Design World

  • Home
  • Technologies
    • ELECTRONICS • ELECTRICAL
    • Fastening • joining
    • FLUID POWER
    • LINEAR MOTION
    • MOTION CONTROL
    • SENSORS
    • TEST & MEASUREMENT
    • Factory automation
    • Warehouse automation
    • DIGITAL TRANSFORMATION
  • Learn
    • Tech Toolboxes
    • Learning center
    • eBooks • Tech Tips
    • Podcasts
    • Videos
    • Webinars • general engineering
    • Webinars • Automated warehousing
    • Voices
  • LEAP Awards
  • 2025 Leadership
    • 2024 Winners
    • 2023 Winners
    • 2022 Winners
    • 2021 Winners
  • Design Guides
  • Resources
    • 3D Cad Models
      • PARTsolutions
      • TraceParts
    • Digital Issues
      • Design World
      • EE World
    • Educational Assets
    • Engineering diversity
    • Reports
    • Trends
  • Supplier Listings
  • Advertise
  • SUBSCRIBE
    • MAGAZINE
    • NEWSLETTER

Fluid Power University Profiles: North Carolina A&T State University

By Michael Jermann | July 30, 2013

NCAT seeks to improve human element in fluid power

Unlike other members of the Center for Compact and Efficient Fluid Power, North Carolina A&T State University does not work on improving fluid power technology; instead the mainly graduate level program focuses on the interaction between the technology and its human user.

NCAT is involved with a CCEFP project focused around human performance modeling and user-centered design. The goal of this project is to develop a model that can be used to better understand the simultaneous cognitive and physical interactions that occur when operating complex fluid power systems. This model would then be used to design human-machine interfaces that are safer, easier to understand and more comfortable for the user.

Unlike traditional modeling techniques that look at the physical and cognitive abilities of the user independently from one another, NCAT’s model takes into account several factors that link these abilities together. Factors such as stress level, workload and fatigue can all affect the user’s judgment and decision-making abilities.

“We argue that those two aspects should be looked into at the same time,” Steven Jiang, a professor at North Carolina A&T State University said. “Because one could affect the other, some part of the physical aspect could affect your cognitive performance and vice versa.”

Participant conducts a usability experiment using haptic controlled excavator.

Special software was used to bring these two human aspects into a single model. One of the programs was a human model simulator called JACK. This model allows various human characteristics, such as gender, height and weight, to be taken into account during the design process. Researchers also used a program called MicroSaint, which provides cognitive performance models. These two models are then brought together to create a single performance model that more accurately predicts human interaction with a system than could be gleaned from looking at two independent models.

The development of a user-centered interface for complex fluid power systems could lead to reduced costs for the industry. Interfaces designed to better work with the user can reduce the time it takes to train someone to use the system. Shorter training periods mean companies don’t need to spend as much money on training. Taking the user into consideration in the earliest stages of system development could also save money by reducing the number of costly prototypes needed to finalize the design.

“If you spend more time and effort in the design stage, make sure the user’s going to be very comfortable and have an easy time interacting with the system, it can save you money in the long term even though initially you might need to invest more money,” Jiang said.

The work that NCAT has done in the way of user-centered interfaces has also extended into the realm of robotics. In a previous CCEFP test bed, researchers worked closely with Georgia Tech and Vanderbilt University to design a rescue robot supported by fluid power. In this test bed, NCAT sought to improve the robot’s user interface by including a haptic system into the types of feedback the user can receive from the system. This additional feedback device gives the user more information about the environment and helps improve the amount of trust the user has in the system. The more trust the user has, the less likely they will be to hesitate or second-guess themselves in the field.

North Carolina A&T State University
www.ncat.edu

Mobile Hydraulic Tips

You might also like


Filed Under: Mobile Hydraulic Tips
Tagged With: atstateuniversity
 

LEARNING CENTER

Design World Learning Center
“dw
EXPAND YOUR KNOWLEDGE AND STAY CONNECTED
Get the latest info on technologies, tools and strategies for Design Engineering Professionals.
Motor University

Design World Digital Edition

cover

Browse the most current issue of Design World and back issues in an easy to use high quality format. Clip, share and download with the leading design engineering magazine today.

EDABoard the Forum for Electronics

Top global problem solving EE forum covering Microcontrollers, DSP, Networking, Analog and Digital Design, RF, Power Electronics, PCB Routing and much more

EDABoard: Forum for electronics

Sponsored Content

  • Five Uses for the Parvalux Modular Range
  • Robot Integration with Rotary Index Tables and Auxiliary Axes
  • How to Choose the Right Rotary Index Table for Your Application
  • Designing a Robust Rotary Index Table: Engineering Best Practices for Long-Term Performance
  • Custom Integration Options for your New and Existing Rotary Table Applications
  • How Apple Rubber’s Rapid Prototyping Kept Whale Research Afloat
View More >>
Engineering Exchange

The Engineering Exchange is a global educational networking community for engineers.

Connect, share, and learn today »

Design World
  • About us
  • Contact
  • Manage your Design World Subscription
  • Subscribe
  • Design World Digital Network
  • Control Engineering
  • Consulting-Specifying Engineer
  • Plant Engineering
  • Engineering White Papers
  • Leap Awards

Copyright © 2026 WTWH Media LLC. All Rights Reserved. The material on this site may not be reproduced, distributed, transmitted, cached or otherwise used, except with the prior written permission of WTWH Media
Privacy Policy | Advertising | About Us

Search Design World

  • Home
  • Technologies
    • ELECTRONICS • ELECTRICAL
    • Fastening • joining
    • FLUID POWER
    • LINEAR MOTION
    • MOTION CONTROL
    • SENSORS
    • TEST & MEASUREMENT
    • Factory automation
    • Warehouse automation
    • DIGITAL TRANSFORMATION
  • Learn
    • Tech Toolboxes
    • Learning center
    • eBooks • Tech Tips
    • Podcasts
    • Videos
    • Webinars • general engineering
    • Webinars • Automated warehousing
    • Voices
  • LEAP Awards
  • 2025 Leadership
    • 2024 Winners
    • 2023 Winners
    • 2022 Winners
    • 2021 Winners
  • Design Guides
  • Resources
    • 3D Cad Models
      • PARTsolutions
      • TraceParts
    • Digital Issues
      • Design World
      • EE World
    • Educational Assets
    • Engineering diversity
    • Reports
    • Trends
  • Supplier Listings
  • Advertise
  • SUBSCRIBE
    • MAGAZINE
    • NEWSLETTER
We use cookies to personalize content and ads, to provide social media features, and to analyze our traffic. We share information about your use of our site with our social media, advertising, and analytics partners who may combine it with other information you’ve provided to them or that they’ve collected from your use of their services. You consent to our cookies if you continue to use this website.