, 94, 104 Beecher, Catherine, 16, 21 Beecher Stowe, Harriet, 16 Beyer, Glenn 19, 18 Birsel, Ayse, 15 Blobwall, 36, 36–39 Bloxes, 12, 14 Bookcase, 19, 118 Bouroullec, Ronan and Erwan, 15, 24 boxed bed, 22 Breuer, Marcel, 8, 19 Design Museum, London, 100 built-in, 9, 19, 21, 58 Bürolandschaft, 12 C Cabin, 8 Cabinet, 9, 16, 19, 21, 22, 50, 58, 90, 104, 118, 122, 130, 134 Call + Response exhibit, Museum of Contemporary Craft, Portland, Oregon, 2009, 54 Cannon, Danijela, 76
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Cape Ann, Massachusetts, 8 Cardboard, 12 Carte Blanche, 58 CASE/Center for Architecture Science and Ecology, 32 Casier Standard, 19 Ceiling, 36, 72, 94, 112, 126, Cell Brick House 2, 130, 130–34 cereal box, 40 chair, 19, 21, 50, 82, 90, 100 Chalayan, Hussein, 82 Chipboard, 40 Christensen, Tamara, 68 Clipper CS-1, 100, 100–104 Closet #1, Parsons Kitchen, 21–22, 46, 46–49 Closet architecture, 46 Closet 9, 46, 118 CNC (computer numerically controlled), 28 colab architects, 76 co-POD, 76, 76–79 coffee table, 82 Coffey, Ross, 104 Colombo, Joe, 19–22 compact kitchen, 50 compartments, 58, 122 components, 6, 8, 11, 12, 19, 28, 134 Composite House, 126, 126–29 Composting, 54, 58 Construction, 6, 8, 11, 12, 15, 19, 21, 25, 46, 72, 76, 94, 112, 118, 130, 134 Container, 11, 19, 21, 22, 23, 58 container gardening, 58 cook, 21, 50, 54, 58, 86, 90 Cook, Peter, 22 Cornell Kitchen, 19, 18 Cornell University’s Housing Research Center, 18 Crate House, 23, 46, 24 Crystal Palace, 8 Cubicle, 12, 15, 25, 108 curtain wall, 15 D Designliga, 94 Desk, 19, 21, 90, 94, 108 de Stijl, 12 digital fabrication, 28 Dilbert’s Ultimate Cubicle, 108, 108–111 Divider, 2, 15, 32 DIY, 40 Ductwork, 32 Durst, Fred, 108 Dymaxion, 10, 22, 23, 25, 72, 76, 134 Dymaxion Bathroom, 22, 25, 72, 76 E E. 1027, 12 Eames, Charles and Ray, 12, 19, 25 Eames Storage Unit (ESUs), 19, 20, 134 Ekokook, 59, 58–61
Electrical, 15, 58, 64, 76, 90 environmentally sustainable, 11, 32 ergonomics, 19, 22, 100 Ettore Sottsass, Jr, 23 evapo-transpiration, 54 F Faltazi, 58 Fashion, 36, 82 Fertilizer, 54 First Penthouse, 16 flat-packed, 28, 40, 86 Flatform, 28, 28–31 Flow2, 54, 54–57 Flow and the kitchen of terrestrial mechanics, 54 Foldaway Guestroom, 90, 90–93 Foldaway Office, 90, 90–93 Frankfurt Kitchen, 16, 17 Frederick, Christine, 16, 21 Fuller, R. Buckminster, 8, 22, 134 Furniture, 8, 11, 12, 15, 16, 19, 21, 22, 23, 25, 50, 81–97, 112, 118, 122, 126, 130, 134 Furniture House, 19, 118, 118–21, 130 G Garden, 54, 58 German Building Exhibition, Berlin, Germany, 1931, 21 Gilbreth, Lillian, 16 Goetz, Sammlung, 122 Goldberg, Bertrand, 22, 76 Grandma’s Revenge, 21, 50, 50–53 Gray, Eileen, 12 Gray-water, 58, 64 green design, 25 Greg Lynn FORM, 36 Gropius, Walter, 8, 12, 25, 134 gypsum board, 11 H hardware, 12, 28 heat, 1, 16, 76, 130 Heiner, Mary Koll, 19 Herman Miller Company, 12, 15, 19 Home Delivery: Fabricating the Modern Dwelling exhibit, Museum of Modern Art, New York, 2008, 28 Homestead Unit, 122 Hoosier Kitchen Cabinet, 20, 21, 46, 50 HVAC system, 32 I IDEO, 108 indoor air quality, 32 installation, 8, 28, 32 Interbuild, 76 Interior Design Excellence Award (IDEA), 104 Interior Sleeve, 126 Italy: The New Domestic Landscape exhibit, Museum of Modern Art, New York, 1972, 23
Index
J Japan, 11–12, 15, 90, 118, 130 Jeanerette, Pierre, 19 Jeong, Wonhee, 54 Joyn, 14, 15 K Kalkin, Adam, 11 Kaptein, Louwrien, 86 KapteinBolt, 86 Kauffmann, Michelle, 11 Kenchikukagu, 90, 90–93 KieranTimberlake, 11 kit of parts, 108 kitchen, 8, 11, 16–19, 21–23, 25, 45–61 kitchen furniture, 21, 50 Kitchener, Anthony, 64 Kiwari jutsu, 15 Knoll Planning Unit, 21 Kolatan, Ferda, 126 Kullman, 72, 72–75 K_Residence, 126, 129 L Larkin Building, 21 Lavatory, 22 Lebot, Laurent, 58 Le Corbusier, 8, 19, 22, 25, 86 Lighting, 22, 76, 112, 134 Lightweight, 12, 15, 40 lit clos, 22, 25, 90 Lit Clos, 24, 25 living kitchen, 54 Living Machines, 22 Living Units, 122 low-density polyethylene, 36 luggage, 21, 82 Lustron House, 9, 10, 11, 19, 134 Lynn, Greg, 36 M Machineous, 36 Maison Domino, 25 Manning Portable Cottage, 8, 9 Mantle, 11, 19 Marble Fairbanks, 28 mass-customize, 15, 19, 28, 76, 134 mass-produced, 8, 9, 19, 36, 46 Massip, Victor, 58 Max kitchen, 19 McLuskey, Gary, 76 medium-density fiberboard (MDF), 86 Meyer, Erna, 21 Michel, Klaus, 50 micro-processing plants, 58 Minikitchen, 21 Min kitchen, 19 Mio, 12 Mobile, 21, 23, 64, 90, 104 Mobile Kitchen, 90
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Mobile Plug-In Bathroom, 64 Modular, 6, 8, 9, 11, 12, 15–21, 25, 32, 36, 40, 72, 82, 86, 94, 108, 122, 130, 134 modular furniture, 19–21, 25, 130, 134 modular home, 9 module, 8, 11, 12, 15–21, 22, 25, 32, 36, 94, 108, 118, 130, 134 Museum of Modern Art, New York, 23, 28 N Nelson, George, 12, 19, 25 Nomad, 12, 13 O Oelschlägel, Ilja, 21, 30 off-site, 8, 11, 15, 16, 19, 25, 28, 58, 72, 76, 112, 118, 134 office, 11, 12–15, 16, 21, 25, 90–93, 99–115, 134 office landscape, 12 OfficePOD, 21, 112, 112–15 Office POD, 104, 104–107 office secretary, 21 Olle, Melanie, 21, 50 open plan, 19, 25 Out-of-Box Workstation, 21 P Packaged House, 134 packaged kitchen, 16, 25, 54, 58, 134 panel, 8, 9, 11, 15, 19, 21, 28, 50, 86, 130 Panelite, 36 Panelized, 8, 25 Parsons Kitchen, 21–22, 46, 46–49 Parsons The New School for Design, 21, 46 Partition, 11, 12, 15, 40, 108 Penn, Steve, 76 Perriand, Charlotte, 19, 22 place-making, 12, 118, 134 Planet, 3, 21 Plants, 32, 58 Playground for Leif, 94, 94–97 plug-in, 22, 64 plumbing, 64, 72 pod, 8, 21, 22, 32, 72, 76, 104, 112 porcelain-enameled steel, 9–11 Portable Pantry, 21, 46, 50 prefabricated interior design, 8, 11–23 Probst, Robert, 12–15 Prototype, 36, 100, 108, 122, 126 Q Quickborner Team, 12 Quik House, 11 R Raskin, Aza, 12 Raugh Furniture, 122 Recycling, 58, 64 Reese Bathroom Innovation Award, 64 Refrigeration, 21, 50
Refrigerator, 19, 54, 58 Reich, Lilly, 21 Rensselaer Polytechnic Institute, 32 Repurpose, 11, 72 Resolve, 14, 15 Reusable, 40 Rietveld, Gerrit, 12 Rhode Island School of Design, 19 Roof, 9, 16, 126 rue Chateaubriand, apartment, 12 S S3 Sustainable Slotted System, 40, 40–43 Salm, Jaime, 12 Schneiderman, Deborah, 40 Schoenenberger, Erich, 126 Schröder House, 12 Schütte-Lihotzky, Margarete (Grete), 17 Southern California Institute of Architecture (SCI-Arc), 36 Screen, 11–15, 25, 86, 100, 104, 135 Sears, Roebuck and Company, 9, 19 Sears kit homes, 11, 10 Seatrain Residence, 11 Siegal, Jennifer, 11 self-supporting, 19, 134 shelves, 19, 22, 108, 130 Shin, Dosun, 68 Shoji, 11–12, 15 Shower, 22, 64, 76, 126 ShowHouse, 11 Sink, 16, 19, 22, 34, 64, 68, 90, 118, 126 Sink and cooking form, 16, 17 Structurally Insulated Panels (SIPS), 15 site-built, 25 site-specific, 8 sliding wall, 12 Sokalski, Jeff, 100 Skidmore, Owings & Merrill (SOM), 12, 32 Somerset, England, 8 stainless steel, 64, 86, 100, 122 staircase, 8, 11, 76, 116 Stanojcic, Sasa, 94 Storage, 16, 19, 21, 22, 46, 50, 54, 58, 86, 94, 104, 112, 126, 130, 134 storage crate, 46 Storagewall, 19 Structural, 6, 15, 16, 19, 25, 118, 130, 134 Strandlund, Car,l 9 Studio Gorm, 54 su11 architecture + design, 11, 126 suitcase, 82, 85 sustainable, 8, 11, 12, 15, 25, 32, 40, 54, 58, 72, 76 Suzuki, Toshihiko, 90 Sweet Track, 8 T 12 Container House, 11 table, 15, 22, 50, 82, 100
Index
Takamura, John Jr., 68 The White Kitchen Compact, 16–19 The Flo, 54, 54–57 The Museum of Contemporary Craft, Portland, Oregon, 54 Toilet, 22, 64, 68, 76 Total Furniture Unit, 23 24 Transportability, 90 Trudgeon, Michael, 64 Tube Chair, 19–21, 20 U Undulating Plywood Folding Screen, 12, 13 Unit, 9, 11, 13, 16, 19, 21–25, 64, 76, 86, 90, 100, 104, 112, 118, 122, 126, 134, 135 unit kitchen, 21–22, 46, 50, 116 Universal Kitchen, 18, 19 University of Art and Design in Halle, Germany, 50 Upholstered, 21 User, 19, 21, 28, 40, 68, 72, 86, 94, 100, 108, 112, 122, 134 V Velcro, 28 Venice Biennale, 36 Ventilation, 16, 22, 76, 100, 122, 134 Vernacular, 9 Vitra, 15 void masonry, 130 volatile organic compounds, 32 W Wachsmann, Konrad, 8, 134 Wagon Units, 122 Wall, 6, 8, 11–12, 15, 19, 21, 25, 28, 32, 36, 40, 46, 64, 72, 94, 104, 112, 126 Wardrobe, 21, 50, 94 Waste, 8, 25, 54, 58, 104, 118 Water, 16, 22, 54, 58, 64, 68 Wexler, Allan, 21, 23, 46, 46 White, Charles C., 16–19 Wilson, Andrew, 12 Wilson Art, 46 window covering, 12 Wooton Patent Cabinet Office Secretary, 21, 23, 46, 90 Workstation, 15, 21, 46, 100, 104 Wright, Frank Lloyd, 8, 12, 21 Y Yamashita, Yasuhiro, 21, 130 Z Zittel, Andrea, 122
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