About me
Meet the person behind the experiments.
What I am interested in
My public research record includes a developmental-neuroscience study of plasticity-related genes in the mouse brain. That work analysed the expression of the PRG/PLPPR family across regions and developmental stages and contributed to identifying PRG4 as a strongly expressed but still poorly understood member of the family. It involved quantitative gene-expression analysis, developmental comparisons and questions about neuronal differentiation, membrane-associated signalling and brain plasticity.
In the Albert Lab, this molecular background can be connected to sensory physiology and the function of complete mechanosensory systems. I am interested in how gene expression and cellular state influence the ability of small biological structures to detect force, maintain sensitivity and adapt over time. The group's combination of molecular biology, microscopy, physiology, laser-based motion measurement and behavioural analysis makes it possible to follow a question from gene or protein to cell, organ and organism. Reliable public information about my current doctoral project is still limited, so the exact model system and hypotheses should be added after personal review rather than inferred beyond the available evidence.
Why I joined the Albert Lab
The Albert Lab brings together molecular biology, mechanics, imaging and behaviour within one group. For someone with experience in developmental gene-expression analysis, that creates an opportunity to ask how molecular programmes become measurable sensory function. The connection is especially useful because mechanosensory organs depend on specialised cells, membranes and extracellular structures whose properties can change during development, adaptation or disease.
This text is a publicly informed draft; no verified public statement describes my personal reason for joining. The professional fit, however, is clear. A doctoral project in this environment can combine established molecular methods with quantitative measurements of motion and physiology. It can also benefit from collaboration across Drosophila genetics, auditory neuroscience, microscopy and analysis software. The group encourages projects to move between levels rather than ending with expression data alone. Joining the Albert Lab therefore offers a route from identifying molecular differences to testing whether those differences alter mechanics, neural responses or behaviour in an intact sensory system.
Anything else I would like to share
My published work before joining the group reflects experience with systematic datasets, regional comparisons and the interpretation of gene-expression patterns during brain development. Those skills are relevant to any project that must distinguish a specific biological effect from variation across tissues, stages or experimental preparations. They also support careful documentation and reproducible quantitative analysis.
The public record does not currently provide reliable information about hobbies or other private interests, so this section does not invent them. It can instead communicate a professional perspective: useful research profiles should explain not only a topic but also how a person approaches evidence. In my case, the available work suggests experience with molecular and developmental questions and with integrating data across multiple brain regions and time points. Within the Albert Lab, that perspective can contribute to experiments on sensory development, cellular specialisation, plasticity and long-term maintenance. This text should remain marked for personal review and can later be replaced by a direct account of current aims, collaborations, teaching or life beyond the laboratory.



