The Department of State (DoS) can leverage AI to enhance its operations across various functions, from procurement and logistics to foreign assistance and conflict forecasting. By integrating advanced AI technologies, the DoS can improve efficiency, accuracy, and decision-making in its diverse activities. The following use cases illustrate how AI can be utilized to advance the Department’s capabilities and support its mission.
This project involves the development of a bot to automate data entry in the Federal Procurement Data System (FPDS), reducing the workload on procurement staff and improving compliance with the DATA Act. The bot updates approximately 300 FPDS awards per week. Additionally, bots have been developed to automate closeout reminders for federal assistance grants, receiving report validation, and customer service inbox monitoring, enhancing efficiency and accuracy in these processes.
This project involves a machine learning model that scans unstructured procurement data entered by users, such as Requisition Titles and Line Descriptions, to automatically detect and categorize the types of commodities and services being purchased. This automation improves the accuracy and efficiency of procurement categorization.
This project aims to use transactional data from the Integrated Logistics Management System (ILMS) to develop tailored user experiences and analytics. By analyzing real system actions and clicks, the project seeks to extract meaningful information to simplify user interactions with the system and reduce the time required to complete daily tasks, enhancing overall user efficiency and satisfaction.
This project aims to enhance risk analytics by developing AI/ML models to detect unusual activities within the Integrated Logistics Management System (ILMS) that could indicate fraud or misconduct. The models will build on existing risk models and target key supply chain functions like Asset Management, Procure-to-Pay, and Fleet Management, improving the detection and prevention of fraudulent activities.
This project uses an NLP model along with Intelligent Character Recognition (ICR) to identify and extract data from the JF-62 form for within-grade increase payroll actions. Robotic Process Automation (RPA) is then employed to validate the data against existing reports and create a formatted file for approval and processing, streamlining the payroll action process.
This pilot project tested the use of Sealr, a technology service that verifies the delivery of foreign assistance to conflict-affected areas where neither the U.S. Department of State nor its partners can go. Sealr uses blockchain encryption to secure smartphone photographs from tampering and AI to detect spoofing. The pilot showed that such technology can enhance remote monitoring of foreign assistance in dangerous or inaccessible areas.
This project involves developing models to forecast conflict and instability using open-source political, social, and economic data. The models predict outcomes like interstate war, mass mobilization, and mass killings, using AI techniques such as tree-based methods, neural networks, and clustering. These models aim to improve the prediction and understanding of conflict dynamics.
This project employs AI and machine learning to analyze moderate and high-resolution commercial satellite imagery, documenting war crimes and other abuses in Ukraine. It includes automated damage assessments of various buildings, such as critical infrastructure, hospitals, schools, and crop storage facilities, providing valuable data for accountability and recovery efforts.
This project uses natural language processing (NLP) to automate the extraction of earmarks and directives from the annual appropriations bill for the Foreign Assistance Appropriations Analysis. Previously, this task was done manually, but NLP streamlines the process, making it faster and more efficient.
This project uses machine learning to enhance the metadata of the Department’s central eRecords archive. The models perform tasks such as entity extraction, sentiment analysis, classification, and document type identification, improving the discovery and review of records.
This project integrates AI models into the SMART system on OpenNet to enhance cable processing. The models perform entity extraction, sentiment analysis, keyword extraction, and historical data analysis, helping users compose cables more efficiently by recommending addressees and passlines.
This project employs optical character recognition (OCR) using standard Python libraries to extract text from images. The inputs for this process include data collected from websites, making it easier to digitize and analyze textual information from images.
This project uses a sentiment analysis model, SentiBERTIQ, to identify and extract subjective information from text. Trained on 2.2 million tweets in multiple languages, it assigns sentiment scores to text documents and outputs the results in a CSV file for review, aiding in understanding public sentiment across different languages.