DOCSLIB.ORG

Louver Products Severe Duty, Stationary, Operable

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Louver Products Severe Duty, Stationary, Operable Louver Products Severe Duty, Stationary, Operable November 2017 Louver Selection Guide In an effort to help located and select the louver you need, this catalog organizes the more than 100 standard Greenheck louver models into easily navigated categories, organized by your application requirements. Conventional Application Louvers Fixed Blade These conventional fixed blade louvers are among our most popular. All shown are AMCA Licensed for Air EDJ-401 Performance and Water Penetration and may be applied 4-inch depth in conventional intake or exhaust applications where Stationary provisions to manage water are present or some nuisance Drainable Head weather infiltration is acceptable or accounted for. These Extruded Aluminum louvers shown are among the most economical options. J-Blade ESJ-401 ESD-435 4-inch depth 4-inch depth Stationary Stationary Non-Drainable Drainable Blades Extruded Aluminum Drainable Head J-Blade Extruded Aluminum 56% Free Area ESJ-602 ESD-635 6-inch depth 6-inch depth Stationary Stationary Non-Drainable Drainable Blades Extruded Aluminum Drainable Head J-Blade Extruded Aluminum 59% Free Area 2 Louver Selection Guide Wind Driven Rain Louvers Fixed Blade These high performance wind driven rain fixed blade louvers are among our most popular. All shown are AMCA Licensed for Air Performance, Water Penetration and Wind Driven Rain and may be applied in intake or exhaust applications where provisions to manage water are limited. Wind Driven Rain louvers offer far superior protection against driving rain when compared to conventional louvers. Horizontal blade wind driven rain louvers perform extremely well, but vertical blade products offer the best performance considering both weather resistance and airflow performance. These louvers are commonly applied on Data Center projects. EHH-501 EVH-301 5-inch depth 3-inch depth Stationary Stationary Extruded Aluminum Extruded Aluminum Horizontal Rain Vertical Rain Resistant Blade Resistant Blade 53% Free Area EHH-601 EVH-501 6-inch depth 5-inch depth Stationary Stationary Extruded Aluminum Extruded Aluminum Horizontal Rain Vertical Rain Resistant Blade Resistant Blade 54% Free Area FEMA 361 Tornado Louver This FEMA 361 louver is our most popular. The louver is tested in accordance to the ICC 500-2008 debris impact AFL-501 standard, which is a 15 lb. 2 x 4 traveling at 100 MPH. The 5-inch depth louver is certified to withstand extremely high wind loads Stationary and is AMCA Licensed for Air Performance and Water Extruded Aluminum Penetration. Additionally, this louver is a UL Classified Inverted V-Blade Windstorm Rated assembly. 3 Louver Selection Guide Miami-Dade County Qualified Florida Building Code Approved Hurricane Louvers These Miami-Dade Approved and/or Florida Building Code Approved high performance products are among our most popular. All are tested and certified to withstand extremely high wind loads, wind borne debris impacts and, in some cases, high velocity wind driven rain. All are AMCA Licensed for Air Performance and Water Penetration. EHH and EVH models are also AMCA Licensed for Wind Driven Rain. All are AMCA 540 Listed for wind borne debris impact resistance. EVH models are also AMCA 550 Listed for High Velocity Wind Driven Rain. EVH-501D ESD-635X 5-inch depth 6-inch depth Stationary Stationary Drainable Head Extruded Aluminum Miami-Dade Approved Florida Approved Vertical Rain Drainable Blade Resistant Blades 55% Free Area EHH-501X EVH-660D 5-inch depth 6-inch depth Stationary Stationary Extruded Aluminum Extruded Aluminum Florida Approved Miami-Dade Approved Horizontal Rain Vertical Rain Resistant Blade Resistant Blades ESD-635D/DE EACA-601D 6-inch depth 6-inch depth Stationary Combo Louver/Damper Extruded Aluminum Extruded Aluminum Miami-Dade Approved Miami-Dade Approved Drainable Blade Drainable Front Blade DE Lowest Cost Airfoil Damper Blade EHH-601D/DE 6-inch depth Stationary Extruded Aluminum Miami-Dade Approved Horizontal Rain Resistant Blade DE Lowest Cost 4 Louver Selection Guide Adjustable Blade Louvers and Combination Louver/Dampers These adjustable blade louvers and combination louver/ dampers are among our most popular. Most often these louvers are powered open or closed via electric actuators, which are most frequently supplied and EAH-690 factory adjusted by Greenheck. All shown are AMCA 6-inch depth Licensed for Air Performance and Water Penetration Adjustable (EAH-690 Air Performance only). The most common Full Open 90º blades application for these louvers are outside air intake Extruded Aluminum or exhaust for warehouses, distribution facilities and manufacturing plants. 68% Free Area EACA-601 EAD-601 6-inch depth 6-inch depth Adjustable Adjustable Combo Louver/Damper 45º Drainable Blades Extruded Aluminum Extruded Aluminum Airfoil Drainable Blades ECD-601 EAD-635 6-inch depth 6-inch depth Adjustable Adjustable Combo Louver/Damper 35º Drainable Blades Extruded Aluminum Extruded Aluminum Drainable Front Blade 55% Free Area Acoustical Louvers These acoustical louvers are among our most popular. AFJ-801 The louver blades are lined with sound absorbing insulation which results in a product that is highly 8-inch depth effective at reducing nuisance noise to the exterior. All are Stationary AMCA Licensed for Air Performance, Water Penetration Formed Aluminum and Sound. Insulated J-Blade AFJ-601 AFA-801 6-inch depth 8-inch depth Stationary Stationary Formed Aluminum Formed Aluminum Insulated J-Balde Insulated Airfoil Blade 5 Louver Selection Guide Louvers Airflow Aesthetics AMCA Certifications Free Area Free Area Wind Depth Blade Water Air AMCA AMCA Type Model 48 x 48 in. 48 x 48 in. Driven Sound (in.) Alignment Penetration Performance 540 550 (sq. ft.) (%) Rain EDD-401 8.22 51 4 H 33 EDD-601 8.21 51 6 H 33 EHM-601 7.91 49 6 H 33 Drainable Blade ESD-202 6.01 38 2 H 33 page 9 ESD-403 8.00 50 4 H 33 ESD-435 8.92 56 4 H 33 ESD-603 8.36 52 6 H 33 ESD-635 9.41 59 6 H 33 EDJ-401 8.32 52 4 H 33 EDJ-430 8.35 52 4 H 33 EDJ-601 8.69 54 6 H 33 EDK-402 8.49 53 4 H 33 Drainable Head page 10 EDK-430 8.80 55 4 H 33 ESID-430 10.88 68 4 H DISCHARGE ESID-430 7.66 48 4 H INTAKE ESJ-202 6.01 38 2 H 33 Non-Drainable ESJ-401 8.44 53 4 H 33 page 11 ESJ-602 8.73 55 6 H 33 ESK-402 8.45 53 4 H 33 EAD-401 6.54 41 4 H 33 EAD-601 7.34 46 6 H 33 EAD-635 8.73 55 6 H 33 Adjustable Blade EAH-401 6.48 41 4 H 33 page 12 EAH-690 6.32 40 6 H 3 (45º BLADE) EAH-690 10.87 68 6 H 3 (90º BLADE) EAC-401 6.34 40 4 H 33 EAC-601 7.41 46 6 H 33 EACA-601 7.68 48 6 H 33 EACC-401 5.41 34 4 H Combination EACC-601 6.20 39 6 H Louver/Damper page 13 EACN-601 7.18 45 6 H 33 ECD-401 7.60 48 4 H 33 ECD-601 7.32 46 6 H 33 GCE-402 6.36 40 4 H GCI-402 6.39 40 4 H 6 Louver Selection Guide Louvers Airflow Aesthetics AMCA Certifications Free Area Free Area Wind Depth Blade Water Air AMCA AMCA Type Model 48 x 48 in. 48 x 48 in. Driven Sound (in.) Alignment Penetration Performance 540 550 (sq. ft.) (%) Rain SED-401 5.16 32 4 H 33 Sightproof SED-501 9.11 57 5 H 33 page 14 SEH-401 5.16 32 4 H 33 SES-202 3.75 24 2 H 33 EHH-201 6.20 39 2 H 33 3 EHH-401 6.72 42 4 H 33 3 EHH-501 6.80 43 5 H 33 3 Wind Driven Rain EHH-601 7.58 47 6 H 33 3 page 15 EHH-701 6.99 43 7 H 33 3 EVH-301 8.40 53 3 V 33 3 EVH-501 8.77 55 5 V 33 3 EVH-602 6.02 39 6 V 33 3 EHH-501X 6.80 43 5 H 33 3 3 Florida Product Approved ESD-435X 8.92 56 4 H 33 3 page 16 ESD-635X 9.41 59 6 H 33 3 AFJ-601D 4.89 31 6 H 3333 EACA-601D 7.27 45 6 H 33 33 EHH-601D* 7.58 47 6 H 33 3 3 EHH-601DE 7.58 47 6 H 33 3 3 ESD-635D* 9.41 59 6 H 33 3 Miami-Dade Qualified ESD-635DE* 9.41 59 6 H 33 3 page 18-19 EHV-901 8.66 54 9 H/V 33 3 33 EHV-901D 8.66 54 9 H/V 33 3 33 ESS-502D 8.19 51 5 H 33 3 EVH-501D 8.77 55 5 V 33 3 33 EVH-660D 7.29 45 6 V 33 3 33 ESJ-155 7.35 46 1.5 H ESU-153 11.20 70 1.5 H Thinline page 20 ESU-153S 11.64 73 1.125 H ESU-154 8.49 53 1.5 H ESU-154S 8.77 55 1.125 H AFA-801 5.21 33 8 H 333 AFJ-120 3.39 21 12 H 333 Acoustical page 21 AFJ-601 4.89 31 6 H 333 AFJ-801 4.28 27 8 H 3 3 3 AFS-120 4.27 27 12 H 333 FAD-402 5.98 38 4 H 33 FAD-635 8.77 55 6 H 33 Fabricated FDS-402 7.03 44 4 H 33 page 22 FDS-602 8.15 51 6 H 33 FSJ-402 7.55 47 4 H 33 FSJ-602 7.57 47 6 H 33 *Optional factory installed VCD-40 control damper 7 About Us Greenheck louvers are available in unlimited standard configurations that meet or exceed the industry’s most stringent test performance standards while also providing exceptional aesthetic appeal.
Load more

Recommended publications
  • Airflow Simulations Around OA Intake Louver with Electronic Velocity
    Airflow Simulations around OA Intake Louver with Electronic Velocity Sensors Hwataik Han*1, Douglas P. Sullivan2 and William J. Fisk3 1 Professor, Kookmin University, Korea 2 Research Associate, Indoor Environment Department, Lawrence Berkeley National Laboratory, USA 3 Director, Indoor Environment Department, Lawrence Berkeley National Laboratory, USA Abstract It is important to control outdoor airflow rates into HVAC systems in terms of energy conservation and healthy indoor environment. Technologies are being developed to measure outdoor air (OA) flow rates through OA intake louvers on a real time basis. The purpose of this paper is to investigate the airflow characteristics through an OA intake louver numerically in order to provide suggestions for sensor installations. Airflow patterns are simulated with and without electronic air velocity sensors within cylindrical probes installed between louver blades or at the downstream face of the louver. Numerical results show quite good agreements with experimental data, and provide insights regarding measurement system design. The simulations indicate that velocity profiles are more spatially uniform at the louver outlet relative to between louver blades, that pressure drops imposed by the sensor bars are smaller with sensor bars at the louver outlet, and that placement of the sensor bars between louver blades substantially increases air velocities inside the louver. These findings suggest there is an advantage to placing the sensor bars at the louver outlet face. Keywords: ventilation; outdoor
    [Show full text]
  • Performance Measurements of a Unique Louver
    Performance Measurements Grant O. Musgrove Southwest Research Institute, of a Unique Louver Particle San Antonio, TX 78238 e-mail: [email protected] Separator for Gas Turbine Engines Karen A. Thole Mechanical and Nuclear Engineering Department, Solid particles, such as sand, ingested into gas turbine engines, reduce the coolant flow The Pennsylvania State University, in the turbine by blocking cooling channels in the secondary flow path. One method to University Park, PA 16802 remove solid particles from the secondary flow path is to use an inertial particle separa- tor because of its ability to incur minimal pressure losses in high flow rate applications. In this paper, an inertial separator is presented that is made up of an array of louvers Eric Grover followed by a static collector. The performance of two inertial separator configurations was measured in a unique test facility. Performance measurements included pressure Joseph Barker loss and collection efficiency for a range of Reynolds numbers and sand sizes. To comple- ment the measurements, both two-dimensional and three-dimensional computational United Technologies Corporation – results are presented for comparison. Computational predictions of pressure loss agreed Pratt & Whitney, with measurements at high Reynolds numbers, whereas predictions of sand collection East Hartford, CT 06108 efficiency for a sand size range 0–200lm agreed within 10% of experimental measure- ments over the range of Reynolds numbers. Collection efficiency values were measured to be as high as 35%, and pressure loss measurements were equivalent to less than 1% pres- sure loss in an engine application. [DOI: 10.1115/1.4007568] Introduction operating principle of inertial separators is to cause the particle- laden flow to abruptly change trajectory, whereby the particles do Aircraft gas turbines ingest solid particles during takeoff, land- not react to the change in flow direction due to their larger inertia ing, and while flying in dusty environments.
    [Show full text]
  • High Performance House Best Practices Guide
    New York State Energy Research & Development Authority High Performance House Best Practices Guide Design Intelligence for Energy Performance in Single Family Homes TABLE OF CON T EN T S High Performance House 1.1 Initial Work................................... 3 1.2 Process.......................................... 4 1.3 Testing........................................... 4 1.3.1 Building Construction.............................. 4 1.3.2 Building Form and Siting......................... 5 1.3.3 Passive Sustainable Strategies................ 6 1.3.4 Active Sustainable Strategies................... 14 1.4 Conclusions................................... 14 1.4.1 Additional Recommendations.................. 15 2 1.1 INitiAL WORK 1.1 Initial Work ON cti Preliminary analysis looked purely at geometric implications on energy use. This theoretical investigation tested a variety of building forms and found two general guidelines that govern performance. Across all building manipulations, results showed that forms minimizing volume and RODU T maximizing southern exposure perform best. This lines with rational thought; increased volume N increases the volume of required conditioned space, while maximizing southern exposure allows I for greatest winter solar gains and daylighting. Following this study, energy analysis was given for three, previously conceived housing designs – “Slope House”, “Underground House” and “X House”. In all cases, formal design (siting, building form, orientation) were given, fixed parameters. This proved a challenge to the energy optimization of the house. For the “Slope House”, building volume opens to the west without the benefit of southern expo- sure on the open face. Passive solar gains were minimal, with excessive shading on south facing windows. The majority of glazing is to the north, which effectively cuts the building’s thermal resistance/storage without the offsetting solar gains received on southern exposures.
    [Show full text]
  • Damper Application Guide 1.” 1 Common 2 2 + Hot
    Control of Dampers ®® INDEX I. INTRODUCTION A. Economizer Systems ............................................................................................................ 3 B. Indoor Air Quality ...................................................................................................................3 C. Damper Selection ..................................................................................................................3 II. DAMPER SELECTION A. Opposed and Parallel Blade Dampers ..................................................................................3 B. Flow Characteristics...............................................................................................................4 C. Damper Authority ..................................................................................................................4 D. Combined Flow ......................................................................................................................6 III. ADDITIONAL CONSIDERATIONS A. Economizer Systems .............................................................................................................6 B. Building Pressure ...................................................................................................................8 C. Mixed Air Temperature Control ..............................................................................................8 D. Actuators - General ................................................................................................................8
    [Show full text]
  • IAQ Economizer LOGIC BOX
    IAQ Economizer LOGIC BOX Split-system Economizing/Indoor Air Quality/CO Alarm Activated Works on forced air systems, with or without air conditioning installed Enables cost saving cooling strategy: Expensive mechanical cooling can be set at a higher temperature Fresh Air Cooling can be set at a lower temperature Supports a variety Indoor Air Quality configurations: Continuous introduction Timed introduction CO2 or VOC sensor activated introduction Provides alarm activated fresh air introduction supporting CO or other alarm installations Occupant interface provides easy override, along with readiness, damper and fault status, (continuous fault detection) Operational tests can be conducted from within the conditioned space Quick connect wiring harnesses provide fast, correct termination FRESH AIR MANUFACTURING CO. FAMCO IAQ Economizer Famcoiaq.com 649 N. Ralstin St., Meridian, ID 83642 * (208)884-8931 * (800)-234-1903 * FAX: (208)884-8943 IAQ Economizer ECONOMIZER SYSTEM Damper Actuator Exhaust Damper Transformer Thermostat Logic Literature Box Cables Damper Box Actuator – Honeywell MS8105A1030, 24 VAC, 44 lb-in torque Outdoor thermostat- Dayton RLZ94A Nema 4X, Range 30º-110º F Transformer – RIB Functional Devices, Inc. TR50VA005 , 50VA All required System Cables are provided: • Power 40’ • Furnace 40’, plenum rated, HVAC industry standard color coding for furnace board termination • Damper Box 50’, plenum rated • Outdoor thermostat, 70’ , shielded, non polarity sensitive FRESH AIR MANUFACTURING CO. FAMCO IAQ Economizer
    [Show full text]
  • Building Applications, Opportunities and Challenges of Active Shading Systems: a State-Of-The-Art Review
    energies Review Building Applications, Opportunities and Challenges of Active Shading Systems: A State-Of-The-Art Review Joud Al Dakheel and Kheira Tabet Aoul * ID Architectural Engineering Department, United Arab Emirates University, P.O. Box 15551 Al Ain, UAE; [email protected] * Correspondence: [email protected]; Tel.: +971-566-433-648 Academic Editor: Arman Hashemi Received: 28 June 2017; Accepted: 4 August 2017; Published: 23 October 2017 Abstract: Active shading systems in buildings have emerged as a high performing shading solution that selectively and optimally controls daylight and heat gains. Active shading systems are increasingly used in buildings, due to their ability to mainly improve the building environment, reduce energy consumption and in some cases generate energy. They may be categorized into three classes: smart glazing, kinetic shading and integrated renewable energy shading. This paper reviews the current status of the different types in terms of design principle and working mechanism of the systems, performance, control strategies and building applications. Challenges, limitations and future opportunities of the systems are then discussed. The review highlights that despite its high initial cost, the electrochromic (EC) glazing is the most applied smart glazing due to the extensive use of glass in buildings under all climatic conditions. In terms of external shadings, the rotating shading type is the predominantly used one in buildings due to its low initial cost. Algae façades and folding shading systems are still emerging types, with high initial and maintenance costs and requiring specialist installers. The algae façade systems and PV integrated shading systems are a promising solution due to their dual benefits of providing shading and generating electricity.
    [Show full text]
  • BIM Handbook
    BIM Handbook A Guide to Building Information Modeling for Owners, Managers, Designers, Engineers, and Contractors Chuck Eastman Paul Teicholz Rafael Sacks Kathleen Liston John Wiley & Sons, Inc. BIM Handbook: A Guide to Building InformationModeling for Owners, Managers,Designers, Engineers, and Contractors. Chuck Eastman, Paul Teicholz, Rafael Sacks and Kathleen Liston Copyright © 2008 John Wiley & Sons, Inc. ffirs.indd i 1/3/08 12:32:13 PM This book is printed on acid-free paper. ϱ Copyright © 2008 by John Wiley & Sons, Inc. All rights reserved Published by John Wiley & Sons, Inc., Hoboken, New Jersey Published simultaneously in Canada No part of this publication may be reproduced, stored in a retrieval system, or transmitted in any form or by any means, electronic, mechanical, photocopying, recording, scanning, or otherwise, except as permitted under Section 107 or 108 of the 1976 United States Copyright Act, without either the prior written permission of the Publisher, or authorization through payment of the appropriate per-copy fee to the Copyright Clearance Center, 222 Rosewood Drive, Danvers, MA 01923, (978) 750-8400, fax (978) 646-8600, or on the web at www.copyright.com. Requests to the Publisher for permission should be addressed to the Permissions Department, John Wiley & Sons, Inc., 111 River Street, Hoboken, NJ 07030, (201) 748-6011, fax (201) 748-6008, or online at www.wiley.com/go/permissions. Limit of Liability/Disclaimer of Warranty: While the publisher and the author have used their best efforts in preparing this book, they make no representations or warranties with respect to the accuracy or completeness of the contents of this book and specifi cally disclaim any implied warranties of merchantability or fi tness for a particular purpose.
    [Show full text]
  • Studio Education for Integrated Practice Using
    STUDIO EDUCATION FOR INTEGRATED PRACTICE USING BUILDING INFORMATION MODELING A Dissertation by OZAN ÖNDER ÖZENER Submitted to the Office of Graduate Studies of Texas A&M University in partial fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY December 2009 Major Subject: Architecture STUDIO EDUCATION FOR INTEGRATED PRACTICE USING BUILDING INFORMATION MODELING A Dissertation by OZAN ÖNDER ÖZENER Submitted to the Office of Graduate Studies of Texas A&M University in partial fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY Approved by: Chair of Committee, Mark J. Clayton Committee Members, Robert E. Johnson Wei Yan José L. Fernández-Solís Head of Department, Glen Mills December 2009 Major Subject: Architecture iii ABSTRACT Studio Education for Integrated Practice Using Building Information Modeling. (December 2009) Ozan Önder Özener, B.Arch., Istanbul Technical University; M.Arch., Istanbul Technical University Chair of Advisory Committee: Dr. Mark J. Clayton This research study posits that an altered educational approach to design studio can produce future professionals who apply Building Information Modeling (BIM) in the context of Integrated Project Delivery (IPD) to execute designs faster and produce designs that have demonstrably higher performance. The combination of new technologies and social/contractual constructs represents an alternative to the established order for how to design and how to teach designers. BIM emerges as the key technology for facilitating IPD by providing consistent, computable and interoperable information essential to all AEC teams. The increasing trend of BIM adoption is an opportunity for the profession to dramatically change its processes and may potentially impact patterns of responsibility and the paradigms of design.
    [Show full text]
  • Flow, Heat Transfer, and Pressure Drop Interactions in Louvered-Fin Arrays
    Flow, Heat Transfer, and Pressure Drop Interactions in Louvered-Fin Arrays N. C. Dejong and A. M. Jacobi ACRC TR-I46 January 1999 For additional information: Air Conditioning and Refrigeration Center University of Illinois Mechanical & Industrial Engineering Dept. 1206 West Green Street Prepared as part ofACRC Project 73 Urbana. IL 61801 An Integrated Approach to Experimental Studies ofAir-Side Heat Transfer (217) 333-3115 A. M. Jacobi, Principal Investigator The Air Conditioning and Refrigeration Center was founded in 1988 with a grant from the estate of Richard W Kritzer, the founder of Peerless of America Inc. A State of Illinois Technology Challenge Grant helped build the laboratory facilities. The ACRC receives continuing support from the Richard W. Kritzer Endowment and the National Science Foundation. The following organizations have also become sponsors of the Center. Amana Refrigeration, Inc. Brazeway, Inc. Carrier Corporation Caterpillar, Inc. Chrysler Corporation Copeland Corporation Delphi Harrison Thermal Systems Eaton Corporation Frigidaire Company General Electric Company Hill PHOENIX Hussmann Corporation Hydro Aluminum Adrian, Inc. Indiana Tube Corporation Lennox International, Inc. rvfodine Manufacturing Co. Peerless of America, Inc. The Trane Company Thermo King Corporation Visteon Automotive Systems Whirlpool Corporation York International, Inc. For additional information: .Air.Conditioning & Refriger-ationCenter Mechanical & Industrial Engineering Dept. University ofIllinois 1206 West Green Street Urbana IL 61801 2173333115 ABSTRACT In many compact heat exchanger applications, interrupted-fin surfaces are used to enhance air-side heat transfer performance. One of the most common interrupted surfaces is the louvered fin. The goal of this work is to develop a better understanding of the flow and its influence on heat transfer and pressure drop behavior for both louvered and convex-louvered fins.
    [Show full text]
  • Facilities Standards for the Public Buildings Service (PBS-PQ100.1)
    CHAPTER 1. GENERAL REQUIREMENTS Facilities Standards for the Public Buildings Service (PBS-PQ100.1) Arrangement of Chapters Chapter 1: General Requirements Appendix 1.A: Life Cycle Cost Example Chapter 2: Site Planning and Landscape Design Chapter 3: Architectural and Interior Design Chapter 4: Structural Engineering (Includes Seismic Design) Chapter 5: Mechanical Engineering Chapter 6: Electrical Engineering Appendix 6.A: Energy Efficient Design of New Buildings Chapter 7: Fire Protection Engineering Chapter 8: Security Design Index PBS-PQ100.1 June 14, 1996 Page i FACILITIES STANDARDS FOR THE PUBLIC BUILDINGS SERVICE CHAPTER 1 GENERAL REQUIREMENTS Purpose of the Facilities Standards for the Public Buildings Service ......................................................................................................... 1 Arrangement of Chapters.................................................................................... 3 Applicability of the Facilities Standards ........................................................................ 4 GSA Building Types .......................................................................................... 4 Office Buildings...................................................................................... 4 Courts...................................................................................................... 4 Border Stations........................................................................................ 4 Child Care Centers.................................................................................
    [Show full text]
  • Passive Building Design Guide: Multifamily Construction Copyright 2018 Passive House Institute US, All Rights Reserved
    Passive Building Design Guide FOR DEVELOPERS, INVESTORS & CONSTRUCTION PROFESSIONALS MULTIFAMILY CONSTRUCTION ACKNOWLEDGEMENTS We would like to thank the MacArthur Foundation for making this design guide and its associated website, the Multifamily Construction Resource Center (www.multifamily.phius.org), possible. Through these new resources, they do vital work building a more just verdant, and peaceful world, specifically through slashing the effects of global climate change. We thank them for their investment and commend them for acting locally on issues with global implications. We would also like to thank all of the people who worked with us to put this guide together. Their help tracking down photos, photo credits, providing technical insight, and inside information was invaluable and has made this a better book. Among the people who dropped everything to help: Sam Rodell, Erin Cooperrider, Dylan Lamar, Matt Fine, HousingUp, REACH CDC, Community Housing of Maine, Tinsley Morrison, Vickey Rand, Ben Walter, Colin Schless, Michael Hindle, Steve Bluestone, Hammer and Hand, Ben Bogie, James Hartford, Hank Keating, and last—but not least—Sloan Ritchie. Passive Building Design Guide: Multifamily Construction Copyright 2018 Passive House Institute US, all rights reserved. CONTENTS Introduction 4 Passive Building Fundamentals 5 �� Passive Building Benefits 6 Detail drawings eliminate weak links. �� 8 10 Great windows make rooms bigger. Passive Building Works for D A RE RCH TE I S T I E GMICHAEL WILLIAM CLINEC T E R C D 15 5/23/2014 2:38:40 PM S PORTLAND, OREGON A4.25 R 61CC T N 4 12 A #2987 O T E G E OF O R all Building Types ™ T.O PLATE AT BRICK 136' - 8" 6720 SW MACADAM AVENUE, SUITE 100 PORTLAND, OR 97219 6111 T 503-245-7100 4 117 SOUTH MAIN STREET, SUITE 400 �� SEATTLE, WA 98104 T 206-576-1600 12 R 61GC © ANKROM MOISAN ARCHITECTS, INC.
    [Show full text]
  • How to Specify AMCA-Certified Sand Louvers
    August 2017 How to Specify AMCA-Certified Sand Louvers An AMCA International White Paper AMCA International 30 West University Dr. Arlington Heights, IL 60004 USA www.amca.org This white paper is available to download at no cost at www.amca.org/whitepapers AUTHORED BY THE AMCA INTERNATIONAL SAND LOUVER COMMITTEE SEND COMMENTS AND SUGGESTIONS TO MICHAEL IVANOVICH, SENIOR DIRECTOR, INDUSTRY RELATIONS, AMCA INTERNATIONAL, [email protected] How to Specify AMCA- Certified Sand Louvers ABSTRACT This white paper describes how airborne sand has posed an increasing challenge for HVAC service technicians and how and how specifying AMCA-certified sand louvers can help mitigate sand-related problems. For building owners in Persian Gulf countries, sand storms have long been a fact of life and a threat to HVAC equipment. For this reason, there is growing global attention on the quantity of sand that moves through the louvers installed on building facades and casements of equipment penthouses and enclosures. But a great help has been introduced in this struggle against sand penetration, and that is the introduction of louvers specifically designed, tested and certified to reject sand. The Air Movement and Control Association International (AMCA) and its members have worked to improve the integrity of sand louver ratings and to make them simpler to specify. AMCA is a global association of manufacturers of louvers, fans and other dampers, as well as other air-system products. The association, which formed in 1917, has been administering the AMCA Certified Rat- Sand louver with a plate containing holes for sand to exit. Im- ings Program (CRP) for nearly 75 years.
    [Show full text]