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Best Practices for Collaboration Between Industry and Academe

From:automation | Author:H | Time :2024-11-27 | 288 Browse: | Share:



What to avoid when collaborating

A list of aspects and attributes that create barriers to collaboration came out of the survey as well. Collaborative programs break down when one entity seeks to impose its way on the others. This might be the university claiming all rights to IP, industry imposing barriers to all publications, a faculty researcher taking the funding and steering the project for his or her preferred outcomes, industry seeking to manage the researchers with weekly reporting as if they were full-time employees, or the university wanting full control of all financial transactions.

Failure also happens when either side is not fully engaged, not providing the personnel time or resources required to aid the others. Engagement could falter because of personnel movement (either in management or the liaison), a shift in urgencies to be solved, or a “collaboration” that was really motivated by a nontechnical purpose. A collaboration must support the business needs. If it is motivated by an alumnus allegiance to the university, then support will prematurely end when the champion moves.


Final thoughts

Academic-practice collaboration is important to prepare industry-ready graduates and to align faculty research outcomes to have practicable value for practitioners. The structure, activities and outcomes of any collaboration must be perceived as a benefit-to-cost win for each participant.

Collaboration can benefit industry by shifting academic expertise to provide industrial solutions, which prepares employment-ready graduates and adds value to the economy. Collaboration can benefit academe by providing research topics and funding that lead to research productivity.

A director who understands all cultures and can actively shape the work, communications, processes, commitment, and outcomes to sustain credibility is a strong indicator of collaboration success. On the industrial side, the director needs to be powerful enough to sustain resource allocation during the next “corporate crises.”


Acknowledgements

The author enjoyed collaboration with task force members and others on the IFAC Industry Committee. We are especially grateful to the 125 survey respondents who provided valuable input and to Control magazine, ISA divisions, and IFAC for soliciting participants.

Successful collaboration: Miami University of Ohio
The Pulp and Paper program at Miami University of Ohio has a process control minor to prepare engineering graduates to supply industrial needs. To recruit students into this relatively unknown career, collaboration with industry partners offers both a three-week intersession course in the practice of process control and summer internship opportunities for students.

The course segments are offered by application-oriented faculty and practitioners, and the course topics are aligned with both industrial needs and engineering education criteria. The course and internships are attractive for students, and industry is happy that an academic program is supplying their workforce development needs. Visit the internship site.

Successful collaboration: University of Michigan
The Reconfigurable Manufacturing Systems (RMS) program at the University of Michigan was established in 1996 with partial support from the National Science Foundation as an Engineering Research Center (ERC) to improve manufacturing productivity. It was funded by more than 30 company collaborators. 

Benefitting industry, from 1997 to 2012, ERC-RMS produced more than 350 graduate students, most of whom are working in U.S. industry, and improved productivity in more than 69 production lines in 15 factories in the U.S. and Canada. Benefitting academe, application projects have been essential to the career development of many students and faculty and for bragging rights of the university. Although initial funding has waned, the legacy of collaboration, labs and courses, and relevant teaching continues. Visit the Engineering Research Center site.

Successful collaboration: Purdue University
The Center for Innovation in Control, Optimization and Networks (ICON) at Purdue University explores innovative control solutions to challenges associated with manufacturing, transportation, supply chains, health care, power, communication, and social networks. These systems are rapidly growing in scale and complexity, driven by advances in autonomy and connectivity. ICON seeks to develop knowledge and techniques for control and optimizing, to customize curricula to meet emerging educational needs, to collaborate with industry to tackle priorities, and to provide employment-ready graduates. It was established in 2020, has about 70 faculty researchers from a dozen departments, has funding from both industry and government, and enjoys strong collaboration with Saab, Rolls-Royce, Northrop Grumman, and John Deere. Students provide biweekly reports to industrial partners who provide feedback direction, advice, and serve on dissertation committees. Visit the Center for Innovation in Control, Optimization and Networks.


Glossary of terms and definitions

Collaboration:

  • IS200EPMCH1GE Mark VIe Patch Cord Power Distribution Card
  • VMICPCI-7632-03310 IS215UCCAH3A 350-657362-003310J GE gas turbine system control processor board
  • WEA13-13 2508-21001 Control Module / I/O Board
  • WES5120 2340-21004 Controller Main Module
  • WES5120 2340-21006 Field Controller Master Unit Module
  • ​ WESDAC D20ME 18-MAR-13 Excitation Control Module
  • D20 EME 2400-21004 Ethernet communication and expansion module
  • GE DS3800XTFP1E1C Thyristor Fan Out Board Brand
  • GE SR745-W2-P1-G1-HI-A-L-R-E Feeder protection relay
  • GE IS230TNDSH2A Discrete Output Relay Module Brand
  • GE Fanuc IS200TDBSH2ACC Mark VI Terminal Board Brand
  • GE PMC-0247RC-282000 350-93750247-282000F Disk Drive
  • GE PMC-0247RC-282000 350-93750247-282000F Disk Drive
  • GE VMIVME-1150 Serial Communications Controller
  • GE VMIVME-5576 Fiber-Optic Reflective Memory with Interrupts
  • GE VMIC Isolated Digital Output VMIVME-2170A
  • GE MULTILIN 760 FEEDER MANAGEMENT RELAY 760-P5-G5-S5-HI-A20-R-E
  • GE IS200AEPAH1BKE IS215WEPAH2BB Printed circuit board
  • GE IS210BPPCH1A Mark VIe I/O Pack Processor Card
  • GE IS220PRTDH1A 336A4940CSP6 High-Performance RTD Input Module
  • GE IS220PDIAH1BE 336A5026ADP4 Discrete Input Module
  • GE IS420ESWBH3A IONET Switch Module
  • GE 516TX 336A4940DNP516TX 16-port Ethernet switch
  • GE EVMECNTM13 Embedded control module
  • GE EVPBDP0001 EVPBDP032 control module
  • GE Hydran M2-X Enhanced Monitoring with Extended Sensor Life
  • GE UR6CH Digital I/O Module
  • GE IC695CPU315-CD Central processing unit
  • GE 531X305NTBAMG1 DR Terminal Board
  • GE 531X305NTBALG1 NTB/3TB Terminal Board 531X Series
  • GE 531X305NTBAJG1 NTB/3TB Terminal Board.
  • GE 531X305NTBAHG1 NTB/3TB Terminal Board 531X
  • GE 531X305NTBAEG1 is a PCB that functions as a DR terminal board.
  • General Electric 531X305NTBACG1 NTB/3TB Terminal Board 531X
  • GE Digital Energy D20 Analog Input Module
  • GE 94-164136-001 main board Control board
  • GE 269 PLUS-D/O-100P-125V Digital motor relay
  • GALIL DMC-9940 High-performance motion controller
  • FUJI NP1BS-08 base plate
  • FUJI NP1Y32T09P1 Transistor drain type digital output module
  • FUJI NP1Y16R-08 Digital Output Module
  • FUJI NP1X3206-A High-speed digital input module
  • FUJI NP1AYH4I-MR current output module
  • FUJI NP1S-22 Power module redundancy
  • FUJI RPXD2150-1T servo drive module
  • FUJI FVR008E7S-2UX Ac frequency converter
  • FUJI Ac frequency converter FVR008E7S-2
  • FUJI FVR004G5B-2 Small general-purpose frequency converter
  • FUJI A50L-2001-0232 Industrial control module
  • FUJI A50L-001-0266#N High-performance servo amplifier
  • Honeywell FS7-2173-2RP Gas sensor
  • Honeywell 10106/2/1 Digital Input Module in Stock
  • FRCE SYS68K CPU-40 B/16 PLC core processor module
  • Foxboro FBM I/O cards PBCO-D8-009
  • Foxboro AD916AE Digital Control System (DCS) Module
  • GE SR750-P5-G5-S5-HI-A20-R-E Multilin Relay
  • FOXBORO H90 H90C9AA0117S Industrial Computer Workstation
  • FOXBORO RH928AW | I/A Series Relay Output Module
  • Foxboro N-2AX+DIO Multi-functional input/output module
  • Foxboro RH924WA FCP280 Fiber Optic Network Adapter
  • FOXBORO H92 Versatile Hardware Component In
  • Foxboro FBM218 P0922VW HART® Communication Redundant Output Interface Module
  • Foxboro E69F-TI2-J-R-S E69F Series Current-To-Pneumatic Signal Converter
  • Foxboro E69F-BI2-S Converter
  • Foxboro H92A049E0700 The host of the DCS control station
  • Foxboro H90C9AA0117S Industrial computer workstation
  • Foxboro RH101AA High-performance industrial control module
  • Foxboro P0922YU FPS400-24 I/A Series Power supply
  • FOXBORO P0973LN Chassis-based managed switch with independent power supply
  • FOXBORO P0926PA Input/output module
  • Fanuc A06B-6050-H402 3 AXIS ANALOG AC SERVO DRIVE
  • FOXBORO L0130AD L0130AE-0H Power module group
  • FOXBORO 0399085B 0303440C+0303458A Combination Control Module
  • FOXBORO SY-0399095E (SY-0303451D+SY-0303460E) Process control board
  • FOXBORO 0399071D 0303440C+0303443B Input/Output (I/O) Module
  • FOXBORO RH924UQ Redundant Controller module
  • FFOXBORO E69F-TI2-S current pneumatic converter
  • FOXBORO FBM219 RH916RH Discrete I/O Module
  • FOXBORO FBM227 P0927AC Module
  • FOXBORO 0399144 SY-0301059F SY-1025115C/SY-1025120E I/O module
  • FOXBORO SY-60399001R SY-60301001RB Industrial Control Module
  • FOXBORO 0399143 SY-0301060R SY-1025115C SY-1025120E Combined control board
  • FOXBORO 873EC-JIPFGZ electrodeless conductivity analyzer
  • FOXBORO P0916PH (High-density HART I/O Module)
  • FOXBORO 870ITEC-AYFNZ-7 Intelligent Electrochemical Transmitters
  • FOXBORO Compact FBM240. Redundant with Readback, Discrete
  • FOXBORO FBM208/b, Redundant with Readback, 0 to 20 mA I/O Module
  • FOXBORO FBM201e Analog Input (0 to 20 mA) Interface Modules
  • FOXBORO P0916WG Terminal cable
  • FOXBORO P0926MX 2-Port Splitter
  • FOXBORO AD908JQ High-Frequency Module
  • FOXBORO AD916CC Processor module
  • Foxboro DCS FBM206 Pulse Input Module
  • FOXBORO FBM216 HART® Communication Redundant Input Interface Module
  • Foxboro p0903nu 1×8 unit sub-component module
  • Foxboro P0911SM Industrial control module
  • Foxboro CM902WM I/O module
  • Foxboro CM902WL Power module
  • Foxboro P0972VA Industrial Control Module
  • Foxboro Z-Module Control Processor 270 (ZCP270)
  • Foxboro PO916JS 16-channel terminal block module
  • Foxboro PO911SM High-performance digital/analog input/output module
  • Foxboro P0972PP-NCNI Network Interface Module
  • FOXBORO P0971QZ controller module
  • FOXBORO P0971DP Thermal resistance input/output module
  • FOXBORO P0970VB Cable connector
  • FOXBORO P0970EJ-DNBX Dual-node bus expansion module
  • FOXBORO P0970BP Redundant power supply system
  • FOXBORO P0970BC-DNBI DeviceNet bus interface module
  • FOXBORO P0961FX-CP60S Main control CPU module
  • FOXBORO P0961EF-CP30B Network Interface Unit
  • FOXBORO P0961CA Optical fiber local area network module
  • FOXBORO P0961BD-GW30B gateway processor module
  • FOXBORO P0961BC-CP40B/I/A Series high-performance control processor module
  • FOXBORO P0960JA-CP40 High-performance control processor
  • FOXBORO P0926TM Control module
  • FOXBORO P0916BX Termination Assembly
  • FOXBORO P0916AE P0916AG P0916AW Thermal resistance input type DCS card module
  • FOXBORO P0916AC FOXBORO distributed control system (DCS) compression terminal assembly
  • FOXBORO P0912CB High-performance interface module
  • FOXBORO P0911VJ Thermal resistance input output module
  • FOXBORO P0911QH-A High-precision module
  • FOXBORO P0911QB-C P0911QC-C Thermal resistance input/output module
  • FOXBORO P0904BH P0904FH P0904HB Distributed Control system (DCS) module
  • FOXBORO P0903ZP P0903ZQ Embedded System Debugging Module
  • Foxboro P0903ZL P0903ZN Industrial power module
  • Foxboro P0903ZE I/A Series Fieldbus Isolator Module
  • FOXBORO P0903NW Industrial Control Module