About the vacancy
R&D Other
About Your Next Job
Are you a Master’s student in (Applied) physics, Nanobiology , Mechanical Engineering or a related field, and looking for a internship project?
We are looking for a motivated student to join our team and work on the design, simulation, and experimental testing of microfluidic devices. This internship offers the opportunity to combine computational modeling with hands-on laboratory work, contributing to the development and optimization of microfluidic technologies.
The goal of this project is to design and optimize a microfluidic device using simulations and validate its performance through experimental testing in the lab. You will investigate fluid flow within microchannels, study the influence of design parameters on device performance, and use simulation results to guide the development of improved designs.
This project provides an opportunity to work at the interface of engineering, computational modeling, and experimental research, gaining practical experience in the complete development cycle of a microfluidic device.
The project duration and start date can be discussed based on your university requirements and availability.
About Your Next Colleagues
You will be part of an exciting start-up where your work will have a direct impact on the company’s technology development and future direction. You’ll have the opportunity to contribute your own ideas, take ownership of your work, and see your contributions translated into practical solutions.
Beyond the work itself, we value a friendly and collaborative team culture. We regularly enjoy informal drinks and fun team activities, creating plenty of opportunities to get to know each other outside the lab. As part of the BioPartner community at the Leiden Bio Science Park, you’ll also be surrounded by a vibrant network of innovative start-ups, researchers, and entrepreneurs working at the forefront of life sciences and biotechnology.
About Your Tasks and Responsibilities
What will you do:
- Develop and perform simulations of microfluidic devices to investigate fluid flow and pressure distribution within microchannels.
- Evaluate, optimize and advise on microchannel geometries and design parameters using simulation results.
- Operate relevant laboratory equipment and measurement systems to characterize device performance.
- Compare experimental measurements with simulation predictions and investigate discrepancies between the two.
- Analyze experimental data and document findings in technical reports and presentations.
About Your Skills and Experience
Required:
- Currently enrolled in a Master’s degree program in Applied Physics, Nanobiology, Mechanical Engineering or a related field for the duration of the internship.
- Basic knowledge of fluid mechanics and an interest in microfluidics.
- Motivation to combine computational work with practical laboratory experiments.
- A hands-on, proactive attitude and willingness to learn new techniques.
Desired skills and experience:
- Experience with numerical simulation software, such as COMSOL Multiphysics, or similar tools.
- Programming skills in Python, MATLAB, or a comparable language for data analysis and visualization.
- Familiarity with microscopy and a molecular biology wet lab is a plus, but not a requirement.
- Strong analytical and problem-solving skills.
- Ability to work independently while collaborating effectively with a multidisciplinary team.
Only apply if...
How to Apply
Please submit the following materials:
- Resume or CV.
- Availability, including your preferred start date and internship duration.
- Academic transcript or a list of relevant courses, if available.
Applications should be submitted in English
to i.zarguit@1na.nl
or y.bleiji@1na.nl .
You are eligible to work in EU
We only accept applicants who are eligible to work in the EU
Contact person
Ilias Zarguit
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1NA is a start-up dedicated to the advancement of DNA Curtains, a technology conceived by Prof. Eric C. Greene at Columbia University, which presents a novel method for analyzing protein-DNA interactions, distinguished by its capability to amass thousands of data points within one measurement, marking a pivotal shift in high-throughput research. The objective of 1NA is to make this technology available to users from academic laboratories to broader biotech and pharmaceutical sectors.