Remove the plastic flexible cap from the water valve.

Connect the Tubing to the Refrigerator

Before making the connection to the refrigerator, be sure the refrigerator power cord is not plugged into the wall outlet.

We recommend installing a water filter if your water supply has sand or particles that could clog the screen of the refrigerator’s water valve. Install it in the water line near the refrigerator.

1

2 Place the compression nut and ferrule (sleeve) onto the end of the tubing as shown.

3 Insert the end of the copper tubing into the water valve connection as far as possible. While holding the tubing, tighten the fitting.

4 Fasten the copper tubing into the clamp provided to hold it in a vertical position. You may need to pry open the clamp.

Tubing Clamp

1/4 Copper Tubing

Ferrule (sleeve)

1/4Compression Nut

Refrigerator Connection

Turn the Water On at the Shutoff Valve

Tighten any connections that leak.

Plug In the Refrigerator

Arrange the coil of copper tubing so that it does not vibrate against the back of the refrigerator or against the wall. Push the refrigerator back to the wall.

Start the Icemaker

Set the icemaker feeler arm to the ON (down) position. The icemaker will not begin to operate until it reaches its operating temperature of 15°F (-9°C) or below. It will then begin operation automatically if the icemaker feeler arm is in the ON (down) position.

NOTE: The icemaker may double-cycle when it first starts, causing some water spillage from the icemaker into the ice bucket. This is normal and should not happen again.

Safety Information Operating Instructions Installation Instructions Troubleshooting Tips Customer Service

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GE 1825 Connect the Tubing to the Refrigerator, Turn the Water On at the Shutoff Valve, Plug In the Refrigerator

1825 specifications

The GE 1825 is a remarkable evolution in the world of gas turbine technology, produced by General Electric, a company renowned for its innovative engineering and commitment to power generation solutions. Launched as part of GE's 7FA series, the 1825 model has established itself as a pivotal asset for both industrial and utility applications.

One of the standout features of the GE 1825 is its design efficiency. Engineered to deliver a high output while ensuring low emissions, this gas turbine operates effectively in combined cycle settings, making it an ideal choice for power plants aiming to optimize their production capabilities. With a robust output capability of around 1825 megawatts, the turbine is well-suited for large-scale operations requiring reliable energy generation.

The GE 1825 employs advanced technologies to enhance its performance. The turbine incorporates sophisticated air-cooled components, which help maintain operational integrity at elevated temperatures. This design focuses on durability and longevity, minimizing the need for frequent maintenance. Moreover, the GE 1825 turbine utilizes a state-of-the-art combustion system that not only boosts its thermal efficiency but also reduces nitrogen oxide emissions, aligning with global environmental standards.

Another notable characteristic of the GE 1825 is its operational flexibility. This turbine can seamlessly adapt to various fuel sources, including natural gas, distillate oil, and other alternative fuels. Such versatility enables power plants to optimize their fuel consumption based on market conditions and availability, thus achieving better economic performance.

In terms of control technologies, the GE 1825 is equipped with advanced digital systems that facilitate real-time performance monitoring and predictive maintenance. This capability allows operators to maintain optimal performance levels while ensuring that potential issues are identified and addressed before they escalate into critical problems.

Ultimately, the GE 1825 gas turbine stands as a testament to General Electric's commitment to energy innovation, providing cutting-edge technologies, exceptional efficiency, and operational flexibility. With its high power output, reduced emissions, and advanced control systems, it plays a crucial role in the evolving landscape of power generation, meeting both economic and environmental challenges in today’s energy market.