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Diversifying science: comparing the benefits of citizen science with the benefits of bringing more women into science

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Abstract

I compare two different arguments for the importance of bringing new voices into science: arguments for increasing the representation of women, and arguments for the inclusion of the public, or for “citizen science”. I suggest that in each case, diversifying science can improve the quality of scientific results in three distinct ways: epistemically, ethically, and politically. In the first two respects, the mechanisms are essentially the same. In the third respect, the mechanisms are importantly different. Though this might appear to suggest a broad similarity between the cases, I show that the analysis reveals an important respect in which efforts to include the public are more complex. With citizen science programs, unlike with efforts to bring more women into science, the three types of improvement are often in conflict with one another: improvements along one dimension may come at a cost on another dimension, suggesting difficult trade-offs may need to be made.

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Notes

  1. Many of the arguments I discuss focus specifically on the importance of bringing feminist or non-androcentric perspectives into science. This is, of course, not the same thing as bringing women into science: not all women see things in a feminist way, and non-women can offer feminist perspectives. I won’t worry about this distinction, however, since securing a critical mass of women in a scientific field is, realistically, a necessary step towards ensuring that feminist perspectives are influential in that field. Okruhlik, for example, says: “It is not a logical necessity but also no accident that the advent of certain [non-androcentric] scientific hypotheses coincided with…increased representation of women in the academy and scientific communities” (1994, p. 41; cf. Wylie, 2012, p.65; Fehr, 2011). Though it would be natural for me to appeal to standpoint theory, I won’t do so. That’s because there are different versions of standpoint theory, and (more importantly) standpoint theory is frequently misinterpreted by its critics in serious ways (Wylie, 2012; Crasnow, 2008; Intemann, 2010). All my argument requires is the modest claim that bringing more women into science will tend to make science less sexist and/or androcentric. This could be because women are uniquely able to spot androcentric practices, because women simply notice such practices more often than men, because a critical mass of women is needed for them to have the power to push back against such practices, or even because men more often notice their own androcentrism when in the presence of women. Though I myself think some version of standpoint theory is correct, any of these possibilities would be sufficient for my analysis.

  2. There are a variety of phrases used to describe the many types of scientific research involving both professional scientists and the public, including community-based participatory research, participant-led research, and participatory action research. I mean to include all of them under the broad heading of “citizen science”. See Eitzel et al., (2017) for a discussion of the terminology used to describe such projects, and Strasser et al., (2019) for a discussion of its history.

  3. See e.g. Cavalier & Kennedy (2016).

  4. See e.g. Harding (1998) and Fehr (2011).

  5. This formulation may seem to suggest a realist approach to science, but the underlying point is compatible with most antirealist approaches, as well. As should be clear from the examples I discuss below, greater inclusion has led to changes that nearly any non-skeptical account of science would regard as epistemic improvements (e.g. correctly identifying skeletal remains as female which had been erroneously classified as male, or producing a map of air quality with a hundred times as many reliable data points).

  6. Could a gain in empirical adequacy or accuracy nevertheless not count as an overall epistemic improvement, if it comes at the cost of some other epistemic value (e.g. generalizability)? Possibly—though the high importance most accounts give to accuracy means that the cost to those other values would likely have to be very large. In any case, none of the examples I discuss below are plausibly such cases. They involve clear improvements in accuracy with no obvious costs along other epistemic dimensions.

  7. See, e.g. Elliott (2017), Elliott & Richards (2017). As noted above, ethical and political values may also be involved in choosing among epistemic values (Longino, 1995). To the extent this is true, the relationship between epistemic assessment, ethical assessment, and political assessment may be a complex one. Nevertheless, we saw above that there are clear cases in which we can document epistemic improvement without inquiring into ethical or political matters. And the examples below will show clear cases in which we can document ethical and political improvements without inquiring into epistemic matters. In this paper, I will focus on cases where the three dimensions are assessable independently of each other.

  8. The correct formulation here will depend on the particular meta-ethical view one endorses. But the basic idea that some ethical judgments or values are superior to others should be acceptable to any non-skeptical account. Even non-cognitivists, for example, can accept that some ethical principles are true or that there are certain things that everyone ought to value (though, of course, they may mean something different by ‘true’ than a meta-ethical cognitivist). See e.g. Blackburn (1998).

  9. In referencing Anderson’s discussion, I don’t mean to be endorsing the entirety of her argument, e.g. her view of the relationship between values and evidence. Though I don’t think anything she says is necessarily in conflict with the view I’ve presented here, it also isn’t critical to my use of her case study.

  10. Of course, some might question whether all of Stewart’s assumptions constituted ethical improvements. According to some religious traditions, for example, the traditional family unit does have intrinsic value. But for those not convinced by any particular example here, the feminist philosophy of science literature contains plenty of additional examples of uncontroversial ethical improvements. See, e.g., Kourany (2010).

  11. As Mahr & Dickel (2019) explain, in most citizen science projects the public’s involvement is restricted to limited, pre-defined, well-structured tasks. To realize the ethical benefits I discuss here (and also the political benefits discussed in the next section), the public must be given more autonomy and greater input into the design and structure of research.

  12. Even theorists who believe that moral principles are knowable a priori typically can (and should) recognize that experience is critical to gaining moral knowledge. McGrath (2011).

  13. To be clear, I mean here to be talking about actual legitimacy, as opposed to perceived legitimacy. These are not the same thing. A majority might think that a government that regularly consults (only) them is legitimate, and they might regard as illegitimate a decision-making process that made a special effort to give voice to the viewpoints of unjustly marginalized minority groups. But the majority’s perceptions here would be wrong: the latter process would actually be more legitimate. Proponents of diversifying science have, I think, spent more time discussing perceived legitimacy. (See e.g. Sarewitz 2010.) I think it is important to begin with a discussion of actual legitimacy, for reasons similar to those I offer elsewhere for focusing on what makes science trustworthy, before focusing on what makes science trusted (Schroeder, 2021).

  14. For arguments, see Landemore (2020) and Guerrero (2014).

  15. There may appear to be a problem with achieving political legitimacy in this way. In order to meaningfully weigh in on technical issues, citizens need to be well-informed. But, on most issues, well-informed citizens are not representative of the public as a whole. There is thus a tension between representativeness and being sufficiently informed. The examples cited here show two different ways of addressing this tension. In Valdez, Alaska, participants were selected from stakeholder groups who were already well-informed about the issues. They were therefore not likely to be demographically representative of the public. But they arguably could still claim to represent the public. One of the main stakeholder groups participating, for example, was the Regional Citizens Advisory Council, an organization whose explicit mission was to represent the interests of citizens impacted by oil transport in the region. As several political theorists have noted, cases of such “informal” political representation by unelected bodies are common, and can play an important and necessary role in democratic deliberation (Salkin, 2021).

    Consensus conferences and citizen juries provide a different type of solution. Since they start with a randomly-selected sample of the public, they at least initially meet the representativeness condition. They then seek to meet the information requirement by educating the recruited group on the relevant issues. The output of a consensus conference, then, may not be representative of the public’s actual views, but it does represent what the public would think, if it were well informed. According to deliberative democratic theorists, this latter sort of representativeness is in many contexts a legitimate foundation for political decision-making.

  16. I have been unable to find reliable data about scientists’ political affiliation by gender. But Atkeson & Taylor (2019) looked at one field, political science, and found that although political scientists as a whole leaned strongly liberal (endorsing the Democratic party), women in political science leaned even more strongly in that direction than men.

  17. See Nussbaum (2011, pp. 29 and 38), Rawls (2005, p. 243n32), Christiano (2008, p. 269), and Gutmann & Thompson (1996, pp. 2–3 and 73–79).

  18. We wouldn’t want to say that all values that are normatively mistaken or suboptimal are politically illegitimate. If we are to leave any meaningful room for procedures to operate, we have to respect their decisions in at least some cases where those decisions are suboptimal. You can’t, for example, declare a law politically illegitimate simply because it has flaws. It is only specific types of failures that render a decision politically illegitimate.

  19. I offer a fuller argument for this and related claims in Schroeder (forthcoming-b).

  20. Indeed, the argument generalizes along all three dimensions we’ve discussed: we should expect that the greater inclusion of scientists of color and disabled scientists will yield epistemic and ethical benefits for the same reason the greater inclusion of women does. This, of course, fits with the analyses offered by many feminist philosophers, who see their insights as not specifically tied to sex and gender, but to power structures and social hierarchies more generally (Crasnow & Intemann, 2020).

  21. I thank Heather Douglas for pushing me to think more carefully about this possibility.

  22. See e.g. Rawls (2005).

  23. Many feminist scholars have pushed back against a sharp distinction between epistemic and non-epistemic (ethical/political) goals of science. See e.g. Anderson (1995) or Longino (1994). This result vindicates such an approach in the cases feminist philosophers of science have discussed. If the problems have the same source, it makes sense that it might not be possible to clearly distinguish them.

  24. Many authors discuss conflicts between epistemic, ethical, and/or political aspects of inclusion. But nearly all of those discussions use ‘ethical’ and ‘political’ differently than I do here, to refer to the motives for inclusion the public, rather than the value judgments embedded in scientific results. When it comes to scientific results themselves, their focus tends to be exclusively epistemic. (See Wylie 2015 for an example of this.) A few authors do speak of a conflict between epistemic and political goals, in a sense similar to mine. (See e.g. Solomon 2009 – though she interprets “democratized science” in a very different way than most proponents of citizen science — and Eigi 2017.) But, to my knowledge, no one has discussed a 3-way conflict between epistemic, ethical, and political assessment of scientific results.

  25. To say that there may be trade-offs is of course not to say that there always will be. Scientists’ partnerships with indigenous groups, for example, may yield improvements along all three dimensions. Note, though, that this is because the case parallels the case for the inclusion of women: science has a documented history of making unethical assumptions concerning indigenous people, failing to treat them as equals. For philosophers writing about the benefits of such collaborations, see e.g. Wylie (2015) and Whyte et al., (2016).

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Schroeder, S.A. Diversifying science: comparing the benefits of citizen science with the benefits of bringing more women into science. Synthese 200, 306 (2022). https://doi.org/10.1007/s11229-022-03774-z

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