Graduate Thesis Programming Book

redesigning the educational experience 1

2

table of contents introduction theories+trends

problem goals+objectives small schools movement the changing classroom color psychology lighting

context

1 2

3 site user needs spatial requirements

precedent studies

4 metea valley camino nuevo augustus f. hawkins

guidelines+codes

5 human factors spatial requirements IBC bibliography

3

4

introduction

1

5

problem mission statement The Small Schools Movement seeks to answer the changing educational demands and learning behavior in a large school with research-informed design to meet the needs of students, teachers and the community. executive statement Many high schools in America are becoming larger and larger while dropout rates are on the rise and college attendance rates are decreasing. Funding for education only seems to be decreasing, and lowerincome districts in need of this funding the most suffer and are left unsupported.

Without the proper funds, these schools are unable to afford to hire new teachers, maintain school grounds and provide extra-curricular activities to students. As a result, students at these schools often risk “falling through the cracks” and are prone to engage in risky behavior. In such a large school environment, students can often get lost among the masses, feeling alienated, alone and undervalued.

Teachers are overwhelmed and unable to devote as much time and attention to each 6

individual student resulting in an impersonal feeling educational system with unresponsive results.

“students often risk ‘falling through the cracks’” With this feeling of being just another face in the crowd, there is a lack of focus and therefore a lack of trust between students, teachers, and the education system. Despite this epidemic facing many urban schools across the United States,

little is actually being done to combat it. These outdated and overcrowded schools are not only creating an impossible learning environment, but conveying a message that these students are not a priority.

The way current generations of students learn in the school system today are not the same as the students who these schools were designed for over fifty years ago.

The Small Schools Initiative is a movement trying to combat many negative consequences affecting students attending a large school. To be considered a ‘Small School,’ the student body must not exceed 400 students, and ideally have around 200 students. The benefits of attending a Small School are innumerable for

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not only students, but teachers as well. Dropout rates have lowered while graduation rates and college going rates rise among small school attendees.

Smaller class sizes allow teachers to be more attentive to each student and create a greater sense of community.

“create a greater sense of community�

This project will explore new ways of organizing educational spaces and implementing alternative educational standards through design.

This will not only increase the retention and graduation rates of students, but will improve the learning experience as a whole, teaching them to be more productive and effective in all aspects of life.

and affects not only students today, but the future of the nation. Design can serve as a catalyst and plays a large role in the success of a school, the learning environment, and the community.

Wichita West High School is facing many of the issues encountered by large urban schools across the country while also matching the profile of schools that have seen success with a small schools restructuring. This redesigned educational facility will provide an effective and safe learning environment that will serve students, teachers and the community during and after school hours. The critical issues facing the education system in United States continues to be a heated topic of debate

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the state of education in the U.S. today

From 2006 to 2015, K-12 enrollment is projected to:

+6.2% in the West

-.3% in the MidWest

-3.8% in the NE

to 10.7 million

to 7.9 million

to 12.7 million

+10.3% in the South to 19.9 million

Around 14 percent of schools exceed their capacity by up to 25%. With enrollment trends only expencted to increase, many schools are facing a crisis.

8

*Statisctics from Levono & Intel

At the end of WWII, the United States ranked #1 in the world for high school graduation rates. Today that number has dropped to #22 out of the 27 industrialized nations.

22

nd

Less than half (46%) of American students finish college. Yet according to the U.S. Department of Labor, to earn a decent wage in today’s economy, students need at least some postsecondary education.

1.1m i

ll

i o n

About 1.1 million American students drop out of school each year.

Dropout rates are almost 40% for African-American and Hispanic students (compared to the national average of 27%).

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*Statistics from The Eli and Edythe Broad Foundation

goals+objectives

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Design for the changing classroom to enhance the learning environment.

Implement the latest design psychology research regarding color, stimuli, hierarchy, etc.

Incorporate progressing technology trends.

Create a sense of community.

Provide multi-functional spaces available for use by the surrounding community as well.

Increase sense of school and community pride among students and faculty.

Give teachers and students autonomy and growth at varying scales.

Include a variety of spaces which cater to and enhance different types of learning, lounging or teaching.

Create flexible spaces that can be transformed by students and teachers.

Implement sustainable principles.

Incorporate learning gardens and native landscapes.

Utilize sustainable materials and finishes.

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theories+trends

2

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the small schools movement The Small Schools Movement is sweeping the country, gaining nationwide attention.

This education reform comes after the realization large comprehensive high schools are not promoting students to reach their full potential, evidenced by increasing dropout rates, decreasing test scores, and fewer students moving on to higher education. Small high schools on the other hand, seem to have reverse affects, with better teacher-student interactions and accountability creating a sense of community and belonging.

Additionally, there are several types of small school establishments within the movement.

These include schools-within-schools, CES high schools (Coalition of Essential Schools) and Small Learning Schools. Although in theory this reform has shown to be primarily beneficial, specifically with struggling school districts, there are still conflicts regarding implementation and follow through. These different views and studies will be compared to create an unbiased foundation to redesign a struggling high school under the Small Schools Movement umbrella. community Small Schools are exactly what they sound like, schools that are small, usually enrolling between 300 14 to 450 students from grades

9-12 (McQuillan, 2008). At these schools, teachers usually have 20 students or less in a class and will have no more than 60 students total to oversee (McQuillan, 2008).

However, size is not the only factor differentiating a typical small high school from a school within the small schools movement. Some argue besides size, a successful small school is united by a common theme or shared set of values while having autonomy to make its own decisions (Strike, 2008). When students, teachers and the community are all working toward a common goal, the school is more likely to flourish. Transparency and democracy leads to a sense of community within the school where all parties have an interest in seeing that it succeeds (Strike, 2008).

Teachers with fewer students are able to spend more time getting to know each student as an individual and visa versa. As this relationship builds, students feel cared for and place trust in the school and its ability to support them throughout their high school careers (Strike, 2008).

Conversely, in a comprehensive high school, students tend to fall through the cracks and don’t feel valued. Teachers become so overwhelmed with mass amounts of students, the education system tends to feel impersonal and unresponsive. There is a lack

of focus and therefore a lack of trust with resistance felt on not only the students side, but from the teachers as well (McQuillan, 2008). Although having a more personalized school experience can be highly attributed to size alone, the sense of community comes from the common goals or themes shared by members of the organization (Strike, 2008).

“the small schools movement is not just about size� autonomy Similarly, these small schools require a certain sense of autonomy, not only between the school and the overall district, but also with teachers and administrators (Strike, 2008).

Schools not allowed to grow and evolve on their own after the initial small school restructuring, have shown to be very unsuccessful as seen in the study of several small

schools in an article by Patrick McQuillan (2008). Schools such as the Street Academy in Oakland proved how to overcome their opposition by remaining primarily autonomous in terms of localized decision-making and curriculum structure . In fact, because of the school’s bottom-up approach to education, teachers could be flexible according to the students needs (Epstein, 2004).

The attitude that opinions mattered from teachers and students allows schools to be more supportive of the students while creating a better working environment for the teachers (McQuillan, 2008).

Again, democracy leads to a feeling of unity and personal interest within an organization. schools-within-schools One common trend under the umbrella of the Small Schools Movement is the restructure of large comprehensive high schools into schools-withinschools. These subunits within the larger school act as their own small school and usually have a theme or emphasis around which their curriculum centers (Ready, 2008). These can be referred to as academies, sub-schools or small learning communities but essentially all describe a smaller organizational group within the large-scale school. According to the article, “Choice, Equity, and the Schools-Within-Schools Reform” by Douglas Ready, these subunits allow for educational choice seen beneficial by students (2008). When a student chooses what they study, they feel in control of their educational experience (Ready, 2008). By choosing an area of study,

students usually share a common interest in the subject furthering the argument that creating a common goal and sense of community is at the center of the small schools idea (McQuillan, 2008). One study, which followed five high schools sharing a similar organizational structure, documented many unforeseen consequences.

Although the idea behind “academies” is to create commonalities between students with similar interests, can in some cases cause unintentional stratification. Like the real world with classes and racial and economical segregation, funneling students into specified subunits may in fact create a chasm in the school where some subunits are seen as elite and others as a dumping ground for struggling students (Ready, 2008).

Regardless of these findings, the benefits of choice, personalization, and community seem to out weigh the negative, unintentional outcomes (Ready, 2008).

through to ensure a successful restructure. When done right, small schools-within-schools provide a community of learning and shared values among students and teachers. In researching the small schools movement, there was a gap in research regarding the physical design of the building and building function and how that affects the learning environment.

In spite of minor discrepancies within the larger body of research, one thing has proved true: large comprehensive high schools as a whole are not educating students to their full potential and leave room for students to “fall through the cracks.” The Small Schools Movement is trying to combat that statistic and through further research and study, will be able to pinpoint the solution.

“democracy leads to a feeling of unity” Evidenced within the studies and articles are many examples that show not only the achievements of converted small schools, but also failures.

Small schools are not just a cure-all that can fix any struggling high school. It takes a certain attitude and follow

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the changing classroom STEM education “STEM skills are a key element of a well-rounded education and essential to effective citizenship and is closely linked with our nation’s economic prosperity in the modern global economy.�

Science studies the physical and natural world through observation & experience with chemistry, physics, earth sciences and life sciences.

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Technology connects people, making faster and more efficient forms of communication

Engineering solves real world problems making things from structures to products better and cheaper.

Mathematics uses numerical, spacial and logistical relationships to study and solve problems and is the foundation for science, engineering, and technology, finding patterns in data or abstract logic.

technology in the classroom how students use technology:

solve problems, analyze data, calculate

practice basic skills

writing

research

multimedia presentations

ipod/mp3 player

correspond with others experiements create art, music, etc. develop models or simulations contribute to a blog or wiki use social networking site

20,000+ educational apps for iphone

benefits of technology as a teaching tool: future oriented communication collaboration

building teams

problem solving challenges social

global awareness

self direction engages

interactive mobile learning

presentations graphs adapted from: http://www.visualinformation.info/how-technology-is-facilitating-education-infographic/ http://www.elearninginfographics.com

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color psychology Color has many effects on humans from a neurological and psychological standpoint. Different colors carry different meanings and emotions associated with them based on many factors including instinct, culture, trends and personal experiences carrying with them both concious symbolism and subconcious physiological reactions. Light and color can affect the interbrain resulting in biological reactions, such as increased heart rate, in response to certain stimuli. How a person aesthetically perceives a space can not only alter how they might feel about it, but change their orientation, energy levels, concentration, breathing and mood. The influence of color can affect the nervous system and control attention and awareness.

Understimulation occurs when there is a lack of contrast and heirachy within a space. Extreme monotony and sensory deficiency can have detrimental effects both psychologically and physiologically. These spaces have no identity and are disorienting, evoking feelings of restlessness, irritability and inability to concentrate.

creates feeling of taller space

Overstimulation is caused when there is an extreme surplus of stimuli. Chaotic patterns, unharmoneous color schemes and intensely colorful or complex designs can have adverse psychological and physiological effects on humans. This can manifest itself through stress, visual fatigue and even breathing difficulties.

creates feeling of wider space

Architecturally speaking, color can evoke different reactions about a space with color choice and placement.

Color can enhance visual interest, create focal points, and accent paths and entraces for identity and safety.

Certain colors can give ques as to the function of spaces, dictating what activities ‘should’ be taking place and send signals directing the actions of the users, and establish individuality, aiding in wayfinding. Colors change the atmosphere using impressions and associations of color to link the users to the architectural space, triggering emtions or affecting well-being.

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cheerful, radiant, exciting Warm tones convey safety and trust and evoke feelings of excitement, comfort, and brightness.

They can be used to reduce scale and make spaces feel more intimate.

provacative, firely, lively

dignified, solemn, sublime

High Schoolers tend to prefer darker toned colors as opposed to elementary aged students who prefer bright, primary colors.

deep, concentrated, relaxing

refreshing, cool, hygenic

Cool tones can encourage relaxation and evoke feelings of freshness, calm, and openness. They can be used to visually enlarge spaces to feel less confining.

balancing, natural, calming

settled, fine, still, reserved 19

classrooms Students are more likely to participate in discussions and lessons in a “soft classroom� which conveys a warm, home-like atmosphere acheived through natural materials balancing warm and cool shades. Low-key color schemes are best for spaces where people spend long periods of time. Color reduces boredom and monotony, but should controlled to a few color variances to reduce visual strain.

common areas Common areas should be distinguishable from one another and convey an inviting environment.

Color selection should dictate the function of the space whether it should promote activity, rest or dignity.

This is a good opportunity to reflect school spirit and culture.

corridors Color can serve as a means of organization and orientation marking differents functional areas. Intense contrasts and highly saturated color stimulation are only advised for spaces where people spend short periods.

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color recommendations | international center for leadership in education art: creativity - green, violet, red, peach, pink, light yellow biology: nature - blue, green, teal, brown, beige chemistry: logic - blue, green, indigo foreign language: friendship - yellow history: age - amber, blue, yellow, sea green language arts: communication - sea green, blue, green; no avocado, yellow green, purple, chartreuse math: logic - indigo, blue physics: energy - blue, yellow, green, indigo

auditorium: dignity - violet, black, dark green, navy, warm neutrals, purple, burgundy athletic facilities: vitality - red, orange, bold colors; no turquois cafeteria: nutritious - orange, red, green, lime, dark brown; no blue, no

yellow-green, no magenta gymnasium: activity - red, red-orange, light orange, warm yellow, apricot, orange,

lime, medium green; no turquoise media center: restful - light green, peach, rose, light green, aqua, peach, cream; no

white, no dark colors, no bold colors study hall: stasis - green, blue, brown, earth tones; no red, no orange

entrances: inviting - school colors hallway: refreshing - green, blue, magenta, school colors

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lighting Lighting has a tremendous effect on the learning environment and well-being as a whole. Improper lighting can cause visual fatigue, stress, irritability and even more serious health problems. Glare, overstimulation and low light levels are just a few examples of how improper lighting can effect a space. When a classroom is affected by adverse lighting techniques, students may have trouble concentrating or remaining on task.

Implementing natural light has proven to have possitive results on students not only in mood and behavior, but test scores and information retention. Using as much natural light as possible is also a way to sustainably light classrooms, thus reducing the need for artificial lighting. Not only is it essential to supply classrooms with adequate lighting, but it is also important for teachers to have control of the lighting from both artificial and sunlight. Depending on the task at hand, some situations require different lighting levels.

difused downlighting

operable shades

natural daylighting low gloss surfaces

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performance

efficiency

comfort

techniques

spaces

class rooms

common areas corridors

combination of ambient, tast and accent lighting; lighting controls

both direct and indirect or direct and highlighting

glare-free; attention to changes in levels and areas of potenttial danger; emergency lighting

lighting controls with daylight sensing; occupancy sensors

daylight linking, central switching and time clock

presence detection; lighting controls with daylight sensing; easy maintenance

light ceiling and walls; light ceilings and combine upward walls; diffuse light and downward light; lighting at task level

brightly lit ceilings, walls and floors

avoid tightly controlled down lights; place whiteboards to reduce glare; luminares shouldnt impede with projector image

wall mounted luminares for high ceilings; display lighting; suspended luminares with up/down lighting components

mounted uplighters, suspended luminairs with up/down lighting components; recessed or surface mounted wall washing luminaires for displays and art

classroom: 300 lux science lab: 500 lux music room: 300 lux art & design: 500 lux

assembly: 300 lux cafeteria:175-250 lux gymnasium: 300 lux media center: 300 lux study hall: 300 lux

entrances: 250 lux hallway: 80-120 lux social: 175-250 lux

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context

3

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wichita high school west Location: Wichita, KS

Student/Teacher Ratio:

Setting: Large City Grades: 9-12

18:1

School Type: Comprehensive Public School

Demographics:

40% White

1% Asian

16% Black

32% Hispanic

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$ 87%

economically disadvantaged

Average testing proficiency:

math 2.5 / 5

reading 3 / 5

WEST USD 259 STATE OF KS

Enrollement: 1,281 Students

context

gg ave

entrance

1

3

2

wm

cc

4

orm

ick

5

arkansa s river

w kello

st

1 auditorium 2 classrooms 3 football field 4 parking 5 practice athletic fields Wichta West is a high school in Wichita, KS that serves the area west of the Arkansas River.

It is one of 17 high schools in Wichita’s only school district, USD 259. Not only is this high school serving an economically disadvantaged population, with nearly 77% of students on the free lunch program (87% total economically disadvantaged), but the majority of students are of minoriy descent. West, as it it known locally, routinely scores below state and district test scores for both math and reading proficiency. The site is located between a predominately residential area to the North and industrial area to the South. The old building was originally intended to house four different academies in each of the different wings on the school, however within three years of completion, the school already felt the effects of overcrowding.

With all these disadvantages, Wichita West High School is a prime candidate for success under the small schools movement umbrella.

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west high school campus

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vehicular circulation

parking

pedestrian circulation

greenspace

1925 West Wichita Community Council

started campaign for a high

school west of the Arkansas River

1953 Wichita High School West opens

‘Academies’ were implemented

to prepare students directly

entering the workforce after high school

1959 Enrollment reaches 1,971 athletic fields

Original plan to house each Academy in its own wing is abandoned to make room for more classrooms

1971 Building was surrounded by 24

portable classroom units

1976 Library media center was added

and existing library was renovated

1988 Ninth graders were moved to the

high schools

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regional zoning WEST Major Roadways

Residential Zone

Industrial Zone

Commercial Zone

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west high school

cafeteria library auditorium athletics classrooms

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users+needs students freshman sophomores j u n i o r s seniors

safety+security technology storage social spaces study spaces

teachers flexible spaces teaching options technology planning collaboration

community gathering spaces multi-function spaces recreation

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spatial requirements 160-200 sf per student classroom + movement

general classroom: 600-900 sf art: 1800 sf music: 1500-1800 sf science: 900-1000 sf computer lab: 1000 sf biology/chemistry lab: 1200 sf special education: 600 sf

traditional model

administrative: 100 sf - private offices conference rooms: 200 sf nurse: 600 sf - (with bathroom) 1 bed per 200 students

central hub

auditorium: 4000 sf - stage, storage, lobby gymnasium: 6000 sf - regulation basketball court 84’x50’ library: 5500-8000 sf - plus 3 sf for each student >500 media center: 4800-5000 sf cafeteria: 11-14 sf per student - serving area 20-25% cooridoor: 8-10 ft wide shared space between rooms

*In accordance with the Georgia Department of Education Facilities Services Unit and the Virginia Department of Education

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precedents

4

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metea valley high school Architect: DLR Group

School Type: Small Learning Communities

Year: 2009-2010

Student/Teacher Ratio:

Location: Aurora, IL Setting: Large Suburb Scope: 464,200 sq ft Grades: 9-12 Enrollment: 3,000 Students

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17:1 Demographics: 54% White 16% Asian 14% Black 12% Hispanic

20% Economically Disadvantaged

context

1 arts and technology 2 classrooms and media center 3 athletics and servery

2 1

3 2

daylighting Natural daylighting provides students with ambient light beyond the typical overhead flourescents. Daylighting can improve mood, behavior and well-being while creating a brighter and more open interior environment.

When planning out the Metea Valley HS, design was dictated by spaces that would help students not become lost among the masses. The flexibility of the design solution supports many teaching and learning ideals. Inner courtyards give natural light to the building core and provides freedom for students to move outdoors. Lounge areas and think tanks provide a variety of gathering spaces encouraging collaboration amongst students and teachers. Specialized room are located in four core areas so the school can be organized in multiple ways. The high school was awarded by the Illinois Clean Energy Community Foundation for their effort in energy efficiency adn sustainable building features. Between think tanks, lounges, interactive gathering spots and outdoor educational opportunities, the designers hope that learning environments are enhanced.

*Images and information from ArchDaily.com

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camino nuevo high school Architect: Daly Genik Architects

School Type: Charter School

Year: 2004

Student/Teacher Ratio:

Location: Los Angeles, CA Setting: Large City Scope: 30,000 sq ft Grades: 9-12 Enrollement: 500 Students

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23:1 Demographics:

3% Asian 97% Hispanic

92% Economically Disadvantaged

context

1 2 3 4 5

admin science lab classroom arts classroom courtyard

courtyard Inner courtyards give students the opportunity to get freshair and natural light throughout the day. This allows students to flow in and out of the building while keeping them safe within the school property.

Camino Nuevo High School is surrounded by busy streets in an intense urban area with a strong multi-cultural community. Because of this context, it is important that the school functions as an oasis while remaining transparent to the community. On one side of the complex, a winding classroom building separates social spaces from the busy boulevard while administrative offices are positioned near the primary, pedestrian entrance.

By creating direct visual connections into the courtyard from the classrooms, natural light flows in supporting social and sustainable functions. The inner courtyard becomes a social hub for informal class meetings or large-scale project production. Corrugated metal dampens sound while providing sun control.

*Images and information from ArchDaily.com

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augustus f. hawkins high school Architect: CSDA Design Group

School Type: Small Learning Communities

Year: 2012

Student/Teacher Ratio:

Location: Los Angeles, CA Setting: Large City Scope: 351,070 sq ft Grades: 9-12 Enrollment: 2,000 Students

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23:1 Demographics: 23% Black 77% Hispanic

72% Economically Disadvantaged

context 1 classrooms 2 auditorium 3 gym 4 parking/ basketball courts 6 amphitheatre 7 quadrangle 9 multi-purpose field

wayfinding Larger school campuses can become confusing to navigate for students, teachers and visitors.

Providing color-coded wayfinding from parking lots to building interiors keeps the size of the campus from becoming overwhelming.

In the midst of highly urbanized Southern Los Angeles, this school consists of three buildings each with adminitrative offices, classrooms and science labs. Augustus F. Hawkins HS was the designed to meet the first green building rating program in the US for K-12 schools.

The Collaborative for High Performance Schools supports the design of environmentally responsible and high performing spaces for learning through energy and water efficiency, site planning and materials. Some examples used include low-emitting materials in classrooms, operable windows, a “cool roof� and irrigation systems. The tight urban site challenged designers to build vertically and used exposed stairways to promote interactions. Additional amenities include turf fields, an outdoor amphitheatre, and gym, library and performing arts facilities open to the community. Color-coding highlights routes and nodes aiding visitors.

*Images and information from ArchDaily.com

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marysville gretchell high school School Type: Small Learning Communities

Year: 2010

Graduation Rates:

Grades: 9-12 Enrollment: 1,295 Students

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89%

Scope: 195,919 sq ft

77%

Setting: Suburban

Prior Yr 1 Yr 2 Yr 3

57%

Location: Marysville, WA

50%

Architect: DLR Group

context A campus commons B school for the entreprenuer C bio-med academy D academy of construction & engineering E international school of communications 1 2 3 4 5 6 7 8

bus drop off visitor entry social flat parking wetlands protected trees fields tennis courts

In the midst of highly urbanized Southern Los Angeles, this school consists of three buildings each with adminitrative offices, classrooms and science labs. Augustus F. Hawkins HS was the designed to meet the first green building rating program in the US for K-12 schools.

The Collaborative for High Performance Schools supports the design of environmentally responsible and high performing spaces for learning through energy and water efficiency, site planning and materials. Some examples used include low-emitting materials in classrooms, operable windows, a “cool roof� and irrigation systems. The tight urban site challenged designers to build vertically and used exposed stairways to promote interactions. Additional amenities include turf fields, an outdoor amphitheatre, and gym, library and performing arts facilities open to the community. Color-coding highlights routes and nodes aiding visitors.

*Images and information from ArchDaily.com & dlrgroup.com

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universal learning spaces core learning: instructional space (A) specialized learning: curriculum-specific space (M) applied learning: real world application of learning (I) project learning: interdisciplinary, interactive projects (L) science: labs and grounds as powerful learning tools that promote

inquiry-based learning (J,K) learning commons: resource/research area, and interactive/interdisciplinary

support spaces to Core Learning (C) social commons: informal gathering space (N) admin & student services: administration (B) information resources: (D) living room: encourage student and community interaction (G) outdoor learning: (F)

guiding principles:

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1 2

Relationships at the Center Focused Learning

3 4 5

Identity & Purpose Community Accountability

sustainability Students are more likely to participate in discussions and lessons in a “soft classroom� which conveys a warm, home-like atmosphere acheived through natural materials balancing warm and cool shades. Low-key color schemes are best for spaces where people spend long periods of time. Color reduces boredom and monotony, but should controlled to a few color variances to reduce visual strain.

community The school is designed to encourage community at a variety of scales. The building can function as a community center for the surrounding neighborhoods while building arrangements create inbetween, outdoor communal spaces.

The site is unrestricted to serve community members after school hours and visitors are welcomed to tour the wetlands and forest.

interior environment Color can serve as a means of organization and orientation marking differents functional areas. Intense contrasts and highly saturated color stimulation are only advised for spaces where people spend short periods.

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metea valley student enrollment type

layout

amenities

sustainable features

connection to community

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3,000

Small Learning Community 1 building; 2 stories; 2 protected courtyards

technology labs, media center, “think tanks,� collaborative lounges, gym, auditorium

daylight harvesting, daylighting, control ventilation, rain gardens, rooftop greenhouse/irrigation low

camino nuevo

augustus marysville f. hawkins gretchell

500

2,000

1,300

Charter

Small Learning Community

Small Learning Community

2 linear buildings; 2 stories; inner courtyard

1 main building; 2 support buildings; 4 stories; outdoor parks

4 buildings; 1 shared building; 3 stories; outdoor learning spaces; forest

outdoor amphitheatre, art rooms, science labs

library, gym, auditorium, amphitheatre, athletic fields, parking structure, outdoor classroom

library, gym, auditorium, amphitheatre, athletic fields, parking structure, outdoor classroom

daylighting, exterior sun controll, sound buffer

limit turf areas, native plants, operable windows, low-emitting materials, “cool roof,� efficient HVAC

natural materials, native forests & wetlands, building orientation, water conservation, daylighting,

low

high

high

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guidelines+code

5

49

proxemics+ anthropometrics “proxemics is what brings us together�

It can be described as the study of non-verbal communication.

Intimate 1.5 ft Personal 4 ft Social 9 ft

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11”

36”

72” 60”

18”

30”

53”

19”

44” 24”

78”

51

LEED certification LEED 2009 for commercial interiors

52

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international building code 2012 Chapter 3 SECTION 303 ASSEMBLY GROUP A 303.1 Assembly Group A. Assembly Group A occupancy includes, among others, the use of a building or structure, or a portion thereof, for the gathering of persons for purposes such as civic, social or religious functions; recreation, food or drink consumption or awaiting transportation.

Exceptions: 4. Assembly areas that are accessory to Group E occupancies are not considered separate occupancies except when applying the assembly occupancy requirements of Chapter 11.

SECTION 305 EDUCATIONAL GROUP E 305.1 Educational Group E. Educational Group E occupancy includes, among others, the use of a building or structure, or a portion thereof, by six or more persons at any one time for educational purposes through the 12th grade. Religious educational rooms and religious auditoriums, which are accessory to places of religious worship in accordance with Section 303.1 and have occupant loads of less than 100, shall be classified as Group A-3 occupancies.

Chapter 10 SECTION 1001 ADMINISTRATION 1001.1 General. Buildings or portions thereof shall be provided with a means of egress system as required by this chapter. The provisions of this chapter shall control the design, construction and arrangement of means of egress components required to provide an approved means of egress from structures and portions thereof.

1001.2 Minimum requirements. It shall be unlawful to alter a building or structure in a manner that will reduce the number of exits or the capacity of the means of egress to less than required by this code.

1001.3 Maintenance. Means of egress shall be maintained in accordance with the International Fire Code. [F] SECTION 1003 GENERAL MEANS OF EGRESS 54

1003.1 Applicability. The general requirements specified in Sections 1003 through 1013 shall apply to all three elements of the means of egress system, in addition to those specific requirements for the exit access, the exit and the exit discharge detailed elsewhere in this chapter.

1003.2 Ceiling height. The means of egress shall have a ceiling height of not less than 7 feet 6 inches (2286 mm).

Exceptions: 1. Sloped ceilings in accordance with Section 1208.2.

3. Allowable projections in accordance with Section 1003.3.

4. Stair headroom in accordance with Section 1009.2.

5. Door height in accordance with Section 1008.1.1.

6. Ramp headroom in accordance with Section 1010.5.2.

1003.3 Protruding objects. Protruding objects shall comply with the requirements of Sections 1003.3.1 through 1003.3.4.

1003.3.1 Headroom. Protruding objects are permitted to extend below the minimum ceiling height required by Section 1003.2 provided a minimum headroom of 80 inches (2032 mm) shall be provided for any walking surface, including walks, corridors, aisles and passageways. Not more than 50 percent of the ceiling area of a means of egress shall be reduced in height by protruding objects.

Exception: Door closers and stops shall not reduce headroom to less than 78 inches (1981 mm).

A barrier shall be provided where the vertical clearance is less than 80 inches (2032 mm) high. The leading edge of such a barrier shall be located 27 inches (686 mm) maximum above the floor.

Exception: These requirements shall not apply to sloping portions of handrails between the top and bottom riser of stairs and above the ramp run.

1003.3.3 Horizontal projections. Structural elements, fixtures or furnishings shall not project horizontally from either side more than 4 inches (102 mm) over any walking surface between the heights of 27 inches (686 mm) and 80 inches (2032 mm) above the walking surface.

Exception: Handrails are permitted to protrude 41/2 inches (114 mm) from the wall.

1003.3.4 Clear width. Protruding objects shall not reduce the minimum clear width of accessible routes.

1003.4 Floor surface. Walking surfaces of the means of egress shall have a slip-resistant surface and be securely attached.

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1003.5 Elevation change. Where changes in elevation of less than 12 inches (305 mm) exist in the means of egress, sloped surfaces shall be used. Where the slope is greater than one unit vertical in 20 units horizontal (5-percent slope), ramps complying with Section 1010 shall be used. Where the difference in elevation is 6 inches (152 mm) or less, the ramp shall be equipped with either handrails or floor finish materials that contrast with adjacent floor finish materials.

Exceptions: 2. A stair with a single riser or with two risers and a tread is permitted at locations not required to be accessible by Chapter 11, provided that the risers and treads comply with Section 1009.4, the minimum depth of the tread is 13 inches (330 mm) and at least one handrail complying with Section 1012 is provided within 30 inches (762 mm) of the centerline of the normal path of egress travel on the stair.

3. A step is permitted in aisles serving seating that has a difference in elevation less than 12 inches (305 mm) at locations not required to be accessible by Chapter 11, provided that the risers and treads comply with Section 1028.11 and the aisle is provided with a handrail complying with Section 1028.13.

Throughout a story in a Group I-2 occupancy, any change in elevation in portions of the exit access that serve nonambulatory persons shall be by means of a ramp or sloped walkway.

1003.6 Means of egress continuity. The path of egress travel along a means of egress shall not be interrupted by any building element other than a means of egress component as specified in this chapter. Obstructions shall not be placed in the required width of a means of egress except projections permitted by this chapter. The required capacity of a means of egress system shall not be diminished along the path of egress travel.

Exception: Elevators used as an accessible means of egress in accordance with Section 1007.4.

SECTION 1004 OCCUPANT LOAD 1004.1 Design occupant load. In determining means of egress requirements, the number of occupants for whom means of egress facilities shall be provided shall be determined in accordance with this section. Where occupants from accessory areas egress through a primary space, the calculated occupant load for the primary space shall include the total occupant load of the primary space plus the number of occupants egressing through it from the accessory area.

1004.1.1 Areas without fixed seating. The number of occupants shall be computed at the rate of one occupant per unit of area as prescribed in Table 1004.1.1. For areas without fixed seating, the occupant load shall not be less than that number determined by dividing the floor area under consideration by the occupant per unit of area factor assigned to the occupancy as 56 set forth in Table 1004.1.1. Where an intended use is not listed in Table 1004.1.1, the

building official shall establish a use based on a listed use that most nearly resembles the intended use.

Exception: Where approved by the building official, the actual number of occupants for whom each occupied space, floor or building is designed, although less than those determined by calculation, shall be permitted to be used in the determination of the design occupant load.

TABLE 1004.1.1 MAXIMUM FLOOR AREA ALLOWANCES PER OCCUPANT Assmebly with fixed seats See 1004.4 Assembly without fixed seats

Concentrated (chairs only) 7 net Standing space 5 net

Unconcentrated (tables and chairs) 15 net Educational Classroom area 20 net

Shops and vocational rooms 50 net Library Reading rooms 50 net

Stack area 100 gross

1004.2 Increased occupant load. The occupant load permitted in any building, or portion thereof, is permitted to be increased from that number established for the occupancies in Table 1004.1.1, provided that all other requirements of the code are also met based on such modified number and the occupant load does not exceed one occupant per 7 square feet (0.65 m2) of occupiable floor space. Where required by the building official, an approved aisle, seating or fixed equipment diagram substantiating any increase in occupant load shall be submitted. Where required by the building official, such diagram shall be posted.

1004.3 Posting of occupant load. Every room or space that is an assembly occupancy shall have the occupant load of the room or space posted in a conspicuous place, near the main exit or exit access doorway from the room or space. Posted signs shall be of an approved legible permanent design and shall be maintained by the owner or authorized agent.

1004.4 Exiting from multiple levels. Where exits serve more than one floor, only the occupant load of each floor considered individually shall be used in computing the required capacity of the exits at that floor, provided that the exit capacity shall not decrease in the direction of egress travel.

1004.5 Egress convergence. Where means of egress from floors above and below converge at an intermediate level, the capacity of the means of egress from the point of convergence 57

shall not be less than the sum of the two floors.

1004.6 Mezzanine levels. The occupant load of a mezzanine level with egress onto a room or area below shall be added to that room or area’s occupant load, and the capacity of the exits shall be designed for the total occupant load thus established.

1004.7 Fixed seating. For areas having fixed seats and aisles, the occupant load shall be determined by the number of fixed seats installed therein. The occupant load for areas in which fixed seating is not installed, such as waiting spaces and wheelchair spaces, shall be determined in accordance with Section 1004.1.1 and added to the number of fixed seats.

For areas having fixed seating without dividing arms, the occupant load shall not be less than the number of seats based on one person for each 18 inches (457 mm) of seating length.

The occupant load of seating booths shall be based on one person for each 24 inches (610 mm) of booth seat length measured at the backrest of the seating booth.

1004.8 Outdoor areas. Yards, patios, courts and similar outdoor areas accessible to and usable by the building occupants shall be provided with means of egress as required by this chapter. The occupant load of such outdoor areas shall be assigned by the building official in accordance with the anticipated use. Where outdoor areas are to be used by persons in addition to the occupants of the building, and the path of egress travel from the outdoor areas passes through the building, means of egress requirements for the building shall be based on the sum of the occupant loads of the building plus the outdoor areas.

Exceptions: 1. Outdoor areas used exclusively for service of the building need only have one means of egress.

1004.9 Multiple occupancies. Where a building contains two or more occupancies, the means of egress requirements shall apply to each portion of the building based on the occupancy of that space. Where two or more occupancies utilize portions of the same means of egress system, those egress components shall meet the more stringent requirements of all occupancies that are served.

SECTION 1005 EGRESS WIDTH 1005.1 Minimum required egress width. The means of egress width shall not be less than required by this section. The total width of means of egress in inches (mm) shall not be less than the total occupant load served by the means of egress multiplied by 0.3 inch (7.62 mm) per occupant for stairways and by 0.2 inch (5.08 mm) per occupant for other egress components. The width shall not be less than specified elsewhere in this code. Multiple means of egress shall be sized such that the loss of any one means of egress shall not 58

reduce the available capacity to less than 50 percent of the required capacity. The maximum capacity required from any story of a building shall be maintained to the termination of the means of egress.

1005.2 Door encroachment. Doors, when fully opened, and handrails shall not reduce the required means of egress width by more than 7 inches (178 mm). Doors in any position shall not reduce the required width by more than one-half. Other nonstructural projections such as trim and similar decorative features shall be permitted to project into the required width a maximum of 11/2 inches (38 mm) on each side.

Exception: The restrictions on a door swing shall not apply to doors within individual dwelling units and sleeping units of Group R-2 and dwelling units of Group R-3.

1005.3 Door hardware encroachment. Surface-mounted latch release hardware shall be exempt from inclusion in the 7-inch (178 mm) maximum projection requirement of Section 1005.2 when: 1. The hardware is mounted to the side of the door facing the corridor width when the door is in the open position; and 2. The hardware is mounted not less than 34 inches (865 mm) or more than 48 inches (1220 mm) above the finished floor.

SECTION 1007 ACCESSIBLE MEANS OF EGRESS 1007.1 Accessible means of egress required. Accessible means of egress shall comply with this section. Accessible spaces shall be provided with not less than one accessible means of egress. Where more than one means of egress are required by Section 1015.1 or 1021.1 from any accessible space, each accessible portion of the space shall be served by not less than two accessible means of egress.

Exceptions: 1. Accessible means of egress are not required in alterations to existing buildings.

2. One accessible means of egress is required from an accessible mezzanine level in accordance with Section 1007.3, 1007.4 or 1007.5.

3. In assembly areas with sloped or stepped aisles, one accessible means of egress is permitted where the common path of travel is accessible and meets the requirements in Section 1028.8.

1007.2 Continuity and components. Each required accessible means of egress shall be continuous to a public way and shall consist of one or more of the following components: 59

1. Accessible routes complying with Section 1104.

2. Interior exit stairways complying with Sections 1007.3 and 1022.

3. Exterior exit stairways complying with Sections 1007.3 and 1026.

4. Elevators complying with Section 1007.4.

6. Horizontal exits complying with Section 1025.

7. Ramps complying with Section 1010.

8. Areas of refuge complying with Section 1007.6.

Exceptions: 1. Where the exit discharge is not accessible, an exterior area for assisted rescue must be provided in accordance with Section 1007.7.

2. Where the exit stairway is open to the exterior, the accessible means of egress shall include either an area of refuge in accordance with Section 1007.6 or an exterior area for assisted rescue in accordance with Section 1007.7.

1007.2.1 Elevators required. In buildings where a required accessible floor is four or more stories above or below a level of exit discharge, at least one required accessible means of egress shall be an elevator complying with Section 1007.4.

Exceptions: 1. In buildings equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2, the elevator shall not be required on floors provided with a horizontal exit and located at or above the levels of exit discharge.

2. In buildings equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2, the elevator shall not be required on floors provided with a ramp conforming to the provisions of Section 1010.

1007.3 Stairways. In order to be considered part of an accessible means of egress, an exit access stairway as permitted by Section 1016.1 or exit stairway shall have a clear width of 48 inches (1219 mm) minimum between handrails and shall either incorporate an area of refuge within an enlarged floor-level landing or shall be accessed from either an area of refuge complying with Section 1007.6 or a horizontal exit.

Exceptions: 1. The area of refuge is not required at open exit access or exit stairways as permitted by Sections 1016.1 and 1022.1 in buildings that are equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2.

2. The clear width of 48 inches (1219 mm) between handrails is not required at exit access stairway as permitted by Section 1016.1 or exit stairways in buildings equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2.

3. Areas of refuge are not required at exit stairways in buildings equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2.

4. The clear width of 48 inches (1219 mm) between handrails is not required for exit stairways accessed from a horizontal exit.

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5. Areas of refuge are not required at exit stairways serving open parking garages.

6. Areas of refuge are not required for smoke protected seating areas complying with Section 1028.6.2.

7. The areas of refuge are not required in Group R-2 occupancies.

1007.4 Elevators. In order to be considered part of an accessible means of egress, an elevator shall comply with the emergency operation and signaling device requirements of Section 2.27 of ASME A17.1. Standby power shall be provided in accordance with Chapter 27 and Section 3003. The elevator shall be accessed from either an area of refuge complying with Section 1007.6 or a horizontal exit.

Exceptions: 1. Elevators are not required to be accessed from an area of refuge or horizontal exit in open parking garages.

2. Elevators are not required to be accessed from an area of refuge or horizontal exit in buildings and facilities equipped throughout with an automatic sprinkler system installed in accordance with Section 903.3.1.1 or 903.3.1.2.

3. Elevators not required to be located in a shaft in accordance with Section 708.2 are not required to be accessed from an area of refuge or horizontal exit.

4. Elevators are not required to be accessed from an area of refuge or horizontal exit for smoke protected seating areas complying with Section 1028.6.2.

1007.6 Areas of refuge. Every required area of refuge shall be accessible from the space it serves by an accessible means of egress. The maximum travel distance from any accessible space to an area of refuge shall not exceed the travel distance permitted for the occupancy in accordance with Section 1016.1. Every required area of refuge shall have direct access to a stairway within an exit enclosure complying with Sections 1007.3 and 1022 or an elevator complying with Section 1007.4. Where an elevator lobby is used as an area of refuge, the shaft and lobby shall comply with Section 1022.9 for smokeproof enclosures except where the elevators are in an area of refuge formed by a horizontal exit or smoke barrier.

Exceptions: 1. A stairway serving an area of refuge is not required to be enclosed where permitted in Sections 1016.1 and 1022.1.

2. A smokeproof enclosure is not required for an elevator lobby used as an area of refuge where the elevator is not required to be enclosed.

1007.6.1 Size. Each area of refuge shall be sized to accommodate one wheelchair space of 30 inches by 48 inches (762 mm by1219 mm) for each 200 occupants or portion thereof, based on the occupant load of the area of refuge and areas served by the area of refuge.

Such wheelchair spaces shall not reduce the required means of egress width. Access to any of the required wheelchair spaces in an area of refuge shall not be obstructed by more than one adjoining wheelchair space.

1007.6.2 Separation. Each area of refuge shall be separated from the remainder of the story61

by a smoke barrier complying with Section 710 or a horizontal exit complying with Section 1025. Each area of refuge shall be designed to minimize the intrusion of smoke.

Exception: Areas of refuge located within an exit enclosure.

1007.6.3 Two-way communication. Areas of refuge shall be provided with a two-way communication system complying with Sections 1007.8.1 and 1007.8.2.

1007.7 Exterior area for assisted rescue. The exterior area for assisted rescue must be open to the outside air and meet the requirements of Section 1007.6.1. Separation walls shall comply with the requirements of Section 705 for exterior walls. Where walls or openings are between the area for assisted rescue and the interior of the building, the building exterior walls within 10 feet (3048 mm) horizontally of a nonrated wall or unprotected opening shall have a fire-resistance rating of not less than 1 hour. Openings within such exterior walls shall be protected by opening protectives having a fire protection rating of not less than 3/4 hour. This construction shall extend vertically from the ground to a point 10 feet (3048 mm) above the floor level of the area for assisted rescue or to the roof line, whichever is lower.

1007.7.1 Openness. The exterior area for assisted rescue shall be at least 50 percent open, and the open area above the guards shall be so distributed as to minimize the accumulation of smoke or toxic gases.

1007.7.2 Exterior exit stairway. Exterior exit stairways that are part of the means of egress for the exterior area for assisted rescue shall provide a clear width of 48 inches (1219 mm) between handrails.

1007.8 Two-way communication. A two-way communication system shall be provided at the elevator landing on each accessible floor that is one or more stories above or below the story of exit discharge complying with Sections 1007.8.1 and 1007.8.2.

1007.9 Signage. Signage indicating special accessibility provisions shall be provided as shown: 1. Each door providing access to an area of refuge from an adjacent floor area shall be identified by a sign stating: AREA OF REFUGE. 2. Each door providing access to an exterior area for assisted rescue shall be identified by a sign stating: EXTERIOR AREA FOR ASSISTED RESCUE. Signage shall comply with the ICC A117.1 requirements for visual characters and include the International Symbol of Accessibility. Where exit sign illumination is required by Section 1011.2, the signs shall be illuminated. Additionally, tactile signage complying with ICC A117.1 shall be located at each door to an area of refuge and exterior area for assisted rescue in accordance with Section 1011.3.

1007.10 Directional signage. Direction signage indicating the location of the other means of 62

egress and which are accessible means of egress shall be provided at the following: 1. At exits serving a required accessible space but not providing an approved accessible means of egress.

2. At elevator landings.

3. Within areas of refuge.

1007.11 Instructions. In areas of refuge and exterior areas for assisted rescue, instructions on the use of the area under emergency conditions shall be posted. The instructions shall include all of the following: 1. Persons able to use the exit stairway do so as soon as possible, unless they are assisting others.

2. Information on planned availability of assistance in the use of stairs or supervised operation of elevators and how to summon such assistance.

3. Directions for use of the two-way communications system where provided.

SECTION 1008 DOORS, GATES AND TURNSTILES 1008.1 Doors. Means of egress doors shall meet the requirements of this section. Doors serving a means of egress system shall meet the requirements of this section and Section 1020.2. Doors provided for egress purposes in numbers greater than required by this code shall meet the requirements of this section.

Means of egress doors shall be readily distinguishable from the adjacent construction and finishes such that the doors are easily recognizable as doors. Mirrors or similar reflecting materials shall not be used on means of egress doors. Means of egress doors shall not be concealed by curtains, drapes, decorations or similar materials.

1008.1.1 Size of doors. The minimum width of each door opening shall be sufficient for the occupant load thereof and shall provide a clear width of 32 inches (813 mm). Clear openings of doorways with swinging doors shall be measured between the face of the door and the stop, with the door open 90 degrees (1.57 rad). Where this section requires a minimum clear width of 32 inches (813 mm) and a door opening includes two door leaves without a mullion, one leaf shall provide a clear opening width of 32 inches (813 mm). The maximum width of a swinging door leaf shall be 48 inches (1219 mm) nominal. Means of egress doors in a Group I-2 occupancy used for the movement of beds shall provide a clear width not less than 411/2 inches (1054 mm). The height of door openings shall not be less than 80 inches (2032 mm).

1008.1.1.1 Projections into clear width. There shall not be projections into the required clear width lower than 34 inches (864 mm) above the floor or ground. Projections into the clear opening width between 34 inches (864 mm) and 80 inches (2032 mm) above the floor or 63

ground shall not exceed 4 inches (102 mm).

Exception: Door closers and door stops shall be permitted to be 78 inches (1980 mm) minimum above the floor.

1008.1.2 Door swing. Egress doors shall be of the pivoted or side-hinged swinging type.

1008.1.3 Door opening force. The force for pushing or pulling open interior swinging egress doors, other than fire doors, shall not exceed 5 pounds (22 N). For other swinging doors, as well as sliding and folding doors, the door latch shall release when subjected to a 15-pound (67 N) force. The door shall be set in motion when subjected to a 30-pound (133 N) force.

The door shall swing to a full-open position when subjected to a 15-pound (67 N) force.

1008.1.3.1 Location of applied forces. Forces shall be applied to the latch side of the door.

1008.1.4 Special doors. Special doors and security grilles shall comply with the requirements of Sections 1008.1.4.1 through 1008.1.4.5.

1008.1.4.4 Access-controlled egress doors. The entrance doors in a means of egress in buildings with an occupancy in Group A, B, E, I-2, M, R-1 or R-2 and entrance doors to tenant spaces in occupancies in Groups A, B, E, I-2, M, R-1 and R-2 are permitted to be equipped with an approved entrance and egress access control system which shall be installed in accordance with all of the following criteria: 1. A sensor shall be provided on the egress side arranged to detect an occupant approaching the doors. The doors shall be arranged to unlock by a signal from or loss of power to the sensor.

2. Loss of power to that part of the access control system which locks the doors shall automatically unlock the doors.

3. The doors shall be arranged to unlock from a manual unlocking device located 40 inches to 48 inches (1016 mm to 1219 mm) vertically above the floor and within 5 feet (1524 mm) of the secured doors. Ready access shall be provided to the manual unlocking device and the device shall be clearly identified by a sign that reads “PUSH TO EXIT.� When operated, the manual unlocking device shall result in direct interruption of power to the lock-independent of the access control system electronics-and the doors shall remain unlocked for a minimum of 30 seconds.

4. Activation of the building fire alarm system, if provided, shall automatically unlock the doors, and the doors shall remain unlocked until the fire alarm system has been reset.

5. Activation of the building automatic sprinkler or fire detection system, if provided, shall automatically unlock the doors. The doors shall remain unlocked until the fire alarm system has been reset.

6. Entrance doors in buildings with an occupancy in Group A, B, E or M shall not be secured from the egress side during periods that the building is open to the general public.

1008.1.4.5 Security grilles. In Groups B, F, M and S, horizontal sliding or vertical security grilles are permitted at the main exit and shall be openable from the inside without the use of a 64key or special knowledge or effort during periods that the space is occupied. The grilles

shall remain secured in the full-open position during the period of occupancy by the general public. Where two or more means of egress are required, not more than one-half of the exits or exit access doorways shall be equipped with horizontal sliding or vertical security grilles.

1008.1.5 Floor elevation. There shall be a floor or landing on each side of a door. Such floor or landing shall be at the same elevation on each side of the door. Landings shall be level except for exterior landings, which are permitted to have a slope not to exceed 0.25 unit vertical in 12 units horizontal (2-percent slope).

Exceptions: 4. Variations in elevation due to differences in finish materials, but not more than 1/2 inch (12.7 mm).

5. Exterior decks, patios or balconies that are part of Type B dwelling units, have impervious surfaces and that are not more than 4 inches (102 mm) below the finished floor level of the adjacent interior space of the dwelling unit.

1008.1.6 Landings at doors. Landings shall have a width not less than the width of the stairway or the door, whichever is greater. Doors in the fully open position shall not reduce a required dimension by more than 7 inches (178 mm). When a landing serves an occupant load of 50 or more, doors in any position shall not reduce the landing to less than one-half its required width. Landings shall have a length measured in the direction of travel of not less than 44 inches (1118 mm).

Exceptions: 1. The minimum distance between horizontal sliding power-operated doors in a series shall be 48 inches (1219 mm).

1008.1.9 Door operations. Except as specifically permitted by this section egress doors shall be readily openable from the egress side without the use of a key or special knowledge or effort.

1008.1.9.1 Hardware. Door handles, pulls, latches, locks and other operating devices on doors required to be accessible by Chapter 11 shall not require tight grasping, tight pinching or twisting of the wrist to operate.

1008.1.9.2 Hardware height. Door handles, pulls, latches, locks and other operating devices shall be installed 34 inches (864 mm) minimum and 48 inches (1219 mm) maximum above the finished floor. Locks used only for security purposes and not used for normal operation are permitted at any height.

SECTION 1009 STAIRWAYS 1009.1 Stairway width. The width of stairways shall be determined as specified in Section 65

1005.1, but such width shall not be less than 44 inches (1118 mm). See Section 1007.3 for accessible means of egress stairways.

Exceptions: 1. Stairways serving an occupant load of less than 50 shall have a width of not less than 36 inches (914 mm).

3. Aisle stairs complying with Section 1028.

1009.3 Walkline. The walkline across winder treads shall be concentric to the direction of travel through the turn and located 12 inches (305 mm) from the side where the winders are narrower. The 12-inch (305 mm) dimension shall be measured from the widest point of the clear stair width at the walking surface of the winder. If winders are adjacent within the flight, the point of the widest clear stair width of the adjacent winders shall be used.

1009.4 Stair treads and risers. Stair treads and risers shall comply with Sections 1009.4.1 through 1009.4.5.

1009.4.1 Dimension reference surfaces. For the purpose of this section, all dimensions are exclusive of carpets, rugs or runners.

1009.4.2 Riser height and tread depth. Stair riser heights shall be 7 inches (178 mm) maximum and 4 inches (102 mm) minimum. The riser height shall be measured vertically between the leading edges of adjacent treads. Rectangular tread depths shall be 11 inches (279 mm) minimum measured horizontally between the vertical planes of the foremost projection of adjacent treads and at a right angle to the tread’s leading edge. Winder treads shall have a minimum tread depth of 11 inches (279 mm) measured between the vertical planes of the foremost projection of adjacent treads at the intersections with the walkline and a minimum tread depth of 10 inches (254 mm) within the clear width of the stair.

Exceptions: 4. Aisle stairs in assembly seating areas where the stair pitch or slope is set, for sightline reasons, by the slope of the adjacent seating area in accordance with Section 1028.11.2.

6. See Section 3404.1 for the replacement of existing stairways.

7. In Group I-3 facilities, stairways providing access to guard towers, observation stations and control rooms, not more than 250 square feet (23 m2) in area, shall be permitted to have a maximum riser height of 8 inches (203 mm) and a minimum tread depth of 9 inches (229 mm).

1009.4.3 Winder treads. Winder treads are not permitted in means of egress stairways except within a dwelling unit.

Exceptions: 1. Curved stairways in accordance with Section 1009.8.

2.

66 Spiral stairways in accordance with Section 1009.9.

1009.4.4 Dimensional uniformity. Stair treads and risers shall be of uniform size and shape.

The tolerance between the largest and smallest riser height or between the largest and smallest tread depth shall not exceed 3/8 inch (9.5 mm) in any flight of stairs. The greatest winder tread depth at the walkline within any flight of stairs shall not exceed the smallest by more than 3/8 inch (9.5 mm).

Exceptions: 1. Nonuniform riser dimensions of aisle stairs complying with Section 1028.11.2.

2. Consistently shaped winders, complying with Section 1009.4.2, differing from rectangular treads in the same stairway flight.

1009.4.5 Profile. The radius of curvature at the leading edge of the tread shall be not greater than 9/16 inch (14.3 mm). Beveling of nosings shall not exceed 9/16 inch (14.3 mm). Risers shall be solid and vertical or sloped under the tread above from the underside of the nosing above at an angle not more than 30 degrees (0.52 rad) from the vertical. The leading edge (nosings) of treads shall project not more than 11/4 inches (32 mm) beyond the tread below and all projections of the leading edges shall be of uniform size, including the leading edge of the floor at the top of a flight.

Exceptions: 1. Solid risers are not required for stairways that are not required to comply with Section 1007.3, provided that the opening between treads does not permit the passage of a sphere with a diameter of 4 inches (102 mm).

2. Solid risers are not required for occupancies in Group I-3 or in Group F, H and S occupancies other than areas accessible to the public. There are no restrictions on the size of the opening in the riser.

3. Solid risers are not required for spiral stairways constructed in accordance with Section 1009.9.

4. Solid risers are not required for alternating tread devices constructed in accordance with Section 1009.10.

1009.5 Stairway landings. There shall be a floor or landing at the top and bottom of each stairway. The width of landings shall not be less than the width of stairways they serve. Every landing shall have a minimum dimension measured in the direction of travel equal to the width of the stairway. Such dimension need not exceed 48 inches (1219 mm) where the stairway has a straight run. Doors opening onto a landing shall not reduce the landing to less than one-half the required width. When fully open, the door shall not project more than 7 inches (178 mm) into a landing. When wheelchair spaces are required on the stairway landing in accordance with Section 1007.6.1, the wheelchair space shall not be located in the required width of the landing and doors shall not swing over the wheelchair spaces.

1009.6 Stairway construction. All stairways shall be built of materials consistent with the types permitted for the type of construction of the building, except that wood handrails shall be permitted for all types of construction.

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1009.6.1 Stairway walking surface. The walking surface of treads and landings of a stairway shall not be sloped steeper than one unit vertical in 48 units horizontal (2-percent slope) in any direction. Stairway treads and landings shall have a solid surface. Finish floor surfaces shall be securely attached.

Exceptions: 1. Openings in stair walking surfaces shall be a size that does not permit the passage of 1/2-inch-diameter (12.7 mm) sphere. Elongated openings shall be placed so that the long dimension is perpendicular to the direction of travel.

SECTION 1012 HANDRAILS 1012.1 Where required. Handrails for stairways and ramps shall be adequate in strength and attachment in accordance with Section 1607.7. Handrails required for stairways by Section 1009.12 shall comply with Sections 1012.2 through 1012.9. Handrails required for ramps by Section 1010.8 shall comply with Sections 1012.2 through 1012.8.

1012.2 Height. Handrail height, measured above stair tread nosings, or finish surface of ramp slope, shall be uniform, not less than 34 inches (864 mm) and not more than 38 inches (965 mm). Handrail height of alternating tread devices and ship ladders, measured above tread nosings, shall be uniform, not less than 30 inches (762 mm) and not more than 34 inches (864 mm).

1012.3 Handrail graspability. All required handrails shall comply with Section 1012.3.1 or shall provide equivalent graspability.

1012.3.1 Type I. Handrails with a circular cross section shall have an outside diameter of at least 11/4 inches (32 mm) and not greater than 2 inches (51 mm). If the handrail is not circular, it shall have a perimeter dimension of at least 4 inches (102 mm) and not greater than 61/4 inches (160 mm) with a maximum cross-section dimension of 21/4 inches (57 mm). Edges shall have a minimum radius of 0.01 inch (0.25 mm).

1012.3.2 Type II. Handrails with a perimeter greater than 61/4 inches (160 mm) shall provide a graspable finger recess area on both sides of the profile. The finger recess shall begin within a distance of 3/4 inch (19 mm) measured vertically from the tallest portion of the profile and achieve a depth of at least 5/16 inch (8 mm) within 7/8 inch (22 mm) below the widest portion of the profile. This required depth shall continue for at least 3/8 inch (10 mm) to a level that is not less than 13/4 inches (45 mm) below the tallest portion of the profile. The minimum width of the handrail above the recess shall be 11/4 inches (32 mm) to a maximum of 23/4 inches (70 mm). Edges shall have a minimum radius of 0.01 inch (0.25 mm).

1012.4 Continuity. Handrail gripping surfaces shall be continuous, without interruption by newel posts or other obstructions.

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Exceptions: 3. Handrail brackets or balusters attached to the bottom surface of the handrail that do not project horizontally beyond the sides of the handrail within 11/2 inches (38 mm) of the bottom of the handrail shall not be considered obstructions. For each 1/2 inch (12.7 mm) of additional handrail perimeter dimension above 4 inches (102 mm), the vertical clearance dimension of 11/2 inches (38 mm) shall be permitted to be reduced by 1/8 inch (3 mm).

4. Where handrails are provided along walking surfaces with slopes not steeper than 1:20, the bottoms of the handrail gripping surfaces shall be permitted to be obstructed along their entire length where they are integral to crash rails or bumper guards.

1012.5 Fittings. Handrails shall not rotate within their fittings.

1012.6 Handrail extensions. Handrails shall return to a wall, guard or the walking surface or shall be continuous to the handrail of an adjacent stair flight or ramp run. Where handrails are not continuous between flights, the handrails shall extend horizontally at least 12 inches (305 mm) beyond the top riser and continue to slope for the depth of one tread beyond the bottom riser. At ramps where handrails are not continuous between runs, the handrails shall extend horizontally above the landing 12 inches (305 mm) minimum beyond the top and bottom of ramp runs. The extensions of handrails shall be in the same direction of the stair flights at stairways and the ramp runs at ramps.

Exceptions: 3. Handrails for alternating tread devices and ship ladders are permitted to terminate at a location vertically above the top and bottom risers. Handrails for alternating tread devices and ship ladders are not required to be continuous between flights or to extend beyond the top or bottom risers.

1012.7 Clearance. Clear space between a handrail and a wall or other surface shall be a minimum of 11/2 inches (38 mm). A handrail and a wall or other surface adjacent to the handrail shall be free of any sharp or abrasive elements.

1012.8 Projections. On ramps, the clear width between handrails shall be 36 inches (914 mm) minimum. Projections into the required width of stairways and ramps at each handrail shall not exceed 41/2 inches (114 mm) at or below the handrail height. Projections into the required width shall not be limited above the minimum headroom height required in Section 1009.2.

1012.9 Intermediate handrails. Stairways shall have intermediate handrails located in such a manner that all portions of the stairway width required for egress capacity are within 30 inches (762 mm) of a handrail. On monumental stairs, handrails shall be located along the most direct path of egress travel.

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sources Color Theory “Color Xperience.” JCT Coatings Tech, (2007): 44-45. rkus A. Maier. “Color Psychology: Effects of Perceiving Color on Psychological Functioning in Humans.” Annual Review of Psychology, 65 (2014): 95-120.

Meerwein, G., B. Rodeck, F. H. Mahnke. Color – Communication in Architectural Space.

Berlin: Birkhauser Verlag AG, 2007.

Crisis in Education Chuck, Elizabeth. “US in a ‘real state of crisis,’ education secretary says.’ NBC News.

October 2013. http://www.nbcnews.com/news/other/us-real-state-crisis-education secretary-says-f8C11354527 “The Education Crisis.” The Eli and Edythe Broad Foundation. Accessed December 2014. http://www. broadeducation.org/about/crisis_stats.html Lighting Chou, Chinmei, Li-Chen Chen. “Effects on different age levels of distinct light environment

design.” Journal of Industrial and Production Engineering, 30, no. 8 (2013): 488-494.

So, Albert T.P., L.M. Leung. “Indoor Lighting Design Incorporating Human Psychology.”

Architectural Science Review, 41 (2013): 113-124.

Precents “Augustus F. Hawkins High School/CSDA Design Group” Arch Daily. May 2013. http://www. archdaily.com/371349/augustus-f-hawkins-high-school-csda-design-group/ “Camino Nuevo High School/Daly Genik Architects.” Arch Daily. May 2011. http://www. archdaily.com/134218/camino-nuevo-high-school-daly-genik-architects/ “Metea Valley High School/DLR Group.” Arch Daily. May 2010. http://www.archdaily. com/61986/metea-valley-high-school-dlr-group/ School Facilities “Guidelines for School Facilities in Virginia’s Public Schools.” Virginia Department of Education (2013): 8-41 “Guideline for Square Footage Requirements in Educational Facilities.” Georgia Department

of Education (2012): 2-12 “School Library Programs: Standards and Guidelines for Texas.” Texas State Library

Archives Commission. March 2011. https://www.tsl.texas.gov/ld/schoollibs/sls/stand4. html 70

“Square Footage Recommendations.” North Dakota Department of Public Instruction.

Accessed December 2014. https://www.dpi.state.nd.us/finance/construct/sqfoot.pdf Small Schools Movement Lambert, Mary Beth, Catherine A. Wallach, and Brinton S. Ramsey. “The Other 3 R’s.”

National Staff Development Council 28, no. 4 (2007): 36-40.

Ravitz, Jason. “Beyond Changing Culture in Small High Schools: Reform Models and

Changing Instruction With Project-Based Learning.” Peabody Journal of Education 85,

no. 3 (2010): 290-312.

Wyse, Adam E., Venessa Keesler, and Barbara Schneider. “Assessing the Effects of Small

School Size on Mathematics Achievement: A Propensity Score-Matching Approach.”

Teachers College Record 110, no. 9 (2008): 1879-900.

Ayers, William, Michael Klonsky. “Chicago Renaissance 2010: The Small Schools Movement

Meets The Ownership Society.” Phi Delta Kappan 87, no. 6 (2006): 453-457.

Ready, Douglas D., Valerie E. Lee. “Choice, Equity, and the Schools-Within-Schools Reform.”

Teachers College Record 110, no. 9 (2008): 1930-1958.

Wallach, Catherine A. “The Complexities of Operating Multiple Small Schools in a High

School Conversion.” Peabody Journal of Education 85, no. 3 (2010): 264-275.

Devine, John. “The Discourse on Violence Prevention.” Annals New York Academy of Sciences 1036 (2004): 69-84.

Maroulis, Spiro, Louis M. Gomez. “Does ‘Connectedness’ Matter? Evidence From a Social

Network Analysis Within a Small-School Reform.” Teachers College Record 110, no. 9

(2008): 1901-1929.

Galletta, Anne, Jennifer Ayala. “Erasure and Survival: Creating a Future and Managing a Past

in a Restructuring High School.” Teachers College Record 110, no. 9 (2008): 1959-1985.

Ancess, Jacqueline, David Allen. “Implementing Small Theme High Schools in New York City:

Great Intentions and Great Tensions.” Harvard Educational Review 76, no. 3 (2006): 401-416.

Rios-Aguilar, Cecilia. “Measuring Funds of Knowledge: Contributions to Latina/o Students’

Academic and Nonacademic Outcomes.” Teachers College Record 112, no. 8

(2010): 2209-2257.

Epstein, Kitty Kelly. “Miracle School: A Child of the Civil Rights Movement.” Phi Delta Kappan

(2004): 773-776.

Hammack, Floyd M. “Off the Record—Something Old, Something New, Something

Borrowed, Something Blue: Observations on the Small Schools Movement.” Teachers

College Record 110, no. 9 (2008): 2067-2072.

Feldman, Jay, Anne O’Dwyer. “Patters in Student Perceptions of Start-Up and Conversion

Small High Schools.” Peabody Journal of Education 83, no. 3 (2010): 313-332.

Strike, Kenneth A. “Small Schools: Size or Community?” American Journal of Education 114,

no. 3 (2008): 169-190.

Iatarola, Patrice, Amy Ellen Schwartz, Leanna Stiefel, Colin C. Chellman. “Small Schools,

Large Districts: Small-School Reform and New York City’s Students.” Teachers College 71

Record 110, no. 9 (2010): 1837-1878.

McQuillan, Patrick J. “Small-School Reform Through the Lens of Complexity Theory: It’s

“Good to Think With.”” Teachers College Record 110, no. 9 (2008): 1772-1801.

Phillippo, Kate. “Teachers Providing Social and Emotional Support: A Study of Advisor Role

Enactment in Small High Schools.” Teachers College Record 112, no. 8 (2010): 2258 2293.

Semel, Susan F., Alan R. Sadovnik. “The Contemporary Small-School Movement: Lessons f

from the History of Progressive Education.” Teachers College Record 110, no. 9

(2008): 1744-1771.

Kafka, Judith. “Thinking Big About Getting Small: An Ideological Genealogy of Small-School Reform.” Teachers College Record 110, no. 9 (2008): 1802-1836.

Sustainability Gelfand, Lisa, Eric Corey Freed. Sustainable School Architecture. Hoboken, New Jersey:

John Wiley & Sons, Inc., 2010.

National Park Service. Principles of Sustainable Design. Denver: United States Department of

the Interior, 1993.

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