Ohio Energy Efficiency and Ethics 30 PDH Discount Package 3

This online engineering PDH course provides Licensed Professionals (LPs) with step-by-step instructions on how to correctly verify the reported data of applications and assess indoor environmental quality of U.S. buildings.

Energy use in commercial buildings accounts for nearly 20% of U.S. greenhouse gas emissions at a cost of more than $100 billion per year. Through ENERGY STAR®, the United States Environmental Protection Agency (EPA) works with owners and managers of our nation’s commercial buildings to help them strategically manage their facilities’ energy performance, cut energy use, lower utility bills, and reduce greenhouse gas emissions.

More than a dozen types of commercial buildings can earn EPA’s mark of superior energy efficiency – the ENERGY STAR, which is recognized by 90% of American consumers. Commercial buildings that earn the ENERGY STAR must perform in the top 25% of buildings nationwide compared to similar buildings, and their performance must be verified by a licensed professional.

The role of the LP is to verify that all energy use is accounted for accurately, the building characteristics have been properly reported, and indoor environmental quality has not been compromised in pursuit of energy conservation. By verifying the completeness and correctness of the application submitted to the EPA, the LP helps to ensure the integrity of the ENERGY STAR certification.

This online engineering PDH course presents a novel building assembly called the Solid Panel Structure (SPS), which utilizes large format (8’x24’), oriented strand board (OSB) panels to create a wall structure that comprises of high-performance moisture and thermal control layers.

The SPS is an innovative interpretation of the “perfect wall” concept, in which environmental control layers are located on the exterior side of the structural components, as opposed to traditional cavity insulated, stud-framed walls. The primary objective of this course is to validate the SPS technology in terms of its constructability, cost, and performance.

This online engineering PDH course provides basic information about small wind electric systems to help you decide if wind energy will work for you.

Wind is created by the unequal heating of the Earth's surface by the sun. Wind turbines convert the kinetic energy in wind into mechanical power that runs a generator to produce clean electricity.

Can I use wind energy to power my home? More people across the country are asking this question as they look for a hedge against increasing electricity rates and a way to harvest their local wind resources. Although wind turbines large enough to provide a significant portion of the electricity needed by the average U.S. home generally require 1 acre of property or more, approximately 19.3% of the U.S. population lives in rural areas and may own land parcels large enough to accommodate a wind energy system.

This 3 PDH online course is applicable to electrical and mechanical engineers and energy professionals who are interested in learning more about small wind electric systems.

This online engineering PDH course provides an overview of the different types of renewable energy systems and their benefits.

Renewable energy is energy produced from sources like the sun and wind that are naturally replenished and do not run out. It can be used for electricity generation, space and water heating and cooling, and transportation. Non-renewable energy, in contrast, comes from finite sources that could get used up, such as fossil fuels like coal and oil. The advantages of renewable energy are numerous and affect the economy, environment, national security, and human health. The United States is a resource-rich country with abundant renewable energy resources. Renewable energy generates about 20% of all U.S. electricity, and that percentage continues to grow.

This online engineering PDH course presents the technical, economic, and feasibility assessment for converting to all-electric heating solutions.

Electrification of building loads presents a significant opportunity to reduce site-level greenhouse gas (GHG) emissions, especially when combined with renewable and zero-carbon electricity resources. Electrification involves the conversion of a building system that would traditionally use fossil fuels (such as, natural gas, fuel oil, or propane) to the use of electrical power, which could be a key strategy in decarbonization. The course focuses on electrification and decarbonization of space heating and water heating loads using electric heat pump systems.

This 1 PDH online course is applicable to mechanical, energy, and facility engineers as well as other technical professionals interested in learning about electrification and decarbonization of space and water heating loads using electric heat pump systems.

This online engineering PDH course provides basic information on detecting and regulating equipment leaks and providing repair solutions.

EPA has determined that leaking equipment, such as valves, pumps, and connectors, are the largest source of emissions of volatile organic compounds (VOCs) and volatile hazardous air pollutants (VHAPs) from petroleum refineries and chemical manufacturing facilities. The Agency has estimated that approximately 70,367 tons per year of VOCs and 9,357 tons per year of HAPs have been emitted from equipment leaks. Emissions from equipment leaks exceed emissions from storage vessels, wastewater, transfer operations, or process vent.

This course identifies some of the problems identified with LDAR (Leak Detection And Repair) programs focusing on Method 21 requirements and will describe the practices that can be used to increase the effectiveness of an LDAR program. Some of the elements of a model LDAR program are required by current Federal regulations and other model LDAR program elements help ensure continuous compliance although they may not be mandated from a regulatory standpoint. Prior to developing a written LDAR program plan, all applicable regulations should be reviewed to determine and ensure compliance with the most stringent requirements.

This 2 PDH online course is applicable to environmental engineers, as well as other technical professionals who are interested in learning about leak detection and repair.

This online engineering PDH course offers a thorough introduction to hydrogen as a critical energy carrier for achieving a clean, sustainable energy future.

This course provides an overview of the science, technologies, and applications that enable hydrogen production, delivery, storage, and utilization in fuel cells. It introduces key concepts and examines both conventional and renewable production methods, including steam methane reforming, water electrolysis, and biological processes. Additionally, it explores advanced storage solutions such as compressed gas and metal hydrides, along with logistical considerations for hydrogen delivery using pipelines, tube trailers, and cryogenic transport.

Furthermore, this course delves into the operation and applications of fuel cells, focusing on Polymer Electrolyte Membrane (PEM) fuel cells commonly used in vehicles. It highlights the role of the Hydrogen and Fuel Cell Technologies Office (HFTO) and initiatives like H2@Scale, which aim to address various technological, economic, and institutional challenges.

This 8 PDH online course is applicable to energy engineers and other technical professionals interested in understanding the role of hydrogen in the transition to net-zero emissions.

This online engineering PDH course presents the principles of engineering ethics that every engineer is expected to live by when practicing their profession.

Engineering ethics is (1) the study of moral issues and decisions confronting individuals and organizations involved in engineering and (2) the study of related questions about moral conduct, character, ideals and relationships of peoples and organizations involved in technological development (Martin and Schinzinger, Ethics in Engineering).

This course describes the fundamental legal concepts with which very engineer should be familiar. It also presents unique disciplinary case studies selected from across the nation, as well as hypothetical ethical challenges that demonstrate how difficult it can be to apply the code of ethics for engineers.