How can we contribute to the development of early career researchers in a lab environment? I’m talking about how people in the lab acquire “soft skills” or “get better” in ways that are parallel to doing research. This sort of training can get overlooked in the chase for new results and the excitement of doing biomedical research. I’m testing out a strategy to develop the skills of people in the lab. It’s an experiment.

I run a Masters module called MD997. Over six weeks, students have to write a grant proposal and then assess their peers’ proposals at a mock grant panel. Each student bases their proposal on a paper. They present that paper to the class and then they write their proposal using the paper as a springboard. I refreshed my paper list this year to consist of solely papers published (or posted on bioRxiv) in 2019. The previous list is here.

Over the holidays, I had an idea about looping an animation between two images. I wrote some code to do this in Igor Pro (sorry, no R this time…). This post describes how the code works and how you can make a similar animation. There was a reason to do this animation, but as a proof of principle I used two band logos.

I wrote a short opinion piece for the December Newsletter for the American Society for Cell Biology (ASCB). The content is reproduced below, or you can read the newsletter version here on page 14 of the PDF. The theme of this year’s ASCB|EMBO Meeting is Cell Biology for the 21st Century. So what skills are essential for a cell biologist to master in the 21st century?

This is a follow up to a previous post. Despite what the title says, it is what we wanted. Our paper on dongles has just been published in Journal of Cell Science. The previous post on quantixed , explained all about the paper and the background to it. The journal featured our paper as a research highlight and they also interviewed first author, Cansu Küey.

We have a new paper out! You can access it here. The paper in a nutshell We have discovered a new class of trafficking vesicle inside cells. These vesicles are very small (30 nm across) and we’ve called them intracellular nanovesicles, or INVs for short. What is a trafficking vesicle? Humans are built from lots of cells.

It’s real! I recently received a physical copy of my book, The Digital Cell: Cell Biology as a Data Science . It is published by Cold Spring Harbor Laboratory Press and is available here. The official release date is 1st December 2019. As I’ve described before, “The Digital Cell” a handbook to doing cell, developmental and molecular biology in the 21st Century; integrating computational and quantitative approaches.

A quick post this week. I write “this week” in an attempt to convince regular readers that weekly posting will continue. I noticed that J. Cell Sci. give download metrics for their papers and that these downloads are categorised into abstract, full-text and PDF. I was interested in how one of my papers performed.

Quaternions are essentially magic. With just four numbers, they can describe the position and orientation of an object in space. For example, the rotation of an object about one axis. Consecutive rotations can also be described by a quaternion.

A while ago, I set up a couple of Raspberry Pi Zero cameras to make long-term time lapse movies. To recap: the idea was to take pictures every ten minutes and turn them into a movie. The process is totally automated so that every day, the photos from each Pi get saved to a server, and then processed into a movie that gradually gets longer and longer. At the end of the week, if the back up went OK, the photos get deleted from the Pi’s SD card.

This post follows on from the last post on BBSRC Responsive Mode funding. Another frequent question from applicants is: “How much can I ask for?” One answer is: the same amount as successful grants. This information is freely available and can be downloaded from the UKRI website. All awarded grants can be searched (even those that have completed) using their database.