SBIR-STTR Award

Active Motion-Compensation Technology for Roll-On/Roll-Off Cargo Vessel Discharge to Floating Platforms
Award last edited on: 11/12/2018

Sponsored Program
SBIR
Awarding Agency
DOD : Navy
Total Award Amount
$899,918
Award Phase
2
Solicitation Topic Code
N112-137
Principal Investigator
Michael Plackett

Company Information

Quantum Engineering Design Inc (AKA: M J Plackett & Associates)

30487 Peterson Road
Corvallis, OR 97333
Location: Single
Congr. District: 04
County: Benton

Phase I

Contract Number: N00024-12-P-4013
Start Date: 10/31/2011    Completed: 5/1/2012
Phase I year
2012
Phase I Amount
$149,932
The QED team proposes a study of an independent seagoing barge that can be attached to and made a part of an INLS or commercial RRDF floating platform. The barge contains an active motion compensation platform supported by either a self-contained air cushion, hydraulic/mechanical apparatus or a hybrid system using both air and hydraulic/mechanical systems. The Phase I study will evaluate select concepts with respect to their ability to provide active support of the LMSR ramp through sea state 5 while maintaining its structural integrity within safe limits. The study will focus on the sensing and actuation systems design and the development of appropriate algorithms for determining the safe operating load on the LMSR ramp structure in the dynamic environment in relation to its rated capacity. A trade study of selected concepts will be conducted under Phase I comparing their attributes to a set of criteria and metrics that will be developed from the outline presented within this proposal. The results of the study will provide the basis for a system down select and recommendations for a Phase II study to verify and confirm the design approach with a combination of scale model tests and large-scale system element evaluation.

Benefit:
The Ramp Motion Compensation Platform (RMCP) provides the means of safely transporting RO/RO cargo across a Sealift ships ramps onto an RRDF platform when operating in high sea sates through SS-5 conditions.

Keywords:
Controlled, Controlled, ramps, Support, dynamic, Platform, sea-state, Ship's, High

Phase II

Contract Number: N00024-14-C-4066
Start Date: 2/10/2014    Completed: 2/10/2016
Phase II year
2014
Phase II Amount
$749,986
The QED team proposes to study an active motion compensation platform supported by a self-contained air cushion system. The Phase II study will evaluate the ability of the 'Ramp Motion Control Platform' (RMCP) to support and control the LMSR stern ramp through a range of elevated sea state conditions while maintaining its structural integrity within safe limits. The study will focus on the sensing and actuation systems design and the development of appropriate algorithms for determining the safe operating load on the LMSR ramp structure in the dynamic environment in relation to its rated capacity. A large-scale model of the RMCP mounted on an INLS/RRDF platform along with similarly scaled and instrumented models of the LMSR stern ramp will be tested on both a purpose built 3-DOF test apparatus and in a wave tank test facility. The capability of the RMCP to safely support the transit of vehicles from the shipês ramp to the RRDF platform will be evaluated under a broad range of ship and platform motions. The data from these tests along with test data correlation analysis will provide the necessary confidence to move to a full-scale proof-of-concept demonstration under the Phase II Ð Option 1 program.

Keywords:
Heavy Lift Active Air Cushion Motion Control Platform, Heavy Lift Active Air Cushion Motion Control Platform