Artificial Intelligence

For over 15 years, Exohood Labs has been engaged in artificial intelligence research, establishing the AI Center dedicated to advancing AI technologies. Notably, the first AI model for scientific and mathematical research in London, called Exania, was developed here.

Currently, Artificial intelligence technology, along with the development of new artificial intelligence innovations, constitutes the foundation of numerous research initiatives. Our researchers collaborate across various domains to design systems that sense, model and learn, ultimately creating increasingly sophisticated applications. Our methodology is human centric, prioritizing system transparency and explainability to address the critical issues surrounding the predictability and reliability of Artificial intelligence based systems.

Focus Areas
Sensing and Analytics
  • Scene Recognition and Understanding: Developing advanced algorithms to enable systems to recognize and interpret complex scenes in real time, improving the accuracy and efficiency of automated systems.
  • Person Recognition and Tracking: Implementing robust methods for identifying and monitoring individuals in various environments, enhancing security and personalized user experiences.
  • Mapping and Localization: Creating precise mapping and localization technologies to support navigation and spatial awareness in autonomous systems.
  • Text Understanding and Summarization: Utilizing natural language processing techniques to comprehend and condense textual information, facilitating better data analysis and decision making.
  • Predictive Analytics: Applying statistical methods and machine learning models to predict future trends and behaviors, aiding in proactive decision making and strategy development.
Human System Interaction
  • Conversational assistants: Developing intelligent conversational agents capable of understanding and responding to user queries naturally and efficiently.
  • Intent recognition: Designing systems that accurately interpret user intentions, enabling more intuitive and effective human computer interactions.
  • Explainable systems: Creating artificial intelligence systems that provide clear and understandable explanations of their processes and decisions, enhancing transparency and user trust.
  • Mixed initiative planning: Implementing planning systems that allow seamless collaboration between humans and AI, optimizing decision making processes.
  • Supervised autonomy: Developing autonomous systems that operate under human supervision, ensuring reliability and safety in complex environments.
Reasoning and Problem Solving
  • Adaptive planning and resource allocation: Formulating strategies for dynamic resource management and adaptive planning to improve operational efficiency and responsiveness.
  • Multi agent coordination: Designing frameworks for effective coordination and communication among multiple autonomous agents, enhancing collaborative problem solving capabilities.
  • Decision making under uncertainty: Creating models and algorithms that enable reliable decision making in uncertain and unpredictable environments.
  • Bioinformatics: Applying AI techniques to analyze biological data, advancing research and innovation in healthcare and life sciences.
Machine Learning
  • Leveraging large language and other foundation models: Utilizing extensive pre-trained models to address diverse artificial intelligence challenges, from natural language processing to image recognition.
  • Deep learning for language, image processing: Developing deep learning architectures to enhance the capabilities of artificial intelligence in understanding and generating language, as well as processing and analyzing visual information.
  • Reinforcement learning: Implementing reinforcement learning techniques to train artificial intelligence systems through trial and error, optimizing their performance in complex tasks.
  • Learning from demonstration: Creating models that learn behaviors and tasks by observing human demonstrations, enabling more intuitive and accessible AI training.
  • Hybrid logic/Learning architectures: Combining logical reasoning with machine learning to create robust and versatile AI systems capable of complex decision making.
  • Learning causal models: Developing methodologies for understanding and modeling causal relationships within data, improving the interpretability and effectiveness of AI systems.

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