Industrial Engineering and Productivity

Discover the role of an industrial engineer as a change agent who designs integrated systems and leads projects with creativity, analytical skills, problem solving, critical thinking, project management, and communication.

Industrial engineering and productivity design integrated systems of men, materials and equipment to maximize output. Apply methods study, work measurement, time standards to optimize resources and reduce waste.

Master methods study as a systematic recording and critical examination of work to improve method. Systematically select, record data, examine, and develop the best method, then train and maintain it.

learn time study as a work measurement technique by breaking operations into elements, timing with a stopwatch, rating performance, applying allowances, and calculating basic and standard times.

Explore plant location and layout within industrial engineering, focusing on factors, minimizing material handling and human effort, and ensuring smooth product flow and storage.

Explore selecting the best plant site and layout using qualitative and quantitative methods such as factor rating method, cost volume analysis, center of gravity, and transportation, with a practical example.

Learn how plant layout designs the physical arrangement of facilities, machinery, equipment, and utilities to minimize costs and travel while maximizing production capacity, safety, and efficiency.

Explore layout types: product, process, fixed-position, cellular, and service facility layouts with real-world examples, and see how planning aligns material flow and welfare facilities.

Explore the assembly line concept by applying time study and standard task times to balance stations, allocate tasks, and achieve a smooth, productive flow with minimal idle time.

Explore ergonomics, the study of human well-being and system performance at work, covering physical, cognitive, and organizational ergonomics to reduce fatigue and musculoskeletal disorders while boosting productivity.

Learn to monitor project schedules with a pert chart, compute earliest start and finish times, latest start and finish times, then identify the critical path to prevent delays.

Explore the fundamentals of pert planning, including beta-based triple time estimates and precedence diagrams with nodes and arcs to determine project timelines.

Explore how to build a pert chart using the activity on arc method, estimate times with optimistic, most likely, and pessimistic values, and identify the critical path and slack.

Explore the AON method for constructing a PERT chart, detailing node blocks with es, duration, ef, ls, lf, and float, and identify the critical path through forward and backward passes.

Explore how operations research uses mathematical modeling and analytical tools to solve business problems, identify solutions, and implement decisions across linear programming and related areas.

Explore linear programming as a constrained optimization tool for product-mix decisions, using an illustrative tire industry example to maximize profit under material, sales, and capacity constraints.

Enterprise resource planning unifies departments into a centralized database, enabling real-time data access, streamlined processes, and reduced data duplication, with phased implementation guided by top management.

Define the roles of industrial engineers, establish standard times and production norms, and optimize productivity. Plan plant location and layout, and apply project networking with a PERT chart.

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