Installation Preparation – Hot Water Supply

Prepare Hot Water Supply

Hot Water Line

The line may enter from either side, rear or floor within the shaded area shown in Figure F.

The line may pass through the same hole as the electrical cable and drain hose, or cut an additional 1-1/2" diameter hole to accommodate the water line. If a power cord with plug is used, the water line must not pass through the power cord hole.

CAUTION

The hot water supply line pressure must be at least 20 PSI. Lower pressures could cause the water valve to leak and cause water damage.

PRECAUCIÓN

La línea de presión del suministro de agua caliente debe ser al menos 20 PSI. Presiones inferiores podrían causar que la válvula del agua gotee y causar daños por agua.

 

1-1/2" Dia.

4"

5" 4"

 

5"

 

Shut-off Hole

 

 

Hot

Valve

 

 

 

 

 

 

2"

 

6"

 

 

 

 

From

19" From Wall

 

Cabinet

 

Cabinet Face

Figure F

2" From Floor

Water Line Connection

Turn off the water supply.

Install a hand shut-off valve in an accessible location, such as under the sink. (Optional, but strongly recommended and may be required by local codes.)

The water connection is on the left side of the dishwasher. Install the hot water inlet line, using 3/8" or larger copper tubing. Route the line as shown in Figure F and extend forward at least 19" from rear wall.

Adjust the water heater to deliver water between

120°F and 150°F.

Flush water line to clean out debris. Use a bucket to catch water and debris.

The hot water supply line pressure must be between 20 and 120 PSI.

6

Page 6
Image 6
GE 206C1559P195 Installation Preparation Hot Water Supply, Prepare Hot Water Supply, Hot Water Line, Water Line Connection

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.

The GE 206C1559P195 also incorporates cutting-edge materials technology. Constructed with lightweight yet robust materials, the part significantly contributes to the overall weight reduction of the engine, which is vital for maximizing fuel efficiency. The use of composite materials and advanced alloys ensures that the component can withstand extreme temperatures and pressures associated with high-performance engine operation.

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.