In Vivo Cell-Communication Scientist (Fibrosis Research)

A*STAR - Agency for Science, Technology and Research; Singapore; On-site; SGD 90,000 - 130,000; Full time

Job summary

The Lab of Cell and Tissue Mechanosignalling at the A*STAR Skin Research Labs is seeking a highly motivated Scientist to support the development of a next-generation in vivo platform to map cell-cell communication using cell type-specific proximity labelling technologies.

This project combines molecular biology, viral gene delivery, genetic mouse models and proteomics to uncover signalling pathways that drive tissue fibrosis and identify novel therapeutic targets.

Qualifications

• PhD in Biomedical Sciences, Biological Sciences, Biotechnology or related field.
• Strong background in molecular and cellular biology with demonstrated experimental design.
• Experience with flow cytometry/FACS, proteomics or mass spectrometry is advantageous.

Responsibilities

• Design and perform experiments to develop and validate an in vivo platform for mapping cell-cell communication.
• Design and optimise genetic constructs, viral vectors and strategies for cell type-specific gene delivery and proximity labelling.
• Develop workflows for primary cell isolation, FACS and validation of cell-type delivery and labelling.
• Coordinate tandem affinity purification and downstream MS/proteomic analyses.
• Perform mechanistic validation using molecular, cellular and biochemical approaches.
• Analyse and present data; contribute to manuscripts, reports and grant applications.
• Mentor research officers and students where appropriate.
• Collaborate on lab projects and support broader research programme.

Skills

Molecular biology

Cell biology

Experimental design

Analytical skills

Scientific communication

Education

PhD in Biomedical Sciences

Tools

Flow cytometry

Mass spectrometry

Proteomics

Job description

The Lab of Cell and Tissue Mechanosignalling at the A*STAR Skin Research Labs is seeking a highly motivated Scientist to support the development of a next-generation in vivo platform to map cell-cell communication using cell type-specific proximity labelling technologies.

This project combines molecular biology, viral gene delivery, genetic mouse models and proteomics to uncover signalling pathways that drive tissue fibrosis and identify novel therapeutic targets.