SlideShare a Scribd company logo
1 of 31
Control Systems Training - Session 01
Introduction to Industrial Automation
Page 2Classification: Restricted
Agenda
• Self Introduction.
• What does control system, industrial automation mean?
• What is your expectation from this course?
Page 3Classification: Restricted
Introduction to Control Systems Training
• What can be inferred about of different industries.
• Size( Geographical Extent).
• Complexity of Operation.
• Type of Industry
• Assembling to Product
• Raw material to Product/Products
• How is the process done?
• Consequences of Failure.
Page 4Classification: Restricted
Introduction to Control Systems Training
• What is the expectation from these industries.
• Quality and Quantity
• Efficiency and Proficiency
• Fail safe conditions
• Shutdown and consequences
• Value of industry and products
• The answer to these expectations leads to a general question of how? and
what?
• This leads to the topics which we would be seeing in the forthcoming classes.
Page 5Classification: Restricted
Introduction to Control Systems Training
Page 6Classification: Restricted
Introduction to Control Systems Training
Page 7Classification: Restricted
Introduction to Control Systems Training
Page 8Classification: Restricted
Introduction to Control Systems Training
Page 9Classification: Restricted
Introduction to Control Systems Training
• Project : Small scale preliminary study, programming and designing in order
to understand and improve upon the knowledge of actual industries and
their functioning. This requires the involvement and interest of the students.
Page 10Classification: Restricted
Introduction to Control Systems Training
Petrochemical Plant Power Plant
Page 11Classification: Restricted
Introduction to Control Systems Training
Food processing industry Assembling industry
Page 12Classification: Restricted
Introduction to Control Systems Training
• From the above pictures we saw there were two kinds of manufacturing
happening
• The first one being a process manufacturing.
• The second being a discrete manufacturing.
• Discrete manufacturing
• Discrete manufacturing is an industry term for the manufacturing of
finished products that are distinct items capable of being easily
counted, touched or seen. In theory, a discrete product can be broken
down at the end of its lifecycle so its basic components can be recycled.
An automobile is a product of discrete manufacturing.
• Process manufacturing
• In process manufacturing, the product is created by using a formula or
recipe to refine raw ingredients and the final product cannot be broken
down to its basic components. Process manufacturing industries include
chemicals, food and beverage, gasoline, paint and pharmaceutical.
Page 13Classification: Restricted
Introduction to Control Systems Training
• Discrete manufacturing is all about assembling things, and making things that
are exact.
• The products are typically manufactured in individually defined lots.
• The sequence of work centers through production varying for each one of
these.
• Thus in discrete manufacturing, the product is made by sequential steps
made in the same process or by the same craftsman.
• Discrete manufacturing based on the production orders and products change
frequently from order to order.
• Discrete manufacturers are making a finished good that may have screws,
nuts, handles, etc. that can be taken apart and used on something else if
need be.
• In discrete manufacturing, the manufacturing floor works on shop orders to
build something. The individual products are easily identifiable.
Page 14Classification: Restricted
Introduction to Control Systems Training
• Process Manufacturing is when you have a product that requires a set of
processes to be finished, each process in turn has certain needs.
• Thus each process is separated from the other while planning and setting the
Manufacturing requirements to ensure that the individual processes are
better controlled and maintained if they are dealt separately.
• Process manufacturers build something that cannot be taken apart,
technically you can take the mix out of the container and reuse the container,
but you can’t take the ingredients out of the finished goods produced.
• This makes process manufacturers ‘process’ or formula based.
• In process manufacturing, you can’t tell the difference between one product
and another.
Page 15Classification: Restricted
Introduction to Control Systems Training
Discrete Manufacturing- Car Assembling Process
Page 16Classification: Restricted
Introduction to Control Systems Training
Process Manufacturing- Oil and Gas Refinery
Page 17Classification: Restricted
INDUSTRIAL AUTOMATION
• When we look at both the above industries it becomes clear that lot of
complex processes have to be done with accuracy and precision.
• Thus it is going to be a labour intensive task if it’s a manually operated
industry.
• Also the risk for manual labors also rises in case of process industries due to
the usage of chemicals and the condition of parameters(temperature,
pressure, flow, etc..) which are controlled.
• Due to some of the above mentioned factors and other such factors,
industries have long been looking for alternative techniques where in the
process can be done accurately resulting in better quality of products as well
as providing safe work environment.
• This requirement led to the replacement of humans with various control
equipments to control the process. This is called as industrial automation.
Page 18Classification: Restricted
INDUSTRIAL AUTOMATION
• Industrial Automation: The topic has two word namely Industry and
Automation.
• Industry: An industry is a group of manufacturers or businesses that
produce a particular kind of goods or services.
• Automation: The word Automation is derived from the Greek words
‘Auto’ and ‘Matos’ where auto means self while Matos means moving
which gives the meaning ‘self dictating’ or ‘a mechanism moved by itself’.
• Industrial automation can be defined as the use of set technologies and
automatic control devices that results the automatic operation and control
of industrial processes without significant human intervention and
achieving superior performance than manual control.
Page 19Classification: Restricted
INDUSTRIAL AUTOMATION
• To understand the above definition better let us look into an example of a
process .
• In most of the industries there is a requirement of hot water for various
purposes , in our case we will look to the supply of water to a number of
cleaning stations, where the water temperature needs to be kept constant in
spite of the demand.
Page 20Classification: Restricted
INDUSTRIAL AUTOMATION
• Process: Steam and cold water are fed into a heat exchanger, where heat
from the steam is used to bring the cold water to the required working
temperature. A thermometer is used to measure the temperature of the
water from the process or exchanger.
• How would you maintain the water at the defined temperature irrespective
of the changes in the demand of water at outlet.
• If the temperature has to be maintained there should be a constant
monitoring of the thermometer and adjustment of the steam flow.
• This can be done by two ways : the earlier manual control and the automated
control.
Page 21Classification: Restricted
INDUSTRIAL AUTOMATION
• In manual control the temperature is observed by an operator who adjusts
the flow of steam into the heat exchanger to keep the water flowing from the
heat exchanger at the constant set temperature.
• In automatic control the output variable is sensed and the amplitude of the
output parameter is compared to the desired or set level and an error signal
is sent to controller and the corrective signal is sent to control the process at
desired condition.
• In our case steam a temperature sensor is attached to the outlet pipe, it
senses the temperature of the water flowing. As the demand for hot water
increases or decreases, a change in the water temperature is sensed and
converted to an electrical signal, amplified, and sent to a controller that
evaluates the signal and sends a correction signal to an actuator. The
actuator adjusts the flow of steam to the heat exchanger to keep the
temperature of the water at its predetermined value.
Page 22Classification: Restricted
INDUSTRIAL AUTOMATION
This is how the manual control to automated control changes occur in the
industries.
The thermometer is replaced by a sensor which produces electrical signal.
• The human response is provided by a controller.
Page 23Classification: Restricted
INDUSTRIAL AUTOMATION
ADVANTAGES OF INDUSTRIAL AUTOMATION: The following are seen as the
advantages when industry is automated.
• High productivity: Automation of factory or manufacturing or process
plant improves production rate through a better control of production.
With manual control of the production line there is always a requirement
to have some down time to ensure effective working of work force.
Where as the automated control systems will be able to work for long
hours without compromising on accuracy. Hence increased productivity
and efficiency per hour of labor input.
• High Quality: The automation system performs operations with greater
conformity and uniformity to the quality specifications once it is designed
and programmed. Thus by using the automation systems, industrial
processes are controlled and monitored at all stages in order to produce a
qualitative end product.
Page 24Classification: Restricted
INDUSTRIAL AUTOMATION
• High flexibility: When making changes or upgrading task is done humans
require training but, robots can be programmed to do any task. This
makes the manufacturing process more flexible.
• High Information Accuracy: The automated systems are enabled with
easy data collection techniques, which allows us to collect key production
information, improve data accuracy, and reduce data collection costs.
This provides with the facts to make the right decisions enabling in
reducing waste and improving processes.
• High safety: Work environment is made safer by transferring the workers
from an on location role in the process to the supervising role. The
automated machines designed to work in the hazardous environments
and other extreme environments. Industrial automation makes the
production line safe for the employees by deploying robots to handle
hazardous conditions.
Page 25Classification: Restricted
INDUSTRIAL AUTOMATION
LAYERS OF AUTOMATION
Industrial automation can be complex in nature, they have large number of
devices working in synchronization with automation technologies. The figure
below describes the hierarchical arrangement of an automation system.
Page 26Classification: Restricted
INDUSTRIAL AUTOMATION
FIELD LEVEL
This is the lowest level of the automation hierarchy, which includes the field
devices like sensors and actuators. The main task of these field devices is to
transfer the data of processes and machines to the next higher level for
monitoring and analysis.
Sensors convert the real time parameters like temperature, pressure, flow,
level, etc into electrical signals. The sensor data is transferred to the
controller to monitor and analyze the real time parameters. Sensors include
thermocouple, proximity sensors, RTDs, flow meters, etc.
Actuators converts the electrical signals from the controllers into
mechanical means to control the processes. Flow control valves, solenoid
valves, pneumatic actuators, relays, DC motors and servo motors are the
examples of actuators.
Page 27Classification: Restricted
INDUSTRIAL AUTOMATION
CONTROL LEVEL
• The control level consists of various automation devices like CNC machines,
PLCs, DCSs, etc., which acquires the process parameters from various sensors.
The automatic controllers drive the actuators based on the processed sensor
signals and program or control technique.
• Programmable Logic Controllers (PLCs) are the most widely used robust
industrial controllers which are capable of delivering automatic control
functions based on inputs from sensors and the programs downloaded into
the PLC.
• DCS is the advanced or more integrated controller used for large process
industries.
Page 28Classification: Restricted
INDUSTRIAL AUTOMATION
SUPERVISING AND PRODUCTION CONTROL LEVEL
• In this level, automatic devices and monitoring system facilitates, the
continuous viewing (supervising) of the process and also provides for
controlling and intervening functions like Human Machine Interface (HMI).
• These systems enable supervising various parameters, setting production
targets, historical archiving, setting machine start and shutdown, etc.
• Mostly, either Distribution Control System (DCS) or Supervisory Control and
Data Acquisition (SCADA) and HMIs are popularly used in this level.
Page 29Classification: Restricted
INDUSTRIAL AUTOMATION
INFORMATION OR ENTERPRISE LEVEL
• This is the top most level of the industrial automation which manages the
whole automation system. The tasks of this level include production planning,
customer and market analysis, orders and sales, etc. So it deals more with
commercial activities and less with technical aspects.
• Industrial communication networks are most prominent in industrial
automation systems, they transfer the information from one level to the
other. So these are present in all the levels of automation system to provide
continuous flow of information. The communication network can vary from
one level to the other. Example of some of these networks include RS485,
CAN, DeviceNet, Foundation Field bus, Profibus, Ethernet etc.
Page 30Classification: Restricted
INDUSTRIAL AUTOMATION
In this hierarchy there is continuous information flow from high level to low
level and vice-versa. This can be represented in graphical way, like a pyramid
in which as we go up, the information gets aggregated and while going down,
we get detailed information about the process.
Page 31Classification: Restricted
Thank You!

More Related Content

What's hot

Single area load frequency control by using pi,fuzzy logic control1
Single area load frequency control by using pi,fuzzy logic control1Single area load frequency control by using pi,fuzzy logic control1
Single area load frequency control by using pi,fuzzy logic control1
SAI SREE
 
Automation with plc & scada
Automation with plc & scadaAutomation with plc & scada
Automation with plc & scada
MNIT Jaipur
 

What's hot (20)

Scada and power system automation
Scada and power system automationScada and power system automation
Scada and power system automation
 
Industrial Automation (PLC, SCADA & HMI) by Nilesh Jha
Industrial Automation (PLC, SCADA & HMI) by Nilesh JhaIndustrial Automation (PLC, SCADA & HMI) by Nilesh Jha
Industrial Automation (PLC, SCADA & HMI) by Nilesh Jha
 
PLC - Programmable Logic Controller
PLC - Programmable Logic ControllerPLC - Programmable Logic Controller
PLC - Programmable Logic Controller
 
Plc seminar abu
Plc seminar    abuPlc seminar    abu
Plc seminar abu
 
Single area load frequency control by using pi,fuzzy logic control1
Single area load frequency control by using pi,fuzzy logic control1Single area load frequency control by using pi,fuzzy logic control1
Single area load frequency control by using pi,fuzzy logic control1
 
Industrial Training on PLC SCADA HMI for fresher engineers
Industrial Training on PLC SCADA HMI for fresher engineersIndustrial Training on PLC SCADA HMI for fresher engineers
Industrial Training on PLC SCADA HMI for fresher engineers
 
Automation with plc & scada
Automation with plc & scadaAutomation with plc & scada
Automation with plc & scada
 
AUTOMATION ,SCADA AND POWER SYSTEM AUTOMATION
AUTOMATION ,SCADA AND POWER SYSTEM AUTOMATIONAUTOMATION ,SCADA AND POWER SYSTEM AUTOMATION
AUTOMATION ,SCADA AND POWER SYSTEM AUTOMATION
 
REPORT ON INDUSTRIAL AUTOMATION
REPORT ON INDUSTRIAL AUTOMATIONREPORT ON INDUSTRIAL AUTOMATION
REPORT ON INDUSTRIAL AUTOMATION
 
History of Automation and Process Introduction
History of Automation and Process IntroductionHistory of Automation and Process Introduction
History of Automation and Process Introduction
 
Scada ppt
Scada  pptScada  ppt
Scada ppt
 
SCADA System ? Supervisory Control & Data Acquisition
SCADA System ? Supervisory Control & Data AcquisitionSCADA System ? Supervisory Control & Data Acquisition
SCADA System ? Supervisory Control & Data Acquisition
 
automation plc - scada
automation plc - scadaautomation plc - scada
automation plc - scada
 
PPT on INDUSTRIAL AUTOMATION, PLC, SCADA
 PPT on INDUSTRIAL AUTOMATION, PLC, SCADA PPT on INDUSTRIAL AUTOMATION, PLC, SCADA
PPT on INDUSTRIAL AUTOMATION, PLC, SCADA
 
INDUSTRIAL AUTOMATION USING PLC
INDUSTRIAL AUTOMATION USING PLCINDUSTRIAL AUTOMATION USING PLC
INDUSTRIAL AUTOMATION USING PLC
 
Wide area monitoring, protection and control in future smart grid
Wide area monitoring, protection and control in future smart gridWide area monitoring, protection and control in future smart grid
Wide area monitoring, protection and control in future smart grid
 
Power system automation
Power system automationPower system automation
Power system automation
 
Introduction to SCADA
Introduction to SCADAIntroduction to SCADA
Introduction to SCADA
 
Firing angle control
Firing angle controlFiring angle control
Firing angle control
 
Flexible ac transmission system
Flexible ac transmission systemFlexible ac transmission system
Flexible ac transmission system
 

Similar to Session 01 - Introduction to Industrial Automation

01-K-I-Ahmad-AIP.ppt
01-K-I-Ahmad-AIP.ppt01-K-I-Ahmad-AIP.ppt
01-K-I-Ahmad-AIP.ppt
HarinathC5
 
Chapter 1 introduction to automation
Chapter 1   introduction  to automationChapter 1   introduction  to automation
Chapter 1 introduction to automation
Mohamad Sahiedan
 

Similar to Session 01 - Introduction to Industrial Automation (20)

Introduction to Industrial Automation - 2
Introduction to Industrial Automation - 2Introduction to Industrial Automation - 2
Introduction to Industrial Automation - 2
 
Session 02 - Introduction to Industrial Automation
Session 02 - Introduction to Industrial AutomationSession 02 - Introduction to Industrial Automation
Session 02 - Introduction to Industrial Automation
 
Session 03 - History of Automation and Process Introduction
Session 03 - History of Automation and Process IntroductionSession 03 - History of Automation and Process Introduction
Session 03 - History of Automation and Process Introduction
 
Concept of production
Concept of productionConcept of production
Concept of production
 
Introduction to Automation.ppt
Introduction to Automation.pptIntroduction to Automation.ppt
Introduction to Automation.ppt
 
01-K-I-Ahmad-AIP.ppt
01-K-I-Ahmad-AIP.ppt01-K-I-Ahmad-AIP.ppt
01-K-I-Ahmad-AIP.ppt
 
Automation Notes on Manufacturing in Industries.ppt
Automation Notes on Manufacturing in Industries.pptAutomation Notes on Manufacturing in Industries.ppt
Automation Notes on Manufacturing in Industries.ppt
 
Chapter 1 introduction to automation
Chapter 1   introduction  to automationChapter 1   introduction  to automation
Chapter 1 introduction to automation
 
Production and Operations Management.pptx
Production and Operations Management.pptxProduction and Operations Management.pptx
Production and Operations Management.pptx
 
UNIT-I SYLABUS-2.ppt
UNIT-I SYLABUS-2.pptUNIT-I SYLABUS-2.ppt
UNIT-I SYLABUS-2.ppt
 
Chapter 6-Process Selection and Facility Layout.pptx
Chapter 6-Process Selection and Facility Layout.pptxChapter 6-Process Selection and Facility Layout.pptx
Chapter 6-Process Selection and Facility Layout.pptx
 
Manufacturing Methods / Production Techniques
Manufacturing Methods / Production TechniquesManufacturing Methods / Production Techniques
Manufacturing Methods / Production Techniques
 
Production management
Production managementProduction management
Production management
 
2.1 cControl systems
2.1 cControl systems2.1 cControl systems
2.1 cControl systems
 
Types of Manufacturing system
Types of Manufacturing systemTypes of Manufacturing system
Types of Manufacturing system
 
Production system
Production systemProduction system
Production system
 
final Production
 final Production  final Production
final Production
 
Production and operation management
Production and operation managementProduction and operation management
Production and operation management
 
Production and Operation Management.pptx
Production and Operation Management.pptxProduction and Operation Management.pptx
Production and Operation Management.pptx
 
Unit 1-automation of assembly lines
Unit 1-automation of assembly linesUnit 1-automation of assembly lines
Unit 1-automation of assembly lines
 

More from VidyaIA

More from VidyaIA (11)

Session 25 - Documentation
Session 25 - DocumentationSession 25 - Documentation
Session 25 - Documentation
 
Session 24 - Control Systems
Session 24 - Control SystemsSession 24 - Control Systems
Session 24 - Control Systems
 
Session 23 - Communication Protocols
Session 23 -  Communication ProtocolsSession 23 -  Communication Protocols
Session 23 - Communication Protocols
 
Session 21 - DCS Introduction
Session 21 - DCS IntroductionSession 21 - DCS Introduction
Session 21 - DCS Introduction
 
Session 17 - SCADA Introduction
Session 17 - SCADA IntroductionSession 17 - SCADA Introduction
Session 17 - SCADA Introduction
 
Session 09 - PLC Programming Questions
Session 09 - PLC Programming QuestionsSession 09 - PLC Programming Questions
Session 09 - PLC Programming Questions
 
Session 08 - PLC Programming Introduction
Session 08 - PLC Programming IntroductionSession 08 - PLC Programming Introduction
Session 08 - PLC Programming Introduction
 
Session 07 - PLC Architecture
Session 07 - PLC ArchitectureSession 07 - PLC Architecture
Session 07 - PLC Architecture
 
Session 06 - Instruments - Part 2
Session 06 - Instruments - Part 2Session 06 - Instruments - Part 2
Session 06 - Instruments - Part 2
 
Session 05 - Instruments - Introduction
Session 05 - Instruments - IntroductionSession 05 - Instruments - Introduction
Session 05 - Instruments - Introduction
 
Session 04 - Instruments - Introduction
Session 04 - Instruments - IntroductionSession 04 - Instruments - Introduction
Session 04 - Instruments - Introduction
 

Recently uploaded

Cloud Frontiers: A Deep Dive into Serverless Spatial Data and FME
Cloud Frontiers:  A Deep Dive into Serverless Spatial Data and FMECloud Frontiers:  A Deep Dive into Serverless Spatial Data and FME
Cloud Frontiers: A Deep Dive into Serverless Spatial Data and FME
Safe Software
 
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
?#DUbAI#??##{{(☎️+971_581248768%)**%*]'#abortion pills for sale in dubai@
 

Recently uploaded (20)

CNIC Information System with Pakdata Cf In Pakistan
CNIC Information System with Pakdata Cf In PakistanCNIC Information System with Pakdata Cf In Pakistan
CNIC Information System with Pakdata Cf In Pakistan
 
API Governance and Monetization - The evolution of API governance
API Governance and Monetization -  The evolution of API governanceAPI Governance and Monetization -  The evolution of API governance
API Governance and Monetization - The evolution of API governance
 
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
 
Strategies for Landing an Oracle DBA Job as a Fresher
Strategies for Landing an Oracle DBA Job as a FresherStrategies for Landing an Oracle DBA Job as a Fresher
Strategies for Landing an Oracle DBA Job as a Fresher
 
Cloud Frontiers: A Deep Dive into Serverless Spatial Data and FME
Cloud Frontiers:  A Deep Dive into Serverless Spatial Data and FMECloud Frontiers:  A Deep Dive into Serverless Spatial Data and FME
Cloud Frontiers: A Deep Dive into Serverless Spatial Data and FME
 
Modernizing Legacy Systems Using Ballerina
Modernizing Legacy Systems Using BallerinaModernizing Legacy Systems Using Ballerina
Modernizing Legacy Systems Using Ballerina
 
Quantum Leap in Next-Generation Computing
Quantum Leap in Next-Generation ComputingQuantum Leap in Next-Generation Computing
Quantum Leap in Next-Generation Computing
 
Decarbonising Commercial Real Estate: The Role of Operational Performance
Decarbonising Commercial Real Estate: The Role of Operational PerformanceDecarbonising Commercial Real Estate: The Role of Operational Performance
Decarbonising Commercial Real Estate: The Role of Operational Performance
 
[BuildWithAI] Introduction to Gemini.pdf
[BuildWithAI] Introduction to Gemini.pdf[BuildWithAI] Introduction to Gemini.pdf
[BuildWithAI] Introduction to Gemini.pdf
 
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
 
Less Is More: Utilizing Ballerina to Architect a Cloud Data Platform
Less Is More: Utilizing Ballerina to Architect a Cloud Data PlatformLess Is More: Utilizing Ballerina to Architect a Cloud Data Platform
Less Is More: Utilizing Ballerina to Architect a Cloud Data Platform
 
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdfRising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
 
Navigating the Deluge_ Dubai Floods and the Resilience of Dubai International...
Navigating the Deluge_ Dubai Floods and the Resilience of Dubai International...Navigating the Deluge_ Dubai Floods and the Resilience of Dubai International...
Navigating the Deluge_ Dubai Floods and the Resilience of Dubai International...
 
Understanding the FAA Part 107 License ..
Understanding the FAA Part 107 License ..Understanding the FAA Part 107 License ..
Understanding the FAA Part 107 License ..
 
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
+971581248768>> SAFE AND ORIGINAL ABORTION PILLS FOR SALE IN DUBAI AND ABUDHA...
 
AI in Action: Real World Use Cases by Anitaraj
AI in Action: Real World Use Cases by AnitarajAI in Action: Real World Use Cases by Anitaraj
AI in Action: Real World Use Cases by Anitaraj
 
TrustArc Webinar - Unlock the Power of AI-Driven Data Discovery
TrustArc Webinar - Unlock the Power of AI-Driven Data DiscoveryTrustArc Webinar - Unlock the Power of AI-Driven Data Discovery
TrustArc Webinar - Unlock the Power of AI-Driven Data Discovery
 
Corporate and higher education May webinar.pptx
Corporate and higher education May webinar.pptxCorporate and higher education May webinar.pptx
Corporate and higher education May webinar.pptx
 
Exploring Multimodal Embeddings with Milvus
Exploring Multimodal Embeddings with MilvusExploring Multimodal Embeddings with Milvus
Exploring Multimodal Embeddings with Milvus
 
Artificial Intelligence Chap.5 : Uncertainty
Artificial Intelligence Chap.5 : UncertaintyArtificial Intelligence Chap.5 : Uncertainty
Artificial Intelligence Chap.5 : Uncertainty
 

Session 01 - Introduction to Industrial Automation

  • 1. Control Systems Training - Session 01 Introduction to Industrial Automation
  • 2. Page 2Classification: Restricted Agenda • Self Introduction. • What does control system, industrial automation mean? • What is your expectation from this course?
  • 3. Page 3Classification: Restricted Introduction to Control Systems Training • What can be inferred about of different industries. • Size( Geographical Extent). • Complexity of Operation. • Type of Industry • Assembling to Product • Raw material to Product/Products • How is the process done? • Consequences of Failure.
  • 4. Page 4Classification: Restricted Introduction to Control Systems Training • What is the expectation from these industries. • Quality and Quantity • Efficiency and Proficiency • Fail safe conditions • Shutdown and consequences • Value of industry and products • The answer to these expectations leads to a general question of how? and what? • This leads to the topics which we would be seeing in the forthcoming classes.
  • 5. Page 5Classification: Restricted Introduction to Control Systems Training
  • 6. Page 6Classification: Restricted Introduction to Control Systems Training
  • 7. Page 7Classification: Restricted Introduction to Control Systems Training
  • 8. Page 8Classification: Restricted Introduction to Control Systems Training
  • 9. Page 9Classification: Restricted Introduction to Control Systems Training • Project : Small scale preliminary study, programming and designing in order to understand and improve upon the knowledge of actual industries and their functioning. This requires the involvement and interest of the students.
  • 10. Page 10Classification: Restricted Introduction to Control Systems Training Petrochemical Plant Power Plant
  • 11. Page 11Classification: Restricted Introduction to Control Systems Training Food processing industry Assembling industry
  • 12. Page 12Classification: Restricted Introduction to Control Systems Training • From the above pictures we saw there were two kinds of manufacturing happening • The first one being a process manufacturing. • The second being a discrete manufacturing. • Discrete manufacturing • Discrete manufacturing is an industry term for the manufacturing of finished products that are distinct items capable of being easily counted, touched or seen. In theory, a discrete product can be broken down at the end of its lifecycle so its basic components can be recycled. An automobile is a product of discrete manufacturing. • Process manufacturing • In process manufacturing, the product is created by using a formula or recipe to refine raw ingredients and the final product cannot be broken down to its basic components. Process manufacturing industries include chemicals, food and beverage, gasoline, paint and pharmaceutical.
  • 13. Page 13Classification: Restricted Introduction to Control Systems Training • Discrete manufacturing is all about assembling things, and making things that are exact. • The products are typically manufactured in individually defined lots. • The sequence of work centers through production varying for each one of these. • Thus in discrete manufacturing, the product is made by sequential steps made in the same process or by the same craftsman. • Discrete manufacturing based on the production orders and products change frequently from order to order. • Discrete manufacturers are making a finished good that may have screws, nuts, handles, etc. that can be taken apart and used on something else if need be. • In discrete manufacturing, the manufacturing floor works on shop orders to build something. The individual products are easily identifiable.
  • 14. Page 14Classification: Restricted Introduction to Control Systems Training • Process Manufacturing is when you have a product that requires a set of processes to be finished, each process in turn has certain needs. • Thus each process is separated from the other while planning and setting the Manufacturing requirements to ensure that the individual processes are better controlled and maintained if they are dealt separately. • Process manufacturers build something that cannot be taken apart, technically you can take the mix out of the container and reuse the container, but you can’t take the ingredients out of the finished goods produced. • This makes process manufacturers ‘process’ or formula based. • In process manufacturing, you can’t tell the difference between one product and another.
  • 15. Page 15Classification: Restricted Introduction to Control Systems Training Discrete Manufacturing- Car Assembling Process
  • 16. Page 16Classification: Restricted Introduction to Control Systems Training Process Manufacturing- Oil and Gas Refinery
  • 17. Page 17Classification: Restricted INDUSTRIAL AUTOMATION • When we look at both the above industries it becomes clear that lot of complex processes have to be done with accuracy and precision. • Thus it is going to be a labour intensive task if it’s a manually operated industry. • Also the risk for manual labors also rises in case of process industries due to the usage of chemicals and the condition of parameters(temperature, pressure, flow, etc..) which are controlled. • Due to some of the above mentioned factors and other such factors, industries have long been looking for alternative techniques where in the process can be done accurately resulting in better quality of products as well as providing safe work environment. • This requirement led to the replacement of humans with various control equipments to control the process. This is called as industrial automation.
  • 18. Page 18Classification: Restricted INDUSTRIAL AUTOMATION • Industrial Automation: The topic has two word namely Industry and Automation. • Industry: An industry is a group of manufacturers or businesses that produce a particular kind of goods or services. • Automation: The word Automation is derived from the Greek words ‘Auto’ and ‘Matos’ where auto means self while Matos means moving which gives the meaning ‘self dictating’ or ‘a mechanism moved by itself’. • Industrial automation can be defined as the use of set technologies and automatic control devices that results the automatic operation and control of industrial processes without significant human intervention and achieving superior performance than manual control.
  • 19. Page 19Classification: Restricted INDUSTRIAL AUTOMATION • To understand the above definition better let us look into an example of a process . • In most of the industries there is a requirement of hot water for various purposes , in our case we will look to the supply of water to a number of cleaning stations, where the water temperature needs to be kept constant in spite of the demand.
  • 20. Page 20Classification: Restricted INDUSTRIAL AUTOMATION • Process: Steam and cold water are fed into a heat exchanger, where heat from the steam is used to bring the cold water to the required working temperature. A thermometer is used to measure the temperature of the water from the process or exchanger. • How would you maintain the water at the defined temperature irrespective of the changes in the demand of water at outlet. • If the temperature has to be maintained there should be a constant monitoring of the thermometer and adjustment of the steam flow. • This can be done by two ways : the earlier manual control and the automated control.
  • 21. Page 21Classification: Restricted INDUSTRIAL AUTOMATION • In manual control the temperature is observed by an operator who adjusts the flow of steam into the heat exchanger to keep the water flowing from the heat exchanger at the constant set temperature. • In automatic control the output variable is sensed and the amplitude of the output parameter is compared to the desired or set level and an error signal is sent to controller and the corrective signal is sent to control the process at desired condition. • In our case steam a temperature sensor is attached to the outlet pipe, it senses the temperature of the water flowing. As the demand for hot water increases or decreases, a change in the water temperature is sensed and converted to an electrical signal, amplified, and sent to a controller that evaluates the signal and sends a correction signal to an actuator. The actuator adjusts the flow of steam to the heat exchanger to keep the temperature of the water at its predetermined value.
  • 22. Page 22Classification: Restricted INDUSTRIAL AUTOMATION This is how the manual control to automated control changes occur in the industries. The thermometer is replaced by a sensor which produces electrical signal. • The human response is provided by a controller.
  • 23. Page 23Classification: Restricted INDUSTRIAL AUTOMATION ADVANTAGES OF INDUSTRIAL AUTOMATION: The following are seen as the advantages when industry is automated. • High productivity: Automation of factory or manufacturing or process plant improves production rate through a better control of production. With manual control of the production line there is always a requirement to have some down time to ensure effective working of work force. Where as the automated control systems will be able to work for long hours without compromising on accuracy. Hence increased productivity and efficiency per hour of labor input. • High Quality: The automation system performs operations with greater conformity and uniformity to the quality specifications once it is designed and programmed. Thus by using the automation systems, industrial processes are controlled and monitored at all stages in order to produce a qualitative end product.
  • 24. Page 24Classification: Restricted INDUSTRIAL AUTOMATION • High flexibility: When making changes or upgrading task is done humans require training but, robots can be programmed to do any task. This makes the manufacturing process more flexible. • High Information Accuracy: The automated systems are enabled with easy data collection techniques, which allows us to collect key production information, improve data accuracy, and reduce data collection costs. This provides with the facts to make the right decisions enabling in reducing waste and improving processes. • High safety: Work environment is made safer by transferring the workers from an on location role in the process to the supervising role. The automated machines designed to work in the hazardous environments and other extreme environments. Industrial automation makes the production line safe for the employees by deploying robots to handle hazardous conditions.
  • 25. Page 25Classification: Restricted INDUSTRIAL AUTOMATION LAYERS OF AUTOMATION Industrial automation can be complex in nature, they have large number of devices working in synchronization with automation technologies. The figure below describes the hierarchical arrangement of an automation system.
  • 26. Page 26Classification: Restricted INDUSTRIAL AUTOMATION FIELD LEVEL This is the lowest level of the automation hierarchy, which includes the field devices like sensors and actuators. The main task of these field devices is to transfer the data of processes and machines to the next higher level for monitoring and analysis. Sensors convert the real time parameters like temperature, pressure, flow, level, etc into electrical signals. The sensor data is transferred to the controller to monitor and analyze the real time parameters. Sensors include thermocouple, proximity sensors, RTDs, flow meters, etc. Actuators converts the electrical signals from the controllers into mechanical means to control the processes. Flow control valves, solenoid valves, pneumatic actuators, relays, DC motors and servo motors are the examples of actuators.
  • 27. Page 27Classification: Restricted INDUSTRIAL AUTOMATION CONTROL LEVEL • The control level consists of various automation devices like CNC machines, PLCs, DCSs, etc., which acquires the process parameters from various sensors. The automatic controllers drive the actuators based on the processed sensor signals and program or control technique. • Programmable Logic Controllers (PLCs) are the most widely used robust industrial controllers which are capable of delivering automatic control functions based on inputs from sensors and the programs downloaded into the PLC. • DCS is the advanced or more integrated controller used for large process industries.
  • 28. Page 28Classification: Restricted INDUSTRIAL AUTOMATION SUPERVISING AND PRODUCTION CONTROL LEVEL • In this level, automatic devices and monitoring system facilitates, the continuous viewing (supervising) of the process and also provides for controlling and intervening functions like Human Machine Interface (HMI). • These systems enable supervising various parameters, setting production targets, historical archiving, setting machine start and shutdown, etc. • Mostly, either Distribution Control System (DCS) or Supervisory Control and Data Acquisition (SCADA) and HMIs are popularly used in this level.
  • 29. Page 29Classification: Restricted INDUSTRIAL AUTOMATION INFORMATION OR ENTERPRISE LEVEL • This is the top most level of the industrial automation which manages the whole automation system. The tasks of this level include production planning, customer and market analysis, orders and sales, etc. So it deals more with commercial activities and less with technical aspects. • Industrial communication networks are most prominent in industrial automation systems, they transfer the information from one level to the other. So these are present in all the levels of automation system to provide continuous flow of information. The communication network can vary from one level to the other. Example of some of these networks include RS485, CAN, DeviceNet, Foundation Field bus, Profibus, Ethernet etc.
  • 30. Page 30Classification: Restricted INDUSTRIAL AUTOMATION In this hierarchy there is continuous information flow from high level to low level and vice-versa. This can be represented in graphical way, like a pyramid in which as we go up, the information gets aggregated and while going down, we get detailed information about the process.