Prepare the Case continues | GE AEM25, AEQ25 instruction

installation instructions

PREPARE THE CASE (continues)

EAttach the side retainers to the case using 6 type A screws.

PREPARE THE WiNDOW AND iNSTALL

THE CASE

ACut the window sash seal to the proper length. Peel off the backing and attach the seal to the underside of the window sash.

BOpen the window and mark the center of the window sill.

CCarefully slide the case into the window and center the case. Lower the window behind the top mounting rail. Pull the bottom of the case forward so that the bottom mounting rail is tight against the back of the window stool. Mount the case to the window sill using 2 type C screws. Drill pilot holes, if necessary.

PREPARE THE WiNDOW AND iNSTALL THE CASE (continues)

DAssemble the V-support and V-support bracket with Type F nut and bolt

		Type E bolt
		and nut
	Left
	Sill angle	Right
	bracket
	V-support Type
	F bolt and nut
	Position the V-supports

E
	on the case bottom so
	on the case bottom so
	that they will be near
	the outside wall. Attach
	a V-support to each side
	of the bottom of the case		V-support
	of the bottom of the case
	with Type E bolts, 2 for


	each support.

FAdjust sill angle brackets to rest on sill.

Sill

Bracket

GExtend the left and right accordion panels to the vertical window sashes. Drill pilot holes and attach the top corners with 2 type C screws.

Type C	Type C
screw	screw

2 type C screws Stool

AEM25, AEQ25 specifications

The GE AEQ25 and AEM25 are advanced aircraft engines that exemplify General Electric's commitment to innovation and efficiency in aviation technology. These engines are designed to power a range of medium-range aircraft, with a focus on providing superior performance, reliability, and sustainability.

One of the standout features of the AEQ25 and AEM25 engines is their state-of-the-art turbofan design. The engines incorporate advanced aerodynamics that enhance fuel efficiency while delivering powerful thrust. This turbofan architecture allows for a significant reduction in fuel consumption compared to older engine models, aligning with global efforts to lower carbon emissions in the aviation industry.

The AEQ25 and AEM25 engines utilize cutting-edge materials and manufacturing techniques. Timeless superalloys and composite materials are strategically employed to endure high temperatures and reduce weight. This combination not only enhances performance but also contributes to overall maintenance efficiency. The engines' design includes modular components, allowing for easy inspection and repairs, which minimizes downtime for aircraft operators and enhances the operational readiness of fleets.

A noteworthy technological advancement in these engine models is the introduction of digital monitoring and analytics capabilities. With integrated sensors, the AEQ25 and AEM25 engines provide real-time data on performance metrics, allowing for predictive maintenance. This technology helps operators anticipate potential issues before they become significant problems, ensuring that aircraft remain in optimal operating condition.

In terms of noise reduction, the AEQ25 and AEM25 engines are engineered to comply with stringent regulatory standards. Acoustic liners and optimized fan designs contribute to significantly lower noise levels during takeoff and landing, minimizing the impact on surrounding communities. This focus on noise abatement is increasingly essential as airports strive to balance growth with community concerns.

The AEQ25 and AEM25 engines are also designed with future sustainability in mind. They are compatible with sustainable aviation fuels (SAFs), further enhancing their environmental credentials. These bio-derived fuels can significantly reduce lifecycle greenhouse gas emissions, making these engines a preferred choice for environmentally conscious airlines.

Overall, the GE AEQ25 and AEM25 engines represent a blend of innovative technology, efficiency, and sustainability, poised to meet the demands of modern air travel while paving the way for a greener future in aviation. With their reliable performance, reduced operational costs, and commitment to environmental stewardship, these engines are set to play a crucial role in the evolving landscape of the aerospace industry.