Oregon Mechanical 30 PDH Discount Package 3

This online engineering PDH course provides an overview of industrial compressed air systems. It describes the basic components of an industrial compressed air system and characterizes its applications in different industries.

Compressed air is used widely throughout industry and is often considered the "fourth utility" at many facilities. Almost every industrial plant, from a small machine shop to an immense pulp and paper mill, has some type of compressed air system. In many cases, the compressed air system is so vital that the facility cannot operate without it.

This online engineering PDH course provides guidance on the basic operating principles of 2-cycle and 4-cycle diesel engines. It explains the fundamentals and theory of operation of engine governors, fuel ejectors, camshafts as well as typical engine protective features.

Today most facilities require some type of prime mover to supply mechanical power for pumping, electrical power generation, operation of heavy equipment, and to act as a backup electrical generator for emergency use during the loss of the normal power source. Although several types of prime movers are available (such as gasoline engines, steam and gas turbines), the diesel engine is the most commonly used. Diesel engines provide a self-reliant energy source that is available in sizes from a few horsepower to 10,000 hp. Relatively speaking, diesel engines are small, inexpensive, powerful, fuel efficient, and extremely reliable if maintained properly.

This 4 PDH online course is applicable to mechanical engineers, plant operators, maintenance personnel, and technical staff who are interested in gaining a better understanding of diesel engine fundamentals.

This online engineering PDH course describes the cooling and lubrication systems for internal combustion engines.

An internal combustion engine produces power by burning fuel within the cylinders; therefore, it is often referred to as a "heat engine." However, only about 25% of the heat is converted to useful power. Thirty to thirty five percent of the heat produced in the combustion chambers by the burning fuel is dissipated by the cooling system along with the lubrication and fuel systems. Forty to forty-five percent of the heat produced passes out with the exhaust gases. If this heat were not removed quickly, overheating and extensive damage would result. Valves would burn and warp, lubricating oil would break down, pistons and bearings would overheat and seize, and the engine would soon stop.

The necessity for cooling may be emphasized by considering the total heat developed by an ordinary six cylinder engine. It is estimated that such an engine operating at ordinary speeds generates enough heat to warm a six-room house in freezing weather.

This online engineering PDH course provides information on the different types of fire protection systems and presents guidelines for periodic inspection and maintenance procedures of these systems.

Fire protection systems are designed to extinguish fires as quick as possible to prevent the loss of lives and property. When fire suppression systems are installed, the system would control, put out any fire that may result and signal the fire department. However, in the absence of similar systems, any building could be severely damaged or completely destroyed before the fire department could respond.

There are several types of fire protection systems. Each system is designed to serve in specific locations and has its unique components and functioning characteristics. And in order to ensure that these systems are safe and reliable, periodic inspection and maintenance of their components is required.

This online engineering PDH course provides information in accordance with OSHA standards about how firefighters typically interact with building features and fire protection systems during fires and similar emergencies.

This course focuses on ways that designers, code officials, and related stakeholders can contribute to the efficiency of operations during emergency incidents in both new and existing buildings. The material is applicable to all types of fire service organizations, including fire brigades and fire departments. The concepts discussed in this course will apply to most facilities but do not cover every possible type of building, facility, or hazard. Therefore, this document is intended to supplement rather than substitute codes and standards.

This online engineering PDH course presents general piping design calculations and requirements for all piping systems regardless of construction material. Most of these calculations and requirements are provided and regulated by the ASME B31.3 code, respectively.

The liquid process piping manual provides information for the design of liquid process piping systems including all pipe and appurtenances which are used to convey liquids to, from and between pumping, storage and treatment units but which are not integral to any unit.

This 3 PDH online course is applicable to engineers, designers, contractors, building professionals, maintenance personnel, and manufacturers who are interested in gaining a better understanding of general piping design of liquid process piping.