TIPs-VF: An augmented vector-based representation for variable-length DNA fragments with sequence, length, and positional awareness
Abstract
The ability to accurately encode and represent genetic sequences in machine learning process is critical for advancements in biotechnology, specifically in genetic engineering and synthetic biology. Traditional sequence encoding method face significant limitations in handling sequence variability, maintaining reading frame integrity, and preserving biologically relevant features. This preliminary study presents TIPs-VF (Translator-Interpreter Pre-seeding for Variable-length Fragments), a simple and efficient encoding framework designed to address some of the key challenges in representing genetic sequences for machine learning. The results showed that TIPs- VF enables a variable-length sequence representation that retains biological context while ensuring the alignment of encodings with codon boundary, making it particularly suited for modular genetic construction. TIPs-VF demonstrated superior performance in truncation and fragmentation analysis, sequence homology detection, domain assessment, and splice junction identification. Unlike conventional methods that require fixed-length inputs, TIPs-VF dynamically adapts to sequence length variations, preserving essential features such as domain similarities and sequence motifs. Additionally, TIPs-VF improves open reading frame recognition and enhances the identification of vector parts and plasmid elements by unifying sequence embeddings with the three possible open reading frame. Overall, TIPs-VF offers a robust, biologically meaningful encoding framework that overcomes the constraints of traditional sequence representations by incorporating sequence, length, and positional awareness. The TIPs-VF encoding infrastructure is available at https://tips.logiacommunications.com.
02 /Specification & Classification
Click any tag to browse matching papersReproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- UniWave: A Waveform-Based Encoding Framework for Nucleic Acid Feature Extraction
- PatchDNA: A Flexible and Biologically-Informed Alternative to Tokenization for DNA
Alice Del Vecchio, Chantriolnt-Andreas Kapourani, … Cristian Regep·bioRxiv·Nov 28, 2025
- BiRNA-BERT Allows Efficient RNA Language Modeling with Adaptive Tokenization
Md Toki Tahmid, Haz Sameen Shahgir, … Md. Shamsuzzoha Bayzid·Communications BiologyPeer-reviewed·Nov 20, 2025
- Genomic Tokenizer: Toward a biology-driven tokenization in transformer models for DNA sequences
Bell Raj Eapen·bioRxiv·Apr 2, 2025
- BioToken and BioFM - Biologically-Informed Tokenization Enables Accurate and Efficient Genomic Foundation Models
Александр Владимирович Медведев, Karthik Viswanathan, … Shadab Khan·bioRxiv·Mar 27, 2025
- OmicsFUSION: A Pretrained Hyena-Based Framework for Encoding, Reconstruction, and Representation of the Omics and DNA Data
Nazar Beknazarov, Nikita Pavlichenko, … Alan G. Herbert·bioRxiv·Sep 5, 2025