Pablo Arantes - @pabloarantes.bsky.social (@pablitoarantes) 's Twitter Profile
Pablo Arantes - @pabloarantes.bsky.social

@pablitoarantes

Research Scientist - Work interests mostly related to the simulation of biomolecular systems - Graças a Deus nasci na América Latina 🇧🇷

ID: 224803724

linkhttps://pablo-arantes.github.io/ calendar_today09-12-2010 22:27:35

6,6K Tweet

647 Followers

1,1K Following

Yehlin Cho (@choyehlin) 's Twitter Profile Photo

Excited to share our preprint “BoltzDesign1: Inverting All-Atom Structure Prediction Model for Generalized Biomolecular Binder Design” — a collaboration with Martin Pacesa, Zhidian Zhang , Bruno E. Correia, and Sergey Ovchinnikov. 🧬 Code will be released in a couple weeks

Pablo Arantes - @pabloarantes.bsky.social (@pablitoarantes) 's Twitter Profile Photo

This is the kind of message that makes it all worth it. When someone takes a moment to say thank you, it reminds me why we keep pushing forward—sharing tools, writing posts, and trying to make science more open and accessible. Grateful for the connection and the kind words!

This is the kind of message that makes it all worth it.

When someone takes a moment to say thank you, it reminds me why we keep pushing forward—sharing tools, writing posts, and trying to make science more open and accessible. Grateful for the connection and the kind words!
Kyle Tretina, Ph.D. (@allthingsapx) 's Twitter Profile Photo

Wow, is Orb-v3 an edgeless foundation model for materials & molecular dynamics? 30× faster atomistic sims, minimal memory, and near-DFT fidelity—at scale. 🧵1/2

Wow, is Orb-v3 an edgeless foundation model for materials & molecular dynamics?

30× faster atomistic sims, minimal memory, and near-DFT fidelity—at scale. 

🧵1/2
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

Atom level enzyme active site scaffolding using RFdiffusion2 🚀 New preprint from David Baker!🚀 1. RFdiffusion2 introduces a generative model that designs functional enzymes directly from atomic-level active site descriptions—without needing predefined sequence indices or

Atom level enzyme active site scaffolding using RFdiffusion2

🚀 New preprint from David Baker!🚀

1. RFdiffusion2 introduces a generative model that designs functional enzymes directly from atomic-level active site descriptions—without needing predefined sequence indices or
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

A Foundation Model for Accurate Atomistic Simulations in Drug Design 1. This paper introduces FeNNix-Bio1, a foundation machine-learning model for atomistic molecular dynamics simulations, aimed at revolutionizing drug design by providing accurate simulations that include

A Foundation Model for Accurate Atomistic Simulations in Drug Design

1. This paper introduces FeNNix-Bio1, a foundation machine-learning model for atomistic molecular dynamics simulations, aimed at revolutionizing drug design by providing accurate simulations that include
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

PepPCBench is a Comprehensive Benchmark for Protein-Peptide Complex Structure Prediction with AlphaFold3 1. PepPCBench introduces the most comprehensive benchmark to date for evaluating protein-peptide complex structure prediction using AlphaFold3 (AF3) and other PFNNs,

PepPCBench is a Comprehensive Benchmark for Protein-Peptide Complex Structure Prediction with AlphaFold3

1. PepPCBench introduces the most comprehensive benchmark to date for evaluating protein-peptide complex structure prediction using AlphaFold3 (AF3) and other PFNNs,
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

Computational design of conformation-biasing mutations to alter protein functions 1. The authors present Conformational Biasing (CB), a computational workflow that predicts mutations to bias proteins toward specific conformational states, thereby altering or enhancing protein

Computational design of conformation-biasing mutations to alter protein functions

1. The authors present Conformational Biasing (CB), a computational workflow that predicts mutations to bias proteins toward specific conformational states, thereby altering or enhancing protein
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

CreoPep: A Universal Deep Learning Framework for Target-Specific Peptide Design and Optimization 1. CreoPep is a generative deep learning platform that enables target-specific peptide design by combining masked language modeling with progressive masking and energy-based

CreoPep: A Universal Deep Learning Framework for Target-Specific Peptide Design and Optimization

1. CreoPep is a generative deep learning platform that enables target-specific peptide design by combining masked language modeling with progressive masking and energy-based
Daniel #OfertasNintendo Reenlsober 👾 (@danielreen) 's Twitter Profile Photo

#SORTEIO🎉 Em gratidão ao apoio de vocês ao meu trabalho, vou sortear um Switch 2 aos membros do ofertasnintendo.com.br - Me segue aí - 💙Curtir +🔄 RT sem comentar - Marque 2 amigos com quem jogaria um Mario Kart e coloque o print de qual grupo você faz parte. Sorteio em 23/06

#SORTEIO🎉
Em gratidão ao apoio de vocês ao meu trabalho, vou sortear um Switch 2 aos membros do ofertasnintendo.com.br

- Me segue aí
- 💙Curtir +🔄 RT sem comentar
- Marque 2 amigos com quem jogaria um Mario Kart e coloque o print de qual grupo você faz parte. Sorteio em 23/06
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

Deep-learning-based single-domain and multidomain protein structure prediction with D-I-TASSER Nature Biotechnology 1.D-I-TASSER is a hybrid deep-learning and physics-based pipeline that outperforms AlphaFold2 and AlphaFold3 in both single-domain and multidomain protein structure

Deep-learning-based single-domain and multidomain protein structure prediction with D-I-TASSER <a href="/NatureBiotech/">Nature Biotechnology</a> 

1.D-I-TASSER is a hybrid deep-learning and physics-based pipeline that outperforms AlphaFold2 and AlphaFold3 in both single-domain and multidomain protein structure
Andrew White 🐦‍⬛ (@andrewwhite01) 's Twitter Profile Photo

At FutureHouse, we’ve noticed scientific agents are good at applying average intelligence across tasks. They always seem to make the obvious choices, which is good, but discovery sometimes requires more intuition and insight than average. We’ve made the first step today towards

Gabriele Corso (@gabricorso) 's Twitter Profile Photo

Excited to unveil Boltz-2, our new model capable not only of predicting structures but also binding affinities! Boltz-2 is the first AI model to approach the performance of FEP simulations while being more than 1000x faster! All open-sourced under MIT license! A thread… 🤗🚀

rcsb pdb 💉🧬💻🔬💊🌱🧠🦠 (@buildmodels) 's Twitter Profile Photo

Researchers have discovered previously undetected chemical bonds within archived protein structures, revealing an unexpected complexity in protein chemistry. phys.org/news/2025-05-c…

Patrick Bryant (@patrick18287926) 's Twitter Profile Photo

Our latest work is out: we designed dual GLP1R/GCGR agonists—cyclic peptides that activate both metabolic receptors, entirely from sequence alone. This has never been done before. 🔗 biorxiv.org/content/10.110…

Our latest work is out: we designed dual GLP1R/GCGR agonists—cyclic peptides that activate both metabolic receptors, entirely from sequence alone.
This has never been done before.
🔗 biorxiv.org/content/10.110…
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

All-Atom Protein Sequence Design using Discrete Diffusion Models 1.This paper presents the first application of discrete diffusion models to protein design using an all-atom representation. Instead of relying on the standard 20 amino acids, the authors use SELFIES to model

All-Atom Protein Sequence Design using Discrete Diffusion Models

1.This paper presents the first application of discrete diffusion models to protein design using an all-atom representation. Instead of relying on the standard 20 amino acids, the authors use SELFIES to model
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

Structure-guided design of protein attachment points for functional augmentation of complex molecular machines 1.A new computational tool, SIMPLIFE, enables structure-guided insertion of peptide tags into proteins to enhance or modify their function without compromising

Structure-guided design of protein attachment points for functional augmentation of complex molecular machines

1.A new computational tool, SIMPLIFE, enables structure-guided insertion of peptide tags into proteins to enhance or modify their function without compromising
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

CovDocker: Benchmarking Covalent Drug Design with Tasks, Datasets, and Solutions 1.A major gap in molecular docking is the lack of support for covalent binding, which plays a critical role in drug design due to its strong and enduring interactions. CovDocker addresses this by

CovDocker: Benchmarking Covalent Drug Design with Tasks, Datasets, and Solutions

1.A major gap in molecular docking is the lack of support for covalent binding, which plays a critical role in drug design due to its strong and enduring interactions. CovDocker addresses this by
Biology+AI Daily (@biologyaidaily) 's Twitter Profile Photo

A Benchmark for Quantum Chemistry Relaxations via Machine Learning Interatomic Potentials 1.PubChemQCR is the largest publicly available dataset of DFT-based molecular relaxation trajectories, with 3.5 million molecules and over 300 million conformations, including 105 million

A Benchmark for Quantum Chemistry Relaxations via Machine Learning Interatomic Potentials

1.PubChemQCR is the largest publicly available dataset of DFT-based molecular relaxation trajectories, with 3.5 million molecules and over 300 million conformations, including 105 million