Alexandra K. Diem

Personal Website.
It's that time of year again where I start to move my anaerobic training indoors onto the #spinningbike , while I continue to run for aerobic training until I can start #langrenn #crosscountryskiing. I spent all of last winter season trying to come up with a #spinning routine that I really like, so now I decided to share it on my blog. Check the link in my bio 🔝 for the playlist plus description of the routine, and a link to my #spotify playlist. Say hi to my first potential foster failures! 😻 These two sisters got out of a situation with 60 (!) cats and are now looking for a forever home. Until then, I get to spoil the hell out of them 😊 #cat #catsofinstagram Not having to worry about anything other than whether the view out of your tent in the morning will be better here or a couple of metres over there... #spaholiday
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#hiking #utpåtur #friluftsliv #turjenter #fjelltur #soveute #fjellsport #allemannsretten #nattinaturen #intersportnorge #salomonwmn #lofoten #moskenesøya #nowaynorway @intersportnorge My #lofoten #blog post is up! Lightning fast this time because I was good and wrote all (most) of the text during the trip. Hit the link in my bio 🔝 for a story about views and non-views on the peaks, being chased by rain clouds, spotting whale bones and live whales, and more.
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#hiking #utpåtur #friluftsliv #turjenter #fjelltur #soveute #fjellsport #allemannsretten #lofoten #moskenesøya #nowaynorway

Best Poster Award at Computing in Cardiology in Singapore

My poster entitled “Porous modelling of cardiac perfusion to optimise targeted drug delivery” won a best poster award at the conference Computing in Cardiology 2019 in Singapore.

On the poster I presented a novel efficient method to track the distribution of nanoparticles or other tracers within the supplying arteries of the heart. Traditionally, tracer distributions are modelled using advection-diffusion kinetics, which is a nonlinear equation and thus incur large computational costs to solve. Our method overcomes this problem by recognising the large differences in blood velocities between larger and smaller arterioles, and capillaries. Using our method a full cardiac cycle can be simulated on a conventional laptop within minutes, opening the door towards simulating full experimental time frames of thirty minutes or longer.