1
Arulmigu Meenakshi Amman college of Engineering
Vadamavandal-604410.
Prepared by,
V.Umapathy,
Prof./Mech.
Important Questions and Answers
OIE351- INTRODUCTION TO INDUSTRIAL ENGINEERING
Syllabus
1. UNIT I
INTRODUCTION 9
Concepts of Industrial Engineering – History and development of Industrial Engineering –
Roles of Industrial Engineer – Applications of Industrial Engineering – Production
Management Vs Industrial Engineering – Production System – Input Output Model –
Productivity – Factors affecting Productivity – Increasing Productivity of resources – Kinds
of Productivity measures.
2. UNIT II
PLANT LOCATION AND LAYOUT 9
Factors affecting Plant location – COURSE OBJECTIVES of Plant Layout – Principles of
Plant Layout – Types of Plant Layout – Methods of Plant and Facility Layout – Storage
Space requirements – Plant Layout procedure – Line Balancing methods.
3. UNIT III
WORK SYSTEM DESIGN& ERGONOMICS 9
Need – COURSE OBJECTIVES – Method Study procedure – Principles of Motion
Economy – Work Measurement procedures – Time Study –Work sampling- Ergonomics and
its areas of application in the work system - Physical work load and energy expenditure,
Anthropometry – measures –design procedure, Work postures-sitting, standing.
4. UNIT IV
STATISTICAL QUALITY CONTROL 9
Definition and Concepts – Fundamentals – Control Charts for variables – Control Charts for
attributes – Acceptance Sampling- O.C curve –Single sampling plan- Double sampling plan.
5. UNIT V
PRODUCTION PLANNING AND CONTROL 9
, 2
Forecasting – Qualitative and Quantitative forecasting techniques – Types of production –
Process planning – Economic Batch Quantity– Loading – Scheduling and control of
production – Dispatching–Progress control.
S.No Description
.
Unit-I
INTRODUCTION
Introduction
Industrial Engineering (IE) is a branch of engineering that focuses on designing, optimizing, and
operating systems, processes, and facilities to improve productivity, quality, and efficiency. Let's
break it down:
History and Development of Industrial Engineering
- Industrial Engineering has its roots in the early 20th century, when Frederick Winslow Taylor
applied scientific principles to management and production processes.
- The field evolved with contributions from pioneers like Henry Ford, who introduced the assembly
line, and Elton Mayo, who emphasized human factors in production.
- Today, Industrial Engineering incorporates cutting-edge technologies like AI, IoT, and data analytics
to drive innovation.
Roles of an Industrial Engineer
- Process Improvement: Analyze and optimize processes to boost efficiency and reduce waste.
- System Design: Design and implement integrated systems, including facilities, equipment, and
workflows.
- Productivity Enhancement: Identify opportunities to improve productivity and reduce costs.
- Quality Control: Develop and implement quality control systems to ensure product excellence.
Applications of Industrial Engineering
, 3
Production Management vs Industrial Engineering
- Production Management: Focuses on planning, organizing, and controlling production processes.
- Industrial Engineering: Encompasses production management, but also includes broader aspects like
system design, optimization, and human factors.
Production System
- A production system is a set of interconnected components that transform inputs into outputs.
- Input-Output Model:
- Inputs: raw materials, labor, energy, capital
- Transformation process: production, assembly, testing
- Outputs: products, services, waste
Productivity
- Definition: The ratio of output to input (e.g., units produced per labor hour).
- Factors affecting Productivity:
- Technology
- Human factors (motivation, skills)
- Process design
- Resource allocation
- Increasing Productivity:
- Improve processes and technology
- Enhance employee skills and motivation
- Optimize resource utilization
, 4
Kinds of Productivity Measures
- Labor Productivity: output per labor hour
- Capital Productivity: output per unit of capital invested
- Total Factor Productivity: output per unit of combined inputs (labor, capital, materials)
Basic Concepts
1. Concepts of Industrial Engineering
Industrial Engineering (IE) is about designing, optimizing, and operating systems to improve
productivity, quality, and efficiency. It combines engineering, management, and social sciences to
tackle complex problems.
2. History and Development of Industrial Engineering
- Early 20th century: Frederick Winslow Taylor applies scientific principles to management and
production.
- 1910s-1920s: Henry Ford introduces the assembly line, revolutionizing mass production.
- 1950s-1960s: IE evolves with operations research, systems analysis, and computer applications.
- Present day: IE incorporates AI, IoT, data analytics, and more.
3. Roles of an Industrial Engineer
- Process Improvement: Analyze and optimize processes to boost efficiency.
- System Design: Design integrated systems, including facilities, equipment, and workflows.
- Productivity Enhancement: Identify opportunities to improve productivity and reduce costs.
- Quality Control: Develop and implement quality control systems.
4. Applications of Industrial Engineering
Arulmigu Meenakshi Amman college of Engineering
Vadamavandal-604410.
Prepared by,
V.Umapathy,
Prof./Mech.
Important Questions and Answers
OIE351- INTRODUCTION TO INDUSTRIAL ENGINEERING
Syllabus
1. UNIT I
INTRODUCTION 9
Concepts of Industrial Engineering – History and development of Industrial Engineering –
Roles of Industrial Engineer – Applications of Industrial Engineering – Production
Management Vs Industrial Engineering – Production System – Input Output Model –
Productivity – Factors affecting Productivity – Increasing Productivity of resources – Kinds
of Productivity measures.
2. UNIT II
PLANT LOCATION AND LAYOUT 9
Factors affecting Plant location – COURSE OBJECTIVES of Plant Layout – Principles of
Plant Layout – Types of Plant Layout – Methods of Plant and Facility Layout – Storage
Space requirements – Plant Layout procedure – Line Balancing methods.
3. UNIT III
WORK SYSTEM DESIGN& ERGONOMICS 9
Need – COURSE OBJECTIVES – Method Study procedure – Principles of Motion
Economy – Work Measurement procedures – Time Study –Work sampling- Ergonomics and
its areas of application in the work system - Physical work load and energy expenditure,
Anthropometry – measures –design procedure, Work postures-sitting, standing.
4. UNIT IV
STATISTICAL QUALITY CONTROL 9
Definition and Concepts – Fundamentals – Control Charts for variables – Control Charts for
attributes – Acceptance Sampling- O.C curve –Single sampling plan- Double sampling plan.
5. UNIT V
PRODUCTION PLANNING AND CONTROL 9
, 2
Forecasting – Qualitative and Quantitative forecasting techniques – Types of production –
Process planning – Economic Batch Quantity– Loading – Scheduling and control of
production – Dispatching–Progress control.
S.No Description
.
Unit-I
INTRODUCTION
Introduction
Industrial Engineering (IE) is a branch of engineering that focuses on designing, optimizing, and
operating systems, processes, and facilities to improve productivity, quality, and efficiency. Let's
break it down:
History and Development of Industrial Engineering
- Industrial Engineering has its roots in the early 20th century, when Frederick Winslow Taylor
applied scientific principles to management and production processes.
- The field evolved with contributions from pioneers like Henry Ford, who introduced the assembly
line, and Elton Mayo, who emphasized human factors in production.
- Today, Industrial Engineering incorporates cutting-edge technologies like AI, IoT, and data analytics
to drive innovation.
Roles of an Industrial Engineer
- Process Improvement: Analyze and optimize processes to boost efficiency and reduce waste.
- System Design: Design and implement integrated systems, including facilities, equipment, and
workflows.
- Productivity Enhancement: Identify opportunities to improve productivity and reduce costs.
- Quality Control: Develop and implement quality control systems to ensure product excellence.
Applications of Industrial Engineering
, 3
Production Management vs Industrial Engineering
- Production Management: Focuses on planning, organizing, and controlling production processes.
- Industrial Engineering: Encompasses production management, but also includes broader aspects like
system design, optimization, and human factors.
Production System
- A production system is a set of interconnected components that transform inputs into outputs.
- Input-Output Model:
- Inputs: raw materials, labor, energy, capital
- Transformation process: production, assembly, testing
- Outputs: products, services, waste
Productivity
- Definition: The ratio of output to input (e.g., units produced per labor hour).
- Factors affecting Productivity:
- Technology
- Human factors (motivation, skills)
- Process design
- Resource allocation
- Increasing Productivity:
- Improve processes and technology
- Enhance employee skills and motivation
- Optimize resource utilization
, 4
Kinds of Productivity Measures
- Labor Productivity: output per labor hour
- Capital Productivity: output per unit of capital invested
- Total Factor Productivity: output per unit of combined inputs (labor, capital, materials)
Basic Concepts
1. Concepts of Industrial Engineering
Industrial Engineering (IE) is about designing, optimizing, and operating systems to improve
productivity, quality, and efficiency. It combines engineering, management, and social sciences to
tackle complex problems.
2. History and Development of Industrial Engineering
- Early 20th century: Frederick Winslow Taylor applies scientific principles to management and
production.
- 1910s-1920s: Henry Ford introduces the assembly line, revolutionizing mass production.
- 1950s-1960s: IE evolves with operations research, systems analysis, and computer applications.
- Present day: IE incorporates AI, IoT, data analytics, and more.
3. Roles of an Industrial Engineer
- Process Improvement: Analyze and optimize processes to boost efficiency.
- System Design: Design integrated systems, including facilities, equipment, and workflows.
- Productivity Enhancement: Identify opportunities to improve productivity and reduce costs.
- Quality Control: Develop and implement quality control systems.
4. Applications of Industrial Engineering
