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University of Houston Master Construction Specifications Insert Project Name

AE Project Number: Revision Date: July 28, 2017

Fire Protection Systems 21 12 00 – 1

SECTION 21 12 00

FIRE PROTECTION SYSTEMS

PART 1 - GENERAL

1.1 RELATED DOCUMENTS:

A. The Conditions of the Contract and applicable requirements of Division 1, "General Requirements",and Section 23 01 00, "Mechanical General Provisions", govern this Section.

1.2 DESCRIPTION OF WORK:

A. W ork Included: Provide a complete building fire protection standpipe and sprinkler system incompliance with these Specifications.

B. Types: The types of fire protection systems shall include, but is not limited to, the following:

[EDIT TO SUIT PROJECT]

1. [The building [and garage] fire protection system shall consist of a fire standpipe systemand fire hose cabinets in accordance with NFPA 14 [and served by a diesel primary firepump and an electric backup pump]. The combination standpipes will serve fire hosevalves located as shown on the Drawings and the building sprinkler systems.]

2. [The [building] fire protection system shall consist of a complete sprinkler system inaccordance with NFPA 13[, City of Houston Building Code] [and the requirements of theTexas State Board of Insurance]. The sprinkler system shall be served directly from citywater pressure via sprinkler alarm valves.]

3. [The [building] fire protection system shall consist of a complete sprinkler system servedfrom a combination standpipe system in accordance with NFPA 13, NFPA 14 [and therequirements of the local Fire Marshal.] [, City of Houston Building Code.] [, the City ofHouston High-Rise Code.] [, the requirements of Industrial Risk Insurers (IRI)] [and therequirements of the Texas State Board of Insurance.]]

4. [The garage fire protection system shall consist of a fire standpipe system and fire hosecabinets in accordance with NFPA 14.]

5. [The [ ] shall be protected with a CleanAgent total flooding fire suppression system, as specified in Section 21 22 00, "CleanAgent Fire Suppression System".]

6. [Conditioned areas of the building shall be protected with a wet-pipe sprinkler system asspecified in Section 21 13 13, "Wet-Pipe Fire Sprinkler System".]

7. [Sprinkler system zoning shall correspond to building [smoke compartments], [floors][and atrium enclosure] as shown on the Drawings.]

8. [A dry-pipe (freezeproof) sprinkler system shall be provided for[ ] and all other areas where piping is subject to freezing, as specified in Section 21 13 16, "Dry-Pipe Fire Sprinkler System".

C. Combination Standpipe System:


AE Project Number: Revision Date: 07/28/2017



1. Install combination standpipe system in the building consisting of risers with 2-1/2" hose valveson each floor in each stairway and at other locations shown on the Drawings.

2. System shall include fire pump(s), jockey pump(s), required drain lines, test connections, tools,fire department inlet connections, water motor alarms, monitor switches, alarm valves, isolationvalves, and similar items. Refer to Section 21 30 00 for fire and jockey pumps.

3. Provide riser control valves and sprinkler zone control valve/test assemblies with valve tamperswitches, as required.

D. Pressure Ratings: Fire protection piping systems pressure ratings shall be as follows:

[VERIFY REQUIREMENTS]

Working Operating




Location Pressure Temperatures

High ............ Floors [ ] through [ ] 350 psig 55°F to 80°F Medium ...... Floors [ ] through [ ] 300 psig 55°F to 80°F Low............. Floors [ ] through [ ] 150 psig 55°F to 80°F

E. Basic Materials and Methods: Refer to Section 23 03 00, "Basic Materials and Methods", foradditional fire protection piping system requirements.

F. Vibration Isolation: Refer to Section 23 05 48, "Vibration Isolation", for piping system isolation.

G. Insulation: Refer to Section 23 07 00, "System Insulation", for piping system insulation.

1.3 QUALITY ASSURANCE:

A. Contractor: The fire protection system modification and expansion shall be designed and installed bya fire protection contractor who is licensed by the State of Texas to perform fire protection work of thetype specified for this project. The fire protection contractor shall have a minimum of 5 years ofexperience in the installation of fire protection work of the type specified for this project.

B. Applicable Publications: The publications listed below form a part of this Specification to the extentreferenced. The publications are referred to in the text by basic designation only.

1. National Fire Protection Association (NFPA):

a. NFPA 13 Standard for the Installation of Sprinkler Systems.

b. NFPA 14 Standard for the Installation of Standpipe and Hose Systems

c. NFPA 20 Standard for the Installation of Pumps for Fire Protection

d. NFPA 24 Standard for the Installation of Private Fire Service Mains and Their Appurtenances.

e. NFPA 70 National Electrical Code.

2. Underwriters' Laboratories, Inc.:

a. Fire Protection Equipment Directory (Latest Addition).

3. Factory Mutual Engineering Corporation (FM):

a. Approval Guild (Latest Addition).

4. American National Standards Institute (ANSI):

a. Z 53 Safety Color Code for Marking Physical Hazards.

b. A 14 Safety Requirements for Fixed Ladders.5. Welding: Qualify welding procedures, welders, and operators in accordance with ANSI B31.1,

Paragraph 127.5, for shop and job site welding of piping work. Make welded joints on the pipingsystem with continuous welds, without backing rings and with pipe ends beveled before welding.Gas cuts shall be true and free from burned metal. Before welding, surfaces shall be thoroughlycleaned. The piping shall be carefully aligned and no weld metal shall project inside the pipe.

6. Comply with requirements of the University of Houston Fire Marshal Office and submit Drawingsto that agency for approval.

7. Materials shall be installed in accordance with NFPA 13 and NFPA 14. All valves, fittings, hose,and equipment shall be UL or FM-labeled. All necessary points of city connections shall bematched to city equipment.

8. All hose threads and coupling types shall conform to local fire department requirements.

9. Acceptable Manufacturers: The model numbers listed in the Specifications establish a level of



quality and material. The following manufacturers are acceptable subject to compliance with the requirements of these Specifications.

a. Fire Protection Specialties:

1) Potter-Roemer, Inc.

2) Elkhart Brass Co.

3) Allen Co. (W. D. Allen Mfg. Div.).

4) Standard Fire-West (Sierra Fire Equipment Co.).

5) Seco Manufacturing, Inc.

b. Fire Protection Valves:

1) Crane Company.

2) Jenkins Bros. Valves.

3) Lunkenheimer.

4) Nibco.

5) Victaulic.

6) Stockham Valves and Fittings.

7) Walworth Company.

1.4 SUBMITTALS:

A. Shop drawing submittals shall include, but not be limited to, the following:

1. Cut sheets marked to clearly indicate all fire protection system materials, accessories andmanufacturers to be used, including, but not limited to control panels, pipe and fittings, pipehangers and supports, valves, sprinkler heads, specialties, waterflow switches, valve supervisoryswitches, and other required materials. This shall include cut sheets on all grooved piping systemcomponents [and all manufacturers] which will be used on the project.

2. Submittals must include a Responsible Managing Employee (RME) stamp, dated and signed byan individual holding a current RME-General license. Alternatively, the submittals may be datedand stamped by a professional engineer, registered in Texas, who has demonstrated a thoroughunderstanding of fundamental systems and practices as they pertain to life safety and to fireprotection, detection, alarm, control and extinguishment.

3. Final fire protection system fabrication/shop drawings showing all piping sizes and elevations,[sprinkler head types] and hydraulic calculations. Piping shall be sized and elevation of mainsshall be indicated. Drawings shall be approved by state and local authorities prior to beingsubmitted.

4. Other items as required by Section 23 01 00[, 21 13 13,] [21 13 16,] [and 21 13 18].

1.5 PRODUCT DELIVERY, STORAGE AND HANDLING:

A. Deliver fire protection components in factory-fabricated water-resistant wrapping.

B. Handle fire protection components carefully to avoid damage to components, enclosures, and finish.

C. Store fire protection components in a clean, dry space and protect from weather.

PART 2 - PRODUCTS 2.1 PIPE AND FITTINGS:

A. Service Connection to [Inside Building Wall] [House/Break Tank]: Refer to Section 22 00 00,"Plumbing Piping Systems".





B. Pipe: Provide pipe and tube of type, joint, grade, size, and weight (wall thickness, schedule or class)indicated for each service. Comply with applicable governing regulations and industry standards.

1. Steel Pipe: Schedule 40, ASTM A53 black or hot-dipped galvanized as specified. All dry andpre-action system piping and fittings shall be externally and internally galvanized. [Piping shallbe domestically manufactured by one of the manufacturers listed in the latest edition ofthe American Petroleum Institute (API) approved manufacturers listing.]

C. Fittings: Provide factory-fabricated fittings of type, materials, grade, class, and pressure ratingindicated for each service and pipe size. Fittings shall be threaded for 2” and smaller, and schedule40 steel with grooved fittings for sizes larger than 2”. Provide sizes and types matching pipe, tube,valve, and equipment connections. Where not otherwise indicated, comply with governingregulations, industry standards, and where applicable, with pipe manufacturer's instructions forselections.

1. Malleable Iron Threaded Fittings: ANSI B16.3, Class 150 or Class 300, black or galvanized asspecified.

2. Malleable Iron Threaded Unions: ANSI B16.39, select for proper piping fabrication and servicerequirements including style, end connections, and metal-to-metal seats (iron, bronze, or brass),plain or galvanized as specified.

3. Threaded Pipe Plugs: ANSI B16.14.

4. Steel Flanges/Fittings: ANSI B16.5, including bolting, gasketing, and butt weld end connections.

5. Forged Steel Socket-welding and Threaded Fittings: ANSI B16.11, rated to match schedule ofconnected pipe.

6. W rought Steel Butt-welding Fittings: ANSI B16.9, except ANSI B16.28 for short radius elbowsand returns; rated to match connected pipe.

7. Grooved End Fittings: ASTM A47 or ASTM A536 joined with Victaulic Style 005, 07, 75, or 77couplings and Grade "E" gaskets.

8. Flanged Fittings: Comply with ANSI B16.15 for bolt-hole dimensioning, materials, and flange-thickness.

9. Flange Bolts: Bolts shall be carbon steel ASTM A307 Grade A hexagon head bolts andhexagonal nuts. Where one or both flanges are cast iron, furnish Grade B bolts.

10. Flange Bolt Thread Lubricant: Lubricant shall be an antiseize compound designed fortemperatures up to 1000°F and shall be Crane Anti-Seize Thread Compound or approved equal.

D. Miscellaneous Piping Materials/Products:

1. W elding Materials: Comply with ASME Boiler and Pressure Vessels Code, Section II, Part C, forwelding materials.

2. Brazing Materials: American Welding Society, AWS A5.B, Classification BCup-5.

3. Gaskets for Flanged Joints: 1/16" thick for all pipe size 10" and smaller and 1/8" thick for all pipesize 12" and larger. Ring-type shall be used between raised face flanges and full face-typebetween flat face flanges with punched bolt holes and pipe opening. Gaskets shall be GarlockStyle 3400 compressed nonasbestos or equal.

4. Insulating (Dielectric) Unions: Provide dielectric unions at all pipe connections between ferrousand nonferrous piping. Unions shall be "Clearflow" waterway made by Victaulic, "Delvin" as madeby Pipeline Seal and Insulator Company or "EPCO" as made by Epco Sales, Inc. and shall havenylon insulation.

2.2 PIPING FABRICATION/SHOP DRAWINGS:

A. Piping fabrication/shop drawings shall be submitted for all fire protection [and sprinkler] piping.

B. Pipe fabrication/shop drawings shall be to scale on [1/4"] [1/8"] scale building floor plans and shall




indicate pipe size, fittings, valves, accessories, connections, [head type], insulation, support requirements, pipe elevations and other information required for coordination with other trades and fabrication of pipings. Main piping [in the Central Plant and Utility tunnel and all other piping] 8" and larger shall be double line.

C. Pipe fabrication/shop drawings shall be coordinated with other trades and building construction priorto submittal to the Engineer for review.

2.3 PIPE HANGERS AND SUPPORTS:

A. Pipe Hangers and Supports: Support fire protection pipe with UL-listed and approved hangers andsupport devices. Provide any special hangers or supports that may be required. The design,selection, spacing, and application of horizontal and vertical pipe hangers, supports, restraints,anchors, and guides shall be in accordance with the NFPA 13 and NFPA 14. All pipe hangers, rods,supports, inserts and other components shall be galvanized.

2.4 SLEEVES AND ESCUTCHEONS:

A. Pipe passing through walls, floors, and partitions shall be provided with standard weight steel pipesleeves. Sleeves through walls in finished spaces shall be flush. Where located in the floorconstruction, the sleeves shall project not less than 2" above the floor line. Refer to Section 15100for fire stopping and additional sleeve requirements.

B. Provide escutcheons for pipes passing through walls, partitions, or ceilings. Escutcheons shall beprovided where pendant sprinkler heads penetrate ceilings or sidewall heads penetrate walls. Pipeescutcheons shall be chrome-plated steel. Sprinkler escutcheons shall be white-painted or chrome-plated steel as specified. Refer to Section 23 03 00 for additional requirements.

2.5 VALVES AND ACCESSORIES:

A. General: All valves and accessories shall be similar to numbers listed. All similar type and sizevalves and accessories shall be products of one manufacturer.

B. Applications: Valve application shall be as follows:

Service Application Type

Fire Protection Shutoff OS&Y Gate[, Ball] Check Swing Check


C. Pressure Ratings:

Service Location Rating

Fire Protection Floor [ ] and Above 175 psi Floor [ ] and Below 250 psi

D. Insulated Piping: Stems on all valves installed in insulated piping shall be extended to allowadequate clearance between the operator and the insulation specified for the piping system when thevalve is installed.

E. Chain Operators: Chain operators shall be provided for all valves installed over 8'above finishedfloor in the central plant, fan rooms, mechanical rooms and other areas where valves are exposed.

F. Flanges: Valve flanges and companion flanges for all valve applications shall be compatible with thevalve rating and the system pressure at the point of application. Flanges shall conform to ANSIB16.1 and ANSI B16.10.

G. [Butterfly and Ball Valves: Butterfly and ball valves shall not be used for fire protection




applications.] H. General Requirements:

1. All valves shall be of threaded or flanged type. No solder connected valves on water lines shallbe used on this project. All bronze and iron body gate and globe valves shall be of onemanufacture for each project. Manufacturers of other types may not be mixed on the sameproject; i.e., all ball valves shall be of the same manufacture, etc.

2. All valves at system points where the System Working Pressure (SWP) at the point ofapplication, including appropriate pump shutoff head, does not exceed 150 psi, may useClass 150 valves.

3. All bronze gate valves for pressures up to 150 psi shall be ASTM B62 composition bronze.Bronze valves for pressures above 150 psi shall be ASTM B61 steam bronze. All bronze valvesshall be union or screw over bonnet, rising stem type with ASTM 584 alloy 876 or equal stemmaterial.

4. All bronze ball valves for pressures up to 300 psi shall be ASTM B62 composition bronze.

5. All iron body valves shall have the pressure containing parts constructed of ASTM A126 Class Bcast iron. Stem material shall meet ASTM Alloy 876 or ASTM 371 Alloy 876 silicon bronze or itsequivalent. Gates and globes shall be bolted bonnet with OS&Y (outside screw and yoke) andrising stem design. A lubrication fitting shall be provided on yoke cap for maintenance lubricationof the yoke bushing.

6. All valves shall be repackable, under pressure, with the valve in the full open position.

7. All gate valves, globe valves, angle valves and shutoff valves of every character shall havemalleable iron handwheels, except iron body valves 2-1/2" and larger which may have eithermalleable iron or ASTM A126 Class B, gray iron handwheels.

8. Packing for all valves shall be selected for the pressure-temperature service of the valve. It isincumbent upon the manufacturer to select the best quality, standard packing for the intendedvalve service. At the end of one year period spot checks will be made, and should the packingshow signs of hardening or causing stem corrosion then all valves supplied by the manufacturershall be repacked at no expense to the Owner with a packing material selected by the Owner.

9. Valves located with stem in horizontal position shall be drilled and tapped in accordance withMSS-SP-45 at Boss G to accommodate a drain valve.

10. All fire protection valves shall be UL-listed and FM-approved for fire protection use.

I. Fire Protection Valves For Service at or Less Than 175 PSIG:

1. Gate Valves:

a. Gate valves 2" and smaller shall be 175 psi WOG rated, UL-listed, FM-approved, all bronzeoutside screw and yoke, rising stem valves with solid wedges and threaded connections.Valves shall be:

1) Crane No. 459.

2) Jenkins No. 275-U.

3) Nibco No. T-104-O.

4) Stockham No. B 133.

5) Walworth No. 8873.

b. Valves 2-1/2" and larger shall be flanged bronze mounted, UL-listed, FM-approved iron body,outside screw and yoke, rising stem gate valves with bolted bonnets and solid wedges.Valves shall be rated for 175 psi WOG and shall be:

1) Crane No. 467.




2) Jenkins No. 825-A.

3) Nibco No. F-607-OTS.

4) Stockham No. G-634.

5) Walworth No. 8713-F.

2. [Ball Valves:]

a. [Ball valves shall be two piece with a standard size port 316 stainless steel balls andstems, and reinforced seats and stuffing box rings. All ball valves shall be designed topermit repacking while valve is in line. Valves shall be furnished with blowoutproofstems.]

b. [Ball valves 3" and smaller shall be threaded or grooved ductile iron body or bronzeASTM B584 alloy 844 of a standard port design with gear operator and positionindicator. Valves shall be rated for 300 psi WOG and shall conform to UL 1091 andFM 1112 and shall be:]

1) [Victaulic Series 727-UNS (unsupervised).]

2) [Victaulic Series 727-SOD (with double pole, double throw supervisory switch).]

3) [Nibco No. T-505-4 (unsupervised).]

4) [Nibco No. T-505-8 (with double pole, double throw supervisory switch).]

3. Check Valves:

a. Check valves 2-1/2" and smaller shall be UL-listed, FM-approved threaded cast iron, bronze-fitted swing check valves with horizontal swing and replaceable discs. Valves shall be ratedfor 175 psi WOG and shall be:

1) Stockham No. B-321.

b. Check valves 3" and larger shall be UL-listed, FM-approved flanged bronze mounted ironbody swing check valves with bolted bonnets and renewable seat and disc, or dual discspring-loaded stainless steel mounted. Valves shall be rated for 175 psi WOG and shall be:

1) Crane No. 375.

2) Jenkins No. 629.

3) Nibco No. F-908-W.

4) Stockham No. G-939.

5) Walworth No. 8883-F.

6) Victaulic 714.

c. All swing check valves shall be installed in vertical piping only. Allow adequate pipeclearance to allow for proper valve operation. Provide Grinnell No. 1686 or equal ball dripwhere required to allow drainage at check valves.

J. Fire Protection Valves for Service Over 175 PSIG:


1. Gate Valves: Valves 2-1/2" and larger shall be UL-listed, FM-approved, flanged bronze mountediron body, outside screw and yoke gate valves with bolted bonnets and solid wedges. Valves shallbe rated for 300 psi WOG.

a. Nibco No. F-697-O.

b. Stockham equal.

2. [Ball Valves:]




a. [Ball valves shall be two piece with a standard size port 316 stainless steel balls andstems, and reinforced seats and stuffing box rings. All ball valves shall be designed topermit repacking while valve is in line. Valves shall be furnished with blowoutproofstems.]

b. [Ball valves 3" and smaller shall be threaded or grooved ductile iron body of astandard port design with gear operator and position indicator. Valves shall be ratedfor 300 psi WOG and shall conform to UL 1091 and FM 1112 and shall be:]

1) [Victaulic Series 727-UNS (unsupervised).]

2) [Victaulic Series 727-SOD (with double pole, double throw supervisory switch).]

3) [Nibco No. T-505-4 (unsupervised).]

[Nibco No. T-505-8 (with double pole, double throw supervisory switch).]



Fire Protection Systems 21 12 00 –

3. Check Valves:

a. Valves 2" and smaller shall be 300 psi SWP rated UL-listed, FM-approved all bronze swingcheck valves with regrinding bronze disc and threaded connections.

b. Valves 2-1/2" and larger shall be 300 psi SWP rated, UL-listed, FM-approved, iron body,bronze fitted swing check valves with regrindable and renewable seats and discs andClass 250 flanged connections or dual disc spring-loaded stainless steel fitted valve.

c. All swing check valves shall be installed in vertical piping only. Allow adequate pipeclearance to allow for proper valve operation. Provide Grinnell No. 1686 or equal ball dripwhere required to allow drainage at check valves.

K. Test/Drain Valves: Test/drain valves for applications to 300 psi shall be Victaulic Style 718 or equalthreaded connection test/drain valve assemblies with ductile iron body, bronze valve assembly,acrylic sight glass and aluminum orifice inserts. Orifice size shall coordinate with sprinkler headsizes, installed on the zone served.

L. Strainers: Water strainers shall be as follows:

1. 150 psig W orking Pressure: 150 psig working pressure, 2" and smaller, shall be MuesscoNo. 351 or equal, 200 pounds WOG, bronze body with perforated 20 mesh stainless steel screenwith cleanout and screwed ends. 150 psig working pressure, 2-1/2 through 24", shall be MuesscoNo. 751 or equal, 150 pounds WOG, perforated stainless steel screen with 1/16" perforations forsizes through 4", and 5/32" perforations for 5" and above, with blowdown connection, andClass 125 ANSI B16.1 flanged ends.

2. 300 psig W orking Pressure: 300 psig working pressure, 2" and smaller, shall be Muessco No.352 or equal, 400 pounds WOG, bronze body with perforated 20 mesh monel screen withcleanout and screwed ends. 300 psig working pressure, 2-1/2 to 24", shall be Muessco No. 752or equal, 300 pounds WOG, perforated stainless steel screen with 1/16" perforations in sizesthrough 4", and 5/32" perforations for 5" and above, with blowdown connection, and Class 250ANSI B16.5 flanges.

M. Unions: Provide in lines assembled with screwed and soldered fittings at points of connection toitems of equipment and elsewhere as indicated or required to permit proper connections to be madeor so that equipment may be removed. Unions shall also be provided in welded lines at theconnections to items of equipment, where flanges are not provided.

1. Unions in steel lines assembled with screwed fittings shall be malleable iron screwed patternunions with bronze seats. Unions in copper or brass lines shall be all brass, threaded patternunions. Where unions are required by the above in steel lines assembled by welding, they shallconsist of two mating welding flanges.

2. Dielectric unions shall be used at all junctures of dissimilar metals.

3. Unions in 2" and smaller in ferrous lines shall be Class 300 AAR malleable iron unions with iron tobrass seats, and 2-1/2" and larger shall be ground flange unions. Unions in copper lines shall be125 pounds ground joint brass unions or 150 pounds brass flanges if required by the mating itemof equipment. Companion flanges on lines at various items of equipment, machines and pieces ofapparatus shall serve as unions to permit removal of the particular items. See particularSpecifications for special fittings and pressure.

N. Flanges: All 125/150 pound and 250/300 pound ANSI flanges shall be weld neck and shall bedomestically manufactured, forged carbon steel, conforming to ANSI B16.5 and ASTM A181 Grade Ior Grade II or A-105-71 as made by Tube Turn, Hackney or Ladish Company. Slip on flanges willnot be acceptable. Each fitting shall be stamped as specified by ANSI B16.9 and, in addition, shallhave the laboratory control number stenciled on each fitting for ready reference as to physicalproperties and chemical composition of the material. Complete test reports may be required for anyfitting selected at random. Flanges which have been machined, remarked, painted or otherwiseproduced domestically from imported forgings or materials will not be acceptable. The flanges shallhave the manufacturer's trademark permanently identified in accordance with MSS SP-25. Submit




data for firm certifying compliance with these Specifications. Gaskets used shall be ring form, dimensioned to fit accurately within the bolt circle, shall be 1/16" thick, Manville service sheet packing Style 60. Inside diameter shall conform to the nominal pipe size. Bolts used shall be carbon steel bolts with semifinished hexagon nuts of American Standard Heavy dimensions. All-thread rods will not be an acceptable for flange bolts. Bolts shall have a tensile strength of 60,000 psi and an elastic limit of 30,000 psi. Flat faced flanges shall be furnished where required to match flanges on pumps, check valves, strainers, and similar items. Only one manufacturer of weld flanges will be approved for each project.

O. Gaskets: Gaskets shall be placed between the flanges of all flange joints. Such gaskets shall bering form gaskets fitting within the bolt circle of their respective flanges. Gaskets shall be 1/16" thickManville Service Sheet Packing Style 60. The inside diameter of such gaskets shall conform to thenominal pipe size and the outside diameter shall be such that the gasket extends outward to thestuds or bolts employed in the flanged joint.

P. Flexible Connections: Flexible sprinkler head drops are not allowed.

2.6 FIRE PROTECTION SPECIALTIES:


A. Fire Hose Cabinet (FHC-1): Fire Hose Cabinets shall be Potter-Roemer Fig. No. 1006-F or equalrecessed solid door cabinet, Fig. No. 2710-23-44 or equal hose rack with 100'PR-SuperFlex linedhose and red lexan fog nozzle and Fig. No. 3005 or equal 5 pound ABC dry chemical extinguisher.Provide Fig. No. 1125 or equal rain hood for cabinets exposed directly to weather.

B. Fire Hose Cabinet (FHC-2): Same as FHC-1, except with Potter-Roemer Fig. No. 2710-15-23-44 orequal hose rack with 2-1/2 angle pressure regulating valve, 100'PR-SuperFlex lined hose and redlexan fog nozzle.

C. Fire Hose Racks (FHR-1): Fire Hose Racks shall be as specified for Fire Hose Cabinet (FHC-1)except less cabinet and with Potter-Roemer Fig. No. 2894 or equal cover.

D. Fire Hose Racks (FHR-2): Fire Hose Racks shall same as specified for Fire Hose Cabinet (FHC-2)except less cabinet and with Potter-Roemer Fig. No. 2894 or equal cover.

E. Fire Department Valve (FDV-1): Potter-Roemer Fig. No. 4065 or equal 2-1/2" cast-brass valve withred iron handwheel, female inlet by 2-1/2" male hose thread outlet, 300 pound rating. For use up to100 psi. Furnish with Potter-Roemer Fig. No. 4625 or equal female hose thread cap with pin lugsand chain.

F. Fire Department Valve (FDV-2): Potter-Roemer Fig. No. 4023 or equal 2-1/2" cast-brass valve withred aluminum handwheel, inside screw rising-stem, concealed and tamperproof pressureadjustment, internal parts of brass and stainless steel, 2-1/2" female NPT inlet by 2-1/2" male hoseoutlet, 400 psi rating. For reducing pressures over 100 psi back to 80 psi at each floor. Furnish withPotter-Roemer Fig. No. 4625 or equal female hose thread cap with pin lugs and chain.

G. Fire Hose Valve Cabinets: [Potter Roemer Fig. No. 1810-C] or equal solid door flush mountedcabinet.

H. Fire Protection Pressure Reducing Valves: Potter Roemer 4020 Series or equal 2-1/2" cast-brassvalve with red aluminum handwheel, inside screw rising stem, concealed and tamperproof pressureadjustment, internal parts of brass and stainless steel, 400 psi rating for reducing pressures over175 psi back to 165 psi for system taps.

I. Roof Manifold: Potter-Roemer Fig. No. [5882] [5887-B] or equal 6" [back] [bottom] inlet firedepartment roof connection with three Type FDV-1 fire department valves.

J. Free Standing Fire Department Connection: Potter-Roemer Fig. No. 5780-C or equal 6" by 2-1/2" by4-way connection with drop clapper check valves, polished chrome finish with cover plate marked["Auto Sprinkler" and] "Standpipes".




K. W all Mounted Fire Department Connection: Potter-Roemer Fig No. [5406-D] [5426-D] [5226-D] orequal, 6" by 2-1/2" by 4-way, flush, [back outlet] [angle outlet] clapper type fire department inlet,[polished chrome] finish, labeled ["Auto Sprinkler" and] "Standpipes".

L. Indicator Posts:

1. Indicator posts shall have a cast-iron body, 1-1/4” square operating nut, lockable operatingwrench, with "OPEN" and "SHUT" targets appearing in full view when the valve is fully open orclosed. Base shall be flanged and shall bolt onto the indicator post flange provided on top of thevalve. The indicator post shall be fully compatible with the approved valve, capable of accepting atamper switch, and the bury depth shall govern post dimensions. The Indicator posts shall be ULlisted in accordance with NFPA 24 and FM approved. Indicator Posts shall be Mueller, No. A-20806, Kennedy Style 2945 or 2945A, American Flow Control IP-71, or approved equal.

2. Install indicator posts over valves on fire protection lines. Posts shall be bolted to the flange at thetop of the valve and shall be installed plumb and true to the elevations indicated. The bury line onthe indicator post shall match the final grade at the location of the indicator post. Indicator postsinstalled on fire protection mains shall be shall be primed and finish painted red.. Indicator postsshall be installed such that grade mark is level with the finish grade. Indicator posts installed onfire protection mains shall be installed with the following provisions: a ¾” inch rigid metal conduitstubbed up through the concrete collar to facilitate the installation of an electric valve supervisionswitch in accordance with the contract documents.

3. Bollards shall be installed around post indicator valves as required by the construction drawings.

EDIT TO SUIT PROJECT M. Free Standing Fire Pump Test Header: Potter-Roemer Fig. No

N. W all Mounted Pump Test Header: Potter-Roemer Fig No.

O. W ater Flow Switches: Viking Model C-1 or equal water flow switch with adjustable retard feature.Switch shall be double-pole double-throw type and shall be rated at least 7 amperes at 125/250 volts.

P. Valve Supervisory Switches: Potter Electric Signal Company Model OSYS-U or equal. Switchesshall activate within two turns of the valve.

Q. Sight Flow Connection: Provide acrylic sight flow connection in all test lines.

R. Pressure Gauges: Potter-Roemer Fig. No. 6240 or equal 3-1/2" diameter polished brass case, 1/4"NPT male connection, glass enclosed, 0-300 psi dial pressure gauges with isolation valves.

PART 3 - EXECUTION

3.1 INSTALLATION OF FIRE PROTECTION PIPING SYSTEMS:

A. General: All piping system materials, components and installation shall be in accordance withNFPA [13] [,] [and] NFPA 14 [and] [,] [Chapter 38 of the City of Houston Building Code] [andthe requirements of the Texas State Board of Insurance] [and Industrial Risk Insurers (IRI)].[State Board of Insurance [and IRI] approval will [not] be required.]

1. Standpipe, riser and main piping shall be Schedule 40 black steel pipe. Thinwall, chlorinatedpolyvinyl chloride (CPVC) and copper piping shall not be used.

2. [All pipe and fittings from the house/break tank up to the fire pump discharge check valvesshall be galvanized as specified for domestic water piping. Valves and accessories up toand including the discharge check valves shall be approved for domestic water use.]

3. Underground fire line piping from [the fire water source] [and] [Siamese fire departmentconnections] shall be as specified [hereinabove] [in Section 22 00 00 and shall be hot dipgalvanized. [Piping shall be protected as specified in Section 22 00 00.]




4. Sprinkler system piping shall in general be as specified hereinabove for fire standpipe piping.

5. Fittings 2-1/2" and smaller for Schedule 40 pipe shall be malleable iron threaded fittings.

6. Fittings for piping 3" and larger shall be standard welded fittings or shall be a UL-listed groovedpiping connection system with "rolled-grooves". Couplings for standpipes shall be VictaulicStyle 07 Zero-Flex couplings with Grade "E" gaskets (no substitute) or [Gruvlok Fig. 7000couplings with Grade "E" gaskets and proper support at the bottom, top and every otherintermediate floor as required] to prevent vertical up and down movement of the standpipe inaccordance with NFPA 13 and NFPA 14. Couplings for piping connections to pumps and theirassociated valves, to wall mounted Siamese connections, to roof manifolds shall be VictaulicStyle 07 Zero-Flex couplings with Grade "E" gaskets (no substitute) or Gruvlok Fig. 7000couplings with Grade "E" gaskets and adequate supports for proper mounting and operation ofconnected devices. Couplings for underground piping shall be Victaulic Style 77 or GruvlokFig. 7001 with Grade "E" gaskets. All other couplings shall be Victaulic Style 75 or GruvlokFig 7000 with Grade "E" gaskets. Taps to mains shall be made using Victaulic Style 72 orStyle 920 or Gruvlok Fig. 7045/ 7046 outlet couplings or fittings. Mechanical "T" couplings withU-bolts shall not be permitted. Flange connections shall be made using Victaulic Style 741 orGruvlok Fig. 7012 flanges with Grade "E" gaskets. Fittings for elbows, tees, reducers, and similaritems shall be Victaulic or Gruvlok full flow fitting. All grooved piping couplings and fittings [shallbe the products of a single manufacturer and] shall be UL listed for fire protection use as usedon the project, including pressure and temperature ratings, pipe type and groove type. [Allgrooved piping couplings and fittings used in association with the individual coupling orfitting shall be by the same manufacturer.] The use of boltless couplings, reducing couplings,mechanical "T" fittings with U-bolts and bolt on sprinkler head taps is prohibited. All groovedpiping connection materials shall be used with the manufacturer' recommended groove rolling orcutting tool. All proposed grooved piping connection materials shall be suitable for fire protectionuse at the temperatures and pressures at the point of application. Painted couplings may beutilized in lieu of galvanized couplings.

B. Piping Installation:

1. Piping shall be concealed, except in mechanical equipment rooms, stairwells, or where otherwiseindicated on the Drawings. Install exposed piping parallel to or at right angles to the column linesof the building wherever possible.

2. Grade piping to eliminate traps and pockets and for drainage per NFPA 13 and NFPA 14. Whereair pockets or water traps cannot be avoided, provide hose bibbs for drainage.

3. Piping shall be concealed above suspended ceilings where installed, in a craftsman like manner,and shall not interfere in the complete function of other systems such as cable trays, accesspanels, or pedestrian passageways. Piping in all occupied areas and mechanical areapassageways shall not be lower than 7’-6”. Specific written approval may be granted forunavoidable projections, but under no circumstances shall overhead piping be installed lower than6’-8” above floor. Piping shall not reduce the required width of any means of egress, width ofstairs, or clear width of corridor or passageways, to less than 44” in width. Installation of all pipingshall be in coordination with piping ducts, light fixtures, and any other work that may obstructsprinklers. The contractor shall coordinate with all trades having materials installed above theceiling prior to commencement of any work.

4. Piping that is retrofit into an existing building with suspended ceilings shall be installed above theexisting ceiling, unless exposed piping is approved by the University.

5. All exposed sprinkler and standpipe system located in areas without suspended ceilings isrequired to be painted. Prepare galvanized pipe as necessary, such as priming, prior to paintingpipe. Coordinate color of pipe with University. All pipe, whether concealed or exposed, isrequired to be marked “Fire Sprinkler System” with markers spaced at 10’ intervals with red lettersat a minimum of 1” in height. Refer to Section 23 03 00 for additional requirements.




6. Fire protection piping shall not be routed over electrical equipment. It shall be the responsibility ofthe Fire Protection Contractor to coordinate electrical equipment locations with the ElectricalContractor and design the fire protection piping system such that no piping is routed over electricalequipment.

7. All changes in direction, branches, offsets etc., shall be made with standard pipe fittings. Holes inthe main for branches shall be made with a hole cutting machine and a standard "Weld-O-Let" or"Thread-O-Let" fitting used. Burning holes in the fire protection System Piping will cause thatsection of the piping to be cut out and replaced at the Contractor's expense.

8. All pipe shall be reamed to full pipe diameter before joining. Screwed joints shall be made withstandard pipe thread and an approved compound applied to the male thread only. Welded jointsshall be made in accordance with the procedure outlined in the A.S.A. piping code. Valves andspecialties shall be screwed or flanged joints.

9. Install unions or flanges at equipment connections and as indicated on the Drawings.

10. Cold-springing piping will not be permitted. Install piping with adequate support to prevent strainon the equipment and to allow for piping system expansion and contraction.

11. Welded joints on pipe runs shall be made with continuous welds and with pipe ends beveledbefore fabrication. Piping shall be carefully aligned prior to welding and no metal shall projectwithin the pipe.

12. Piping shall be sized as required by applicable codes and as indicated on the Drawings.

13. Field-grooving of pipe for Victaulic fittings shall use Victaulic groove depth control tool and a hole-cutting tool shall be used instead of burning a hole in the piping. Victaulic reducing couplings andoutlet couplings shall not be installed. Victaulic gaskets shall be UL-approved for the service andworking pressure of the systems.

14. Provide all test and drain lines as required by Chapter 8 of NFPA 13. Pressure gauges, signs, andother such standard appurtenances shall be furnished as required for a complete installation inaccordance with NFPA 13. A nameplate data sign shall be provided at the zone controlling valveto identify the system as a hydraulically designed system indicating the location and basis fordesign in accordance with Chapter 7 of NFPA 13.

15. All sprinkler piping shall be so installed that it can be thoroughly drained, and where practicableshall be arranged to drain at the zone drain valve. The zone drain valve shall be capable of a fulldischarge test without allowing water to flow onto the floor. All drips and drains shall conform toChapter 8 of NFPA No. 13.

16. Field changes in the piping layout or pipe sizes shall not be made without the prior approval of theEngineer.

17. All welding "cut-out" discs shall be retrieved and turned over to the Owner's Representative.

C. Pipe Hangers and Supports:

1. Pipe supports, sway braces, hangers, and clamps shall conform to and be placed in accordancewith Chapter 9 of NFPA 13 and listed by Underwriters' Laboratories, Inc., or approved by FactoryMutual.

2. All pipe shall be supported from the building structure in a neat and workmanlike manner andwherever possible, parallel runs of horizontal piping shall be grouped together on trapeze typehangers. Vertical risers shall be supported at each floor line with steel pipe clamps. The use ofwire or perforated metal to support pipes will not be permitted. Hanging pipes from other pipeswill not be permitted. Spacing of pipe supports shall not exceed 10' on all piping.

3. All standpipe and sprinkler piping shall be adequately supported to avoid excess strain on fittingsand joints. As a minimum, all vertical risers shall be supported at the bottom level, the top leveland at each alternate level in between.




4. Where pendant sprinklers are used, care shall be taken to resist upward movement of flowingsprinklers by means of rigid hangers or other restraints on the ends of branch lines or arm-oversexceeding 5' in length. No flexible sprinkler head drops will be allowed.

D. Valve Stems: Install valves with stems pointed up, in the vertical position where possible, but in nocase with stems pointed downward from a horizontal plane. All valves shall be located so as tomake the removal of their bonnets possible. All flanged valves shown in the horizontal lines with thevalve stem in a horizontal position shall be positioned so that the valve stem is inclined one bolt holeabove the horizontal position. Screw pattern valves placed in horizontal lines shall be made up withtheir valve stems inclined at an angle of 30 degrees above the horizontal position. All valves must betrue and straight at the time the system is tested for final acceptance. Valves shall be installed asnearly as possible in the locations as shown on and Drawings. Any change in valve location must beso indicated on the As-built Drawings.

E. Valve Chain Operators: In central plant and in fan or mechanical rooms where valves are installedover 8' above floor, provide chain operators.

F. Swing Check Valves: Swing check valves shall be installed in horizontal piping only.

G. Unions and Companion Flanges: Provide unions or companion flanges where required to facilitatedismantling of valves and equipment.

H. Access Doors and Panels: Provide access doors or panels as required to provide full valve access.Refer to Section 15100 for additional requirements.

I. Strainer Blowdown: Provide a blowdown valve with hose connection and cap at each strainer forblowdown.

J. Gauges: Provide gauges as required by NFPA 13 and NFPA 14 and as follows:

1. On the suction side of each fire and jockey pump.

2. On the discharge side of each fire and jockey pump.

3. At the fire service water entry.

4. At the top of each standpipe and sprinkler riser.

5. At each standpipe roof manifold.

6. At the inlet and outlet of each system pressure reducing valve.

7. Where shown on the Drawings.

3.2 PROTECTION DURING CONSTRUCTION:

A. Provide necessary fire protection during construction in accordance with NFPA and local codes.

3.3 CLEANING AND STERILIZATION:

A. Cleaning all fire protection piping shall thoroughly flushed out to remove any slag or debris prior tobeing tested or put into service.

B. Sterilization: Piping shall be sterilized with a chlorinating material, approved by the Engineer, shallbe accomplished upon completion of the sprinkler installation and prior to placing the system inoperation. The amount of chlorine applied shall be such as to provide a dosage of not less thanfifty parts per million. The chlorinating materials shall be introduced into the water supply lines andsprinkler systems in an approved manner. Following a contact period of not less than 8 hours, thechlorinated water shall be flushed from the system with clean water until the chlorine is not greaterthan 0.4 parts per million. All valves in lines being sterilized shall be opened and closed severaltimes during the 8 hour period.

3.4 VALVE SUPERVISORY SWITCHES:

A. All valves that affect the flow of fire protection water to any area shall be supervised. Supervisoryswitches shall be furnished and installed by this Contractor and wired by Division 16. Coordinate




wiring of all switches with Division 16.

3.5 WATERFLOW PRESSURE SWITCHES:

A. Waterflow pressure switches shall be furnished and installed by this Contractor in locations requiredby NFPA and where shown on the Drawings. Switches shall be wired by Division 16. Coordinatewiring of flow switches with Division 16.

3.6 BUILDING FIRE ALARM SYSTEM INTERFACE:

A. Each panel shall provide an alarm signal output to the Building Fire Alarm System (wiring byDivision 28) whenever waterflow conditions exist in the fire protection system.

B. Each valve which controls the flow of sprinkler system water shall be monitored by the Building FireAlarm System.

3.7 SYSTEM PRESSURE REDUCTION:

A. Where fire system pressures exceed 100 psi, Fire Department Valves [and Fire Hose Cabinets]shall be of the pressure reducing type to regulate the pressure at that point to 80 psi.

3.8 FREEZE PROTECTION:

A. All components of the fire protection system shall be protected from freezing. Standpipes shall beprotected by routing through heated spaces, insulation and a valve and drain connection in a heatedspace to protect the roof manifold. Sprinkler piping shall be protected by dry pipe systems inaccordance with the requirements of the Texas State Board of Insurance. All sprinkler headsinstalled on dry sprinkler system and in walk-in freezers and other locations subject to freezing shallbe of a dry pendant design.

3.9 TESTS AND INSPECTIONS:

A. Inspections, examinations and tests required by the authorities or agencies specified shall bearranged and paid for by the Fire Protection Subcontractor, as necessary, to obtain complete andfinal acceptance of the system as installed. The certificates of inspection shall be in quadruplicate,and shall be delivered to the Engineer for review and distribution.

B. Fire protection piping systems shall be hydrostatically tested by the Contractor upon completion ofthe installation as required by NFPA 14, Section 1-11.2 of NFPA 13 [in the presence of the UHFire Marshal]. When hydrostatic and alarm tests have been completed and all necessarycorrections made, a material and test certification shall be provided in accordance with Section 1-12 of NFPA 13. Final inspection shall include full flow testing through the inspector's testconnection. Actuation of the flow switch shall occur within one minute of opening of the inspector'stest valve. The final tests may be witnessed by the Engineer and shall be witnessed by the UHFire Marshal.

C. The fire protection standpipe system shall be tested as required by the City of [Houston][ ] and as follows. The standpipes shall be tested with 500 gpm flowing from one standpipe roof manifold and 250 gpm flowing from each other standpipe roof manifold or top floor Fire Department connection and a residual pressure of 65 psi at the 500 gpm roof manifold shall be provided. These test shall be conducted with calibrated nozzles, flow pilots and calibrated pressure gauges.

D. [Sprinkler system zone control assemblies shall be tested to demonstrate proper operation ofthe flow switch and valve supervisory switch.]

E. [Pre-action and dry sprinkler system shall be tested to demonstrate that system charge timeis within the requirements of NFPA 13.]

F. Arrange and pay for all tests and inspections required by UH Fire Marshal.

3.10 PERIODIC INSPECTION SERVICE:

A. After completion of the fire protection system installation and at the beginning of the guaranteeperiod, the Automatic Sprinkler Subcontractor shall execute the National Automatic Sprinkler and




Fire Control Association, Inc., Standard Form of "Inspection Agreement", without change in the Contract amount, calling for four inspections of the fire protection system during the warranty period. During the warranty period, inspections shall be in accordance with the Inspection Agreement, plus the following maintenance to be performed during the course of the fourth inspection:

1. Operation of all control valves.

2. Lubrication of operating stems of all interior valves.

3. Operation of all alarms, supervisory switches, air compressors, alarm trip switches, flowswitches, and similar items.

4. Cleaning of alarm valves.

5. Lubrication of Fire Department valve hose connections.

B. The standard form of the National Automatic Sprinkler and Fire Control Association, Inc., "Report ofInspection", shall be filled out in triplicate after each inspection and the copies sent to the Architect.

3.11 IDENTIFICATION:

A. Refer to Section 23 03 00 for applicable painting, nameplates, and labeling requirements.

END OF SECTION 21 12 00



Wet-Pipe Fire Sprinkler Systems 21 13 13 – 1

SECTION 21 13 13

WET-PIPE FIRE SPRINKLER SYSTEM

PART 1 - GENERAL


A. The Conditions of the Contract and applicable requirements of Division 1, "General Requirements", and Section 23 01 00, "Mechanical General Provisions", govern this Section.


A. This Section of the Specification includes providing all labor and materials for the installation of a

hydraulically calculated automatic, wet-pipe sprinkler system(s) in areas as specified herein and in Section 21 12 00, "Fire Protection Systems", and as shown on the Drawings, complete in all respects and ready for operation. The work includes the design of a wet-pipe automatic sprinkler system, complete and ready for operation. Design and installation of the sprinkler system shall be such that no parts interfere with general construction, doors, windows, heating, plumbing, air conditioning systems or electrical equipment.

B. The Work shall be installed in accordance with the Drawings and Specifications. All devices and equipment shall be listed by Underwriters' Laboratories, Inc. or Factory Mutual-approved, individually and as a system, as applicable.

C. Sprinkler heads shall be spaced, located, and positioned as shown on the Architectural reflected ceiling plans, where shown, as specified herein and as required to suit the building partition layout according to NFPA 13. Piping sizes and configurations shall be on the basis of hydraulic calculations. Where head layouts shown on the Drawings or requirements specified herein are more stringent than NFPA requirements, the more stringent requirements shall apply. Special consideration of locations or conditions shall conform to NFPA 13.

D. The preference of the University is to connect to the campus Fire Water Distribution System (FWDS) provided Code compliant combination wet automatic fire sprinkler and where possible, automatic standpipe systems that do not contain alarm valves or local alarm devices, and a minimum 10 psig safety factor (or 10%, whichever is greater) without requiring a building fire pump.

E. Provide a complete automatic sprinkler system as defined by the latest edition of NFPA 13. All fire sprinkler systems installed on campus are required to be wet pipe systems unless the area being protected cannot be maintained above 40 degrees F, as required per NFPA 13. These areas will require a dry pipe system to be installed. Antifreeze systems of any size are not permitted on campus. Rooms or areas where it is not desirable to have water filled piping within the room, such as special collections, computer rooms, etc. may utilize double interlock pre-action systems. Use of pre-action systems must be approved by the University prior to system design.

F. If used the building fire pump(s) and combination standpipes shall serve the wet-pipe sprinkler system.

G. Zone the wet-pipe sprinkler system [as shown on the Drawings.] [such that each [floor] is a separate sprinkler control zone.] [No sprinkler zone shall serve more than one [floor] [smoke compartment].]

H. Coordinate the location of sprinkler heads and piping such that it does not interfere with the installed ceiling configuration or other building construction and equipment.

1.3 HYDRAULIC CALCULATIONS:

A. Hydraulic calculations shall be prepared in accordance with Chapter 23 of NFPA 13 with the

following exceptions:




1. Pipe friction losses may be calculated by using the nearest foot for all piping over one foot (1') in length. Horizontal lengths less than one foot (1') may be neglected. Vertical length less than one foot (1') shall be included for elevation purposes only.

2. Flows shall be calculated to the nearest whole gallon.

3. Velocity pressures may be neglected.

4. Velocities in underground piping shall not exceed 16’ per second. Velocities in all other piping shall not exceed 20’ per second. Velocities in standpipes must be calculated based on the combined sprinkler flow and hose flow.

5. Fire pumps shall supply only the sprinkler demand. Any point on the pump curve may be used to supply the water demand, provided that point is no more than 150% of rated capacity of the pump.

6. Total sprinkler system flow shall not exceed 110% of the required flow.

7. The sprinkler/standpipe risers accommodate both the sprinkler and standpipe hose stream flows. Each riser shall accommodate 250 gallons per minute flow for standpipe hose stream.

8. Hydraulic calculations shall be performed by a State of Texas Licensed Responsible Managing Employee (RME) in the direct employ of the fire protection contractor.

9. Provide 10 psig or 10 % safety factor, whichever is greater, for all sprinkler system hydraulic calculations.

10. No flexible drop sprinkler heads will be allowed. 1.4 QUALITY ASSURANCE:

A. Contractor: The fire protection system shall be designed and installed by a fire protection contractor

who is licensed by the State of Texas to perform fire protection work of the type specified for this project. The fire protection contractor shall have a minimum of 5 years of experience in the installation of fire protection work of the type specified for this project.

B. Applicable Publications: The University, the International Building Code, National Fire Codes as published by the National Fire Protection Association (NFPA), State Fire Marshal, and the University of Houston Fire Marshal’s requirements contain fire protection criteria and requirements for the design of all fire suppression systems. The publications listed below form a part of this Specification to the extent referenced. The publications are referred to in the text by basic designation only.



b. NFPA 14 Standard for the Installation of Standpipe and Hose Systems c. NFPA 20 Standard for the Installation of Centrifugal Fire Pumps for Fire Protection.









b. A 14 Safety Requirements for Fixed Ladders.




5. Materials shall be installed in accordance with NFPA 13. All valves, fittings, hose, sprinkler heads, and equipment shall be UL or FM-labeled. All necessary points of city connections shall be matched to city equipment.

6. Acceptable Manufacturers: The model numbers listed in the Specifications establish a level of quality and material. The following manufacturers are acceptable subject to compliance with the requirements of these Specifications.

a. Sprinkler Equipment:

1) Viking Corporation.

2) Grinnell Fire Protection Systems Co., Inc.

3) Automatic Sprinkler Corporation.

4) Central Sprinkler Corporation.

5) Firematic Sprinkler Devices, Inc.

6) Reliable Automatic Sprinkler Co. 1.5 SUBMITTALS:

A. The University of Houston Project Manager shall review and distribute all submittals for approval by

the U of H Fire Marshal, the Owner’s representative, and others as appropriate.

B. Refer to provisions established in the Project Specifications and in related section of Division 01 – General Requirements. All product data shall be submitted under provisions of Division 01.

C. Shop drawing submittals shall include, but not be limited to:

1. Cut sheets marked to clearly indicate all fire protection system materials, accessories and manufacturers to be used, including, but not limited to test/drain assemblies, pipe and fittings, pipe hangers and supports, valves, sprinkler heads, specialties, waterflow switches, valve supervisory switches, and other required materials. This shall include cut sheets on all grooved piping system components [and all manufacturers] which will be used on the project.

2. Samples of sprinkler heads to be furnished.

3. Preliminary submittal drawings showing all proposed sprinkler head locations for Architect/Engineer approval and including a layout and details sufficient to indicate the coordination of the location of sprinkler heads with the installed ceiling configuration shall be provided.

4. The Contractor shall submit detailed and accurate shop drawings prepared in accordance with NFPA 13, NFPA 14 (if applicable), and NFPA 24 for approval of all equipment to be constructed and installed. Shop drawings shall identify all materials and list all equipment to be used. Shop drawings shall include ceiling grid or reflected ceiling layout and shall be coordinated with other trades prior to submittal. Final fire protection system shop drawings showing all piping sizes and elevations, sprinkler head types and hydraulic calculations. Piping shall be sized and elevation of mains shall be indicated. Drawings shall be approved by state and local authorities prior to being submitted. Hydraulic calculations shall be a part of this submittal. A fire pump characteristic curve for the building fire pump shall be a part of this submittal.

5. Hydraulic calculations for sprinkler systems shall comply with NFPA 13 and shall include comprehensive hydraulic data sheets. Provide 10 psig or 10 % safety factor, whichever is greater, for all sprinkler system hydraulic calculations.

6. Provide hydraulic calculations for automatic standpipes, where required per NFPA 14, to provide 100 psi when flowing 500 gpm at the most remote standpipe outlet and 250 gpm at each additional standpipe. Provide hydraulic calculations for manual standpipes to demonstrate the pressure available at the top of each standpipe while flowing, the demand required per NFPA 14




utilizing both the available water supply and the nominal City of Houston fire truck pumper through the fire department connection.

7. No work shall be performed until the University has approved the shop drawings, calculations, and data sheets. The Contractor is solely liable for any work performed prior to this approval.

8. The submittal shall include a statement from the sprinkler contractor certifying that the design meets the hydraulic design parameters stated in this Specification.

9. Additional items as specified in Section 23 01 00 and Section 21 12 00. 1.6 PRODUCT DELIVERY, STORAGE AND HANDLING:

A. Deliver sprinkler system components in factory-fabricated water resistant packaging.

B. Handle sprinkler system components carefully to avoid damage to components, enclosures, and finish.

C. Store sprinkler system components in a clean, dry space and protect from weather.

PART 2 - PRODUCTS 2.1 SYSTEM DESCRIPTION:

A. The wet-pipe sprinkler system shall be a fixed water type fire protection sprinkler system with a

pressurized water supply to fusible sprinkler heads for control of fire. No flexible drop sprinkler heads will be allowed.

B. Sprinklers shall be listed or FM approved and shall not include O-rings seals. Any sprinkler that incurs damage, is painted, or is sprayed with any obstructive material during construction shall be replaced at no cost to the University. Installation of sprinklers shall be coordinated with other work, including duct and electric fixture installation, to prevent sprinkler obstructions.

C. Sprinklers located less than eight feet above finished floor or that may be subject to mechanical damage shall be provided with guards listed for use with the model of sprinkler installed.

D. Quick-response sprinklers are required throughout all light-hazard occupancies, and may also be installed in ordinary-hazard occupancies for the quick-response hydraulic design area reduction per NFPA 13 for utilizing quick-response sprinklers. Extended coverage sprinklers may be utilized if proven in the hydraulic calculations.

E. Where required by the project, sprinklers shall be centered in two directions in ceiling tiles. Pendent sprinklers required to be placed in the center of ceiling tiles, shall be supplied from a return bend that connects to an outlet at the top of the fire sprinkler branch line piping.

F. Main electrical equipment rooms may have alternate protection such as a pre-action, dry sprinkler systems or chemical suppression system. Approval must be sought by appropriate department in cooperation with the UH Fire Marshal’s Office.

G. The sprinkler system shall be designed to meet the more stringent of the requirements of NFPA 13 or the following requirements:


1. Storage rooms and mechanical equipment room shall be hydraulically calculated and designed to

provide 0.16 gpm/sf over the hydraulically most remote 3000 sf area (Ordinary Hazard Group 2) or over the entire area, whichever is less.

2. Computer rooms and food service areas shall be hydraulically calculated and designed to provide 0.15 gpm/sf over the hydraulically most remote 2000 sf area (Ordinary Hazard Group 1) or over the entire area, whichever is less.




3. Minimum design shall be hydraulically calculated and designed to provide [0.075] [ ] gpm/sf over the hydraulically most remote [2500] [ ]sf area.

4. Office areas, conference areas and similar spaces shall be hydraulically calculated and designed to meet NFPA requirements for Light Hazard.

[EDIT TO SUIT PROJECT REQUIREMENTS]

H. All sprinkler heads in general shall be in a straight line, parallel to the lines of the building and shall

be located in the approximate center of ceiling tiles. [Sprinkler heads in public finished areas shall be located exactly (double swing connection) where shown on the Architectural reflected ceiling plans.] Sprinkler head quantities, where shown, are the minimum which must be provided. If additional heads are required to meet NFPA 13, the location of additional heads must be approved by the Architect. The Contractor shall submit Sprinkler Head locations to the Architect for location and type approval prior to completing the sprinkler system design, unless otherwise instructed, in writing, by the Architect.

I. Sprinkler heads in rooms with electrical equipment shall be located as far as code requirements allow from electrical equipment.

2.2 SYSTEM COMPONENTS:

A. System components for each zone shall include, but not be limited to:

1. Zone control (test/drain) assembly.

2. Drain valve.

3. Waterflow switches.

4. Valve supervisory switches.

5. Piping.

6. Sprinkler heads. 2.3 PIPE AND FITTINGS:

A. Refer to Section 21 12 00 for pipe and fitting requirements.


A. Piping fabrication/shop drawings shall be submitted for all fire protection and sprinkler piping. Refer

to Section 21 12 00 for additional requirements. 2.5 PIPE HANGERS AND SUPPORTS:

A. Refer to Section 21 12 00 for pipe hanger and support requirements.


A. Refer to Section 21 12 00 for pipe sleeve and escutcheon requirements.

2.7 VALVES:

A. Refer to Section 21 12 00 for fire protection valve requirements.

2.8 SPRINKLER HEADS/SPECIALTIES:

A. Unless otherwise specified, sprinkler heads shall have 165³F ordinary degree rating. Heads located

within the air streams of heat emitting equipment and located at the top of elevator shafts shall be selected for proper temperature rating. Corrosion-resistant sprinkler heads shall be installed where they are exposed to weather, moisture, or corrosive vapors. Heads installed where they might




receive mechanical injury or are less than 7’ above the floor level shall be protected with approved guards in accordance with NFPA 13. Sprinkler guards shall be provided for sprinklers in electrical closets. Sprinklers in areas with suspended ceilings shall be pendant type, with pipe and fittings located above the suspended ceiling. No flexible drop sprinkler heads will be allowed.

B. Sprinkler heads in finished public areas shall be Reliable Model [G-1 "concealer"] [G semirecessed chrome-plated] head with a [white] [polished chrome plated] [cover] [escutcheon] plate or an approved equal. Sprinkler head shall be UL-listed and FM-approved with the provided [cover] [escutcheon] plate.

C. Sprinkler heads in finished non-public areas shall be Reliable Model [G-1 "concealer"] [G semirecessed chrome-plated] head with a [white] [polished chrome plated] [cover] [escutcheon] plate or an approved equal. Sprinkler head shall be UL-listed and FM-approved with the provided [cover] [escutcheon] plate.

D. Sprinkler heads in the unfinished areas shall be Reliable Model G or approved equal brass, upright pendant, or pendant heads as required.

E. Sprinkler heads used for protection of glazing shall be of a fast response design.

F. Provide a metal cabinet containing a stock of spare sprinkler heads of all types and ratings installed. The cabinet shall be located where the temperature will not exceed 100³F; the location shall be approved by the Owner. The number of spare sprinklers shall conform to NFPA 13.

2.9 VALVE SUPERVISORY SWITCHES:

A. All valves that affect the flow of fire protection water to the Wet Pipe Fire Protection system shall be

supervised. Switches shall be Potter Electric Signal Co. Model OSYS-U or and approved equal.

B. Supervisory switches shall be furnished and installed by this Contractor and wired by Division 28. Coordinate wiring of all switches with Division 28.

2.10 WATERFLOW SWITCHES:

A. Viking or equal waterflow switches, with adjustable retard feature shall be provided in the supply pipe

to each zone for remote alarm. Switch shall be double-pole single-throw type and shall be rated at least 7 amperes at 125/250 volts.

B. Waterflow pressure switches shall be furnished and installed by this Contractor and wired by Division 28. Coordinate wiring of flow switches with Division 28.


A. Each zone control assembly shall provide an alarm signal output to the Building Fire Alarm System

(wiring by Division 28) whenever there is waterflow in the zone.

B. Each valve which controls the flow of sprinkler system water shall be monitored by the Building Fire Alarm System (wiring by Division 28).

PART 3 - EXECUTION

3.1 INSTALLATION:

A. General: Refer to Section 21 12 00 for installation of fire protection system piping and other general requirements.

B. Inspector's Test Valves: Test valves shall be provided in accordance with NFPA 13, supplied from the highest and most remote part of the system in relation to the riser assembly, and shall discharge to the outside of the building or to a building drain. Test valves shall be conveniently accessible within 7’ of floor. Inspector's test connections must be provided for all zones, so that the waterflow switch for the zone can be tested. Every water flow switch shall have an inspector’s test connection




located downstream of the water flow switch and piped to the sanitary sewer system or other acceptable location.

C. Protection During Construction: Provide necessary fire protection during construction in accordance with NFPA and applicable codes.

D. System Drains: All trapped portions of the system shall be equipped with drains of the size specified in NFPA 13. Where possible, design a system that will completely drain to the system riser. Where any trapped water exists, provide an auxiliary drain per NFPA 13 and pipe to the sanitary sewer system or other acceptable location.

3.2 CLEANING:

A. All fire protection piping shall thoroughly flushed out to remove any slag or debris prior to being tested or put into service.


A. Where fire system pressures exceed 175 psi, provide of the pressure reducing valves to regulate the pressure at that point to 165 psi.


A. Inspections, examinations and tests required by the authorities or agencies specified shall be arranged and paid for by the Fire Protection Subcontractor, as necessary, to obtain complete and final acceptance of the system as installed. The certificates of inspection shall be in quadruplicate, and shall be delivered to the Engineer for review and distribution.

B. Sprinkler systems shall be hydrostatically tested by the Contractor upon completion of the installation as required by NFPA 13 [in the presence of the UH Fire Marshal]. When hydrostatic and alarm tests have been completed and all necessary corrections made, a material and test certification shall be provided in accordance with NFPA 13. Final inspection shall include full flow testing through the inspector's test connection. Actuation of the flow switch shall occur within one minute of opening of the inspector's test valve. The final tests may be witnessed by the Engineer and shall be witnessed by the UH Fire Marshal.

C. Sprinkler system zone control assemblies shall be tested to demonstrate proper operation of the flow switch and valve supervisory switch.

D. Arrange and pay for all tests and inspections required by UH Fire Marshal.


A. Refer to Section 21 12 00 for requirements.

B. This agreement shall be executed at no cost to the Owner and shall include four inspections of the entire sprinkler system during the warranty period, each with a "Report of Inspection to the Owner". The final inspection shall include operation and lubrication of all valves, cleaning of all alarm valves and operational testing of all system Electrical and alarm components.

3.6 TRAINING:

A. The system installation contractor shall provide a minimum of 4 hours of training for the Owner in operation and maintenance of the wet-pipe sprinkler system.

3.7 IDENTIFICATION:

A. Refer to Section 23 03 00 for applicable painting, nameplates and labeling requirements. All drain valves, test valves and other system valves shall be clearly labeled as to use and the fact that they are fire protection system valves.




Dry-Pipe Fire Sprinkler Systems 21 13 16 – 1

SECTION 21 13 16

DRY-PIPE FIRE SPRINKLER SYSTEM

PART 1 - GENERAL




A. This Section of the Specification includes providing all labor and materials for the installation of a

hydraulically calculated automatic, dry-pipe sprinkler system(s) in areas as specified herein and in Section 21 12 00, "Fire Protection Systems", and as shown on the Drawings, complete in all respects and ready for operation. The work includes the design of a dry-pipe automatic sprinkler system, complete and ready for operation. Design and installation of the sprinkler system shall be such that no parts interfere with general construction, doors, windows, heating, plumbing, air conditioning systems or electrical equipment.


C. Sprinkler heads shall be spaced, located, and positioned as shown on the Architectural reflected ceiling plans, where shown, as specified herein and as required to suit the building partition layout according to NFPA 13. Piping sizes and configurations shall be on the basis of hydraulic calculations. Where head layouts shown on the Drawings or requirements specified herein are more stringent than NFPA requirements, the more stringent requirements shall apply. Special consideration of locations or conditions shall conform to NFPA 13.

D. The preference of the University is to connect to the campus Fire Water Distribution System (FWDS) provided Code compliant combination wet automatic fire sprinkler and where possible, automatic standpipe systems that do not contain alarm valves or local alarm devices, and a minimum 10 psig or 10% safety factor, whichever is greater, without requiring a building fire pump.


F. Zone the dry-pipe sprinkler system as shown on the Drawings.

G. Coordinate the location of sprinkler heads and piping such that it does not interfere with the installed ceiling configuration or other building construction and equipment.


A. Hydraulic calculations shall be prepared in accordance with Chapter 23 of NFPA 13 with the

following exceptions:







4. Velocities in underground piping shall not exceed 16’ per second. Velocities in all other piping shall not exceed 20’ per second. Velocities in standpipes must be calculated based on the combined sprinkler flow and hose flow.



7. Hydraulic calculations shall be performed by a State of Texas Licensed Responsible Managing Employee (RME) in the direct employ of the fire protection contractor.

8. Provide 10 psi safety factor for all sprinkler system hydraulic calculations.






a. NFPA 13-

Standard for the Installation of Sprinkler Systems.

b. NFPA 14-

Standard for the Installation of Standpipe and Hose System.

c. NFPA 20-

Standard for the Installation of Centrifugal Fire Pumps.

d. NFPA 24-

Standard for the Installation of Private Fire Service Mains.

e. NFPA 70-

National Electrical Code.







b. A 14 Safety Requirements for Fixed Ladders.

5. Materials shall be installed in accordance with NFPA 13. All valves, fittings, hose, sprinkler heads, and equipment shall be UL or FM-labeled. All necessary points of city connections shall be matched to city equipment.












the University insurer, the U of H Fire Marshal, the Owner’s representative, and others as appropriate.



1. Cut sheets marked to clearly indicate all fire protection system materials, accessories and manufacturers to be used, including, but not limited to dry pipe valve assemblies, pipe and fittings, pipe hangers and supports, valves, sprinkler heads, specialties, waterflow switches, valve supervisory switches, and other required materials. This shall include cut sheets on all grooved piping system components and all manufacturers which will be used on the project.



4. The Contractor shall submit detailed and accurate shop drawings prepared in accordance with NFPA 13, NFPA 14 (if applicable), and NFPA 24 for approval of all equipment to be constructed and installed. Shop drawings shall identify all materials and list all equipment to be used. Shop drawings shall include ceiling grid or reflected ceiling layout and shall be coordinated with other trades prior to submittal. Final fire protection system shop drawings showing all piping sizes and elevations, sprinkler head types and hydraulic calculations. Piping shall be sized and elevation of mains shall be indicated. Drawings shall be approved by state and local authorities prior to being submitted. Drawings shall be in accordance with NFPA 13 and NFPA 20 shall be submitted to the Engineer for approval prior to fabrication of piping. Hydraulic calculations shall be a part of this submittal. A fire pump characteristic curve for the building fire pump shall be a part of this submittal.

5. Hydraulic calculations for sprinkler systems shall comply with NFPA 13 and shall include comprehensive hydraulic data sheets. Provide a 10 psi or 10% whichever is greater safety factor for all sprinkler system hydraulic calculations.











A. The dry-pipe sprinkler system shall be a fixed water type fire protection sprinkler system of the air

charged type which automatically controls the water supply to fusible sprinkler heads for control of fire. No flexible drop sprinkler heads will be allowed.



D. Quick-response sprinklers are required throughout all light-hazard occupancies, and may also be installed in ordinary-hazard occupancies for the quick-response hydraulic design area reduction per NFPA 13 for utilizing quick-response sprinklers. Extended coverage sprinklers may be utilized if proven in the hydraulic calculations.



G. The sprinkler system shall be designed to meet the more stringent of the requirements of NFPA 13 or the following requirements:

1. Storage rooms and mechanical equipment room shall be hydraulically calculated and designed to provide 0.18 gpm/sf over the hydraulically most remote 3900 square foot area (Ordinary Hazard Group 3) or over the entire area, whichever is less.

2. Parking garage and ramps shall be hydraulically calculated and designed to provide 0.15 gpm/sf over the hydraulically most remote 2600 square foot area (Ordinary Hazard Group 1) or over the entire area, whichever is less.

3. Minimum design shall be hydraulically calculated and designed to provide 0.12 gpm/sf over the hydraulically most remote 3900 square foot area.

H. All sprinkler heads in general shall be in a straight line, parallel to the lines of the building and shall be located in the approximate center of ceiling tiles. [Sprinkler heads in public finished areas shall be located exactly (double swing connection) where shown on the Architectural reflected ceiling plans.] Sprinkler head quantities, where shown, are the minimum which must be provided. If additional heads are required to meet NFPA 13, the location of additional heads must be approved by the Architect. The Contractor shall submit Sprinkler Head locations to the Architect and Engineer for location and type approval prior to completing the sprinkler system design, unless otherwise instructed, in writing, by the Architect.



A. System components for each zone shall include, but not be limited to:

1. Dry-pipe valves and trim.

2. Main drain valves.




3. Air supplies.

4. Pressure switch.

5. Alarm test valve.

6. Waterflow pressure switches.

7. Valve supervisory switches.

8. Piping.

9. Sprinkler heads. 2.3 DRY PIPE VALVES:

A. Valve: Provide a 175 psi WWP rated, bronze fitted, cast iron body dry-pipe valve assembly with

EPDM seats, spring-loaded latching clapper and required tapped trim connections. Valve shall be Viking Model E, Reliable Model D, or an approved equal.

B. Trim: Provide valve with all required trim including, but not limited to, drip check valve, drain cup, reset bar, alarm test shutoff valve, drain check valve, accelerator, variable pressure retard, air pressure switch, and other required trim.

2.4 AIR SUPPLIES:

A. Dry pipe systems shall be filled from a constant source of air (if shown on the drawings) or from a

high capacity portable air compressor. The air pressure in the system shall be maintained by a self- contained air pressure maintenance device which is set at design pressure. To automatically maintain the design air pressure a maintenance air compressor shall be provided and shall operate on 120 volt, 20 ampere, single phase power. A pressure switch shall be provided to turn the compressor off when the design air pressure is reached, and on when the pressure falls below the design air pressure.

2.5 PIPE AND FITTINGS:

A. Refer to Section 21 12 00 for pipe and fitting requirement.


A. Piping fabrication/shop drawings shall be submitted for all fire protection and sprinkler piping. Refer

to Section 21 12 00 for additional requirements. 2.7 PIPE HANGERS AND SUPPORTS:



A. Refer to Section 21 12 00 for pipe sleeve and escutcheon requirements.

2.9 VALVES:

A. Refer to Section 21 12 00 for fire protection valve requirements. 2.10 SPRINKLER HEADS/SPECIALTIES:


within the air streams of heat emitting equipment and located at the top of elevator shafts shall be selected for proper temperature rating. Corrosion-resistant sprinkler heads shall be installed where they are exposed to weather, moisture, or corrosive vapors. Heads installed where they might receive mechanical injury or are less than 7’ above the floor level shall be protected with approved guards in accordance with NFPA 13. Sprinkler guards shall be provided for sprinklers in electrical




closets. Sprinklers in areas with suspended ceilings shall be pendant type, with pipe and fittings located above the suspended ceiling. No flexible drop sprinkler heads will be allowed.

B. Sprinkler heads in finished areas shall be Reliable Model G semi-recessed chrome-plated heads with a [white] [polished chrome-plated] escutcheon or an approved equal. Sprinkler head shall be UL-listed and FM-approved with the provided escutcheon plate.

C. Sprinkler heads in the unfinished areas shall be Reliable Model G or approved equal brass, upright pendant heads as required.

D. Pendant sprinkler heads for dry pipe sprinkler systems shall be Reliable Model A, chrome plated dry pendant sprinkler heads with pendant length as required.

E. Provide a metal cabinet containing a stock of spare sprinkler heads of all types and ratings installed. The cabinet shall be located where the temperature will not exceed 100°F; the location shall be approved by the Owner. The number of spare sprinklers shall conform to Section 3-16.7 of NFPA 13.

2.11 PRESSURE SWITCH:

A. An auxiliary pressure switch shall be provided to provide a loss of air flow alarm to the sprinkler

control panel. 2.12 VALVE SUPERVISORY SWITCHES:

A. All valves that affect the flow of fire protection water to any area shall be supervised. Switches shall

be Potter Electric Signal Co. Model OSYS-U or and approved equal.


2.13 WATERFLOW PRESSURE SWITCHES:

A. Viking or equal waterflow pressure switches, with adjustable retard feature shall be provided in the

supply pipe to each zone for remote alarm. Switch shall be double-pole single-throw type and shall be rated at least 7 amperes at 125/250 volts.

B. Waterflow pressure switches shall be furnished and installed by this Contractor and wired by Division 16. Coordinate wiring of flow switches with Division 28.


A. Each dry-pipe system shall provide a trouble signal output to the Building Fire Alarm System (wiring

by Division 28) whenever a loss of air condition exists in the dry-pipe system.

B. Each dry-pipe system shall provide an alarm signal output to the Building Fire Alarm System (wiring by Division 28) whenever there is waterflow in the zone.

C. Each valve which controls the flow of sprinkler system water shall be monitored by the Building Fire Alarm System (wiring by Division 28).

PART 3 - EXECUTION

3.1 INSTALLATION:


B. Dry-pipe System: Install and test the dry-pipe system in accordance with the system manufacturer's written installation instructions. Locate dry-pipe valves and trim in a heated space.

C. Inspector's Test Valves: Test valves shall be provided in accordance with Section 22 of NFPA 13, supplied from the highest and most remote part of the system in relation to the riser assembly, and shall discharge to the outside of the building or to a building drain. Test valves shall be conveniently




accessible within 7'of floor. Inspector's test connections must be provided for all zones, so that the waterflow switch for the zone can be tested.

D. Protection During Construction: Provide necessary fire protection during construction in accordance with NFPA and applicable codes.

3.2 CLEANING:



A. Where fire system pressures exceed 175 psi, provide of the pressure reducing valves to regulate the pressure at that point to 165 psi.


A. Inspections, examinations and tests required by the authorities or agencies specified shall be arranged and paid for by the Fire Protection Subcontractor, as necessary, to obtain complete and final acceptance of the system as installed. The certificates of inspection shall be in quadruplicate, and shall be delivered to the Engineer for review and distribution.

B. Sprinkler systems shall be hydrostatically tested by the Contractor upon completion of the installation as required by NFPA 13 in the presence of the UH Fire Marshal. When hydrostatic and alarm tests have been completed and all necessary corrections made, a material and test certification shall be provided in accordance with NFPA 13. Final inspection shall include full flow testing through the inspector's test connection. Actuation of the flow switch shall occur within one minute of opening of the inspector's test valve. The final tests may be witnessed by the Engineer and shall be witnessed by the UH Fire Marshal.


D. Dry-pipe sprinkler system shall be tested to demonstrate that system charge time is within the requirements of NFPA 13.

E. Arrange and pay for all tests and inspections required by UH Fire Marshal.



B. This agreement shall be executed at no cost to the Owner and shall include four inspections of the entire sprinkler system during the warranty period, each with a NASFCA "Report of Inspection to the Owner". The final inspection shall include operation and lubrication of all valves, cleaning of all alarm valves and operational testing of all system Electrical and alarm components.

3.6 TRAINING:

A. The system installation contractor shall provide a minimum of 4 hours of training for the Owner in operation and maintenance of the dry-pipe sprinkler system.

3.7 IDENTIFICATION:

A. Refer to Section 23 03 00, "Basic Materials and Methods", for applicable painting, nameplates and labeling requirements. All drain valves, test valves, and other system valves shall be clearly labeled as to use and the fact that they are fire protection system valves.




Pre-Action Sprinkler Systems, Fire

21 13 18 – 1

SECTION 21 13 18

PRE-ACTION FIRE SPRINKLER SYSTEM

PART 1 - GENERAL




A. This Section of the Specification includes the providing of all labor and materials for the installation of a

hydraulically calculated automatic pre-action, dry-pipe sprinkler system(s) in areas as specified herein and in Section 21 12 00, "Fire Protection Systems", and as shown on the Drawings, complete in all respects and ready for operation. The work includes the design of a pre-action, dry-pipe automatic sprinkler system, complete and ready for operation. Design and installation of the sprinkler system shall be such that no parts interfere with general construction, doors, windows, heating, plumbing, air conditioning systems or electrical equipment.


C. Sprinkler heads shall be spaced, located, and positioned as shown on the Architectural reflected ceiling plans, where shown, as specified herein as required to suit the building partition layout according to NFPA 13. Piping sizes and configurations shall be on the basis of hydraulic calculations. Where head layouts shown on the Drawings or requirements specified herein are more stringent than NFPA requirements, the more stringent requirements shall apply. Special consideration of locations or conditions shall conform to NFPA 13.

D. The preference of the University is to connect to the campus Fire Water Distribution System (FWDS) provided Code compliant combination wet automatic fire sprinkler and where possible, automatic standpipe systems that do not contain alarm valves or local alarm devices, and a minimum 10 psig or 10% safety factor, whichever is greater, without requiring a building fire pump.


F. If used the building fire pump(s) and combination standpipes shall serve the pre-action sprinkler system.

G. Zone the pre-action sprinkler system [as shown on the Drawings] [and] [such that each elevator machine room and its related elevator shafts are a separate sprinkler control zone].

H. Coordinate the location of sprinkler heads and piping with elements in the ceiling such that it does not interfere with the installed ceiling configuration.


A. Hydraulic calculations shall be prepared in accordance with Chapter 23 of NFPA 13 with the following

exceptions:




21 13 18 – 2




4. Velocities in underground piping shall not exceed 16' per second. Velocities in all other piping shall not exceed 20' per second. Velocities in standpipes must be calculated based on the combined sprinkler flow and hose flow.

5. Fire pumps shall supply only the sprinkler demand. Any point on the pump curve may be used to supply the water demand, provided that point is no more than 150% of rated capacity of the pump.



8. Hydraulic calculations shall be performed by a State of Texas Licensed Responsible Managing Employee (RME) in the direct employ of the Fire Protection Contractor.

9. Provide ten percent (10%) or 10 psig safety factor, whichever is greater, for all sprinkler system hydraulic calculations.







b. NFPA 14 Standard for the Installation of Standpipe and Hose Systems.

c. NFPA 20 Standard for the Installation of Pumps for Fire Protection.




a. Fire Protection Equipment Directory (Latest Edition).


a. Approval Guild (Latest Edition).


a. Z53 Safety Color Code for Marking Physical Hazards.




21 13 18 – 3

b. A 14 Safety Requirements for Fixed Ladders. 5. Materials shall be installed in accordance with NFPA 13. All valves, fittings, hose, sprinkler heads,

and equipment shall be UL or FM-labeled. All necessary points of city connections shall be matched to city equipment.






4) Central Sprinkler Corporation.



A. The University of Houston Project Manager shall review and distribute all submittals for approval by the

University insurer, the U of H Fire Marshal, the Owner’s representative, and others as appropriate.



1. Cut sheets marked to clearly indicate all fire protection system materials and accessories to be used, including, but not limited to control panels, pipe and fittings, pipe hangers and supports, valves, sprinkler heads, specialties, waterflow switches, valve supervisory switches, and other required materials. This shall include cut sheets on all grooved piping system components [and all manufacturers'] which will be used on the project.



4. The Contractor shall submit detailed and accurate shop drawings prepared in accordance with NFPA 13, NFPA 14 (if applicable), and NFPA 24 for approval of all equipment to be constructed and installed. Shop drawings shall identify all materials and list all equipment to be used. Shop drawings shall include ceiling grid or reflected ceiling layout and shall be coordinated with other trades prior to submittal. Final fire protection system shop drawings showing all piping sizes and elevations, sprinkler head types and hydraulic calculations. Piping shall be sized and elevation of mains shall be indicated. Drawings shall be approved by state and local authorities prior to being submitted. Drawings shall be in accordance with Sectionÿ1-9 of NFPA 13 and Section 1-4.3 of NFPA 20 shall be prepared and shall be submitted to the Engineer for approval prior to fabrication of piping. Hydraulic calculations shall be a part of this submittal. A fire pump characteristic curve for the building fire pump shall also be a part of this submittal.

5. Hydraulic calculations for sprinkler systems shall comply with NFPA 13 and shall include comprehensive hydraulic data sheets. Provide a 10 psi or 10% safety factor, whichever is greater, for all sprinkler system hydraulic calculations.





21 13 18 – 4







A. The pre-action, dry-pipe sprinkler system shall be a fixed water type fire protection sprinkler system of

the time delayed, recycling, pre-action type which automatically controls the water supply to fusible sprinkler heads for control of fire. No flexible drop sprinkler heads will be allowed.



D. The system shall sense a fire condition through a closed circuit electric heat detector system which turns the water supply on when heat is detected, turns the water supply off when heat is reduced below the detector operating temperature, and turns the water supply back on if the detector operating temperature is exceeded again. The sprinkler piping system in the protected area shall remain dry until a fire condition is sensed and shall be monitored with pressurized air. Should a leak occur in the piping system, an alarm shall sound, but water shall not enter the piping system until a fire condition is sensed.



G. The sprinkler system shall be designed to meet the more stringent of the requirements of NFPA 13 or the following Industrial Risk Insurers (IRI) requirements:

1. Storage rooms and mechanical equipment room shall be hydraulically calculated and designed to provide 0.18 gpm/sf over the hydraulically most remote 3000 square foot area (Ordinary Hazard Groupÿ3) or over the entire area, whichever is less. Sprinkler heads shall be rated at 165³F.

2. Minimum design shall be hydraulically calculated and designed to provide 0.12 gpm/sf over the hydraulically most remote 3000 square foot area. Sprinkler heads shall be rated at 165³F].

H. All sprinkler heads in general shall be in a straight line, parallel to the lines of the building and shall be located in the [approximate] [exact (double swing connection)] center of ceiling tiles. The Contractor shall submit Sprinkler Head locations to the Architect and Engineer for location and type approval prior to completing the sprinkler system design, unless otherwise instructed, in writing, by the Architect.





21 13 18 – 5


A. System Components: Components for each zone shall include, but not be limited to:

1. Pre-action control panel.

2. Battery charger.

3. Batteries.

4. Valve trim box.

5. Supervised system shutoff valve.

6. Flow control valve and trim.

7. Check valve.

8. Fire detectors.

9. Detector cables.

10.Main drain valves.

11.Intermediate drain valve.

12.Priming valve.

13.Position indicator.

14.Strainer.

15.Electric alarm bell.

16.Air maintenance device.

17.Pressure switch.

18.Alarm test valve.

19.Alarm shutoff valve.

20.Waterflow pressure switches.

21.Valve supervisory switches.

22.Piping.

23.Sprinkler heads. 2.3 SYSTEM OPERATION:

A. Automatic Operation:

1. When a fire occurs, a detector is heated to its trip point. The normally closed detector circuit then opens. The relays in the control panel open, shutting off power to the solenoid valves in the trim box and sounding the electric fire alarm bell. When the solenoid valves open, the pressurized water in the top chamber of the flow control is released and the clapper opens. The system then fills almost completely with pressurized water. When the sprinkler head reaches the operating temperature, it opens and sprays water on the fire. When the temperature in the fire area drops below the trip point of all detectors, the detector circuit is closed. A relay is closed in the panel which energizes the timer. Water will continue to discharge from the open sprinklers from one to 5 minutes, depending on the timer setting. When the timer cycle is complete, a relay in the control panel closes and energizes the solenoid valves in the trim box. The flow of water stops from above the clapper of the flow control valve thereby causing a pressure to build up which closes the valve clapper and stops the flow of water to the opened sprinklers. The electric fire alarm will continue to sound until the reset button is pushed.




21 13 18 – 6

2. Should the temperature build to the trip point of any detector during any phase of the cycle, the system will continue to flow or immediately start the flow of water to the fire.

B. Operation as a Dry System: Loss of air pressure operation shall be key-switch activated at the control panel. When a fire occurs and the temperature reaches the operating point of a sprinkler, the system's pressurized air escapes through the open sprinkler. When the pressure has dropped to approximately 12 psi (80 kPa), a pressure switch in the trim box opens a relay in the control panel causing the low air pressure alarm to sound. When the air pressure drops to approximately 7 psi (50 kPa), another pressure switch in the trim box opens causing a second relay to open in the control panel de energizing the solenoid valves in the trim box and sounding the electric fire alarm. When the solenoid valves open the pressurized water in the top chamber of the flow control valve is released and the clapper opens. The system then fills with pressurized water which sprays from the sprinkler and sounds the water motor alarm, if provided. The waterflow is stopped by closing the main control valve. The system will not recycle when used as a standard dry-pipe system.

2.4 PRE-ACTION CONTROL PANEL:

A. The control panel shall incorporate all necessary relays, timers, switches, alarms, and trouble lights

necessary for system operation. The panel shall be factory-prewired.

B. The control panel shall be flush-mounted in the location shown on the Drawings.

C. All valves which control the flow of water from the standpipe to the pre-action system shall be supervised via tamper switches monitored by the control panel.

D. A battery charger and sealed battery suitable for operation of the system for 90 hours shall be provided. The battery and charger cabinets shall be installed in the floor air handling unit room.

E. The control panel is connected to the normally closed fire detector circuit, valve trim box, power supply and electrical alarms.

1. When a fire detector operates, the following sequence occurs:

a. Power is shut off to the solenoid valves in the valve trim box and the electric alarm operates.

b. The solenoid valves open and vent the upper chamber of the flow control valve allowing it to open and supply water to the sprinkler system piping.

2. When all fire detectors reset:

a. The timer is energized allowing water flow to continue for a predetermined time period from one minute to 5 minutes.

b. At the end of that time the solenoid valves in the valve trim box are energized and shut of the flow of water from the top chamber off the flow control valve which in turn closes the flow control valve and stops the flow of water to the sprinkler system piping.

F. A key-operated control, located on the side of the control panel, allows the system to be operated as a cycling pre-action system with the electrical detection circuit in service or as a dry system without the electrical detection circuit in service. (NO RECYCLING OF THE SYSTEM WILL OCCUR WHEN IT IS OPERATING AS A DRY SYSTEM). The control panel shall incorporate a system tripped light and a low air pressure light. System operation or low air pressure shall activate the audible trouble alarm and optional other alarms. These can be silenced by on/off switches. The key-operated thermal test button acts to open the detector circuit momentarily to cycle the system. The reset button resets timer and alarm circuits after system operation. The system may be operated as a wet-pipe sprinkler system if the detector circuit and/or pressurized air are unavailable for service; however, all alarms except the low air pressure alarm will operate constantly unless shut off and cycling features are negated.

G. A normally open, dry contact rated at 120 volts, 10 amperes shall be provided in the preaction control panel and shall close upon system charging to shunt trip circuit breakers serving elevator [computer] equipment.

2.5 PRE-ACTION VALVE TRIM BOX:




21 13 18 – 7

A. The valve trim box shall incorporate all solenoid valves, pressure switches, terminal blocks and accessories necessary for operation of the System. The valve trim box shall be factory pre-wired and pre-piped.

B. The components of the valve trim box are operated through relays in the control panel (see Control Panel Data Page). The solenoid valves (referred to on the wiring diagram as V1 and V2) control the flow of water from the top chamber of the flow control valve. When the normally closed solenoid valves are opened, pressurized water trapped in the top chamber of the control valve escapes, allowing the control valve clapper to rise and pressurized water to fill the sprinkler system piping. When the solenoid valves are electrically closed, the flow of water from the top chamber of the control valve is stopped. Water pressure builds in the top chamber which forces the clapper to shut off the flow of water to the sprinkler system. The pressure switch, PS#2, controls the low air pressure alarm bell. If the sprinkler system air pressure drops below 12 psi (83 kPa), an alarm will sound. The pressure switch, PS#1, controls waterflow to the sprinkler system when the selection switch is turned to the OFF position and the system is being operated on loss of air pressure. If the pressurized air in the piping system drops below 7 psi (48 kPa), the solenoid valves will be de-energized and pressurized water will flow to the sprinkler system.

2.6 HEAT DETECTORS:

A. Detectors shall be heat sensitive, electrical detectors which operate at a fixed temperature of 140°F.

Detectors shall be rate compensating and feature automatic recycling. Detectors shall be connected in series from and to the control panel. When a detector is heated to the temperature set point, a mechanical switch shall open and break the series circuit interrupting the flow of current..

B. Detectors shall be located on maximum [20'x 20'] [Reduce smoke detector spacing for rooms or areas utilizing high air flow as required per NFPA 72] centers and shall be coordinated with locations of light fixtures, grills, speakers, smoke detectors and other ceiling mounted devices.

C. Detectors in finished ceiling areas shall be installed using through ceiling mounting. 2.7 DETECTOR CABLE:

A. Detector cable shall consist of two number 16 conductors surrounded by a high temperature insulation

encased in an aluminum sheath. 2.8 FLOW CONTROL VALVE AND TRIM:

A. A flow control valve, check valve and complete trim for pre-action, dry-pipe, operation shall be

provided. 2.9 AIR MAINTENANCE DEVICE:

A. An air maintenance device shall be provided to supply each pre-action zone. The air maintenance

device shall operate on 120 volt, 20 ampere, single phase power. A connection for a high capacity portable air compressor shall be provided for system charging.


A. Refer to Section 21 12 00 for pipe and fitting requirements.

2.11 PIPING FABRICATION DRAWINGS:

A. Piping fabrication/shop drawings shall be submitted for all fire protection and sprinkler piping. Refer to

Section 15500 for additional requirements. 2.12 PIPE HANGERS AND SUPPORTS:





21 13 18 – 8


A. Refer to Section 21 12 00 for pipe sleeve and escutcheon requirements. 2.14 VALVES:

A. Refer to Section 21 12 00 for fire protection valve requirements.

2.15 SPRINKLER HEADS SPECIALTIES:


within the air streams of heat emitting equipment shall be selected and located at the top of elevator shafts for proper temperature rating. Corrosion-resistant sprinkler heads shall be installed where they are exposed to weather, moisture, or corrosive vapors. Heads installed where they might receive mechanical injury or are less than 7' above the floor level shall be protected with approved guards in accordance with NFPA13. Sprinkler guards must be provided for sprinklers in electrical closets. Sprinklers in areas with suspended ceilings shall be pendant type, with pipe and fittings located above the suspended ceiling. No flexible drop sprinkler heads will be allowed.

B. Sprinkler heads in finished areas shall be Reliable Model [G-1 "concealer"] [G-semi-recessed chrome-plated head] with a [white] [polished chrome-plated] [cover] [escutcheon] plate or an approved equal. Sprinkler head shall be UL-listed and FM-approved with the provided [cover] [escutcheon] plate.

C. Sprinkler heads in the unfinished areas shall be Reliable Model G or approved equal brass, upright pendant, or pendant heads as required.

D. Sprinkler heads for all dry pipe sprinkler systems, in walk-in freezers and in all other areas where sprinkler heads are subject to freezing provide Reliable Model A, chrome plated dry pendant sprinkler heads with pendant length as required.

E. Provide a metal cabinet containing a stock of spare sprinkler heads of all types and ratings installed. The cabinet shall be located where the temperature will not exceed 100³F; the location shall be approved by the Owner. The number of spare sprinklers shall conform to NFPA 13.

2.16 PRESSURE SWITCHES:

A. An auxiliary pressure switch shall be provided to provide a loss of air flow alarm to the sprinkler control

panel. 2.17 VALVE SUPERVISORY SWITCHES:

A. All valves that affect the flow of fire protection water to the pre-action system shall be supervised.

Switches shall be Potter Electric Signal Co. Model OSYS-U or and approved equal.


2.18 WATER FLOW PRESSURE SWITCHES:

A. Water flow pressure switches, with adjustable retard feature shall be provided in the supply pipe to

each zone for remote alarm. Switch shall be double-pole single-throw type and shall be rated at least 7 amperes at 125/250 volts.

B. Water flow pressure switches shall be furnished and installed by this Contractor and wired by Division 28. Coordinate wiring of all new and relocated flow switches with Division 28.


A. Each pre-action control panel shall provide a trouble signal output to the Building Fire Alarm System

(wiring by Division 28) whenever a trouble condition exists in the pre-action system.




21 13 18 – 9

B. Each pre-action control panel shall provide a trouble signal output to the Building Fire Alarm System (wiring by Division 28) whenever a loss of air condition exists in the pre-action system.

C. The pre-action control panel shall provide an alarm signal output to the Building Fire Alarm System (wiring by Division 28) whenever there is waterflow in the pre-action system.

D. Each valve which controls the flow of sprinkler system water shall be monitored by the Building Fire Alarm System (wiring by Division 28).

PART 3 - EXECUTION

3.1 INSTALLATION:


B. Where the project requires releasing of a pre-action system, the room or area in which the suppression system is located shall utilize two separate smoke detectors or activation of a manual release station to activate the suppression system.

C. Pre-action System: Install and test the pre-action system in accordance with the system manufacturer's written installation instructions. All pre-action system wiring shall be concealed except where installed in mechanical rooms. All wiring which is not installed using aluminum-sheathed cable shall be installed in an approved raceway.

D. Inspector's Test Valves: Test valves shall be provided in accordance with NFPA13, supplied from the highest and most remote part of the system in relation to the riser assembly, and shall discharge to the outside of the building or to a building drain. Test valves shall be conveniently accessible within 7'of floor. Inspector's test connections must be provided for all zones, so that the waterflow switch for the zone can be tested.

E. Protection During Construction: Provide necessary fire protection during construction in accordance with NFPA and local codes. The existing sprinkler system shall be maintained in service to the maximum extent possible.

3.2 CLEANING:



A. Where fire system pressures exceed 140 psi, provide pressure reducing valves to regulate the pressure at that point to no less than 100 psi.


A. Inspections, examinations and tests required by the authorities or agencies specified shall be arranged and paid for by the fire protection subcontractor, as necessary, to obtain complete and final acceptance of the system as installed. The certificates of inspection shall be in quadruplicate, and shall be delivered to the Engineer for review and distribution.

B. Sprinkler systems shall be hydrostatically-tested by the Contractor upon completion of the installation as required by NFPA 13 [in the presence of the UH Fire Marshal]. When hydrostatic and alarm tests have been completed and all necessary corrections made, a material and test certification shall be provided in accordance with NFPA 13. Final inspection shall include full flow testing through the inspector's test connection. Actuation of the flow switch shall occur within one minute of opening of the inspector's test valve. The final tests may be witnessed by the Engineer or Owner's Representative.




Pre-Action Sprinkler Systems, Fire Protection 21 13 18 – 10

D. Pre-action sprinkler systems shall be tested to demonstrate that system charge time is within the requirements of NFPA13.

E. Arrange and pay for all tests and inspections required by authorities having jurisdiction.



B. This agreement shall be executed at no cost to the Owner and shall include four inspections of the entire sprinkler system during the warranty period, each with a "Report of Inspection to the Owner". The final inspection shall include operation and lubrication of all valves, cleaning of all alarm valves and operational testing of all system Electrical and alarm components.

3.6 TRAINING:

A. The system installation contractor shall provide a minimum of 8 hours of training for the Owner in operation and maintenance of the pre-action system.




Clean Agent Fire Suppression System 21 22 00 – 1

SECTION 21 22 00

CLEAN AGENT FIRE SUPPRESSION SYSTEM

PART 1 - GENERAL




A. Work Included: Provide an engineered, fixed piped clean agent total flooding Clean Agent fire

suppression system to protect [ ] as shown on the Drawings. The system is to be designed to conform to the National Fire Protection Association Standard 2001. This system shall be capable of discharging in a nominal 10 seconds or less.

1.3 STANDARDS:

A. Products, design and installation shall comply with the most stringent requirements of all applicable

sections of the following:

1. NFPA 2001 (most recent edition)- Clean Agent Fire Extinguishing Systems.

2. NFPA 70-(most recent edition)- - National Electrical Code.

3. NFPA 72 National Fire Alarm and Signaling Code.

4. The Federal Occupational Safety and Health Act.

5. Texas Insurance Code Chapter 6001

6. Texas Administrative Code §§ 34.500 (fire extinguisher rules)

7. Applicable local, state and federal laws and regulations.

8. Underwriters' Laboratories, Inc. (UL) listing and standards.

9. Factory Mutual (FM) approval and standards. 1.4 QUALITY ASSURANCE:

A. Manufacturers: All system components shall be the products of a single manufacturer and shall be

manufactured by Fire Protection Systems Division of Fike Corporation, Inergen or an approved equal.

B. Installing Contractor: The entire system shall be installed, tested and certified by an experienced contractor licensed by the State of Texas regularly engaged in the installation of automatic fire suppressions systems. The installing contractor shall have a minimum of 5 years of experience, design, installation and testing of fire suppression systems and shall be an authorized installer for the fire suppressions system manufacturer.

1.5 SUBMITTALS:


the University insurer, the U of H Fire Marshal, the Owner’s representative, and others as appropriate.





C. Shop drawing submittals shall include, but not be limited to, the following:

1. Material and equipment information including manufacturers catalog cuts and technical data for each component or device used in the system which shall include, but not be limited to, detectors, manual discharge switches, abort switches, control panel, graphic annunciator, alarm devices, extinguishing agent and extinguishing agent storage containers, mounting brackets, and nozzles.

2. Sequences of operation, electrical schematics and connection diagrams shall be provided to completely describe the operation of the Clean Agent fire suppression system controls.

3. The Contractor shall illustrate the Clean Agent distribution system and provide calculations to demonstrate the volumetric concentration. The following information is to be provided for each:

a. Room dimensions and volume.

b. Design temperature.

c. Specific volume and pressure at design.

d. Any air change rate not shutdown (cfm).

e. Clean Agent volume required.

f. Discharge time.

g. Number and size of nozzles.

h. Agent discharged per discharge nozzle.

i. Computerized hydraulic calculations of the agent distribution system taking into account each component of piping and the frictional losses associated with that component.

j. Concentration of agent at design.

4. Shop drawings submittals shall indicate locations, installation details and operation details of all equipment associated with the Clean Agent fire suppression system. Floor plans showing equipment locations, piping and other details, as required, shall be provided. Floor plans shall be drawn to a scale of not less than 1/4" = 1'-0". Elevations, cross sections and other details shall be drawn to a larger scale, as required.


6. Information outlining warranty of each component or device used in the system.

7. Elevation of the graphic annunciator panel including all nameplates, text, and control devices.

8. Complete and detailed point-to-point wiring diagrams for all system components and devices.

9. A copy of the form to be used for final system testing and certification.

10.Additional information as required in Section 23 01 00.

1.6 DELIVERY, STORAGE AND HANDLING:

A. Deliver fire suppression system components in factory-fabricated water resistant packaging.

B. Handle fire suppressions system components carefully to avoid damages to components, enclosures, and finish.

C. Store fire suppression system components in a clean, dry space, and protect from weather.

PART 2 - PRODUCTS 2.1 GENERAL REQUIREMENTS:




A. The system shall be a total flooding Clean Agent fire suppression system designed to provide a uniform concentration of Clean Agent for the areas shown on the Drawings. The minimum agent concentration shall be 1% greater than the concentration required in NFPA for the agent being used.

B. The amount of Clean Agent to be provided shall be the amount required to obtain a uniform concentration 1% greater than the concentration required in NFPA for the agent being used., for 10 minutes. The Contractor shall take into consideration such factors as non-closeable openings, "coast-down" time of fans, time required for dampers to close, requirements for any additional dampers, and any other feature of the facility that could affect concentration.

C. The work to be performed by the Contractor under this Specification includes all labor, materials, equipment, tools, supervision, storage, and each and every item of expense necessary to design, supply and install complete Clean Agent fire detection and suppression systems.

D. The Contractor shall comply with all local, state, and federal laws and regulations and UH Fire Marshal and with the Federal Occupational Safety and Health Act. The Contractor shall obtain any permits required at no additional cost.

E. All work under this Contract shall be done in a neat and workmanlike manner whether finally concealed or exposed.

F. All material and equipment furnished and installed shall be new and free of defects, of recent manufacture and standard manufacturer's equipment.

2.2 SYSTEM DESIGN:

A. All system components shall be designed and selected by a State of Texas licensed fire protection

contractor. All system components shall be listed and approved by UL and FM, both individually and as used on this project as a system designed in accordance with NFPA.

2.3 SYSTEM OPERATION:

A. The system shall be actuated by an [addressable device] [dual zone] [or] [verified detection]

system with [analog] photoelectric smoke detectors. Automatic operation in each protected area(s) shall be as follows:

1. Actuation of an initial detector [in either zone] shall:

a. Audibly and visually indicate the respective device in alarm at the control unit.

b. [Illuminate the detector indicating LED on the graphic annunciator (Data Center only).]

c. Activate the pre-alarm audible and visual signals associated with the area in which the detector is an alarm.

d. Close the air conditioning system dampers serving the area in alarm, as applicable.

e. Shut down dedicated air conditioning equipment serving the area in alarm.

f. [Activate the remote alarm/trouble chime in the adjacent office area (Data Center only).]

g. Initiate an alarm condition to the building fire alarm system [floor zone on the floor where the alarm occurred].

2. Action of a second detector in the same area [, but on the second detection zone] shall:

a. Audibly and visually indicate the respective device in alarm at the control unit.

b. [Illuminate the detector indicating LED on the graphic annunciator (Data Center only).]

c. Activate the discharge alarm audible and visual signals associated with the area in which the detector is in alarm.




d. Actuate a time delay mechanism which shall delay release of the Clean Agent for 30 seconds. The Clean Agent shall be released at the end of this time interval unless a " Clean Agent Hold" (Abort) button is pressed at any time during the interval which shall immediately restore the time delay mechanism. Upon release, the time delay cycle will restart unless the entire system has been restored to normal by pressing the reset button on the control unit. Time in seconds remaining to discharge shall be displayed at digital abort stations.

3. Timing out of the time delay shall:

a. Shut down power to all equipment within the Clean Agent protected area in alarm via a dry relay contact.

b. Discharge Clean Agent in the zone in alarm in the total space.

c. Activate the Clean Agent discharge strobes associated with the zone in alarm.

B. The system shall be capable of being actuated by manual discharge switches in the projected area. Operation of a manual discharge switch shall cause immediate or optionally programmable delayed discharge of the Clean Agent and shall cause alarm and shutdown devices to operate the same as if the system had operated automatically. Operation of a manual discharge switch shall be provided in each projected area at the exits and as shown on the Drawings.

C. System design shall incorporate the capability of checking all detection, discharge, abort power and air conditioning shutoff, damper control functions without discharge of the Clean Agent. It shall also be possible to test without shutting off computer power and/or air conditioning equipment. The system shall include an emergency power backup. Upon loss of power supplying the control unit, the system shall automatically transfer to standby power supplied by the control unit, and stay on line for 24 hours of supervision with capacity for Clean Agent release and 5 minutes of system alarm.

D. System supervision shall be provided to detect trouble conditions in all connected devices and wiring. A system trouble condition shall initiate the following:

1. Indicate the respective zone/device in trouble condition at the control unit.

2. [Activate the remote alarm/trouble chime in the adjacent office area (Data Center only).]

3. Initial a trouble condition on the building fire alarm system [floor zone on the floor where the trouble condition].

2.4 DEVICE LOCATIONS:

A. System devices shall be located as follows:

1. Control panel [and graphic annunciator] shall be located as shown on the Drawings. Panels shall be flush-mounted, unless noted otherwise on the Drawings.

2. Smoke detectors shall be installed [above the ceiling,] on the ceiling [and below the raised access floor] of each protected area. Minimum number of detectors shall be as shown on the Drawings.

3. Manual discharge stations shall be installed at each exit from protected areas and as shown on the Drawings.

4. A digital abort station shall be installed next to the control panel and in the [ .]

5. Standard abort stations shall be provided at locations shown on the Drawings.

6. Audible and visual alarm devices for pre-alarm and discharge alarm shall be located in the protected areas. A visual discharge signal shall be located outside each entrance to the protected area. [A remote combination trouble/alarm chime shall be provided in the office area adjacent to the protected area.]




2.5 SYSTEM CONTROL PANEL:

A. General: Provide an integrated system of automatic detection devices. The devices, along with manual stations shall be used to activate a control panel. This panel shall process all input signals, sequence the levels of alarm signals, and provide outputs to shutdown fans, activate dampers, contact other agencies, annunciate on remote devices as specified. The system shall have a standard standby battery supply to provide a minimum of 24 hours of emergency power. Detection wiring shall be of a Class "B" type and utilize devices connected in parallel.

[SELECT ONE OF THE FOLLOWING]

[ADDRESSABLE DEVICE]

B. [Control Panel: The control panel for the Automatic Fire Detection and Alarm System and Clean Agent Fire Suppression System shall be a Fike Cheetah or approved equal fire control system. The control panel shall be UL -listed for Clean Agent. The control panel shall include the following modules:

1. Ideally suited for Fire Alarm, Clean Agent Suppression, Carbon Dioxide Suppression, and Sprinkle/Pre-Action fore Detection and Control Systems

2. Digital Communication Protocol with addressable devices and sensors to increase communications reliability and immunity to noise

3. Response time of less than 3 seconds for fully loaded system

4. Up to 240 zones to map initiation devices to control functions

5. Two signaling Line Circuits (SLC) which support up to 254 addresssable points

6. SLC distances of over 6000’ possible

7. SLC meets style 4, 6 or 7

8. Input either 120Vac, 240Vac 50/60 Hz, or 24Vdc

9. Power supply capable of supporting 508 points plus 5.0 A usable power plus 65 Ah of standby battery capacity

10. Two notification Appliance Circuits (NAC), 2.0A each

11. Dedicated Alarm , Trouble and Supervisory SPDT relays(30 Vdc/2A, 110Vac/0.5A)

12. Two continuous and one resetable auxiliary power outputs, 2.0A each

13. Releasing function provides three input types; cross zone, counting zone and single detector, and 6 abort types.

14. Reliable software and firmware integration utilizing KeyWord code construction and Intelligent Output controls

15. 80 Character LCD display with 8 status LEDS to provide instant visual information

16. Completely field programmable, without requiring use of a personal computer

17. Automatic Learn mode allows quicker, reliable system configuration

18. Three levels of password protection with built in individual user profiles

19. Full function 24 button keypad

20. 1800 event history buffer with dedicated 600 event alarm buffer

21. Two levels of adjustable pre-alarm thresholds for smoke sensor to provide early warning indication of potential emergency conditions




22. Automatic Day/Night smoke sensor sensitivity adjustments with Weekend and Holiday schedule adjustments

23. Automatic sensitivity testing in accordance w/NFPA 72

24. Sophisticated Drift Compensation routines used on addressable sensors to compensate for dust/dirt accumulation

25. Walktest capability with optional notification appliance verification

26. .

[OR] [VERIFIED DETECTION]

C. [Control Panel: The Control Panel for the Automatic Fire Detection and Clean Agent

Suppression System shall be a Fike Fire Suppression System SHP or approved equal releasing control. The Control Panel shall be UL and ULC-listed and bear Factory Mutual approval.

1. The control panel shall include:

a. Verified detection (cross-zoning will [not] be considered equal).

b. Parallel wired agent release modules using electrical initiators.

c. Class "B" wiring of the detection and Clean Agent release circuits.

d. Minimum of 24 hours of battery standby power, housed in same cabinet.

e. Three supervised audible circuits, each individually silenceable.

f. Three sets of auxiliary contacts.

2. The control panel shall operate on the "verified Detection concept". Cross-zoning will [not] be considered as equal. With the verified detection concept, any single activated detector will be processed by the control panel and be indicated as an "Alarm 1" condition. This shall cause the "Alarm 1" audible circuit and the red "Alarm 1" LED on the cover to activate. The activation of any second detector, regardless of its location, shall cause the system to enter the "Alarm 2" condition, activate the "Alarm 2" audible circuit, and start the programmed, solid state, time delay circuit. If no time delay is programmed, then the system shall immediately discharge upon activation of the second detector. Each audible circuit be capable of being individually silenced.

3. The control panel shall utilize parallel wired initiators at the method of discharging the extinguishing agent. The electrical initiator at each container shall be connected to the Agent Release Module which shall be a solid state circuit which provides the firing voltage. When a discharge signal is generated at the control panel, all agent release modules shall operate instantly discharging the containers. All Agent Release Modules shall be wired in a Class "B" configuration. [Any system utilizing series initiators, series solenoids or mechanically operated valves shall not be acceptable.] All relays shall be rated 10 amps.

4. The control panel shall house its own standby battery power. Batteries shall be sized to provide a minimum of 24 hours stand by power but in no case shall be less than 6-1/2 AH capacity. Batteries shall be supervised and provide a trouble signal upon low battery voltage or open cell.

5. The control panel shall accommodate supervised abort switches.




6. The control panel shall be furnished with a solid state, field-programmable time delay. The time delay shall be programmable with a maximum setting of 60 seconds.

7. The control panel shall be constructed of 18 gauge steel finished with [the manufacturers standard pain finish]. [a custom color or selected by the Architect.] Only the audio/visual signals activated shall be visible with the cabinet door closed. Cabinet shall be sized so that the batteries may be located in the same enclosure. All terminal strips which may have more than 24 volts dc, such as power input and auxiliary relays shall have protective covers to prevent anyone from coming into accidental contact with a live terminal. Cabinet shall be capable of being flush-mounted without the need of any accessories. the control panel shall operate off of 120 volt ac, 60 cycle power. Within the panel the ac inputs shall be protected by a circuit breaker in lieu of fuses.]

2.6 [GRAPHIC ANNUNCIATOR:

A. Provide a flush-mounted LED type graphic annunciator. the annunciator shall be provided

complete with all required circuit boards and LEDs for each device, lamp test button, and shall have a graphic representation of the protected area floor plan with appropriate descriptive legends silk screened on the annunciator face.]

[SELECT ONE OF THE FOLLOWING]

[ADDRESSABLE DEVICE]

2.7 [SMOKE SENSORS (DETECTORS):

A. Smoke sensors shall be Fike No. 63-021 or an approved equal base-mounted analog photoelectric smoke sensors. All sensors shall be of the photoelectric type and each sensor shall be individually addressable. Each sensor shall measure the percentage of obscuration due to airborne particles and report an analog value based on the percentage of obscuration to the control panel. Alarm thresholds shall be established at the control panel. Smoke sensors which make the alarm/normal decision internally will not be acceptable.

B. The Fike Analog Photoelectric Smoke Sensor shall been designed with a unique chamber, enabling the sensor to be sensitive to a wider range of hazards than traditional photoelectric sensors. In addition to the better response to different hazard types, the sensor shall provide a dual point calilbration. Important operating parameters are maintained within the sensor using non-volatile RAM, increasing reliability and reducing chances of false alarm. The interrupt driven digital protocol combines maximum communication reliability with fast response to emergency conditions.

C. Sensors shall be EMI, RFI and ESD-protected].

[OR]

[VERIFIED DETECTION] 2.8 [SMOKE DETECTORS (PHOTOELECTRIC):

A. Smoke detectors shall be Fike No. 63-024 or an approved equal base mounted photoelectric

smoke detectors. Detectors shall utilize solid state circuitry, a pulsed infrared LED light source and a silicon photo diode receiving element. In normal conditions, the photo diode shall not sense any light from the LED source. When smoke particles enter the sensing chamber, the light source shall be reflected to the sensing element. Comparator circuitry shall be provided to discriminate between a valid "smoke" source and an intermittant "non- smoke" source. The entrance to the sensing chamber shall be surrounded by a fine stainless




steel mesh to minimize entry of foreign material into the sensing chamber. Detectors shall be dewproof and uninfluenced by high air velocities.

B. Each detector shall utilize a standard base interchangeable, without modifications with ionization or thermal detectors. The detector head shall be equipped with a LED which blinks while the detector is in normal standby and lights steadily upon the detector sensing an alarm condition. The detector shall have the ability to power a remote annunciator which shall duplicate the alarm LED during an alarm condition.

C. The detector head shall be removable from its base from cleaning, service or replacement. The detector shall be capable of having its calibration checked or adjusted in the field via a standard detector sensitivity monitor. The detector may have its sensitivity tested either in place as it is exposed to the environment or in a calibrated smoke chamber to give a reading of sensitivity which can be referenced against other like detectors under know conditions. Detector shall be Factory Mutual approved and UL-listed to UL Standard 268.

[SELECT FOR ADDRESSABLE SYSTEM ONLY]

2.9 [ADDRESSABLE CONTACT MONITORING MODULES:

A. Modules shall be Fike No. 55-019 or approved equal addressable contact modules. Modules

shall supervise any normally open contact configuration. This module shall provide an output signal (with one poll of the device) to the Control Unit which contains all the present status of the addressable device. The output signals shall distinguish between three circuit conditions; normal (open contact), short circuit (closed contact), and open circuit (field wire break). The device shall incorporate a monitoring LED which blinks with each activation of the address location. A seven bit dip switch shall be provided for individually assigning address locations to each device.]

2.10 HORN/STROBE UNITS:

A. Horn/Strobe assemblies shall be Fike No. PYU-MMT-S17 or an approved equal low power dc horn

and high-intensity Xenon strobe visual signal. The strobe lens shall be white with "CLEAN AGENT" printed in red. Printing shall be oriented to suit the direction of installation. The horn shall be capable of dual-tone operation to indicate both pre-alarm and discharge alarm conditions.

2.11 ALARM/TROUBLE CHIME:

A. Alarm chimes shall be Fike or an approved equal low power, 24 volts dc alarm chime.

2.12 DISCHARGE STROBES:

A. Discharge strobes shall be Fike No. PYU-S17 or an approved equal high-intensity Xenon strobe

visual signal. The strobe lens shall be white with " CLEAN AGENT " printed in red. Printing shall e oriented to suit the direction installation.

2.13 MANUAL DISCHARGE STATIONS:

A. Manual DISCHARGE stations shall be Fike No. MS.2H or equal red aluminum stations permanently

labeled "FIRE" and " CLEAN AGENT DISCHARGE". 2.14 ABORT STATIONS:

A. Exit abort stations shall be Fike No. 10-1639 or approved equal momentary contact yellow

pushbutton. Abort stations shall be permanently labeled " CLEAN AGENT DISCHARGE ABORT". 2.15 DIGITAL ABORT STATIONS:




A. Digital abort stations shall be Fike No. 20-040 or an approved equal combination momentary contact yellow pushbutton and digital readout indicating the number of seconds remaining until Clean Agent discharge. Abort stations shall be permanently labeled " CLEAN AGENT DISCHARGE ABORT".

2.16 CLEAN AGENT

A. General: The fire suppression agent shall be a clean, dry, non-corrosive, non-damaging, non-

deteriorating gas meeting the requirements of NFPA. The agent shall be suitable for use in normally occupied spaces.

B. Storage: The agent shall be stored in a container super pressurized with nitrogen to a maximum working pressure of 360 psia. Higher pressure agents are not acceptable.

C. Characteristics: The agent shall be listed as acceptable on the EPA’s SNAP List. The agent shall also have the following characteristics:

1. Ozone Depletion Potential of Zero (0).

2. Atmospheric Lifetime of less than 50 years.

3. LC50 > 800,000 ppm

2.17 CLEAN AGENT STORAGE CONTAINERS:

A. General: A common bank of properly sized Fike or an approved equal modular design Clean Agent containers sized to the largest single hazard containing sufficient agent to produce the required concentration of Clean Agent shall be supplied. The containers shall have the capability of being charged to various weights, in one pound increments, so that excessive agent supply is avoided.

B. Nameplate: Each container shall have a permanent nameplate indicating the manufacturer’s name and part number, agent fill weight and total charged weight.

C. Charging Pressure: Container charging pressure shall be a maximum of 360 psig.

D. Pressure Gauges: Each container shall be equipped with a pressure gauge to visually display internal pressure. Each gauge shall be color coded for fast reference of pressure readings. Pressure gauges shall be supplied as an integral part of each container.

E. Discharge Releasing Valve: The discharge valves shall be a straight through, vertical discharge type with no direction changes to provide maximum discharge efficiency and safety. The discharge releasing valve shall consist of a fast acting, scored, non-fragmenting rupture membrane which will burst when the pyrotechnic initiator is activated via an electris signal from the fire suppression panel. Solenoid actuated releasing mechanisms are not acceptable.

F. Actuator: Release of the agent shall be accomplished via Fike Model 10-1832 of an approved equal electrically activated pyrotechnic release initiators. Systems using multiple storage containers shall have all initiators wired in parallel.

G. Discharge Time: The containers and discharge valve shall be capable of releasing the agent as quickly as possible and full discharge time shall not exceed ten (10) seconds.

H. Low Pressure Switch: Each agent storage container shall be equipped with a low pressure switch to indicate a loss of container pressure. A decrease in pressure from 360 psig to 275 psig shall cause a normally closed contact in the pressure switch to open, indicating a trouble condition at the fire suppression panel.

I. Liquid Level Indicators: Each agent storage container with 100 pounds or more of agent shall be equipped with a Fike Model 10-xxx or an approved equal liquid level indicator to accurately indicate the amount of agent in the container.

J. [Check Valves: All systems connected with a reserve supply shall be piped with check valves. Check valves shall be constructed of steel and shall be designed for a 750 psig working pressure.]




K. Accessories: The containers are to stand in a normal upright position with suitable rackingequipment, including an integral weigh-bar, low pressure switch, and liquid level indicator. Allcontainers are to be of the same size and connected together by means of a common manifold sizedto ensure the design discharge rate.

2.18 CLEAN AGENT NOZZLES

A. Nozzles: Provide Clean Agent nozzles in proper sizes and quantities to distribute evenly the CleanAgent discharge. Each nozzle shall be capable of either 180 or 360 degree direction of coverageparallel to the floor and ceiling.. Nozzles shall be Fike 80 Series or an approved equal and shall beavailable in 1”, 1-1/2”, and 2” NPT sizes. Nozzles shall include provisions for mounting deflectorplates. All nozzles shall be made of aluminum.

B. Deflector Plates: Ceiling deflector plates shall be provided at all ceiling nozzles to allow dischargewithout damage to ceiling tiles and to eliminate the need to clip lay-in ceiling tiles to the grid.Deflector plates shall be constructed or corrosion resistant stainless steel and shall be Fike Model80-xxx or an approved equal. Deflector Plates shall be compatible with the nozzle which the areinstalled with.


A. General: Provide a suitable piping system to convey the Clean Agent from the cylinder battery tonozzles in the protected area.

B. Materials: All pipe and fittings are to be hot-dipped galvanized and scale-free steel. The followingspecifications shall apply for a 360 psi system:

1. Pipe: Galvanized, Schedule 40 screwed steel pipe, ASTM 53.

2. Fittings: Galvanized, screwed malleable iron, 620 psi minimum working pressure, ASTM 197.

2.20 SYSTEM WIRING:

A. The equipment supplier shall furnish to the installing contractor a complete detailed point-to-pointwiring diagram showing the system equipment and required number, type and sizes of conductorsand conduit sizes. Where common devices which break the alarm circuit are installed on a commonzone with shorting type device, the circuit breaking devices shall be wired electrically downstream ofthe shorting type devices.

B. All alarm system wiring shall be installed in an approved raceway.

C. All alarm wiring shall be multiconductor, UL-listed FLP for limited energy (300 volt) and fire alarmapplications, and NEC approved fire alarm cable. Wiring shall be installed in accordance with NEC,local codes, Article 210 of NFPA Standard 72, and manufacturer's recommendations. All wiring shallbe copper and installed in conduit sized in accordance with the National Electrical Codes.

D. Alarm system wiring shall be color coded.

E. All alarm system junction boxes including covers, shall be secured, painted red and marked in blacklettering. The black lettering shall indicate the circuit number and function of each circuit containedwithin the box.

F. Wire size shall be determined by calculated voltage drop and circuit loading. Minimum wire sizeshall be as follows:

1. #18 AWG twisted and shielded for data and communications circuits.

2. #18 AWG for non-data and communications initiating and low voltage auxiliary control circuits.

3. #16 AWG twisted for alarm circuits.

4. #12 AWG for all EPO and air conditioning interface control circuits.




G. All wiring for intelligent/addressable circuits shall be of the twisted/shielded type to guard againstoutside RF interference and induced noise.

PART 3 - EXECUTION

3.1 INSPECTION:

A. Installer shall examine the areas and conditions under which the fire suppression system is to beinstalled and notify the Contractor in writing of conditions detrimental to the proper and timelycompletion of the work. Do not proceed until unsatisfactory conditions have been corrected.

B. Where the project requires releasing of a clean agent system, the room or area in which thesuppression system is located shall utilize two separate smoke detectors or activation of a manualrelease station to activate the suppression system.

3.2 ALARM SYSTEM INSTALLATION:

A. General: Install system components and materials in accordance with manufacturer's instructions,roughing-in drawings and details. Install electrical work and use electrical products complying withthe requirements of the applicable Division 26 sections of these Specifications. Mount manualstations and alarm devices at heights specified in Section 23 03 00 and Section 26 05 01. Heights inraised floor areas shall be from the finished raised floor. Install alarm output devices on walls or asshown on the Drawings.

B. W iring: All wiring shall be in accordance with NFPA 70, the National Electrical Code, and localcodes. All wiring sizes shall conform to recommendations of the equipment manufacturer, and asindicated on the engineered shop drawings.

1. Install alarm system line voltage and low-voltage wiring in a suitable raceway. Conceal alarmsystem conduit except in mechanical rooms and areas where other conduit and piping areexposed. Fasten flexible conductors, which bridge cabinets and doors, neatly along hinge sideand protect against abrasion. Tie and support the conductors neatly.

2. All wiring shall be run in a supervised fashion (i.e. no branch wiring or dog-legged wiring) perNFPA requirements such that any wiring disarrangement will initiate the appropriate troublesignals via the main control panel per NFPA and UL requirements. Intelligent loops may be T-tapped/branch wired due to inherent dynamic supervision.

3. Wiring splices shall be kept to a minimum with required splices to be made in designated terminalboxes or at field device junction boxes. Transposing or color code changes of wiring will not bepermitted. End-of-line supervisory devices shall be installed with the last device on the respectivecircuit. Said device shall be appropriately marked designating it as the terminating device on therespective circuit.

4. No ac wiring or any other wiring shall be run in the same conduit as alarm wiring.

5. Number code and color code conductors appropriately and permanently for future identificationand servicing of the system.

C. Conduit/Raceway: All wire shall be installed in an approved conduit/raceway system. Maximumconduit "fill" shall not exceed 40% per NEC.

1. Conduit and raceway system shall be 1/2installed as specified other Sections of theSpecifications.

2. Minimum conduit size shall be 1/2"- ¾”EMT. Install conduit per engineered shop drawings.

D. Labeling: All system controls, indicators and other devices shall be labeled with names, designationsand operating instructions as applicable. Labels shall be either engraved nameplates or coveredprinted labels and shall be approved by the Architect/Engineer.




E. Checkout: Check wiring to ensure that wiring is in accordance with the system manufacturer's wiringdiagrams and that the system is free of open circuits, short circuits, and grounds.

3.3 PIPING INSTALLATION:

A. General: Install all Clean Agent piping in accordance with NFPA 2001 and other applicable Division15 sections. All Clean Agent discharge piping shall be concealed to the maximum extent possible.

B. Testing: All Clean Agent piping in accordance with NFPA 1002.

3.4 COORDINATION:

A. It shall be the responsibility of the installing contractor to coordinate all requirements surroundinginstallation of the fire suppression system with all trades. Adequate coordination shall be provided toensure proper installation and interface to all peripheral items required to interact with the fire alarmto provide a complete and functional system.

B. The installing contractor shall be fully responsible for coordinating all system and device messagesand system operation with the [Owner's] [Tenant's] Representatives and Operating Personnel.

3.5 SYSTEM CHECKOUT AND TEST:

A. A System checkout and test shall be performed to demonstrate and confirm to the Engineer,[Owner's] [Tenant's] representative and the UH Fire Marshal’s Office, that the fire suppressionsystem is 100% operational upon completion of the installation, and that it complies with all local coderequirements and these specifications. It is intended that the System Checkout and Test be followedby a continuing program of inspection testing and maintenance. The Contractor shall provide to the[Owner] [Tenant] a Maintenance, Inspection and Quarterly testing Contract upon completion andsystem checkout.

B. The system checkout and test shall be performed after the fire suppression system installation iscompleted and before project acceptance. The System Checkout and Test shall be performed by aminimum of two licensed fire suppression system technicians, one of which is licensed by the Stateof Texas, and acceptable to the Engineer and the UH Fire Marshal’s Office. Testing shall verify thatthe entire fire suppression system functions as intended. All circuits and devices shall be tested andthe entire fire suppression system functions as intended. All circuits and devices shall be tested andthe testing shall include all functions and features except that a Clean Agent discharge test shall notbe performed.

C. This Contractor shall coordinate the test schedule with all necessary parties and subcontractorsrequired to be present for a complete and functional test.

D. The System Checkout and Test which is a comprehensive 100% inspection and test of all new firealarm system equipment and shall include, but not be limited to the following:

1. Fire Alarm Control Equipment:

a. A visual and functional test of all fire alarm control and auxiliary control equipment.

b. A visual inspection shall be conducted to establish that all electrical connections andequipment as required are properly installed and operating.

c. A remote functional simulation test shall be conducted on all relevant field wiring terminationsto ensure that all wiring is properly supervised as required.

d. All indicators shall be tested to ensure proper function and operation.

e. All system auxiliary functions including, but not limited to, power shutdown, HVAC systemshutdown, damper control and similar functions and shall be functionally tested to verifyproper operation.

f. Control panel supervisory and alarm current readings shall be taken to verify that the controlpanel has the appropriate power supplies and standby batteries to operate the system as




required. A 3 minute general alarm stress test both under ac power and standby power shall be conducted to further ensure complete operation of the system.

2. Annunciators: All annunciators shall be tested to ensure that each point activates properly andlabeling correctly defines the device in alarm.

3. Fire Alarm Peripheral Devices: All fire alarm peripheral devices shall be functionally tested andthe location and testing information recorded for each device.

4. Initiating Devices (Manual and Automatic):

a. All manual and automatic initiating devices shall be inspected to ensure proper placement andmounting as recommended by the manufacturer and as indicated in these specifications.

b. All manual fire alarm stations and all automatic initiating devices (smoke detectors) shall befunctionally tested for alarm operation.

c. All initiating devices shall be functionally tested for proper wiring supervision. Failure of anytested device on any zone shall require that all devices in that zone shall be tested forsupervision.

5. Alarm Signaling Devices:

a. All visual alarm and discharge indicators shall be functionally tested to ensure properoperation and that they are clearly visible.

b. Alarm signaling devices shall be field-checked and tested for proper operation and output.

c. Decibel reading shall be taken to ensure that the alarm signal level can be clearly heard in allareas of the facility, if required by the authority having jurisdiction. Additional devices may berequired to provide adequate sound penetration (or as required by the local authority havingjurisdiction). Contractor shall provide a unit price for such devices should they be required.

d. All alarm signaling devices shall be functionally tested for proper wiring supervision.

6. Clean Agent Control:

a. All Clean Agent discharge and monitoring functions shall be 100% tested, without CleanAgent discharge.

b. Functions tested shall include, but not be limited to, automatic discharge, manual discharge,abort, power and equipment shutdown, and storage container pressure.

7. Enclosure Integrity Testing:

a. Integrity of the room enclosure shall be verified using door-mounted pressurization fans anda smoke pencil in accordance with NFPA 2001.

b. All leaks in the enclosure shall be sealed to the maximum extent possible by the GeneralContractor. Leaks which cannot be sealed shall be compensated for in the Clean Agentquantity.

8. Pipe Testing: A "puff" test using compressed air or carbon dioxide shall be performed inaccordance with NFPA 2001 to check for continuous and obstruction free piping.

9. Reporting:

a. Upon completion of the 100% System Checkout and Test, four copies of the final report shallbe documented, certified, and sent to the Engineer for distribution to the Owner or authorizedOwner's representative indicating that all fire suppression equipment has been tested and is100% operational.

b. The final report shall be generated by the equipment manufacturers headquarters orauthorized representative to ensure integrity and uniformity of all testing procedures and




reporting. The report shall contain the testing information, stating the precise location and operational status of each and every peripheral device.

c. The 100% System Checkout and Test shall be performed by factory-trained representatives,and one of the individuals shall possess a state license for fire suppression system installationsupervision.

3.6 TRAINING:

A. Prior to final acceptance, the Contractor shall provide operation training to [Owner's] [Tenant's]personnel. Each training session shall include emergency procedures, abort functions, systemcontrol panel operation, trouble procedures, and safety requirements. Each session shall include acomplete demonstration of the system with the exception of an actual Clean Agent discharge andshall demonstrate all control functions. Dates and times of the training period shall be coordinatedthrough the [Owner] [Tenant].

B. The installing Contractor shall provide training on system operation, alarms, and functions for allpersonnel who work within the projected area.

3.7 AS-BUILT/RECORD DRAWINGS

A. Two sets of operating manuals and as-built drawings shall be provided by the Contractor. the as-built drawings shall include a reproducible drawing and two copies of each as-built drawing. Thedrawings and manuals shall be used in the training sessions. At this time, manuals describing thesystem equipment, as-built wiring diagrams, system keys, and certification of a 100% system auditwill be delivered to the [Owner] [Tenant].

B. Refer to Section 23 01 00 for additional As-Built/Record Drawings requirements.

3.8 WARRANTY:

A. The fire suppression system shall be warranted against defects in workmanship and materials, undernormal use and service, for a period of 5 years from the date of acceptance by the [Owner][Tenant]. Any equipment shown to be defective shall be repaired, replaced, or adjusted free ofcharge.

3.9 CLEAN AGENT FIRE SUPPRESSION SYSTEM INSPECTIONS:

A. The Contractor shall provide two inspections of each system installed under his contract during thefirst year of the warranty period. The inspections shall be at 6 month intervals after systemacceptance. Inspections shall include determination of agent container weight and pressure, andthat the system is in proper working order. Inspection shall also include a complete checkout of thecontrol, detection, and alarm system. Documents certifying satisfactory system conditions shall besubmitted to the [Owner's] [Tenant's] technical representative upon completion of each inspection.

3.10 SPARE PARTS:

A. Upon completion of the project, the fire suppression system manufacturer shall provide a letter to theOwner stating that spare parts for this system will be made available for a period of 10 years fromdate of acceptance.

3.11 WARNING AND EQUIPMENT INSTRUCTION PLATES:

A. Contractor shall provide engraved instruction plates detailing emergency procedures at each manualdischarge station, abort switch, and control panel/annunciator location. Permanent nameplates shallbe used in the control panel to identify control logic units, contacts and major circuits. Permanentnameplates shall be provided on the control panel and graphic annunciator to identify all indicatorsand control switches.

B. Contractor shall provide warning signs, matching the lease space graphic standards, outside eachentrance to the Clean Agent protected area.




SAPPHIRE™ Clean-Agent Fire Suppression System 21 22 13 – 1

SECTION 21 22 13 - SAPPHIRE™ CLEAN-AGENT FIRE SUPPRESSION SYSTEM

PART 1 – GENERAL

1.1 RELATED DOCUMENTS

A. The Conditions of the Contract and applicable requirements of Divisions 0 and 1 and this Section govern the work of this Division.

1.2 SECTION INCLUDES

A. Sapphire Clean Agent Fire Suppression System using 3M NOVEC 1230 Fire Protection Fluid

with Ansul Detection / Release System.

B. This specification outlines the requirements for a "Total Flood" Clean Agent Fire Suppression System with automatic detection and control. The work described in this specification includes all engineering, labor, materials, equipment and service necessary, and required, to complete and test the suppression system.

1.3 RELATED SECTIONS

A. Section 23 03 00 – Basic Mechanical Requirements.

B. Section 23 03 00 – Sleeves, Flashings, Supports and Anchors.

C. Section 23 03 00 – Mechanical Identification.

1.4 STANDARDS AND CODES

A. The design, equipment, installation, testing and maintenance of the Clean Agent Suppression

System shall be in accordance with the applicable requirements set forth in the latest edition of the following codes and standards: 1. National Fire Protection Association (NFPA) Standards: 2. NFPA 17 Standard for Dry Chemical Extinguishing Systems 3. NFPA 17A Standard for Wet Chemical Extinguishing Systems 4. NFPA 2001 Standard on Clean Agent Fire Extinguishing Systems 5. NFPA 70 National Electric Code 6. NFPA 72 National Fire Alarm and Signaling Code 7. Factory Mutual Systems (FM) Publications 8. Factory Mutual Approval Guide 9. Underwriters Laboratories, Inc. (UL) Publication 10. Fire Protection Equipment Directory with quarterly supplements 11. National Electrical Manufacturers Association (NEMA) Publication 12. Enclosures for Industrial Controls and Systems 13. U.S. Environmental Protection Agency, Protection of Stratospheric Ozone 59 FR 13044

(SNAP) 14. Requirements of the UH Fire Marshal, State and Local codes in force at time of award of

contract

B. The standards listed, as well as all other applicable codes, standards, and good engineering practices, shall be used as “minimum" design standards.

C. Must meet UH Fire Marshal requirements, the authority having jurisdiction.

1.5 REQUIREMENTS




A. The Suppression System installation shall be made in accordance with the drawings,

specifications, and applicable standards. Should a conflict occur between the drawings and specifications, the specifications shall prevail.

1.6 EXCLUSIONS

A. The work listed below shall be provided by others, or under other sections of this specification:

1. 120 VAC power supply to the system control panel 2. Interlock wiring and conduit for shutdown of HVAC, dampers and/or electric power

supplies, relays or shunt trip breakers

1.7 QUALITY ASSURANCE

A. MANUFACTURER 1. The manufacturer of the suppression system hardware and detection components shall be

ISO 9001 registered. 2. The name of the manufacturer shall appear on all major components. 3. All devices, components, and equipment shall be the products of the same manufacturer,

or supplied by the same manufacturer. 4. All devices, components, and equipment shall be new, standard products of the

manufacturer's latest design and suitable to perform the functions intended. 5. All devices and equipment shall be UL listed and/or FM approved. 6. Locks for all cabinets shall be keyed alike.

B. INSTALLER

1. The installing contractor shall be trained by the supplier to design, install, test, and maintain fire suppression systems.

2. The installing contractor shall employ a NICET certified special hazard designer, Level II or above, who will be responsible for this project.

3. The installing contractor shall be an experienced firm regularly engaged in the installation of automatic clean agent, or similar, fire suppression systems, in strict accordance with all applicable codes and standards.

4. The installing contractor must have a minimum of five (5) years experience in the design, installation, and testing, of clean agent, or similar fire suppression systems. A list of systems of a similar nature and scope shall be provided on request.

5. The installing contractor shall show evidence that his company carries a minimum $2,000,000.00 liability and completed operations insurance policy. These limits shall supersede limits required in the general conditions of the specifications.

6. The installing contractor shall maintain, or have access to, a clean agent recharging station. The installing contractor shall provide proof of his ability to recharge the largest clean agent system within 24 hours after a discharge. Include the amount of bulk agent storage available.

7. The installing contractor shall be an authorized stocking distributor of the clean agent system equipment so that immediate replacement parts are available from inventory.

8. The installing contractor shall show proof of emergency service available on a twenty-four- hour-seven day-a-week basis.

C. SUBMITTALS 1. The installing contractor shall submit the following design information and drawings for

approval prior to starting work on this project:

a) Field installation layout drawings having a scale of not less than 1/8 in. = 1 ft.- 0 in. or 1:100 detailing the location of all agent storage tanks, nozzles, pipe runs, including pipe




sizes and lengths, control panel(s), detectors, manual pull stations, abort stations, audible and visual alarms, etc.

b) Auxiliary details and information such as maintenance panels, door holders, special sealing requirements, and equipment shutdown.

c) Separate layouts, or drawings, shall be provided for each level, (i.e.; room, sub floor, and above ceiling) and for mechanical and electrical work.

d) Electrical layout drawings shall show the location of all devices and include point-to- point conduit runs and a description of the method(s) used for detector mounting.

e) Provide an internal control panel wiring diagram which shall include power supply requirements and field wiring termination points.

f) Separate drawing providing symbol legend and identifying all symbols used. g) Annunciator wiring schematics and dimensioned display panel illustration shall be

provided. (Optional device.) h) Complete hydraulic flow calculations, from a UL listed computer program, shall be

provided for all engineered clean agent systems. Calculation sheet(s) must include the manufacturer’s name and UL listing number for verification. The individual sections of pipe and each fitting to be used, as shown on the isometrics, must be identified and included in the calculation. Total agent discharge time must be shown and detailed by zone.

i) Provide calculations for the battery stand-by power supply, taking into consideration the power requirements of all alarms, initiating devices, and auxiliary components under full load conditions.

j) A complete sequence of operation shall be submitted detailing all alarm devices, shutdown functions, remote signaling, damper operation, time delay, and agent discharge for each zone or system.

2. Submit drawings, calculations and system component sheets for approval to the local fire

prevention agency, owner's insurance underwriter, and all other authorities having jurisdiction before starting installation. Submit approved plans to the architect/engineer for record.

PART 2 – SYSTEM REQUIREMENTS

2.1 SYSTEM DESCRIPTION AND OPERATION

A. The system shall be a Total Flood SAPPHIRE Fire Suppression System supplied by

ANSUL

B. The system shall provide a Novec 1230 minimum design concentration of 4.2% by volume for Class A hazards and a minimum of 5.85% by volume for Class B hazards in all areas and/or protected spaces, at the minimum anticipated temperature within the protected area. System design shall not exceed 10% for normally occupied spaces, adjusted for maximum space temperature anticipated, with provisions for room evacuation before agent release.

C. The system shall be complete in all ways. It shall include a mechanical and electrical

installation, all detection and control equipment, agent storage containers, Novec 1230 agent, discharge nozzles, pipe and fittings, manual release and abort stations, audible and visual alarm devices, auxiliary devices and controls, shutdowns, alarm interface, advisory signs, functional checkout and testing, training and any other operations necessary for a functional UL listed SAPPHIRE Clean Agent suppression system.

D. Provide two (2) inspections during the first year of service: Inspections shall be made at 6-

month intervals commencing when the system is first placed into normal service.




E. The general contractor shall be responsible for sealing and securing the protected spaces

against agent loss and/or leakage during the 10-minute "hold" period.

F. The system(s) shall be actuated by a combination of ionization and photoelectric detectors installed for maximum area coverage of 250 sq. ft. (23.2 m) per detector, in both the room, under floor and above ceiling protected spaces. If the airflow is one air change per minute, photoelectric detectors only shall be installed for maximum area coverage of 125 sq. ft. (11.6 m) per detector. (Ref. NFPA No. 72.)

G. Detectors shall be Cross-Zoned detection requiring two detectors to be in alarm before

release.

H. Automatic operation of each protected area shall be as follows:

1.Actuation of one (1) detector, within the system, shall: a) Illuminate the "ALARM" lamp on the control panel face. b) Energize an alarm bell. c) Transfer auxiliary contacts, which can perform auxiliary system functions such as:

Operate door holder/closures on access doors; Transmit a signal to a fire alarm system; Shutdown HVAC equipment.

d) Light an individual lamp on an optional annunciator.

2. Actuation of a 2nd detector, within the system, shall: a) Illuminate the "PRE-DISCHARGE” lamp on the control panel face. b) Energize a pre-discharge horn/strobe device. c) Shut down the HVAC system and/or close dampers. d) Start time-delay sequence (not to exceed 60 seconds). e) System abort sequence is enabled at this time. f) Light an individual lamp on an optional annunciator.

3. After completion of the time-delay sequence, the SAPPHIRE Clean Agent system shall

discharge and the following shall occur: a) Illuminate a "SYSTEM FIRED" lamp on the control panel face. b) Shutdown of all power to high-voltage equipment. c) Energize a visual indicator(s) outside the hazard in which the discharge occurred. d) Energize a "System Fired" audible device. (Optional)

4. The system shall be capable of being actuated by manual discharge devices located at

each hazard exit. Operation of a manual device shall duplicate the sequence description above except that the time delay and abort functions shall be bypassed. The manual discharge station shall be of the electrical actuation type and shall be supervised at the main control panel.

2.2 MATERIAL AND EQUIPMENT

A. GENERAL REQUIREMENTS

1. The SAPPHIRE Clean Agent system materials and equipment shall be standard products of the supplier's latest design and suitable to perform all functions intended. When one or more pieces of equipment must perform the same function(s), they shall be duplicates produced by one manufacturer.

2. All devices and equipment shall be U.L. Listed and/or FM approved.




3. Each system shall have its own supply of clean agent.

4. The system design can be modular, central storage, or a combination of both design

criteria.

5. Systems shall be designed in accordance with the manufacturer's guidelines.

6. Each supply shall be located within the hazard area, or as near as possible, to reduce the amount of pipe and fittings required to install the system.

7. The clean agent shall be stored in SAPPHIRE Clean Agent storage tanks. Tanks shall be

super-pressurized with dry nitrogen to an operating pressure of 360 psi @ 70 °F (24.8 bar at 21 °C). Tanks shall be of high-strength low alloy steel construction and conforming to NFPA 2001.

8. Tanks (master) shall be actuated by either a resettable electric actuator or by pneumatic

means from a nitrogen cartridge located in the releasing device. Explosive devices shall not be permitted.

9. Each tank shall have a pressure gauge and low pressure switch (optional) to provide visual

and electrical supervision of the container pressure. The low-pressure switch shall be wired to the control panel to provide audible and visual "Trouble" alarms in the event the container pressure drops below 290 psi (20 bar). The pressure gauge shall be color coded to provide an easy, visual indication of container pressure.

10. Tanks shall have a pressure relief provision that automatically operates before the internal

nominal pressure exceeds 730 psi (50 bar).

11. Engineered discharge nozzles shall be provided within the manufacturer's guidelines to distribute the Novec 1230 agent throughout the protected spaces. The nozzles shall be designed to provide proper agent quantity and distribution. Nozzles shall be available in 1/2 in. through 2 in. pipe sizes. Each size shall be available in 180° and 360° distribution patterns.

12. Distribution piping and fittings shall be installed in accordance with the manufacturer's

requirements, NFPA, and approved piping standards and guidelines. All distribution piping shall be installed by qualified individuals using accepted practices and quality procedures. All piping shall be adequately supported and anchored at all directional changes and nozzle locations.

a) All piping shall be reamed, blown clear and swabbed with suitable solvents to remove

burrs, mill varnish and cutting oils before assembly. b) All pipe threads shall be sealed with Teflon tape pipe sealant applied to the male thread

only.

B. AGENT

1. The fire suppression agent shall be 3M™ Novec™ 1230 Fire Protection Fluid manufactured by 3M Company, St. Paul, MN or their approved supplier.

2. Agent shall not contain any Hydrofluorocarbons (HFC).




C. CONTROL PANEL

1. The control panel shall be an AUTOPULSE releasing panel supplied by ANSUL

INCORPORATED.

2. The detection control system and its components shall be UL listed and FM approved for use as a local fire alarm system with releasing device service.

3. The control system shall perform all functions necessary to operate the system detection,

actuation, and auxiliary functions.

4. The control system shall include battery standby power to support 24 hours in standby and 5 minutes in alarm.

5. The control system shall be microprocessor based, utilizing a distributed processing

concept. A single microprocessor failure shall not impact operation of additional modules in the system.

6. The control system shall be capable of supporting Cross Zoned Detection.

7. The control system shall supply integrated 2.0 amp (minimum) power supply circuitry.

8. Each control system shall contain four (4) initiating circuits:

a) Each circuit shall be capable of Class A (Style D) or Class B (Style A) operation. b) Each circuit shall be capable of operating up to fifteen (15) approved detectors or thirty

(30) detectors per system. c) Each circuit shall be capable of monitoring contact devices configured for manual

release, manual alarm, system abort, trouble input or auxiliary (non-fire) input.

9. Each control system shall contain release circuits for activation of a fire suppression system(s): a) Each circuit shall be capable of Class B (Style Y) operation. b) Each circuit shall be rated for a minimum of 1.5 amp @ 24 VDC.

10. Each control system shall contain two (2) indicating appliance circuits for annunciation:

a) Each circuit shall be capable of Class A (Style B) or Class B (Style Y) operation. b) Each circuit shall be rated for a minimum of 1.5 amp @ 24 VDC.

11. Each control system shall provide an auxiliary power supply rated for 2 amps @ 24 VDC.

12. Each control system shall provide two (2) SPST relays: one for common alarm and one

for common trouble. Four (4) additional programmable relays can be added to each control system by adding a relay module.

D. DETECTORS

1. The detectors shall be spaced and installed in accordance with the manufacturer's specifications and the guidelines of NFPA 72.

2. The ionization detector shall be an Ansul model.

3. The photoelectric detector shall be an Ansul model.




E. MANUAL RELEASE (Electric)

1. The electric manual release shall be a dual action device which provides a means of manually

discharging the suppression system when used in conjunction with the detection system.

2. The manual release shall be an Ansul model.

3. The manual release or manual pull station shall be a dual action device requiring two distinct operations to initiate a system actuation.

4. Manual actuation shall bypass the time delay and abort functions and shall cause all

release and shutdown devices to operate in the same manner as if the system had operated automatically.

5. Manual release shall be located at each exit from the protected hazard.

F. ABORT STATION (Optional)

1. The optional abort station shall be the "Dead Man" type and shall be located next to each manual release.

2. The abort station shall be an Ansul model.

3. The abort station shall be supervised and shall indicate a trouble condition at the control

panel, if depressed, and no alarm condition exists.

4. "Locking" or "Keyed" abort stations shall not be permitted.

G. AUDIBLE and VISUAL ALARMS

1. Alarm audible and visual signal devices shall operate from the control panel.

2. The alarm bell, alarm horn, and horn strobe devices shall be an Ansul model.

3. The visual alarm unit shall be an Ansul strobe device.

4. A strobe device shall be placed outside, and above, each exit door from the protected space. Provide an advisory sign at each light location.

H. CAUTION and ADVISORY SIGNS

Signs shall be provided to comply with NFPA and the recommendations of the SAPPHIRE equipment provider.

1. Entrance sign: (1) required at each entrance to a protected space.

2. Manual discharge sign: (1) required at each manual release station.

3. Flashing light sign: (1) required at each flashing light over each exit from a protected space.




I. SYSTEM and CONTROL WIRING

1. All system wiring shall be furnished and installed by the contractor.

2. All wiring shall be installed in electrical metallic tubing (EMT), or conduit, and must be installed and kept separate from all other building wiring.

3. All system components shall be securely supported independent of the wiring. Runs of

conduit and wiring shall be straight, neatly arranged, properly supported, and installed parallel and perpendicular to walls and partitions.

4. The sizes of the conductors shall be those specified by the manufacturer. Color-coded wire

shall be used. All wires shall be tagged at all junction points and shall be free from shorts, earth connections (unless so noted on the system drawings), and crosses between conductors. Final terminations between the control panel and the system field wiring shall be made under the direct supervision of a factory-trained representative.

5. All wiring shall be installed by qualified individuals, in a neat and workmanlike manner, to

conform to the National Electrical Code, Article 725 and Article 760, except as otherwise permitted for limited energy circuits, as described in NFPA 72. Wiring installation shall meet all local, state, province, and/or country codes.

6. The complete system electrical installation and all auxiliary components shall be connected

to earth ground in accordance with the National Electrical Code.

PART 3 – TESTING AND DOCUMENTATION

3.1 SYSTEM INSPECTION AND CHECKOUT

After the system installation has been completed, the entire system shall be checked out, inspected, and functionally tested by qualified, trained personnel, in accordance with the manufacturer's recommended procedures and NFPA standards.

A. All containers and distribution piping shall be checked for proper mounting and

installation. B. All electrical wiring shall be tested for proper connection, continuity and resistance to

earth. C. The complete system shall be functionally tested, in the presence of the owner or his

representative, and all functions, including system and equipment interlocks, must be operational at least five (5) days prior to the final acceptance tests.

D. Each detector shall be tested in accordance with the manufacturer's recommended procedures and test values recorded.

E. All system and equipment interlocks, such as door release devices, audible and visual devices, equipment shutdowns, local and remote alarms, etc. shall function as required and designed.

F. Each control panel circuit shall be tested for trouble by inducing a trouble condition into the system.

3.2 TRAINING REQUIREMENTS

Prior to final acceptance, the installing contractor shall provide operational training to each shift of the owner’s personnel. Each training session shall include control panel operation, manual and (optional)




abort functions, trouble procedures, supervisory procedures, auxiliary functions and emergency procedures.

3.3 OPERATION and MAINTENANCE

Prior to final acceptance, the installing contractor shall provide four (4) complete operation and maintenance instruction manuals to the owner. All aspects of system operation and maintenance shall be detailed, including piping isometrics, wiring diagrams of all circuits, a written description of the system design, sequence of operation and drawing(s) illustrating control logic and equipment used in the system. Checklists and procedures for emergency situations, troubleshooting techniques, maintenance operations and procedures shall be included in the manual.

3.4 AS-BUILT DRAWINGS

Upon completion of each system, the installing contractor shall provide four (4) copies of system "AS- Built" drawings to the owner. The drawings shall show actual installation details including all equipment locations (ie., control panel(s), agent container(s), detectors, alarms, manual pull station(s) and abort switch(s), etc.), as well as piping and conduit routing details. Show all room or facilities modifications, including door and/or damper installations completed. One (1) copy of reproducible engineering drawings shall be provided reflecting all actual installation details.

3.5 ACCEPTANCE TEST

A. At the time "AS-Built" drawings and maintenance/operations manuals are submitted, the installing contractor shall submit a "Test Plan" describing procedures to be used to test the control system(s). The Test Plan shall include a step-by-step description of all tests to be performed and shall indicate the type and location of test apparatus to be employed. The tests shall demonstrate that the operational and installation requirements of this specification have been met. All tests shall be conducted in the presence of the UH Fire Marshal’s Office and shall not be conducted until the Test Plan has been approved.

B. The tests shall demonstrate that the entire control system functions as designed and intended. All circuits shall be tested: automatic actuation and manual actuation, HVAC and power shutdowns, audible and visual alarm devices, and manual override of abort functions. Supervision of all panel circuits, including AC power and battery power supplies, shall be tested and qualified.

C. A room pressurization test shall be conducted in each protected space to determine the presence of openings, which would affect the agent concentration levels. The test(s) shall be conducted using the Retro-Tec Corp. Door Fan system, or equivalent, with integrated computer program. All testing shall be in accordance with NFPA 2001.

D. If room pressurization testing indicates that openings exist which would result in leaks and/or loss of the extinguishing agent, the installing contractor shall be responsible for coordinating the proper sealing of the protected space(s) by the general contractor or his sub-contractor or agent. The general contractor shall be responsible for adequately sealing all protected space(s) against agent loss or leakage. The installing contractor shall inspect all work to ascertain that the protected space(s) have been adequately and properly sealed. THE SUPPRESSION SYSTEM INSTALLING CONTRACTOR SHALL BE RESPONSIBLE FOR THE SUCCESS OF THE ROOM PRESSURIZATION TESTS. If the first room pressurization test is not successful, in accordance with these specifications, the installing contractor shall direct the general contractor to determine, and correct, the cause of the test failure. The installing contractor shall conduct additional room pressurization tests, at no additional cost to the owner, until a successful test is


SAPPHIRE™ Clean-Agent Fire Suppression System AE Project Number: Revision Date: July 28, 2017

21 22 13 – 10

obtained. Copies of successful test results shall be submitted to the owner for his record. Upon acceptance by the owner, the completed system(s) shall be placed into service.

3.6 SYSTEM INSPECTIONS

A. During the one-year warranty period, the installing contractor shall provide two (2) inspections of each system installed under this contract. The first inspection shall be at the six-month interval, and the second inspection at the 12-month interval. Inspections shall be conducted in accordance with the manufacturer's guidelines and the recommendations of NFPA 2001.

B. Documents certifying satisfactory system(s) inspection shall be submitted to the owner upon completion of each inspection.

3.7 WARRANTY

All Ansul system components furnished and installed under this contract shall be warranted against defects in design, materials and workmanship for the full warranty period which is standard with the manufacturer, but in no case less than one (1) year from the date of system acceptance.




Fire Protection Pumps 21 30 00 – 1

SECTION 21 30 00

FIRE PROTECTION PUMPS

PART 1 - GENERAL




A. W ork Included: Provide pumps as specified, scheduled, and indicated. The Work shall be installed in

accordance with the Drawings and Specifications. All devices and equipment shall be listed by Underwriters' Laboratories, Inc. or Factory Mutual-approved, individually and as a system, as applicable.

B. Types: The types of fire protection pumps required for the project include, but are not limited to, the following:

1. [Horizontal electric] [and] [diesel driven] fire pump systems.

2. Jockey pumps. 1.3 QUALITY ASSURANCE:

A. Manufacturers: Provide products complying with these specifications and produced by one of the

following:

1. Pumps:

a. Allis-Chalmers Corporation.

b. Armstrong Pumps, Inc.

c. Aurora Pump Company.

d. Bell and Gossett, ITT Division.

e. Burks.

f. Fairbanks-Morse.

g. Ingersol-Rand.

h. PACO Pumps.

i. Patterson.

j. Peerless.

k. Taco, Inc.

l. Weil Pump Company.

m. Weinman.

n. Worthington Pump Division, Dresser Industries.

2. Fire Pump Controllers:

a. Firetrol, Inc.

b. Metron.




c. Sylvania/Clark.

B. Electrical Standards: Provide electric motors and products which have been listed and labeled by Underwriters' Laboratories, Inc. (UL) and comply with National Electrical Manufacturers' Association (NEMA) standards.

C. Certification, Pump Performance: Provide pumps whose performance, under specified conditions, is certified by the manufacturer.

1.4 SUBMITTALS:

A. Shop drawing submittals shall include, but not be limited to, the following:

1. Fire and jockey pump cut sheets with all pump capacities, UL/FM approval, pump characteristics, features and accessories clearly indicated.

2. Pump curves with selection point clearly indicated.

3. Motor data as required in Section 23 04 00, "Motors and Controllers".

4. Fire Pump Controller[/Automatic Transfer Switch] and remote annunciator cut sheets with features and options clearly indicated, wiring diagrams, nameplate text and a written system operational sequence.

5. Jockey pump controller cutsheets with features and options clearly indicated.

6. Additional information as required in Section 23 01 00. 1.5 PRODUCT DELIVERY, STORAGE AND HANDLING:

A. Deliver pumps, controllers, [automatic transfer switch,] and accessories in factory-fabricated water-

resistant wrapping.

B. Handle pumps, controllers, [automatic transfer switch,] and accessories carefully to avoid damage to material component, enclosure, and finish.

C. Store pumps, controllers, [automatic transfer switch,] and accessories in a clean, dry space and protect from the weather.

PART 2 - PRODUCTS

2.1 HORIZONTAL ELECTRIC FIRE PUMP SYSTEM

A. General: Provide a complete and operational horizontal electric fire pump system with fire pump

controller[/automatic transfer switch] as specified herein and as scheduled and as shown on the Drawings. All equipment furnished and the complete installation shall be in accordance with NFPA 20. Pump and controller[/automatic transfer switch] shall bear the UL label.

B. Fire Pump:

1. The electric driven fire pump shall be a double suction horizontal split case, centrifugal type, UL-Listed, FM-approved and in compliance with all requirements of NFPA 20. The pump shall be of bronze-fitted construction with Class 30 cast iron casing, bronze impeller, renewable bronze sleeves and bronze wear rings, packed stuffing boxes and grease lubricated ball bearings. Pump shaft shall be high strength steel. Pump shaft deflection shall not exceed 0.002" at the stuffing boxes when operating at 25% of the best operating point. Pump suction and discharge flanges shall be ANSI 250# flanges suitable for working pressures up to 250 psi. The fire pump shall be factory mounted on a fabricated steel drip-lip base and connected through a flexible coupling to an open drip-proof motor. Motor shall have a 1.15 service factor shall be sized so as to not exceed the permissible loading limits of NFPA 20 at any point on the pump performance curve. Locked rotor current shall not exceed the values specified in NFPA 20. Each motor shall be of such capacity that at rated voltage under any pump operating condition,




the full load ampere rating shall not be exceeded except as permitted by the service factor stamped on the motor nameplate. Motors shall be compatible with the specified motor controller. Motor electrical characteristics and capacity shall be as scheduled and shown on the Drawings. Refer to Section 23 04 00 for additional motor requirements.

2. The fire pump shall have capacities as scheduled on the drawings and shall have a maximum shutoff head not to exceed 120% of design and shall be capable of pumping a minimum of 150% of rated capacity at 65% of rated pressure. [Pump shall deliver the scheduled capacity at a suction condition of zero psi.]

3. Pump shall be hydrostatically tested at 1.5 times the maximum working pressure but in no case less than 250 psig.

C. Accessories:

1. Provide pump accessories per NFPA 20, including, but not limited to:

a. 1/2" automatic air release.

b. 3/4" minimum casing overheat relief.

c. Casing relief solenoid valve.

d. 3-1/2" dial compound suction pressure gauge.

e. 3-1/2" dial discharge pressure gauge.

f. Eccentric tapered suction reducer.

g. Concentric tapered discharge increaser.

h. Base-mounted coupling guard.

i. Splash shield. [VERIFY INSURANCE REQUIREMENT]

j. [Test header with 2-1/2" valves with caps and chains; test header valve quantity shall

be per NFPA 20]. [Pump test flow measuring device in a bypass routed back to the house tank.]

2. Fire pump accessories shall be approved for domestic water use.

D. Factory Testing: The fire pump shall be factory tested and certified in accordance with NFPA 20. Certified performance test results and curves shall be delivered to the Engineer for review prior to final fire pump acceptance.

E. Field Service: The pump supplier shall provide pump checkout, start-up, testing and adjusting of system components and shall perform field certification testing on the installed fire pump. The pump supplier shall also train the Owner's Engineer in the proper operation and maintenance of the fire pump system. Refer to Section 23 05 93, "Operational Test-Adjust-Balance".

F. Fire Pump Controller:

[COORDINATE WITH DIVISION 26]

1. The fire pump controller shall be UL/FM approved for automatic and manual start [and UL Labeled for service entrance]. Controller shall have a NEMA 2 [or 3R] enclosure, [22,000] [30,000] [42,000] [65,000] [100,000] [150,000] AIC circuit breaker, disconnect, [across-the- line] [wye-delta closed transition] starter, [automatic transfer switch,] pressure control, minimum run timer, pilot light, start-stop push buttons, manual operator, alarm relays, [sequence start timer,] phase reversal monitor, alarm bell and lights, fused power control transformer, and remote annunciator all as required by and in accordance with NFPA 20.




2. The fire pump controller shall be factory assembled, wired and tested [with an Automatic Transfer Switch (ATS) listed by Underwriters' Laboratories, Inc. for transfer switch and fire pump controller service,] and shall conform with NFPA 20 and NFPA 70 and be in accordance with [UL 1008 and] UL 508. Ammeter test links and voltmeter test studs shall be provided in the enclosure and a two-position pushbutton marked "START-STOP" and an emergency start handle shall be provided on the enclosure.

3. The [ATS shall be mounted in a separate enclosure factory assembled to the] fire pump controller[. The two common] enclosure[s] shall be provided with legs for floor mounting.

4. [The ATS shall include a motor rated disconnect/isolating switch capable of interrupting the motor locked rotor current. The disconnect/isolating switch shall be mechanically interlocked so that the enclosure door cannot be opened with the handle in the "ON" position except via a hidden defeater. The disconnect/isolating switch shall be padlockable in the open or closed position.] The [ATS and] Fire Pump Controller doors shall have locking handles and three point cam and roller type hardware.

5. [Refer to Section 26 36 23 "Automatic Transfer Switches", for general requirements, controls, annunciators and accessories for Transfer Switches. Generator control wiring from ATS shall be provided by Division 26.]

6. [The ATS shall have "Transfer Switch Normal", "Transfer Switch Emergency" and "Emergency Isolating Switch Off" pilot lights, "Test" and "Transfer Bypass" switches, audible alarm and "Silence Alarm" pushbutton mounted in the flange of the enclosure.]

[INCLUDE ONLY IF DUAL FIRE PUMPS ARE PROVIDED]

7. [The fire pump controller shall be equipped with a sequential start timer. Upon a signal

from the pressure controls, dry contacts shall close to start the emergency power system and the sequential start timer. After the timer delay has elapsed (field adjustable and set at 60 seconds), and the pump operating interlock from the diesel fire pump indicate that the diesel fire pump has failed to start or failed then the electric fire pump shall start. If the diesel fire pump starts, then the electric fire pump shall not be started. The generator start contact shall be a manual reset contact.]

8. Pressure control shall be provided to sense scheduled psig at pump discharge for starting pump and to maintain system pressure of 65 psig at the point in the system with the greatest head loss at design pump flow.

9. Operation of the fire pump shall be automatic from the pressure controls with [manual] [automatic minimum runtimer activated] shutoff plus provisions for manually starting and stopping the pump from the controller. [Minimum run times shall be set to operate motor when started automatically for a minimum running period of one minute for each 10 hp motor rating, but not to exceed 7 minutes.]

10. The fire pump controller shall have indicator lights for "Main Power Supply On", "Fire Pump Running", "Loss of Main Power", "Phase Reversal" and "Low Discharge Pressure" with an audible alarm with silence pushbutton. The "Loss of Main Power" alarm shall be powered from a separate emergency power branch circuit.

11. A remote annunciator panel shall be furnished and installed by this Division in the Fire Command Center and shall be wired to the fire pump controller by Division 26. The remote annunciator shall be flush mounted and shall have a audible alarm with silence pushbutton and indicator lights for "Fire Pump Running", "Loss of Main Power", "Phase Reversal", ["Emergency Isolation Switch Off"] and "Low Discharge Pressure". [The remote alarms shall also have alarm output contacts for monitoring of fire pump trouble and run alarms by the Fire Alarm System specified under Division 28] [and the Building Control and Automation System specified [in Section 23 06 00, "Building Controls",] [under Division 23].




12. All fire pump controller[, ATS] and remote annunciator control switches and indicators shall have engraved identifying nameplates.

[COORDINATE WITH DIVISION 16]

13. [The fire pump controller/ATS shall also have the following control functions in addition to

those specified in Section 26 36 23:]

a. [Provide an interlock between the fire pump controller and ATS that will when the fire pump is running, inhibit the automatic transfer switch from "TRANSFERRING-TO- NORMAL" power source as long as the fire pump is operating on the "EMERGENCY" source. Interlock control wiring from the Fire Pump Controller to the Fire Pump Automatic Transfer Switch shall be factory-installed.]

b. [Provide a timed contact (adjustable 0 - 30 seconds) that will inhibit all elevators operating on the "EMERGENCY" power source until after the pump has started. Interlock control wiring from the Fire Pump Controller to each elevator controller to be provided and installed by Division 26.]

2.2 DIESEL DRIVEN FIRE PUMPS:

A. General: Provide a complete and operational horizontal diesel driven fire pump system with fire pump

controller, as specified herein and as scheduled and as shown on the Drawings. All equipment furnished and the complete installation shall be in accordance with NFPA 20. Pump and controller shall bear the UL label.

B. Fire Pump:

1. The diesel driven fire pump shall be a double suction, horizontal split case, centrifugal type UL-listed, FM-approved and in compliance with all requirements of NFPA 20. The pump shall be bronze-fitted construction with Class 30 cast iron casing, bronze impeller, renewable bronze sleeves and bronze wear rings, packed stuffing boxes and grease lubricated ball-bearings.

2. Pump shaft shall be high strength steel. Pump shaft defection shall not exceed 0.002" at the stuffing boxes when operating at 25% of the best operating point. Pump suction and discharge flanges shall be ANSI 250# flanges suitable for working pressures up to 250 psi. The fire pump shall be factory-mounted on a fabricated steel skid/drip lip base and connected through a flexible coupling to a diesel engine driver.

3. The fire pump shall have capacities as scheduled on the drawings and shall have a maximum shutoff head not to exceed 120% of design and shall be capable of pumping a minimum of 150% of rated capacity at 65% of rated pressure. [Pump shall deliver the scheduled capacity at a suction pressure of zero psi].

C. Diesel Driver:

1. The Diesel Engine Pump Driver shall be UL and FM-listed for fire pump service and rated for the elevation above sea level that it is installed. The engine shall be arranged for dual battery automatic starting and be complete with engine driven generator, voltage regulator and battery charger with "run" disconnect relay.

2. The engine cooling system shall consist of a factory-installed heat exchanger and circulating pump factory-piped for connection to the fire water supply and controlled by a solenoid valve.

3. Cooling water piping shall also include a pressure reducing valve with isolating hand valves, strainers valved bypass and pressure gauge. A [480 volt, 3-phase,] water jacket heater with thermostatic control shall be provided.

4. The engine instrument panel shall include ammeter, oil pressure gauge, water temperature gauge, engine speed indicator and total hour meter. Engine batteries shall consist of a dual bank




of heavy duty industrial batteries for 12 or 24 volt service and shall be complete with storage racks, cables and battery charger.

5. The diesel engine shall be furnished with a critical grade side or end inlet silencer (as shown on the Mechanical Drawings), a stainless steel flexible exhaust connector and a ventilated [roof] [wall] thimble.

6. Fuel system accessories in addition to the engine mounted components shall include a fuel strainer, check valve, stop cock, flexible connectors, fuel tank sized in accordance with NFPA 20, state and local codes, fill cap, fill and vent pipes, direct reading level gauge and low fuel level float switch.

D. Accessories:

1. Provide pump accessories per NFPA 20, including, but not be limited to:

a. Eccentric suction reducer.

b. Concentric suction reducer.

c. Main relief valve with closed-cone and discharge piped as shown on the drawings.

d. Overflow cone.

e. Discharge tee with relief valve elbow.

f. Test header with 2-1/2" valves; valve quantity shall be per NFPA 20.

g. 3-1/2" dial compound suction gauge.

h. 3-1/2" dial discharge pressure gauge.

i. 1/2" automatic air release valve.

j. 3/4" minimum thermostatic relief valve with solenoid valve.

2. Fire pump accessories shall be approved for domestic water use.

E. Factory Testing: The fire pump shall be factory tested and certified in accordance with NFPA 20. Certified performance test results and curves shall be delivered to the Architect/Engineer for review prior to final fire pump acceptance.

F. Field Service: The pump supplier shall provide pump checkout, start-up, testing and adjusting of system components and shall perform field certification testing on the installed fire pump. The pump supplier shall also train the Owner's Engineer in the proper operation and maintenance of the fire pump system.

G. Fire Pump Controller:

1. The fire pump controller shall be UL/FM-approved for automatic and manual start. Controller shall have a disconnect switch, control relays, pressure control, minimum run timer, pilot light, TEST-AUTO-OFF-MANUAL selector switch, manual start pushbuttons for each battery stop pushbutton, alarm relays, and other specified or required accessories as required by and in accordance with NFPA 20. Controller shall be installed in a NEMA 3R locking enclosure with suitable legs for floor mounting.

2. The fire pump controller be provided with a timer for automatic weekly testing, a solid state crank control and battery alternating circuit, an automatic battery failure lockout, status lights for power available from Battery 1 and Battery 2 and control switch in AUTO position, local alarm signal and lights for overcrank, low oil pressure, high water temperature, overspeed, loss of battery charger output and low fuel level, alarm output contacts for remote annunciation and automatic stop.

3. Remote annunciator panels shall be furnished and installed by this Division in the Fire Command Center and Engineers Office and shall be wired to the fire pump controller by Division 26. The remote annunciators shall be flush mounted and shall have an audible alarm with silence




pushbutton and indicator lights for "Fire Pump Running", "System Failure", "Control Switch in Manual or Off Position" and "Battery Failure". [The remote alarms shall also have alarm output contacts for monitoring of fire pump trouble and run alarms by the Fire Alarm System specified under Division 26.] [and the Building Control and Automation System specified [in Section 23 06 00, "Building Controls",] [under Division 23].]

4. The fire pump controller control switches and indicators shall have engraved identifying nameplates.

5. Fire pump controller shall be fully factory wired and tested. 2.3 JOCKEY PUMP:

A. General: Provide a complete and operational electric driven fire jockey pump and jockey pump

controller as specified herein and as scheduled and as shown on the Drawings.

B. Pump:

1. The jockey pump shall be bronze fitted, horizontal regenerative, turbine vane type with cast iron casing, bronze impeller, stainless steel shaft, mechanical seals, grease lubricated ball-bearings and a relief valve. Jockey pump capacities shall be as scheduled on the Drawings. Pumps, casings, flanges, and mechanical seals shall be rated for operation with the working pressures scheduled.

2. The jockey pump shall be mounted on a fabricated [cast iron] [steel] drip lip base and shall be [close-coupled] [flexible coupled] to an [energy efficient, high efficiency] open dripproof motor. Motor electrical characteristics and capacity shall be as scheduled or listed on the drawings. Refer to Section 23 04 00 for additional motor requirements.

C. Relief Valve: Provide the fire jockey pump with a factory-mounted bypass relief valve complete with piping. Set relief valve to relieve at a pressure of 25 psig above design total dynamic head to prevent motor overload and system damage.

D. Controller: The jockey pump controller shall contain a FVNR magnetic starter with 3-phase overload protection, fused disconnect, control power transformer, H-O-A selector switch and an adjustable mercury-in-tube pressure control all housed in a NEMA 1 enclosure with door mounted disconnect handle.

E. Field Service: The pump supplier shall provide pump checkout, start-up, testing and adjusting of system components and shall perform field certification testing on the installed jockey pump. The pump supplier shall also train the Owner's Engineer in the proper operation and maintenance of the jockey pump system. Refer to Section 23 05 93 for additional requirements.

PART 3 - EXECUTION

3.1 INSPECTION:

A. General: Installer shall examine conditions under which pumps are to be installed and notify Contractor in writing of conditions detrimental to proper and timely completion of the Work. Do not proceed with the Work until unsatisfactory conditions have been corrected in a manner acceptable to Installer.

3.2 TYPICAL INSTALLATION OF PUMPS:

A. General: Install pumps where shown, in accordance with manufacturer's written instructions and recognized industry practices to ensure that pumps comply with requirements and serve intended purposes. Comply with NEMA standards and requirements of NEC. Fire and fire jockey pumps shall be installed in accordance with NFPA 20 and the manufacturer's UL-listed installation instructions.

B. Base-mounted Pumps: Pumps shall be leveled, bolted, and grouted to pump bases. Piping shall be arranged so pump cases are not subjected to any piping forces. Contractor shall check for proper angular and concentric alignment of pumps and motors and shall get Engineer's approval of this alignment before pumps are operated.




C. Alignment: Check alignment and, where necessary, realign shafts of motors and pumps within tolerances recommended by manufacturer.

D. Housekeeping Pads/Vibration Isolation: Refer to Section 23 03 00, "Basic Materials and Methods", and Section 23 05 48, "Vibration Isolation", for applicable requirements.

E. Drain Lines: Provide a drain line (3/4" minimum) for each pump drip base to the nearest floor drain.

F. Casing Relief Valves: Provide individual casing relief drain lines from each fire pump casing relief valve [to the] [nearest floor drain] [house/break tank].

G. [Fuel Oil Tank: The diesel fire pump fuel oil tank shall be installed inside a spill containment curb sized to contain the entire contents of the tank. Fuel oil for testing and to fill the fuel tank at the time of final acceptance shall be provided by this Contractor.]

3.3 ELECTRICAL CONNECTIONS:

A. Controllers and Annunciators: Set pump controllers and annunciators in place for wiring by Division 16.

B. Grounding: Provide positive electrical pump and motor grounding in accordance with applicable requirements of the NEC.

3.4 COORDINATION:

A. General: This Contractor shall be responsible for coordinating installation requirements and provisions with the work of other Divisions and the General Contractor.

3.5 START-UP SERVICES:

A. General: The pump supplier shall provide pump checkout, start-up, testing and adjusting of system components for the pump[s]. The pump supplier shall also train the Owner's Engineer in the proper operation and maintenance of [these] [this] pump system[s].

B. Checkout: After pumps have been in operation for 90 days, the contractor shall check all seals and replace any which are defective.

3.6 TESTING:

A. General: Test and adjust all installed plumbing pumps, controllers, and annunciators to verify proper operation as specified herein and as recommended by the manufacturers. Where specified hereinabove, start-up, testing, and adjustment shall be provided by a representative of the equipment supplier.All tests shall be witnessed by the UH Fire Marshal’s Office.

B. Functional Tests: Test pumps, controllers, and annunciators to verify that all control, alarm and indicator functions operate properly and to verify that pump discharge pressures and flows are as specified.

C. Fire Pump Testing: Each fire pump shall be field flow tested by a representative of the manufacturer and certified in accordance with NFPA 20.

D. Refer to Section 23 05 93 for additional start-up, testing, and adjustment requirements.

3.7 IDENTIFICATION:

A. Refer to Section 23 03 00 for applicable painting, nameplates, and labeling requirements.


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