When fake news, misreporting and alternative facts are everywhere, reading the news can be a challenge. Not only is there plenty of misinformation about the coronavirus pandemic, climate change and other scientific topics floating around social media, you also need to read science stories, even well-known publications, with caution.
We have already seen headlines suggesting that coronavirus vaccines are imminent, while scientists desperately try to manage expectations that it’s more likely to take more than a year for vaccines to be suitable for use. So how do we approach science news like a scientist, to see past the sensational and find the facts?
In a recent study, we and our colleagues analysed 520 academic papers and the media articles that reported their findings. We wanted to trace the presentation of scientific knowledge as it makes its way from researchers to the general public via the media.
We found that scientific knowledge is sometimes reproduced but is most often reinterpreted and its meaning is frequently lost in translation. Based on this study, we think there are some key things that readers of the news can do to spot when science is being reported in a misleading or inaccurate way, and get to what the evidence really shows.
In our research we saw that content transformation can happen in a number of ways. The main focus of a study is often changed in a way that makes assumptions about how the results might affect people, even in cases when this was not an aim of the research. For example, research in rats is often taken to have implications in humans.
Highly technical language can be changed not just to more common phrases but also more evocative or sensational descriptions. Charts and graphs are replaced with images that make articles appear more related to human experimentation or applications, even where this isn’t the case.
Nature of science
Developing an understanding of the nature of science, specifically the communicating in science strand of the New Zealand curriculum, helps students understand, analyse and evaluate scientific text. These skills will help students distinguish good science from bad science and non-science.
Rats and superhero vision?
One example we looked at in detail was a report on the Mail Online website from 2016 that said brain implants could soon help us develop superhero night vision. The report stated that “scientists have used brain implants to give rats a ‘sixth-sense’ that enables them to detect and react to the normally invisible light source”. It added that would make it “possible for the adult brain to adapt to new forms of input and opens up the possibility of enabling humans to gain an array of superhuman senses”.
An exciting revelation indeed. But if this was such a groundbreaking and impactful development, why did so few other news publishers cover it?
The research the story was based on had originally been published in the Journal of Neuroscience by a team of scientists at Duke University Medical Centre in the United States. Their work explored how easily you could change the sensory processing of adult rats by implanting them with a brain device to teach them to identify the location of infrared light sources. Surprisingly, the implanted rats learned to do so in less than four days.
The scientists who conducted the research suggested their findings could have important implications for basic neuroscience and rehabilitative medicine. But the Mail Online article took this to another level and interpreted this as the possibility of giving people a number of superhuman senses.
The experiment had previously been reported in New Scientist, which appeared to be the main source of information for the report published in the Mail Online. The New Scientist article did focus on the rats but said the research paved the way for human brain augmentation. The article used images representing human mind control. It was then less of a leap for the Mail Online to report the research as a move towards giving people superhuman powers.
All this leaves ordinary readers to try to work out what is accurate and what isn’t. This requires them to read like a scientist – but without the same training.
Steps for reading like a scientist
So how do we read this way? Based on our research, we have put together six steps to help you read in a critical way when engaging with scientific information.
- The first thing to do is simply be aware of how important information in the original source may be reinterpreted, modified and even ignored altogether depending on what a journalist understands or chooses to present. This is a bit like the game ‘telephone’ where players pass a message to each other through whispering.
- In particular, you should watch out for big or surprising claims that may be exaggerated (such as giving people a ‘sixth sense’). Such extraordinary claims require extraordinary evidence.
- Check how precise and unambiguous the details presented in the article about the research are. Saying that an experiment has proven a particular fact is a lot stronger than saying it suggests that something might happen in the future.
- Look for a reference or a link to the original source in the report you’re reading, like the ones provided in this text. If there is one, it’s more likely that the journalist has read the original research and understands what it does and doesn’t say.
- Try to check whether the arguments in the article come from the scientists who carried out the research or the journalist. This could mean looking for quotes or comparing with the original research paper, if you can do that.
- Look to see if other places are reporting the same stories. If only one news outlet is covering an “amazing breakthrough”, it might be time to apply a little more scepticism.
Developing these skills could help you discern what sources you should and shouldn’t trust, and how to spot when even usually authoritative outlets sometimes exaggerate or misinterpret things.
The Connected article Fake facts looks at misinformation, malinformation and disinformation and how they are used in online media. It also delves into the human brain and how it deals with information and fake news.
Climate change, science and controversy looks at fake facts – from Galileo to the present.
Wicked problems – those that are incredibly complicated to solve – often have fake fact supporters. Use one of these as a context for discussion in your class:
- 1080 – a wicked problem (This article discusses how to use the science capabilities to check the objectivity and/or accuracy of information.)
- Climate change – a wicked problem for classroom inquiry
- Genetically modified foods – a socio-scientific issue
- Water fluoridation – a socio-scientific issue
The Science Learning Hub has an Ethics thinking toolkit and there are several related articles on the Hub designed specifically to support teachers in exploring ethical thinking with their students, these include Frameworks for ethical analysis and Teaching ethics.
Use the Participating and Contributing strand article to find more examples of socio-scientific issues and how to include them into your science programme.
Our Science communication – sorting fact from fiction Pinterest Board curates resources that will aid educators in looking not only at science communication but also science and society.
Maps shape our understanding of world events like the COVID-19 pandemic. This article from The Conversation Can I trust this map? 4 questions to ask when you see a map of the coronavirus pandemic looks how to make sure maps don't mislead you.
We're climate researchers and our work was turned into fake news is another fascinating article from The Conversation on how information can be twisted.
Coronavirus misinformation, and how scientists can help to fight it is an article from Nature, looking at how some scientists are pushing back on bogus remedies, myths and fake news about COVID-19.
See the 2015 Connected level 3 article Pseudoscience – something that sounds scientific but isn’t actually based on solid evidence.