Compatible with mobile devices.
After this course you will be able to: 1-Understand the classification of pumps, 2-Understand the basic operation of a centrifugal pump, 3-Be familar with the Darcy Weisbach Equation, 4-Define how a centrifugal pump converts velocity to pressure.

Compatible with mobile devices.
After this course you will be able to: 1-Read and understand pump performance curves, 2-Calculate water, brake and electrical horsepower requirements, 3-Calculate Net Positive Suction Head, 4-Apply the affinity laws to calculate the effects pump speed and impeller diameter have on capacity, head and horsepower requirements.

Compatible with mobile devices.
After this course you should be able to: 1-Recognize the different types of pumps 2-Be comfortable with choosing the right pump for the job, 3-Recognize the different types of components, 4-Understand the primary function, 5-Be comfortable with there various uses, Understand the impact of improper component selection on pump performance.

Level 100 - Course #106: Electric Motors - ​In this course you will be introduced to foundation principles on the function of induction motors. We will study the principles of electromagnetism and how this affect both the stator and rotor, and how these two components work together to provided powered rotary motion. We will look at both three phases and single-phase motor operation and will compare asynchronous and synchronous motors by looking at both induction and electronically commutated types.

Compatible with mobile devices.
After this course you should be able to: 1-Recognize the various markets served by Grundfos, 2-Recognize the various applications that Grundfos products can be used in, 3-Recognize Grundfos pump types, 4-Understand the range of Grundfos pumps 5-Describe some of the unique features of Grundfos pumps

Compatible with mobile devices.
After this course you should be able to: 1-Understand the difference, and importance of sizing and selection in the pump selection process, 2-Calculate Total Dynamic Head (TDH) in order to size a centrifugal pump, 3-Overview of centrifugal pump curves, 4-Determine how to select the correct pump based on operating point, 5-Analyze various selection criteria

Compatible with mobile devices.
By the end of this course you will understand and can identify: 1-The operation of an induction motor, 2-The advantages of an ECM motor, 3-The control modes available with variable speed pumps, 4-The control advantages of variable speed pumping with ECM motors, 5-Evaluate the cost savings with variable speed controlled pumps

Compatible with mobile devices.
By the end of this course you will understand and can identify: 1-Understand the importance of good piping design 2-Recognize the main components and the critical nature in suction piping 3-Recognize the main components in discharge piping

Compatible with mobile devices.
After this course you should be able to: 1-Understand the basic components that make up a booster system, 2-Understand what information is required and what resources are available for sizing pumps, 3-How to properly select booster systems.

Compatible with mobile devices.
After this course you should be able to: 1-Define Allowable Operating Region (AOR) and Preferred Operating Region (POR), 2-State why a guideline exists for AOR and (POR), 3-State which entity establishes the AOR and the POR for a given pump curve, 4-State which of the two – AOR or POR – have the wider percentage range of performance, 5-Describe the effect of operating a pump outside of its AOR, 6-Describe the effect of operating a pump outside of its POR, 7-State whether or not energy consumption is a factor in determining either AOR or POR according to the Guideline, 8-Describe how the pumping of solids might affect the AOR,

Piping for hydronic systems has been taught for decades. The principles remain the same, but changes in technology permit new opportunities to save first cost and reduce energy consumption.

Compatible with mobile devices.
After this course you should be able to: -Understand the basics of Vertical Turbines -Understand the essential hydraulics of Vertical Turbines -Understand how Vertical Turbines are used in industrial applications

Compatible with mobile devices.
This course provides an introduction to vertical turbine pumps as configured for deep well applications. It covers the basics for virtually all markets that employ deep well pumps, including agricultural irrigation, along with municipal and industrial water supply. The focus is on lineshaft type turbines – both open lineshaft water lubricated and enclosed lineshaft oil lubricated. The main components of turbines, along with their interactions, are explained, as are the various driver types that are available. Finally, we will explore some of the advantages and challenges that are associated with deep well turbine pumps.

Course Level 100: One of the first steps that must be taken in order to gain an ind-depth knowledge of deepwell open lineshaft water lubricated vertical turbine pumps and their proper application, sizing, and selection is to learn about all component parts and how they work together to provide an integrated functioning machine. We will explore all parts from the top of the motor to the bottom of the strainer, including those in the discharge head, the column and shaft, the bowls and impellers, and the drivers.

After this course you should be able to: ​1. Identify typical industrial cooling  system applications ​​2. Describe the layout and components of a chiller system 3. Explain how a cooling tower functions 4. Identify the primary pump applications and control methods in cooling applications 5. Explain key sizing and selection considerations 6. Describe how to avoid common cooling pump problems

​​In this course we will take a deeper look at all of the components that comprise a modern hydronic HVAC system. From boilers to chillers, from cooling towers to sensors,​​ and from circulators to packaged glycol systems, you will gain knowledge on what these components are and how they interact to create a complete system.