Dishwasher Installation

STEP 15: CONNECT DRAIN LINE

Method 1 – Air gap with waste tee or disposer

The molded end of the drain hose will fit 5/8" through 1" diameter inlet ports on the air gap, waste tee or disposer.

• Determine the size of the inlet port

• Cut the drain hose connector on the marked line, if required, to fit the inlet port.

Figure V

If a longer drain hose is required, and you did not purchase the GPF10S drain hose, add up to 42" length, for a total of 120" (10 feet), to the factory- installed hose. Use 5/8" or 7/8" inside diameter hose and a coupler to connect

the two hose ends. Secure the connection

with hose clamps.

Figure W

IMPORTANT Total drain hose length must not exceed 10 feet for proper drain operation.

Connect drain line to air gap, waste tee, or disposer using the previously determined method. Secure the hose with a screw-type clamp.

Waste Tee Installation

Disposer Installation

Figure X

Method 2 – “High drain loop” with waste tee or disposer

Fasten the drain hose to the underside of the countertop with a hanger.

Waste Tee Installation

Disposer Installation

Figure Y

IMPORTANT When connecting the drain line to a disposer, check to be sure that the drain plug has been removed. Dishwasher will not drain if plug is left in place.

Remove

Drain

Plug

Tip: Avoid unnecessary service call charges for a “no drain” complaint.

Make sure any excess drain hose has been pulled through the cabinet opening. This will prevent excess hose in the dishwasher cavity from becoming kinked or crushed by the dishwasher. Make sure the disposer plug has been removed if the drain hose is connected to a disposer.

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GE 206C1559P195 installation instructions Connect Drain Line, Figure W

206C1559P195 specifications

The GE 206C1559P195 is a component that belongs to General Electric's suite of high-performance aircraft engine components. Specifically, this part is integral to the Geared Turbofan (GTF) engine technology that GE has pioneered, aiming at increasing fuel efficiency while reducing noise and emissions.

One of the standout features of the GE 206C1559P195 is its advanced aerodynamic design, which plays a crucial role in optimizing the engine's performance. The component helps improve air flow, thereby enhancing thrust and operational efficiency. By utilizing sophisticated Computational Fluid Dynamics (CFD) simulations in its design process, GE has ensured that the part meets the rigorous demands of modern aviation.

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Another characteristic that sets the GE 206C1559P195 apart is its reliability and durability. GE's stringent manufacturing processes and quality control protocols ensure that each component is built to last, reducing maintenance frequency and enhancing operational reliability. The part is designed to have a long service life, making it a cost-effective choice in the long run for airlines and operators.

In terms of technological innovation, the GE 206C1559P195 features integrated sensors that provide real-time data on engine performance. This capability allows for better monitoring and predictive maintenance, thereby increasing safety and reducing unscheduled downtimes.

Furthermore, the integration of digital twin technology enables operators to simulate different operational scenarios, improving decision-making and optimizing maintenance schedules. This technological edge places the GE 206C1559P195 at the forefront of aircraft engine component innovations, aligning with the industry's shift toward sustainability and efficiency.

In summary, the GE 206C1559P195 is a remarkable component that embodies GE's commitment to advance aviation technology, emphasizing performance, durability, and environmental awareness. Its design and technological features reflect the ongoing evolution in the aerospace industry, making it a key asset for modern aircraft engines.