UNIVERSITY PROJECTS
FOLIO VOL. 01
PORTFOLIO VOL.03
EHSANOMID
//2008-11
Ehsan Ghaffarian Omid Richmond Hill, Ontario
• • • • •
(647) 461 6049
Professional Summary
Ehsan.omid@Gmail.com
Experienced design architect and interior design expert, adept at merging creative visions with technical prowess Demonstrated Architectural Software proficiency through tailored sales presentations and continuous industry learning. Proven record in translating design concepts into architectural and interior reality. Accomplished in space planning, material selection, and regulatory compliance. Notably, he led the design and development of master plans for universities including Guangzhou University of Technology (old and new campuses), Guangdong Baiyun University (BaiyunU), and Guangzhou University Songtian College. References can attest to commitment and excellence.
Feb 2023- Aug 2023 Technical Trainer SolidCAD, Ontario, Canada •
Product Expertise
•
Sales Presentations
•
Client Consultation
Developed a deep understanding of the Solid CAD software and its features. Stay updated on software updates, new releases, and advancements in the field. Conducted product demonstrations for potential clients to showcase the software’s capabilities and benefits. Tailored presentations to address specific client needs and industries. Engaged with clients to understand their design and engineering requirements. Provided informed recommendations on how the Solid CAD software can address their specific needs.
Jan 2015 – Jan 2023 Design Architect (Technologist) Simplex Architects & Associates SDN BHD, Kuala Lumpur, Malaysia •
Conceptualization and Ideation
•
Space Planning
•
Design Development
•
Design Documentation
•
Coordination and Collaboration
Generated innovative design concepts and ideas for projects. Collaborated with clients and project stakeholders to understand their vision and requirements. Translated design goals into tangible architectural concepts. Developed functional and efficient space plans that aligned with the project’s purpose and requirements. Considered factors such as flow, circulation, zoning, and user experience within the space. Created detailed architectural drawings, and models to illustrate design concepts. Incorporated structural, mechanical, and electrical systems into the design. Refined and evolved the design based on feedback from stakeholders and regulatory considerations. Prepared detailed and accurate design documentation, including drawings, specifications, and design guidelines for construction teams. Collaborated with other architects, designers, engineers, and consultants to ensure a cohesive and integrated design solution. Coordinated with structural, mechanical, and electrical teams to ensure compatibility with the overall design. I
•
Regulatory Compliance
Ensured that designs comply with local building codes, zoning regulations, and other legal requirements. Obtained the necessary permits and approvals for the proposed design.
Jan 2011 – Dec 2014 Interior Architect VSMS Design, Kuala Lumpur, Malaysia •
Conceptualization and Visualization
•
Space Planning and Design
•
Material and Finishes Selection
•
Client Presentations
•
Technical Drawings and Documentation
•
Detailing and Customization
•
Site Visits and Supervision
Generated creative design concepts and mood boards aligned with project goals. Used visualization tools to illustrate design ideas to clients and stakeholders. Developed functional and aesthetically pleasing interior designs for various spaces. Created detailed space plans and layout designs that optimize space utilization. Selected suitable materials, finishes, colors, and textures for aesthetic enhancement. Considered durability, sustainability, and overall design cohesion. Selected appropriate furniture, fixtures, lighting, and accessories that complement the design. Created compelling presentations that communicated design concepts to clients. Prepared accurate technical drawings and construction documents for contractors. Ensured compliance with building codes, accessibility standards, and safety regulations. Developed custom design solutions for unique spatial requirements. Monitored design implementation during site visits and addressed construction issues.
Education Master of Project Management
Limkokwing University of Creative Technology, Cyberjaya, Malaysia, Nov 2012 – Dec 2015
BASc in Architectural Science
Curtin University of Technology, Cyberjaya, Malaysia, Feb 2008 – Aug 2011
Certificates
Accredited Autodesk Professional (Revit Architecture) Accredited Autodesk Professional (AutoCAD) Accredited Autodesk Advanced Professional (3D Studio MAX)
Computer Skills •
Autodesk
•
Visualization
•
Adobe
Revit Architecture, AutoCAD, FormIt, Forma, 3D Studio Max, Vray, Corona, Lumion, Twinmotion Photoshop, Illustrator, InDesign, Lightroom, After Effects, XD II
Contents.
P R O J E C T: D E S I G N 3 0 2
V
• UNIT OUTLINE
P. 0 1
• S I T E L O C AT I O N
P. 0 2
• CONCEPT
P. 0 3
• SUN STUDY
P. 0 4
• MASTER PLAN ZONING
P. 0 5
• MASTER PLAN
P. 0 6
• A S S E M B LY
P. 0 7
• GROUND FLOOR PLAN
P. 0 8
• TYPICAL FLOOR PLAN
P. 0 9
• UNIT FLOOR PLAN – FURNITURE
P. 1 0
• UNIT FLOOR PLAN
P. 1 1
• E L E VAT I O N S
P. 1 2
• SECTION
P. 1 3
• D E TA I L S
P. 1 4
• SCHEDULES
P. 1 5
P R O J E C T: D E S I G N 3 0 1 • UNIT OUTLINE
P. 2 7
• S I T E L O C AT I O N
P. 2 9
• CONCEPT
P. 3 0
• BUBBLE DIAGRAM
P. 3 1
• A C O U S T I C C O N S I D E R AT I O N S
P. 3 2
• SITE PLAN
P. 3 3
• GROUND FLOOR PLAN
P. 3 4
• FIRST FLOOR PLAN
P. 3 5
• SECOND FLOOR PLAN
P. 3 6
• E L E VAT I O N S
P. 3 9
• SECTION
P. 4 1
VI
EHSANOMID | PORTFOLIO
UNIT OUTLINE Design302 Sustainable, Affordable housing 23°24’3 0.2 ” N 11 3°2 8’ 19. 3” E
Introduction. Housing in Kuala Lumpur is currently in a period of rapid change, even crisis, due to increasing environmental consciousness, demographic movements, affordability pressures, and new technologies in the building industry, in the workplace and in the house itself. This state of flux has re-invigorated debates about and around general housing. How will the house of the twenty-first century accommodate new household types? How can new materials and methods of construction be best employed in house building? How can housing assist in helping the country respond to environmental change? How do we design and build better suburban housing? How can density of dwelling be appropriately increased within established areas? What strategies can be developed to make infill housing more palatable? How can design improve housing affordability as Australian cities continue to become the world’s most unaffordable? And, importantly, how can the architectural profession best contribute to this process of change? London, G and Anderson, S (2008) p 6-7 The questions surrounding the issues of housing posed by Geoffrey London and Simon Anderson in the publication Take 7 Housing Kuala Lumpur: How Architects Can Make a Difference provide the starting point for the project work you will undertake this semester in design studio. We suggest that architects can make a difference if as students they become more socially aware and through their work contribute to broader community discussions. The project work in this unit is set in Kuala Lumpur; a city that anticipates rapid growth over the next forty years and whose development to date is no longer seen as sustainable. The aims of this unit is for students to develop an understanding of existing contexts, study precedents, question and challenge the status quo, and explore and test architectural ideas.
1
Learning Outcomes On successful completion of this unit you will be able to: 1. Develop conceptual proposal for housing and develop to a high level of resolution. 2. Interpret and apply the principles of functional organization and space planning. 3. Introduction and application of structural systems and strategies appropriate to your design. 4. Understanding of how materials and finishes impact on architectural form and space. 5. Awareness of basic requirements of the Building Code of Australia, specifically in relation to room heights, ventilation, light, acoustics, access and energy efficiency.
CURTIN UNIVERSITY
2
EHSANOMID | PORTFOLIO
SPACE
Site Location
Inner Private Open Space
Private Family Space(Courtyard)
Courtyard Public And Private Spaces/ Views
Courtyard cross ventilation
FROM
SPACE
FROM
SPACE
A
SPACE
SPACE
B Inner Private Open Space Inner Private Open Space
Private Family Space(Courtyard)
Private Family Space(Courtyard)
How setbacks are used to maintain privacy between neighbours 3
C Air Circulation between the courtyard and adjoining rooms at night (A), (B), (C)
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
Concept 1900s
2010
Future
1
2 2 3
Malay House
1 - Rainwater Runoff: The steep slope of the roof allows rainwater to quickly run off and prevents it from accumulating on the roof’s surface. This helps prevent water from seeping into the structure. 2 - Ventilation: Malay houses are often designed with elevated floors and open spaces beneath the house. This design allows for natural ventilation and airflow, which can help keep the interior dry during and after heavy rains. 3 - Occupation: In the early 1900s, Malaysia, which was then known as Malaya, was primarily an agrarian society, and agriculture played a significant role in the lives of many Malaysians. Agriculture was a major contributor to the economy during this period.
Apartment-Style Living
The 20th century brought significant urbanization and industrialization to Malaysia, resulting in a notable shift in population from rural villages to cities and towns. This migration from villages to urban areas, including the adoption of apartment-style living, was driven by several factors such as Industrialization and Job Opportunities, Infrastructure Development, Education and Healthcare, Modernization, Cultural Shift.
Hybrid Apartment
Integrating vertical farming with apartment living is a concept that holds several potential benefits for both individuals and communities in the future. Here are some advantages of this idea: 1 - Food Security: It reduces dependence on external food sources, ensuring a more reliable food supply, especially during disruptions like pandemics or extreme weather events. 2 - Cost Savings: Residents can save money on grocery bills over time by growing their own fresh produce. 3 - Environmental Sustainability: Vertical farming uses fewer resources and reduces the carbon footprint associated with transporting food, making it more eco-friendly. 4 - Community Building: It fosters a sense of community among neighbors who can share knowledge, trade produce, and collaborate on maintenance, creating a stronger sense of belonging and cooperation.
4
EHSANOMID | PORTFOLIO
Sun Study
KUALA LUMPUR, MALAYSIA SEASONS TIMES YEAR 2010
M ARCH EQ UI NO X 21 M AR 07: 20 M YT
JUNE SOLSTICE 22 JUN 01:16 MYT
SEPTEMBER EQUINOX 23 SEP 17:04 MYT
EQUINOX
SOLSTICE
Equinox - March 21th
Solstice - June 22th
EQUINOX - SEPTEMBER 23TH
Solstice - December 22th
Custom Solar (kWh/m2)
968
484
Project location: 3.16747903823853, 101.736228942871 Sun study start date time: 2010-01-01 12:00:00 AM Sun study end date time: 2010-12-31 11:59:00 PM
1
Equinox and Solstice Time in Kuala Lumpur – Equinoxes and Solstices Times – Timehubzone. (n.d.). Equinox and Solstice Time in Kuala Lumpur – Equinoxes and Solstices Times – Timehubzone. https://www.timehubzone.com/seasons/malaysia/kuala-lumpur
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D E C E M B E R SOL ST IC E 2 2 D E C 1 3 :3 0 M YT
CURTIN UNIVERSITY
6
EHSANOMID | PORTFOLIO
Master Plan Zoning
Public
Private
Maximum distance between LRT station to residential buildings in order to minimize noise disturbance coming from LRT
Implement a fresh connection between the LRT station and the bus station for improved accessibility.
Incorporate food and beverage (F&B) facilities that cater to both residents and external customers.
88 surface car-park
A pedestrian walkway with a width of 7.2 meters can accommodate the passage of a fire truck during emergency situations
office tower
7
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
1 A102
2000 MM LANDSCAP
E
6000 mm
Bus Station 12000 MM(40FT) SETB ACK
001 002
080
078
081
005
077
082
006
076
083
007
075
084
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074
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086
010
072
087
011
071
088
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068
012 013
6000 MM(20FT) SETBACK
069
009
2000 MM LANDSCAPE
004
079
6000 mm
90°
12000 MM (40FT)SETBACK
2000 MM LANDSCAPE
003
014
015
016
017
018
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020
021 022
Drop off
023 024 025 026 027 028 029 030 031
LRT Station
033 034 035
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2000 MM LANDSCAPE
7200 mm 032
041
044 045 046
2000 MM LANDSCAPE
6000 MM(20FT) SETBACK
047 048
High-Rise Office Tower
6000 MM(20FT) SETBACK
2000 MM LANDSCAPE
12000 MM (40FT)SETBACK
Master Plan Scale 1:1000
8
EXERIOR WALLS EXERIOR WALLS
EHSANOMID | PORTFOLIO EXERIOR WALLS EXERIOR WALLS EXERIOR WALLS EXERIOR WALLS EXERIOR WALLS W1W1
ASSEMBLY
EXTERIOR WALLS W1 W1 W1 W1 W1
W2W2 W2 W2 W2 W2 W2
W3W3 W3 W3 W3 W3 W3
W4W4 W4 W4 W4 W4 W4
INTERIOR PARTITIONS INTERIOR PARTITIONS INTERIOR WALLS INTERIOR PARTITIONS INTERIOR PARTITIONS INTERIOR PARTITIONS INTERIOR PARTITIONS P1 P1 INTERIOR PARTITIONS P1 P1 P1 P1 P1 P2 P2
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P2 P2 P2 P2 P2
COMMERCIAL EXTERIOR WALL COMMERCIAL EXTERIOR WALL 3.47 RSI:RSI: 3.47 COMMERCIAL EXTERIOR WALL COMMERCIAL EXTERIOR WALLBRICK 100mm MIXED LIGHT BROWN 100mm MIXED LIGHT BROWN BRICK COMMERCIAL EXTERIOR WALL 25mm SPACE 25mm AIRAIR SPACE RSI: 3.47 COMMERCIAL EXTERIOR WALL RSI: 3.47 25mm SEMI-RIGID INSULATION 25mm SEMI-RIGID INSULATION COMMERCIAL EXTERIOR WALL RSI: 3.47 TAPED WEATHER BARRIER (AB) TAPED WEATHER BARRIER (AB) 100mm MIXED LIGHT BROWN BRICK 100mm MIXED LIGHT BROWN BRICK RSI: 3.47 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING 25mm AIR SPACE 100mm MIXED LIGHT BROWN BRICK RSI: 3.47 25mm AIR SPACE 2x6 STUDS @ 24" O/C WITH BATT INSULATION 2x6 STUDS @ 24" O/CINSULATION WITH R12R12 BATT INSULATION 25mm SEMI-RIGID 25mm AIR SPACE 25mm SEMI-RIGID INSULATION 100mm MIXED LIGHT BROWN 6 MIL POLY 6 MIL POLY TAPED WEATHER BARRIER (AB)BRICK 100mm MIXED LIGHT BROWN BRICK 25mm SEMI-RIGID INSULATION TAPED WEATHER BARRIER (AB) 25mm AIR SPACE 12.5 GYPSUM BOARD 12.5 GYPSUM BOARD 12.5mm OSB SHEATHING 25mmWEATHER AIR SPACE TAPED BARRIER (AB) 12.5mm OSB SHEATHING 25mm SEMI-RIGID INSULATION 2x6 STUDS @ 24" O/C WITH R12 BATT INSULATION 25mm SEMI-RIGID INSULATION 12.5mm OSB@SHEATHING 2x6 24" BARRIER O/C WITH(AB) R12 BATT INSULATION WEATHER 6TAPED MILSTUDS POLY TAPED WEATHER BARRIER (AB)BATT INSULATION 2x6 STUDS @ 24" O/C WITH R12 RESIDENTIAL EXTERIOR WALL RESIDENTIAL EXTERIOR WALL 6 MIL POLY 12.5mm OSB SHEATHING 12.5 GYPSUM BOARD 12.5mm OSB SHEATHING 62x6 MILSTUDS POLY 12.5 GYPSUM BOARD @ 24" O/C WITH R12 BATT INSULATION 2x6 STUDS 24" O/C WITH R12 BATT INSULATION 12.5 GYPSUM 3.47 RSI: 3.47 6RSI: MIL POLY @BOARD 6 MIL POLY EXTERIOR 12.5 GYPSUM BOARD WALL RESIDENTIAL RESIDENTIAL EXTERIOR WALL 12.5 GYPSUM BOARD 12.5mm DARK GREY LINEA FIBER CEMENT PANEL 12.5mm DARK GREY LINEA FIBER CEMENT PANEL RESIDENTIAL EXTERIOR WALL RSI: 3.47 25mm SPACE/ PANEL CLIPS 25mm AIRAIR SPACE/ PANEL CLIPS RSI: 3.47 RESIDENTIAL EXTERIOR WALL 25mm SEMI-RIGID INSULATION 25mm SEMI-RIGID INSULATION RESIDENTIAL EXTERIOR WALL RSI: 3.47 TAPED WEATHER BARRIER (AB) CEMENT PANEL TAPED WEATHER BARRIER (AB) 12.5mm DARK GREY LINEA FIBER RSI: 3.47 12.5mm GREY LINEA FIBER CEMENT PANEL 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING 25mm AIRDARK SPACE/ PANEL CLIPS RSI: 3.47 12.5mm DARK GREY LINEA FIBER CEMENT PANEL 25mm AIR SPACE/ PANEL CLIPS 2x6 STUDS @ 24" O/C WITH R12 BATT INSULATION 2x6 STUDS @ 24" O/C WITH R12 BATT INSULATION 25mm SEMI-RIGID INSULATION 25mm AIR SPACE/ PANEL CLIPS 25mm SEMI-RIGID INSULATION 12.5mm DARK GREY LINEA FIBER CEMENT PANEL 6 MIL POLY 6 MIL POLY TAPED WEATHER BARRIER (AB) 12.5mm DARK GREY LINEACLIPS FIBER CEMENT PANEL 25mm SEMI-RIGID INSULATION TAPED WEATHER BARRIER (AB) 25mm AIR SPACE/ PANEL 12.5mm GYPSUM BOARD 12.5mm GYPSUM BOARD 12.5mm OSB SHEATHING 25mmWEATHER AIR SPACE/ PANEL (AB) CLIPS TAPED BARRIER 12.5mm OSB SHEATHING 25mm SEMI-RIGID INSULATION 2x6 STUDS @ 24" O/C WITH R12 BATT INSULATION 25mm SEMI-RIGID INSULATION 12.5mm OSB@SHEATHING 2x6 STUDS 24" O/C WITH R12 BATT INSULATION TAPED WEATHER BARRIER (AB) 6 MIL POLY TAPED WEATHER BARRIER (AB)BATT INSULATION PARAPET WALL (PANELS) 2x6 STUDS @ 24" O/C WITH R12 PARAPET WALL (PANELS) 6 MIL POLY 12.5mm OSB SHEATHING 12.5mm GYPSUM BOARD OSB 62x6 MILSTUDS POLY 12.5mm GYPSUM BOARD @ SHEATHING 24" O/C WITH R12 BATT INSULATION 2x6 STUDS @ 24"BOARD O/C WITH R12 BATT INSULATION 12.5mm GYPSUM 6 MIL POLY 12.5mm DARK GREY LINEA FIBER CEMENT 12.5mm DARK GREY LINEA FIBER CEMENT 6 MIL POLY PARAPET WALL (PANELS) 12.5mm BOARD PANEL GYPSUM PANEL PARAPET WALL (PANELS) 12.5mm GYPSUM BOARD 25mm SPACE/ PANEL CLIPS 25mm AIRAIR SPACE/ PANEL CLIPS PARAPET WALL (PANELS) 25mm SEMI-RIGID INSULATION 25mm SEMI-RIGID INSULATION 12.5mm DARK GREY LINEA FIBER CEMENT PARAPET WALL (PANELS) 12.5mm DARK GREY LINEA FIBER CEMENT TAPED WEATHER BARRIER (AB) TAPED WEATHER BARRIER (AB) PARAPET WALL (PANELS) PANEL 12.5mm DARK GREY LINEA FIBER CEMENT PANEL 12.5mm SHEATHING 12.5mm OSB SHEATHING 25mm AIROSB SPACE/ PANEL CLIPS PANEL 25mm AIR PANEL 12.5mm DARK GREY LINEA CLIPS FIBER CEMENT 2x6 STUDS @ 24" O/C 2x6 STUDS @ SPACE/ 24" O/CINSULATION 25mm SEMI-RIGID 12.5mm DARK GREY LINEA FIBER CEMENT 25mm AIR SPACE/ PANEL CLIPS 25mm SEMI-RIGID INSULATION PANEL 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING TAPED WEATHER BARRIER (AB) PANELSEMI-RIGID 25mm INSULATION TAPED WEATHER BARRIER (AB) 25mm AIR SPACE/ PANEL CLIPS 12.5mm OSB SHEATHING 25mm AIR SPACE/ PANEL CLIPS TAPED WEATHER BARRIER (AB) 12.5mm OSB SHEATHING 25mm SEMI-RIGID INSULATION TOPPED WITH A O/C 35mm BLACK ALUMINUM TOPPED WITH 35mm BLACK ALUMINUM 2x6 STUDS @A24" 25mm SEMI-RIGID INSULATION 12.5mm OSB 2x6 STUDS @SHEATHING 24" BARRIER O/C TAPED WEATHER (AB) PARAPET CAP PARAPET CAP 12.5mm OSB SHEATHING TAPED WEATHER BARRIER (AB) 2x6 STUDS @ 24" O/C 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING 12.5mm OSB 2x6 STUDS @SHEATHING 24" O/C BLACK ALUMINUM TOPPED WITH A 35mm 2x6 STUDS @SHEATHING 24" O/C BLACK ALUMINUM TOPPED WITH A 35mm 12.5mm OSB PARAPET WALL (BRICK) PARAPET WALL (BRICK) PARAPET CAP 12.5mmWITH OSB TOPPED A 35mm BLACK ALUMINUM PARAPET CAPSHEATHING PARAPET CAP A 35mm BLACK ALUMINUM TOPPED WITH 12.5mm DARK GREY LINEA FIBER CEMENT 12.5mm DARK GREY LINEA FIBER CEMENT TOPPED WITH 35mm BLACK ALUMINUM PARAPET CAP A(BRICK) PARAPET WALL PANEL PANEL PARAPET PARAPET CAP WALL (BRICK) 25mm SPACE 25mm AIRAIR SPACE PARAPET WALL (BRICK) 25mm SEMI-RIGID INSULATION 25mm SEMI-RIGID INSULATION 12.5mm DARK GREY LINEA FIBER CEMENT PARAPET WALL (BRICK) 12.5mm DARK GREY LINEA FIBER CEMENT TAPED WEATHER BARRIER (AB) TAPED WEATHER (AB) PANEL PARAPET WALLBARRIER (BRICK) 12.5mm DARK GREY LINEA FIBER CEMENT PANEL 12.5mm SHEATHING 12.5mm OSB SHEATHING 25mm AIROSB SPACE PANEL 25mm AIR 12.5mm DARK GREY LINEA FIBER CEMENT 2x6 STUDS @ 24" O/C 2x6 STUDS @ SPACE 24" O/CINSULATION 25mm SEMI-RIGID 12.5mm DARK GREY LINEA FIBER CEMENT 25mm AIR SPACE 25mm SEMI-RIGID INSULATION PANEL 12.5mm OSB SHEATHING 12.5mm OSB SHEATHING TAPED WEATHER BARRIER (AB) PANEL 25mm SEMI-RIGID INSULATION TAPED WEATHER BARRIER 25mm AIR SPACE 12.5mm OSB SHEATHING (AB) 25mm AIR SPACE TAPED WEATHER BARRIER (AB) 12.5mm OSB SHEATHING 25mm SEMI-RIGID INSULATION TOPPED WITH A O/C 35mm BLACK ALUMINUM TOPPED WITH 35mm BLACK ALUMINUM 2x6 STUDS @A24" 25mm SEMI-RIGID INSULATION 12.5mm OSB 2x6 STUDS @SHEATHING 24" BARRIER O/C TAPED WEATHER (AB) PARAPET CAP PARAPET CAP 12.5mm OSB SHEATHING TAPED WEATHER BARRIER (AB) 2x6 STUDS @ 24" O/C 12.5mmOSB OSBSHEATHING SHEATHING 12.5mm 12.5mm OSB SHEATHING 12.5mm OSB 2x6 STUDS @SHEATHING 24" O/C BLACK ALUMINUM TOPPED WITH A 35mm 2x6 STUDS @ 24" O/C BLACK ALUMINUM TOPPED WITH A 35mm 12.5mm OSB PARAPET CAPSHEATHING 12.5mmWITH OSB TOPPED A 35mm BLACK ALUMINUM PARAPET CAPSHEATHING PARAPET CAP A 35mm BLACK ALUMINUM TOPPED WITH TOPPED WITH PARAPET CAP A 35mm BLACK ALUMINUM PARAPET CAP TYPICAL INTERIOR PARTITION TYPICAL INTERIOR PARTITION
(W1E) (W1E)
FRR: 1 HR STC: FRR: 1 HR STC: 32 32 TYPICAL INTERIOR PARTITION 1/2" GYPSUM BOARD 1/2" GYPSUM BOARD TYPICAL INTERIOR PARTITION 2x4 @ 24" 2x4 STUDS @STC: 24" O/C TYPICAL PARTITION FRR: 1STUDS HRINTERIOR 32O/C FRR: 1 HR STC: 32 1/2" GYPSUM BOARD 1/2" GYPSUM BOARD TYPICAL INTERIOR PARTITION FRR: 1 HR INTERIOR STC: 32 PARTITION TYPICAL 1/2" GYPSUM BOARD 1/2"STUDS GYPSUM BOARD FRR: 1 HR @ STC: 32 2x4 24" O/C 1/2" FRR:GYPSUM 1 HR STC: 2x4 STUDS @BOARD 24"32 O/C 1/2" GYPSUM BOARD (W1D) INTERIOR PARTITION (W1D) INTERIOR PARTITION 2x4 @ 24" O/C 1/2"STUDS GYPSUM BOARD 1/2" GYPSUM BOARD 1/2" GYPSUM BOARD 1/2" GYPSUM BOARD 2x4 @ 24" O/C FRR: 1 HR STC: FRR: 1 STUDS HR STC: 32 32 2x4 GYPSUM STUDS @ BOARD 24" O/C 1/2" (W1D) INTERIOR PARTITION 1/2" GYPSUM BOARD 5/8" TYPE X GYPSUM BOARD (W1D) 5/8" TYPE X GYPSUM BOARD INTERIOR PARTITION (W1D) INTERIOR PARTITION 2x6 @ 24" 2x6 STUDS 24" O/C FRR: 1STUDS HR@ STC: 32O/C FRR: 1 HR 32BOARD 5/8" TYPE XSTC: GYPSUM BOARD(W1D) 5/8" TYPE X GYPSUM INTERIOR PARTITION FRR: 1 HR STC: 32 INTERIOR 5/8" TYPE XPARTITION GYPSUM BOARD (W1D) FRR: 1 HR @ 5/8"STUDS TYPE XSTC: GYPSUM 2x6 24"32 O/C BOARD FRR:TYPE 1 HRX GYPSUM STC: 5/8" 2x6 STUDS @ 24"32 O/CBOARD 5/8" TYPE X GYPSUM BOARD 2x6 24" O/C BOARD 5/8"STUDS TYPEX@ XGYPSUM GYPSUM BOARD 5/8" TYPE
(W1E) (W1E) (W1E) (W1E) (W1E)
ROOFS
CURTIN UNIVERSITY
ROOFS
ROOF
R1
R1
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING NON VENTED ROOF RSI: 5.80 SBS ROOFING MEMBRANE NONFIBREBOARD VENTED ROOF 1/2" 4" POLYISOCYANATE INSULATION (SLOPED) RSI: 5.80XPS INSULATION 4" RIGID APPLIED MEMBRANE 1/2" OSB SHEATHING @ 12" O/C SBS ROOFING MEMBRANE 11 7/8" ENGINEERED JOIST 1/2" FIBREBOARD 1/2" GYPSUM BOARD INSULATION (SLOPED) 4" POLYISOCYANATE 4" RIGID XPS INSULATION APPLIED MEMBRANE 1/2" OSB SHEATHING @ 12" O/C 11 7/8" ENGINEERED JOIST 1/2" GYPSUM BOARD ROOF DECK RSI: 5.73
R2
R2
SBS ROOFING MEMBRANE ROOFPROTECTION DECK 1/2" BOARD 6" RIGID XPS INSULATION RSI: 5.73 MEMBRANE APPLIED 1/2" OSB SHEATHING 3 1/2" CROSS PURLINS (SLOPED) SBS ROOFING MEMBRANE 11 7/8" ENGINEERED JOIST @ 12" O/C 1/2" PROTECTION BOARD 1/2" RESILIENT METAL CHANNELS @ 12" O/C 6" RIGID XPS INSULATION TWO LAYERS 1/2" GYPSUM BOARD APPLIED MEMBRANE 1/2" OSB SHEATHING 3 1/2" CROSS PURLINS (SLOPED) 11 7/8" ENGINEERED JOIST @ 12" O/C 1/2" RESILIENT METAL CHANNELS @ 12" O/C TWO LAYERS 1/2" GYPSUM BOARD
FLOOR FLOORS SLAB ON GRADE FLOORS F1
F1
F2
F2
RSI: 2.43 FLOOR FINISH 4" CAST IN PLACE CONCRETE 6 MIL ON POLY SLAB GRADE 2 1/2" RIGID XPS INSULATION RSI: 2.43 FLOOR FINISH TYPICAL FLOOR (F9D) 4" CAST IN PLACE CONCRETE 6 MIL POLY 2 1/2"1 RIGID XPS54 INSULATION FRR: HR STC: FLOOR FINISH 3/4" OSB SHEATHING TYPICAL FLOOR (F9D) 11 7/8" ENGINEERED JOIST @ 12" O/C 1/2" RESILIENT CHANNELS @ 12" O/C FRR: 1 HR STC:METAL 54 2 LAYERS 1/2" TYPE X GYPSUM BOARD FLOOR FINISH 3/4" OSB SHEATHING 11 7/8" ENGINEERED JOIST @ 12" O/C 1/2" RESILIENT METAL CHANNELS @ 12" O/C 2 LAYERS 1/2" TYPE X GYPSUM BOARD
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EHSANOMID | PORTFOLIO
06
05
04
03
02
01
W3 W3
1 A301
W3
W3
W3
W1
W1 DN
W1 W1
W1
W1
6
W3
W3
W3
W3
W1
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Block A Ground Floor Plan Scale 1:200
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
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Block A Typical FLoor Plan Scale 1:200
12
EHSANOMID | PORTFOLIO
05
04
06
A W.I.C
Master Bedroom Area: 33.8m2
00
83
Bedroom Area: 33.8m2 m m
78 00
m
m
S
|5 :8
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S
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Range
W/D Fridge
11000 mm | 8:3 S
C
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Typical Unit Floor Plan - Furniture Scale 1:100
TYPICAL UNIT PLAN-TYPE A - FURNITURE 1 : 100
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
04
05
06
5000 mm 2574 mm
5000 mm 2574 mm
2073 mm
866 mm 1160 mm 1050 mm
W5
A
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03
P1
1052 mm 1166 mm
818 mm 979 mm
1956 mm
Range
Fridge
934 mm 1150 mm
5000 mm
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W/D
C
2917 mm
P1
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972 mm 1661 mm 2219 mm
5000 mm
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P1
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5000 mm
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04
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P1
Typical Unit Floor Plan Scale 1:100
TYPICAL UNIT PLAN-TYPE A
14
EHSANOMID | PORTFOLIO
Parapet 19700 mm
06
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Parapet Roof 19700 mm mm 18500 Roof Level 04 18500 mm 15000 mm Level 04 Level 03 15000 mm 11500 mm Level 03 Level 02 11500 mm 8000 mm Level 02 Level 01 8000 mm 4500 mm Level 01 4500 mm Ground FLoor plan 0 mm Ground FLoor plan 0 mm
North Elevation Scale 1:300
Parapet 19700 mm Parapet Roof 19700 mm 18500 Roof Level 04 18500 mm 15000 mm Level 04 Level 03 15000 mm 11500 mm Level 03 Level 02 11500 mm 8000 mm Level 02 Level 01 8000 mm 4500 mm Level 01 4500 mm Ground FLoor plan 0 mm Ground FLoor plan 0 mm
South Elevation Scale 1:300 15
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
A
B
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Parapet 19700 mm Roof 18500 mm Parapet 19700 mm Level 04 Roof mm 15000 18500 mm Level 03 Level 04 11500 mm 15000 mm Level 02 Levelmm 03 8000 11500 mm Level 01 Levelmm 02 4500 8000 mm Ground Level 01FLoor plan 0 mm mm 4500
0 mm
WEST
West Elevation Scale 1:300
WEST
Ground FLoor plan
1 : 300
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Parapet 19700 mm Roof Parapet 18500 mm 19700 mm Level 04 Roof mm 15000 18500 mm Level 03 Level 04 11500 mm 15000 mm Level 02 Levelmm 03 8000 11500 mm Level 01 Levelmm 02 4500 8000 mm Ground Level 01FLoor plan 0 mm mm 4500 Ground FLoor plan
EAST
East Elevation 1 : 300 Scale 1:300 0 mm
EAST
16
EHSANOMID | PORTFOLIO
1 A501 Parapet 19700 mm
Roof 18500 mm
Level 04 15000 mm
Level 03 11500 mm
Level 02 8000 mm
Level 01 4500 mm
Ground FLoor plan 0 mm T.O FOOTING -1500 mm
1 A502
Section A301 Scale 1:200 17
01
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1-
A503 ---
04
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R1
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING 2% SLOPE
Roof 18500 mm
01 W5
Parapet 19700 mm
MIN. 2% SLOPE 21
14
7 27
1
13
30
DETAIL LEGEND NO.
R1
MATERIAL
1
SEALANT
2
SILL GASKET
3
CONCRETE ANCHOR BOLT
4
DOOR FRAME TRIM
5
STEEL SHELF SUPPORT
6
DARK GREY PARGING
7
BLACK ALUMINUM FLASHING
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GRAVEL
9
BASEBOARD
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APPLIED MEMBRANE
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WHITE ALUMINUM SOFFIT
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BRICK TIE
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MEDIUM DENSITY SPRAY FOAM INSULATION
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LVL RIMBOARD
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BACKER BOARD
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MORTAR MESH
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WEEPHOLES
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3" CONCRETE BOLT
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BLACK ALUMINUM FASCIA FLASHING
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STRAPPING/ FILLER BLOCK
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SLOPED PLYWOOD SHIMS
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ALUMINUM POST (LOUVRE)
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4" BOLT
24 5" SCREW DETAIL LEGEND 25 3 1/2" ABSORBATIVE MATERIAL NO. MATERIAL 26 ALUMINUM FIRE STOP 1 SEALANT 27 INSECT SCREEN 2 SILL GASKET 28 BLACK ALUMINUM GUTTER 3 CONCRETE ANCHOR BOLT 29 SMOKE STOP 4 DOOR FRAME TRIM 30 ALUMINUM PANEL CLIP 5 STEEL SHELF SUPPORT 31 ALUMINUM SHELF SUPPORT 6
DARK GREY PARGING 32 1/2" TYPE X GYPSUM BOARD
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GRAVEL
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WHITE ALUMINUM SOFFIT
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BRICK TIE
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MEDIUM DENSITY SPRAY FOAM INSULATION
14
LVL RIMBOARD
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BACKER BOARD
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MORTAR MESH
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WEEPHOLES
18
3" CONCRETE BOLT
19
BLACK ALUMINUM FASCIA FLASHING
20
STRAPPING/ FILLER BLOCK
21
SLOPED PLYWOOD SHIMS
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ALUMINUM POST (LOUVRE)
23
4" BOLT
24
5" SCREW
25
3 1/2" ABSORBATIVE MATERIAL
Detail A501 Scale 1:10 26
ALUMINUM FIRE STOP
27
INSECT SCREEN
28
BLACK ALUMINUM GUTTER
29
SMOKE STOP
30
ALUMINUM PANEL CLIP
31
ALUMINUM SHELF SUPPORT
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1/2" TYPE X GYPSUM BOARD
2% SLOPE
Roof 18500 mm
W4
W5
14
Parapet Detail 1 : 10
13
W4
Parapet Detail 1 : 10
18
30
EHSANOMID | PORTFOLIO
R1 2% SLOPE
Roof 18500 mm
W5
14
13
01
W4
DETAIL LEGEND NO.
MATERIAL
1
SEALANT
2
SILL GASKET
3
CONCRETE ANCHOR BOLT
4
DOOR FRAME TRIM
5
STEEL SHELF SUPPORT
6
DARK GREY PARGING
7
BLACK ALUMINUM FLASHING
8
GRAVEL
9
BASEBOARD
10
APPLIED MEMBRANE
11
WHITE ALUMINUM SOFFIT
12
BRICK TIE
13
MEDIUM DENSITY SPRAY FOAM INSULATION
14
LVL RIMBOARD
15
BACKER BOARD
16
MORTAR MESH
17
WEEPHOLES
18
3" CONCRETE BOLT
19
BLACK ALUMINUM FASCIA FLASHING
20
STRAPPING/ FILLER BLOCK
21
SLOPED PLYWOOD SHIMS
22
ALUMINUM POST (LOUVRE)
23
4" BOLT
24
5" SCREW
25
3 1/2" ABSORBATIVE MATERIAL
26
ALUMINUM FIRE STOP
27
INSECT SCREEN
28
BLACK ALUMINUM GUTTER
29
SMOKE STOP
30
ALUMINUM PANEL CLIP
31
ALUMINUM SHELF SUPPORT
32
1/2" TYPE X GYPSUM BOARD
W4 30 1 27
Ground FLoor plan
2
0 mm
7 3
MIN. 2% SLOPE
F1
10
Parapet Detail 9
8
1 : 10
6
W1
Section 1 - Callout 1 1 : 10
DETAIL LEGEND NO.
Detail A502 Scale 1:10 19
MATERIAL
1
SEALANT
2
SILL GASKET
3
CONCRETE ANCHOR BOLT
4
DOOR FRAME TRIM
5
STEEL SHELF SUPPORT
6
DARK GREY PARGING
7
BLACK ALUMINUM FLASHING
8
GRAVEL
9
BASEBOARD
10
APPLIED MEMBRANE
11
WHITE ALUMINUM SOFFIT
12
BRICK TIE
30
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
R1 2% SLOPE
Roof 18500 mm
W5
14
04
13
W4
DETAIL LEGEND NO.
MATERIAL
1
SEALANT
2
SILL GASKET
3
CONCRETE ANCHOR BOLT
4
DOOR FRAME TRIM
5
STEEL SHELF SUPPORT
6
DARK GREY PARGING
7
BLACK ALUMINUM FLASHING
8
GRAVEL
9
BASEBOARD
10
APPLIED MEMBRANE
11
WHITE ALUMINUM SOFFIT
12
BRICK TIE
13
MEDIUM DENSITY SPRAY FOAM INSULATION
14
LVL RIMBOARD
15
BACKER BOARD
16
MORTAR MESH
17
WEEPHOLES
18
3" CONCRETE BOLT
19
BLACK ALUMINUM FASCIA FLASHING
20
STRAPPING/ FILLER BLOCK
21
SLOPED PLYWOOD SHIMS
22
ALUMINUM POST (LOUVRE)
23
4" BOLT
24
5" SCREW
25
3 1/2" ABSORBATIVE MATERIAL
26
ALUMINUM FIRE STOP
27
INSECT SCREEN
28
BLACK ALUMINUM GUTTER
29
SMOKE STOP
30
ALUMINUM PANEL CLIP
31
ALUMINUM SHELF SUPPORT
32
1/2" TYPE X GYPSUM BOARD
7
27
W4
Parapet Detail 1 : 10
8 9
13
Detail A503 Scale 1:10
11
20
EHSANOMID | PORTFOLIO
SCHEDULE DOOR
Door Schedule NO.
COU NT
D05 2 D06 2 D01 4 D02 7 D03 4 D04 7
D01 4 D02 7 D03 4 D04 7
D01 4 D02 7 D03 4 D04 7
D01 4 D02 7 D03 4 D04 7
21
TYPE
LEVEL
SIZE WIDTH HEIGHT
OFFICE 3 PANELS SLIDING DOOR INTERIOR 2100 x 850
Ground FLoor plan 4600 mm
3500 mm
Ground FLoor plan 850 mm
2100 mm
RESIDENTIAL ENTRANCE DOOR INTERIOR DOOR INTERIOR SERVICE DOOR 3 PANELS SLIDING DOORS
Level 01
1300 mm
0 mm
Level 01 Level 01
900 mm 900 mm
2100 mm 2100 mm
Level 01
3000 mm
2400 mm
Level 02
1300 mm
0 mm
Level 02 Level 02
900 mm 900 mm
2100 mm 2100 mm
Level 02
3000 mm
2400 mm
Level 03
1300 mm
0 mm
Level 03 Level 03
900 mm 900 mm
2100 mm 2100 mm
Level 03
3000 mm
2400 mm
Level 04
1300 mm
0 mm
Level 04 Level 04
900 mm 900 mm
2100 mm 2100 mm
Level 04
3000 mm
2400 mm
RESIDENTIAL ENTRANCE DOOR INTERIOR DOOR INTERIOR SERVICE DOOR 3 PANELS SLIDING DOORS RESIDENTIAL ENTRANCE DOOR INTERIOR DOOR INTERIOR SERVICE DOOR 3 PANELS SLIDING DOORS RESIDENTIAL ENTRANCE DOOR INTERIOR DOOR INTERIOR SERVICE DOOR 3 PANELS SLIDING DOORS
FIRE RATING
20MIN
20MIN
20MIN
20MIN
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
D01
D02
D03
D03
D04
D05
22
EHSANOMID | PORTFOLIO
SCHEDULE WINDOW
Window Schedule NO.
COUNT
TYPE
LEVEL
SIZE WIDTH
HEIGHT
W3
26
3 PANELS FIXED WINDOW Ground FLoor plan 4600 mm
3500 mm
W1 W2
4 4
Level 01 Level 01
1000 mm 900 mm
1500 mm 600 mm
W4
4
Level 01
1500 mm
600 mm
W5
14
FIXED CASEMENT SERVICE WINDOW DOUBLE SLIDING WINDOW RESIDENTIAL SLIDER
Level 01
900 mm
1500 mm
W1 W2
4 4
Level 02 Level 02
1000 mm 900 mm
1500 mm 600 mm
W4
4
Level 02
1500 mm
600 mm
W5
14
FIXED CASEMENT SERVICE WINDOW DOUBLE SLIDING WINDOW RESIDENTIAL SLIDER
Level 02
900 mm
1500 mm
W1 W2
4 4
Level 03 Level 03
1000 mm 900 mm
1500 mm 600 mm
W4
4
Level 03
1500 mm
600 mm
W5
14
FIXED CASEMENT SERVICE WINDOW DOUBLE SLIDING WINDOW RESIDENTIAL SLIDER
Level 03
900 mm
1500 mm
W1 W2
4 4
Level 04 Level 04
1000 mm 900 mm
1500 mm 600 mm
W4
4
Level 04
1500 mm
600 mm
W5
14
FIXED CASEMENT SERVICE WINDOW DOUBLE SLIDING WINDOW RESIDENTIAL SLIDER
Level 04
900 mm
1500 mm
23
CURTIN UNIVERSITY
DESIGN 302 | 2011 | SUSTAINABLE, AFFORDABLE HOUSING
W1
W2
W3
W4
W5
24
EHSANOMID | PORTFOLIO
UNIT OUTLINE Design301 Bukit Jalil Theater
Introduction.
Learning Outcomes
This course focuses on advanced principles of architectural design with a specific emphasis on the integration of acoustics and lighting in the creation of a public theater. Students will explore the design of a cultural center within Bukit Jalil Park, emphasizing the incorporation of a theater, rehearsal hall, public amenities, and related spaces. The optional selection of the site within the park encourages individual exploration and contextual understanding.
On successful completion of this unit you will be able to:
27
1. 1. Collaborate in teams of students while acting as a mentor within a team. 2. 2. Acknowledge, comprehend and describe 3 significant schools of thought as exists in national architectural practice today through the study of precedent texts, projects and exemplar architects 3. 3. Produce work of your own in the manner or guise of these three schools in order to establish a comprehension of them as forms of practice and as ways of seeing the world. 4. 4. Discuss the short-comings of such a systemized approach of classification as well as its benefits. 5. 5. To test each of these schools of thought in the development of three small projects. 6. 6. Utilise this approach to allow you to establish an ‘informed position’ in architecture on your own terms, to understand the bias of each school of thought. That this may further elucidate the development of your own highly attuned manner of thinking and working. 7. 7. Finally, to align yourself with one of these schools of thought so as to make a project of heightened intellectual weight, complexity and response to site.
CURTIN UNIVERSITY
Render
28
EHSANOMID | PORTFOLIO
Site Location
The location is truly exceptional. Perched atop the highest point in Bukit Jalil Park, it offers breathtaking views of the surrounding landscape. Additionally, its deliberate placement at the intersection of major highways ensures that it naturally commands attention and promotes itself. This prime spot ex-
29
Site Location: Bukit Jalil Park Scale N/A
udes urban energy and excitement, effortlessly drawing the gaze of passersby. The hope is that this dynamic setting ignites the curiosity of random drivers on the highway, enticing them to explore the theater and its surroundings.
CURTIN UNIVERSITY
DESIGN 301 | 2010 | PUBLIC THEATER
Concept
The site benefits from a connection to the park on one side, while also being prominently visible from two adjacent highways on the other side. This arrangement provides theatergoers strolling through the park with an
adventurous and exploratory experience as they seek out the theater building, which cleverly promotes itself to passersby on the nearby highways.
Form Follows the Flow
“Embracing the site’s unique characteristics, the theater’s architectural design is driven by the concept of ‘form follows flow.’ Situated at a dead-end location, the architecture aims to channel and enhance the movement of people, creating
Zoning
an inviting and communal structure that not only welcomes the audience but also leaves them with an enriched and memorable experience as they enter and exit the site.
Theater
GYM
WEWORK
Food & Beverages
Food & Beverages 30
EHSANOMID | PORTFOLIO
Bubble Diagram
VIP ENTRANCE
BACK STAGE OP SIDE (OPPOSITE PROMPT)
PROMPT SIDE STAGE MANAGER
STAGE
PROPERTY STORE
EMERGENCY EXIT
EMERGENCY EXIT
TOILET
THEATER
TOILET GYM/ REHEARSAL
OFFICE/ WE WORK CONTROL ROOM
CAFE/ BAR
FOYER BOX OFFICE
PUBLIC ENTRY
31
CAFE/ BAR
view seats, should be able to see at least two-thirds of the back wall of the acting area, unless the space is primarily for dance where all four corners of the CURTIN UNIVERSITY performance area need to be clearly visible.
Acoustic considerations Side seats
Side seats can be problematic in the early stages of a Auditorium form and volume
which dominates the weaker late reflections from the room surfaces. Further from the stage, listeners hear a combination of direct sound and reflected sound DESIGN 301 | 2010 | PUBLIC THEATER arriving as a series of discrete reflections, spaced in time. The reflected sound should arrive in an ordered way, maintaining the realism of the direct sound, reinforcing it and not containing strong long-delayed reflections or echoes, which affect its quality.
design – with the term ‘restricted view’ ringing alarm bells for many. While the seats may offer an oblique view of the plays actiona(depending the format) it should the acoustician crucial role upon in ensuring optimal sound always be remembered that they offer proximity to the quality in an auditorium. The key responsibilities include: performance, enhance theatrical intimacy, contribute to a sense of cohesion and animate the side walls. The 1. Clarity for Audience: amount side seats needsmember to be as part Ensure that of every audience can hear the of perfor80balanced Auditorium design mance distortion. the clearly overallwithout provision. Simple 3D modelling can be very Minimize coloration, preservingthe the true quality of the of sound helpful in communicating viewing restrictions produced. these positions.
Reflected sound REFLECTED SOUND
SOURCE Source
DIRECT SOUND Direct sound
10000 15000 20000
100 150 200 250 300 350 400 450 500 550 Optimum Reverberation Time (sec) 600 650 100 700 150 200 750 250 800 300 350 850 400 900 450 500 950 550 1000 600 650 2000 700 3000 750 800 4000 850 5000 900 6000 950 1000 7000 2000 8000 3000 4000 9000 5000 6000 10000 7000 15000 8000 20000 9000
100 150 200 250 300 350 400 450 500 550 600 650 700 750 800 850 900 950 1000 2000 3000 4000 5000 6000 7000 8000 9000 10000 15000 20000
Optimum Reverberation Time (sec)
Optimum Reverberation Time (sec)
2. Ensemble Performance: The volume of any room has a direct relationship to localisa Facilitate effective communication among performers by enits reverberation time and it is therefore important size is o suring they can hear each other well. Create an acoustic environmenttoconducive to ensemble establish the correct4.6.1volume for a particular acousti Indeed, the volume of a room is directly linked to its replaying. performance type, orverberation range oftime. types, at antoearly stage. It is crucial determine the appropriate Overhe volume early in the design process, especially concerning provide 80 Auditorium design 3. Factors Influencing Sound: For example, see Figure 4.6.2. the type or range of performances to be hosted. The volConsider the construction, geometry, and finish of the audiume significantly influences the acoustic characteristics of commu torium as they significantly impact acoustics. the space, including how sound reverberates, and plays Focus on minimizing interference 3.5 and distortion in sound Oth The volume of any room has a direct relationship to localisa a fundamental role in creating an optimal environment for propagation. its reverberation time and it is therefore important size is o success specific types of performances. 3 to establish the correct volume for a particular acoustic 4. Proximity to the Stage: used by performance type, or range of types, at an early stage. Overhe Close to the stage, prioritize direct 2.5 sound, which dominates Speech For example, see Figure 4.6.2. provide comple over weaker late reflections. Opera commu Chamber Music 2 Direct sound contributes to a clear and immediate listening subvert 3.5 OrchestralOth Musi experience. Church/Organ success 1.5 and theM 3 used by 5. Spatial Considerations: 2.5 enhanc Speech comple Opera Acknowledge that as the audience1 moves further from Chamber Music 2 subverte experie Orchestral Music the stage, they experience a blend of direct and reflected Church/Organ M 0.5 1.5 and the sounds. informe enhanc 1 Ensure that reflected sounds are organized, reinforcing the 0 experie stage th realism of the performance. 0.5 informe bestage enve 0 th Room Volume (m3) 6. Controlled Reflections: 3.5 directio be enve Manage reflected sound to arrive in an ordered manner, enRoom Volume (m3) 3 directio hancing the direct sound without introducing strong, long-deOrc Speech Orc layed reflections or echoes. 2.5 Speech Opera Opera betwee Prevent reflections that might compromise the quality of the between Chamber Music 2 Chamber Music Orchestral Music performance. scatte Orchestral Music Church/Organ Music ororscatt 1.5 Church/Organ Music In summary, the acoustician’s task is to meticulously design control 1 control the auditorium’s acoustic characteristics to create an immerthe hall sive and high-quality auditory 0.5 experience for both performers Chart volumes and reverberation timestimes 4.6.2 showing Chart showing volumes and reverberation commu the hal and the audience, considering factors like sound directness, 0 Chart showing volumes and reverberation times commu reflection organization, and spatial4.6.2 dynamics.
200 250 300 350 400 450 500 550 600 650 700 750 800 850 900 950 1000 2000 3000 4000 5000 6000 7000 8000 9000 10000 15000 20000
Room Volume (m3)
Room Volume (m3)
Speech
For speech, the auditorium volume can be fairly low, around 5m3 /per person. The early to late energy ratio should be high – late energy arriving beyond 100m at a high level affects intelligibility. Reverberation times For speech, the auditorium fairly should bevolume appropriatecan to thebe use, aroundlow, one second at mid-frequencies. In theatres, seating should be as close around 5m3 /per person. The early to late energy ratio as possible to the stage, favouring a fan-shaped seating should be high – late plan energy arriving beyond and multiple balconies. Good 100m sightlinesat generally make for good acoustics as what the eye can see a high level affects intelligibility. Reverberation times the
Speech
Develo
Until th
evolved Devel
were so models Until th sources predicti evolved 3 2 improve were more so re comput models
EHSANOMID | PORTFOLIO
LP
LP
LP
LP
64.186 7169
THU
64.367IL 64.864 7170 IL
64.428 7167
SGB LP
THU/POK
65.173
AN KAWASAN HUT
LP
7165 7164 IL PJ
65.128 65.258 65.269 7162 PJ
7174
7160
POK
PJ 7158 7155
7176
PJ TANGGA
64.483 7153
B SG
SUIS BOX
TANGGA
64.919IL 65.317 65.289 7132 7133
TS
65.565
IL PJ
7220
THU
7135 7136
PJTANGGA
65.591
12000 MM
7218
LCUT
65.574 7216
POK
(40 FT) SET
65.254 63.647IL 65.178 64.449 TS 64.762IL 65.212 64.430 7126 7125
7123
7117 7119
PJTANGGA
PJ
IL
POK
7122
PJ
IL PBU
7120
7128 7130
7111
BACK
PJ
7121
POK
64.462 7093
POK
64.925
7094
63.778IL 7091
7179 NC
65.379
64.518 7089
7177 PR
7088
7087
7074 7175 POK
POK
65.065 64.633IL 64.878 PJK
64.549 7081
IL 7072 NC
65.601 7070
64.958 64.578IL 7083
POK
7085
PJK
IL
64.AN84&2 65.653ASAN HUT 7068
66.95 67 8 7046
KAW
POK
65.470 7066
POK
POK
67.038 7047
POK
20 00 MM
67.721 7049
69.382 7044
LANDSC AP
POK
69.572
TS
E 1LP 109 771. 7037 NA
VI
20
00
M
M
LA
ND SC
P
DR OP
-O F
F
AP E
73.326 12
33
Site Plan Scale 1:1000
00 0
M
M
(4 0F T
)S
ET
BA
CK
2000 MM LANDSCAPE MM 12000
(40FT)
SE TBAC
K
87.058
CURTIN UNIVERSITY
D
C
B
A
DESIGN 301 | 2010 | PUBLIC THEATER
21000 3000
9000
E
3000
9000
07
01
8000
07
02
8000
07
03
8000
07
04
8000
07
08
05
9000 8000
06
08
AA DD
06
A 8000
07
8000
BB
01
CC 08
05
04 3000
J I
CC
08
1
07
F
DD
AA
Control Room Forestage Property store Stage manager Emergency exit Box Office Food and beverages Toilet
07
05
A
1. 2. 3. 4. 5. 6. 7. 8.
08
8000
17
8000
09
8000
10
8000
11
8000
12
8000
13
8000
14
15
Second Floor Plan 1 : 600
Ground Floor Plan Scale 1:600
H G
9000
03
3000
9000
07
21000
02
BB
9000
06
34
EHSANOMID | PORTFOLIO
21000 3000
9000
D
C
B
A
E
3000
9000
02 01
8000
6000 02
8000
01 03
8000
06
04
03 8000
04
05
8000
06 05
AA DD
06
A 8000 Void
07
8000
BB
6000
CC
3000
08
J I
CC
6000
6000
07
H G
05 9000
05
02
3000 21000
9000
06
BB
A
1. 2. 3. 4. 5. 6. 7.
1 35
Gym Balcony Reception office Locker/ changing room Restroom Waiting area Wework
First FLoor Plan
First Floor Plan Scale 1:600
1 : 600
F
DD
AA
8000
17
8000
09
8000
10
8000
11
8000
12
8000
13
8000
14
15
CURTIN UNIVERSITY
21000 3000
9000
E
D
C
B
A
DESIGN 301 | 2010 | PUBLIC THEATER
3000
9000
02
01
8000 02
8000
01 03
8000
06
04
03 8000
04
05
9000 8000
05
06
AA DD
06
A 8000
07
8000
BB
CC 08
3000
J
07
9000
H G
05 9000
05
9000
02
03
3000
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21000
CC
A
1. 2. 3. 4. 5. 6. 7.
Gym Balcony Reception office Locker/ changing room Restroom Waiting area Wework
1
F
DD
AA
8000
17
8000
09
8000
10
8000
11
8000
12
8000
13
8000
14
15
Second Floor Plan 1 : 600
Second Floor Plan Scale 1:600
36
EHSANOMID | PORTFOLIO
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CURTIN UNIVERSITY
38
South
1
1 : 600
EHSANOMID | PORTFOLIO
15
14
13
12
11
10
09
17
Roof 15000.00 Third Floor Plan 12000.00 Second Floor Plan 9000.00 First FLoor Plan 6000.00 Ground Floor Plan 0.00
North Elevation Scale 1:600
2
North 1 : 600
17
09
10
11
12
13
14
15
Roof 15000.00 Third Floor Plan 12000.00 Second Floor Plan 9000.00 First FLoor Plan 6000.00 Ground Floor Plan 0.00
South Elevation Scale 1:600
39
CURTIN UNIVERSITY
DESIGN 301 | 2010 | PUBLIC THEATER
01
02
03
04
05
06
07
08
01
02
03
04
05
06
07
08 Roof 15000.00 Third Floor Plan
12000.00 Roof 15000.00 Second Floor Plan 9000.00 Third Floor Plan 12000.00 First FLoor Plan
6000.00 Second Floor Plan 9000.00
Ground Floor Plan First FLoor Plan 0.00 6000.00 Ground Floor Plan 0.00
West Elevation Scale 1:600
West 1 West 1 11 :: 600 600
08
07
06
05
04
03
02
01
08
07
06
05
04
03
02
01 Roof 15000.00 Third Floor Plan
12000.00 Roof 15000.00 Second Floor Plan 9000.00 Third Floor Plan 12000.00 First FLoor Plan
6000.00 Second Floor Plan 9000.00 First FLoor Plan Ground Floor Plan 6000.00 0.00
East Elevation Scale 1:600
East 2 East 1 : 600
Ground Floor Plan 0.00
40
EHSANOMID | PORTFOLIO
yrenihcam egats dna egats ehT 211
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Section 1
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1 : 400 engineered eciohc htiw draboard ob derewith enignechoice reyal beech raew dooor wdmaple rah elpam ro hceeb ,kawear o oak, hardwood layer top lenasemi-flexible p elbixelf-imes popanel t lower lenap esemi-flexible lbixelf-imes rewopanel l cellular enahterupolyurethane ylop ralullec damp-proof enarbmem foormembrane p-pmad Vinyl performance surface proprietary fully-sprung floor. Total depth approx 45mm mm54 xorppa htped latoT .roolf gnurps-ylluf yrateirporp ecafrus ecnamrofrep lyniV
margaid pu-dliub roofl egatS 1.5.5 eulblaocrahC :margaiD mm54 xorppa htped latoT .roolf gnurps-ylluf yrateirporp ecafrus lyniV
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Second Floor Plan 9000.00 First FLoor Plan 6000.00
Ground Floor Plan 0.00
enarbmem foorp-pmad mm521 xorppa htped latoT .noitcurtsnoc roolfecnad gnurps-ylluF
Section A-A Scale 1:400
Roof 15000.00
Theater -4900.00
CURTIN UNIVERSITY
DESIGN 301 | 2010 | PUBLIC THEATER
distance front row eye position to Point P The greater this distance, the steeper the resultant rake.Working from Point P and following the instructions above. The theory is established by returning via the auditorium.The sitting rake in the stalls. This results in a
parabolic curve.to the seating profile, becoming steeper as the distance increases from Point P grows. Every person in the audience produces a comparable viewing situation.
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EHSANOMID
ARCH.PORT