United States

The U.S. maritime operations, particularly in the littorals, have been contested and dangerous. It is imperative to apply advanced analytics to help operational or tactical units execute distributed maritime operations (DMO) and expeditionary advanced base operations (EABO). The DMO and EABO concepts require flexible configurations and combinations of capabilities and tactics across multiple domains to win in complex contested environments. The DMO and EABO concepts also require to use advanced detection and counter-detection technologies.

Distributed and collaborative computing and networking have been associated with peer-to-peer models. The researchers apply the peer-to-peer and self-organizing collaborative learning agents (CLAs) to meet the requirements of DMO and EABO. As an example of EABO, the researchers show a use case for distributed Marine transportation units to handle transportation movement requests (TMRs). The researchers show how to data-mine historical data, discover capability and behavior patterns, then apply them to design new peer groups to balance the load and maintain much lower signatures. 

The researchers map the need of lowering operation signatures to a load balancing problem and applies lexical link analysis (LLA) for CLAs. The researchers further apply the principle of quantum entanglement and superposition into a framework of LLA quantum intelligence game (LLAQIG). LLAQIG helps a peer simultaneously achieve the Nash Equilibrium for itself and the optimal total social welfare for its peer-to-peer network. 

The LLAQIG is used to find the intrinsic value of a unit, (i.e., a unit possesses a requested capability and has the potential to become a high-value unit). The LLA groups and LLQIG quantum effect impact factor help a peer-to-peer network self-organize its units and make them appear more randomly connected, which therefore balances the load, lowers signatures, and avoids detection. The DoD operational or tactical units can potentially leverage the results for shaping flexible C2, organizational structures, and modernization.




NAML 2022

Self-organizing and Load Balancing with Quantum Effect for Peer-to-Peer Collaborative Learning Agents and Flexible Command and Control and Organizational Structures

lower signatures

eabo

expeditionary advanced base operations

distributed maritime operations

flexible c2

collaborative learning agents

peer-to-peer

quantum effect

load balancing

self-organizing

EMNLP 2021 is planned to be a hybrid event in Punta Cana, Dominican Republic, with both on-site and fully virtual participation possible. The experience for on-site participants would closely approximate a normal pre-COVID *ACL conference, with 5-6 thematically organized parallel sessions and live Q/A and interactive discussion immediately after the talks. Presentations by virtual participants will be equitably interleaved with those of on-site participants, projected on the auditorium screens as if on-site, and also followed immediately by live Q/A and interactive discussion at a time during reasonable waking hours for the virtual presenter. For all participants, on-site and virtual, who are unable to attend a session due to either time-zone issues or because they are participating in another session live, talk recordings and slides will be available online at a minimum after the live presentation (and in many cases before as well), and questions may be submitted in advance on session-specific discussion boards and answered live in session with the usual visual aids if desired.

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Please Note: The EMNLP registration system is not currently connected to the underline site as we are still in the process of building out EMNLP 2021. You will receive access instructions from underline the week of November 1st. 

Access is given only to EMNLP upon registration, if you have not registered please do so [here](https://2021.emnlp.org/registration).

Registered attendees will receive access the week of November 1st.

EMNLP 2021

EMNLP 2021 is planned to be a hybrid event in Punta Cana, Dominican Republic, with both on-site and fully virtual participation possible.

poster

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Naval Information Warfare Center Pacific is partnering with AFCEA San Diego chapter to host the workshop.

The NAML workshop is an opportunity for researchers from Navy research and development centers and our partner organizations to exchange technical ideas and to come together as a team.

The goals of NAML are:

To spread awareness of current machine learning research relevant to Naval applications

To connect machine learning researchers with experts in military requirements

To build and strengthen collaborations within the defense research community


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Naval Information Warfare Center Pacific is partnering with AFCEA San Diego chapter to host the workshop. The NAML workshop is an opportunity for researchers from Navy research and development centers and our partner organizations to exchange technical ideas and to come together as a team.

The goals of NAML are:

To spread awareness of current machine learning research relevant to Naval applications

To connect machine learning researchers with experts in military requirements

To build and strengthen collaborations within the defense research community



Today our data is protected by encryption software tools and libraries such as the secure sockets layer (SSL), which of course, runs on general-purpose processors. While the computing efficiency of encryption may be less concerned than other factors in multi-tenancy cloud environments with high-end server processors, it can be a critical factor in embedded computers where power budgets tightly bound the devices or high-performance computing where both latency and multiplexing computing power is a big concern. Since the inefficiency associated with general-purpose processors is increasingly becoming an issue in the post-Moore era, we study both hardware algorithm and implementation strategy on lightweight cryptographic (LWC) accelerators that can leverage a hardware specialization approach. This paper studied the efficiency of using mixed hardware languages for implementing other hash functions as GAGE with full implementation on FPGA and ASIC technologies.


RECO-LSHFL: Reconfigurable LightweightSponge-Based Hash Functions Hardware Library

The Digital Aviation Readiness Technology Engine (DARTE) Board provides a comprehensive, up-to-date picture of future F/A-18 aircraft readiness at the squadron and buno levels across the Naval Aviation Enterprise. It acts as a visual user interface in the form of Qlik dashboards for the Mission Capable (MC) status forecast powered by machine learning in ADVANA Databricks. This tool uses models created with the DARTE framework to forecast the daily MC status of squadrons and units of a TMS across the entire fleet for the next seven days. Predictions are also interrogated with explainable AI (XAI) so that users can see the leading factors that affect the predictions. The DARTE Board can display this information in multiple functional views, providing the warfighters with a tool to derive data-driven actionable insights into future readiness.

Visualizing the Digital Aviation Readiness Technology Engine (DARTE) with the Advana Platform

Ingest, Inference, Training, Learning, Iterations, and various types of machine learning and AI categories - each require a wide variety of GPU resources, FPGAs, NICs and other devices attached to servers. this variability in devices causes a wide variety of infrastructure challenges that Liqid solves with an elegant solution. LIQID CONVERTS THE IN-SERVER PCIE BUS INTO AN EXTERNALIZED PCIE FABRIC - ENABLING IMPOSSIBLE CONFIGURATIONS LIKE TEN OR TWENTY GPUS BEING CONNECTED TO A SINGLE 1RU SERVER IN ABOUT TEN SECONDS WITHOUT REBOOT OR APPLICATION RESTART. OTHER USE CASES INCLUDE DEVICE VALIDATION, PERFORMANCE, FUNCTIONAL AND REGRESSION TESTING. BEST IN UNKNOWN OR UNPREDICTABLE MULTIVARIANT SCIENTIFIC COMPUTING, AI, ML, DL, HPC AND ANALYTICS ENVIRONMENTS. 




AI/Ml Operational Efficiency, Agility and Density

Digital Twin is a virtual replica of an object, process, or system “twinned” to its counterpart in the real world through data and information feeds. The digital representation can be informed by AI processed data pulled from schematics, computer-aided design (CAD) 3D models, building information models (BIM), and much more. A digital twin can be as simple as a replica of the engine in your car or as complex as multitude of interconnected digital twins representing thousands of linked, enterprise systems.

AI application in Digital Twin

Communicable diseases can compromise the abilities of individual warfighters and the command-and-control and operational capabilities of military environments. Thus, there is a critical need within the military to be able to evaluate an individual’s risk of becoming ill before being sent on a physically difficult operation and to identify outbreaks of communicable diseases early in order to be able to contain, mitigate, and track its spread. This need is especially important when soldiers and personnel have to be kept in close quarters on a ship, in barracks or in other close quarter environments. Wearable health monitoring devices provide the capability to record a variety of real time physiological time-series data including, but not limited to: respiratory rate, respiratory rate variability, heart rate, steps, calories burned and state of mind. Theoretically these physiological measures may be used to predict the health status of individuals over the course of an acute respiratory infection (ARI) from healthy, infected, pre-symptomatic, symptomatic, and recovered. To test this hypothesis, we are using data collected from Spire HealthTag devices that were deployed during a community cohort contact tracing study conducted by the University of Maryland during the 2018-2019 influenza season. The objective of this study is to use the wearable data to predict the onset of an ARI due to viruses such as parainfluenza, coronavirus, adenovirus, influenza, and rhinovirus. With the future goal of pre-symptomatic illness detection in mind, for now the goal is to be able to classify between sick and healthy days. A random forest classification model and its results will be presented. 

Predicting of Health Status from Wearable Physiological Monitoring Data project

Engagement complexity, along with technological advances, is growing faster than shipboard technical upgrades. The conundrum is that because of the challenges of peer-to-peer engagements, upgrades to more powerful computers is needed, but will likely be unavailable in the next several years. Lighter processor power solutions need to be researched to address this issue. Because of the increase in Engagement complexity, users’ needs solutions that fit their current IT while in the operational theater to determine practical recommendations in achieving mission success. This means that a management aids and decision aids need to effectively run at lower computer processing power than needed for complex analytics in order to provide decision support. This research investigated the use of meta-models that can be ported to current IT level processing machines associated with deployed environments. The research focused on approaches that allowed for simulations of advanced, complex engagement issues using meta-models that can be processed to provide the highest likelihood of a successful recommendation that includes platforms following mixed sequences of actions to achieve end goals. Meta-models are the synthetic results of a multiple simulation. A meta-model consists of: (1) the input variables associated with the capabilities of a platform’s weapons, electronic warfare, communication links, and sensors (2) the variables numerical values and (3) statistically analyzed output. When the sequence of events is decomposed into statistically independent activities following a conditional probability construct, the meta-models can be rearranged based on the desired mission outcome. The arrangement of meta-models, related inputs and outputs, constitute a statistically-based sequence of events to obtain desired goals for analysis. In this manner, meta-models, i.e., input variables to output success statistics, are light weight data structures that can be queried and processed within a laptop or equivalent IT system. The research implemented meta-models to support a decision aid software application based on game theory for blue vs red wargaming analysis. It ran Monte Carlo simulations to support recommendations with statistical results. This decision aid is used on laptops at the Naval Postgraduate School for AI/ML experimentation. The tool using meta-models to help resolve engagement complexity using government restricted laptops, demonstrating potential value in the approach. This research shows evidenced that meta-models can be used for “real time” decision aid recommendations when limited to deployed IT environments, but need to be customized to one set of goals. Additionally, recommendations can be accompanied by Monte Carlo-based, statistical outcomes that represent results of complex engagement models running on processing-hindered government laptops.

Deploying Meta-Models to Drive “Real-Time,” On-Site Course-of-Action Recommendations

Naval War College (NWC) and other leadership facilities provide extensive training on “best” ways to use technology during a single battle and over a prolonged campaign. AI has now added another level of complexity, both in testing and developing decision aids. Test and Evaluation, Verification, Validation (TEVV) and Live Virtual Construct (LVC) operational facilities are charged with testing new technologies to a given set of requirements to ensure performance. The challenge and difference is noted when teaching and then operationally testing autonomous AI-enabled systems. Algorithms are very sensitive to the training data used and lack of alignment to what is taught during a war game, as represented in the training data, vs what is tested at the TEVV/LVC facility can cause AI performance failures during deployment. Additionally, are AI-based decision aids in alignment? Warfighters are being trained to have expectations of performance, but will the AI system be limited in its response? Will the decision aid provide adequate recommendations and has the AI-based system been adequately testing in terms of expectations? The solution offered in this paper is a schema structure that is automated and visually friendly in the approach used to represents an activity ontology, knowledge representation describing cause and effect tactical sequencing. The paper describes the schema used for knowledge representation as well as how it will capture past war game knowledge played by war gaming institutes. Examples are offered to illustrate the approach and convey how this type of ontology developed from war gaming can ensure TEVV/LVC test scripts are designed to operationally “stress test” autonomous AI-enabled systems following these equivalent tactical sequences.

Semantic methods for activity ontology for testing AI and developing decision aids

The Digital Aviation Readiness Technology Engine (DARTE) has proven highly successful in monthly predictions for readiness metrics, including the number of Mission Capable (MC) F/A-18 aircraft at the squadron level across the Naval Aviation Enterprise. We show that the DARTE method can be applied on a more granular timescale by using the method to predict squadron-level F/A-18 readiness on a daily basis, up to one week in advance. We quickly train multiple models that have different architectures and provide the model outputs to tree-based ensemble meta-learners, creating an ensemble model that can accurately predict the number of MC aircraft that a Naval F/A-18 squadron will have each day for the next week. Additionally, we interrogate the predictions with explainable AI (XAI) to provide decision makers and subject matter experts with information that they can use to derive actionable insights. Finally, these predictions and insights are displayed via dashboards.


Readiness Predictions for the MH-60 SeaHawk with the Digital Aviation Readiness Technology Engine

PMW/ISEA teams are dealing with thousands of trouble tickets daily, by prioritizing the tickets as they are submitted based upon how long the ticket is estimated to resolve will enable the help desk and the ISEA groups to make quicker decisions and prioritize their resources. Delta Duration Model was built with an ensemble structure to predict the time it will take for a ticket to resolve as the ticket ages. The Delta Duration Model uses up to 4 different AI/ML algorithms working together to determine duration of ticket upon submission. As the ticket ages, additional models are used to more accurately predict a resolution date. A model maintenance pipeline was created out of a need to track various accuracy metrics on the deployed models for the Delta Duration Model. Each week when new tickets have been submitted and predicted upon the maintenance pipeline tracks accuracy for each set of models within the pipeline. This monitors changes in the model’s accuracy over time and allows transparency when model drift has occurred.

Machine Learning to Predict and Monitor Trouble Ticket Duration

Research shows that genders are affected differently by length and word choices in job descriptions. Addition, research exhibits the existence of a gender gap where women tend to not apply unless they are 100% qualified for the job. Our hypothesis was that women do not know what the job description specifically states if it is filled with jargon, therefore do not feel like they are 100% qualified so they tend to be less likely to apply. To investigate this potential unconscious gender bias further, an experiment was performed that surveyed both Navy and non-Navy people to view three job descriptions in their respective STEM field. The survey asked them if they were interested in the job and if they would send this job to someone else. Additionally, they were asked if they would share the ad.

Self-organizing and Load Balancing with Quantum Effect for Peer-to-Peer Collaborative Learning Agents and Flexible Command and Control and Organizational Structures

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RECO-LSHFL: Reconfigurable LightweightSponge-Based Hash Functions Hardware Library

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