AI-guided peptide optimization combined with custom peptide synthesis, QC and iterative redesign. Move from peptide sequence to physical candidates in one integrated workflow.
Turn an initial peptide sequence or target structure into AI-prioritized, synthesis-ready peptide candidates through one integrated workflow.
Alan Scientific combines AI-guided peptide optimization, computational structural assessment, custom peptide synthesis, purification, and analytical quality control to help researchers move rapidly from an early peptide concept to physical candidates ready for experimental testing.
After experimental results are generated, the data can be returned to our team for another round of AI-guided optimization and peptide synthesis, creating an iterative Design–Build–Test–Learn workflow for peptide discovery.
AI Optimization: typically 2–3 days
Peptide Synthesis & QC: typically 2–3 weeks
Request a Project Review | Talk with a Peptide Scientist sales@alanscientific.com
Traditional peptide optimization often requires researchers to manually design variants, order peptides, wait for synthesis, test candidates, and repeat the process.
Our integrated workflow is designed to make this cycle faster and more systematic.

| Stage | What We Do | What You Receive |
|---|---|---|
| 1. Project Input | Review the target, starting peptide sequence, structural information, and optimization objectives | Project strategy and computational workflow |
| 2. AI-Guided Optimization | Generate and prioritize peptide variants using sequence, structure, docking, and physicochemical assessment | Ranked candidate sequences and computational analysis |
| 3. Peptide Synthesis & QC | Synthesize selected candidates with optional purification and modifications | Physical peptides with analytical QC data |
| 4. Experimental Testing | Client evaluates peptide activity using the appropriate biological or biochemical assay | Experimental activity data generated by the client |
| 5. Data-Guided Re-Optimization | Experimental results are incorporated into the next design cycle | Refined candidate sequences for the next round |
| 6. Next-Round Peptide Delivery | Selected optimized candidates are synthesized and delivered for additional testing | New physical peptide candidates ready for validation |
This iterative workflow allows researchers to move from computational prediction to experimentally testable peptides, while using real experimental feedback to guide subsequent optimization.
Different peptide discovery projects begin at different stages.
Alan Scientific can support projects starting from:
Already have an active or partially active peptide?
We can explore sequence variants designed to improve properties such as:
Target interaction, Predicted binding affinity, Stability, Solubility, Hydrophobicity, Charge distribution, Sequence developability, Synthetic feasibility
If structural information for the target is available, structure-guided computational approaches can be incorporated to help identify and prioritize peptide candidates.
Depending on the project, inputs may include:
Target protein structure (PDB or predicted structure)
Starting peptide sequence
Known binding region or residues
Published or internal experimental information
Desired optimization objectives
Each project is reviewed individually before computational design begins.
Alan Scientific's peptide optimization workflow combines computational sequence design and structural analysis to explore peptide sequence space more efficiently than manual variant generation alone.
Depending on the project, the workflow may include:
Sequence Optimization
Generation of rational peptide variants based on the starting sequence and project objectives.
Structure-Guided Design
Evaluation of peptide–target structural compatibility where appropriate structural information is available.
Peptide–Protein Interaction Assessment
Computational comparison of candidate interactions with the target protein.
Physicochemical Property Assessment
Evaluation of properties relevant to peptide development, including molecular weight, charge, hydrophobicity, and other sequence-derived descriptors.
Candidate Ranking
Prioritization of candidates for synthesis and experimental testing.
The objective is not simply to generate large numbers of sequences.
The goal is to deliver a focused set of experimentally actionable candidates that can move directly into peptide synthesis.
AI predictions are most useful when candidates can rapidly move into the laboratory.
Unlike standalone peptide-design software, Alan Scientific can continue directly from computational optimization into custom peptide synthesis and analytical quality control.
Available synthesis options include:
| Capability | Available Options |
| Peptide Synthesis | Custom linear and modified peptides |
| Purity | Crude to high-purity peptide options |
| Quantity | Research-scale quantities based on project requirements |
| Modifications | Fluorescent labels, terminal modifications, conjugation and other custom modifications |
| Salt Exchange | TFA, acetate and other project-dependent options |
| Analytical QC | HPLC and MS |
| Delivery | Lyophilized peptides with project documentation |
Candidate number, peptide quantity, purity, and modification requirements are customized for each project and quoted separately.
The first peptide panel does not need to represent the end of the project.
Experimental data from synthesized candidates can provide valuable information for the next design round.
Researchers receive prioritized peptide candidates and physical peptides for experimental evaluation.
The client can provide available results such as:
Binding data
IC50 / EC50 results
Activity ranking
Cell-based assay results
Stability observations
Solubility observations
Positive and negative candidates
The next design round focuses on information learned from the first experimental dataset rather than restarting from the original sequence.
This creates a practical Design–Build–Test–Learn cycle for peptide optimization.
| Service Option | AI Optimization | Peptide Synthesis | Experimental Feedback Analysis | Next-Round Optimization |
| AI Optimization | ✓ | Optional | — | Optional |
| AI + Peptide Delivery | ✓ | ✓ | Optional | Optional |
| Iterative Optimization Program | ✓ | ✓ | ✓ | ✓ |
Peptide synthesis is quoted separately according to sequence, quantity, purity, modification, and project complexity.
AI peptide optimization projects are available from USD 500, depending on project scope.
Each project is customized according to the target and available input data.
Typical computational deliverables may include:
For synthesis projects, physical peptide deliverables can additionally include:
Additional analytical or modification requirements can be discussed during project review.
Computational peptide design can generate candidates quickly, but the real discovery decision begins when those candidates reach the laboratory.
By connecting design directly with peptide production, researchers can avoid coordinating separate computational and synthesis vendors.
Candidate selection can consider not only computational performance but also practical peptide synthesis considerations.
AI optimization is typically completed within 2–3 days, while selected peptides can generally proceed into a 2–3 week synthesis and QC workflow, depending on sequence complexity and project specifications.
Positive and negative experimental results can both provide information for subsequent optimization.
Instead of treating every peptide order as an isolated project, researchers can build an iterative optimization program around real experimental data.
This service can support research involving:
Project feasibility depends on the target, sequence, available structural information, and experimental objective.
To evaluate a project, send us the information currently available.
| Recommended Information | Examples |
| Target | Protein name, sequence, PDB structure or predicted structure |
| Starting Peptide | Existing peptide sequence, if available |
| Objective | Improve binding, stability, solubility or other properties |
| Existing Data | Binding, activity, screening or literature information |
| Synthesis Requirements | Number of candidates, purity, quantity and modifications |
You do not need to have every item before contacting us.
Our team can review the available information and recommend an appropriate starting workflow.
AI-Guided Design. Peptide Synthesis. Experimental Feedback. Smarter Iteration.
Move from a starting sequence to synthesized peptide candidates through one coordinated workflow.
Computational predictions are intended to support research prioritization and candidate selection and do not guarantee biological activity or experimental performance.
Biological and functional validation is performed by the client or the client's designated laboratory unless separately arranged.
Experimental results provided by the client may be used to guide subsequent computational optimization.
Explore our computational platform for AI-guided peptide sequence optimization.
Move selected peptide candidates directly into synthesis, purification, modification, and analytical QC.
Generate focused or sequence-diverse peptide libraries for screening and research.
Explore fluorescent labeling, terminal modification, conjugation, and other custom peptide modification options.