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Cell-penetrating peptides


KELM-CPPpred

Webserver
Cell-penetrating peptides Kernel extreme learning machine Machine learning

KELM-CPPpred is a kernel extreme learning machine (KELM)-based prediction model for cell-penetrating peptides, integrating amino acid composition, dipeptide composition and other features.

Khan, S., et.al's work

Tool
Anti-inflammatory peptides Parallel deep learning Neural network Computational biology Data balancing

A high-throughput anti-inflammatory peptide (AIPs) predictor based on parallel deep neural networks, balancing sequence data via SMOTETomek to address challenges in precise AIPs classification for traditional ML algorithms.

LAMP

Database
Antimicrobial peptides Database Cytotoxicity Structure-activity relationship Drug development

LAMP is a linked database for antimicrobial peptides (AMPs), designed to facilitate the discovery and design of new antimicrobial agents. The current version contains 5,547 entries, including 3,904 natural AMPs and 1,643 synthetic peptides. Integrating detailed antimicrobial activity and cytotoxicity data, it supports keyword and combinatorial condition searches, with cross-linking and top similar AMP recommendation functions to assist in analyzing AMP structure-activity relationships. This accelerates the development of new AMPs with high antimicrobial activity and low cytotoxicity, promoting translation from basic research to clinical/preclinical trials.

Lee, YC., et.al's work

Tool
Anti-angiogenic peptides Machine learning Feature selection N-terminal features Hydrophobic residues

A sequence-based predictor for anti-angiogenic peptides (AAPs) identification, achieving high-precision prediction via machine learning models. The model transforms each peptide sequence into a 4335-dimensional numeric vector based on 58 feature types, employs a heuristic algorithm for feature selection, and optimizes hyperparameters of six machine learning models for the selected feature subset. 

Lijuan Yang, et.al's work

Tool
Anticancer peptides Wasserstein autoencoder Particle Swarm Optimization Peptide–protein docking Drug design

A computational framework for generating anticancer peptides (ACPs) by integrating Wasserstein Autoencoder (WAE) generative model and Particle Swarm Optimization (PSO) forward search algorithm, guided by an attribute predictive model. Compared to VAE and GAN, WAE demonstrates lower perplexity and reconstruction loss during training, with semantic connections in its latent space accelerating PSO's controlled generation process.