Installation Instructions

1WINDOW REQUIREMENTS

These instructions are for a standard double-hung window. You will need to modify them for other types of windows.

The air conditioner can be installed without the accordion panels if needed to fit in a narrow window. See the window opening dimensions.

All supporting parts must be secured to firm wood, masonry or metal.

The electrical outlet must be within reach of the power cord.

12min.

24-1/2to 34-1/4

(With accordion panels)

17min.

(Without accordion panels)

2STORM WINDOW REQUIREMENTS

A storm window frame will not allow the air conditioner to tilt toward the outside, and will keep it from draining properly.

To adjust for this, attach a piece of wood to the stool.

WOOD PIECES–

WIDTH: 2

LENGTH: Long enough to fit inside the window frame.

THICKNESS: To determine the thickness, place a piece of wood on the stool to make it 1/2higher than the top of the storm window frame.

Attach securely with nails or screws provided by the installer.

Wood

1/2higher

 

than frame

Stool

 

Storm window frame

3PREPARE THE AIR CONDITIONER

AInstall the top mounting rail with 2 Type A screws from the outside of the case.

Top mounting rail

Bottom mounting rail

BSlide the left and right accordion panels into the top and bottom mounting rails.

CAttach the accordion panels to the case using 2 Type A screws on each side.

Top mounting rail

Accordion panel

Type A screws

BACK

Bottom mounting rail

8

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GE AER05 installation instructions Storm Window Requirements, Prepare the AIR Conditioner

AER05 specifications

The GE AER05 is a state-of-the-art aircraft engine developed by General Electric Aviation, known for its innovative design and cutting-edge technology. This engine is primarily used in regional jets and some narrow-body aircraft, making it a key player in the aviation industry.

One of the main features of the AER05 is its fuel efficiency. The engine employs advanced materials and aerodynamic designs that minimize drag and enhance overall performance. This efficiency not only reduces operational costs for airlines but also contributes to lower emissions, aligning with global efforts to promote sustainability in aviation.

Another key characteristic of the GE AER05 is its lightweight construction. The engine utilizes composite materials, allowing it to achieve a significant reduction in weight without compromising on strength or durability. This lightweight design contributes to improved aircraft performance, enabling quicker ascents and greater payload capacity.

The AER05 also incorporates advanced noise reduction technologies. It features a unique fan design that helps to minimize noise during both takeoff and landing phases. This is increasingly important as airports around the world implement stricter noise regulations. The quieter operation enhances the passenger experience and reduces the environmental impact of air travel.

In terms of maintenance, the GE AER05 is designed with the operator in mind. Its modular architecture allows for easier access to components, streamlining maintenance procedures and reducing downtime. Airlines benefit from lower maintenance costs and enhanced reliability, which is crucial for keeping aircraft in the air and minimizing delays.

The engine is equipped with sophisticated digital controls and monitoring systems. These technologies enable real-time performance analysis, allowing for proactive maintenance and operational adjustments. The data gathered can also help airlines optimize their flight operations, leading to further improvements in efficiency and cost savings.

In summary, the GE AER05 is a prominent engine in modern aviation, characterized by its fuel efficiency, lightweight design, noise reduction capabilities, maintenance-friendly architecture, and advanced digital technology. Its innovative features ensure that it meets the demands of both airlines and passengers, making it a vital asset for the future of air travel. As the aviation industry continues to evolve, the AER05 stands at the forefront, embodying the technological advancements needed to create more sustainable and efficient air transportation solutions.