Production Logistics Management

Course Code: PM30

 

Course Objective

  • Improve and evaluate products and production processes in order to attain and maintain a competitive edge.
  • Pursue and achieve a great delivery capability and reliability with the lowest possible logistic and production costs.
  • Depict the extent to which the promised dates for the placed orders can be met.
  • Explain why the marketable production costs, delivery capability and delivery reliability are critical to a company's long-term market success.
  • Monitor the interactions between the performance and cost objectives constantly so as to ensure the production's economic efficiency.
  • Clearly demonstrate the mutual dependencies between the often contradictory logistic objectives.

 

Target Audience

  • Anyone involved in Supply, production, distribution, and efficiency improvement of the company's logistical flows of materials, resources, capital and information.

 

Course Outline

Day 1

Introduction

  • Logistic Key Performance Indicators for Manufacturers
  • Dilemma of Operations Planning
  • Model Based Problem Solving Process
  • Objectives of Production Logistics
  • Logistic Operating Curves – an Explanatory Model for Production Logistics
  • Basic Principles of Modeling Logistic Operating Curves
  • Funnel Model as a Universal Model for Describing Production Processes
  • Work Content and Operation Times
  • Throughput Time
  • Lateness
  • Logistic Objectives in a Throughput Diagram
  • Output Rate and Utilization
  • Work in Process (WIP)
  • Weighted Throughput Time and Range
  • Little’s Law
  • Logistic Operating Curves for Production Processes

Day 2

Traditional Models of Production Logistics

  • Queuing Models
  • M/G/1 Model
  • Using Queuing Theory to Determine Logistic Operating Curves
  • A Critical Review of the Queuing Theory Approach
  • Simulation
  • PROSIM III Simulation System
  • Simulation as an Aid in Determining Logistic Operating Curves
  • A Critical Review of Simulation
  • Deriving the Logistic Operating Curves Theory
  • Ideal Logistic Operating Curves
  • Ideal Minimum WIP Level
  • Maximum Possible Output Rate
  • Constructing Ideal Logistic Operating Curves for the Output Rate and Time Parameters
  • Deriving an Approximation Equation for Calculating an Output Rate Operating Curve
  • Cnorm Function as the Basic Function for a Calculated Output Rate Operating Curve
  • Transforming the Cnorm Function
  • Parametrizing the Logistic Operating Curves Equation
  • Calculating Output Rate Operating Curves
  • Calculating Operating Curves for the Time Parameters
  • Normalized Logistic Operating Curves
  • Logistic Operating Curves Theory and Little’s Law – a Model Synthesis
  • Verifying the Logistic Operating Curves Theory
  • Simulation Based Model Validation
  • Validating the Model Based on Field Analyses
  • Under load Operating Zone 
  • Extending the Logistic Operating Curves Theory
  • Hierarchically Aggregating Logistic Operating Curves
  • Manufacturing System Operating Curves
  • Workstations with Common WIP Buffers
  • Considering Overlapping Production
  • Prerequisites for Applying Calculated Logistic Operating Curves
  • Schedule Reliability Operating Curves
  • Mean Relative Lateness Operating Curve
  • Deriving an Operating Curve for Describing the Schedule Reliability
  • Summarizing the Derivation of the Logistic Operating Curves Theory

Day 3

Basic Laws of Production Logistics

  • First Basic Law of Production Logistics
  • Second Basic Law of Production Logistics
  • Third Basic Law of Production Logistics
  • Fourth Basic Law of Production Logistics
  • Fifth Basic Law of Production Logistics
  • Sixth Basic Law of Production Logistics
  • Seventh Basic Law of Production Logistics
  • Eighth Basic Law of Production Logistics
  • Ninth Basic Law of Production Logistics
  • Applications of the Logistic Operating Curves Theory
  • Developing and Analyzing Calculated Logistic Operating Curves
  • Calculating the Logistic Operating Curves
  • Applying Logistic Operating Curves for Analyzing a Simulated Manufacturing Process
  • Evaluating Alternative Methods for Developing Potential for Logistic Improvement
  • Varying the Work Content Structure
  • Varying the Capacity Structure
  • Calculating Logistic Operating Curves with Missing or Incorrect Operating Data
  • Incorrect Work Content and Transport Time Data
  • Missing or Incorrect Data for the Maximal Possible Output Rate
  • An Incorrect Stretch Factor α1
  • Impact of an Unsteady Process State on Developing and Interpreting Logistic Operating Curves
  • Time Related Changes to the Work Content Structure
  • Time Related Changes in the WIP Level
  • Possibilities for Employing Logistic Operating Curves in Designing and Controlling Production Processes
  • Logistic Positioning
  • Implementing Logistic Operating Curves in Production Control
  • Logistic Oriented Design and Parameterization of Planning and Control Strategies
  • Logistic Oriented Production Design

Day 4

Practical Applications of Bottleneck Oriented Logistic Analyses

  • Conducting a Bottleneck Oriented Logistic Analysis
  • Determining Key Figures
  • Determining Logistically Relevant Workstations
  • Determining Measures
  • Bottleneck Oriented Logistic Analysis in a Circuit Board Manufacturer
  • Analysis’ Objectives
  • Data Compilation
  • Order Throughput Analysis
  • Workstation Analysis
  • Quantifying the Potential for Logistic Improvement
  • Experiences in Applying Bottleneck Oriented Logistic Analyses
  • Applying the Bottleneck Oriented Logistic Analysis in a Circuit Board Insertion Department
  • Determining Throughput Time Relevant Workstations
  • Estimating Existing Potential for Logistic Improvement
  • Deriving and Implementing Workstation Specific Measures
  • Summary of Application Experiences
  • Strategies for Implementing the Bottleneck Oriented Logistic Analysis
  • Applying the Logistic Operating Curves Theory to Storage Processes
  • Throughput Diagram as a Model for the Logistic Procurement Process Chain
  • Storage Operating Curves
  • Determining Storage Operating Curves Using Simulations
  • Determining Storage Operating Curves Using an Approximation Equation
  • Ideal Storage Operating Curve
  • Integrating Plan Deviations
  • Parametrizing the Approximation Equation
  • Verifying Storage Operating Curves Using Simulations
  • Possible Applications
  • Fields and Limits of Application
  • Examples of Applying Storage Operating Curves in order to Evaluate Suppliers

Day 5

Applying the Logistic Operating Curves Theory to Supply Chains

  • Supply Chain Objectives
  • Weighted Service Level
  • An Approximation Equation for a Service Level Operating Curve
  • Correlations between the Supply Chain’s Logistic Parameters
  • Example of a Supply Chain Logistic Analysis
  • Logistic Oriented Storage Analysis of the Manufacturer’s Finished Goods Store
  • Conducting a Bottleneck Oriented Logistic Analysis of the Manufacturer’s Production
  • Logistic Oriented Storage Analysis of the Manufacturer’s Input Stores
  • Bottleneck Oriented Logistic Analysis of the Supplier’s Production
  • Supply Chain’s Total Potential
  • Summary of Applying Operating Curves to the Supply Chain


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Date & Location

Date : 28 January 2024

Duration : 5 days

Place : Kuala Lumpur

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Date : 10 November 2024

Duration : 5 days

Place : Khobar

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