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Mcmurdo STATION MODERNIZATION STUDY Building Shell & Fenestration Study

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Mcmurdo STATION MODERNIZATION STUDY Building Shell & Fenestration Study McMURDO STATION MODERNIZATION STUDY Building Shell & Fenestration Study April 29, 2016 Final Submittal MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 2 TABLE OF CONTENTS Section 1: Overview PG. 7-51 Team Directory PG. 8 Project Description PG. 9 Methodology PG. 10-11 Design Criteria/Environmental Conditions PG. 12-20 (a) General Description (b) Environmental Conditions a. Wind b. Temp c. RH d. UV e. Duration of sunlight f. Air Contaminants (c) Graphic (d) Design Criteria a. Thermal b. Air Infiltration c. Moisture d. Structural e. Fire Safety f. Environmental Impact g. Corrosion/Degradation h. Durability i. Constructability j. Maintainability k. Aesthetics l. Mechanical System, Ventilation Performance and Indoor Air Quality implications m. Structural implications PG. 21-51 Benchmarking 3 Section 2: Technical Investigation and Research PG. 53-111 Envelope Components and Assemblies PG. 54-102 (a) Components a. Cladding b. Air Barrier c. Insulation d. Vapor Barrier e. Structural f. Interior Assembly (b) Assemblies a. Roofs b. Walls c. Floors Fenestration PG. 103-111 (a) Methodology (b) Window Components Research a. Window Frame b. Glazing c. Integration to skin (c) Door Components Research a. Door i. Types b. Glazing Section 3: Overall Recommendation PG. 113-141 Total Configured Assemblies PG. 114-141 (a) Roofs a. Good i. Description of priorities ii. Graphic b. Better i. Description of priorities ii. Graphic c. Best i. Description of priorities ii. Graphic 4 (b) Walls a. Good i. Description of priorities ii. Graphic b. Better i. Description of priorities ii. Graphic c. Best i. Description of priorities ii. Graphic (c) Floors a. Good i. Description of priorities ii. Graphic b. Better i. Description of priorities ii. Graphic c. Best i. Description of priorities ii. Graphic Section 4: References PG. 143-145 VOLUME II Appendices – additional information supporting the report narratives, evaluations, and recommendations, as well as documentation for key project decisions. (a) Meeting Notes (b) Environmental Data (c) Component Data (d) Assembly Data — To be provided at 95% submittal (e) Fenestration Data — To be provided at 95% submittal (f) Energy Model and Analysis (g) References — To be provided at 95% submittal (h) Utilizing Off-Site Construction report 5 SECTION 1 OVERVIEW MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 7 Team Directory CLIENT National Science Foundation, United States Antarctic Program Antarctic Support Group, Lockheed Martin Corporation Logistical and Base Operations Support AUTHOR OZ Architecture Architecture, Interior Design, Planning CONSULTANTS Merrick and Company Consulting Engineers Hugh Broughton Architects Ltd. Subject Matter Expert / Peer Review Integrated Technology in Architecture Logistics and Fabrication Simpson Gumpertz & Heger Building Skin Specialists Rocky Mountain Institute High Performance Buildings Parametrix Construction Cost Estimating MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 8 Project Description This study identifies and evaluates the appropriate components and systems for consideration in the building envelope of all primary new facilities at McMurdo Station. From the evaluation of the various building envelope alternatives, this study makes recommendations for the most appropriate systems to contribute to the Basis of Design of the McMurdo Station facilities. Ultimately, this Basis of Design of the building envelope will be conveyed during the Design-Build solicitation without limiting the respondents’ ability to meet the performance standards via comparable means. Building Envelope “The envelope has to respond both to natural forces and human values. The natural forces include rain, snow, wind and sun. Human concerns include safety, security, and task success. The envelope provides protection by enclosure and by balancing internal and external environmental forces. To achieve protection it allows for careful control of penetrations. A symbol of the envelope might be a large bubble that would keep the weather out and the interior climate in.” – Richard Rush, The Building Systems Integration Handbook MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 9 Methodology This McMurdo Building Envelope Study involves: DESIGN CRITERIA 1 This first step establishes the various design criteria for McMurdo Station's building envelope. Such criteria involves the physical parameters of climatic, energy use, aesthetic, constructibility, logistical considerations, the cultural parameters of aesthetics, and the value parameters of first and life- cycle costs. Specifically, these design criteria are established for the various portions of the facility’s building envelope: roof, wall, and floor. BENCHMARKING 2 Here, the report investigates solutions used for the building shell at a number of other recently constructed Antarctic Research Stations and Arctic facilities. COMPONENT RESEARCH 3 This step involves the identification of the full range of potential building envelope components. This range represents the full spectrum, from those that have been proven through general use in the building industry, to those at the forefront of innovation both within the building industry and allied industries. However, this study does not entertain technologies that are either unproven in the building industry, or are employed at an advanced level with the aerospace industry. COMPONENT EVALUATION 4 Upon identification of both performance criteria and component characteristics, this study evaluates these components for their ability to satisfy the performance criteria. This evaluation involves the relative ranking of performance, summarized in both graphic and written form. ASSEMBLY RECOMMENDATION 5 Finally, based on this evaluation, this study recommends the optimal combination of building components to form the building envelope system for the facilities at McMurdo Station. MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 10 Methodology 1 DESIGN CRITERIA 2 BENCHMARKING 3 COMPONENT RESEARCH 4 COMPONENT EVALUATION 5 ASSEMBLY RECOMMENDATION MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 11 Design Criteria The following parameters are used as the basis of establishing the Design Criteria by which the range of building envelope components and systems are evaluated. Design Criteria are the factors and forces that impact the building shell and fenestration. GENERAL 1. All aspects of the construction, lifespan and removal of the building envelope shall be in conformance with the Antarctic Treaty. 2. Life Span of the McMurdo facilities shall be 50 years. This lifespan does not preclude replacement or refurbishment of specific envelope components. 3. On-site Labor to construct the enclosure shall be minimized. 4. Performance of the envelope shall be optimized to achieve an energy goal of 144 M BTU/yr. PHYSICAL PARAMETERS As the graphic diagram below indicates, the various physical parameters that form the basis for the physical design criteria involve: 1. Air Temperature gradients 2. Lateral and up-lift wind forces 3. Air infiltration 4. Ultra-violet intensity 5. Abrasion from air-born particulates 6. Structural & Thermal movement 7. Internal loading forces 8. Moisture Management CULTURAL PARAMETERS In addition to performing within the various physical parameters listed above, the building envelope shall respond to the following cultural parameters: 1. United States long-term Antarctic presence Durable, aesthetically timeless materials and forms 2. NSF presence and mission A display of the importance of the science mission through a design demonstrating thoughtful deliberation of the forms and the quality of the construction 3. Sensitivity to Place Facilities shall be designed to complement the unique Ross Island topographic, geological and climatic environment. 4. Promotion of Well-Being Indoor air quality, Thermal comfort, Views, Daylighting VALUE Both first cost and life-cycle cost are considered and evaluated. Life-cycle is not the life span of the building. Life span refers to the designed service life of the building, whereas life-cycle refers to the overall cost of the building through its life span as its is constructed, maintained, used, and removed. SYNERGIES The enclosure components being a part of a larger whole interact with other systems such as mechanical and structural designs. The ratios of opaque vs transparent enclosures are also a factor in the selection of the types of enclosures. The Design Phase will necessarily tune the enclosure components and assemblies to optimally satisfy the performance criteria in a cost effective manner. MCMURDO STATION MODERNIZATION STUDY | APRIL 29, 2016 12 Design Criteria FORCES PERFORMANCE CRITERIA WALLS/ROOFS | FLOORS | FENESTRATION TEMPERATURE THERMAL RESISTANCE -40F T0 30F DETERMINED BY ENERGY MODEL AIR MOVEMENT AIR INFILTRATION RESISTANCE 0.0002 CFM/SQFT | N/A | N/A MOISTURE MIGRATION MOISTURE INFILTRATION RESISTANCE 0.1 PERM | N/A | N/A WIND STRUCTURAL REQUIREMENTS 150 MPH YES | N/A | YES FIRE SMOKE DEVELOPED AND FLAME SPREAD CLASS A INTERIOR ENVIRONMENTAL GLOBAL WARMING POTENTIAL LOW GWP & ZERO OZONE DEPLETION CORROSION CORROSION RESISTANCE CATAGORIZED AS ACCEPTABLE ULTRAVIOLET UV RESISTANCE CATAGORIZED AS EXCELLENT ABRASION MATERIAL HARDNESS ____ | N/A | ____ HUMAN WEAR FRACTURE TOUGHNESS ____ | N/A | ____ CONSTRUCTABILITY IN SITU LABOR AND COMPLEXITY AIR SPACE AESTHETICS SUBJECTIVE THERMAL RESISTANCE Thermal Expansion is measured in terms of a coefficient known as coefficient
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