Page 1, 06/23/22 DMCFlexCell99.ppt ARRI The University of Texas at Arlington Automation & Robotics Research Institute Brian Huff Brian Huff Associate Professor Associate Professor Industrial & Manufacturing Systems Engineering Industrial & Manufacturing Systems Engineering The University of Texas at Arlington The University of Texas at Arlington Raul Fernandez Program Manager Automation and Robotics Research Institute The University of Texas at Arlington The University of Texas at Arlington Reconfigurable Automation Reconfigurable Automation & & Standard Assembly Cell Standard Assembly Cell Development Development
No Slide TitleThe University of Texas at Arlington Automation &
Robotics Research Institute
Reconfigurable Automation
Raul Fernandez
Program Manager
The University of Texas at Arlington
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The University of Texas at Arlington Automation & Robotics
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Presentation Outline
The need for Strategic Cash Flow Justification strategies
The structure of modular reconfigurable automation systems
A case study presenting the deployment of modular automation in a
DoD high mix/low volume production environment
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Research Institute
Today’s Manufacturing Environment
Emphasis on Cost with No Compromises on Quality and
Performance
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The University of Texas at Arlington Automation & Robotics
Research Institute
Tactical Justification of Manufacturing Technology
Conventional
Manufacturing
Methods
Automated
Manufacturing
Methods
Traditional Economic Trade Studies based on lowest cost
alternatives bound by minimum performance requirements
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The University of Texas at Arlington Automation & Robotics
Research Institute
Problems With Avoiding Automation
Implement Manual Assembly Systems
Low capital / high flexibility yet productivity, precision, and
quality issues
Outsource Assembly & Test Operations
Quality, delivery exposure
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Conventional Automation Systems
Very Cost-Driven
Life of system is tied directly to life of product
Limited opportunity for system re-use
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Research Institute
A Traditional “Flexible” Assembly Machine
Has a robot (versus “hard” mechanical actuation)
No separate process modules
Dedicated parts feeding, tooling
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The University of Texas at Arlington Automation & Robotics
Research Institute
Conventional Automation Systems
Inhibit manufacturing agility
Unable to adapt to changes in product mix and volume
Product life cycles are becoming shorter than the time required to
bid, design, install & debug traditional automated assembly
systems
Cost of re-implementing traditional automation is prohibitive
In conflict with current manufacturing needs:
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Reconfigurable Automation Systems
Product
Base
Process
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Modular Capacity to Match Volatile Demand
Production Volume of 1st Model
: Required Production Volume
: System Production Capacity
: Required Production Volume
: System Production Capacity
The University of Texas at Arlington Automation & Robotics
Research Institute
Layered System Architecture
PRODUCT LAYER - specific product hardware and information which
identifies the processes and production sequences required to
produce specific products
PROCESS LAYER - the base platform and the process building blocks
provided determine the functional capability of the system.
BASE LAYER - provides generic production resources and application
development toolsets
A three-layered approach
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Reconfigurable Automation Technology
Can Be Reconfigured Into a Large Number of Base
Configurations
Supports the Development of a Large Number of Base Cell
Configurations
Base Layer Hardware
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Research Institute
Flexible Automation Technology
Cell Configuration Software
Device Control Software
Flexible Cell Configuration -
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Process Layer Components
Process Specific Tooling
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The University of Texas at Arlington Automation & Robotics
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Layered Software Architecture
The University of Texas at Arlington Automation & Robotics
Research Institute
Flexible Automation Technology
Product Specific Tooling
Product Layer Configuration
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Research Institute
New Technology Implementation
Development & maintenance of a library of generic intelligent
automated process technologies
Design for Flexible Automation
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Affordable Multi-Missile Manufacturing
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Aerospace Applications
The University of Texas at Arlington Automation & Robotics
Research Institute
Lockheed Martin Proprietary Information
Flex Cell Process Simulation
Product
Process
Base
Two documents were generated that capture our NGF effort, The NGF
vision outlines the technologies, requirements and philosophy
required in our factory,
The second document, a 3rd quarter payable milestone, identifies
the requirements to capture the NGF in a simulation, The simulation
is identified as a tool to evaluate the potential impact of the NGF
factory on current and future products, to conduct what-ifs and to
evaluate the influence of new emerging technologies that are being
considered for implementation in the factory,
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Research Institute
Automated Process Prototyping - ACS Assembly
Lockheed Martin Proprietary Information
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Research Institute
Lockheed Martin Proprietary Information
ACM Insertion End Effectors
Probe
Product
Process
Two documents were generated that capture our NGF effort, The NGF
vision outlines the technologies, requirements and philosophy
required in our factory,
The second document, a 3rd quarter payable milestone, identifies
the requirements to capture the NGF in a simulation, The simulation
is identified as a tool to evaluate the potential impact of the NGF
factory on current and future products, to conduct what-ifs and to
evaluate the influence of new emerging technologies that are being
considered for implementation in the factory,
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The University of Texas at Arlington Automation & Robotics
Research Institute
Honeywell - light duty aerospace
High-mix / low volume production environment
Multiple cell redeployment scenarios justified
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The University of Texas at Arlington Automation & Robotics
Research Institute
Use of Automation for Labor Reduction is Enabled by Flex Cell
Approach
Reduced Dependence on Product-Specific Systems and Facilities
Reduced Implementation/Deployment Time
Lockheed Martin Proprietary Information
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Research Institute
Small Reconfigurable Cell Configuration
Potential Applications
Systems processing assemblies fitting within a 30 liter, <5 kg
envelope
Consumer electronics, medical products, small electromechanical
assemblies for automotive, aerospace, and defense industries
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Research Institute
Medium Reconfigurable Cell Configuration
Potential Applications
Systems processing assemblies fitting within a one cubic meter,
<20 kg envelope
Automotive engine and transmission assembly, appliance assembly,
and missile section assembly
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The University of Texas at Arlington Automation & Robotics
Research Institute
Large Reconfigurable Cell Configuration
Potential Applications
Systems processing assemblies greater than a one cubic meter and 20
kg, envisioned to exceed the reach and payload of all but the
largest industrial robots
Airframe assembly, heavy automotive assembly, and large reach
palletizing applications
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The University of Texas at Arlington Automation & Robotics
Research Institute
Reconfigurable Automation Enables Scalable Systems
Low volume / high work content at production introduction
Higher production volumes are supported by adding cells and
distributing work content
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The University of Texas at Arlington Automation & Robotics
Research Institute
Benefits of Reconfigurable Manufacturing Systems
System can be reconfigured to meet the needs of high-mix low-volume
manufacturing
Base layer, which has highest capital investment, is reusable but
costs 10% to 25% more
The required process building blocks can be quickly added to the
base platform system
Process layer has plug-in reusable modules which can be changed
over from one process to the next within minutes instead of hours
or days
Product layer has minimal investment and is capable of responding
to instant changes in product demands
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The University of Texas at Arlington Automation & Robotics
Research Institute
In Conclusion
. . . Creating Reconfigurable
Automation Systems . . .
:
System Production Capacity
. . . That support multiple product life cycles in a rapidly
changing global market place
Production Volume of 1
: