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Over 70% cost reduction in hit discovery — powered by LM-VS™

10B

Compound Library

50

AI Learning Cycles

$20K

Per Target Protein

200

Top Candidates

LM-VS™ screens even for the most challenging targets — GPCR, MG, TPD, etc.

GPCR Target

GPCR Target

We identify anchor residues within Open-Close membrane protein pockets to stabilize the ligand scaffold and initiate virtual screening.

Molecular Glue

Molecular Glue

We search for a molecular glue that acts as an adhesive between two weakly interacting proteins, thereby strengthening their interaction.

Targeted Protein Degrader

Targeted Protein Degrader

We identify the optimal compound that binds to the two pockets present in the degrader and the target, and then design a linker using the scaffolds of both compounds.

The entire process can be automatically executed — on the STB Cloud

Workflow: Planning > IV > LM-VS™ > PAV

Step 1

IV — Scaffold Design by MD Snapshots

Among the MD snapshots from Molecular Dynamic simulation in 10 ns time scale, the purine ring showed the least movement and was therefore selected as the scaffold, which is highlighted in red in Figure 1.

R1 cluster indicates that the red-colored dot (Purine ring) interacts most frequently with the protein residue, Y683 in Figure 2.

IV — Scaffold Design by MD Snapshots
Step 2

LM-VS™ — 10 Billion Compound Screening

LM-VS™is a target-agnostic hit discovery platform because it is designed to perform screening even for the most challenging targets, GPCR, MG, TPD, as long as the target pocket contains residues that can serve as π-stacking anchors — such as TYR, PHE, TRP, ARG, or LYS.

By representing compound bonds within the pocket as 1D word strings and performing a Google-style inverted indexing search across a 10-billion-compound library, ultra-fast retrieval (as fast as 1/7,000 second) is possible.

Compounds selected based on 1D string similarity are then re-docked in 3D, and those filtered by binding energy and scaffold similarity are defined as hit candidates.

In each iteration, the top 200 candidates are used for subsequent searches, and by repeating this process for 50 to 100 cycles, it becomes possible to screen scaffold-derived analogs, derivatives that are synthetically accessible or commercially available.

LM-VS™ — 10 Billion Compound Screening
Step 3

PAV – Result Summary & Ranking

1. Post-Analysis-View

This result visualizes the docking within the protein pocket, where the anchor residues (in yellow) interacting with the compound scaffold are fixed in position.The remaining portions of the compound are displayed as the screened derivatives, as shown in the figure.

2. Summary Report

(A) Hit Candidates Distribution – A 3D scatter plot illustrates the distribution of hit candidates according to CNNaffinity, CNNscore, and Ring Match Score.

(B) Accumulation of Hit Counts per Run – The cumulative number of strong and moderate hits is shown as the runs progress.

3. Excel Report & Function Rank

This report includes vendor information for compound synthesis and provides a functional score calculated from affinity parameters (CNNscore, CNNaffinity) and ADME descriptors (MW, LogP, HBA, HBD, MolMR, Solubility, Caco2 permeability, Rotatable Bonds, Strain Energy) according to the following formula.

PAV – Result Summary & Ranking

Speed. Reliability. Scale.

Our 15MW AI Bio Supercom Center runs 5,000+ GPUs in parallel, screening 10 billion compounds and generating results instantly.

  • 15MW AI Bio Supercom Center
  • 5,000+ CPU/GPU clusters (to be expanded to 30,000 units)
  • Massively parallel high-performance cores
  • Independent cluster architecture for real-time stability
  • Instant results with zero data loss

AI efficiency redefines discovery. Complete hit discovery for just $20K.

LM-VS™ isn't about being cheaper — it's about being smarter.

Timeline
Within 3 weeks
AI Learning Cycles
Up to 50 Iterative Optimization
Compound Library
10 Billion (Enamine, Synple, SAVI & ZINC)
Deliverables
Top 200 Candidates Report + Structure Dataset

FAQ

AI virtually screens over 10 billion compounds, pinpointing the most promising candidates before any lab work begins. This dramatically reduces the time and resources required for early-stage discovery.

No waiting. Just results — LM-VS™ Achieve results beyond what's possible.