1 ABSTRACT Title of Thesis: MASS PRODUCING AMERICA, NEIGHBORHOOD REVITILIZATION IN NORTH LAWNDALE - CHICAGO Marcus A. Cross, Master of Architecture, 2005 Thesis Directed By: Professor Ralph Bennett, School of Architecture, Planning, and Preservation This thesis, which has been branded the MPA Project (Mass Producing America) is an exploration into the creation of an in? ll affordable housing solution to meet the needs of the North Lawndale Community of Chicago. Plagued by crime, violence, and economic disinvestment, it has been a victim of extreme urban blight. Economic conditions are now favorable for revitalization and the area is ideal for an exploration such as this. Within the project area are over two-hundred available building sites. This project explores how contemporary construction ideas can be used to make affordable, ? exible and customizable homes. Moreover, since this problem is not unique to Chicago, it is possible that this solution could be applied in any number of cities throughout the country. i MASS PRODUCING AMERICA: NEIGHBORHOOD REVITILZATION IN NORTH LAWNDALE - CHICAGO By Marcus A. Cross Thesis submitted to the Faculty of the Graduate School of the University of Maryland, College Park, in partial ful? llment of the requirements for the degree of Master of Architecture 2005 Advisory Committee: Professor Ralph Bennett, Chair Associate Dean John Mauldin-Jeronimo Assistant Professor Deborah Oakley ii ACKNOWLEDGEMENTS ?Except the LORD build the house, they labour in vain that build it?? - Psalm 127:1a I would ? rst like to thank my Lord and Savior, Jesus Christ for His strength and direction throughout this process. I would also thank my parents. Without their continued love, support, encouragement, and above all prayers I could never have hoped to ? nish. My father?s compassionate listening ear and wise advice have served to calm my nerves more times than I can count over the past year. My mother?s warm witty sense of humor, energetic passion for life, and sincere concern for the well-being of others has been a constant motivation for me. Moreover, the memory of her clicking away at a typewriter long into the night during my youth to ? nish her Master of Social Work has frequently brought a smile to my face in studio at 3:00am. Thank you both. I would like to acknowledge my extended family (especially my Grandmother, Betty Stripling and Aunt, Emma Cross), the members of the All Nations Church of God in Christ, and the other residents of the North Lawndale Community who have taught me through their unwavering example that in life, you do the best you can with what you have been given. Finally, I would like to express my gratitude to all of the Spring 2005 M. Arch. Candidates. This past semester we?ve pushed each other to do some outstanding work. It is rare to ? nd a group of ? rst-class designers who are as encouraging, caring, and supportive as you all have been. It has been my pleasure to participate in this process with you all. iii Table of Contents Table of Contents .........................................................................................................iii List of Figures ..............................................................................................................iv Section I Introduction Chapter 1: Conceptual Design Goals and Problems ................................................ 1 Moving on Up ? and Out? ................................................................................ 3 Custom Made or Mass Customization? ............................................................... 5 Are We Done Building Yet? ................................................................................. 8 Chapter 2: Design Issues ........................................................................................ 12 Section II The Site Chapter 3: Site History ............................................................................................. 3 Chapter 4: Site Physical Condition ........................................................................ 16 Building Typology ............................................................................................. 16 Zoning ................................................................................................................ 20 Land Use ............................................................................................................ 23 Chicago Boulevard System ................................................................................ 26 Streets ................................................................................................................. 28 Topographyv ...................................................................................................... 28 Section III The Design Chapter 5: Precedents ............................................................................................. 30 Homan Square Development ............................................................................. 30 Murray Grove Apartments ................................................................................. 33 PATH Concept House ........................................................................................ 35 Operation Breakthrough ..................................................................................... 37 Chapter 6: Design Guidelines ................................................................................ 38 Typology ........................................................................................................... 38 Lot Development ............................................................................................... 39 Fa?ade Articulation ............................................................................................ 39 Location of Major Spaces .................................................................................. 41 Accessibility ....................................................................................................... 41 Affordability & Gentri? cation ........................................................................... 41 Chapter 7: Design Schemes ................................................................................... 43 Chapter 8: System Design ..................................................................................... 52 Reason ................................................................................................................ 52 Site ..................................................................................................................... 56 Construction ....................................................................................................... 61 Image and Flexibility ......................................................................................... 65 Chapter 9: Conclusion ........................................................................................... 75 Works Cited ............................................................................................................ 78 iv List of Figures Figure 1 Steward Brand?s Six S?s 9 Figure 2 Conceptual Diagram 11 Figure 3 Chicago?s 77 Communities 13 Figure 4 MPA Figure Ground 14 Figure 5 Vacant Lot on 13 th Street 15 Figure 6 Vacant Lot on Roosevelt Rd. 15 Figure 7 Vacant Lot on Independence Blvd. 15 Figure 8 Diagrammatic Aerial Photo 16 Figure 9 Typical Residential Street 16 Figure 10 Typical Section Through Independence Blvd. 17 Figure 11 Typical Section Through Roosevelt Rd. 17 Figure 12 Typical Section Through Residential St. 17 Figure 13 Section of Typical Two-Flat 18 Figure 14 Aerial Photo of Independence Square 19 Figure 15 Vacant Lots on MPA Site 19 Figure 16 Zoning Map of N. Lawndale 20 Figure 17 Residential Zoning Restrictions 21 Figure 18 Business/Commercial Zoning Restrictions 21 Figure 19 Commercial Land Use 23 Figure 20 Commercial Buildings on Roosevelt Rd. 23 Figure 21 Religious Land use 23 Figure 22 Typical Storefront Church 24 v Figure 23 Church on Independence Blvd. 24 Figure 24 Educational Land Use 24 Figure 25 Henson School 25 Figure 26 Herzl School 25 Figure 27 Chicago Boulevard System 26 Figure 28 Gar? eld Park 26 Figure 29 Independence Square 27 Figure 30 Chicago Major Street Grid 28 Figure 31 MPA Street and Alley Network 28 Figure 32 Original Sears? Tower 39 Figure 33 Homan Square Master Plan 39 Figure 34 Homan Square Block Con? guration 31 Figure 35 Block Con? guration Comparison Diagram 31 Figure 36 Unit Size Study 31 Figure 37 Homan Square Units 31 Figure 38 Homan Square Unit Type ?B? 32 Figure 39 Homan Square Unit Type ?D? 32 Figure 40 View of Murray Grove Apartment 33 Figure 41 Murray Grove Apartments Under Construction 33 Figure 42 Murray Grove Apartments Under Construction 33 Figure 43 Exploded Axon of Unit 34 Figure 44 Murray Grove Units Diagram 34 Figure 45 Murray Grove Modules Diagram 34 Figure 46 PATH Concept House Plan 35 vi Figure 47 PATH Utility Separation 36 Figure 48 Typical Two Flat Floor Plan 38 Figure 49 Typical Two Flat Elevation 39 Figure 50 Diagram of Street Fa?ade on In? ll Lot 40 Figure 51 Diagram of Street Fa?ade on Corner Lot 40 Figure 52 Diagram of ?Book Shelf? Approach 43 Figure 53 Diagram of ?Lego? Approach 43 Figure 54 Study Model - 9? x 18? Structural Frame 44 Figure 55 Study Model - Front Building with Structural Expansion to Rear 44 Figure 56 Study Model - Lego Approach 44 Figure 57 Study Model - Base Building with Flexible Interior 45 Figure 58 Study Model - Base Building with dedicated expansion areas 45 Figure 59 Study Model - Context Buildings 45 Figure 60 Building Block Concept Board 47 Figure 61 Scaffolding/In? ll System Concept Board 49 Figure 62 Weathering Shed / Internal Pods Concept Board 51 Figure 63 Presentation Board ?Reason 1? 53 Figure 64 Presentation Board ?Reason 2? 54 Figure 65 Presentation Board ?Reason 3? 55 Figure 66 Presentation Board ?Site 1? 57 Figure 67 Presentation Board ?Site 2? 58 Figure 68 Presentation Board ?Site 3? 59 Figure 69 Presentation Board ?Site 4? 60 Figure 70 Presentation Board ?Construction 1? 62 vii Figure 71 Presentation Board ?Construction 2? 63 Figure 72 Presentation Board ?Construction 3? 64 Figure 73 Presentation Board ?Flexibility 1? 67 Figure 74 Presentation Board ?Flexibility 2? 68 Figure 75 Presentation Board ?Flexibility 3? 69 Figure 76 Presentation Board ?Flexibility 4? 70 Figure 77 Presentation Board ?Image 1? 71 Figure 77 Presentation Board ?Image 2? 72 Figure 77 Presentation Board ?Image 3? 73 Figure 77 Presentation Board ?Image 4? 74 1 PART I: INTRODUCTION 2 Chapter 1: Conceptual Design Goals and Problems ?Eradicate from your mind any hard and fast conceptions in regard to the dwelling-house and look at the question from an objective and critical angle, and you will inevitably arrive at the ?house machine,? the mass produced house, available for everyone, incomparably healthier than the old kind (and morally so, too) and beautiful ?? -- Le Corbusier, 1931 This thesis seeks to address three main issues through the design of an affordable housing building system. First, this thesis challenges the traditional notion that, within urban settings, people ?grow out of,? or want to move out of neighborhoods as their families develop. Second, this thesis proposes that given the current state of technology, everyone can afford to have a custom house. Finally this thesis will explore the idea that a house is never ? nished being built. That is, families are ever-changing, and the structures that house them should be as well. 3 Moving on up? and out? ?Well we?re moving on up, to the east side? To a deluxe apartment in the sky?. We?ve ? nally got a piece of the pie.? -- ?The Jeffersons? Theme Song Those words found in the famous theme song of the 1970s sitcom, ?The Jefferson?s? echo the long held American ideal that if you work hard and really ?play the game right,? anyone, especially minorities and immigrants, can ?move up.? You can have a bigger apartment, nicer furnishings, and even a maid. Traditionally in America the realization of this dream comes with the stipulation that you also physically move. This thesis, however, poses the question, can you have all of these luxuries and not leave the community and the support system that has allowed you to become who you are? According to the US Census Bureau, over forty-million Americans (14% of the overall population) moved between 2002 and 2003 (Schachter 2). Of these, 59% were moves within the same county. Moreover, when asked why they moved the leading response was ?housing-related reasons.? Most were interested in home ownership, new or better housing, or cheaper housing. Amazingly, only 4.7% said that they were moving because they wanted to live in a better neighborhood or an area with less crime. This data suggests that most people enjoy the stability that comes with living in the same area over an extended period of time. The reasons for this are manifold. Residential longevity results in stronger bonds and relationships with neighbors, children can develop within the same peer group, and the longer one stays in a given location, the more personal investment in the neighborhood increases. It can also be argued that from 4 a physiological perspective most people feel safer (regardless of how ?safe? the area may be) in an area that they are familiar with. This thesis proposes that architecture can be a tool to aid in neighborhood stabilization. By developing a housing system that is adaptable to people at various times in their life, they can stay in the same neighborhood from their younger twenties to old age. As their family needs change, their house can expand or adapt to suit them. Also as their ? nancial income improves and their taste is ?upgraded,? the house can simultaneously be ?upgraded? to accommodate them. 5 Custom-Made or Mass-Customization ?Mass production was the ideal of the early twentieth century. Mass customization is the recently emerged reality of the twenty-? rst century.? -- Stephen Kieran & James Timberlake In the early decades of the twentieth century, the founders of modernism, especially Le Corbusier and Gropius, looked to the then new manufacturing industries to somehow transform our profession and society. They envisioned architecture, especially housing, being elevated to a point where good design would be available to the masses. In our contemporary society where only 2% of new home buyers have the luxury of working directly with an architect (Bell 36), the time has ? nally come for us to adopt the methods and practices of other industries to make architecture available to the masses. In their Book, ?Refabricating Architecture,? Stephen Kieran and James Timberlake draw a number of comparisons between the automotive industry and the architectural profession. They point out that the automotive industry has in recent years abandoned the traditional assembly line approach to manufacturing automobiles and has instead moved to a system of integrated modules (Kieran and Timberlake 17). For example, the front suspension is conceived of as a module, as is the engine, the cockpit, and the front fascia. Each of the these modules may be manufactured in separate places. They arrive at the main assembly plant in largely complete form and are joined together to make the ? nal car. The advantages to this approach are higher quality, less manufacturing time, and less cost. Car manufactures have found that since each module is manufactured by a 6 plant that specializes only in its particular module, the overall quality of the module and the car is higher than a plant that was attempting to specialize in an entire car. Kieran and Timberlake point out that since adopting this method the overall time for moving a car from conceptual design to production has been reduced from 58 months to 38 months. Also, since the modules can be simultaneously produced at various locations, the overall time of assembly is reduced and the savings can be passed onto consumers. If then, this analogy was carried to the next step, one could envision a large amount of ? exibility being introduced into process. For example, one could imagine that the cockpit module plant began designing and producing several different types of cockpits. Also, each of these different types of cockpits was made in such a way that they could be interchangeable, so a car could have either ?Cockpit A,? ?Cockpit B,? or ?Cockpit C? and each could seamlessly replace the other. Now, let?s assume that all of the other module plants followed suite and began producing multiple designs for each of their modules. Lastly, one could suppose that the car manufacturer allowed the consumer to dictate which modules he wanted in his car. One begins to perceive a situation where Tom may decide to have Cockpit A, Engine F, and Front Suspension D. While Tina may decide to have Cockpit F, Engine A, and Front Suspension C. We now have the makings of mass- customization. Public demand for choice currently makes the ideal of mass-customized architecture more of a possibility than ever before. The furniture store, Ikea offers several furniture 7 lines where the consumer can pick and choose different parts of an overall furniture system and simply put the ones they want together. For more than a decade Dell computers has been giving the consumer the choice to have a customized computer delivered to their door. Social critic, Mark Andrejevic, proposes that ?it is the givenness of the rules that keeps the ?mass? in ?mass customization?? (Andrejevic 49) Ikea and Dell have set up the basic ?rules? or framework that the consumer must work in, but beyond that the individual has the option of deciding what particular elements they want. Architect Frank Lloyd Wright began to tap into this idea when he developed his Usonian Houses which, while not modular, were designed based on a grid that conformed to the basic framing dimensions of wood construction. This system gave the architect maximum ? exibility while working with wood, and also helped to visually unify the Usonian Houses. The housing industry, more than any other segment of architecture has embraced the idea of prefabrication. Today, even in traditional ?stick-built? homes, large segments of roof trusses, ? oor joist and wall framing segments, are constructed off-site and simply shipped to the site. This thesis will propose the development of a standard three dimensional measurement system, or grid. All of the components of the house (structure, exterior walls, interior partitions, cabinetry, etc.) would be manufactured based off of this ?module.? Working within this set module will allow for maximum ? exibility in design and future manipulation of the units. This system would combine the virtues of modular construction, prefabrication, and mass customization. 8 Are we done building yet? ?One of the things which we are searching for is a form of architecture which, unlike classical architecture is not perfect and ? nite upon completion? -- Sir Richard Rogers The ? nal question that this thesis seeks to address derives from the earlier question of neighborhood stabilization. If one contends that a person or a family can live in the same neighborhood for extended periods of time, how does the architecture accommodate the change that occurs in their lives. In his book, How Buildings Learn, Steward Brand makes an argument that the most successful and beloved buildings have traditionally been those that can adjust to change quickly. More often than not, when a family has the luxury of working directly with an architect, the house is designed and customized to meet their needs at that particular moment in time. While occasionally a spare room may be designed for a child not yet born, little thought is given to how the special needs of that family may change, ? ve, ? fteen or twenty-? ve years down the road. This thesis claims that in reality a house is never truly complete. The Open Building Movement provides a good conceptual base to help understand how one could arrive at a realistic house that meets the demands of ever-changing occupants. This movement which dates back to the 1960s was pioneered by N. John Habraken. Habraken suggested that a ?natural relationship? existed in healthy living environments. This relationship was characterized by both the community and the individual having a clearly marked ?scope of control and responsibility? (Kendall 3). In 9 other words, a building has two sets of obligations; one to its owner or occupant and one to the larger community. Those obligations which involve the larger community deal with siting and exterior appearance while decisions about interior layout belong to the occupant. More speci? cally within a building, the movement proposes that a house is actually composed of a number of different systems, each with its own challenges and lifespan. Expanding on the work of Frank Duffy, Brand makes a case for viewing a building as a composition of six layers (Brand 13) The ? rst three of Brand?s S?s deal with the larger and more external functions of a building. The Site comes ? rst and is considered the most stable layer, since the earth will be around long after the building. Structure is the second layer. It sometimes considered to be the most expensive part of the building, however within housing construction it should be noted that interior ? nishes typically consume a considerable portion of the budget and sometimes surpass structure in construction cost. Even so because of the implications of moving structural elements, most people try to avoid changing the structure of a building when renovating. Skin is considered the next important because of the crucial role it plays in actually enclosing the structure and the home, however over the life of the building it is more vulnerable to being changed or [Fig 01. Diagram of Steward Brand?s ?Six S?s] from How Buildings Learn 10 adapted to match current aesthetic trends. Brand claims that on average a building?s skin changes every 20 years whereas structure can last from 30 to 300 years. Unlike structure, which people go out of their way to avoid changing, it is very common for home owners to use vinyl siding or new windows to dress up an old building. The last three S?s deal speci? cally with the interior workings of the home and those systems which help to make the space more comfortable. Services is the ? rst of these and it deals with ?the guts? of the building. Plumbing, electrical, mechanical, and HVAC fall into this category. Given the ever changing world of technology and how soon new innovations in the building industry are out-dated, these systems may need to be upgraded as often as every 7 to 15 years. The Space Plan is the next layer and it is comprised of partition walls, ceilings, doors and ? oors. These are among the ? rst victims of the house to meet with the ax when renovation plans begin. The ? nal layer is what Brand had termed Stuff. Stuff includes tables, chairs, desks, lamps. couches, ect. All the things that people buy and place in their homes to help de? ne space. Depending on the nature of the home and its owners these may change anywhere from weekly to yearly. Once one understands the principles of Open Building, the next step is for the architect to do everything in his power to keep these layers as separate as possible. Architects often spend hours and hours in their of? ces resolving details to bury the services in the walls and ceilings. If, however, one anticipates that the walls will likely change before the electrical wiring and plumbing, it is only logical to keep the systems out of the wall so one can in fact move walls without major repercussions. 11 Chapter 2: Design Issues The design issues of this thesis are derived from the realization that many of the goals and question raised in the previous section do not belong exclusively to the discipline of architecture, but rather are shared by sociology, economics, and psychology. Even so, architecture can be used as a tool to stimulate a discussion about these ideas. While architecture alone may not solve any of these problems, it can help us arrive at a better understanding of the problem. To this end, this thesis seeks to produce the schematic and conceptual design of an affordable housing building system. As discussed in the Design Goals section, this system is perceived as being ever-changing and ever-growing. This design will hinge on an exploration of available technical and structural innovations that would make such a design plausible. Also, in keeping with the desire that this system be used to aid in neighborhood stabilization, this thesis seeks to introduce this system into an existing community, displacing as few residents as possible. Therefore, a primary objective of this thesis will be to keep as many of the functional existing structures as possible. [Fig 02. Conceptual Diagrams] Proposed expansion of a house over time 12 PART II: THE SITE 13 Chapter 3: Site History The site chosen for this thesis, the MPA Project (Mass Producing America), lies within the North Lawndale community of Chicago. The area is located roughly 12 minutes (5 miles) due west of the down town central business district (commonly known as ?the Loop?). The neighborhood traces its roots to 1870 when the real-estate ? rm of Millard and Deeker subdivided what was then an open prairie land on the city edge. In the early decades of the 20 th century the population grew rapidly. At this time, the area was heavily populated with Jewish immigrants of Russian descent (HICA 2). In the 1950s the City of Chicago found itself on the receiving end of ?the great migration? of African Americans relocating from the south. The North Lawndale neighborhood became a major settling spot for these newcomers. The future of the area was dramatically altered as the more established Jewish community ? ed, leaving a once thriving commercial and retail center (Roosevelt Road) barren. The area reached its peak population of over one-hundred-and-twenty-? ve-thousand [Fig 03. Chicago?s 77 Neighborhoods] 14 residents in the 1960s. By this time, the area was mostly comprised of African Americans who either lacked the ? nancial resources to maintain the housing stock or withheld those funds. As a result, many of the buildings fell into disrepair and were abandoned. Another devastating effect occurred in 1968 when residents rioted following the assassination of Dr. Martin Luther King Jr. Many structures were lost to ? re during the protest. The grim situation was exacerbated in the 1970s when Sears Roebuck & Co. relocated its international headquarters from North Lawndale to the Sears Tower taking some ? fteen- thousand jobs with it. In the 1990s the city took a ? rm stance on abandoned property, citing it as a public hazard and began an aggressive demolition campaign. Today there are over ? ve-thousand vacant parcels (see ? g. 15, p. 20) in the area and over half of them are owned by the city. Since 1960 the area has lost roughly 40% of its housing stock and its population has declined from one-hundred- and-twenty-? ve-thousand to a meager forty-one-thousand (Keating and Krumholz 67). [Fig 04. Figure Ground of the MPA site] This image il- lustrates the abundance of vacant land in the area 15 [Fig 05. Vacant lot on 13th street] [Fig 06. Vacant lot on Roosevelt Rd.] [Fig 07. Vacant lot on Independence Blvd.] 16 Chapter 4: Site Physical Condition The MPA site is located centrally to the North Lawndale Community. The hard site boundaries are de? ned by Roosevelt Road to the north, 14 th Street to the south, Pulaski Road to the west, and Lawndale Ave to the east. The Eisenhower Expressway has an exit located on Independence Boulevard roughly one mile north of the site, thus Independence acts as the front door to the North Lawndale Community. Building Typology Vacant lots aside, the physical character of the site has the potential to be rather attractive. The majority of the surviving housing stock dates from the turn of the 20 th century. The fabric of the area is dominated by two-? ats with the occasional apartment building, [Fig 08. Diagrammatic Aerial Photo] MPA Site in Red, I-290 to the north, Gar? eld Park to the far north, Douglas Park to the east [Fig 09. Typical Residential Street] 17 the ? rst ? oor is generally 6? feet above grade. This arrangement allows for a generous amount of light to enter the basements. The height also encourages the use of porches throughout the site. The most commonly used building materials are limestone and brick. All of the lots in the area are rear loaded (accessibly by alley) and three foot gangways are prevalent. As is the case throughout the city, electricity and phone lines reach the site via the alleys, while gas and water mains are located off of the street. [Fig 10. Typical Section through Independence Blvd.] 119? green strip with 40? streets on either side, three traf? c lanes in either direction, 270? building face to building face [Fig 11. Typical Section through Roosevelt Rd.] Street width is 65? curb to curb, 104? building face to building face, 4 lanes of traf? c, 20? sidewalks [Fig 12. Typical Section through Residential Street.] Street width is 28? curb to curb, 12? planting strip, 6?4 sidewalks, 15? - 25? building setbacks, 107? building face to build- ing face 18 The two-? at building type is essentially a stacked duplex in which the lower ? oor and basement are lived in by the owner, while the upper ? oor is rented out. One generally enters into a common vestibule from the porch. Each unit then has a door (one leading into the ? rst ? oor and the other leading to a stair well). While the upper unit can be rented out, frequently the same family owns and lives in both the upper and lower units. For example, it is not uncommon for children to get married and live above the parents. [Fig 13. Section of Typical Two-Flat] 19 [Fig 14. Aerial Photo of Independence Square] [Fig 15. Vacant Lots within MPA Site] - Darkened Lots are Vacant 20 Zoning The governing zoning ordinance for the City of Chicago was enacted on November 1, 2004. Most of the site falls into the category of RT-4 residential zoning. This zoning is intended to accommodate detached housing, two-? ats, townhouses, and low-density multi-residential buildings (See ? g. 17, p. 22). Most of the building sites are located on lots which are 25? by 125? (3,125 sq. ft.) The minimum lot area for this zone is 1,650 sq. ft. A lot must be able to accommodate 1000 sq. ft. for every dwelling unit proposed on a given site (500 sq. ft. per Single Room Occupancy), and the maximum Floor Area Ratio is 1.2. Front setbacks are dictated by the average setback of the neighboring lots or 20?, whichever is less. Minimum rear setbacks are dictated by the lot depth and range [Fig 16. Zoning Map of N. Lawndale] 21 from 24% to 28% of the lot depth, or 50?, whichever is less. There must be 65 sq. ft. of open rear yard space for every dwelling unit on a given lot, or 6.5% of the lot area, whichever is greater. If multiple buildings are proposed on a single lot, there must be a minimum of 30? separation. Building heights are restricted to 38.? 17.5% of the front fa?ade must be composed of doors or windows. The two major streets on the site, Roosevelt Road and Pulaski Road are zoned C1-2 commercial and B3-2 business. C1 and B3 zones are intended to accommodate retail, service, and commercial uses that are compatible with the existing character of the neighborhood. Commercial and Industrial uses may not exceed 25,000 sq. ft. of the ground ? oor and may not be smaller than 800 sq. ft. or 25% of the lot area, whichever is greater. Residential dwelling units are allowed above the [Fig 17. Residential Zoning Restrictions] [Fig 18. C1-2 and B3-2 Commercial / Busi- ness Zoning Restrictions] 22 ground ? oor in both zones. The lot must contain at least 1000 sq. ft. per residential unit. There is a maximum 2.2 Floor Area Ratio. There are no required front setbacks and the minimum rear setback is 30?. There are no side setback requirements. Building height restrictions vary between 47? to 50? depending on if the ground ? oor is used for commercial activity. 23 Land Use Based upon the zoning code, four basic types of uses have developed within the MPA site. Naturally, the predominate use is residential, the nature of which has been discussed previously. The second major use would be commercial. As ? gure nineteen shows, most of the commercial activity in the area is on Roosevelt Road. The commercial activity is composed of small shops, restaurants, fast food establishments, and gas stations. Most of these buildings contain residential units above the ground level. The third major use would be religious. There are currently fourteen churches located within the site. These range in size from small ?storefront? congregations to large churches that have moved into structures that were originally designed to serve as Jewish [Fig 19. Commercial Land Use] [Fig 20. Commercial Buildings on Roosevelt [Fig 21. Religious Land Use] 24 synagogues at the turn of the century. The latter of these serve as local landmarks for the community. The last major land use is education. There are six educational institutions located within the site boundaries. Henson School (? gure 25), located in the center of the site area is a elementary school housing up to grade six. Herzl (? gure 26), located just to the east of Independence Square is a middle school for 7 th and 8 th Grades. Herzl?s Classical Greek revivalist building is considered to be historically signi? cant by the City of Chicago Commission on Chicago Landmarks? Historical Resources Survey. [Fig 24. Educational Land Use] [Fig 22. Typical Storefront Church on Pulaski Rd.] [Fig 23. Church on Independence Blvd.] built to serve as a synagogue 25 [Fig 25. Henson School] [Fig 26. Herzl School] 26 City Boulevard System In 1837 the City of Chicago was incorporated with its motto, ?Urbs et Horto,? or ?city in a garden.? This vision was realized in 1869 when the state of Illinois created three park districts (north, south, and west) and charged them with the creation of nine large parks that would be connected through a system of boulevards, forming an ?emerald crown? around the city center. The three large parks on the city?s west side Douglas, Gar? eld, and Humboldt were designed by Chicago architect, William LeBaron Jenney. Gar? eld park (184 acres) lies about one mile to the north of the MPA site, while Douglas park (174 acres) is located about one mile to the east. Independence Square marks the turning point where Douglas Boulevard turns north to meet Gar? eld Park and becomes Independence Boulevard. While the boulevard system was initially designed to accommodate carriage rides and leisurely Sunday afternoon promenades, today Independence and Douglas Boulevards are major traf? c ways for cars. [Fig 27. Chicago Boulevard System] [Fig 28. Gar? eld Park] 27 One unfortunate effect of this has been that Independence Square has become a traf? c circulation zone that is extremely uninviting to pedestrians or residents. The square was further compromised by the addition of a one story learning center that was built by the Chicago Public School system in the late 1960s. [Fig 29. Independence Square] 28 Streets In character with the City of Chicago, all streets within the site are arranged on a grid. Within the city major streets are located every mile and roughly eight city blocks (long dimension) can ? t between two major streets. The grid in this area has a north- south bias with blocks that are roughly three-hundred feet by six-hundred-and-thirty feet. Topography For building purposes, the topography of the site can be considered ? at. There is a slight 1? slope down to the west that is spread out over the entire area. The site is not located in a ? ood plain. [Fig 31. MPA Site Street and alley Network] [Fig 30. Chicago Major Street Grid] 29 PART III: THE DESIGN 30 Chapter 5: Precedents Homan Square, Chicago Nagle Hartray Danker Kagan McKay Architects Planners Ltd. Completed in 1999 the Homan Square development was the ? rst major housing development undertaken in North Lawndale since the early nineteen hundreds. Located on the site of the original world headquarters of Sears Roebuck and Co., the development included nine city blocks (55 acres) and introduced 600 new housing units into the area. One major objective of the developers was to create a ? fty-? fty mix of rental units and owner mixed-income level units. [Fig 32. Original Sears? Tower] The tower stands in Homan Square as a reminder of Sears? ties to the history of the area [Fig 33. Master Plan of Homan Square Development] 31 To this end, the plan included a mix of single family detached, duplex, and rental units. Contrary to the typical Chicago block layout, with units lined up at the block edge, the Homan Square developers chose to create communal front lawns with the units lining the edges. While this arrangement allows for a larger continuous green space and more ?eyes [Fig 35. Block Con? guration Comparison Diagram] Typical N. Lawndale block laid on top of Homan Square Block [Fig 34. Homan Square Block Con? guration] [Fig 36. Unit Size Study] Typical N. Lawndale Two-Story Two-Flat Next to Two-Story Homan Square Unit [Fig 37. Homan Square Units] View from Street 32 on the street,? the de? nition of the street is completely lost, having no de? nable edge. Homan Square has reached a density of 11.2 dwelling units per acre, compared to 17 dwelling units per acre in the majority of North Lawndale. Since Homan Square is less than one mile away from the MPA site, it offers an excellent example of what is expected in market-rate housing in the area. Ranging between 1,000 and 1,670 square feet, the units are considerably smaller than other units in the North Lawndale neighborhood. [Fig 38. Homan Square Unit Type ?B?] [Fig 39. Homan Square Unit Type ?D?] 33 Murray Grove, London Cartwright & Pickard, Architects The Murray Grove apartment building is an excellent example of what can be done with a prefabricated modular building system. The thirty unit structure is composed of seventy four modules, each with the same overall dimensions. The single- bedroom units are composed of two modules, while the two-bedroom are composed of three modules (Figures 44 & 45). The modules were constructed off site by Yorkon Limited, then shipped to the site and hoisted into place by cranes. Once the modules were in place, a prefabricated deck and cladding system was installed over the units. Finally the central stair piece was put in place (also constructed using prefabricated modules). The overall time of construction on-site was only ten days. [Fig 40. View of Apartments] [Fig 41. Apartments Under Construction] [Fig 42. Apartments Under Construction] 34 [Fig 43. Exploded Axon of Unit] [Fig 44. Units] [Fig 45. Modules] 35 PATH, Concept House Torti Gallas and Partners, Architects with US Department of Housing and Urban Development The Partnership for Advancing Technology in Housing, or PATH is a program of HUD that seeks to accelerate the integration of innovative technologies in the housing construction market. Developed in 2004, the PATH Concept Home was a non-built project intended to demonstrate how a home could evolve with a family. The objective was to design a house that could accommodate changing lifestyles, could adapt to technological advances, be easily repaired or remodeled, and look custom built. In addition to these, the architects proposed that by the year 2010, such a house could be built from the ground up in 20 days. To accomplish their objectives, the designers made use of four concepts. The ?open building? concept discussed in the conceptual design goals section of this thesis was a leading idea. Structure, utilities, and ? oor plan are viewed as separate systems. The utilities and ? oor plan are designed to anticipate change, while the structure is conceived as being ? xed. The second theme was to organize the utilities in a way that they are easily accessible. This is accomplished by creating open pathways for the piping and wiring and also by creating easily removable, ? oor, and ceiling panels to [Fig 46. PATH Concept House Floor Plans] These diagrams show how the Concept house is designed to change 36 conceal them. The third concept is to push for industry standardization of measurements and product sizes. Standardized measurements will allow components to be built by a variety of manufactures in different locations and ensure that they will all come together on site. The ? nal idea was to integrate subsystems, or allow elements of the house to do more than one thing. For example, the PATH house proposes that ?wall coverings double as conduit for electricity, and roof shingles collect solar energy while they protect your house.? [Fig 47. Utility Separation] 37 Operation Breakthrough US Department of Housing and Urban Development Began in 1969, Operation Breakthrough was a HUD sponsored initiative that sought to modernize the housing industry though ?facilitating volume production of quality housing for people of all incomes? (HUD Challenge June 1972 p4). During the initial stages of the program, twenty-two different housing system producers (HSPs) were selected to participate. These HSPs represented a mixture of wood-framed modules, pre- cast concrete, plastic, and metal systems. The organizers of Breakthrough realized that site planning was of the utmost importance. To this end, eleven different sites were chosen throughout the country (only nine were actually developed due to budget cuts). Each of these sites would play host to a mix of HSPs and would serve as demonstration grounds for the general industry. Within the sites, the Planned Unit Development approach to site planning was utilized to provide maximum ? exibility in site layout and also minimizing the amount of paving, utilities, and recreation areas. The main objective of Breakthrough was not necessarily to push the ?architectural envelope,? but rather to stimulate and aid the industry by ?breaking-through? legislative, transportation, and labor policies that were hindering the realization of a modernized housing industry. One major obstacle that HUD faced in development of the program was that of transportation. ?The best factory built dwelling unit is of little value unless it can reach its destination intact and be economically competitive with those building products produced locally by conventional means? (HUD Challenge pp12). 38 Chapter 6: Design Guidelines Because of the nature of the MPA building system being ?ever-adaptable? and customizable it is necessary to establish a set of design guidelines. These guidelines will serve two purposes. First they will ensure that the overall character of the street is well de? ned and orderly. It is not the intention of these guidelines to regulate style, but rather to mandate a set of minimum requirements that each of the building sites will adhere to. A second purpose for the guidelines is to direct the development of the design process. The proposition of a house which is perpetually changing and possibly expanding is a rather vague pursuit. It is the objective of the following six sections to aid the designer and point him in a direction towards an end product. Typology While the MPA building system is not a traditionally constructed building, in its matured form it is conceived as being most similar to that of a typical Chicago two-? at. The two-? at is characterized by two dwelling units stacked vertically. There is usually an entrance hall located directly behind the main entrance which will lead either directly into the main level unit or to a stair hall which leads to the upper unit (See typical section, ? g. 13, p. [Fig 48. Typical Two-Flat Floor Plan] 39 19 and ? g 68, p. 59). Customarily, the owner of the lot lives on the lower level (which is usually slightly higher in quality) while the upper level is either rented out or used for extended family members. Lot development One of the larger goals of the MPA Project is to increase the number of rental properties available in the North Lawndale Community. One of the ways this will be accomplished is through the construction of accessory apartments when ever possible. This will make the inevitable gentri? cation process less offensive for the current residents, as there will be more alternatives available for them to remain in the area. It will also help the owners of the land, by giving them some amount of income to help defray the cost of maintenance and upkeep. Fa?ade Articulation Within the MPA site there is a strong tradition of building facades being staggered through the use of major and minor bays. In keeping with this tradition, the street fa?ade of all MPA units shall be divided into two or three non-equal bays indicated by a setback of no less than 2?. Where a corner building is being designed, with two street facades, these guidelines are intended to apply to the short [Fig 49. Typical Two-Flat Elevation] 40 side, or the faced that is parallel to the fa?ade of the neighboring in? ll houses. Where two bays are used, the larger bay should occupy 54% - 60% of the total width of the fa?ade. Where three bays are used, the larger bay should occupy 50% - 65% of the total width of the fa?ade and should be located between the two minor bays. The larger bay should be the closest to the street. A single primary entrance to the building should be accommodated through the principle fa?ade and should be located a minor bay. For in? ll units, the street fa?ade must appear to be two to three stories and may be no less than 30? in height (height is restricted to 38? by the city zoning ordinance). Corner units should appear taller and may utilize the entire 38? height limit. The street fa?ade need not enclose space, however it should maintain the street edge. For example the fa?ade could be used to screen a roof deck on the second level. In keeping with the character of the area, roofs should appear to be ? at from the street. [Fig 50. In? ll Lot Street Facade] [Fig 51. Corner Lot Street Facade] 41 Location of Major Spaces Kitchens, bathrooms, and storage areas should be placed to the rear of the initial development. At no time may these spaces have window openings on the street fa?ade. Accessibility In accordance with the MPA Project intention that one be able to inhabit a MPA building system house from youth to old age, it is desirable that all MPA buildings have at least one unit that is accessible in accordance with ADA standards or designed to easily be converted to an accessible unit. Affordability & Gentri? cation The MPA Project acknowledges the fact that a redevelopment of this magnitude could be a major sponsor of gentri? cation within the larger community. Even so, one major objective of this thesis is to provide a mechanism whereby the existing community could continue to exist without being forced to leave. Ideally the new units that are being constructed would be purchased by persons who have some connection to the area (either through family, friends, or because they grew up there). In line with the idea of the ?ever- adaptable? house, it is also assumed that the ideal new resident would be a young adult who may not yet be married and can grow a family with their home. In order to allow this speci? c market the opportunity to buy these units and also to try to not escalate property value and taxes too rapidly, it is our intention that the initial development on the sites be built to be ?affordable? Affordable housing is generally considered to be housing where the owner spends no more than 30% of his/her untaxed 42 income on housing. According to the Census, the median family income in Chicago for the year 2000 was $42,724.00. This means that no more than $1,068.10 should be spent on housing and utilities per month. As of December 13, 2004 the average mortgage rate in the City of Chicago was 5.42% (Chicago Tribune). If a family took out a thirty year mortgage for $140,000.00 at 5.5% interest their monthly payment would be $794.90. Using the Homan Square precedent (see p. 31), where square footages were as high as 1670gsf, the actual cost per square foot for the MPA initial development should be around $83.00. 43 Chapter 7: Design Schemes Conceptual Beginnings Initially this thesis explored two different conceptual approaches to the design of a modular structure. The ? rst method could be described as the ?Book-in-Shelf? approach. In this scenario, a developer would fund the building of a scaffolding system on each site. The owner would then be able to buy pods or modules to ? ll in this scaffolding. In this approach, the initial framework would be built up to a point where it could accommodate the maximum amount of development allowed under the zoning. The second method could be described as the ?Lego? approach. In this scenario a developer would fund the building of a plinth on each site. This plinth would connect to city utilities and house the unit?s furnace and water heater. The developer would then sell the land and the plinth to the owner who could expand by buying pods that would stack onto each other. These two initial ideas [Fig 52. Diagram of ?Book Shelf? Approach] [Fig 53. Diagram of the ?Lego? Approach] 44 eventually evolved into a set of ? ve study models which were each a variation on one or both of the above stated themes. During this stage a basic 3? x 3? x 3? module was used for size. The intent of these study models was to look at the potential impact of massing in relation to the existing buildings in the area. Pre-Schematic Design Parties The next stage was the [Fig 55. Study Model] - Front building with expansion to rear [Fig 54. Study Model] - 9? x 18? structural frame [Fig 56. Study Model] - Lego approach 45 [Fig 57. Study Model] - Base building with ? exable interior space [Fig 58. Study Model] - Base building with dedicated expansion areas [Fig 59. Study Model] - Study model of existing buildings in area 46 development of three pre-schematic building system approaches. A concept board was designed based on each system and the ?pros and cons? of each system were evaluated. Each building system was developed on the same 3? x 3? x 3? module as the study models. Additionally, initial ideas on ?components? for each system were proposed. The ? rst system was named the ?Building Block System? (? g. 63) It had its roots in the ?Lego? approach described above. In this system, the basic component was the 9? x 18? x 12? frame. A skin cladding system would be used to complete the enclosure. Additionally, non-structural partitions and furnishings would be developed on the 3? x 3? module to de? ne interior space. In this system, the section of the frame would be designed in such a way as to allow for dedicated mechanical runs. The house would expand based on the 9? x 18? x 12? increment and could theoretically expand vertically as well as horizontally. The second system was the ?Scaffolding/In? ll System? (? g. 64) In this system the components were a modulated structural frame, a cladding system, and lastly, a 47 [Fig 60. Building Block System Concept Board][Fig 60. Building Block System Concept Board] 48 number of ?plug-in-play space? components. The cladding system and the ?plug-in-play space? components were conceived being able to snap into the structural frame. The ?plug-in-play space? components would be composed of spaces such as kitchens, stairs, bathrooms, and bedrooms. The structure and mechanical systems would be designed in such a way as to be able to receive these ?plug-in-play space? components in any given bay. Thus with a number of prefabricated parts, the owner could easily layout his/her house to their individual wishes. It is conceived that multiple variations on each of the standard ?plug-in-play space? components would be developed (ie, one could choose from any of twelve possible bathroom components). The ? nal system was named the ?Weathering Shed / Internal Pod System? (? g. 65). In this system a more traditional shell or base building would be built, but not ? tted out with interior spaces. All interior spaces would be developed as individual pods. The owner could then select which pods he/she wanted to in their home and arrange them in 49 [Fig 61. Scaffolding / In? ll System Concept Board] [Fig 61. Scaffolding / In? ll System Concept Board] 50 whatever manner best suited their family. In this system the structure would be more or less ? xed, but the mechanical systems would be designed to allow the user to move the pods around in any way they wanted. 51 [Fig 62. Weathering Shed / Internal Pods Concept Board] [Fig 62. W eathering Shed / Internal Pods Concept Board] 52 Chapter 8: System Design Included in this chapter are the ? nal drawings for the MPA Project Housing System. These are the boards, in their original format (although reduced from 24? x 36? size), from the thesis defense held at the University of Maryland School of Architecture, Planning and Preservation on the 16 th of May, 2005. Reason Boards The ?reason? or justi? cation for this project has largely been laid out over the past six chapters. The purpose of these boards was to familiarize the guest jury to the area. Figure 64 begins to show in a more objective manner how critical this project is to the North Lawndale Community by emphasizing the more striking statistics. Figure 65 shows the housing matrix which was conceived during the pro-thesis semester and was used throughout the design semester to guide programmatic needs. Because this project has been conceived as an ever-changing house, it is not possible to propose a traditional ? xed program. Certain rooms would be present at all stages, such as bathroom and kitchen, but sizes would never be ? xed. Additionally certain people at different stages in life need different amenities. Figure 65 shows how conceptually the unit and spaces could evolve with the owner over time 53 Reason university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Streets & Expressways Neighborhood Divisions O ? H a r e A i r p o r t W r i g l e y F i e l d O a k P a r k N o r t h L a w n d a l e C e n t r a l B u si n e ss D i st r i ct ( T h e L o o p ) M i d w a y A i r p o r t U S C e l l u l a r O n e F i e l d ( C o m i sk e y P a r k ) I l l i n o i s I n st i t u t e o f T e ch n o l o g y I - 9 4 ( E d e n s E x p y ) I - 9 4 ( K e n n e d y E x p y ) I - 2 9 0 ( E i se n h o w e r E x p y ) N o r t h L a w n d a l e I - 5 5 ( S t e v e n so n E x p y ) I - 9 4 ( D a n R y a n E x p y ) I - 9 0 ( S k y w a y ) I - 9 4 ( B i sh o p F o r d ) Mass Producing America Neighborhood Revitalization in North Lawndale - Chicago, IL Marcus A. Cross [Fig 63. Pr esentation Board ?Reason 1?] 54 Reason university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Proposed Figure Ground Existing Figure Ground Commercial Land Use Educational Land Use Religious Land Use Current Area P opulation 41,000 P eak P opulation 125,000 (1960) Chicago Median F amily Income $43,848 Area Median F amily Income $20,253 T otal Area Housing Units 14,620 Owner Occupied Units 22% R enter Occupied Units 62% V acant Units 15% T ypical Existing Densit y 18 Dwelling Units / Acre Proposed Densit y 24 Dwelling Units / Acre North Lawndale ZoningKey Statistics [Fig 64. Pr esentation Board ?Reason 2?] 55 Reason university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT [Fig 65. Pr esentation Board ?Reason 3?] 56 Site Boards Figure 66 shows that three-hundred-and-? fty-two lots within the MPA Project area have been identi? ed as potential building sites. The majority of these lots are currently vacant (no structure standing on the site). The remainder are either under-developed or are occupied by abandoned buildings. Given the size of the project area, the number of vacant parcels, and the vast variety of building types needed to ? ll those vacancies, it becomes necessary to develop some over-arching framework within which the architect can work. To this end, the MPA Project is seen as a part of a larger revitalization effort encompassing the entire North Lawndale Community as described in chapter two. Figure 66 shows how the project area will be divided. Corner and in? ll housing sites would be covered by the MPA Project. Retail and Commercial sites are left to a future, un-named developer. Additionally, some sites located on Independence Boulevard which seem to be better suited for larger multi-family development are left for a future developer. To this end the MPA Project is exclusively concerned with the development of in? ll and corner units (see ? g 67). Figures 68 and 69 show the response to the design guidelines proposed in chapter 6. The basic typology structure of a Chicago Two-Flat has been used as the starting point of the in? ll units. The street facades have been treated in a way that is in keeping with the general character of the North Lawndale Community. The exception would be the retail space that has been added to the ground ? oor of the corner building. 57 Site university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT S t u d y A r e a A v a i l a b l e B u i l d i n g S i t e s Existing Conditions 139 In? ll Unit Building Sites 1 3 9 I n ? l l U n i t B u i l d i n g S i t e s 33 Corner Unit Building Sites Future Other Residential Sites Future Retail/Commercial Development Buildings to be Demolished [Fig 66. Pr esentation Board ?Site 1?] 58 Site university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT [Fig 67. Pr esentation Board ?Site 2?] 59 Site university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Unit Comparison Typical Two-Flat Main Level Zoning Restrictions Typical Existing Section Typical Facade [Fig 68. Pr esentation Board ?Site 3?] 60 Site university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Proposed Street Perspective Parti In? ll Site Strategies Street Edge [Fig 69. Pr esentation Board ?Site 4?] 61 Construction Boards The major innovation of the MPA system can be seen in the construction drawings. As Fig 70 shows much of the construction process is traditional. Through the use of SIPs (Structurally Insulated Panels), the overall time of construction would be reduced. The use of sips has been restricted to the exterior structure of the home. This was done to allow for exterior and interior ? nishes to be built to custom. Figure 71 highlights another key innovation, namely the use of a central distribution core in which all plumbing and HVAC are run. The ? oor is composed of 4? wide prefabricated hollow slab that allows air to circulate through, creating a plenum. The HVAC supplies are run through the core and simply end at the ? oor deck, thus there is no duct work required. To maximize the ? exibility of the units, vents can be ?punched? in the ? oor deck as needed. In the winter more air would be directed at the lower level since warm air rises and in the summer more air would be directed at the upper level since cool air will fall. Plumbing is also handed through this distribution core. All plumbing needs are stacked around the core to keep from running pipes through partition walls. All supply is handled through PEX ( PolyEthylene) piping. This plastic tubing is more ? exible and allows the piping to weave between the studs of the core. Additionally with this system, every ? xture in the house has its own individual shutoff valve located at the manifold in the basement. This is a great bene? t if at anytime the piping needs to be replaced, as you can leave all unaffected ? xtures on and simply turn off the one that you are working on. 62 Construction university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Exterior Finishes Excavation Foundation SIPs Construction SIPs Construction Item Material Labor Equipment T otal % of T otal Item Material Labor Equipment T otal % of T otal R ough Carpentry $14,002.00 $22,695.00 -- $36,697.00 17.8 Insulation $2,622.00 $1,968.00 -- $4,590.00 2.2 Plumbing R ough-in and Connection $2,132.00 $5,686.00 $324.00 $8,142.00 3.9 Heating and Cooling S ystems $4,452.00 $6,678.00 -- $11,130.00 5.4 Traditional Construction Cost Structurally Insulated Panel 7/16? Skin7 / 1 6 ? S k i n (t yp . plywood, ( t y p . p l y w o o d , or osb) o r o sb ) 5-5/8? Core5 - 5 / 8 ? C o r e (F oam ( F o a m Insulation) I n su l a t i o n ) 2? Core R ecess 2 ? C o r e R e ce ss F oam Spline F o a m S p l i n e 2 x B o t t o m P l a t e P artition W alls ( f r a m e d ) 2 x T o p P l a t e V e n t s ( p l a ce d a s n e e d e d ) Interior FinishesI n t e r i o r F i n i sh e s E x t e r i o r F i n i sh e s Structural Air Plenum Floor Slab 3/4? Deck Hollow Core (for passage of air) 1? W ood T russ Joists [Fig 70. Pr esentation Board ?Construction 1?] 63 Construction university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT HVAC Distribution Plumbing Distribution G a s V e n t R eturn Air Duct R e t u r n A i r D u ct Second Floor Deck / PlenumS e co n d F l o o r D e ck / P l e n u m S e co n d F l o o r D e ck / P l e n u m Second Floor SupplyS e co n d F l o o r S u p p l y S e co n d F l o o r S u p p l y 2? x 4? Studs2 ? x 4 ? S t u d s First Floor Deck / PlenumF i r st F l o o r D e ck / P l e n u m F i r st F l o o r D e ck / P l e n u m First Floor SupplyF i r st F l o o r S u p p l y F u r n a ce Main SupplyM a i n S u p p l y Gas V ent G a s V e n t Air Admitance V ent A i r A d m i t a n ce V e n t 2? x 4? Studs2 ? x 4 ? S t u d s W aste Dr ain W a st e D r a i n Flexible PEX Piping (Supply)F l e x i b l e P E X P i p i n g ( S u p p l y ) Main W aste M a i n W a st e Fresh W ater Supply Manifold F r e sh W a t e r S u p p l y M a n i f o l d T ank -less Hot W ater Heater T a n k - l e ss H o t W a t e r H e a t e r Heating Diagram Cooling Diagram Distribution Core [Fig 71. Pr esentation Board ?Construction 2?] 64 Construction university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Typical Facade SectionT y p i ca l F a ca d e S e ct i o n F l a sh i n g / C o u n t e r F l a sh i n g 4 ? P a r a p e t F o a m I n su l a t i o n ( S l o p e d f o r d r a i n a g e ) P r e - f a b r i ca t e d S t e e l S h a d i n g M e m b e r P r e - f a b r i ca t e d R o o f D e ck P r e - f a b r i ca t e d F l o o r D e ck B r i ck V e n e e r F a ca d e S I P P r e f a b r i ca t e d P o r ch D e ck L o w e r T e r r a ce S t a n d a r d C o n cr e t e F o o t i n g C M U R e t a i n i n g W a l l Flashing /Counter Flashing W aterproo? ng Membr ane F oam Insulation (Sloped for dr ainage) Pre-fabricated roof deck Standard W ood Flooring Pre-fabricated ? oor deck 4-Hour CMU Fire W all SIPs Exterior Circulation Prefabricated Steel Deck 2? x 4? Internal P artition W all Exterior Stor age Standard concrete footing Typical In? ll Cross Section [Fig 72. Pr esentation Board ?Construction 3?] 65 Image Boards & Flexibility Boards Finally, the Image and ? exibility boards are intended to give an idea of what the system could produce. It is not necessarily the case that there is a one for one match up between the facades and the unit plans, rather the idea is that any of the facades could be interchangeable with almost any of the unit plans. The major difference in the in? ll plans are the sections. In research it became clear that the difference between an ?affordable? house and a luxury home was determined in large part by the presence of a double height space. Since the MPA system is aimed at providing housing for everyone from a large family to newlyweds, the sectional difference became critical. All plans show an accessory apartment option over the garage, some show an English basement accessory apartment as well. In other instances the basement has been used as a home of? ce or a large family room. The retail space in the corner building is conceived as a small caf? or other establishment to be used primarily by the local residents. No additional parking is provided as it is anticipated that all patrons would be in walking distance. Moreover because of the limited amount of square footage, the type of retail is highly limited to things which would not offend the neighbors. The facades are the result of the design guidelines and design development over the course of a semester. Some options are better suited for units with double height space in the front, while other are better suited for units with two independent ? oors. One option shows the possibility of a root top terrace, where the railing actually completes the 66 requirement of making the building appear to be 30? tall. The interior perspectives are intended to show the variation of space created through the location of the double height space. Interior ? nishes are not speci? ed in too much detail, as these are options that are best left to the owners? individual taste. 67 Flexibility university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT BasementMain LevelUpper Level Alternative Alternative Main Unit: 2,180 sf 3 Bedrooms 2.5 Bath Kitchen/Living/Dining Family Room Study Area Home Of? ce Rear Accessory Unit: 456 sf S i n g l e F a m i l y O p t i o n [Fig 73. Pr esentation Board ?Flexibility 1?] 68 Flexibility university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT BasementMain LevelUpper Level Alternative Alternative Main Unit: 1,413 sf 2 Bedrooms 3.5 Bath Kitchen/Living/Dining Family Room Lower Level Accessory Unit: 560 sf Rear Accessory Unit: 456 sf Lofted OptionL o f t e d O p t i o n [Fig 74. Pr esentation Board ?Flexibility 2?] 69 Flexibility university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Alternative Alternative Main Unit: 2,472 sf 5 Bedrooms 3.5 Bath Kitchen/Living/Dining Family Room Study Area Rear Accessory Unit: 456 sf M o d i f e d T w o - F l a t O p t i o n BasementMain LevelUpper Level [Fig 75. Pr esentation Board ?Flexibility 3?] 70 Flexibility university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Main Level Alternative Corner Mixed - Use Option Alternative A l t e r n a t i v e [Fig 76. Pr esentation Board ?Flexibility 4?] 71 Image university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Interior View of Living Room Lofted Option [Fig 77. Pr esentation Board ?Image 1?] 72 Image university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Interior View into Dining Room & Kitchen Single Family Option [Fig 78. Pr esentation Board ?Image 2?] 73 Image university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Interior View of English Basement Unit Modified Two - Flat Option [Fig 79. Pr esentation Board ?Image 3?] 74 Image university of maryland . school of architecture, planning, & pr eservation . 2005 spring thesis 050516 MPA PROJECT Interior View of Ground Level Cafe Corner Mixed-Use Option [Fig 80. Pr esentation Board ?Image 4?] 75 Chapter 10: Conclusion The question of affordable housing is not new. It has been and continues to be a heated source of discussion and debate amongst architects. Le Corbusier?s worker?s housing at Pessac France, Walter Gropius and Konrad Wachsmann?s General Panel System, Buckminster Fuller?s Dymaxion House, The Luxston Housing Corporation, Operation Breakthrough, the list goes on and on. All of these were architectural attempts to provide good housing to the masses relying primarily on cutting edge technology, gadgetry, and in some cases technology that was simply insuf? cient to match industry demands. All these provided provocative architectonic and aesthetic solutions to the question of housing that continue to inspire the architectural community. While each of these projects can and should be praised for advancing the cause of affordable housing, one cannot overlook the simple fact that if judged by their own initial claims of greatness, each of them failed. I propose that there are at least two major lessons that can be learned from this phenomenon. The ? rst is that, any serious attempt to solve the housing problem in this country will be one that works with and advances standard, conventional building technologies and practices ? not one that attempts to replace them. This is a hard and disturbing fact for many of us to face (especially those in the world of academia). The creative and idealistic side of us begs to believe that we can and should re-invent the wheel, and that somehow we can make it better. The truth that I have discovered in this process is that the housing industry already makes an exceptionally good ?wheel?. The traditional stick-built house is fast to construct, relatively cheap to build, and really quite 76 easy to customize to an owner?s personal taste. It is exceptionally dif? cult to ? nd a reason for the housing industry to embrace any other form of construction. The second lesson is that the link between modular, panelized, prefabricated systems and the affordable housing problem tends to be much stronger conceptually than it is in reality. In exploring these options I was continuously confronted by the problem of designing overly complicated connections that would actually drive the cost of the unit up. Not to mention the cost and complications of moving large blocks of buildings to the site (this is not at all impossible, however it can not be denied that it adds another layer of complexity and potential cost to the problem). These problems tend to magnify themselves considerably when one moves down in scale from multi-family housing to single family housing. The economics of these systems do not seem to work at the scale of this project. The system proposed by the MPA Project takes advantage of both of these lessons. Through the use of SIPs, labor and onsite construction cost are reduced. Through the use of the heating/cooling core, material cost on duct work and labor are reduced. Moreover this system, by providing a fairly generic shell of a building and allowing complete customization of select key elements (the street fa?ade, and interior organization) could easily compete with the ? exibility of a stick-built home. In the end, the project may be criticized for being too ?traditional,? both in its construction and its aesthetics. However, in the course of design I arrived at a fork in the road. To the left was the alluring possibility of designing a ?new way? of doing things ? a strictly prefabricated modular home, better than all of the systems proposed in the past century (not an easy task to accomplish in one semester). To the right was real 77 problem of a neighborhood in desperate need of a viable housing solution. For many of the reasons already discussed, it became clear that these two options were not compatible. It was not a light decision to choose the right side, but it should be understood that this decision was quite deliberate. While the resulting system may be criticized for its traditional nature, it can only be praised for its honest solution to a real problem. 78 Works Cited Andrejavic, Mark. Reality TV the Work of Being Watched. Boulder: Rowman and Little? eld, 2004 Arieff, Allison, and Burkhart, Bryan. Prefab. Salt Lake City: Gibbs Smith, 2002 Bell, Bryan, ed. Good Deeds, Good Design: Community Service Through Architecture. New York: Princeton Architectural Press, 2004 Brand, Stewart. How Buildings Learn, What Happens After They?re Built. New York: Penguin, 1995. Duffy, Francis, et al. Design for Change: The Architecture of DEGW. Haslemere: Watermark Publications, 1998 Graf, John. Images of America: Chicago?s Parks. Chicago: Arcadia, 2000 Herbers, Jill. Prefab Modern. New York: Harper Design International, 2004 HICA, Inc. H.I.C.A. West Side Redevelopment Plan. Chicago, HICA, Inc., 1992 Keating, W. Dennis, and Krumholz, Norman. Rebuilding Urban Neighborhoods: Achievements, Opportunities, and Limits. New York: Sage Publications, 1999 Kendall, Stephen. Open Building, A New Approach to Multifamily Architecture, Interior Design, and Construction. [USA]: n.p., 1994 Kieran, Stephen, and Timberlake, James. Refabricating Architecture: How Manufacturing Methods are Poised to Transform Building Construction. New York: McGraw-Hill, 2004 Moudon, Anne Vernez. Built for Change: Neighborhood Architecture in San Francisco. Cambridge: The MIT Press, 1986 Reisley, Roland, and Timpane, John. Usonia, New York: Building a Commuinity with Frank Lloyd Wright. New York: Princeton Architectural Press, 2001 79 Schachter, Jason P. ?Geographical Mobility: 2002 to 2003, Population Characteristics.? Washington DC: US Census Bureau, 2004 Suchman, Dian R. ?Homan Square Chicago, Illinois.? The Urban Land Institute Project Reference File 26.11 (July-September 1996) Urban Land Institute. North Lawndale Chicago, IL: An Evolution of Potential and Strategies. Washington DC: Urban Land Institute, 1986 Wittman, Timothy N. Five houses on Avers Avenue district : 1942, 1950, 1952, 1958, and 2102 South Avers Avenue, Chicago, Illinois : preliminary staff summary of information. Chicago: City of Chicago, 1990