Maybe the format needs to change. Perhaps journals should require video, audio commentary or automated note taking for publication.
Maybe the format needs to change. Perhaps journals should require video, audio commentary or automated note taking for publication.
While at the time I was pretty upset with him, perhaps it's the competitive nature of science and funding that also gives people a mild incentive to be secretive.
In this case, simply publishing code would have resolved the questions.
That's not science, that's bullshit. Can you please expose that? Scientists shouldn't simply get away with such malicious behavior.
People could also publish plain text data as supplementary material, but why do that when you can get away with a raster image of a plot...
I'm actually surprised to hear of high school teaching good scientific practice. I don't remember ever being taught that. Widely may it spread.
As you say - it's not a comforting lie, it's a command.
Any real scientists ought to recognize that secrecy as a strategy is terrible for science as a whole even if it is very temporarily good for them.
Especially for final masters degree projects this is very common as the students don't get paid by the university at all, so many try to find a company to sponsor. But the students still need the uni to publish the report for them to get their final degree so you get this conflict of interest again. Most of these reports are just written with the end goal of getting a degree, not of creating solid research, this really needs the stricter universities not letting through all that crap, for now they shouldn't really be trusted the same way as proper research papers.
Edit: This is additional context for the commenters below.
I felt my results were solid enough (and that my skill at producing more results was good enough) that this wouldn't hurt me. This was just how things worked in my field (physics).
Interestingly, my experimental colleagues rarely felt that they couldn't reproduce results they saw in a paper.
I'm not saying you're wrong about the incentives - scientists are often incentivized toward secrecy - but I deny that we have to follow such incentives.
Am I worried about getting scooped on the results of a major, multi-year cohort study that would take thousands of dollars to replicate? Nope.
Am I worried about being scooped on the math modeling study that is perfectly reproducible based on two slides from a presentation? Hell yes.
There has been some work for archiving code with some journals and some allow video uploads as well for segments from the actual experiments.
A 'world view' column in Nature suggested the same things last week [1]; the author described a paper of theirs [2]:
> Yes, visual evidence can be faked, but a few simple safeguards should be enough to prevent that. Take a typical experiment in my field: using a tank of flowing water to expose fish to environmental perturbations and looking for shifts in behaviour. It is trivial to set up a camera, and equally simple to begin each recorded exposure with a note that details, for example, the trial number and treatment history of the organism. (Think of how film directors use clapper boards to keep records of the sequence of numerous takes.) This simple measure would make it much more difficult to fabricate data and ‘assign’ animals to desired treatment groups after the results are known.
[1]: http://www.nature.com/news/science-lies-and-video-taped-expe... [2]: http://onlinelibrary.wiley.com/doi/10.1111/2041-210X.12668/f...
Most experiments run for years (literally) and no one is going to record or archive, let alone watch, years of footage to confirm that one paper is legit.
A brief experiment showing the apparatus and the collection of a few data points might be helpful for understanding the paper, but I can't see using it to verify a non-trivial experiment.
Recording and storing years of footage shouldn't be a significant problem with modern tech.
Nobody has to watch years of it; they can watch the parts they are interested in. They also can watch at 4x and search, as needed.
Sure, but a lot of information does appear. Not everything appears in papers; should we stop publishing them?
Why not? Just setup a permanent camera and go. Storage is cheap. Organizations with security cameras often have multiple streams to record.
That would help prevent such "hidden specs" from entering the experiment.
[1] Note: this implies that authors cannot be part of the experiment or conduct it themselves, because they can't "pass on their identity" in a research paper, as would be necessary to put readers on par with the technicians.
Based on your description, it actually sounds like it's making you do things exactly the way science is supposed to work! You quickly identify issues of "real effect or experimenter error or undocumented protocol?" -- and you prevent any ambiguous case from "infecting" the literature.
Those are the same objectives modern science is currently failing at with it's "publish but never replicate" incentives.
> Lastly, you can tell a lot by being hands-on with a study; there's a lot you can miss if you aren't in the room with the study.
I wasn't saying that you can't be there in the lab and do that kind of experimentation, just that scientists shouldn't represent this kind of ad hoc work as the repeatable part that merits a scientific conclusion. The process should be: if you find something interesting that way, see if you can identify a repeatable, articulable procedure by which others can see the same thing, and publish that.
E.g., looking from the perspective of a scientist-reader, if someone has spent a few months doing the ad hoc hands on experiments and achieved interesting observations, then I would want them to publish that research now, instead of spending another half a year to make the repeatable procedure or possibly not publishing it ever because they'd rather do something else than make it up to these standards. There is a benefit from getting all the tricks to make the experiment cleaner, but the clean experiment is just means for acquiring knowledge and ideas for further research, not an end goal by itself for a researcher in that area. Outsiders may have different interests though (https://news.ycombinator.com/item?id=13716233 goes into detail) preferring "finalized and finished research" but to the actual community (who in the end is doing everything and evaluating/judging their peers) generally would prefer the work in progress to be published as-is instead of having more thorough results, but later and less of them.
Outsiders can get the repeatable procedures when it's literally textbook knowledge, packaged in assignments that can be given to students for lab exercises (since that's the level what truly repeatable procedures would require). Insiders want the bleeding edge results now, so they design their journals and conferences to exchange that.
OTOH, it's a problem if people are basing real-world decisions on stuff that hasn't reached textbook level certainty. That's pretty much what happened with dietary advice and sugars. "Two scratchpads say a high-carb low-fat diet is good? Okay, then plaster it all over the public schools."
For a recent personal example, a company published a paper saying that if you give a pre-treat with 2 doses of a particular drug, you can avoid some genetic markers of inflammation that are in the bloodstream and kidneys. Well, I looked at the stimulus and ordered some of my own from a different manufacturer that was easier to obtain and gave it to some mice with and without pretreatment by their compound. Instead of looking at the genes they looked at, I looked at an uptick in a protein expected to be one step removed from the genes they showed a change in. Well I haven't exactly replicated their study, but I've replicated the core points: stimulus with a the same cytokine gives a response in a particular pathway and it either is or isn't mitigated by the drug or class of drugs they showed. Now, my study took 2 days less than theirs, but it worked well enough that I don't need to fret the particular details I did differently from them. If my study didn't work, I could either decide that the study isn't important to me if it didn't work my way or go back a step and try to match their exact reagents and methods.
So yes, I do think the news industry picks up stuff too quickly sometimes, but depending on the outlet, they tend to couch things in appropriate wiggle words (may show, might prove, could lead to, add evidence, etc).
It's like the stages of clinical research - there we have general standards on when it is considered acceptable to use findings for actually treating people (e.g. phase 3 studies), but it's obviously clear that we need to publish and discuss the initial findings since that's required to actually get to the phase 3 studies. However, the effects seen in phase 1 studies often won't generalize to something that actually works in clinical practice, so if general public reads them then often they'll assume predictions that won't come true.
Though I should say that I really like JOVE. You can learn a lot.
You really have to try it yourself before you can understand the degree of troubleshooting that's required of a good experimentalist. You could have scientists live-streaming all their work, and you'd still have the same issues you do now. Even a simple experiment, something most wouldn't blink an eye at, has dozens and dozens of variables that could influence the result. The combinatoric complexity is staggering. The reality is that you try things, find some that work, and then convince yourself that it's a real result with some further work.
The methods that endure are the ones that replicate well and work robustly. Molecular biology is still built on Sanger sequencing, electrophoresis, and blotting, all in the context of good crossing and genetics, because that's what works. Some of the genomic tools are starting to get there, I'd venture to say that RNAseq is reasonably standardized and robust at this point. Interpreting genomic data is another story...
What you're talking about is the authors not reporting variables they considered, and then didn't control for. These not being reported is not universal - for example, I very frequently report every variable considered, and make my code available, with comments about variable selection within.
What the parent post is talking about is "unmeasured confounding", or a Rumsfeldian "Unknown Unknown". If there is something that matters for your estimate, but you're unaware it exists, by definition you can neither report it nor control for it.