Top Tweets for #bench3dfit
🚀 Opus 5.0 marks a breakthrough for frontier model-generated 3D ligands.
After performance stalled and even regressed from Opus 4.6 to 4.8, Opus 5.0 delivers a dramatic leap on the 3D-Fit benchmark's PLINDER test set:
🧪 Far more poses pass PoseBusters checks
⚡️ UniDock scores move into much more optimized space
🎯 Stronger alignment with the physical principles of chemistry
This is not just an incremental update. Opus 5.0 appears to make a real advance in generating plausible ligand poses. Impressive progress from @AnthropicAI! 🤯
👇 Explore #Bench3DFit at #DDDBench by @InSilicoMeds

The result that matters from #Bench3DFit: models satisfy the 3D constraints you specify — but satisfying them doesn't guarantee a physically plausible pose.
Instruction-following and physical realism are two different skills. We just watched them split. #AI4DD #DrugDiscovery
Pocket-conditioned ligand generation is like finding the right key for a lock. 🔐
The protein pocket is the lock 🔒, and the ligand is the key 🔑. The key needs the right shape and size to fit into the pocket without colliding with its walls.
But fitting the pocket is only the first part of the challenge. 📐 The teeth of the key need to line up with the right parts of the lock - just like a ligand needs to position the right functional groups at the right locations to make specific interactions with protein residues.
In practice, chemists specify these spatial requirements using different abstractions. An anchor fragment 🧩 is like a part of the molecule that you already know has to be there. A pharmacophore point 🎯 marks where a particular type of chemical feature needs to be positioned. An interaction ⚡ represents a specific contact the ligand needs to make with the pocket.
Diffusion models 🌊 have traditionally dominated 3D molecular generation, but integrating multiple heterogeneous conditions is often non-trivial. LLMs 🤖 offer a compelling alternative: they can naturally combine these diverse 3D instructions through a common language interface.
We explore this in 3D-Fit 🧬, a benchmark for 3D ligand generation under realistic spatial constraints. The results show that modern foundation models can follow local 3D constraints surprisingly well, but satisfying these constraints does not always translate into physically plausible poses or strong docking scores.
Read more in the #Bench3DFit paper: https://t.co/yTs2OFstV8
Explore recent results in #DDDBench: https://t.co/oYrb7wpEcS
3D molecular design update #Bench3DFit at https://t.co/SWJTMJQ1Uv: two frontier models started putting drug molecules into a protein pocket with geometry that fits.
Claude Opus 5 fits slightly better than GPT-5.6 Sol, but passes fewer of the other 3D filters. Still not enough.

🤔 GPT 5’s evolution on #Bench3DFit - what does it look like? We asked ourselves this after seeing Opus 5.0’s dramatic breakthrough.
🚀 The answer: constant major leaps - straight from zero to hero.
On the PLINDER test set, GPT-5.4 → 5.5 → 5.6 Sol shows a remarkably consistent trajectory:
🧪 Intramolecular pose validity rises from almost zero to a clear majority
🧩 More protein–ligand placements satisfy physical constraints
⚡️ UniDock scores shift into well-optimized territory
📈 This isn’t one isolated spike, but sustained progress.
Unlike Opus 5.0’s single dramatic jump, GPT-5 family shows sustained gains across releases. @OpenAI’s models are steadily improving physical-chemistry alignment and the reliability of realistic 3D ligand poses.
🤯 Excited to see what the next GPT version brings. Will it surpass diffusion models?
https://t.co/Y6x3xIFBSX

@OpenAI GPT-5.6 Sol is showing remarkable results on the #Bench3DFit .
Pushing the frontier in 3D chemistry, now even faster.
https://t.co/csID2vslDs
🤔 GPT 5’s evolution on #Bench3DFit - what does it look like? We asked ourselves this after seeing Opus 5.0’s dramatic breakthrough.
🚀 The answer: constant major leaps - straight from zero to hero.
On the PLINDER test set, GPT-5.4 → 5.5 → 5.6 Sol shows a remarkably consistent trajectory:
🧪 Intramolecular pose validity rises from almost zero to a clear majority
🧩 More protein–ligand placements satisfy physical constraints
⚡️ UniDock scores shift into well-optimized territory
📈 This isn’t one isolated spike, but sustained progress.
Unlike Opus 5.0’s single dramatic jump, GPT-5 family shows sustained gains across releases. @OpenAI’s models are steadily improving physical-chemistry alignment and the reliability of realistic 3D ligand poses.
🤯 Excited to see what the next GPT version brings. Will it surpass diffusion models?
https://t.co/Y6x3xIFBSX

GPT 5.6 Sol is another massive jump in 3D drug design ability!
Why does #Bench3DFit test text models on 3D output? Why not call a 3D generative tool?
It’s because understanding 3D interactions is needed for high-level DD goals and could even motivate more efficient tool calls!
🤔 GPT 5’s evolution on #Bench3DFit - what does it look like? We asked ourselves this after seeing Opus 5.0’s dramatic breakthrough.
🚀 The answer: constant major leaps - straight from zero to hero.
On the PLINDER test set, GPT-5.4 → 5.5 → 5.6 Sol shows a remarkably consistent trajectory:
🧪 Intramolecular pose validity rises from almost zero to a clear majority
🧩 More protein–ligand placements satisfy physical constraints
⚡️ UniDock scores shift into well-optimized territory
📈 This isn’t one isolated spike, but sustained progress.
Unlike Opus 5.0’s single dramatic jump, GPT-5 family shows sustained gains across releases. @OpenAI’s models are steadily improving physical-chemistry alignment and the reliability of realistic 3D ligand poses.
🤯 Excited to see what the next GPT version brings. Will it surpass diffusion models?
https://t.co/Y6x3xIFBSX

🤔 GPT 5’s evolution on #Bench3DFit - what does it look like? We asked ourselves this after seeing Opus 5.0’s dramatic breakthrough.
🚀 The answer: constant major leaps - straight from zero to hero.
On the PLINDER test set, GPT-5.4 → 5.5 → 5.6 Sol shows a remarkably consistent trajectory:
🧪 Intramolecular pose validity rises from almost zero to a clear majority
🧩 More protein–ligand placements satisfy physical constraints
⚡️ UniDock scores shift into well-optimized territory
📈 This isn’t one isolated spike, but sustained progress.
Unlike Opus 5.0’s single dramatic jump, GPT-5 family shows sustained gains across releases. @OpenAI’s models are steadily improving physical-chemistry alignment and the reliability of realistic 3D ligand poses.
🤯 Excited to see what the next GPT version brings. Will it surpass diffusion models?
https://t.co/Y6x3xIFBSX

🚀 Opus 5.0 marks a breakthrough for frontier model-generated 3D ligands.
After performance stalled and even regressed from Opus 4.6 to 4.8, Opus 5.0 delivers a dramatic leap on the 3D-Fit benchmark's PLINDER test set:
🧪 Far more poses pass PoseBusters checks
⚡️ UniDock scores move into much more optimized space
🎯 Stronger alignment with the physical principles of chemistry
This is not just an incremental update. Opus 5.0 appears to make a real advance in generating plausible ligand poses. Impressive progress from @AnthropicAI! 🤯
👇 Explore #Bench3DFit at #DDDBench by @InSilicoMeds

The good, the bad, the ugly, and the horrible on 3D molecular design tasks.
Great visuals on what "molecules" Opus models generated over each release for the same test prompt in #Bench3DFit
Even a non-chemist can see what a horrible mess it was for Opus 4.6 compared to Opus 5

Same Target, Same Prompt, 4 Claude Opus models from @AnthropicAI
#Bench3DFit from @InSilicoMeds Challenges LLMs to generate 3D molecules in a pocket using text.
Opus 5 reasons about connectivity, bond lengths, angles, protein interactions and more. A HUGE leap in 3D design!

Same Target, Same Prompt, 4 Claude Opus models from @AnthropicAI
#Bench3DFit from @InSilicoMeds Challenges LLMs to generate 3D molecules in a pocket using text.
Opus 5 reasons about connectivity, bond lengths, angles, protein interactions and more. A HUGE leap in 3D design!

Opus 5 is the first frontier model we've seen put up a negative docking score on #Bench3DFit - earlier versions were just noise with positive scores.
Still not enough though. Specialist diffusion models are way ahead. But non-random 3D molecules from a general LLM is a real step

🚀 Opus 5.0 marks a breakthrough for frontier model-generated 3D ligands.
After performance stalled and even regressed from Opus 4.6 to 4.8, Opus 5.0 delivers a dramatic leap on the 3D-Fit benchmark's PLINDER test set:
🧪 Far more poses pass PoseBusters checks
⚡️ UniDock scores move into much more optimized space
🎯 Stronger alignment with the physical principles of chemistry
This is not just an incremental update. Opus 5.0 appears to make a real advance in generating plausible ligand poses. Impressive progress from @AnthropicAI! 🤯
👇 Explore #Bench3DFit at #DDDBench by @InSilicoMeds

My take is that Fable isn't yet capable of molecular design for any use. Our #Bench3DFit paper showed LLMs aren't there. First it has to be able to predict safety profile, which is still unattainable for LLMs.
I guess it's just fear-mongering as usual.
https://t.co/RRsiOnGkcz

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