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CAST IRON STOVE AND B-VENT BURNER SYSTEM INSTALLATION

Installing Gas Piping to Stove Location (Cont.)

Connecting Stove/Burner System to Gas Supply

Checking Gas Connections

CAST IRON STOVE AND B-VENT BURNER SYSTEM INSTALLATION

Continued

We recommend that you install a sediment trap/drip leg in supply line as shown in Figure 28, page 13. Locate sediment trap/drip leg where it is within reach for cleaning. Install in piping system between fuel supply and burner system. Locate sediment trap/drip leg where trapped matter is not likely to freeze. A sediment trap traps moisture and contaminants. This keeps them from going into burner system gas controls. If sediment trap/drip leg is not installed or is installed wrong, burner system may not run properly.

CONNECTING STOVE/BURNER SYSTEM TO GAS SUPPLY

Installation Items Needed

5/16" hex socket wrench or nut-driver

sealant (resistant to propane/LP gas, not provided)

1.Open lower door panel.

2.Route flexible gas line (provided by installer) from equipment shutoff valve to burner system (see Figure 29). Route flexible gas supply line and attach to valve.

3.Check all gas connections for leaks. See Checking Gas Connections, column 2.

To Flare Fitting on

Control Valve

Equipment

Shutoff Valve

Flexible Gas Line from

To Gas Supply

Equipment Shutoff Valve

Provided by Installer

(Natural)

 

To External Regulator

 

(Propane/LP)

Figure 29 - Flexible Gas Line

 

CHECKING GAS CONNECTIONS

WARNING: Test all gas piping and connections, internal and external to unit, for leaks after installing or servicing. Correct all leaks at once.

WARNING: Never use an open flame to check for a leak. Apply noncorrosive leak test solution to all gas joints. Bubbles forming show a leak. Correct all leaks at once.

Pressure Testing Gas Supply Piping System

Test Pressures In Excess Of 1/2 PSIG (3.5 kPa)

1.Disconnect appliance with its appliance main gas valve (control valve) and equipment shutoff valve from gas supply piping systems. Pressures in excess of 1/2 psig (3.5 kPa) will damage burner system gas regulator.

2.Cap off open end of gas pipe where equipment shutoff valve was connected.

3.Pressurize supply piping system by either opening propane/LP supply tank valve for propane/LP gas burner system or opening main gas valve located on or near gas meter for natural gas burner system, or using compressed air.

4.Check all joints of gas supply piping system. Apply noncorro- sive leak test solution to all gas joints. Bubbles forming show a leak. Correct all leaks at once.

5.Reconnect burner system and equipment shutoff valve to gas supply. Check reconnected fittings for leaks.

Test Pressures Equal To or Less Than 1/2 PSIG (3.5 kPa)

1.Close equipment shutoff valve (see Figure 30).

2.Pressurize supply piping system by either opening propane/LP supply tank valve for propane/LP gas burner system or opening main gas valve located on or near gas meter for natural gas burner system, or using compressed air.

3.Check all joints from propane/LP supply tank or gas meter to equip- ment shutoff valve (see Figure 31 for propane/LP or Figure 32 for natural, page 15). Apply noncorrosive leak test solution to all gas joints. Bubbles forming show a leak. Correct all leaks at once.

Open

Equipment

Shutoff Valve

Closed

Figure 30 - Equipment Shutoff Valve

For..com

112127-01A

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Desa SBVBN(D) installation manual Connecting STOVE/BURNER System to GAS Supply, Checking GAS Connections

SBVBN(D) specifications

Desa SBVBN(D) is an innovative development that stands out as a beacon of sustainable urban planning and advanced technological integration. Situated in a strategic location, it seeks to create a harmonious blend of modern living and environmental stewardship. The design ethos behind Desa SBVBN(D) revolves around minimizing the ecological footprint while maximizing community well-being.

One of the main features of Desa SBVBN(D) is its commitment to sustainable architecture. Buildings within the community are constructed using eco-friendly materials and designed to harness natural resources effectively. Solar panels are integrated into rooftops, contributing to energy self-sufficiency and significantly lowering energy costs for residents. In addition, rainwater harvesting systems and greywater recycling initiatives ensure responsible water usage, making the community resilient against water scarcity.

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In conclusion, Desa SBVBN(D) represents a forward-thinking approach to urban living, marrying sustainability with technology. With its emphasis on community, resilience, and innovation, it stands as a model for future developments aimed at enhancing the quality of life while protecting the planet for future generations.