Two weeks ago (already!), the NanoSafety Cluster (NSC) organized two meetings. First, there was on Wednesday afternoon the NSC half-yearly meeting. Second, on Thursday and Friday, in the beautiful Visby on Gotland, the 2nd NanoSafety Forum for Young Scientists. I ran an experiment there, which I will blog about later. Here, please find the slides of my presentation about Open Data I gave on Wednesday:
Oh, and I also presented a few slides about the Working Group 4 activities:
Friday, September 30, 2016
Monday, September 12, 2016
|Caffeine metabolites. Source: Wikimedia.|
However, identifier mapping for metabolites is non-trivial, and I won't got into details in this post. Instead, the mapping databases that I have been releasing under the CCZero waiver on Figshare use other data sources. When I took over the building of these databases, it used data from the Human Metabolome Database (doi:10.1093/nar/gks1065). It still does. However, I added as data sources to this, ChEBI (doi:10.1093/nar/gkv1031) and Wikidata. The latter I need to support people with, for example, KNApSAcK (doi:10.1093/pcp/pct176).
So, this weekend I released a new mapping database, based on HMDB 3.6, ChEBI 142, and data from Wikidata from September 7. Here are the total number of identifiers and changes compared to June release for the supported identifier databases:
Number of ids in Kd (KEGG Drug): 2013 (unchanged)
Number of ids in Cks (KNApSAcK): 4357 (unchanged)
Number of ids in Ik (InChIKey): 52337 (unchanged)
Number of ids in Ch (HMDB): 41520 (6 added, 0 removed -> overall changed +0.0%)
Number of ids in Wd (Wikidata): 22648 (195 added, 10 removed -> overall changed +0.8%)
Number of ids in Cpc (PubChem-compound): 30699 (154 added, 36 removed -> overall changed +0.4%)
Number of ids in Lm (LIPID MAPS): 2611 (unchanged)
Number of ids in Ce (ChEBI): 131580 (4 added, 6 removed -> overall changed -0.0%)
Number of ids in Ck (KEGG Compound): 15968 (unchanged)
Number of ids in Cs (Chemspider): 24948 (10 added, 2 removed -> overall changed +0.0%)
Number of ids in Wi (Wikipedia): 4906 (unchanged)
Friday, September 09, 2016
|Annotation of licenses of life science|
databases in Wikidata.
- Furthermore, when hyperlinks are posted for profit, it may be expected that the person who posted such a link should carryout the checks necessary to ensure that the work concerned is not illegally published.
Now, realize that in many European Commission funded projects, with multiple partners, sharing IP is non-trivial, ownership even less (just think about why traditional publishers require you to reassign copyright to them! BTW, never do that!), etc, etc. A lot of funding actually goes to small and medium sized companies, who are really not waiting for more complex law, nor more administrative work.
A second realization is that few scientists understand or want to understand copyright law. The result is hundreds of scholarly databases which do not define who owns the data, nor under what conditions you are allowed to reuse it, or share, or reshare, or modify. Yet scientists do. So, not only do these database often not specify the copyright/license/waiver (CLW) information, the certainly don't really tell you how they populated their database. E.g. how much they copied from other websites, under the assumption that knowledge is free. Sadly, database content is not. Often you don't even need wonder about it, as it is evident or even proudly said they used data from another database. Did they ask permission for that? Can you easily look that up? Because you are now only allowed to link to that database until you figured out if they data, because of the above quoted argument. And believe me, that is not cheap.
Combine that, and you have this recipe for disaster.
A community that knows these issues very well, is the open source community. Therefore, you will find a project like Debian to be really picky about licensing: if it is not specified, they won't have it. This is what is going to happen to data too. In fact, this is also basically why eNanoMapper is quite conservative: if it does not get clear CLW information by the rightful owner (people are more relaxed with sharing data from others, than their own data!), it is not going to be included in the output.
IANAL, but I don't have to be to see that this will only complicate matters, and the last thing that will do is help the Open Data efforts of the European Commission.
I have yet to figure out what this means for my Linked Data work. Some databases do great work and have very clear CLW information. Think ChEMBL, WikiPathways, and also Open PHACTS did a wonderful job in tracking and propagating this CLW information. On the other hand, Andra Waagmeester did an analysis of database license information of life sciences databases and note the number of 'free content' and 'proprietary' databases (top right figure), which are the two categories of databases where the CLW info is not really clear. How large the problem is with illegal content in those databases (e.g. text mined from literature, screenscraped from another database), who knows, but I can tell you this is not insignificant, unless you think it's 99%.
At the same time, of course, the solution is very simple. Only use and link to websites with clear CLW information and good practices. But that rules out many of the current databases, but also supplementary information, where, even more than in databases, the rules of copyright are ignored by scientists.
And, honestly, I cannot help but wonder what all the publishers will now do with all the articles published in the past 20 years with hyperlinks in them. I hope for them it doesn't link to illegal material. Worse, the above quoted argument will have to make sure, none(!) of those hyperlinks point to material with unclear copyright.
I'll end this post with a related Dutch law (well, at least for the sake of this post). If you buy second hand goods, and the price is less than something like 1/3rd of the new price, you must demand the original receipt of the first buy. Because if not provided, you are legally assumed to realize it is probably stolen. How will that translate to this situation? If the linked scientific database is less then 1/3rd of the cost of the commercial alternative, you may assume it is illegal? Fortunately, this argumentation does not apply.
Problem is, there are enough "smart" people that misuse weird laws and ruling like this to make money. Think of the patent trolls, or about this:
What can possibly go wrong?Get rich quick scheme: FOIA funded grant proposals of known cheaters...https://t.co/aU4GVRk4O4 pic.twitter.com/TvmvFCLKft— PubPeer (@PubPeer) September 4, 2016
Friday, September 02, 2016
For scientific information this doesn't exist; we have to do with tools like Google Scholar and Google Images. Both are pretty brilliant and allow you to filter on things, besides your regular keyword search. Of course, what we really need is an ontology-backed search, which Google seamlessly integrates under the hood, e.g. using the aforementioned schema.org.
Now, particularly for my teaching roles, I am frequently looking for material for slides, to support my message. Then, Google Images is great, as it allows me to filter for images that I am allowed to use, reuse, and even modify (e.g. highlight part of the image). Now, I know that some jurisdictions (like the USA) have more elaborate rules about fair use in education, but these rules are too often challenged and money, DRM, etc, limit those rights. Let alone scary, proposed European legislation (follow Julia Reda!).
So, I very much welcome this new effort! Search engine have a better track record than catalogs, like the Open Knowledge Foundation's DataHub. Of course, some repositories are getting so large, like FigShare, to a large extend by very active population by publishers like PLOS, they may soon become a single point of entry.
Saturday, August 27, 2016
|cAMP. Picture from Wikipedia.|
So, in my WTF-moment of the day, I was reading about various RNA, then nucleotides, etc, and got to cAMP. This, and I know that from WikiPathways too, can act as a secondary signalling compound: membrane receptor passes the signal on to cAMP. But then? I mean, one single molecule. Supposed to give a variety of signals. How?? How can it be selective? How is the hormone-specific signal not lost when passing the cytoplasma?? Or is it just a general "ALERT ALERT, SOMETHING OUTSIDE HAPPENED"?
Back to the book.