
HPMI has state-of-the-art composite materials design, processing and characterization equipment.
Currently, HPMI labs spread over four locations. A new $17M, 45,000 square foot building is under construction and will be ready for occupancy in the Fall of 2008.
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Watch progress of the building under construction.
Click on the images below to take a virtual tour of our new facilities:
Entrance

Laboratory
Floor Plans:
1st Floor

2nd Floor
Facilities and Capabilities
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The IPPD team at the HPMI specializes in (1) replacing metal structures with composites, and (2) designing and producing unitized composites/metallic structures. The HPMI has multiple capabilities as follows:
- Concept exploration and definition
- Feasibility assessment and cost trades study
- Proof-of-concept demonstration
- Sub-scale and full-scale production
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Specific Capabilities:
Processing and Fabrication
- RTM and VARTM
- High-temperature VARTM (Tp = 800F, and Tg = 750F)
- Realtime permeability measurement in a closed mold (GRASP)
- Mold design and CNC fabrication
- Compression molding (800F, 150T, 2' x 2')
- Extrusion (8-zone, 400 oC, 40:1 (L/D), 1-5 lb/hour)
- Vacuum bagging of prepregs
- Composites with acoustic attenuation (micron size particles)
- VARTM for multifunctional composites (with honeycomb and embedded sensors)
- 2Phase reconfigurable tooling system
- Large-sized RIDFT (up to 5' x 10')
- Mid-sized RIDFT (up to 3' x 4')
- UV curing testbed
- Nanotube dispersion (sonication and surfactants; powder mixing)
- Nanotube functionalization
- Nanotube buckypaper films (70 sq. in., 20 ~ 40 microns thickness)
- Magnetic alignment of nanotubes
- Superconducting magnet for tube alignment
- Nanotube-reinforced composites
- Nanotube/thermoplastic composites
- Nanotube-reinforced, multifunctional composite thin films
- Laser cutting of nanocomposites
- Waterjet cutting of composites
- 3D printer
- Cold cathode vacuum
- Vacuum oven
- High-temperature oven
- Sonicators
- Hot press
- Centrifuge
- Humidity chamber
- Dispermat
- GerberCutter
Testing and Characterization
- Thermal analysis (DMA, DSC, TMA, TGA)
- FT-IR analysis, including microscope (micron level)
- Optical microscope with CCD camera
- Multimode AFM (0.3 nm resolution)
- High-resolution SEM
- Ultramicrotome
- Raman spectrometry analysis
- Rheometer
- Viscometer
- MTS 858 table top test frame (25 kN load cell)
- Shimadzu AGS-J micro test frame (500 N and 1 kN load cells)
- Drop weight impact tester (6m/s)
- 4-probe electric resistivity tester
- In-situ electrical resistivity testing system
- Permeability testbed (linear)
- Environmental property test
- Oxygen index tester
- Non-contact 3D digitizer/scanner
- CMM
- Surface area and porosity analyzer
- Sample degas system
- UV-Vis-NIR spectrophotometer
- DC & AC current source
- Nanovoltmeter
- 1100V source meter
- Electrometer/high resistance meter
- Resistivity test fixture
- 20 MHz function/arbitrary waveform generator
- Thermal conductivity measurement
- EDAX Genesis XM4
- Sputter coater
- Vacuum controller
- Rotavapor
- Radiant power energy meter
- FloCell
- Mixing extruder
Modeling and Simulation
- RTM flow simulation (3D, isothermal)
- VARTM flow simulation (3D, isothermal)
- Optimization model for LCM mold design
- Composite structural analysis (ABAQUS, MARC)
- Thermal analysis (ABAQUS, MARC)
- RIDFT forming and wrinkle prediction (PAM-FORM)
- Modeling of conductive network-electrical property relationships for polymer/carbon nanotube composites
- Molecular dynamics simulation of nanotube-epoxy interactions at nanoscale (Materials Studio (SGI Origin 300), LAMMPS (Teragold IBM p-Series 690))
- Molecular dynamics modeling of interfacial bonding and load transfer (Materials Studio (SGI Origin 300), LAMMPS (Teragold IBM p-Series 690))
- MD simulation of dispersion of nanotubes (Materials Studio (SGI Origin 300), LAMMPS (Teragold IBM p-Series 690))
- SGI Servers and workstations
- SUN workstations
- High-performance PCs
- ABAQUS, Algor, AutoCAD, MARC, Materials Studio, PATRAN, Pro-Engineer
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