Efficient Data Structures and Algorithms for Modern Applications

The field of data structures and algorithms is witnessing significant advancements, driven by the need for efficient solutions to modern applications. Researchers are focusing on developing innovative data structures and algorithms that can handle large datasets, reduce computational complexity, and improve performance. One notable direction is the development of compressed data structures, such as the LZD+ and LZDR compression schemes, which enable fast and efficient compression of repetitive datasets. Another area of research is the design of efficient indexing data structures, including the BS-tree and BMTree, which offer improved query performance and robustness. Additionally, researchers are exploring new methods for pruning large language models, such as the Shapley Value-based Non-Uniform Pruning and ReplaceMe, which aim to reduce model sizes while preserving performance. Noteworthy papers in this area include the introduction of zip-tries, a simple and dynamic data structure for strings, and the development of SPAP, a novel structured pruning framework for large language models. These advances have the potential to significantly impact various fields, including natural language processing, computer networks, and databases.

Sources

LZD-style Compression Scheme with Truncation and Repetitions

BS-tree: A gapped data-parallel B-tree

Efficient Shapley Value-based Non-Uniform Pruning of Large Language Models

BMTree: Designing, Learning, and Updating Piecewise Space-Filling Curves for Multi-Dimensional Data Indexing

ReplaceMe: Network Simplification via Layer Pruning and Linear Transformations

SPAP: Structured Pruning via Alternating Optimization and Penalty Methods

Large Language Model Compression with Global Rank and Sparsity Optimization

Fast Pattern Matching with Epsilon Transitions

Zip-Tries: Simple Dynamic Data Structures for Strings

Built with on top of