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- Technology Areas
The U.S. Army’s latest “research prototype vehicle” has entered advanced testing phase with the Tank Automotive Research, Development and Engineering Center (TARDEC). The new vehicle known as the Ultra Light Vehicle (ULV) was built as a Concept Vehicle for TARDEC’s Detroit Arsenal. The new hybrid tactical vehicle targets safety, fuel-efficiency and versatility. It was developed in the past 16 months using commercial technologies. Final testing is beginning on the ULV vehicle platform with evaluating its capability to support Soldiers on missions across a full spectrum of mobility challenges while keeping occupants safe and using fuel efficiently.
Army researchers have designed the ULV to meet a wide range of challenges by making it fuel efficient, versatile and survivable in nearly any environment.
Funded by the Office of the Secretary of Defense (OSD), the ULV project team is developing and building three identical lightweight tactical research prototype vehicles emphasizing survivability for occupants and meeting four research objectives:
TARDEC’s Ground System Survivability group partnered with non-traditional defense contractors bringing the engineering expertise of both to the project. In only 16 months, the team moved from design to prototype.
“The Army’s approach was to create synergistic survivability,” explained TARDEC GSS Associate Director Steve Knott. “Soft deliverables — such as data and lessons learned — and hard deliverables — such as test assets and spare automotive components — will help shape, inform and support tactical vehicle programs, technology demonstrator efforts and/or TARDEC Innovation Projects to maximize the overall return on investment.”
The team produced three vehicles: two will be used for mobility, mine blast and ballistic survivability testing and the third is moving into TARDEC’s Ground Systems Power and Energy Laboratory (GSPEL) for mobility and fuel efficiency testing. Results are expected to be available in early 2014.
Highlights of ULV’s powertrain, design, communications and protection, focusing on mobility and survivability, include:
Powertrain – With two electric motors (front and rear) the ULV’s hybrid powertrain improves both mobility and survivability. By eliminating the need for a driveshaft, the underbody can be designed to perform well in a blast event. And either of the electric motors can power the vehicle, providing redundancy. A lightweight diesel engine powers the electric motors and also enables:
• Immediate launch
• Stealth drive
• Silent watch
• Exportable power generation
• High torque at low/near zero speeds
• Improved fuel economy
Design – ULV’s final design was developed by lead contractor Hardwire LLC. The cab provides more interior space than similarly equipped tactical vehicles. Remote-mounted and remote-controlled vehicle electronics reduce HVAC loads and create space. “Clamshell” front and rear doors open away from the B-pillar creating a protected area for Soldiers to exit.
“The cab is designed to have seven egress points facilitated by quick-release and removable components, stowage space for personnel and mission-specific items and 360-degree situational awareness through front- and rear-mounted ultra wide-angle thermal imagers,” explained TARDEC engineer Vladimir Gendlin.
Communications – ULV features lower-weight Command, Control, Communications, Computers, Intelligence, Surveillance and Reconnaissance (C4ISR) technologies focused on warfighter needs.
Survivability/Ballistic Protection – The hybrid design allows for a “clean underbody” through the elimination of various automotive components potentially allowing for blast-mitigation technologies to perform uninhibited during a blast event. This design provides added opportunities to integrate various blast-mitigating kits under the hull for higher threat levels. Interior technologies include a crushable floating floor system that decouples the crew’s feet and legs from the steel hull and absorbs energy, adjustable stroking seats, five-point restraint systems, and spatial accommodations.