E11 Bio - Scientist/Senior Scientist, Molecular Engineering & Sample Optimization
@ Convergent ResearchE11 Bio - Scientist/Senior Scientist, Molecular Engineering & Sample Optimization
About the job
E11 Bio is a nonprofit research org in California advancing whole brain connectomics. We develop innovative methods for tissue analysis, molecular and imaging tech, supporting neuroscience discovery.
Requirements
- Molecular biology experience
- Tissue preparation skills
- Quantitative data analysis
- Assay development expertise
- Collaborative team work
Qualifications
- Degree in biology, neuroscience, or engineering
- Experience with assay development
- Strong analytical skills
- Knowledge of tissue preservation
- Experience in microscopy
Full job description
E11 Bio is on a mission to advance connectomics towards whole brain scale for humans and other mammals. We are a collaborative and interdisciplinary team of scientists and engineers engaged in a neuroscience moonshot project to develop a radical technology platform for scalable mammalian brain mapping. E11 Bio is a non-profit Convergent Research focused research organization located in Alameda, California, pursuing blue-skies neuroscience research yet operating like a nimble, tight-knit start-up. Read our technology roadmap.
E11 Bio is seeking a mission-aligned experimental scientist, equally at home at the bench, the microscope, and in quantitative data analysis, who brings an engineering approach to the full pipeline, from sample preparation through molecular readout tools. This role owns both optimizing the physical preparation of the tissue and engineering the reagent panels across two target types: comprehensive synapse identification and barcode epitopes. Reporting to the Barcoding Lead, you will define what high-quality tissue means quantitatively and will drive the improvement of high quality morphology and protein readout by working closely with molecular biology, imaging, and computational teams to support whole-brain connectomics.
Responsibilities
Develop and deploy an assay to systematically evaluate and improve the fixation quality and preservation of brain tissue
Establish and integrate quantitative metrics of molecular readout e.g. protein retention, antigenicity, and labeling quality across tissue preparation conditions
Work closely with in vivo research technicians to design experiments, evaluate results, and optimize SOPs
Drive the development of data-analysis pipelines to routinely generate key performance indicators of sample tissue quality
Generate an in-house pipeline for binder design/discovery, validation, and optimization of epitope-binder pairs in hydrogels to improve the readout of epitope barcode bits and relevant native synaptic proteins
Develop novel highly multiplexed protein readout strategies for protein barcodes and molecular annotation of synapses and cell types
Outcomes
In the first 6 Months
Defined key indicators for perfusion quality and deploy an assay to routinely capture these.
Incorporated protein retention, antigenicity, and specificity as per-stage metrics across the sample generation pipeline.
Deployed early perfusion or fixed tissue readout metrics that predict the final expanded tissue quality, including both overall preservation and specific markers of cellular health
Recorded a measurable > 20%improvement in expanded ultrastructural image contrast compared to current baseline perfusion & gelation protocol
First new epitope-binder designs in production
Developed assay for binder compatibility in expanded tissue, and validated this assay against existing pairs
Identified and validated a cocktail of binders for identifying most synapses via e.g. synaptic vesicle binding
In 12 Months:
Evaluated the first set of designed epitope-binder pairs and synaptic protein-binder pairs and qualified in expanded tissue, 5+ binders exceeding commercial SOTA performance.
With collaborators, improved the multiplexed readout strategy to allow for routine incorporation into the imaging pipeline and a demonstrated increase in key barcode metrics (e.g. imaging speed or entropy increases)
Identified and validated multiple cocktails of binders for stratifying excitatory and inhibitory synapses