Installation Instructions

REVERSING THE DOOR SWING (CONT.)

2REMOVE THE REFRIGERATOR DOOR

Tape the door shut with masking tape.

Remove the center hinge pin with a 7/16″ socket and ratchet.

Remove the tape and tilt the door away from the cabinet. Lift the door straight up to free its bottom socket from the pin in the bottom hinge bracket.

Set the door on a non-scratching surface, with the inside up.

CAUTION: Do not let door drop to the floor. To do so could damage the door stop.

3TRANSFER BOTTOM HINGE

BRACKET TO THE LEFT

Remove the base grille by pulling it straight out.

Using a Torx Driver, remove the bottom hinge bracket.

With a 7/16″ ratchet, remove the bottom hinge pin, along with the washer, and replace it on the other side.

NOTE: If the washer is not on the hinge bracket, check to see if it is stuck to the bottom of the door.

Washer

4TRANSFER THE SPRING AND

WHEEL ASSEMBLY TO THE LEFT

Using needle nose pliers, tightly grip the spring and unhook it from the bottom rail.

Pull the assembly out through the hole in the front rail, being careful not to drop the spring.

Reinsert the assembly on the other side. This is done by inserting the spring through the large slot in the bottom rail, so that the end loop is visible through the mounting hole for the mechanism. Hook this loop on the wheel mechanism, then mount it in place.

Bottom Rail

Spring and

Wheel Assembly

Again, tightly grip the spring with the needle nose pliers and hook it onto the bottom rail.

Using a T-20 Torx Driver, remove the stability leg from the left side and reinstall it on the other side.

Stability Leg

Install the bottom hinge bracket on the left side.

26

Page 26
Image 26
GE 49-60111, 162D9625P005 installation instructions Remove the Refrigerator Door, Transfer Bottom Hinge Bracket to the Left

162D9625P005, 49-60111 specifications

The GE 49-60111, also known as 162D9625P005, is a highly regarded component within the realm of gas turbine engines, specifically engineered for applications in industrial and aerospace sectors. This product exemplifies General Electric's commitment to advancing power generation technologies with outstanding performance, efficiency, and reliability.

One of the main features of the GE 49-60111 is its robust construction, designed to withstand high temperatures and pressures often encountered in gas turbine operations. The component plays a crucial role in enhancing the overall thermal efficiency of the engine, which is a critical factor in fuel consumption and environmental impact.

The technology behind the GE 49-60111 integrates advanced materials and manufacturing techniques. This includes the use of high-performance alloys that provide enhanced durability while minimizing weight. The component is designed to maintain structural integrity under extreme operational conditions, which is vital for sustaining the engine's longevity and ensuring safety.

Another notable characteristic of the GE 49-60111 is its aerodynamic design. The component features optimized geometries that facilitate improved airflow, contributing to higher combustion efficiency. This design not only boosts performance but also contributes to lower emissions, aligning with modern regulatory requirements and environmental standards.

In terms of maintenance, the GE 49-60111 is engineered for ease of serviceability. Its design allows for straightforward inspection and replacement, minimizing downtime and maintenance costs for operators. This focus on maintenance efficiency is particularly valuable in industrial settings where operational reliability is paramount.

The GE 49-60111 also epitomizes the integration of digital technologies in modern gas turbine systems. Advanced sensors and monitoring systems are often incorporated to provide real-time data on component performance. This data-driven approach allows operators to predict maintenance needs, optimize performance, and extend the lifecycle of the turbine.

Overall, the GE 49-60111, 162D9625P005, stands as a testament to General Electric's innovation in gas turbine technology. With its combination of durability, efficiency, aerodynamic design, and advanced maintenance features, it serves as a critical component in the pursuit of enhanced power generation capabilities while navigating the challenges of modern energy demands.