The PKU-EMBL Lab is recruiting recommended-admission master’s students in two complementary tracks: Computational & AI Research (Dry Lab) and Experimental Microbiology (Wet Lab). Both tracks offer a three-year academic master’s program and integrated computational-experimental training.
Lab Overview
The PKU-EMBL Lab studies microbial resources from extreme environments, including hypersaline, alkaline, acidic, and cold habitats. We are building a high-throughput pipeline that connects environmental microbial “dark matter” with computable knowledge and experimental validation.
The lab has conducted large-scale metagenomic and metatranscriptomic sequencing together with environmental physicochemical measurements across salt, acid, and alkaline lakes in northwestern China. These datasets account for more than 80% of comparable datasets worldwide, providing a distinctive foundation for training, validating, and translating AI models for microbiome research. Our broader goal is to establish an iterative AI prediction—experimental validation—model refinement workflow.
Computational & AI Track
Research Directions
Functional genomics and biological foundation models: combine protein and genome language models with deep learning to identify low-abundance functional groups and discover novel enzymes, remote homologs, biosynthetic gene clusters, and environmental adaptation elements.
Metabolic knowledge graphs and scientific agents: connect genes, enzymes, substrates, products, and reactions through knowledge graphs, vector databases, multi-omics retrieval, and multi-agent reasoning for automated pathway discovery and feasibility assessment.
Microbial community world models: integrate metagenomes, metatranscriptomes, metabolite exchange, and environmental variables to predict community interactions, state transitions, and intervention responses.
High-performance software and community Hub: develop bioinformatics algorithms, databases, automated workflows, and visualization platforms while exploring GPU acceleration and agent-driven research workflows.
Candidate Profile
Applicants should have enthusiasm for AI for Life Science, microbiome research, or computational biology; a strong foundation in mathematics, statistics, or computer science; and proficiency in at least one language such as Python, Rust, C, or C++. Experience in biological foundation models, scientific agents, bioinformatics, high-performance computing, or knowledge graphs is expected. Proficiency in Vibe Coding, reusable Skills, and other AI-assisted development workflows is strongly encouraged. Research projects, open-source work, algorithm competitions, and end-to-end software projects are valued but are not strict requirements.
Experimental Microbiology Track
Research Directions
Cultivation and identification of extremophiles: develop efficient cultivation methods for difficult-to-culture and low-abundance microorganisms and build a distinctive extremophile resource collection.
Validation of novel enzymes and functional genes: clone, express, and characterize AI-predicted enzymes, remote functional genes, and environmental adaptation elements.
Heterologous expression of biosynthetic gene clusters: clone and assemble target clusters, establish expression systems, detect products, and investigate novel natural-product biosynthesis.
Pathway characterization and synthetic biology: combine gene knockout, overexpression, CRISPR, and metabolomics to validate new pathways and optimize chassis and expression systems.
Translation: advance functional strains, extremozymes, and natural products toward bioremediation, biomass and energy conversion, and pharmaceutical development.
Candidate Profile
Applicants should have strong molecular biology fundamentals and practical experience with molecular cloning, PCR, and protein expression and purification. Experience with heterologous expression in E. coli, yeast, or other systems is preferred. CRISPR, metabolic engineering, natural-product analysis, or metabolomics experience is a plus. We value strong hands-on ability, independent experimental planning, rigorous record-keeping, and willingness to use AI-assisted research tools and collaborate closely with computational researchers.
Training model: integrated dry-wet training with a domestic and international mentoring team
Resources: H200, A100, and L40S GPU clusters; comprehensive experimental platforms; extensive extreme-environment samples and multi-omics datasets; and opportunities for academic exchange and industry translation
Internships: high-quality internships are encouraged and fully supported with flexible arrangements
Goal: develop interdisciplinary researchers with international perspective, independent research ability, and the capacity to move discoveries from data and models to experimental validation and application