The objective of this course is to assist the HVAC engineer in learning about proper design to prevent indoor air quality problems in a building and resolve such problems promptly if they do arise. It recommends practical actions that can be carried out by facility staff, outside contractors, or both.
The objective of this course is to help the HVAC engineer learn about the staged approach to building upgrades, with retrocommissioning as the first stage in the building upgrade process. The upgrade HVAC process goes through the redesign and optimization of the Air Distribution systems.
This course highlights the objectives of good duct design which are: occupant comfort, proper air distribution, economical heating and cooling system operation, and economical duct installation. Properly designed systems can maintain uniform temperatures throughout the house efficiently.
This course reviews basic design and installation requirements, equipment, application rules of thumb, key specification differentiators, and typical applications for split systems. A split system is an air-conditioning or heat pump system that uses refrigerant as the heat exchange fluid and has an evaporator, compressor, and condenser as separate components
This course is designed to provide fan system users with a reference outlining opportunities to improve system performance. It is not intended to be a comprehensive technical text on improving fan systems, but rather a document that makes users aware of potential performance improvements.
The objective of this course was to validate the performance of a new HVAC dehumidification technology designed to significantly reduce energy use associated with dehumidification, while improving indoor air quality and reducing potential for mold growth.
This report details the findings of these efforts and summarizes the results for each of the three focus buildings. In general, the more recently constructed Terralab exhibits a sounder building envelope without any major thermal deficiencies when compared to both the Biolab and GWR buildings.
This course provides requirements and guidance in the design of heating, ventilating, and air-conditioning (HVAC) systems, together with the criteria for selecting HVAC materials and equipment.
This course examines a demonstration whose primary objectives were to verify pump electricity savings and cost effectiveness, evaluate ease of installation and operability and ensure the DHW system was able to maintain desired return water temperature & discharge air temperature set points.
This course examines a laboratory evaluation of the five integrated HPWHs available in the U.S. market today. The results describe how these products function, demonstrate that efficient operation is typical but limitations exist, and provide information so reasonable expectations can be determined.
This course attempts to provide publicly available field data about new HPWHs by monitoring the performance of three models. The move to HPWHs from standard ERWHs is not trivial; energy used by electric water heaters is a substantial fraction of total residential energy consumption,
The scope of this course is to provide a standard field monitoring protocol for evaluating the installed performance of HPWHs in residential buildings. The report is organized to be consistent with the chronology of field test planning and execution.
The objective of this educational course is the familiarize an engineer with the basic fundamentals and principles related to fire protection. The content introduces basic fire protection issues related to the safeguarding of life and property against fire losses.
The objective of this educational course is the familiarize an engineer with the basic fundamentals and principles related to fire protection. The content introduces basic fire protection issues related to the safeguarding of life and property against fire losses.
The objective of this educational course is the familiarize an engineer with the basic fundamentals and principles related to fire protection. This course is longer than 8 hours and is intended to be reviewed over multiple days.
The objective of this educational course is the familiarize an engineer with the Department of Energy (DOE) Fire Protection standards. The course content begins with general fire protection requirements and goes into details for fire protection design.
General engineering courses including fundamentals of physics, chemistry, fluids, thermodynamics, heat transfer, and more. Also includes engineering symbology & drawings.
Video courses include topics such as Ethics, Safety & Personal Development. Video courses are on-demand, self-paced & can be stopped & restarted at any time.
Ethics, Rules & Laws PDH courses are provided to meet various state's Ethics & Rules course requirements. Includes NCEES rules & Exams on State Engineering Board's Rules.
Accident Investigations, EPA Reports & Failure Analysis PDH courses can be great sources of valuable lessons and cautionary tales for engineers of any discipline.
Chemical Engineering PDH courses include basic engineering fundamentals as well as new technologies like Biomass, LFG & current event issues like EPA studies on Fracing.
Civil Engineering PDH courses include basic fundamentals and also sub-sections such as Building design, Materials, Structural, Geotechnical, & Traffic Engineering.
Electrical Engineering PDH courses include basic fundamentals of electrical science as well as Electrical Safety, Instruments, & Controls.
Environmental Engineering PDH includes tech. to reduce emissions, alternative fuel/energy sources such as Biomass, & EPA studies on subjects such as Fracing.
Mechanical Engineering PDH courses include topics related to basic fundamentals as well as Materials, Structural Design, Safety Design & Mechanical Accident Investigations.
HVAC PDH course concepts include topics such as system design & optimization. Fire Engineering PDH courses include topics such as guidelines & fundamentals of fire protection.
Our safety PDH courses include safety-related topics included OSHA guidelines, reports & publications, as well as accident & safety investigations.
Materials Engineering PDH courses cover the fundamentals of Materials science including topics such as metal properties, welding, concrete, rare earth elements, and more.
Structural Engineering PDH courses include Structural design criteria for buildings & other structures, as well as Material Science topics & structural accident investigations.
Geotechnical Engineering PDH courses include topics such as Seismic design for Soil Liquefaction, Soils & Foundations, Earth Retaining Structures, etc.
Traffic Engineering PDH courses are specialized courses including topics such as Signalized Intersections & Traffic Control Devices.
Naval Engineering PDH course concepts include a broad range of topics including ship hydrostatics, ship stability, seakeeping and maneuvering, propulsion, and much more.
Nuclear Engineering PDH course concepts include a broad range of topics including reactor theory, facility design, radiological safety, and much more.
Project Management PDH course concepts apply to multiple engineering disciplines. PM Topics focus on construction, design, systems engineering, and more.
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