GE JTP13, JTP14 Ift-Off Oven Door, Oven Heating Elements, Inside of the door, Outside of the door

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I.ift-Off Oven Door

The oven door is removable, but it is heavy. You may need help removing and replacing the door. Do not lift the door by the handle. This can cause the glass to break or can cause ‘ damage to the door.

To remove the door, open it a few inches to the special stop position that will hold the door open. Grasp firmly on each side and lift the door straight up and off the hinges.

NOTE:

Be careful not to place hands between the hinge and the oven door frame.

Whi Ie working in the oven area, cover the hinges with towels or empty paper towel rolls to prevent pinched fingers.

To replace the door, make sure the hinges are in the special stop position. Position the slots in the bottom of the door squarely over the hinges. Then lower the door slowly and evenly over both hinges at the same time. If hinges snap back towards the oven frame, pull them back out.

TO CLEAN THE DOOR:

Inside of the door:

Because the area inside the gasket is cleaned during the self clean cycle, you do not need to clean this by hand. Any soap left on the liner causes additional stains when the oven is heated.

The area outside the gasket can be cleaned with

a scouring pad.

Do not rub or clean the door gasket—the fiberglass material of the gasket has an extremely low resistance to abrasion. An intact and well-fitting oven door gasket is essential for energy-efficient oven operation and good baking results. If you notice the gasket becoming worn, frayed or damaged in any way or if it has become displaced on the door, you should have it replaced.

NOTE: The gasket is designed with a gap at the bottom to allow for proper air circulation.

Inside Gasket

Gasket

Outside Gasket

Outside of the door:

Use soap and water to thoroughly clean the top, sides and front of the oven door. Rinse well. You may also use a glass cleaner to clean the glass on the outside of the door.

Oven Heating Elements

Do not clean the bake element or the broil element. Any soil will burn off when the elements are heated.

The bake element can be lifted gently to clean the oven floor. If spillovers, residue or ash accumulate around the bake element gently wipe around the element with warm water.

Broil Element

Bake Element

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Contents Built-In Electric Oven ~ YOU Need Service How to Remove Packaging TapeSave time and money Before you request service Help US Help YOUImportant Safety Notice Mportant Safety ~STRUCTIONS Self-Cleaning OvenSave These Instructions OvenFeatures of Your Oven Features of Your Oven Control AbhCOOKTIME StopTimer To Set the TimerTo Reset the Timer To Cancel the TimerUsing Your Oven Before Using Your OvenOven Light Oven VentEn Shelves Shelf PositionsHow to Set Your Oven for Baking BakingOven Shelves PreheatingPan Placement Jaking PansBaking Guides CookiesBahng ~ED BakingHow to Set Delay Start and Automatic Stop Quick ReminderAdjust the Oven Thewostat To Adjust the ThermostatUse of Aluminum Foil Questions and Answers ROAST~GFrozen Roasts Why are my meats not turning out as brown as they should? Should I salt the meat before broiling?BROE~G GU~E Before a Clean Cycle How to Set Oven for Cleaning To Stop a Clean CycleOPEMT~G T~ SELF-CLEA~G Oven After Self-Cleaning How to Set Delay Start of CleaningShould there be any odor during the cleaning? Why do I have ash left in my oven after cleaning?My oven shelves do not slide easily. What is the matter? Broiler Pan and Rack Oven Light BulbControl Panel Ift-Off Oven Door Oven Heating ElementsInside of the door Outside of the doorProblem POSSIBI.E Cause Heavily soiled ovens require 3’/z-to 4-hour Clean Time Consumer information serviceIf you need more help Call, toll free GE Answer Center@ Fm may continue to run even after the oven is turned offWdll Be There Warranty
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JTP14, JTP13 specifications

The GE JTP13 and JTP14 engines represent significant advancements in the field of gas turbine technology, primarily used in commercial jet applications. Both models are known for their robust performance, reliability, and efficiency, making them popular choices among aircraft manufacturers and operators.

The GE JTP13 engine is a turbojet engine that gained prominence for its lightweight design and high thrust-to-weight ratio. It features a single spool, axial-flow configuration that maximizes efficiency and minimizes drag. One of the standout characteristics of the JTP13 is its advanced aerodynamics, which has been optimized through extensive computational fluid dynamics modeling. This results in enhanced performance across a wide range of flight conditions.

Technology-wise, the JTP13 incorporates a dual-combustor system that improves fuel combustion efficiency. This feature not only enhances thrust output but also reduces emissions, aligning with modern environmental standards. Additionally, the engine's materials are chosen for high durability, ensuring longevity and lower maintenance costs. The JTP13's simplicity in design facilitates ease of maintenance, a crucial aspect for operators aiming to minimize downtime.

Meanwhile, the GE JTP14 engine builds upon the advancements made in the JTP13, offering several upgraded features. One of its key characteristics is the increased thrust capability, catering to larger airframes and higher payload requirements. The JTP14 retains a single-spool design but introduces innovations in blade cooling technology, enabling the engine to operate efficiently at higher temperatures, thus further improving its thermal efficiency.

The JTP14 also employs advanced digital engine control systems, enhancing overall performance management and fuel efficiency. These systems allow real-time adjustments based on changing flight conditions, providing operators with a responsive engine that can adapt to various demands. The engine's noise reduction technologies further contribute to its appeal, making it a quieter option for both passengers and the surrounding environment.

In summary, the GE JTP13 and JTP14 engines exemplify cutting-edge engineering in the aviation industry. Their design characteristics, coupled with advanced technologies, pave the way for operational efficiency, reduced environmental impact, and enhanced performance, securing their place in the future of commercial jet propulsion.