Course Catalogue.

After participating in this course, you will be able to:

• Apply principles and techniques of fluid dynamics to solve hydrodynamics problems and perform relevant calculations, including volumetric flow rate and hydroelectric power
• Specify and select hydraulic machines based on system head requirements while distinguishing between turbulent and laminar flows
• Analyze open channel flow problems and calculate power and energy in hydroelectric systems
• Understand three-phase AC configurations, transformers, and the basics of voltage transformation and power distribution
• Interpret electrical control drawings, comprehend the role of PLCs (Programmable Logic Controllers) in hydroelectric power generating plants

Description
This course comprehensively introduces fluid statics, hydrodynamics, hydraulic machinery, and foundational electrical engineering principles. Designed for participants with little prior knowledge in these areas, the course begins with the basics, laying a solid foundation before moving into more complex concepts. Through a combination of theoretical insights, mathematical equations, and practical examples, you'll gain the confidence to analyze and solve real-world hydraulics problems. Case studies and sample problems further bridge the gap between theory and practice, ensuring you can effectively apply what you've learned.

As the course progresses, you'll transition into the principles and practices of electrical engineering, focusing on the parallels between hydrostatics, hydrodynamics, and electricity. The instructor’s unique approach demystifies these topics, presenting them in an accessible and relatable manner. Whether tackling hydroelectric power generation problems or exploring electrical systems fundamentals, the content is delivered in a clear, easy-to-understand format, drawing on the instructor’s experience and his book, Electrical Engineering for Non-Electrical Engineers.

Practical examples are woven throughout the course, illustrating the real-world applications of both electrical and hydraulic engineering principles. You’ll walk away with theoretical knowledge and the practical skills needed to interpret electrical control diagrams, select appropriate hydraulic machines, and understand the intricacies of power distribution and voltage transformation. Whether you want to enhance your professional skill set or meet specific licensing requirements, this course is your gateway to mastering these critical engineering domains.

Who should attend
This course is ideal for professionals in a range of disciplines, including hydroelectric, marine, civil, mechanical, and environmental engineering, energy professionals, facility managers, and project managers.

Additionally, procurement and purchasing professionals responsible for acquiring hydraulic and electrical equipment and maintenance engineers and managers will find this course invaluable for enhancing their expertise.

If you want to deepen your understanding of fluid statics, fluid dynamics, and electrical engineering, this course offers the comprehensive knowledge you need to excel.

Course Syllabus

• Hydrostatics concepts and analysis.
• Hydrodynamics principles, laws and analytical techniques.
• Application of Bernoulli, Darcy, Hazen-Williams, Manning, Water Horsepower, and other hydrodynamics equations.
• Study of hydraulic machines commonly applied in industrial and commercial environments.
• Review of “wire to water “and “water to wire” power flow and efficiency
• Mathematical analysis involving matching of system head requirements with alterative pump options.
• Principles and concepts associated with AC and DC electricity, and the distinction between these two realms of electricity.
• Mathematics and physics-based techniques, principles and equations for analyzing AC and DC systems.
• The science and engineering theory behind power factor is illustrated using the vector method, a graphical representation of voltage and current as a function of time and angle, and the mainstream approach to power factor correction.
• Electrical power management concepts, such as, power quality, load factor and service factor, demand, peak demand.
• AC voltage, current, and impedance representations in phasor, polar, and rectangular forms. Complex math associated with manipulating rectangular and phasor AC parameters is illustrated through examples.
• The difference between three-phase AC, “Y”, and” Delta” configurations of loads and sources and their practical significance.
• Transformers, their applications, and their role in voltage regulation.
• Power distribution equipment, their anatomy and applications.
• Role codes play in electrical design, electrical safety and exposure to arc flash hazards.
• Electrical one-line schematics, wiring diagrams and controls drawings.