Fire Protection Application Guide Armacell's Products for Passive Fire Protection
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Case Study: Asbestos Joint Compound on Drywall/Sheetrock $100,000.00 Savings
CASE STUDY: ASBESTOS JOINT COMPOUND ON DRYWALL/SHEETROCK $100,000.00 SAVINGS SCOPE OF SERVICES: AET was contracted by a not-for-profit senior adult community facility to provide asbestos contracting services prior to planned demolition of one of their outdated buildings. An EPA NESHAP inspection of the building had previously identified 24,000 SF of asbestos containing joint compound associated with non-asbestos drywall on the interior walls of the building. The asbestos building inspector had made a recommendation to remove the joint compound and associated drywall prior to demolition. AET was asked to provide a competitive bid for asbestos work along with two other asbestos contractors. AET EXPERIENCE: Joint compound or mud is used to seal joints/seams of the drywall. After application and drying the compound is sanded before being painted. Sanding can create an inhalation hazard from the dust release. Joint compound used before 1980 can contain asbestos. OSHA regulates disturbance/exposure to joint compound and requires this building material to be analyzed separately from the drywall by PLM. The EPA regulates disposal of drywall/joint compound and allows for this combined material to be composited into a single matrix. When analyzed as separate layers by OSHA, the drywall itself rarely contains asbestos and the joint compound where asbestos is found usually contains between 2-4% chrysotile asbestos. However, when analyzed as a composite per EPA protocol, the combined building material (2 layers) rarely exceeds >1% criteria to be defined as ACM. ABATEMENT REQUIREMENTS/COST SAVINGS: AET informed the potential new client that the drywall/joint compound did not have to be removed prior to demolition. -
Fire Prevention and Control in Compressor Buildings
THE INGAA FOUNDATION, INC. 10 G Street, NE, Suite 700 • Washington, DC 20002 (202) 216-5900 • FAX (202) 216-0870 • www.ingaa.org Fire Prevention and Control in Compressor Buildings Prepared for The INGAA Foundation, Inc. by: Solomon Associates 13455 Noel Road Suite 1500 Dallas, TX 75240-6634 F-2004-50625 Copyright © 2004 by The INGAA Foundation, Inc. Table of Contents Executive Summary ii Introduction 1 Project Scope and Approach 2 Assumptions and Limitations 3 Project Results 4 Summary 6 Attachment A Master Summary Document A-1 Fire Prevention and Control Survey forDallas Compressor StationsLondon Beijing Shanghai Mexico City i Chennai Solomon Associates #4RL118C Dallas London Beijing Shanghai Mexico City Chennai Executive Summary Solomon Associates (Solomon) is pleased to submit the Fire Prevention and Control Survey for the results obtained from a survey designed to gather information on the fire prevention and control practices of Interstate Natural Gas Association of America (INGAA) membership. Some insurance industry loss control inspectors are recommending or requiring installation of active fire suppression systems in natural gas compressor buildings without due consideration of fire prevention efforts or costs versus benefits. The objective of this INGAA membership survey was to determine the extent to which insurance and risk management companies are requesting natural gas transmission companies to install active fire prevention controls, what types of active and passive controls are being used, and the incidence of fires. Active fire controls include a method of distinguishing the fire after ignition, whereas passive controls are methods to minimize fire risk or alert operators of a fire or fire condition. -
Separation Distances in NFPA Codes and Standards
Separation Distances in NFPA Codes and Standards Final Report Prepared by: Dr. Ted Argo and Mr. Evan Sandstrom Applied Research Associates, Inc. Rocky Mountain Division 7921 Shaffer Parkway Littleton, CO 80127 © 2014 Fire Protection Research Foundation THE FIRE PROTECTION RESEARCH FOUNDATION ONE BATTERYMARCH PARK QUINCY, MASSACHUSETTS, U.S.A. 02169-7471 E-MAIL: [email protected] WEB: www.nfpa.org/Foundation —— Page c —— —— Page ii —— FOREWORD Many NFPA codes and standards, in particular NFPA 400, Hazardous Materials Code, specify separation/clearance distances for hazardous chemical storage and processes from other equipment and occupied buildings. Many of these requirements have historical undocumented origins. Guidance, which may inform a sound technical basis for adjusting these distances, has been requested by NFPA Technical Committees. There are a number of methodologies in the literature, both risk and hazard based, which are used in the chemical safety process safety field that may be relevant to the calculation of these distances. The purpose of this project is to provide guidance to NFPA technical committees on methodologies to develop technically based separation/clearance distances for hazardous chemical storage/processes and their application to the chemical storage and processes. The specific focus of the project is those hazards within the scope of NFPA 400. The Research Foundation expresses gratitude to the report author Dr. Ted Argo and Mr. Evan Sandstrom, who is with Applied Research Associates, Inc located in Littleton, CO. The Research Foundation appreciates the guidance provided by the Project Technical Panelists and all others that contributed to this research effort. Thanks are also expressed to the National Fire Protection Association (NFPA) for providing the project funding through the NFPA Annual Code Fund. -
Sheetrock Plaster of Paris J928
® Plaster of Paris For patching interior walls and ceilings Description SHEETROCK Plaster of Paris is a fast-setting material used to repair ▪ For drywall and plaster surfaces holes and cracks in drywall and plaster walls and ceilings. It dries hard within 30 minutes. SHEETROCK Plaster of Paris may also be used ▪ Also ideal for molding and casting for casting, modeling or sculpting forms. ▪ Advantages Sets hard in 30 minutes Ideal for patching. SHEETROCK Plaster of Paris is the solution to ▪ For interior use only interior drywall and plaster surface problems. Patching both holes and cracks is easy and fast. Fast setting. SHEETROCK Plaster of Paris is easy to work with and hardens in only 30 minutes. Economical. Mix only the amount of SHEETROCK Plaster of Paris you need to use for each application. For molding and casting. SHEETROCK Plaster of Paris is formulated so that it provides excellent molding and casting properties Directions Mixing—Use cool, clean water and clean equipment; mix powder and water in proportions shown below. Mix to the consistency of a smooth paste. Do not overthin. Avoid mixing more material than can be used in 15 minutes. Mixing Proportions—Mix powder thoroughly into water until completely wet. The initial mix should be slightly thicker or heavier than the desired working consistency. Mix until smooth. Let this initial mix soak for approximately one minute. (Note: The cooler the conditions, the longer the material must soak.) Remix approximately one minute, adding water to achieve the desired working consistency. Do not mix with other compounds in wet or dry form. -
The Sound Design Guide
The Sound Design Guide a transparent resource for sound & fire information get your LEED on! Scan this code to access our LEED credit calculator and score points for your project! if your walls could talk they would ask for us Architects and specifi ers face many design challenges, knowing what your walls really want shouldn’t be one of them. Walls and ceilings are not something just to hold up paint, they play a critical role in your building design. As a manufacturer, we have taken great strides in simplifying this part of the building envelope by providing new comprehensive tools and rich online resources to you, the architect and specifi er. Our product specifi cations and sustainability tools, available at www.PABCOgypsum.com and ARCAT, have been paired with new continuing education courses that cover everything from sound and acoustic challenges to discussions related to new 2015 industry standards. Meet your design goals with ease. Be it our trusted FLAME CURB®, light-weight LITECORE®, protective PABCO GLASS® or our award winning QuietRock®; we have what the job demands. what the job demands PABCO® Gypsum technical services: 866.282.9298 www.PABCOgypsum.com QuietRock® acoustical products: 800.797.8159 www.QuietRock.com get your LEED on! Scan this code to access our LEED credit calculator and score points for your project! if your walls could talk they would ask for us Architects and specifi ers face many design challenges, knowing what your walls really want shouldn’t be one of them. Walls and ceilings are not something just to hold up paint, they play a critical role in your building design. -
Forcefield® Fireguard E-84® Intumescent Paint for Gypsum/ Wood/ OSB
ForceField® FireGuard E-84® Intumescent Paint For Gypsum/ Wood/ OSB Application Conditions Substrates & Surface Preparation General Prior to application surfaces need to be cleaned by removing Generic Type Water-based intumescent coating designed for the fire all oil, grease or any loose particles that may interfere with protection of gypsum and wood. the bond of ForceField® FireGuard®. It is highly Description Thin film intumescent coating that creates a fire retardant recommended to prime drywall substrates before the and fire resistant barrier on a wide range of building surfaces application of FireGuard E-84®. including gypsum, wood, and steel (see tech data sheet for On wood substrates where the wood is extremely old and steel). dried out, it will be necessary to scrape off any old flaking off paint (if painted) and prime the surface before the Listed and certified by Guardian Fire Test Laboratories Inc. application of FireGuard E-84®. Features -ASTM E-119 ASTM E-84 Tested -Decorative Finish- Gives a smooth decorative finish. Performance Data -Can be top-coated to color choice. -Can be brushed on, rolled on, or sprayed on Standards Tested To Results -Durable finish- Provides a hard, impact and abrasion ASTM 2768 / ASTM E-84 30 min Extended Flame Spread- 0 Smoke Index- 5 resistant surface ASTM E-84 -Topcoat finishes smooth -Thin film coating- space saving footprints ASTM E-119 1 & 2 Hour on gypsum and wood -Low VOC content UL 263 wall and floor/ceiling assemblies -LEED compliant NFPA 251 ULC-S-101 Color White Finish Smooth Primers Can be used as a finished coat or a primer. -
Installation of Common Insulation Types: Technote Wood-Frame Walls and Attics
TechNote Installation of Common Insulation Types: Wood-Frame Walls and Attics Thermal insulation is added to walls, roof/ceilings, and floors to slow down the flow of heat into or out of a home. For alltyp es of insulation, the quality of installation is a significant factor in creating an energy-efficient and durable building enclosure and comfortablendoor i environment. This TechNote provides practical information for the installation of three types of insulation in various applications. Itis intended to help builders and designers meet the requirements of the energy code and maximize the value of each insulation type. Insulation Types Addressed material into wall cavities or onto an spray-applied into open wall cavities. attic floor. In open-frame wall cavities, Damp blown cellulose requires time to Fiberglass is composed of spun glass the fiberglass is held in place by a dry before drywall can be installed. fibers. netting material or can be coated with Spray Polyurethane Foam (SPF) is an acrylic binder during application. Fiberglass Batts have glass fibers fabricated on site using two components coated with a bonding agent. The batts Cellulose insulation is made up of sprayed through a nozzle. Proper foam come in pre-cut lengths and fit between 70% - 85% recycled newspaper, formation requires adhering to standard wall stud spacing or are and is shredded and treated for fire, pest, manufacturer instructions on ambient shipped in rolls and cut to length at the and mold resistance. temperature and humidity, as well as job site. Batts are hand-cut/trimmed to receiving substrate temperature. The be installed around pipes, electrical Dry-Blown Cellulose is installed using SPF cures in place and a short period of wiring, and in non-standard cavities. -
Fire Retardant Paint Latex Intumescent Coating Flat Finish Fr-110
FIRE RETARDANT PAINT LATEX INTUMESCENT COATING FLAT FINISH FR-110 Features General Description • Intumescent product • Applies like a regular Insl-x® Fire Retardant Paint is a high-quality latex decorative, • Flame Spread Rating: paint intumescent, fire retardant coating for interior ceilings, walls and Class "A" when tested in • Soap and water trim. This product provides a high-hiding flat finish that retards accordance with ASTM E-84 cleanup flame spread by reacting to heat and forming a thick cellular char blanket (intumescence). By reducing excessive heat (NFPA 255) and S-102. • Low VOC penetration, this product retards flame spread and minimizes smoke generation. It is suitable for primed or previously painted wood, drywall, cellulose tile, cured plaster, masonry and metal. It applies like a conventional latex paint, low in VOCs, and washes without spotting. Recommended For Limitations For interior use on primed or previously painted wood, drywall, • Use product when surface temperature is between 50 °F cellulose tile, cured plaster, masonry and metal. NOTE: Top (10 °C) and 95 °F (35 °C). coating this product will reduce its intumescent properties. Product Information Colors — Standard: Technical Data◊ White White FR-110 Vehicle Type Vinyl Acrylic Can be tinted with up to 2 oz. of Universal Colorants. Pigment Type Titanium Dioxide — Tint Bases: Volume Solids 46.0 ± 1.0% NA Coverage per Gallon and per coat at Recommended Film Thickness — Special Colors: Note: 10 minute burn class A rating. ASTM-E-84 with Contact your dealer. spread rate: 2 coats at 300-330 square feet/gallon (4.7- 5.2 mils WFT and 2.2-2.4 mils DFT each) Certifications & Qualifications: Note: 30 minute burn class A rating. -
Overview of the Legal Design Basis for Passive Fire Protection in Korea and the Direction of Further Development
Article Overview of the Legal Design Basis for Passive Fire Protection in Korea and the Direction of Further Development Jae-Young Choi and Sang-Hoon Byeon * Department of Health and Safety Convergence Science, Korea University, Seoul 02841, Korea; [email protected] * Correspondence: [email protected]; Tel.: +82-2-3290-5693 Abstract: The design of passive fire protection is applied to minimize the domino effect when a liquid pool fire occurs due to the facilities inside a process plant. In general, the design of passive fire protection has been applied using the API RP 2218 guideline as the basis regardless of the country or owner of the process plant. However, in Korea, legal regulations dictate that explosive areas should be regarded as fireproofing zones rather than following the API RP 2218 guideline. Because liquid pool fires and explosive gas atmospheres are different concepts, it is wrong from an engineering perspective to regard them as the same. Therefore, when a liquid pool fire occurs in a process plant in Korea, it may be more dangerous than in any other countries. In this study, we investigated three categories of fire risk. Korean safety regulations for the design of passive fire protection and others that are not reasonable from an engineering perspective need to be studied and revised. Specifically, Korea needs to revise the design basis of passive fire protection based on the API RP 2218 guideline as a legal standard in accordance with global trends. Keywords: passive fire protection; fireproofing; API RP 2218; hazardous area classification; loss pre- vention Citation: Choi, J.-Y.; Byeon, S.-H. -
Fire Resistance Provided by Gypsum Board Membrane Protection (Ga-610-02)
FIRE RESISTANCE PROVIDED BY GYPSUM BOARD MEMBRANE PROTECTION (GA-610-02) Introduction must be approved by the authority having Dividing buildings into distinct fire-protected jurisdiction. areas is typically accomplished by providing fire- When to Use a Membrane Rating resistance rated separations between those areas. This Fire tests on floor-ceiling systems are historically type of separation is easily achieved by the use of conducted with fully loaded solid-sawn nominal 2x10 gypsum board applied to either wood or steel framing (38x235 mm) floor framing. Hundreds of fire tests members. These fire-rated separations are usually were conducted prior to the development of provided as total assemblies, consisting of the engineered wood trusses, wood I-joists, and structural member, the gypsum board and structural lightweight steel joists. In certain types of new flooring material (if a floor/ceiling assembly). Listings construction, it may be neither practical nor of many fire-rated assemblies or Designs are found in economical to use the type of structural components the GA-600, UL Fire Resistance Directory, etc. found in tested and listed systems. In addition, However, often no fire-rated assembly exists to engineered systems taking into account the actual match a particular configuration to be built. This is loads and spans enable designers to specify systems often the case for retrofit work, but may also occur in that may not require 2x10 (38x235 mm) joists. These new construction. In this case all of the fire resistance engineered systems often specify smaller dimension may be provided by a gypsum board “membrane”; lumber, wood trusses, wood I-joists, other engineered typically several layers of fire-rated (type X) gypsum lumber products, steel channel joists, or other board. -
Passive Firestop Systems Critical for Building Occupants
10/23/13 4:29 PM Passive firestop systems critical for building occupants By Gregg Stahl Instruments of active fire protection, such as sprinkler systems and fire extinguishers, are a common sight in most buildings – they are always located where building occupants can easily see and access them, if needed. Not as much attention is given to passive fire protection systems, embedded into interior building assemblies, away from public view. However, they are just as integral to the protection of the structure and its occupants in the event of a fire. A key component of commercial building design, passive fire protection's aim is to contain a fire at its source and prevent the spread of flames and smoke throughout a building to allow occupants more time to safely evacuate the structure. The most important area of concentration for these passive fire protection design strategies is the wall assembly, and the most effective mode of passive fire protection is the passive firestop system. Passive firestop systems Fire and smoke can travel through gaps in wall assemblies. Therefore, it is necessary to seal off any wall perimeter joints or penetrations for switches, electrical boxes, power outlets or the passage of pipes, cables or HVAC ductwork with firestop materials. Typically, these materials include: sealants, intumescent materials, sprays, mechanical devices and foam blocks or pillows. It is important to remember that there isn't one universal product that will work for every firestop application. It is also important to select products that have been tested appropriately to meet applicable fire safety standards. The two materials most commonly used in passive firestop systems for today's commercial building projects are sealants and intumescent materials. -
UL XHEZ.W-L-3231 Drywall 1 and 2 Hr. Through-Penetration Firestop System Using Unique Fire Stop Products – Smooth Penetrator
UL XHEZ.W-L-3231 Drywall 1 and 2 Hr. Through-penetration Firestop System using Unique Fire Stop Products – Smooth Penetrator 1. Wall Assembly — The 1 or 2 hr fire-rated gypsum board/stud wall assembly shall be constructed of the materials and in the manner described in the individual U300, U400 or V400 Series Wall and Partition Designs in the UL Fire Resistance Directory and shall include the following construction features: A. Studs — Wall framing shall consist of either wood studs or steel channel studs. Wood studs to consist of nom 2 by 4 in. (51 by 102 mm) lumber spaced 16 in. (406 mm) OC. Steel studs to be min 3-5/8 in. (92 mm) wide and spaced 24 in. (610 mm) OC. B. Gypsum Board* — 5/8 in. (16 mm) thick, 4 ft (1219 mm) wide with square or tapered edges. The gypsum board type, thickness, number of layers, fastener type and sheet orientation shall be as specified in the individual U300, U400 or V400 Series Designs in the UL Fire Resistance Directory. The hourly F Rating of the firestop system is equal to the hourly fire rating of the wall assembly in which it is installed. 2. Cables — Aggregate cross-sectional area of cables in Smooth Sleeve to be min 8 percent to max 48 percent of the aggregate cross- sectional area of the Smooth Sleeve. Cables to be rigidly supported on both sides of wall assembly. Any combination of the following types and sizes of cables may be used: 251-960-5018 Unique Fire Stop Products, Inc.