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This tool is an add-on for XUL-based applications such as Firefox and Thunderbird. If you are looking for the DOM inspector that's built into Firefox, see the documentation for the. Documentation A guided tutorial that will help you get started with DOM Inspector.

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Getting DOM Inspector Firefox & Thunderbird You may download and install the from the AMO web site. (Thunderbird users browsing AMO in Firefox should save the installation link, or visit the page.) Thunderbird 2 is available from. Or, build Thunderbird yourself with the following options: ac_add_options --enable-extensions='default inspector' ac_add_options --enable-inspector-apis Mozilla Suite and SeaMonkey Select Tools >Web Development >DOM Inspector. You can install the Sidebar panel via Edit >Preferences >Advanced >DOM Inspector, then simply open up the inspector panel and visit a website.

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Abstract: A number of heavy-duty diesel engine manufacturers have developed their own electronic fuel injection systems. Examples include the Hydraulic Electronic Unit Injector (HEUI) and the Mechanically actuated Electronically Controlled (MEUI) systems by Caterpillar, and a number of systems by Cummins such as the Accumulator Pump System (CAPS), Quantum CELECT, HPI, and XPI injection systems. • • • • • • • • • • • • • • • Introduction With increased demand to lower emissions from diesel engines, the flexibility and improved performance offered by electronic control was an important driver for many engine manufacturers to introduce electronically controlled fuel injection systems in the late 1980s and early 1990s. An important tool for lowering emissions from diesel engines produced during this period was fuel injection timing that could be varied over the speed and load range of the engine. While injection timing could be varied with a purely mechanical approach, electronic control offered a much more flexible and a potentially simpler way to achieve this while also providing the option of introducing a number of other desirable features. Some of the first electronically controlled fuel injection systems in heavy-duty engines appeared in the Detroit Diesel Series 92 in 1985 and the Series 60 in 1987 [2151]. Caterpillar applied it to the 3176 in 1988 [2043].

The unit injectors used in these engines lent themselves well to early adoption of solenoid actuated electronic fuel injectors. Solenoid actuator designs of that period were still relatively large and bulky and a unit injector for a heavy-duty engine provided ample room for it.

It took several years for manufacturers to refine the actuator design to make it compact enough to use in common rail systems for light-duty applications [2187] and to produce a heavy-duty unit injector, Delphi’s E1 in 2000, which replaced the bulky side mounted actuator with a more compact design that could be integrated into the injector body. Manufacturer’s quickly learned that electronic control offered not only the ability to control injection timing according to speed and load but also according to the type of driving the vehicle was experiencing. In the 1990s, it was common to program engine controllers to adjust injection timing to optimize fuel consumption in heavy-duty diesel engines when the operating conditions indicated highway cruise conditions. In some cases, this injection with that required to meet regulated emission limits. As emission regulations continued to tighten, the demands placed on fuel systems increased further and it was not sufficient to simply provide flexibility in injection timing control.

Additional drivers that pushed the evolution of diesel fuel injection systems included: • Maintaining accuracy of timing and fuel metering over the expected life of the engine placed increased demands on the repeatability of timing and injection quantity and on injector durability. • Injection pressures increased to maintain engine thermal efficiency and to enable some reduction in exhaust emissions.

• Injector response times became faster to allow predictable injection of small injection quantities. This was an important feature to enable multiple injection events. • Better control over the opening and closing of the injection nozzle to avoid uncontrolled secondary injections and provide a sharp end of injection. This was also important for enabling multiple injections. • Improved mechanical efficiency of the injection system to contribute to the overall goal of improving engine efficiency.

A number of major engine manufacturers developed their own, often unique fuel injection systems. The following are examples of internally designed injection systems: • Detroit Diesel Corporation’s electronically-controlled unit injector systems developed in the 1980s in cooperation with GM’s Rochester Products Division.

• Caterpillar’s hydraulically-actuated electronically-controlled unit injector system (HEUI). • Cummins’ HPI injection system developed in cooperation with Scania.

In other cases, major heavy-duty engine manufacturers were able to acquire patented technologies and further develop the concepts for their own engine line. An example is the Bendix Diesel Engine Controls unit injector system that was licensed by Cummins and used in the CELECT unit injector. While this paper outlines the evolution of electronic fuel injection systems for two specific engine manufacturers—Cummins and Caterpillar—it should be acknowledged this by no means covers the entire range of injection systems available in heavy-duty diesel engines. Zone E Complete A Side Singles Rarities here. Fuel systems from suppliers such as Bosch, Delphi, Siemens/Continental, Denso and others are also very common.