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Iterative Forgetting: Online Data Stream Regression Using Database-Inspired Adaptive Granulation


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Novel data stream regression method using database-inspired adaptive granulation for low-latency predictions.
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In the fast-paced world, time-sensitive systems require low-latency predictions from continuous data streams. Traditional regression techniques struggle with dynamic data, leading to the need for novel methods. The proposed model uses R*-trees for granulation, iteratively forgetting outdated information to maintain recent relevant granules. Experiments show significant latency improvement and competitive prediction accuracy compared to state-of-the-art algorithms. The approach is amenable to integration with database systems, offering scalability and efficiency.

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Our method can be up to 6 times faster than ORTO. Iterative Forgetting can be more than 10 times faster than ARF. The model size of Iterative Forgetting consistently requires less space than other models.
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"Our experiments demonstrate that the ability of this method to discard data produces a significant order-of-magnitude improvement in latency and training time." "The R*-tree-inspired approach also makes the algorithm amenable to integration with database systems." "Our model is developed with R* trees as a foundation, it can be implemented on the database level."

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by Niket Kathir... om arxiv.org 03-15-2024

https://arxiv.org/pdf/2403.09588.pdf
Iterative Forgetting

Diepere vragen

How can the proposed iterative forgetting process impact real-time decision-making tasks beyond traditional regression

The proposed iterative forgetting process can have a significant impact on real-time decision-making tasks beyond traditional regression by offering faster processing speeds and lower latency in handling continuous data streams. By discarding outdated information and focusing only on recent and relevant granules, the model ensures that predictions are based on the most up-to-date data available. This approach is crucial for time-sensitive systems like financial trading, transportation management, or healthcare monitoring, where quick and accurate decisions need to be made in response to changing conditions. The ability to provide low-latency predictions while maintaining accuracy makes this model well-suited for applications requiring real-time insights.

What are potential drawbacks or limitations of discarding outdated information in the context of continuous data streams

While discarding outdated information in continuous data streams can improve efficiency and reduce memory requirements, there are potential drawbacks or limitations to consider. One limitation is the risk of losing valuable historical context that could potentially influence future predictions or trends. By focusing solely on recent data points, there is a possibility of overlooking patterns or anomalies that may not be immediately apparent but hold significance over time. Additionally, if the criteria for determining outdated information are not carefully defined or constantly updated based on evolving conditions, there is a risk of prematurely discarding relevant data that could impact the accuracy of future predictions.

How might integrating this model into distributed systems enhance its scalability and performance

Integrating this model into distributed systems can enhance its scalability and performance by leveraging the capabilities of multiple interconnected nodes working together towards processing large volumes of data efficiently. Distributed systems allow for parallel processing of tasks across different nodes, enabling faster computation times and improved resource utilization. By distributing the workload among multiple nodes within a network, the model can handle higher throughput rates without being constrained by single-node limitations. This distributed architecture also enhances fault tolerance as tasks can be rerouted to other nodes if one node fails, ensuring continuous operation even in challenging environments.
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