Our work in JCP has the (dubious?) honour of being selected as their Christmas card.
Recent developments in AR & VR hardware have resulted in a range of nascent commercial products, e.g. the Microsoft Hololens and DAQRI smart helmet (augmented reality), Occulus Rift and HTC Vive (virtual reality). Laboratory use is an obvious application of current tether-free AR technology, which could enable new experimental methodologies as well as offer basic procedural, efficiency, training and health and safety benefits. VR technology, which typically requires tethering to a high-performance PC, provides a complementary platform, more suited to fully immersive computational uses such as multi-dimensional data visualization and big data applications.
Early work with the Hololens, investigating 3D visualization and basic lab usage, has already begun in the group; this project would further work to explore and develop these capabilities. See also the related project on heterogenous computing.
Open science – the practice of making full research projects open and accessible, from inception to publication – is an increasingly important topic, and even appearing in the popular press, particularly with regard to transparency and reproducible in research… hence open science can be viewed as the opposite of bad science.
Open science (along with the more general notion of open data) is also part of the Canadian Government’s Open Government action plan, which includes the statement that:
The Government of Canada will maximize access to federally-funded scientific research to encourage greater collaboration and engagement with the scientific community, the private sector, and the public.
As part of our work towards open science, our articles are increasingly available on open platforms (arXiv, Authorea). And, now, good things are happening with our data too. Thanks to the Open Science Foundation (OSF) and Figshare, it’s now easy to share data, code etc. and make it citable with a DOI.
Some of our recent open science data can be found at:
Time-dependent Wavepackets and Photoionization – CS2 (2013 – present)
Our ongoing work on the calculation of time-dependent wavepackets and observables in photoionization is now collected in an OSF project (DOI: 10.17605/OSF.IO/RJMPD). Aspects of this work have previously been published, but much of the detail and methodology underlying the calculations has remained sitting on our computers. As part of our Open Science Initiative, we’re letting this data go free! Head over to the OSF project “Time-dependent Wavepackets and Photoionization – CS2” for more.
Photoionization dynamics – collected results from ePolyScat (ongoing)
An OSF project, collecting photoionization calculations (ePolyScat), and notes, is now available. This will be an ongoing resource for researchers in photoelectron spectroscopy, interferometry and related areas, and is part of our Open Science initiative.
Quantum Beat Photoelectron Imaging Spectroscopy of Xe in the VUV (2018)
Time-resolved multi-mass ion imaging: femtosecond UV-VUV pump-probe spectroscopy with the PImMS camera (2017)
- Article on Authorea, DOI: 10.22541/au.149030711.19068540.
- Full dataset and analysis scripts are available via OSF, DOI: 10.17605/OSF.IO/RRFK3.
Bootstrapping to the Molecular Frame with Time-domain Photoionization Interferometry (2017)
Time Delay in Molecular Photoionization (2016)
- Article on the arXiv (1512.03788)
- Data and additional notes, Figshare, DOI: 10.6084/m9.figshare.2007486
Let your data be free!
Recently, we noted that 2015 seems to be the year that funders get serious about academic data. With the emergence of open data mandates, we are now talking about ‘when’, not ‘if’, the majority of academic outputs will live openly on the web. Funders, governments, and institutions are already making preparations for how this content should be best managed and preserved….
There’s lots more to read on figshare, and the Nature Scientific Data blog (source of the image used above).