ENVIRONMENTAL PORTFOLIO
SUSTAINABLE SYSTEMS KHALED AL BARGHOUTHI I WINTER 22 INSTRUCTOR MARY POLITES
CONTENTS
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EC3
6 SECTION 2
CARBON & ECOLOGICAL FOOTPRINT 4 SECTION 1 | BIO 6 SECTION 3
INTEFRATION DESIGN ANALYSIS 8 SECTION 4 | REGIONAL & ECONOMIC RESEARCH 12 SECTION 5 | NARRATIVE ON DESIGN 13 SECTION 6 | CLIMATE CONSULTANT 17 SECTION 7 | SQUARE FOOT COST ESTIMATOR 18 SECTION 8 | ECONOMY 21 SECTION 9 | TALLY LIFE CYCLE ANALYSIS 25 SECTION 10 |
28 SECTION 11 | COTE SUPER-SPREADSHEET 48 SECTION 12 | BIBLIOGRAPHY
“An idea is salvation by imagination” -
BIO
Khaled Al Barghouthi
LOCATION
Fintas, Kuwait
EDUCATION
A. D. Architecttural Technology (2020)
St.Clair College - Windsor, Ontario, Canada, Masters in Architecture (2023)
Boston Architectural College
EXPERIENCE
Architectural designer (2 yrs)
Dropped on Drouillard (2019)
INTRESTS
Parrots, Traveling, Tea
SUSTAINABILITY INTRESTS
My name is Khaled Al Barghouthi i am from Kuwait, Innovative Architectural Designer, I am very passionate about designing with nature, taking in all the different elements the site provides, focusing on functionality and sustainability.
PROFESSIONAL EXPERIENCE
I began practicing Architecture as a freelancer after i graduted in 2020, My experience was primerly with outdoor spaces such as roofs/yards mostly.
Currently i work at Ahmed AlShamali Engineering Consultancy based in Kuwait. handle residential work whether it be existing or new homes, I work closely with clients, I have good communication skills, Fluent in both Arabic & English.
Frank Lloyed Wright
4 ENVIRONMENTAL PORTFOLIO | KHALED
BARGHOUTHI SECTION 1 | BIO
AL
5 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
CARBON & ECOLOGICAL FOOTPRINT
MY CARBON FOOTPRINT
As you can see my carbon footprint is quiet outragouse due to the fact we dont have any other meens of transpoort, almost everyone one has a car and its their method of transportaion becasue they countrys public transportaion is realy bad and unrelaible.
The other reason why my emmisions are high is becasue i live quite far from the city roughly 70kms is a days trip to work and back.
MYECOLOGICAL FOOTPRINT
I think i may need an extra planet just incase, all jokes aside i was really shocked when doing these, it never occured to me that i am living of off 5 earths, thats just outraghouse.
I’m basically living of off 81,000 square meters of earths area that is consumed by me alone.
6 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 2 | CARBON & ECOLOGICAL FOOTPRINT
INTEGRATION DESIGN ANALYSIS
NEWTOWN CREEK
LINEAR BRIEF
As programing is developed it provides ease of access to the site. The sectioion discusses methods for controlling stormwater surges, keeping the creek clean. In addition, it highlights the creek site and street.
7 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 3 | INTEFRATION DESIGN ANALYSIS
INTEGRATION DESIGN ANALYSIS
NEWTOWN CREEK
BIOSWALE CROSS SECTION
CSR OUTFLOW NETING TRASH TRAP
8 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 3 | INTEFRATION DESIGN ANALYSIS
REGIONAL & ECONOMIC RESEARCH NEWTOWN CREEK
AREA STUDY - 2021
For me once I get a project and begin the design process, it’s easy to forget where the site truly is situated and the culture that surrounds it.
The diagram represents the area study in various scales.
NYC
9 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
QNS
Green Spaces Water Edges Site Ferry Path
Sewage outfall Boats/Canoes Site Access 1,000 ft radius SECTION 4 | REGIONAL & ECONOMIC RESEARCH
BKLYN
2021
1609
REGIONAL & ECONOMIC RESEARCH NEWTOWN CREEK
Continuing on the area study, here the focus is on the same area 412 years ago what the site used to be, and the ecosystem present at the time and identifying the anatomy of the saltmarsh.
As the maps overlap it showcases how the water shifts and depths change which brings us to the topic of flooding.
The area is prone to flooding. The overlapping maps showcased displays this. And due to the shifting demographic, it is causing storm water surge.
6
Green Spaces Water Edges
Water Depth Water Flow
Green Spaces Water Edges
Water Depth Water Flow
1 2 3 4 5 6
5
Site 1 2 3 4
Site 1 2
1 2 3 4 5 6
Subtidal Mud at Low Marsh High Marsh Upper Bound Upland
1609/ 2021
1609/ 2021
10 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
Subtidal Mud at Low Marsh High Marsh Upper Bound Upland SECTION 4 | REGIONAL & ECONOMIC RESEARCH
Newtown Creek are subject to flood hazard, as waters from the East River are brought inland by the Creek.
SECTION 4 | REGIONAL & ECONOMIC RESEARCH
Hurricane Sandy Inundation in the Newtown Creek Area 57%
Bike Routes Railroad
On October 29, 2012, Hurricane Sandy demonstrated the area’s vulnerability, with more than 350 acres of land along the Creek inundated by the storm.
Wahle Creek
Residential Commercial
17% 21% 5%
Bike Routes Railroad
17% 21% 5%
Site Industrial Transport 57%
Our Site is directly on the low-lying lands on either side of Newtown Creek are subject to flood hazard, as waters from the East River are brought inland by the Creek.
Our Site is directly on the low-lying lands on either side of Newtown Creek are subject to flood hazard, as waters from the East River are brought inland by the Creek.
On October 29, 2012, Hurricane Sandy demonstrated the area’s vulnerability, with more than 350 acres of land along the Creek inundated by the storm.
On October 29, 2012, Hurricane Sandy demonstrated the area’s vulnerability, with more than 350 acres of land along the Creek inundated by the storm.
Hurricane Sandy Inundation in the Newtown Creek Area
Wahle Creek
Residential Commercial
Bike Routes Railroad Wahle Creek
Site Industrial Transport 57%
Our Site is directly on the low-lying lands on either side of Newtown Creek are subject to flood hazard, as waters from the East River are brought inland by the Creek.
17% 21% 5%
Site Industrial Transport
Site Industrial Transport
Wahle Creek
Residential Commercial
Routes Wahle Creek
11 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
Residential Commercial Bike
Hurricane Sandy Inundation in the Newtown Creek Area
On October 29, 2012, Hurricane Sandy demonstrated the area’s vulnerability, with more than 350 acres of land along the Creek inundated by the storm.
Hurricane Sandy Inundation in the Newtown Creek Area
NARRATIVE ON DESIGN FOR EQUATABLE COMMUNITIES
DESIGN PRECIS
Based on my site analysis of the area, the folding and pollution has really impacted the ecosystem and taken it to its knees, to the point where if you where to walk past it you wouldn’t think anything is living in that water there’s even signs that warn you to not fish due to the toxicity of the environment.
To begin what I am showcasing through my design is the sites dormant potential, using the site as a platform for people to interact with, and further their knowledge of the creek’s native condition.
All the while taking advantage of the creek’s natural ability to restore itself to enhance its recreational use as an educational center.
This knowledge is provided through a visitor center that deconstructs the living shoreline on-site and is connected by paths that guide you through the creek’s various phases.
By doing so we can move forward to a better healthier environment, improving the quality of life that will continue to inspire and set an example of what is possible.
LIVING SHORLINE
gentle slope from land to water
wildlife has easy access to water from land
diverse wildlife along water’s edge
not only do living shorelines defend land from destructive waves,but they also provide crucial habitat for fish and wildlife
steep dropoff from land to water
erosion can occur behinde the bulckhead littile to no wildlife along water’s edge
“hard” infrastructure such as retaining walls abruptlysevers the ecological connection between the coast and water
RETAINING WALL SECTION 5 | NARRATIVE ON DESIGN 12 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
CLIMATE CONSULTANT PSYCHROMETRIC CHART
IMPLAMENTAION
Newtown Creeks design initiative represents multiple design strategies that are listed below in the psychometric chart.
The most impactful of these strategies are as follows:
- Cooling and Dehumidification 6.7%
- Natural Ventilation Cooling 12.9%
13 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 6 | CLIMATE CONSULTANT
CLIMATE CONSULTANT SUN SHADING CHARTS
FORCASTING
In the following diagrams are the ideal sun shading angles generated with the climate constant consultant program for my project facades project located in Queens, New York, USA.
STRUCTURE NORTH FACADE
The North facade of the building does not require sun shading because there is barely any sunlight exposure, as depicted in the chart.
STRUCTURE SOUTH FACADE
The South facade recives the most sun and needs the most intervention.
To block the hot summer sun rays from the south facade, 53 degrees of horizontal shading is required.
14 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 6 | CLIMATE CONSULTANT
CLIMATE CONSULTANT SUN SHADING CHARTS
FORCASTING
During the summer months from June to December, these charts provide a good representation of shading requirements.
STRUCTURE EAST FACADE STRUCTURE WEST FACADE
In order to block the hotrays, horizontal shading devices at a 17 degree angle must be installed on the east elevation.
Blocking the hot sun rays from the west facade will require 10 degree vertical shading.
15 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 6 | CLIMATE CONSULTANT
CLIMATE CONSULTANT DESIGN STRATIGIES
DESIGN STRATEGY 1 - COOLING AND DEHUMIDIFICATION
During the Winter the room is closed. Windows and doors are closed and no, or at least very little, outside air enters the room. The air is continuously circulated through the dehumidifier, and gradually the humidity is condensed into a water container with no resulting heat loss to the outside.
Quite the opposite of the traditional method of heating and ventilation.
In addition to the obvious advantages of a reduced energy consumption, the dehumidification process is much easier to control as long as the room stays closed.
DESIGN STRATEGY 2 - NATURAL VENTILATION COOLING
The site is situated on Newtown Creek, an extension of the East River off the coast of Manhattan, where it is exposed to winds that help with cooling and ventilation.
The large windows on the south facade facing Newtown Creek take advantage of these winds and help keep the temperature at a comfortable rate while controlling the amount of sunlight entering.
16 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 6 | CLIMATE CONSULTANT
SQUARE FOOT COST ESTIMATOR
RS MEANS COST ESTIMATOR
ANALYSIS
Based on my estimations, I found that my project is going to cost about $206 per square foot, which is an affordable price for a project of this scale, getting this price might be a function of the size of the project, the materials are chosen, and even the way it is designed.
Architects and designers can make better decisions and correct better projects by using tools like this website in the design process to get an idea of approximate costs.
17 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 7 | SQUARE FOOT COST ESTIMATOR
DESIGN FOR ECONOMY CALCULATIONS - CIRCULATION ANALYSIS
Total Circulation Area 3,000 Sq. Ft Total Net Area 4,200 Sq. Ft A total of 71.4% of the Visitor Center’s content is circulated.
I realized that the circulation area cannot be moved to the exterior of the building after analyzing the building layout and its circulation, as the site’s location is near Newtown Creek, which is a place where weather conditions vary significantly from day to night.
GROUND FLOOR PLAN
18 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
SECTION 8 | ECONOMY
DESIGN FOR ECONOMY
19 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI 9 10 11 8 9 10 11 8 DAY TIME NIGHT TIME SECTION 8 | ECONOMY Very Active L/N Active Moderate Active Light Active Least Active
USER
HEAT MAP -
INTERACTION
DESIGN FOR ECONOMY CONSTRUCTION MATERIALS
COST-EFFECTIVE STRATEGIES INFORMED
OVERALL DESIGN.
• Glass – $8.50 per square foot
The quantity of the order and the size of your glass piece being the two most obvious factors.
• Steel – $18.50 per square foot
Supply and demand affect the price of steel, it’s about understanding how much steel is available versus how much is being bought on a large scale.
The structure is mainly built with curtainwall, and the south façade is completely curtainwall construction. They are compromised from of cost-effective materials which can be implemented in structures of large sizes for a range of budgets. Glass and aluminum, for example, are inexpensive to source, yet provide structural strength and visual appeal.
Furthermore, it acts like a buffer and an insulator, Buildings that have curtain walls will be easier (and more affordable) to maintain, and will last longer in general, as they have this additional protective shield build in.
• Concrete – $6.035 per square foot
The factors are the materials, including the sand, cement, and water, which are a few ingredients whose prices fluctuate. If you see a rise in price of these materials, then it will influence your concrete pricing.
20 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
SECTION 8 | ECONOMY
TALLY LIFE CYCLE ANALYSIS RESULT PER LIFE CYCLE STAGE
LIGHT CONCRETE
Considering the volume of concrete produced and the number of concrete structures built, the problem of the associated environmental impact forms a significant part of the entire global problem of sustainable development.
21 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 9 | TALLY LIFE CYCLE ANALYSIS
TALLY LIFE CYCLE ANALYSIS RESULT
PER LIFE CYCLE STAGE
LIGHT CONCRETE
The concrete used in the structure is smog-eating. wich helps clean the surrounding air and there for lowring harmfull air particles such as PM25. Furthermore no maintinace is required.
22 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 9 | TALLY LIFE CYCLE ANALYSIS
TALLY LIFE CYCLE ANALYSIS RESULT PER LIFE CYCLE STAGE
DOMESTIC HARDWOOD
The life cycle of a wood product begins with the germination of a tree seed, and continues through the growth and harvest of the tree and the manufacture and use of the product.
As the charts indicate alot of the products life cycle is completly under the mercy of maintinace, keeping up with maintaing wood will help prolong its usage.
23 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 9 | TALLY LIFE CYCLE ANALYSIS
TALLY LIFE CYCLE ANALYSIS RESULT PER LIFE CYCLE STAGE
DOMESTIC HARDWOOD
As the charts indicate alot of the products life cycle is completly under the mercy of maintinace, keeping up with maintaing wood will help prolong its usage.
24 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 9 | TALLY LIFE CYCLE ANALYSIS
STRATEGY
To lower the Conservation EC estimate, I swapped out high-density concrete and got more environmentally friendly alternatives, while still maintaining the structural integrity of the structure and the basis of design.
EC3
25 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 10 | EC3
RESIDENTIAL MID-RISE BUILDING RESULTS
LIGHT CONCRETE
There is a wide range of embodied carbon values for ready mix concrete; the highest and lowest ECs are the six products displayed below, Concrete should not be used in construction if it can be avoided/ substituted for.
EC3
26 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 10 | EC3
DOMESTIC HARDWOOD
As shown in the charts, domestic wood structure material has embodied carbon values that are found to be well above the achievable range for most manufacturers, and are often close to reaching maximum levels; wood is a highly recommended material in construction.
EC3
27 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 10 | EC3
architects information on the holistic sustainable performance or to Ten award, this of project older. improve the tool,
INTRODUCTION
Development team
Helena Zambrano, AIA (Project Lead)
Mahlum Architects, Portland, OR
Corey Squire, AIA Bora Architects, Portland, OR
Tate Walker, AIA OPN, Madison, WI
Z Smith, FAIA EDR, New Orleans, LA
Billie Faircloth, FAIA
KieranTimberlake, Philadelphia, PA
Janki A Vyas, AIA KARMA co/lab, Philadelphia, PA
Ryan Welch
Basic Project Information
KieranTimberlake, Philadelphia, PA
Building Program
Program Breakdown(?) % of Building Area
Building Program #1 Recreation (Visitor Center) 55%
Building Program #2 Office 40%
Building Program #3 Self Storage 5% Building Program #4 Building Program #5 Building Program #6 Building Program #7 Building Program #8 Total must
Step 2: Review your benchmarks to evaluate your projects performance.
Transportation
Additional Building Information
user-defined
For COTE Top entered above
Project Name Newtown Creek Proposed Pool Total Annual 25,939 kg-CO2e / yr
Project Type New Construction Site Environment(?) Rural
Previously Developed Site Yes Is the firm an AIA 2030 Signatory No
Reported in the AIA DDx No
Project Address 53rd Ave, Queens, NY, USA Total Annual per Occupant 1,729 kg-CO2e / occupant / yr apt., suite, etc. N/A City New York Water State NE Total Annual Water Use 42,000 gal / yr Zip Code 11101 WUI - Water Use Intensity (Program-based) 6.3 gal / sf / yr User-Defined Benchmark Source
Third party rating system 1 None
Third party rating system 2 None
Third party rating system 3 None If other, specify N/A
ASHRAE Climate Zone Other (Link) WUI - Water Use Intensity (User-Defined) 10 gal / sf / yr Other Climate Zone(?): 4 Water Use per Occupant 2,800 gal / occupant / yr Total Building Area(?) 4,200 Gross sf Site Area(?) 160,740 sf Energy Regularly occupied space(?) 2,000 sf Total Annual Energy Use 378,000 kBtu / yr Avg daily occupancy(?) 15 People EUI - Energy Use Intensity (Program-based) 73.9 kBtu / sf / yr Peak occupancy(?) 25 People EUI - Energy Use Intensity (User-defined) 90.0 kBtu / sf / yr Use ZeroTool designated EUI FTEs(?) 10 People Energy Use per Occupant 25,200 kBtu / occupant / yr
completion year
COTE SUPER-SPREADSHEET
/ occupant / yr sf/occupant - Avg. 280 COTE Top 10 sf/occupant - Peak 168 Electric Lighting Value Annual hours of operation 4,380 Lighting Power Density 1.05 W / sf User-Defined Benchmark Source Lighting Power Density (User-Defined) 1.55 W / sf Building Program Program Breakdown(?) % of Building Area Building Program #1 Recreation (Visitor Center) 55% Building Program #2 Office 40% Building Program #3 Self Storage 5% Building Program #4 Building Program #5 Building Program #6 Building Program #7 Building Program #8 Total must equal 100% 100% Additional Building Information Project Type New Construction Site Environment(?) Rural Previously Developed Site Yes Is the firm an AIA 2030 Signatory No Spreadsheet! Step 1: Fill out the below basic information of your project This first page assigns benchmarks based on building-specific, national data for the project to be compared against. If a user-defined benchmark is present, the national benchmarks will be overridden. For COTE Top Ten energy reductions, the benchmark should be user-defined using Architecture 2030's Zero Tool. Optional user-defined benchmarks entered above as a way of tracking any specific benchmarking research that the team conducted. architects information on the holistic sustainable performance or to award, this project the tool, Step 2: Review your benchmarks to evaluate your projects performance. Basic Project Information Transportation Project Name Newtown Creek Proposed Pool Total Annual 25,939 kg-CO2e / yr Project Address 53rd Ave, Queens, NY, USA Total Annual per Occupant 1,729 kg-CO2e / occupant / yr apt., suite, etc. N/A City New York Water State NE Total Annual Water Use 42,000 gal / yr Zip Code 11101 WUI - Water Use Intensity (Program-based) 6.3 gal / sf / yr User-Defined Benchmark ASHRAE Climate Zone Other (Link) WUI - Water Use Intensity (User-Defined) 10 gal / sf / yr Other Climate Zone(?): 4 Water Use per Occupant 2,800 gal / occupant / yr Total Building Area(?) 4,200 Gross sf Site Area(?) 160,740 sf Energy Regularly occupied space(?) 2,000 sf Total Annual Energy Use 378,000 kBtu / yr Avg daily occupancy(?) 15 People EUI - Energy Use Intensity (Program-based) 73.9 kBtu / sf / yr Peak occupancy(?) 25 People EUI - Energy Use Intensity (User-defined) 90.0 kBtu / sf / yr Use ZeroTool designated FTEs(?) 10 People Energy Use per Occupant 25,200 kBtu / occupant / yr Project completion year N/A Explanation Annual days of operation(?) 365 Days Operational Carbon Emissions Avg. daily hours of operation(?) 12 hours Total Annual Carbon Emissions 33,600 kg-CO2e / yr Total Construction Cost(?) 2,000,000 USD Carbon Use Intensity (Program-based) 7.1 kg-CO2e / sf / yr User-Defined Benchmark FAR 0.03 Carbon Use Intensity (User-Defined) 8 kg-CO2e / sf / yr Cost/sf 476.19 $ Carbon Emissions per Occupant 2,240 kg-CO2e / occupant / yr sf/occupant - Avg. 280 COTE Top 10 sf/occupant - Peak 168 Electric Lighting Value Annual hours of operation 4,380 Lighting Power Density 1.05 W / sf User-Defined Benchmark Lighting Power Density (User-Defined) 1.55 W / sf
Program Program Breakdown(?) % of Building Area
Program #1 Recreation (Visitor Center) 55% Building Program #2 Office 40% Super Spreadsheet! Step 1: Fill out the below basic information of your project This first page assigns benchmarks based on building-specific, national data for the project to be compared against. If a user-defined benchmark is present, the national benchmarks will be overridden. For COTE Top Ten energy reductions, the benchmark should be user-defined using Architecture 2030's Zero Tool.
entered above as a way of tracking any specific benchmarking research that the team conducted.
Project
N/A Annual days of operation(?) 365 Days Operational Carbon Emissions Avg. daily hours of operation(?) 12 hours Total Annual Carbon Emissions 33,600 kg-CO2e / yr Total Construction Cost(?) 2,000,000 USD Carbon Use Intensity (Program-based) 7.1 kg-CO2e / sf / yr User-Defined Benchmark Source FAR 0.03 Carbon Use Intensity (User-Defined) 8 kg-CO2e / sf / yr Cost/sf 476.19 $ Carbon Emissions per Occupant 2,240 kg-CO2e
Building
Building
Optional user-defined benchmarks
equal 100% 100%
This first page If
a
28 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
INTEGRATION
Measure 1 - Design for Integration
Explanations
Inputs: Describe your project's big idea on integrating design and sustainability in the green cell below. Look at chart below for inspiration. HOLISTIC SUSTAINABILITY 1 - What is the big idea?
Sustainability strategies can affect and involve multiple COTE measures. As an example: think how many measures are influenced by carbon metrics? The chart below represents the interconnectivity of the COTE measures.
COMMUNITY
Place based. ECOLOGY
Aquifer/watershed, shared resource.
Climate appropriate landscape. Rainwater harvesting. WATER
Financial resilience. Economic benefits of biophilic design. Low maintenance design. Water savings, water independence.
District systems. Bioclimatic and passive design.
what I am showcasing through my design is the site's dormantpotentia, usimg the site as a platform for the public to interact with and further their knowledge of the creek's native condition and its natural restoration ability that will enhance its recreational usage.
ECONOMY
Energy savings from transportation and treatment of water.
Carbon emissions from transportation. Air quality. Connection to nature. Water quality.
Locally sourced materials. Environmentally conscious material extraction, mfg., transp. and disposal.
Social equity is a major component of resilience.
Climate change: fires, earthquakes, floods, ocean rise.
Aquifer conservation, surface water quality and enjoyment, watershed protection.
Water resilience. Flooding, precipitation changes, drought.
User groups, profiles, heat maps. Biodiversity. Mindful presence of water.
Life cycle cost, Life cycle analysis.
Operational costs and costs from productivity of building occupants.
Durability and maintenance of materials.
ENERGY
Daylighting as energy conversation measure. WELLNESS
Embodied carbon of materials. Safer material selection, material transparency. RESOURCES
Right sizing, flexibility for growth and change.
Replicable, cost effective strategies.
Carbon's role in climate change. Passive survivability. Embodied carbon savings from adaptive reuse. CHANGE
Measurement and verification. Tracking health impacts. Future adaptability. Post-occupancy evaluations. DISCOVERY
29 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
Design for Equitable Communities
COMMUNITY Calculators: Enter your values into the yellow cells Reasonable Ranges Sources 1 - Walk / Transit / Bike Score Range Walk Score Transit Score Range Bike Score Walk Score 0% - 24% Minimal Transit 0% - 49% Somewhat Bikeable Walk Score 83% 25% - 49% Some Transit 50% - 69% Bikeable Transit Score 74% 50% -69% Good Transit 70% - 89% Very Bikeable Bike Score 49% 70% - 89% Excellent Transit 90% - 100% Biker's Paradise 90% - 100% Rider's Paradise 2 - Community Engagement Type Arnstein's Manipulation 0 0% Poor Community Engagement Level Informing Therapy 1 14% Informing 2 29% Community Engagement Score 29% Consultation 3 43% Baseline Placation 4 57% Partnership 5 71% Better Delegation 6 86% Citizen Control 7 100% Best! 3 - Simple Transportation Carbon Calculator kgs of CO2e/Occupant Reference Average Proposed Baseline Unit > 1800 Baseline Average Average Daily Occupancy 200 1350 - 1800 Getting there Average No. of occupants commuting by single-occupancy gas vehicle(?) 100 900 - 1350 Better Percent of occupants commuting by single-occupancy vehicle 50% 76% Weekly Avg. 450 - 900 High Performing Share Average round trip commute 20 25.4 Miles 0 - 450 Very High Performing Average Days Commuting per week 5 5 Days Weeks commuting per year 50 50 weeks *Please Average Car Fuel Economy(?) 22.4 24.9 mpg Average carbon emission per gallon of gasoline 8.89 8.89 kg-CO2e / gal Annual transportation carbon per occupant 992 1,729 kg-CO2e / occupant / yr Annual transportation carbon 198,371 345,847 kg-CO2e / yr Percent reduction over the baseline 42.6%
compares your to Use a to commuting the use the average). Though projects, the results for to and "A Ladder was the engagement during process? several community the US. more Car Dependent Mostly Car Dependent Somewhat Walkable Very Walkable Walker's Paradise Score 30 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
ECOLOGY
My design concept is in line with “regeneration and growth.” This is due to the site’s pre-developed condition; it was very polluted and hazardous.
The ecosystem was in a very dire state as there were signs indicating “fish not safe to eat” and “don’t fish”.
There were opportunities in its location since it was once known as a “salt marsh,” which was why regenerating the dormant potential in the marsh was the driving force to bring it back and make an impact in the local community.
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ECONOMY
Our project is designed so that community members can benefit from it, and so we want to make it possible and easy to maintain so they can take advantage of it.
By making use of local materials, we minimize costs as well as improve insulation and build efficiency, in addition to improving the building’s operation and maintenance. The more efficient the building, the more it will benefit the community as well.
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ENERGY
The south extending to the East & West are completly curtain wall systems, so we can evaluate compressed air for leaks:
Leaks can be a major source of wasted energy, and correcting them can help realize significant immediate savings. Reports indicate that leaks can lead to a 20 to 30 percent loss of a compressor’s output. They can also diminish the effectiveness of your equipment.
33 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
WATER 34 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
WATER SECTION 11 | COTE SUPER-SPREADSHEET
As saltmarshes are natural sponges of the oceans, The native plants present on-site naturally filter the Creek’s water.
The design encapsulates and empowers the natural, built environment, promoting native vegetation growth.
DESIGN WATER APPROACH 35 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
WATER 36 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
WATER SECTION 11 | COTE SUPER-SPREADSHEET
The Creek sadly is easily overwhelmed with stormwater runoff due to the increasing neighborhoods in the area, to help combat and reduce this rising pressure, Bioswales have been implemented in the landscape to help decrease stormwater surges.
Furthermore, the site is located on the edge of the Creek, where an outflow is present; this was a perfect opportunity to help reduce the debris that enters the Creek (even though we are implementing methods such as bioswales to help lower the chances of stormwater surges).
A “CSR netting trash trap” is executed, catching all debris entering the Creek.
DESIGN WATER APPROACH & IMPLEMENTAIONS 37 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI
WELLNESS
In designing the project, each space in this building took into account the human experience and its relation to the outdoors, with a clear visual connection and easy access to the outdoors.
As well as providing natural sunlight throughout the building, there are operable windows to create indoor/outdoor eXperiences in certain areas.
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RESOURCES
Buildings should be constructed using local materials that can withstand local weather, and increase their overall efficiency
Despite the building being primarily made of concrete, other materials were chosen to help reduce the building’s carbon footprint after it was constructed.
The building was built on a parking lot, with the asphalt being sent to landfills. However, the dirt dug up from the site was used to fill other areas of the building.
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RESOURCES
My understanding of resources has demonstrated the presence of aesthetic sense in a design, and hence, defines the practicability of the structure.
The use of building material while designing a structure is symbolic of its existence in the field of architectural visualization.
While getting a grasp on what is really the core of the structure.
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CHANGE
Even though it was designed to accommodate different spaces and services, the building will survive for a very long time.
In the future, when this building is no longer needed, the materials can be repurposed in other projects.
Local and regional hazards were considered when building this building.
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DISCOVERY
Considering this project was never completed and occupied, I filled out this sheet based on what I would have done if it had actually been completed and occupied.
Studying post-occupancy helps designers learn from our failures and successes, which helps them design better projects in the future.
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DISCOVERY 43 ENVIRONMENTAL PORTFOLIO | KHALED AL BARGHOUTHI SECTION 11 | COTE SUPER-SPREADSHEET
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SUMMARY
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RESULTS
Understanding My Building’s Carbon Footprint (buildings in general) will help reduce waste, reduce cost which in turn will improve a business’s bottom line.
In this way, I have been able to identify the inefficiencies within a business in terms of energy and raw material consumption.
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BIBLIOGRAPHY
1. Climate Consultant (Version 6). (2022). [Climate Consultant is a graphic-based computer program that helps architects, builderss, contractors, homeowners, and students understand their local climate.] Society of Building Sience Educators. https://sbse.org/resources/climate-consultant
2. Houshold Carbon Footprint Calculator. (2022). U.S. Environmental Protection Agency. https:www3.epa.gov/carbon-footprint-calculator/
3. How many planets does it take to sustain your lifestyle? (2022). Footprint Calculator. https:www,footprintcalculator.org/
4. Why do we need dehumidification? (2022). https://www.dantherm.com/gb/technologies/mobile-dehumidification/why-do-we-need-dehumidification/
5. RSMEANS Data: Construction Cost Estimating Software. RSMeans Construction Cost Database. Accessed April 17, 2022. https://www. rsmeans.com/.
6. Tally®.Tally® | Revit | Autodesk App Store. Accessed April 26, 2022. https://apps.autodesk.com/RVT/en/Detail/ Index?id=3841858388457011756&utm_ medium=website&utm_source=archdaily.com.br.
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