Inventory Optimization: Final Strategy for Success - PowerPoint PPT Presentation

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Inventory Optimization: Final Strategy for Success

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NexInfo presents the ultimate strategy for mastering inventory optimization. In this guide, we’ll explore proven techniques to streamline inventory management, reduce costs, and enhance operational efficiency, helping your business achieve long-term success. – PowerPoint PPT presentation

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Title: Inventory Optimization: Final Strategy for Success


1
Inventory Optimization Management
  • Presenter Robert Wang
  • 07/25/2019

_at_NexInfoSolution
2
Reminder Submitting Questions
3
Who Is NexInfo?
  • SUMMARY
  • Consulting company focused on helping clients
    achieve Operational Excellence via an optimal
    blend of Business Process Software consulting
    services
  • Deep domain expertise, including Integrated
    Business Planning (IBP/SOP), Enterprise Resource
    Planning (ERP), Product Lifecycle Management
    (PLM), Customer Relationship Management (CRM),
    Enterprise Planning Management (EPM), Human
    Capital Management (HCM), Predictive Data
    Analytics, Security, Business Transformations
  • Founded in 1999 and managed by computer industry
    business process professionals
  • Clients include emerging companies and Fortune
    1000 corporations
  • Recognized in the industry, including features in
    Gartner Reports, The Silicon Review (50 Smartest
    Companies of the Year 2016 and 10 Fastest Growing
    Oracle Solution Providers 2017), and CIO Review
    (100 Most Promising Oracle Solution Providers
    2015)
  • PARTNERS
  • CORPORATE INFO
  • HQ in Orange County, CA with offices in Redmond,
    WA, Chicago, IL, Bridgewater, NJ, Dublin,
    Ireland, Chennai Bangalore, India
  • Operations across the United States, Europe
    (Ireland, UK, Switzerland, Belgium) India

4
Presenter Information
  • Name Robert Wang
  • Principal of Supply Chain Optimization, Nestle
    USA
  • Adjunct Professor, Marshall School of Business at
    USC
  • Experience
  • In 2001, Robert joined the Business Analytics and
    Optimization Group at Nestle USA. As a principal
    of the group, he is the mastermind behind many
    holistic solutions for some very complex business
    problems. He specializes in using OR, large-scale
    optimization, machine learning, statistics,
    visualization, and other analytic techniques to
    solve business challenges. He has successfully
    lead the design, development, and implementation
    of solutions for Supply Chain Network Design,
    Inventory Optimization, Supply Planning,
    Deployment Planning, Network Capacity Planning,
    Trade Optimization, and Transportation.
  • Robert also shares his expertise on campus as an
    Adjunct Professor at the University of Southern
    Californias Marshall School of Business. Prior
    to joining USC, Robert spent 7 years as a
    management consultant with Ernst Young and
    Deloitte Touch.

5
Its 2019, But Inventory Issues have not gone away
6
Why Have Inventory?
1. Uncertainty
7
Why Have Inventory?
2. Products Made/Bought/Moved in Batches
8
Why Have Inventory? 3. Seasonal Demand or
Production Capacity
Production Capacity
Demand
Week
9
Why Inventory 4. Transit or Incubation
10
Types of Inventory
  • Safety
  • Minimum required to maintain customer service
  • Cycle
  • Created by production cycles due to change-over
    cost
  • Stock Build
  • Due to limited production capacity
  • Pipeline
  • In-transit and quality hold
  • Slack
  • Unnecessary

11
Inventory Measurements
  • Relative Measure
  • Relative to the demand
  • Can be used to compare among companies
  • Common Measurements
  • Inventory Turns
  • Weeks (Days) Cover

12
Safety Stock
  • Safety Stock protects against uncertainty in
    demand and supply
  • Uncertainty demand forecast accuracy (FA),
    factory attainment, lead time variance
  • Risk Customer service level
  • Supply Chain Responsiveness (Also known as
    Replenishment Lead Time) planning time, frozen
    period, production, incubation, transportation
  • Note longer the Replenishment Lead-Time (RLT),
    higher the uncertainty

13
Inventory Impact of Customer Service
  • Based on
  • 67 forecast accuracy
  • 30 day replenishment lead-time
  • no supply uncertainty

Key Take-away Linear up to 98, then
exponential after
14
Inventory Over Time
15
A Dynamic Inventory Calculator
  • Safety Stock
  • Forecast Accuracy
  • Replenishment Lead-Time
  • Other Uncertainties
  • Cycle Stock
  • Product Cycle
  • How do we know?
  • Inventory Build
  • Production Capacity
  • How do we know?
  • Pipeline Stock
  • Transit / Incubation
  • How do we know?
  • Max Stock
  • WSL
  • Forecast Accuracy within WSL

Interactive Model InventoryCalculator
16
Inventory Optimization Phases
  • Limited change to the current SC environment
    (short-term)
  • No change on Forecast Accuracy (FA),
    Replenishment Lead-Time (RLT), Service Level
    Target (SLT), etc.
  • Use inventory model to calculate the right
    inventory level necessary to maintain the current
    service level.
  • Low hanging fruit about 5 - 10 inventory
    reduction
  • Optimize current SC environment (longer-term,
    continuous process)
  • Improve FA
  • Optimize Customer Service Level
  • Right size production capacity
  • Reduce RLT by Increasing production flexibility
    and shortening supplier response time
  • Reducing Cycle and Build Inventory by optimizing
    production plan
  • Improve production attainment
  • Minimize production setup cost and time
  • Savings opportunity 10 to 30 reduction

17
Optimization Cycle and Build Inventory
  • Minimize total costs impacted by production
    planning
  • Inventory cost
  • Production cost
  • Costs of labor and over-time
  • Setup or change-over cost
  • Costs of shortage and freshness
  • Master Production Scheduling Optimization (MPSO)
    Model
  • Optimize production frequency and batch size for
    every product on a production line
  • Production line capacity constrained
  • Perform What-If analysis to optimize line
    capacity, over-time usage
  • Evaluate options for production flexibility and
    capability

18
Service Level Optimization
  • This trade-off could be different for every
    different product and industry
  • A good inventory optimization software should
    have this capability
  • A Tableau Model
  • Cost vs Fill Rate Dashboard
  • Sales Lost Factor
  • WACC
  • A Story Behind
  • A new inventory initiative given from the top for
    COF 99.5
  • Use case education

Costs
Optimal Service Level for Lowest Costs
Combined Costs
Cost of Inventory
Cost of Lost Sales
Service Level
90
95
100
19
Optimization Network Design
  • Minimize Total Costs Impacted
  • Transportation
  • Inventory
  • Fixed Distribution
  • Handling
  • Network Configuration
  • Plant Direct
  • DC
  • Hub Spoke
  • Inventory Strategy
  • Push
  • Pull

20
Optimization Supply Chain Collaboration
  • Think out side of the box
  • Walmart Case for Retail Business
  • DOT Food Case for Food Service
  • Background
  • Distributor for Food Service Industry
  • Has its own SC network
  • Value proposition
  • Collaboration Opportunity
  • Benefit Sharing

21
Network Collaboration
  • Current State

Minor Inventory
Minor Inventory
Major Inventory
Minor Inventory
Major Inventory
  • Future State

Collaborative Network
MFG 2 FACTORY
Customer Store
Minor Inventory
Minor Inventory
Major Inventory
MFG 3 FACTORY
22
QA
23
Contact Us
Dublin, Ireland
Bellevue, WA
Bridgewater, NJ
Orange, CA Santa Ana, CA
Chicago, IL
Bangalore, India
Chennai, India
24
Appendix
25
Cycle Stock
  • Cycle Stock stems from economy of scale
  • Minimum batch due to labor and other physical
    constraints, e.g. production in increments of
    shifts, container size, transportation payload,
    etc.
  • Labor cost and material waste involved in
    production change-over
  • Manufacturing vs Retail
  • Opportunities exist through improving production
    flexibility such as reducing change-over time as
    well as improving production scheduling
    capability

26
Inventory Build
  • Inventory Build pre-production to cover capacity
    shortfalls or demand peaks
  • Demand seasonality
  • Price fluctuation
  • Production capacity not matching with demand
  • Opportunities exist through reducing demand
    fluctuation, improving production efficiency, as
    well as improving production scheduling
    capability

27
Pipeline Stock
  • Pipeline stock is the goods that have been
    produced, but not ready to be shipped to customer
    yet
  • Goods in quality or incubation hold
  • Goods in transit from plant to DC
  • Opportunities exist through reducing and
    pipeline period by reducing incubation hold
    period, or transit during incubation

28
Inventory Reduction Approach
  • Reduce slack inventory (or unexplained
    inventory)
  • Safety Stock (Cross Functional)
  • Improve Forecast Accuracy
  • Realign Service Level
  • Reduce Replenishment Lead-time
  • Cycle Stock (Supply Planning/Manufacturing)
  • Reduce change-over cost
  • Reduce Batch size
  • Optimize Production Plan
  • Inventory Build (Supply Planning/Manufacturing)
  • Smooth out production volume
  • Add line capacity
  • Optimize Production Plan
  • Pipeline Stock (Supply Chain Network)
  • Reduce Incubation time
  • Incubation on Transit

29
Optimization Service Level Optimization
  • Understand the Trade-Off
  • High Service Level leads to high safety stock
    exponentially, therefore higher inventory cost
  • Low Service level leads to high chance of stock
    out, therefore lost of sales
  • Measuring the cost of lost sale could be
    challenging
  • Back order allowed, no lose after all
  • Lost sale completely, but the remains to be
    customer
  • Tangible cost Gross Margin Selling Price
    COGS
  • Lost sale and as a customer in the future
  • Measuring the probability of all the possible
    outcome could be challenging
  • Sensitivity Analysis is a must to understand the
    range of impact
  • Worst, Likely, and Best cases
  • A Simple Prototype Model
  • Simulation Model

30
Optimization Law of Square Root
  • Network Problem
  • Assuming we have 5 DCs in the current network,
    each DC carries its own safety stock to meet the
    service level. What would be the impact on safety
    stock if we want to change the network to 3 or 7
    DCs?
  • Law of Square Root
  • ?? ?? ?? ?? ?? ?? / ?? ??
  • Where ?? ?? , ?? ?? are future and current
    safety stock respectively and ?? ?? , ?? ??
    are future and current number of DCs
  • Inventory Strategy Push vs Pull
  • Hub Spoke Pull
  • DC Push

31
Optimization Multi-Echelon
  • Each Node has its own inventory management
    problem
  • Global inventory strategy
  • Which node carry inventory and how much
  • Minimize total inventory costs
  • Postpone Strategy
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