爀倀爀漀洀漀琀椀渀最琀栀椀猀⁜ഀ挀漀洀洀椀琀洀攀渀琀琀漀 ... · 2016....

We have a passion to protect what matters most.

PresenterPresentation NotesKey Points: Introduce who Tyco is.

Commitment for producing products and services in safe responsible mannerPromoting this commitment to all employees and contractors

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• Special Hazards • Tyco Fire Protection Services • Fire Protection System Distributors • OEM’s (select products)

Products and Market Channels

• Mechanical • Mechanical Supply Distributors

• Water • Pipe Valve & Fitting Distributors • Fire Sprinkler Contractors

• Detection • Tyco Fire Protection Services • Tyco Fire Protection Products Distributors

PresenterPresentation NotesUse this slide to explain our different product segments and how we go to market through qualified, select, trained distributors or “systems integrators” as well as select OEM’s.

Emphasize that in the Special Hazards segment, our distributors are more than just “off the shelf” providers, but are heavily engaged in hazard analysis, systems design, and service after the sale of our systems, (more on this later in the presentation). Explain the difference between TFPS distribution and independent distributors without devaluing either.

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Tyco Product Applications

Kitchen Suppression

Mechanical Grooved Foam Chambers & Dike Protection

Foam Monitors

Chemical Spill Control Products

Portable Extinguishers

Gas Suppression System

Portable Extinguishers

Hi-Expansion Foam Systems

Detection & Control

Emergency Foam Supply Wheeled Units

Automatic Sprinklers

Foam Deluge Systems

Clean Agent System

PresenterPresentation NotesUse this slide to briefly discuss TFPP’s wide range of products.

Point out that we can recommend the right solution for a hazard, rather than the only one we have to sell.

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• Carbon Dioxide - CO2 • Low & High Pressure

Engineered Systems

• Piped Dry Chemical Systems

• Clean Agents – Chemical & Inert • SAPPHIRE

• INERGEN

• FM-200

• Detection & Control Systems • Used across all products

PresenterPresentation NotesNow drill down to the ES product line. Briefly differentiate the characteristics of each and a little bit about where the are used. (CO2 primarily Industrial etc.)Begin to explain how clean agents are different from other products, such as CO2.

To give an overview of available Engineered Systems by TycoLeading into what makes an Engineered System different than pre-engineered or “off the shelf” solutions.

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• Usually Not Compliance-Driven • Focused on Asset/Process Protection • Custom Engineered for the Application • Business Protection is Primary Aim • Insurance or Loss Prevention can Influence Choices • Knowledgeable Service Providers Needed

Common Elements of Engineered Systems

PresenterPresentation NotesKey Points

Engineered Systems frequently are not mandated, but can serve as supplemental systems to those required by codes or as primary fire protection for special processes. The decision to use an engineered system is often made by the end-user or his representative after a significant business risk is identified. Engineered Systems are commonly provided for asset and/or process protection, not for structural building protection. They don’t compete with sprinklers.Each system is custom engineered for its special hazard application. An important part of this process is choosing the right type of system. This is where Tyco provides more value than the “one trick pony” who may try to force-fit the wrong solution.Biz Protection – These systems operate as business continuity insurance. Insurance savings and internal loss prevention & EHS policies can be driving influences in the buying decision. An engineered fire suppression system can be viewed as method of transferring risk of loss by investing in a safeguard.These systems require knowledgeable system integrators who can consult with business owners throughout the design process, providing the best possible solution . This is why we have a limited network of trained distributors mentioned earlier. Our distributors are trained in hazard analysis, system selection, design and installation, and, importantly, ongoing service. While these systems are frequently not mandated as mentioned before, all require adherence to installation and service standards (NFPA, FM, ISO, etc.). For these system to continue to deliver their anticipated risk transference value, they must be properly maintained.

Clean Agents

PresenterPresentation NotesWe are now going to narrow down the discussion further, and transition into defining clean agents and where and how they are used.

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• Total Flood Gaseous Agent • Enclosure required

• Safe for Occupied Areas • Environmentally Acceptable • Electrically Non-Conductive • Leaves No Residue

Defining Clean Agents

Reference: NFPA 2001 – Standard on Clean Agent Fire Extinguishing Systems

PresenterPresentation NotesKey Points:

Clean agents are defined in Chapter 3 of NFPA 2001. They are commonly used in a total flooding application to protect electronics, archives, processes, or other hazards that exhibit sensitivity to other types of agents.

Clean agents are used in a total flood application requiring an enclosure (pic.1) (Emphasize the importance of enclosure integrity and agent retention)They are safe for normally occupied areas (Dispel the “halon myth” that these agents are deadly. Don’t confuse with CO2, which is not a clean agent for this reason)They must have EPA environmental acceptance (the only reason we don’t use halon anymore)They must be electrically non-conductive and leave no residue (Watermist and Aerosols don’t meet this requirement which is why the are not clean agents)They are typically used on low heat release smoky fires, but can also be used on larger, flammable liquids fires (pic.2)

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Protection for Mission Critical Hazards & Irreplaceable Assets

PresenterPresentation NotesRestate the primary purpose for using clean agents

Clean Agent Options •Halocarbon Agents

• Halon 1301 • FM-200 • HFC-125 • Novec™ 1230 Fire

Protection Fluid

•Inert Gas Agents • INERGEN

• (Argon – CO2- Nitrogen)

• Argonite • (Argon – Nitrogen)

Suppression Method

Heat Absorption

Suppression Method Oxygen Reduction

One Common Goal Fire Suppression

PresenterPresentation NotesNFPA segments clean agents into two major categories: Halocarbon, also called chemical agents, and Inert gas agents.Refer briefly to and differentiate method of extinguishment and refer back to the Fire Tetrahedron.

Important take away here is that the two type of clean agents are distinctly different with regard to their physical and engineering characteristics, but both produce the same result and must meet the same standard of fire suppression. The choice between the two comes down to hazard-specific issues.

Explain that halocarbons are chemical produced by companies like 3M, DuPont, Waysmos, etc and are then used in listed delivery systems manufactured by companies like Tyco. The chemical companies really control the pricing and future of the agents.

Inert gases do not rely on chemical manufacturers.

• Detection & Control • Agent • Agent Storage

• Tanks & brackets • Agent delivery system

• Discharge hose, piping & nozzles

• Actuation system • Valve actuator • Actuation connection

components • Accessories

• Recharge adaptors & warning plates

Clean Agent System Components

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While the different clean agent types may suppress the fires in different manners, they share many common system components.Systems are relatively simple from a hardware perspective, but components must be carefully combined as part of an engineered package.In each case, the agent quantity and cylinder size are engineered for the hazard, and the entire contents will discharge at once. Main and reserve systems can be designed to provide back up.The detection component is integral to the effectiveness of the system, and it’s configuration is dependant on the type of hazard and independent of the type of agents used.The design software is specific to each agent type and manufacturer.The enclosure itself needs to be considered a component of the system, even though it is not “purchased” from the system provider.

Detection and Control

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The type of detection used should be matched to the hazard requirements, fuel type, fire signature, required response time, etc.

The alarm and release sequencing can be modified within limits to meet the needs of the facility with respect to cross zoning, delay timers, abort switch functionality, etc.

The type of agent being released is usually irrelevant once the control logic has determined that a discharge is required.

Releasing panels need to be listed for that use and listed as compatible with the clean agent equipment (actuator)

Be prepared to discuss:

Panel TypesDetector Types & UsesDevices & UsesActuation sequenceAccessories

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Typical Discharge Sequence

PresenterPresentation NotesKey Point:

This will illustrate how these systems overall are alerted of a fire condition and react accordinglyPoint out detector in alarmVisual/audible signalCountdown Enclosure Integrity assurance – door closures etc.Signal sent to electric actuator located on system cylinderValve opening allowing discharge of agent through piping network and nozzles into the protected hazard area

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Engineered System Clean Agent Solutions

PresenterPresentation NotesFinal Drill Down:

Transition to begin talking about our two clean agent solutions of choice INERGEN and SAPPHIREMention that we are highlighting these two agents as typical of their categories, as well as that we have chosen them to be the leading choices in their respective classes.

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Ansul INERGEN

• Developed by ANSUL in 1992

• Environmentally sustainable alternative to Halon.

• Technology invented by Dr. Christian Lambertson, inventor of SCUBA

• UL listed and FM, USCG approved

PresenterPresentation Notes

Introduced as environmentally sustainable alternative to Halon from technology invented by Dr. Christian Lambertson derived from diving and NASA research.Only agent to have undergone extensive human testing - Most clean agents undergo animal testing that is extrapolated to determine possible human effects.Other listings include VDS, ISO, LPCB, CCCF

Christian James Lambertsen (May 15, 1917 – February 11, 2011) was an American environmental medicine and diving medicine specialist who was principally responsible for developing the United States Navy frogmen's rebreathers in the early 1940s for underwater warfare. Lambertsen designed a series of rebreathers in 1940 (patent filing date: 16 Dec 1940) and in 1944 (patent issue date: 2 May 1944)[1] and first called his invention breathing apparatus. Later, after the war, he called it Laru (portmanteau for Lambertsen Amphibious Respiratory Unit) and finally, in 1952, he changed his invention's name again to SCUBA (Self Contained Underwater Breathing Apparatus).[2] The US Navy considers Lambertsen to be "the father of the Frogmen".[3][4]

http://en.wikipedia.org/wiki/Christian_J._Lambertsen

Patents1944 US 2348074 "Breathing Apparatus." for Use Under Water 1944 US 2362643 "Breathing Apparatus." for Use Under Water 1947 US 2418473 "Hood for Oxygen Therapy." 1948 US 2456130 "Breathing Apparatus." for Use Under Water 1952 US 2586670 "Selective Gas Absorber." for Breathing Apparatus 1957 US 2781043 "Oxygen Admission Valve." for Oxygen Rebreathing Apparatus 1959 US 2871854 "Breathing Apparatus." for use Under Water 1974 US 3794021 "Dual Mode Mixed Gas Breathing Apparatus." 1974 US 3851487 "Buoyant Underwater Structures." for Underwater Work and Oil Trapping 1989 US 4807706 "Breathable Fire Extinguishing Gas Mixtures."

ANSUL INERGEN


Discuss the INERGEN Composition and the fact is composed of existing atmospheric gases.Theses gases are readily available and do not rely upon a chemical manufacturer for supply.The mixture of gases results in an atmosphere in the hazard that very closely resembles the weight of ambient air, resulting in less leakage from an enclosure.

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The Role of INERGEN Agent


How INERGEN suppresses the fire by oxygen reductionMaintaining an atmosphere that is still safe for occupantsNote again that all cylinders discharge completely. Note that the “gas” shown here is for clarification only, and that in realty, there is no obscuration during an Inergen discharge due the lack of agent phase change.

15% O2 LEVEL REQUIRED FOR COMBUSTION (FIRE)

CO2 LEVEL INCREASED TO ENHANCE RESPIRATION

21%

< 1%

13.4%

2.7%

CO2 O2 NORMAL ATMOSPHERE INERGEN ATMOSPHERE

CO2 O2

Suppression Method

Class A Hazard 34.2% Design Concentration

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To show the normal atmosphere existing and then the CO2/O2 levels in an INERGEN atmosphere

Per NFPA 2001, 95% of the design concentration shown must be achieved within 60 seconds (120 now).

The oxygen level must not rise above 15% during a 10 minute “retention time” in order to prevent re-ignition of the fire. This will allow trained personnel to respond to the incident. Repeat the ability of Inergen to stay in leaky enclosures

Oxygen depletion may be a more effective method of extinguishing fires in “hot” environments, (such as a class C application in a data center), because it does not rely on heat absorption.

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0%

10%

20%

30%

40%

50%

Class A Class B Class C

Design Concentration No Effect Level

INERGEN Safe Concentration Levels

NFPA 2001 limits exposure to 5 minutes for oxygen levels Above 12%, 3 minutes between 12 and 10%, and 30 seconds between 10 and 8%


The blue shows Inergen design concentrations 34.2%, 40.7%, and 38.5% respectively. The red shows the NOAEL level or maximum allowable level for occupied areas – 53%. The results in a large factor of safety above our design concentrations.

Since toxicity is not an issue for inert gases, NFPA limits exposure based upon the design concentrations and resulting O2 levels. (Refer back to human testing done with Inergen.)

NFPA 2001 limits exposure to 5 min for O2 levels above 12%, 3 min between 12% and 10%, and 30 seconds between 10% and 8%.

Inergen® uses carbon dioxide to promote breathing characteristics intended to sustain life in the oxygen deficient environment for the protection of personnel.

References:

From NFPA 2001 3.3.22: No Observed Adverse Effect Level (NOAEL). The highest concentration at which no adverse toxicological or physiological effect has been observed.

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• Atmospheric Gas Composition Allows:

• Long Pipe Runs • Increased retention time in enclosures

with poor integrity • Zero environmental impact

• Protect multiple hazards with one system

• Fewer cylinders • Less cost

• No by-product due to high temperature exposure

• Agent will not decompose

• Breathable Mixture • No toxicity

• Very Low Agent Cost • Discharge Testing

INERGEN Properties

PresenterPresentation NotesUse this slide to detail the benefits of Inergen and to explain why you would choose it for a particular hazard;

Atmospheric Gas Composition Allows:Long Pipe Runs – If you need to locate cylinders a long way from the hazard or the hazard is very large. Gas has better flow characteristics than liquidIncreased retention time in enclosures with poor integrity – The Inergen atmosphere weighs about the same as air. It doesn’t want to leave the room.Zero environmental impact – Same gases you are breathing right now. Protect multiple hazards with one systemFewer cylinders – Cover many hazards from one bank of cylinders sized for the largest hazard.Less cost – Most other clean agents will require dedicated supplies in each hazard.No by-product due to high temperature exposureAgent will not decompose – Halocarbons decompose upon contacting high heat sources (500F-900F) and form HF acid.Breathable MixtureNo toxicity – NOAEL levels based on hypoxia, not toxicity.Very Low Agent Cost – As much as 10x less than halocarbons.Discharge testing – Best method of proving the ENTIRE system functions as designed. Fan test only proves room integrity (theoretically)

There is a summary of benefits and challenges in a couple slides if you miss anything here.

INERGEN System Functionality

Agent Cylinders

Control Panel

Pressure Reducer

Electric Actuator

Selector Valves

System Piping


Cover each major component highlighted, unique features, and their functionalitySpend the most time of this section on this slide, walking thought each point in the system and restating the benefits from the previous slide.

System Limitations:

Unbalanced systems (protecting multiple hazards) operating temperature range: 60-80F (15-27C)Unbalanced systems (protecting single hazards) operating temperature range: 32-130F (0-54C)Hazard temperature: -40-200F (-40-93C)Spare cylinder storage temperature: 0-130F (-17-54C)Minimum Design Concentration: 34.2%Maximum Design Concentration for Occupied Spaces: 52%Nozzle Linear Coverage: 32ft x 32ft (9.8m x 9.8m)Maximum nozzle height above floor level for a single row of nozzles is 20’ (6.1m). For ceiling heights over 20’ (6.1m), an additional row of nozzles is required.Nozzles to be located a maximum of 12” (305 mm) down from the ceiling, positioned vertically down.Manifolding: All cylinders on the same manifold must be the same sizeMinimum Ceiling Height: 8” (20.3 cm)Maximum length between node points in the manifold is 20’ (6.1m)Maximum length between the final node point in the manifold and the pressure reducer is 100’ (30.5m)Length from pressure reducer to first tee must be a minimum of 10 pipe diameters.Discharge time of 90% of the agent shall be more an 30 seconds after actuation of the system but not to exceed 138 seconds or as otherwise required by the AHJ¼” and 3/8” pipe is allowed in Schedule 40 only. Schedule 80 or 160 is not allowed in these pipe sizesThe maximum allowed split % of INERGEN agent through a tee is 95%:5%On a side/thru tee, the side outlet must always be the smallest of the two splits.Other than what is stated previously, there are no orientation or critical length requirements necessary for tee arrangements

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INERGEN Discharge


To illustrate an INERGEN dischargeDescribe how this shows everything you talked about on the previous slidePoint out in the final picture frame the fact of selector and check valve usage

Benefits and Challenges •Benefits

• Environmentally Benign

• Cost of Agent • Egress Safety • Life Safety • No thermal shock • Increased

Retention Time • Selector Valves • Pipe Distances

•Challenges • Footprint • Number of Cylinders • Higher Installation Cost • Pressure Relief

Critical

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PresenterPresentation NotesKey Point: This should be a review of points you have already made. Spend time on points you may have missed or want to reemphasize.

Walk them through each benefit of INERGEN and the challengesBe sure that they recognize the benefits of INERGEN far outweigh its challengesExpanded notes for each bullet:

BenefitsEnvironmentally Benign – Atmospheric gases. Zero ODP Zero GWP. More on this later in the presentation.Cost of Agent – Very low agent cost. Evergreen warranty.Egress Safety – No obscuration due to lack of vapor cloud. No condensation of water vapor that would be caused by a cold discharge.Life Safety – wide safety factor and human testing. More on this laterNo thermal shock – ADD SOME DATA HERE REGARDING TEMP CHANGE IN THE ENCLOSUREIncreased Retention Time – Resultant weight of mixed atmosphere is close to that of ambient air.Selector Valves – Allows for protection of multiple hazards from one cylinder bank. Potential large $$ savingsPipe Distances – Gas flow characteristics allow for very long piping distances. 300-500 ft possible.

ChallengesFootprint – Higher cylinder count requirement due to high pressure DOT/TC cylinders and gas vs. liquid volume. Can be remote located, however. Number of Cylinders – Results from above…Higher Installation Cost – More hardware results in higher steel costs and more labor. Can be more than offset after a discharge.Pressure Relief Critical – This is a consideration for all clean agents, but inert gases displace far more air than halocarbons.

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• ANSUL Clean Agent “SAPPHIRE” System introduced in 2004.

• Environmentally sustainable alternative to HFC Halocarbon Agents.

• Uses NOVEC 1230™ Fire Protection Fluid

• Developed in 3M Corporation’s “Performance Chemical” lab.

• UL listed and FM, USCG approved

ANSUL SAPPHIRE C6 Fluoroketone FK-5-1-12

PresenterPresentation NotesThe SAPPHIRE™ automatic, fixed nozzle, fire suppression system is manufactured by Ansul and uses 3M™ NOVEC™ 1230 fire protection fluid for total flooding applications such as computer rooms and telecommunication facilities. It is Underwriters Laboratories (UL) and UL of Canada (ULC) listed and designed in accordance with NFPA Standard 2001: Clean-Agent Fire Extinguishing Systems. NOVEC 1230 fluid has 0.0 ozone depletion potential, an atmospheric lifetime of just five days, and a global warming potential of 1.0. The sustainable agent is approved by the U.S. EPA under SNAP (Significant New Alternatives Policy) and registered under ELINCS (European List of Notified Chemical Substances).

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The Role of the SAPPHIRE Agent


How SAPPHIRE suppresses the fire by heat absorption.

Use the Petri dish film here.)

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• Environmental Footprint • Zero ODP, Very Low GWP

• Low Toxicity

• Liquid State • Ease of transportation & Refill

• Low Design Concentrations

• Compact System Size

SAPPHIRE Properties

PresenterPresentation NotesUse this slide to detail the benefits of Inergen and to explain why you would choose it for a particular hazard;

Environmental FootprintZero ODP, Very Low GWP – 0 Ozone Depleting potential, 5 day atmospheric lifetime. This will be covered again at the end of the presentation.Low Toxicity – Much better toxicity profile than FM200 or Ecaro. Thais will be covered again at the end of the presentationLiquid StateEase of transportation & Refill – You can transport the agent in a plastic drum. Refill can be accomplished without high-pressure pumps.Low Design Concentrations - % concentrations are lower than other halocarbons, further increasing safety factors.Compact System Size – When space is a consideration, one cylinder can replace five or more Inergen cylinders.

There is a summary of benefits and challenges in a couple of slides if you miss anything here.

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Environmental Impact

010203040506070

0 0.014

36.5 32.6

65

Atmospheric Lifetime (Yrs)

01000200030004000500060007000

0 1

2900 2800

6900

Global Warming Potential

PresenterPresentation NotesKey Points: Shows comparison of various agents on the market

ALT – SAPPHIRE 0.014 (5days), INERGEN – NULLGWP – SAPPHIRE = 1, INERGEN – ZeroRemind people how global warming is in the news. Discuss as much current legislation as comfortable with. AB-32, etc. HFC’s are under particular pressure globally due their atmospheric lifetimes

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-2.0%

0.0%

2.0%

4.0%

6.0%

8.0%

10.0%

SAPPHIRE FM-200 HFC-125

Design Concentration NOAEL Safety Margin

Halocarbon Safety Margins

NFPA 2001 limits exposure to 5 minutes for concentration levels up to the NOAEL. Times vary per agent above the NOAEL.


Draw attention to the Safety Margin of SAPPHIRE and how it compares to that of other available chemical clean agents.From NFPA 2001 3.3.22:No Observed Adverse Effect Level (NOAEL). The highest concentration at which no adverse toxicological or physiological effect has been observed.

Agent Class A MDC Class B MDC Class C MDC NOAELSapphire 4.50%5.90% 4.72% 10% HFC 227ea 6.70% 8.70% 7.83% 9% HFC 125 8.70% 11.30% 9.04% 7.50% Inergen 34.20% 40.70% 38.48% 43%

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SAPPHIRE System Functionality

Agent Cylinders

Control Panel

Electric Actuator

System Piping


Cover each major component highlighted, unique features, and their functionalitySpend time here. Explain how this could be a main and reserve system with an added actuator and switch. Explain use of check valves.

System Operating Temperature: 32-130F (0-54C)Minimum Design Concentration: Class A 4.5% Class B contact Technical Services for specific fuel design concentrationsFill Density: Maximum 75lb/ft3 (34.0 kg/m3), Minimum 31.0 lb/ft3 (41.1 kg/m3)Discharge Time: Maximum 10 seconds, Minimum 6 secondsMaximum Arrival Imbalance: 1 secondMaximum Runout Imbalance: 2 secondsMaximum Pipe Volume to Cylinder Liquid Volume: 80%Minimum Pipe Volume Ratio Before First Tee: 10%Nozzle Area Ratio: Maximum All Size Nozzles – 80% ; Min. ½” nozzle – 10%; All Other Sizes – 20%Minimum Nozzle Pressure: 73 psi (5.0 bar)Maximum nozzle height above floor level for a single row of nozzles is 14’ (4.3m). For ceiling heights over 14’ (4.3m), additional rows of nozzles may be added.Nozzles to be located a maximum of 12” (30.5 cm) down from the ceiling, positioned vertically (either up or down). Exception: Sub-floor nozzles may be positioned either vertically down from the top of the sub-floor or vertically up from the bottom of the sub-floor.Maximum Area Nozzle Coverage: 1800 ft2 (167.2 m2)Minimum Ceiling Height: 12 in. (30.5 cm)Critical Pipe Length before and after a tee split: Min. of 10 pipe diameters.

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SAPPHIRE Discharge

PresenterPresentation NotesThis clip will illustrate a SAPPHIRE system discharge.This shows what you just covered on the previous slide

Benefits and Challenges •Benefits

• Best Halocarbon Environmental Solution

• Very Low GWP • Short ALT

• Widest Halocarbon Safety Margin

• Low Toxicity • Ease of Handling • Environmental

Warranty

•Challenges • Cost of agent • Room Integrity • ~10 times heavier

than then air • ~9 times heavier than

INERGEN • Integrity Testing • Limited Pipe Runs

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Walk them through each benefit of Sapphire and the challenges;

Benefits;Best Halocarbon Environmental SolutionVery Low GWPShort ALTWidest Halocarbon Safety MarginLow ToxicityEase of Handling – Liquid allows for easy refillEnvironmental Warranty – 20 years for Ansul and 3M

Challenges;Cost of agent – Can be as much as 30% of the installed priceRoom Integrity10 times heavier than then air9 times heavier than INERGENIntegrity Testing – Discharge testing very expensive. Must rely on fan test.Limited Pipe Runs – Precludes remote location and selector valves in most cases.

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Atmospheric Lifetime 0 5 Days

Global Warming Potential 0 1

20-Year Environmental Warranty Y Y

20-Year Evergreen Discharge Warranty Y N

Single System to Protect Multiple Hazard Areas Y N

Ability to Remote Locate Y Ltd

No Obscuration of View During Discharge Y N

Enclosure Retention Capability Hi Lo

Upfront Installation for Single Hazards $$ $

Upfront Installation for Multiple Hazards $ N/A

Refill Cost $ $$

Solution Comparison

INERGEN SAPPHIRE


1. Do a wrap up of what you discussed with them already

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• Where Equipment and Personnel Viability is Key Concern • Halocarbon Agents Suppress by Heat Absorption • Inert Gases Suppress by Reduction of O2 Levels • Hazard – Specific Considerations Impact Selection • Environmental Factors are Increasing Concern

Clean Agent Summary

Protection for Mission Critical Hazards & Irreplaceable Assets

PresenterPresentation NotesFinal important takeaways on clean agents.

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• Special Hazard Product Solutions • Ansul Fire Technology Center • Marinette, WI

• Water/Mechanical Product Solutions • Fredrick Grinnell Education Center • Cranston, RI & Enschede, Netherlands

• Mobile Solutions • FireXchange • Mobile Technology Unit, United States

• R&D Centers • Asia Pacific: Shanghai, Bangalore • EMEA: Ladenburg • Americas: Marinette, Cranston

Training & Demonstration

PresenterPresentation NotesUse this slide to offer our facilities and Fire-Xchange to A&E’s and End-Users “for more information”

Any Additional Questions?

Thank you!

PresenterPresentation NotesFinal Q&A session

Slide Number 1Products and Market ChannelsTyco Product Applications Engineered SystemsCommon Elements of Engineered SystemsClean AgentsDefining Clean AgentsProtection for Mission Critical Hazards�& Irreplaceable Assets Clean Agent OptionsSlide Number 10Slide Number 11Typical Discharge SequenceEngineered System Clean Agent SolutionsAnsul INERGEN�ANSUL INERGENThe Role of INERGEN AgentSlide Number 17INERGEN Safe Concentration LevelsINERGEN PropertiesINERGEN System FunctionalityINERGEN Discharge Benefits and ChallengesANSUL SAPPHIREThe Role of the SAPPHIRE AgentSAPPHIRE PropertiesEnvironmental ImpactHalocarbon Safety MarginsSAPPHIRE System FunctionalitySAPPHIRE Discharge Benefits and ChallengesSolution ComparisonClean Agent SummaryTraining & DemonstrationSlide Number 34

爀倀爀漀洀漀琀椀渀最 琀栀椀猀⁜ഀ挀漀洀洀椀琀洀攀渀琀 琀漀 ... · 2016....

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爀倀爀漀洀漀琀椀渀最琀栀椀猀⁜ഀ挀漀洀洀椀琀洀攀渀琀琀漀 ... · 2016....