CEO, Daniel Haders II, PhD, to address the inference throughput barrier in AI-driven drug discovery and lead a roundtable on deploying LLMs and AI agents to navigate the multi-parameter optimization challenge in small molecule drug design
San Diego, CA — 3/17/26 —
Model Medicines
, an AI-first biotechnology company
engineering first-in-class therapeutics, today announced that Daniel Haders II,
PhD, Founder and CEO, will present on the transformative power of Ultra-Large
Virtual Screening (ULVS) and lead a roundtable discussion highlighting Agentic
AI at the upcoming
AI Convergence: Small
Molecule Discovery Summit
,
March 19–20, 2026, in Boston, Massachusetts.
Presentation
& Roundtable Schedule
●
Roundtable:
Building Agents & Exploring Emerging LLM Use Cases for Small Molecule
Discovery Funnel Applications - Thursday, Mar 19, 2026
●
Presentation: Breaking the Throughput
Barrier: Ultra-Large Virtual Screening as a Precision Amplifier for AI-Driven
Drug Discovery - Friday, Mar 20, 2026
Reaching
Into Deep Chemical Space
The featured presentation will
demonstrate that
inference
throughput is the bottleneck impeding the full potential of AI-driven drug
discovery, and
that Model Medicines’ Ultra-Large Virtual Screening
architecture unlocks that potential
.
Laboratory-based
High-Throughput Screening (HTS) has the potential to evaluate one million
compounds per day.
[1]
State-of-the-Art (SOTA) AI-Driven drug discovery campaigns are capable of
screening two million (BioHive) to eight billion (Atomwise) compounds per day.
[2]
Together,
laboratory-based and current SOTA AI-driven screenings have been constrained to
a ceiling of 8E+9 in chemical space. It is estimated that all potential
drug-like compounds exist in a chemical space of 1E+60.
[3]
The scale of compounds screened
for a given therapeutic target, relative to the potential chemical space, has
been described as less than a single drop of water in all the world’s oceans. The
result is incremental improvements to known target-ligand chemistry and the
rediscovery of known scaffolds. Novel chemistry resides in deeper, unexplored
regions of chemical space that current methods cannot access due to
insufficient throughput.
Model
Medicines’ Ultra-Large Virtual Screening (ULVS) approach overcomes this
constraint and unlocks AI-driven drug discovery. The company executed a
325-billion-compound ULVS in a day in 2025 in partnership with Google.
[4]
This was the largest machine-learning–driven bioactivity
screen publicly reported to date.
[5]
Touching 3E+11 chemical space, this
approach was the foundation for the development of two first-in-category
programs against the “undruggable” transcription factor BRD4 and the novel
broad-spectrum RdRp Thumb-1 target. This year, the company announced that it is
constructing a one-trillion-compound (1E+12) scale screen.
“Inference
throughput is the discovery variable holding back AI-driven drug discovery from
revolutionizing medicine,” said Daniel Haders, PhD, Founder and CEO of Model
Medicines. “Trillion-scale Ultra-Large Virtual Screening regimes fundamentally change
what chemistry can be discovered, what diseases can be solved, and how many
patients can be reached.”
Drug
Discovery as a Multi-Parameter Optimization Problem
The
roundtable discussion will build on previous talks Dr. Haders has delivered on
AI agents and LLMs and their ability to address drug discovery’s defining
challenge: Multi-Parameter Optimization.
Every
drug program is guided by a Target Product Profile (TPP) that maps back to the
patient. The list spans indication and intended use, target population,
efficacy goals, safety and tolerability, dosage form, route and frequency of
administration, storage and stability, market access, patient experience,
regulatory milestones, and manufacturing feasibility. Translating a TPP into a
molecule means simultaneously optimizing across affinity, potency, selectivity,
solubility, oral bioavailability, tissue partition, half-life,
pharmacokinetics, drug-drug interactions, safety and tolerability, ADME
properties, synthesizability, and chemical and physical stability.
Model
Medicines recently published and released AmesNet, an agent that replaces the
regulatory required Ames genotoxicity test. AmesNet outperformed all
literature-reported Ames agents, including the FDA’s DeepAmes, Baidu’s GROVER,
and MIT’s ChemProp.
[6]
Using AmesNet as an example, the roundtable will examine how agent-based
systems and emerging LLM applications can be deployed across the discovery
funnel to navigate multi-parameter optimization complexity. Here, the objective
is to accelerate decision-making, coordinate across functional disciplines, and
maintain alignment with the TPP as programs advance toward the clinic.
About
Model Medicines
Model
Medicines is an AI-first biotechnology company engineering first-in-class small
molecules that target the biological linchpins underlying disease. The
company’s research spans infectious disease, oncology, and inflammation, with
programs designed around conserved molecular choke points that drive multiple
pathologies. Model Medicines has discovered a direct-acting, non-nucleoside,
broad-spectrum antiviral (MDL-001) and a BRD4 inhibitor with no measurable
activity against BRD2/3 (MDL-4102). Its work demonstrates how large-scale
computation can uncover entirely new classes of drugs once thought unreachable.
Model Medicines is advancing a new generation of therapeutics that redefine
what is possible in modern drug discovery. Learn more at
Media
Contact:
Patrick O’Neill
Head of
Partnerships & Investor Relations
media@modelmedicines.com
[1]
AstraZeneca. High throughput screening at The DISC: a
new era of drug discovery [Video]. YouTube. February 12, 2025 [Accessed March
16, 2026]. Available from:
[2]
Model Medicines. Record-Scale AI Screening with Model
Medicines on Google Cloud: GALILEO™ Achieves 325 Billion Molecule Throughput
for Oncology Drug Discovery. Available from:
[3]
Reymond JL. The Chemical Space Project. Acc Chem Res.
2015 Mar 17;48(3):722-30. doi: 10.1021/ar500432k.
[4]
Google Cloud. LA Tech
Week - AI for Startups in Healthcare Lifesciences [Internet]. Venice (CA):
Google; 2025 Oct 17. Available from:
[5]
Google Cloud. Google
Cloud to host second-annual Cancer AI Symposium in New York City [Internet].
New York: PRNewswire; 2025 Oct 30. Available from:
[6]
Umansky T, Woods V, Russell SM, Haders D. AmesNet: A
Task-Conditioned Deep Learning Model with Enhanced Sensitivity and
Generalization in Ames Mutagenicity Prediction. bioRxiv [Preprint]. 2026 Feb 11
[cited 2026 Mar 16]:[15 p.]. Available from: