Application - Clemson Composites https://clemsoncomposites.com A new center at Clemson University Fri, 03 Apr 2020 16:57:12 +0000 en-US hourly 1 https://wordpress.org/?v=6.7.1 Foamed plastics in automotive for lightweighting and carbon footprint reduction https://clemsoncomposites.com/foamed-plastics-in-automotive-for-lightweighting-and-carbon-footprint-reduction/?utm_source=rss&utm_medium=rss&utm_campaign=foamed-plastics-in-automotive-for-lightweighting-and-carbon-footprint-reduction Tue, 31 Mar 2020 16:37:26 +0000 https://clemsoncomposites.com/?p=249379

Foamed plastics in automotive for lightweighting and carbon footprint reduction

USING BIO-DERIVED CNC as bubble nucleating agent and reinforcement for foamed plastics in automotive application for lightweighting and decreasing carbon footprint.

CARBON REDUCTION

Working with industry partners, the Clemson team engineered and constructed an ultra-lightweight thermoplastics composites door that enables innovation for greenhouse gas reduction, recyclability, and circular economy.

  1. Bio-derived CNC are eco-friendly than conventional nucleating agent.
  2. CNC fibers act as both reinforcement and nucleating agents which promote the foaming behavior of the composites to achieve good cell morphology while retain the good mechanical properties.
  3. 15-20% light weighting can be achieved when replacing commercially used TPO used
  4. Potential applications for CNC reinforced Poly propylene

PARTNERSHIPS AND POTENTIAL APPLICATION

PARTNERS

  • U.S. Department of Agriculture
  • BMW Group
Potential applications

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5.81M Clemson-led project may lead to fuel-saving, ultra-light auto doors https://clemsoncomposites.com/5-81m-clemson-led-project-may-lead-to-fuel-saving-ultra-light-auto-doors/?utm_source=rss&utm_medium=rss&utm_campaign=5-81m-clemson-led-project-may-lead-to-fuel-saving-ultra-light-auto-doors Tue, 31 Mar 2020 15:21:38 +0000 https://clemsoncomposites.com/?p=249366

5.81M Clemson-LEd Project may lead to fuel-saving, ultra-light auto doors

A TEAM LED BY CLEMSON UNIVERSITY will soon begin a $5.81 million research project aimed at developing an ultra-lightweight door expected to help automakers in their race to meet federal fuel economy standards.

SCALABLE

Researchers will use carbon-fiber-reinforced thermoplastic composites to fabricate a driver’s side front-door assembly for a large original equipment manufacturer (OEM). The technology could also be used to create other parts of the vehicle and hit the market by 2022, they said.

The goal is to reduce the door’s weight by 42.5 percent. Every ounce counts as automakers work to meet U.S. corporate average fuel economy (CAFE) standards. Fleets of vehicles are supposed to average 54.5 miles per gallon by 2025.

PROJECT RESEARCH AND PARTICIPANTS

A cross-disciplinary team of faculty members from Clemson’s mechanical engineering and automotive engineering departments have come together for the research.

Srikanth Pilla, an assistant professor of automotive engineering, is the principal investigator on the project. The co-principal investigators are Melur “Ram” Ramasubramanian, D. W. Reynolds Distinguished Professor of Mechanical Engineering and department chair; Paul Venhovens, the BMW Endowed Chair in Automotive Systems Integration; and Gang Li, an associate professor of mechanical engineering.

Pilla said that as the team makes the door lighter, researchers would expect it to cost more because they are using more advanced materials. Researchers are mandated to keep the cost increase down to $5 for every pound of weight saved, but they expect the technologies they develop will ensure they can reach their targets.

“Of course, as we hit these weight and cost targets, we’re going to be careful to not compromise on functional or safety requirements,” Pilla said. “It’s possible we could exceed those requirements, even as we make the door lighter. We’re going to do this in collaboration with the University of Delaware and industry.”

Several public and private sources are providing funding for the research. The largest portion comes from the U.S. Department of Energy, which has announced it is contributing $2.25 million. Private industry contributed the rest.

Industrial collaborators include the businesses that would form the supply chain involved in manufacturing the composite doors that university researchers will develop, Pilla said.

“This project is particularly exciting because we have a commercialization plan,” Pilla said. “Our OEM partner has clearly expressed a strong interest to take full or partial technologies and put them into vehicles that will come in 2022 and beyond.”

Ramasubramanian said that having the majority of funding come from outside the federal government is a major success.

“This is the new model of funding by the federal government, where academia, industry and the federal government work as partners and share the benefits,” he said. “Everyone has skin in the game. For us to be successful in this at the lead is extremely significant. This sets the stage for future partnerships in composites technology.”

Major participants in the research include the automotive engineering department at the Clemson University International Center for Automotive Research (CU-ICAR), the Clemson mechanical engineering department, the University of Delaware Center for Composite Materials and more than 10 private industry partners, including material suppliers, machine builders, toolmakers and software developers.

While researchers are using the door as a model to investigate weight targets, the proposed technologies could also be applied to fabricate most of a vehicle’s structural, semi-structural and interior components, they said.

Researchers said the door would meet or exceed standards governing fit, function, safety, stiffness, crash performance, noise, vibration and harshness. The assembly would be recyclable when the vehicle hits the end of its life on the road, they said.

Researchers have proposed two designs for the door assembly and plan to pick one after six months of investigation.

Zoran Filipi, automotive engineering chair, said the research that Pilla and his team are doing will help connect CU-ICAR’s labs with the road.

“Not only will we help the auto industry meet a critical deadline, but we will also be educating the next generation of automotive engineers,” he said. “We’re creating the model to transform U.S. automotive engineering competitiveness.”

“This is an excellent example of how Clemson is integrating its main campus with its innovation campuses,” said Anand Gramopadhye, dean of the College of Engineering and Science. “It also embodies the college’s theme, ‘innovation through translation.’ ”

John W. Gillespie, director of the University of Delaware Center for Composite Materials (CCM), and assistant director Shridhar Yarlagadda issued a joint statement:

“Clemson and CCM are establishing a strong partnership to merge auto systems design with composites materials, design and manufacturing to lightweight composites door for high-volume production.”

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Enabling Industry 4.0 for Multi-tiered Quality and Process Control in Precision Manufacturing of Composites https://clemsoncomposites.com/enabling-industry-4-0-for-multi-tiered-quality-and-process-control-in-precision-manufacturing-of-composites/?utm_source=rss&utm_medium=rss&utm_campaign=enabling-industry-4-0-for-multi-tiered-quality-and-process-control-in-precision-manufacturing-of-composites Mon, 30 Mar 2020 18:42:37 +0000 https://clemsoncomposites.com/?p=249351

Enabling Industry 4.0 for Multi-tiered Quality and Process Control in Precision Manufacturing of Composites

AS PART OF A SCRA GRANT for the unification of various connected systems, Clemson researchers deployed a supervisory control and data acquisition (SCADA) system program called Ignition on a Windows server hosted at a Clemson University data center. The system was connected to a MySQL database for continuous logging of all desired parameters for the various devices and machines connected to Ignition.

DATA ACQUISITION

The program enables connections via OPC UA, MQTT, Modbus TCP, and various proprietary drivers (e.g. Siemens, Omron). A wide range of devices were connected to Ignition, including the injection molding machine (through a route ending in an OPC UA server), an in-mold sensor system, a twin screw extruder, a remote data acquisition system for downstream extrusion equipment, and multiple remote temperature and input sensors throughout the labs. Interfaces were made to visualize the data from these systems on both desktop and mobile devices and enable control where available.

PARTNERSHIPS AND ACHIEVEMENTS

PROJECT GOALS

  1. Develop methods to predict part quality of an injection molded part using process parameters and data from the machine.
  2. Develop database and machine learning systems designed to work with injection molding processes.
  3. Develop unique tool with sensor to measure temperatures and pressure inside the cavity.
  4. Develop more robust feedback loop to optimize process parameters.

PARTNERS

  • South Carolina Research Authority (SCRA)

PUBLICATIONS

Engel injection molding

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Foamed thermoplastics for automotive lightweighting in body-in-white applications https://clemsoncomposites.com/foamed-thermoplastics-for-automotive-lightweighting-in-body-in-white-applications/?utm_source=rss&utm_medium=rss&utm_campaign=foamed-thermoplastics-for-automotive-lightweighting-in-body-in-white-applications Wed, 25 Mar 2020 17:17:22 +0000 https://clemsoncomposites.com/?p=249331

Foamed thermoplastics for automotive lightweighting in Body-In-White applications

USING SUPERCRITICAL FOAM INJECTION molding technologies to lightweight hang on parts such as bumpers and trims. This is part of a four-year project that to address the needs of Automotive Original Equipment Manufacturers (OEM).

NUCLEATING

Principal investigator Dr. Srikanth Pilla, Bosch and Jenkins Endowed Professor, “Within the technology portfolio for lightweighting, much of the ‘low-hanging fruit’ has been implemented already — for example, engine downsizing. We believe there’s potential for efficiency gains in the area of load-bearing, structural closure systems at a reasonable price point.”

PARTNERSHIPS AND ACHIEVEMENTS

PROJECT GOALS

  1. Achieve a 15% Lightweighting
  2. No compromise surface quality
    • Paint compatibility and adhesion similar to baseline
    • No surface defects at extreme temperatures and humidity
  3. Must meet all mechanical requirements of the baseline parts
  4. Very minimal additional cost

PARTNERS

  • Honda R&D Americas
foamed plastics illustration

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Ultra-lightweight 100% recyclable scalable production door https://clemsoncomposites.com/ultra-lightweight-100-recyclable-scalable-production-door/?utm_source=rss&utm_medium=rss&utm_campaign=ultra-lightweight-100-recyclable-scalable-production-door Wed, 25 Mar 2020 14:12:55 +0000 https://clemsoncomposites.com/?p=249314

ULTRA-Lightweight 100% recyclable scalable production door

IN 2016, CLEMSON UNIVERSITY RESEARCHERS began work for a $5.8 million grant from the U.S. Department of Energy to pioneer technology for fuel-savings, energy efficiency, and to meet the U.S. corporate average fuel economy standards.

RECYCLABILITY

Working with industry partners, the Clemson team engineered and constructed an ultra-lightweight thermoplastics composites door that enables innovation for greenhouse gas reduction, recyclability, and circular economy.

John W. Gillespie, director of the University of Delaware Center for Composite Materials (CCM), and assistant director Shridhar Yarlagadda issued a joint statement:

“Clemson and CCM are establishing a strong partnership to merge auto systems design with composites materials, design and manufacturing to lightweight composites door for high-volume production.”

PARTNERSHIPS AND ACHIEVEMENTS

GOALS

  1. Achieve a 42.5% weight reduction
    • Base weight = 31.8 kg | Target Weight = 18.28 kg
  2. Zero compromise on performance targets
    • Similar crash performance
    • Similar durability and everyday use/misuse performance
  3. Maximum cost induced is 5$ per pound. (.453 kg)
    • Allowable cost increase = $ 150.1 per door
  4. Scalability
    • Annual production of 20,000 vehicles
  5. Recyclability
    • Project goal is 100% recyclable (self imposed)

PARTNERS

  • Honda R&D Americas
  • U.S. Department of Energy
lightweighting door illustration

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