Fernando Jr. Palacios’ Post

Collection of Comparsion in Instrumentation Field #instrumentation #instrumentationandcontrol #controlengineering  #engineering #engineer #engineers #automation #industrialautomation    What are the difference between DCS and SCADA? https://lnkd.in/gM5r-8X8 12 Differences between Capacitor and Battery https://lnkd.in/gZ5aT5Vj What is the difference between Analogue & Digital PID Control Systems? https://lnkd.in/gTngPau4

Collection of Comparsion in Instrumentation Field #instrumentation #instrumentationandcontrol #controlengineering  #engineering #engineer #engineers #automation #industrialautomation    What are the difference between DCS and SCADA? https://lnkd.in/ghZaFB8J 12 Differences between Capacitor and Battery https://lnkd.in/gpndi_eK What is the difference between Analogue & Digital PID Control Systems? https://lnkd.in/gAFK8p3G

SCADA systems are crucial for monitoring and controlling industrial processes. They play a key role in sectors like energy, water treatment, and manufacturing. As industries continue to digitize, the demand for SCADA professionals is on the rise. Career opportunities in SCADA include roles such as SCADA engineer, technician, and system integrator. Pursuing a career in SCADA can lead to a rewarding and in-demand profession with plenty of growth potential in the market. In partnership with PECB, we are offering their 5 day Lead SCADA Security Manager training course. On completion, you will: Understand and explain the purpose and risks to SCADA systems, Distributed Control Systems and Programmable Logic Controllers Understand the risks faced by these environments and the appropriate approaches to manage such risks Develop the expertise to support a pro-active SCADA Security program, including policies and vulnerability management Define and design network architecture incorporating defence in advanced security controls for SCADA Explain the relationship between management, operational and technical controls in a SCADA Security program Improve the ability to design resilient and high availability SCADA systems Learn how to manage a program of effective security testing activities For more information on the next enrolment, please email pecb-training@transquisiteconsulting.com #scadasecurity #training #scada #learninganddevelopment #careerdevelopment #professionaldevelopment #careergrowth #ITsecurity #datasecurity #data

🌟 Understanding SCADA and Its Role in Industrial Control Systems 🌟 SCADA (Supervisory Control and Data Acquisition) is a key player in industrial process management. It helps monitor and control equipment by providing real-time data, controlling processes remotely, and storing historical data for analysis. Here’s a quick overview of SCADA and how it differs from other control systems: 🔍 Key Features of SCADA: Real-time Monitoring: Keep tabs on process variables, alarms, and system status in real-time. Data Acquisition: Collect data from sensors, PLCs, and other devices. Control: Remotely control processes through the SCADA interface. Historical Data: Analyze and report on historical data trends. Alarming: Get notifications for any abnormal conditions or faults. 🛠️ SCADA vs. Other Control Systems: PLC (Programmable Logic Controller): Function: Directly controls machinery and processes. Focus: Manages automation tasks like turning valves or starting motors. Interaction with SCADA: SCADA systems often interface with PLCs for data collection and control commands. DCS (Distributed Control System): Function: Manages complex control processes in large industrial systems. Focus: Handles control at multiple levels within a plant. Interaction with SCADA: DCS focuses on continuous control, while SCADA provides a broader supervisory view. RTU (Remote Terminal Unit): Function: Monitors and controls equipment remotely. Focus: Manages data acquisition in isolated locations. Interaction with SCADA: RTUs transmit remote data to SCADA systems for centralized monitoring. In essence, SCADA systems offer a comprehensive view of industrial operations, working alongside PLCs, DCS, and RTUs to optimize and manage processes effectively. 🌐🔧 #IndustrialAutomation #SCADA #PLC #DCS #RTU #ControlSystems #Engineering

Scada Process Analysis

DIFFERENCE BETWEEN DCS ,PLC AND SCADA #instrumentation #instrumentationandcontrol #controlengineering  #engineering #engineer #plcprogramming #plc #plcprogramming #plcladderlogic #plcprogrammer #plctraining #plcsystem #plcs #plcsiemens #plcsystemforflourmillline #plcnext #scada #engineers #automation #industrialautomation #instrumentengineer  #instrumenttechnician #processengineering #processautomation #industrialengineering #engineering #industrialengineering #processinstrumentation   

🔌Day 12 of learning electrical skills until I get a job. 🔌 Current Focus: SCADA  Mastering the basics of SCADA (Supervisory Control and Data Acquisition) Designing and implementing Logic 🔌 Location Property in SCADA Part 2 Location property is used in Scada for different purposes, such as: 1) Defining the physical location of a data point in the process model. 2) Defining the logical location of a process node in the control model. 3) Specifying that an object has to be located at a specific physical site. Join me on this exciting journey as I share my progress, insights, and achievements. If you have any tips, resources, or opportunities, I'd love to connect! #ElectricalEngineering  #PLCLadderProgramming  #CareerGoals  #ContinuousLearning  #JobSearchJourney  #SCADA  #Wonderware  #Learnvern  @Siemens @RockwellAutomation @SchneiderElectric @ABB @MitsubishiElectric @Honeywell @EmersonElectric @GeneralElectric @Yokogawa @DeltaElectronics @Omron @BeckhoffAutomation @ABBIndia @BoschRexroth @L&TElectrical&Automation

📌 Migrating a plant from PLC automation to DCS automation 📌 This involves transitioning from a more localized control system to a more integrated and distributed one. While both systems serve the purpose of controlling industrial processes, there are several challenges associated with this transition: ✅ System Complexity: DCS systems are generally more complex than PLC systems. Managing this complexity can be a challenge, especially for those accustomed to the simplicity of PLC projects. ✅ Engineering and Configuration: As compared to PLC projects, DCS systems may require extensive programming, which can be time-consuming and may demand a different skill set. This may also need additional training to understand the concepts of distributed control. ✅ Standardization and Interoperability: As compared to PLC, in a DCS environment, achieving standardization and interoperability across different subsystems can be a challenge. ✅ Project Scale and Cost: DCS projects are typically larger in scale and may involve higher costs compared to PLC projects. ✅ Maintenance and Support: Ensuring that the maintenance team is equipped with the necessary skills for troubleshooting in DCS is essential since the maintenance practices for DCS systems may differ from those for PLCs. ✅ Redundancy and Reliability: DCS systems often provide high levels of redundancy and reliability. However, designing, implementing, and maintaining these features require careful consideration and expertise. ✅ Legacy System Integration: If there are existing PLC systems or legacy equipment, integrating them with a new DCS can be challenging. Compatibility issues and the need for appropriate communication protocols must be addressed. If done through proper planning, adequate training and leveraging the expertise of experienced DCS professionals, this migration to DCS automation can be beneficial in improving the overall efficiency of the plant. Note - Above text is my own understanding of the subject based on information available in public domain and past project experiences. #processautomation #industrialautomation #PLC #DCS