UTIC’s Collaboration Database for Ocean and Undersea Technology is a resource for organizations in the US, United Kingdom, Australia (AUKUS countries) and Canada, interested in collaborating for commercial and defense initiatives related to ocean and undersea technologies.
Product and service companies, international trade bodies, or academic and research organizations focused on ocean and undersea technology are encourage to list their organization here or log in to manage your existing listing.
This is a public resource, and all listings will be reviewed, approved and monitored by UTIC for appropriateness.
We are the premier military motion control solution provider to ship builders, combat vehicle suppliers, and other defense system original equipment manufacturers (OEMs) across the globe
Our core technology includes
Stabilized two-axis electro-mechanical turret drive systems
Quiet actuation and propulsion for submarines and unmanned undersea vehicles
Coordinated multi-axis motion control for automation
We differentiate ourselves by partnering with OEMs from the requirements development stage onwards, offering customized solutions and supporting integration at the next system level
We support our products all the way through their lifecycle providing sustainment services including training, repair and overhaul, upgrades, field support, etc
- Advanced Materials
- Cybersecurity
- Energetics and Power
- Modeling and Simulation
- Ocean Environment/Biological Sciences
- Sensors, Electronics and Optics
- Autonomy
- Communications
- Modeling and Simulation
- Predictive Analytics
See how MATLAB and Simulink can accelerate development and collaboration on maritime systems like AUVs here: https://www.mathworks.com/solutions/aerospace-defense/auv.html
- Energetics and Power
- Modeling and Simulation
- Ocean Environment/Biological Sciences
Our team of expert engineering, scientific, and crafts staff provides design, investigation, and evaluation of water, air and gas flow related phenomenon to a wide variety of industries including power generation, municipalities, manufacturing, defense, biomedical/pharmaceutical, ventilation and pollution control. Our team calls upon our extensive history and experience testing and designing fluid dynamics systems and apply that knowledge to solve problems using analytical models, computational fluid dynamic simulations, and laboratory testing of scaled and prototype systems. The Alden Campus houses large recirculation testing flumes (largest: 20 ft W x 10 ft D x 80 ft L), flow meter calibration lines (9 lines; 33,000-0.05 GPM), a stormwater technology evaluation facility, tow tanks (largest: 4 ft W x 4 ft D x 110 ft L), large testing tanks (largest: 34 ft W x 12 ft D x 70 ft L) and numerous other unique facilities for evaluating air and water flow related devices.
- Advanced Materials
- Autonomy
- Communications
- Cybersecurity
- Energetics and Power
- Modeling and Simulation
- Ocean Environment/Biological Sciences
- Predictive Analytics
- Sensors, Electronics and Optics
- Autonomy
- Energetics and Power
- Modeling and Simulation
- Ocean Environment/Biological Sciences
- Sensors, Electronics and Optics
Concept Development/Analysis/Test Planning and Execution
MRC has extensive experience providing concept development and analyses for Sensors and SONAR systems, torpedo systems, unmanned systems, and platform, missile, and launcher system upgrades in support of NUWC Division Keyport and NUWC Division Newport Codes 15, 45 and 85. MRC supports Computer-Aided Design (CAD) modeling, system design, mechanical analyses, calculation packages, drawing development, and system integration for conceptual design projects. MRC has conducted numerous integration and compatibility studies for U.S. Navy and Foreign Military Sales (FMS) submarines. Their personnel also possess 35 years of experience in conducting tradeoff and systems analysis of undersea vehicle designs and in-water performance, developing, and flowing down program requirements, and developing Concept of Operations (CONOPS) for undersea vehicle deployment in support of the Undersea Warfighting Development Center (UWDC). MRC provides services to support payload development and integration and the maturation and transition of new technology into programs of record. MRC has personnel on-staff with expertise in designing and executing modeling and simulation studies to support future systems operations and analyzing operational employment impacts relative to current threat platforms and tactics. Their engineers are involved in test planning and executing multiple evaluation and demonstration events, both at-sea and at land-based test facilities and providing post-test data collection and analysis of new weapon system models in support of UUV systems, torpedo in-water exercises, and missile weapon system flight and simulator tests. MRC has experience developing, building, and supporting Data Acquisition (DAQ) systems and using them to record test data in both laboratory and shipboard settings. MRC collects and compiles test data during and following torpedo in-water and simulated exercises and perform detailed analyses using Undersea Warfare (USW) doctrine and key performance parameters of system performance. They have experience performing AoA type analyses and digital simulation analyses and are involved in various projects including MRUUV and various small, medium, and large UUV programs, SSNx, VA multiple acoustic analyses, ONR Innovative Naval Prototype, Task Force Ocean, and variable depth towed sonar.
MRC provides concept development and analyses for Sensors and SONAR systems, torpedo systems, unmanned systems, and platform, missile, and launcher system upgrades in support of NUWC Division Keyport and NUWC Division Newport Codes 15, 45, and 85. We provide services to support payload development and integration and the maturation and transition of new technology into programs of record. Our engineers have participated in concept development and requirements analyses for Extra-Large Unmanned Undersea Vehicle (XLUUV) future payloads and capabilities, Snakehead payload/energy options, future SSN (X) payloads, including the Conventional Prompt Strike (CPS), and small and medium Unmanned Undersea Vehicles (UUVs).
MRC has demonstrated experience planning, executing, and analyzing demonstrations and functional tests in support of submarine and payload system integration programs. Our engineers have been involved in the test planning and execution of multiple evaluation and demonstration events, both at-sea and at land-based test facilities and providing post-test data collection, reduction, and analysis of new weapon system models in support of UUV systems, torpedo in-water exercises, and missile weapon system flight and simulator tests.
MRC frequently supports submarine grooms around the world to ensure platforms are ready to participate in structured evolutions and compatibility testing, such as Weapon Systems Accuracy Trials and at-sea exercise torpedo firings. For example, our team supported developmental testing of the APB 5+ software for the MK 48 Heavyweight Torpedo (HWT) using the mini-presettable vehicle test unit and a V(4) launcher in support of Code 85. Our personnel are directly involved in the TI and APB processes associated with development, testing, and release “to-the-fleet” of new operational software to increase reliability and effectiveness of exercise and warshot torpedoes. MRC personnel have also set up and executed VIRGINIA testing events in the VIRGINIA Payload Tube Facility and the Three-Inch Launcher Test Facility in support of Code 45.
MRC has experience developing, building, and supporting data acquisition systems and using them to record test data in both laboratory and shipboard settings. Our personnel collect and compile test data during and following torpedo in-water and simulated exercises and perform detailed analyses using undersea warfare doctrine and key performance parameters of system performance. Our analyses include evaluation of potential capability or performance improvements as well as their associated design implications and risks (e.g., modifications, subsystem enhancements, doctrine changes, etc.)

