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Single Molecule Microscopy Jobs in Kentucky (NOW HIRING)

$60 - $80/hr

Prior experience in live-cell imaging, advanced microscopy, super-resolution microscopy, single-molecule imaging, lattice light-sheet microscopy, or imaging probe development. * Interest in applying ...

$60 - $80/hr

Preferred qualifications include research experience in one or more of the following areas: single-molecule biophysics, stem cells and organoids, microfluidics, fluorescence microscopy, or scientific ...

$60 - $80/hr

Apply molecular and cellular techniques such as single-cell RNA-seq, flow cytometry, and imaging ... Microscopy * Single-cell genomics * Bioinformatics * Pharmacology * Interest in translational ...

$125 - $150/hr

... single-molecule interactions. We believe nanopores generate a high-dimensional measurement of ... microscopy. * Perform failure analysis and root-cause investigations to improve yield and device ...

$60 - $80/hr

... SHG) microscopy, transcriptomics, and machine learning to develop novel multimodal markers of ... molecular biology, and computational multi-omic integration within a single translational research ...

$80 - $100/hr

... molecular and cell biology research, in applied and biopharma applications, in microscopy, as well ... spatial and single-cell biology, structural and condensate biology, as well as in clinical ...

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Single Molecule Microscopy information

What is single molecule microscopy?

Single molecule microscopy is an advanced imaging technique that allows scientists to observe and analyze individual molecules in real time, often within living cells. Unlike traditional microscopy, which looks at the collective behavior of many molecules, this method provides detailed insights into molecular interactions, dynamics, and functions at the single-molecule level. It is widely used in biophysics, chemistry, and cell biology to study processes such as protein folding, enzyme activity, and molecular transport. This technique requires highly sensitive equipment and specialized fluorescent labeling to detect and track single molecules with great precision.

What are some common challenges faced by single molecule microscopy researchers, and how can they be addressed?

Single molecule microscopy researchers often encounter challenges such as minimizing background noise, achieving high-resolution imaging, and ensuring sample stability during prolonged observations. Addressing these issues typically involves optimizing sample preparation protocols, using advanced imaging techniques like Total Internal Reflection Fluorescence (TIRF) microscopy, and implementing robust data analysis tools. Collaborating closely with physicists, chemists, and bioinformaticians can also help troubleshoot technical hurdles and improve experimental outcomes.

What are the key skills and qualifications needed to thrive as a single molecule microscopy specialist, and why are they important?

To thrive in Single Molecule Microscopy, you need a strong background in physics, chemistry, or biology, typically with an advanced degree and experience in microscopy techniques. Familiarity with advanced fluorescence microscopy systems, data analysis software (such as ImageJ or MATLAB), and often certifications in laboratory safety are important. Attention to detail, problem-solving abilities, and effective communication help in troubleshooting experiments and collaborating with multidisciplinary teams. These skills are essential for generating accurate data, driving scientific discovery, and ensuring the reliability of experimental results.

What is the difference between Single Molecule Microscopy vs Fluorescence Microscopist?

AspectSingle Molecule MicroscopyFluorescence Microscopist
Required CredentialsAdvanced microscopy training, possibly PhD in biology or physicsSimilar; microscopy experience, often with a background in biology or chemistry
Work EnvironmentResearch labs, academic institutions, biotech companiesResearch labs, hospitals, biotech firms
Industry UsageSpecialized research in molecular biology, biophysicsBroad applications in cell biology, medical research

Single Molecule Microscopy and Fluorescence Microscopist roles share similar credentials and work environments, but Single Molecule Microscopy focuses on observing individual molecules, requiring specialized techniques. Fluorescence Microscopists often work with broader fluorescence imaging, making the roles distinct yet related in microscopy expertise.

What are popular job titles related to Single Molecule Microscopy jobs in Kentucky?

For Single Molecule Microscopy jobs in Kentucky, the most frequently searched job titles are:

What job categories do people searching Single Molecule Microscopy jobs in Kentucky look for?

The top searched job categories for Single Molecule Microscopy jobs in Kentucky are:

What cities in Kentucky are hiring for Single Molecule Microscopy jobs?

Cities in Kentucky with the most Single Molecule Microscopy job openings:

Postdoctoral Research Associate - Quantitative Microscopy and Live-Cell Chromatin Imaging

St. Jude Children's Research Hospital

On-site

$60 - $80/hr

Other

Posted 6 days ago


St. Jude Children's Research Hospital rating

8.8

Company rating: 8.8 out of 10

Based on 13 frontline employees who took The Breakroom Quiz

30th of 1,065 rated hospitals


Job description

Postdoctoral Research Associate - Quantitative Microscopy and Live-Cell Chromatin Imaging

Location

Memphis, TN

Category

Postdoc

Department

Shift

Weekday Day

Position Type

Full Time

Scheduled Weekly Hours

40

JR7508

Job Description

The Solecki Lab is building imaging-based biosensor platforms that make chromatin states directly visible, measurable, and experimentally queryable in living neurons. We are recruiting postdoctoral fellows who want to develop and apply advanced microscopy approaches to understand how chromatin-state transitions unfold as neurons mature and assemble into brain circuits.

This position is ideal for an imaging-focused trainee who wants to work at the interface of live-cell microscopy, chromatin biology, quantitative image analysis, and developmental neuroscience. The central goal is to move beyond indirect molecular endpoints and watch chromatin-state dynamics occur in real time in developing neurons.

Postdoctoral fellows will focus on the imaging challenge of making chromatin-state dynamics measurable in living neurons by optimizing biosensor performance, microscopy acquisition, and quantitative analysis of epigenetic modifications, nuclear organization, and chromatin-state transitions during neuronal differentiation. Projects will combine live-cell imaging, lattice light-sheet and/or super-resolution microscopy, neuronal differentiation systems, acute perturbations, and computational image analysis to understand how gene-regulatory states are organized in developing neurons.

The aim is not simply to apply existing tools, but to help build new experimental frameworks. Fellows will contribute to the development of probes, assays, imaging strategies, perturbation workflows, and quantitative analysis pipelines that make previously invisible chromatin dynamics visible and mechanistically testable.

Successful fellows will define a major project within the lab’s broader effort to understand chromatin-state dynamics, nuclear organization, neuronal maturation, and circuit assembly. They will work closely with the PI and an interdisciplinary team of cell biologists, developmental neurobiologists, biophysicists, optics experts, and data scientists to generate high-risk, high-reward experiments, first-author publications, and a distinctive scientific identity at the interface of advanced imaging and neurodevelopment.

St. Jude Children’s Research Hospital provides an exceptional postdoctoral training environment with outstanding institutional support, cutting-edge imaging technologies, collaborative core laboratories, and a culture of scientific excellence. Fellows will have access to advanced microscopy platforms, data science expertise, and a highly collaborative environment where new imaging probes, biosensor systems, and analytical methods converge on fundamental problems in brain development.

The Ideal Candidate will have:

  • a PhD in cell biology, biophysics, gene regulation, neuroscience or related discipline

  • Prior experience in live-cell imaging, advanced microscopy, super-resolution microscopy, single-molecule imaging, lattice light-sheet microscopy, or imaging probe development.

  • Interest in applying imaging-based approaches to chromatin organization, nuclear dynamics, epigenetic regulation, or neuronal differentiation.

  • Familiarity with quantitative image analysis, including tools such as Python, MATLAB, R, Fiji/ImageJ, Imaris, or related platforms.Strong record of peer-reviewed publications

  • Experience with segmentation, tracking, registration, time-series analysis, or automated image-processing workflows is desirable.

  • Experience with fluorescent probes, biosensors, HaloTag/SNAP-tag systems, protein engineering, or live-cell assay development is desirable.

  • Ability for cogent experimental preparation, validation, documentation, and troubleshooting.

St. Jude is an Equal Opportunity Employer

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