Deep Learning-Based Sequence Mining Service

Deep Learning-Based Sequence Mining leverages advanced neural networks, such as recurrent and convolutional architectures, to analyze vast and complex biological sequence databases (genomic, proteomic, transcriptomic). Unlike traditional alignment-based methods, deep learning models can automatically learn subtle, high-dimensional patterns and features hidden within sequences, enabling highly accurate prediction of protein function, regulatory elements, and therapeutic targets. This approach is essential for discovering novel biological entities that traditional bioinformatics tools overlook.

CD Biosynsis offers specialized Sequence Mining CRO services powered by proprietary deep learning pipelines. We transform raw biological data into actionable insights by identifying novel enzymes, antimicrobial peptides, regulatory motifs, and potential drug leads. Our service includes custom model training, database integration, feature extraction, and rigorous statistical validation. By partnering with us, researchers and industrial clients can significantly accelerate their discovery phase, unlock new therapeutic opportunities, and fully exploit the information embedded within large-scale sequencing projects.

Get a Quote
Highlights Applications Platform Workflow FAQ

Highlights

Our deep learning platform delivers predictive power and scalability far beyond conventional sequence analysis methods.

  • Discovery of Novel Functions: Effectively identify distant sequence homologs and novel functions that are missed by homology searching alone.
  • High Predictive Accuracy: Proprietary models trained on extensive, curated biological data sets ensure industry-leading performance in feature and target prediction.
  • Scalability to Big Data: Capable of processing terabytes of next-generation sequencing (NGS) and meta-genomic data efficiently.
  • Custom Feature Engineering: We tailor model architecture and input features (e.g., k-mer composition, physicochemical properties) to address specific biological questions.

Applications

Sequence mining accelerates discovery across functional genomics, drug development, and industrial biotechnology:

Novel Enzyme Discovery

Identifying biocatalysts with superior activity or novel reactions from environmental or microbial metagenomes for industrial use.

Antimicrobial Peptide (AMP) Identification

Mining large peptide sequence pools to predict and validate novel AMPs as next-generation antibiotics.

Gene Regulation Prediction

Accurate identification of enhancers, promoters, and non-coding RNA binding sites in genomic sequences.

Target Prioritization in Therapeutics

Ranking potential protein targets based on predicted drugability and disease association for early-stage development.

Platform

Our Sequence Mining platform integrates cutting-edge deep learning frameworks with robust biological databases and validation pipelines.

Data Curation and Preprocessing

Collection and cleaning of large-scale genomic, transcriptomic, and proteomic data to ensure model input quality and relevance.

Custom Deep Learning Architectures

Utilization of specialized CNNs, RNNs (e.g., LSTMs), and Transformers for optimal pattern recognition in sequence data.

Feature Extraction and Embedding

Converting raw sequences into rich vector representations (embeddings) that capture biological and chemical properties for model input.

Predictive Modeling and Filtering

High-throughput execution of trained models to generate prioritized lists of targets (e.g., novel proteins, motifs) with predicted functional scores.

Wet-Lab Validation Support

Providing optimized protocols and necessary reagents for the client's experimental validation of the most promising predicted targets.

Workflow

Our Deep Learning-Based Sequence Mining follows a systematic, five-stage process to ensure robust discovery and delivery of validated targets:

  • Project Definition and Data Acquisition: We establish the discovery goal (e.g., "Find novel kinases in human genome") and acquire the target sequence data (client provided or public databases).
  • Model Development and Training: A suitable deep learning architecture is selected or customized. The model is trained and cross-validated using annotated data sets to achieve the highest predictive performance for the target function.
  • High-Throughput Sequence Mining: The trained model is applied to the full sequence database (e.g., meta-genome, patient cohort genome) to generate a raw list of candidates with predicted scores.
  • Post-Mining Analysis and Prioritization: Candidates are filtered using classical bioinformatics (e.g., structural, phylogenetic analysis) and domain expertise to generate a prioritized, actionable list of the most promising targets.
  • Target Delivery and Report: The final prioritized list, including sequence information, functional predictions, and the confidence score for each candidate, is delivered along with a comprehensive technical report detailing the model and analysis pipeline.

CD Biosynsis ensures that every sequence mining project is executed with scientific rigor, delivering high-confidence results ready for downstream experimental work. Every project includes:

  • Actionable Target Lists: Delivery of prioritized candidates with high statistical confidence scores, ready for gene synthesis or cloning.
  • Complete Data Traceability: Full documentation of the training data sets, model parameters, and filtering criteria used in the analysis.
  • Consultation and Interpretation: Dedicated computational biologists to help interpret the results and integrate the findings into your drug discovery pipeline.
  • Model IP (Optional): Option to license or fully transfer the trained deep learning model for the client's internal, continuous use.

FAQ (Frequently Asked Questions)

Still have questions?

Contact Us

What types of sequences can the platform analyze?

We analyze DNA sequences (genomic, regulatory elements), RNA sequences (ncRNA, mRNA), and amino acid sequences (proteins, peptides). The model is tailored to the specific type of sequence and prediction task.

How does deep learning handle sequence variability?

Deep learning models excel at capturing local and global dependencies in sequences. They use techniques like embedding layers and attention mechanisms to recognize functional patterns despite natural sequence variation and noise.

Is structural data required for mining?

No, deep learning can function solely on sequence data. However, incorporating predicted or known structural features often enhances model performance and the biological relevance of the resulting targets.

What is the difference between this service and a standard BLAST search?

BLAST finds sequences similar to a query. Our service uses the query sequence and existing knowledge to train a model that predicts function based on subtle patterns, allowing discovery of functionally related sequences with low homology.

How do you ensure the results are biologically relevant?

We use robust cross-validation during model training and incorporate post-mining filtering based on known biological principles and experimental validation feasibility before finalizing the target list.

Can the model be retrained with our proprietary data?

Absolutely. Custom model training using the client's proprietary data is a key strength of our service, significantly increasing the accuracy and relevance of predictions for niche applications.