Manitoba Alt/Ren Energy 30 PDH Discount Package

This online engineering PDH course presents the fundamental principles behind the workings of a solar PV system, use of different components in a system, methodology of sizing these components and how these can be applied to building integrated systems. It includes detailed technical information and basic step-by-step methodology for design and sizing of off-grid solar PV systems.

 

The sun delivers its energy in two main forms: heat and light. There are two main types of solar power systems, namely, solar thermal systems that trap heat to warm up water and solar PV systems that convert sunlight directly into electricity (the latter being the focus of this course). Direct or diffuse light (usually sunlight) shining on the solar cells induces the photovoltaic effect, generating DC electric power. This DC power can be used, stored in a battery system, or fed into an inverter that converts DC into alternating current “AC”, so that it can feed into one of the building’s AC distribution boards (“ACDB”) without affecting the quality of power supply.

 

Several factors and aspects are taken into consideration when designing a solar PV system which will be discussed in this course.

 

This 8 PDH online course is applicable to electrical & mechanical engineers, energy & environment professionals, architects & structural engineers, and other professionals looking to enter the solar industry, or interact with solar projects in their current line of work.

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 PDH course presents the basics of motor and drive systems and briefly describes important terms, relationships, and system design considerations. It also provides a roadmap for finding opportunities to improve motor performance, as well as exploring the economics of motor systems.

 

Electric motors, taken together, make up the single largest end use of electricity in the United States. In the U.S. manufacturing sector, electric motors used for machine drives such as pumps, conveyors, compressors, fans, mixers, grinders, and other materials handling or processing equipment account for about 54% of electricity consumption.

 

To achieve cost-effective operation and maintenance of a motor and drive system, operators must pay attention to the entire system as well as to its individual components. Often, when investigating efficiency opportunities, operators are so focused on the immediate demands of this equipment that they overlook the bigger picture, which includes the ways in which system parameters affect all the equipment.

 

This 6 PDH online course is intended for electrical and mechanical engineers, contractors, manufacturers, building professionals and others interested in learning more about improving motor and drive system performance.

This online engineering CPD course provides a thorough introduction to building electrification principles and practices, emphasizing strategies that enhance energy efficiency and reduce greenhouse gas emissions.

 

This course explores the integration of cutting-edge technologies—such as heat pumps, heat pump water heaters, and advanced load management systems—to minimize the environmental impact of heating, cooling, and hot water systems in buildings. Also, this course covers essential topics including electrical panel capacity assessment, system selection optimization, and load management strategies. Additionally, the course examines building envelope improvements, thermal energy storage (TES), and the integration of distributed energy resources (DERs) to support decarbonization. Smart controls, bidirectional energy flows, and demand-response strategies are also explored to enhance grid resilience and reduce energy costs, with real-world case studies and practical applications reinforcing key concepts.

 

This 2 CPD online course is applicable to engineers, architects, as well as other technical professionals dedicated to promoting decarbonization and sustainability in the built environment.

This online engineering CPD course provides a comprehensive introduction to grid-interactive buildings, emphasizing demand response, load management, and energy flexibility to enhance building efficiency and support a resilient, low-carbon grid.

 

This course highlights the importance of advanced building automation, smart controls, and distributed energy resources (DERs) in reducing peak demand, optimizing energy use, and integrating renewable energy sources.

 

This course covers the fundamentals of demand response and grid-interactive efficient buildings (GEBs), focusing on concepts like energy efficiency, load shedding, load shifting, and real-time modulation. It explores the roles of building automation systems (BAS), smart thermostats, and model predictive control (MPC) in optimizing energy consumption while maintaining occupant comfort. It also addresses grid services, HVAC load management, energy storage solutions, and bidirectional energy flow, illustrating how buildings can adapt to support grid stability.

 

This 3 CPD online course is applicable to engineers, energy managers, as well as other technical professionals looking to understand and implement grid-responsive building strategies.

This online engineering CPD 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 CPD 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.