This is Episode 1 in an 8-part introduction series to the field of controls and automation engineering. Since this is a fairly niche engineering field which I work in, it seems like a great opportunity to share some cool info about the industry! The PowerPoint used in this lesson is available here: https://github.com/plemaster01/ControlsEngineering Check out the Real Pars YouTube channel for tons of more free info about the field: @realpars And be sure to check out Brilliant.org for fun and challenging science and engineering games and lessons! https://brilliant.sjv.io/EKZ4Xn Don't forget to leave a like on the video, subscribe to the channel, and leave a comment with any questions and letting me know what you want to see next! If you love the content on the channel and want to become a super supporter, consider subscribing to my Patreon page as well: https://www.patreon.com/LeMasterTech TIMESTAMPS: 00:00 Introduction to Controls and Automation Engineering 02:55 Technical Terms Used in Automation and Controls Engineering 09:17 Available Jobs and Careers for Automation Engineers 10:06 Suggested Education for Controls Engineers 13:12 Expected Salaries for Controls and Automation Engineering 15:29 Additional Free and Cheap Resources to Learn More About Controls! Thank you so much for watching and see you next time!

"Welcome to our channel! In this video, we delve into the fundamentals of Control Systems, a vital aspect of engineering. Whether you're a student or a professional, understanding control systems is crucial for various applications, from robotics to industrial automation. Join us as we cover the basics, including feedback loops, PID controllers, and system stability. Dive into the world of engineering with us and gain insights into how control systems shape the modern technological landscape. Don't forget to like, share, and subscribe for more engineering tutorials! #ControlSystems #EngineeringBasi : "Introduction to Control Systems | Engineering Basics Explained"

This video covers what systems engineering is and why it’s useful. We will present a broad overview of how systems engineering helps us develop complex projects that meet the program objectives in an efficient way. This introduction will set the stage for the rest of the series where we will cover how system architectures are developed and described, how we communicate the needs, requirements, and constraints throughout the project, how we optimize the design through trade studies, and how we know the system does what it’s supposed to in the end. See all the videos in this playlist: https://www.youtube.com/playlist?list=PLn8PRpmsu08owzDpgnQr7vo2O-FUQm_fL Additional Resources: - Systems Engineering Featured Product: System Composer™ (MathWorks): https://bit.ly/2H3MBXh ------------------------------------------------------- ------------------------------------------------- Get a free product trial: https://goo.gl/ZHFb5u Learn more about MATLAB: https://goo.gl/8QV7ZZ Learn more about Simulink: https://goo.gl/nqnbLe See what's new in MATLAB and Simulink: https://goo.gl/pgGtod © 2020 The MathWorks, Inc. MATLAB and Simulink are registered trademarks of The MathWorks, Inc. See www.mathworks.com/trademarks for a list of additional trademarks. Other product or brand names may be trademarks or registered trademarks of their respective holders.

What is PLC and SCADA - What is RLC PLC SCADA HMI VFD Drive - Best PLC SCADA HMI VFD training course About this video- Dosto aaj es video ke andar hamne aapko RLC, PLC, SCADA, VFD, HMI kaise sikhe bataya hai iske alawa apko electrical industrial automation ke baare me detail me batane ki kosish kari hai. Sath hi aapko es video mai maine electrical se judi practical working ke baare mai bhi jankari di hai. Ummed hai aapko yeh video bahut pasand aayegi (hindi,urdu) #PLC #SCADA #HMI #VFD #electricalautomation #training #interview Queries Solved: 1. What is PLC, Scada, HMI, VFD? 2. PLC Training in hindi 3. How to learn PLC SCADA HMI VFD 4. How to learn PLC and SCADA programming? 5. best industrial automation training institute in India ----------------- Inquiry?: contact@electricaldost.com

Lecture Series on Industrial Automation and Control by Prof. S. Mukhopadhyay, Department of Electrical Engineering, IIT Kharagpur. For more Courses visit http://nptel.iitm.ac.in

? Want to learn industrial automation? Go here: http://realpars.com ? Want to train your team in industrial automation? Go here: http://realpars.com/business ? You can read the full post here https://realpars.com/pid-controller ?Timestamps: 00:00 - Intro 00:49 - Examples 02:21 - PID Controller 03:28 - PLC vs. stand-alone PID controller 03:59 - PID controller parameters 05:29 - Controller tuning 06:20 - Controller tuning methods ============================= In this video, we’re going to talk about the PID Controller and its transformation from a single station device to what it has evolved into today. We’re going to explain why PID Controllers are used in industrial processes. We’ll illustrate how Controller settings affect different processes under control. We’ll also provide an overview of Controller Tuning. Let’s start with a discussion about home temperature control. If the room temperature is below the setpoint, the furnace is turned ON. When the room temperature increases above the setpoint, the furnace turns OFF. This type of control is referred to as ON/OFF or Bang-Bang Control. The temperature is not exactly held at the setpoint of 70°F, but cycles above and below the setpoint. ON/OFF control may be ok for your house, but it is not ok for industrial processes or motion control. Let’s look at an example of tank level control to explain why. The Valve fills the tank as the pump drains it. If the valve is operated with ON/OFF control, the water will fluctuate around the 50% setpoint. For our purpose, let’s say the fluctuation is ±10%. In most industrial applications, this fluctuation around the setpoint is not acceptable. What if it’s possible to throttle the valve and place it in any position between ON and OFF? Let’s look at how a PID Controller fits into a feedback control loop. The Controller is responsible for ensuring that the Process remains as close to the desired value as possible regardless of various disruptions. The controller compares the Transmitter Process Variable (PV) signal, and the Setpoint. Let’s refer to the difference between the Process Variable and the Setpoint as the Error signal. Based on that comparison, the controller produces an output signal to operate the Final Control Element. This PID Controller output is capable of operating the Final Control Element over its entire 100% range. The PID controller determines how much and how quickly correction is applied by using varying amounts of Proportional, Integral, and Derivative action. Each block contributes a unique signal that is added together to create the controller output signal. - The proportional block creates an output signal proportional to the magnitude of the Error Signal. Unfortunately, the closer you get to the setpoint, the less it pushes. Eventually, the process just runs continuously close to the setpoint, but not quite there. - The integral block creates an output proportional to the duration and magnitude of the Error Signal. The longer the error and the greater the amount, the larger the integral output. As long as an Error exists, Integral action will continue. - The derivative block creates an output signal proportional to the rate of change of the error signal. The faster the error changes, the larger the derivative output. Derivative control looks ahead to see what the error will be in the future and contributes to the controller output accordingly. That brings us to a term called Controller Tuning. There are many different manual methods for tuning a controller that involves observing the process response after inflicting controller setpoint changes. One method involves increasing the amount of setpoint change and repeating the procedure until the process enters a state of steady-state oscillation. Most process controllers, PLC, and DCS loop controllers sold today have Autotuning capability. The PID controller learns how the process responds to a change in setpoint, and suggested PID settings. ============================= Get a RealPars pro membership: https://learn.realpars.com/bundles/pro ============================= Missed our most recent videos? Watch them here: https://realpars.com/fanuc-robot https://realpars.com/intrinsically-safe https://realpars.com/temperature-transmitter ============================= – What are PID Tuning Parameters? https://realpars.com/pid-tuning-parameters – PID Tuning | How to Tune a PID Controller https://realpars.com/pid-tuning ============================= TWEET THIS VIDEO: https://ctt.ac/M690b ============================= Follow us on Facebook ? https://www.facebook.com/therealpars Follow us on Twitter ? https://twitter.com/realpars Follow us on LinkedIn ? https://www.linkedin.com/company/realpars Follow us on Instagram ? https://www.instagram.com/realparsdotcom #RealPars #PID #IndustrialAutomation

? Want to learn industrial automation? Go here: http://realpars.com ? Want to train your team in industrial automation? Go here: http://realpars.com/business ? You can read the full post here https://realpars.com/pid-controller ?Timestamps: 00:00 - Intro 00:49 - Examples 02:21 - PID Controller 03:28 - PLC vs. stand-alone PID controller 03:59 - PID controller parameters 05:29 - Controller tuning 06:20 - Controller tuning methods ============================= In this video, we’re going to talk about the PID Controller and its transformation from a single station device to what it has evolved into today. We’re going to explain why PID Controllers are used in industrial processes. We’ll illustrate how Controller settings affect different processes under control. We’ll also provide an overview of Controller Tuning. Let’s start with a discussion about home temperature control. If the room temperature is below the setpoint, the furnace is turned ON. When the room temperature increases above the setpoint, the furnace turns OFF. This type of control is referred to as ON/OFF or Bang-Bang Control. The temperature is not exactly held at the setpoint of 70°F, but cycles above and below the setpoint. ON/OFF control may be ok for your house, but it is not ok for industrial processes or motion control. Let’s look at an example of tank level control to explain why. The Valve fills the tank as the pump drains it. If the valve is operated with ON/OFF control, the water will fluctuate around the 50% setpoint. For our purpose, let’s say the fluctuation is ±10%. In most industrial applications, this fluctuation around the setpoint is not acceptable. What if it’s possible to throttle the valve and place it in any position between ON and OFF? Let’s look at how a PID Controller fits into a feedback control loop. The Controller is responsible for ensuring that the Process remains as close to the desired value as possible regardless of various disruptions. The controller compares the Transmitter Process Variable (PV) signal, and the Setpoint. Let’s refer to the difference between the Process Variable and the Setpoint as the Error signal. Based on that comparison, the controller produces an output signal to operate the Final Control Element. This PID Controller output is capable of operating the Final Control Element over its entire 100% range. The PID controller determines how much and how quickly correction is applied by using varying amounts of Proportional, Integral, and Derivative action. Each block contributes a unique signal that is added together to create the controller output signal. - The proportional block creates an output signal proportional to the magnitude of the Error Signal. Unfortunately, the closer you get to the setpoint, the less it pushes. Eventually, the process just runs continuously close to the setpoint, but not quite there. - The integral block creates an output proportional to the duration and magnitude of the Error Signal. The longer the error and the greater the amount, the larger the integral output. As long as an Error exists, Integral action will continue. - The derivative block creates an output signal proportional to the rate of change of the error signal. The faster the error changes, the larger the derivative output. Derivative control looks ahead to see what the error will be in the future and contributes to the controller output accordingly. That brings us to a term called Controller Tuning. There are many different manual methods for tuning a controller that involves observing the process response after inflicting controller setpoint changes. One method involves increasing the amount of setpoint change and repeating the procedure until the process enters a state of steady-state oscillation. Most process controllers, PLC, and DCS loop controllers sold today have Autotuning capability. The PID controller learns how the process responds to a change in setpoint, and suggested PID settings. ============================= Get a RealPars pro membership: https://learn.realpars.com/bundles/pro ============================= Missed our most recent videos? Watch them here: https://realpars.com/fanuc-robot https://realpars.com/intrinsically-safe https://realpars.com/temperature-transmitter ============================= – What are PID Tuning Parameters? https://realpars.com/pid-tuning-parameters – PID Tuning | How to Tune a PID Controller https://realpars.com/pid-tuning ============================= TWEET THIS VIDEO: https://ctt.ac/M690b ============================= Follow us on Facebook ? https://www.facebook.com/therealpars Follow us on Twitter ? https://twitter.com/realpars Follow us on LinkedIn ? https://www.linkedin.com/company/realpars Follow us on Instagram ? https://www.instagram.com/realparsdotcom #RealPars #PID #IndustrialAutomation

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Chris Sistrunk discusses common industrial control system architectures ranging from standalone control systems, distributed control systems and SCADA systems.