Abstract
This study examines how journalists act as “watchdogs” of science through 21 semi-structured interviews with journalists who have reported on research integrity issues. It illuminates the time- and labor-intensive nature of this form of journalism, which often requires multiple interviews and extensive document research to reach a sufficient threshold of evidence. As a result, the feasibility of potential stories sometimes plays a bigger role in whether they are reported than their public importance, especially in resource-poor newsrooms. The findings underscore the precarity of a form of journalism which has arguably never been more important, but also never more under threat.
Keywords
Introduction
As threats to research integrity multiply, science journalists face mounting pressure to serve as critical watchdogs. These threats include problematic use of generative AI in scholarly publishing (Kwon, 2024), citation manipulation via preprint servers and paper mills (Ibrahim et al., 2025), political threats to academic freedom (Westlund et al., 2025), journals that prioritize profit over best practices (InterAcademic Partnership [IAP], 2022), and paper mills that churn out research papers for a fee (Else & Van Noorden, 2021). Corporate “science for profit” tactics are becoming more subtle, complex, and diverse (Legg et al., 2021; Reed et al., 2021). At the time of writing, over 25,000 research papers have been flagged for containing so-called “tortured phrases” (Labbé et al., 2025), nonsense synonyms of scientific terms used to avoid plagiarism-detection software (Cabanac et al., 2022). Thousands of research articles are retracted each year—a number that likely underestimates the true volume of problematic papers that should be withdrawn from the scholarly record (Oransky, 2022b; Van Noorden, 2023).
While such problematic science represents only a fraction of the millions of research articles published annually (Hanson et al., 2024), it can have profound societal implications. Flawed studies can receive extensive, intensive news coverage long before they are retracted, if they are retracted at all (Bolland et al., 2022). Such coverage—if uncritical or insufficiently contextualized—can contribute to misguided perceptions of health and science-related risks and benefits (Sarathchandra & McCright, 2017), damage public trust and support for science (Ophir & Jamieson, 2021), and, in some cases, even increase risks of illness or death (Zarychanski et al., 2013).
Science journalists can play an important role in mitigating these risks by acting as critical watchdogs of science. While the scholarly literature offers no unified or concrete definition of the watchdog role of science journalism, it can be broadly understood as holding science, as an institutional power, accountable to the public through monitoring, investigating, and presenting balanced and contextualized reports of research infractions, their impacts, and their deep-rooted causes (Franks et al., 2023). This role extends beyond the concept of critical science journalism, which concerns reporting scientific outcomes in ways that help societies understand their epistemic uncertainties and limitations. Watchdog science journalism monitors and brings to light problems in the research sphere that are not visible in scientific output—especially fabrication, falsification, plagiarism, and other questionable research practices—and those actors behind them. Journalists practicing this role may additionally investigate, expose, and warn society of the misuses and abuses of science methods, processes, outcomes, and authority by those practicing, funding, and/or using science in the public domain (e.g., scientists, government, businesses). While the watchdog role is only one of many overlapping roles that science journalists perform, journalists see it as important (Fahy & Nisbet, 2011). However, empirical research examining this role in practice remains extremely limited (Mede et al., 2025).
Addressing this gap is important, as understanding watchdog science journalists’ practices can help identify effective strategies for detecting and investigating research misconduct and potentially improve the quality of science journalism. Furthermore, exploring these journalists’ challenges can reveal systemic barriers to executing their watchdog role across different contexts, informing both science communication research and societal efforts, strategies, and policies tackling research integrity. This study thus explores the practices of watchdog science journalists and the factors that support or hinder their work. It does so through a qualitative analysis of interviews with 21 professional journalists who have reported on research integrity issues for Canada- and/or U.K.-based media outlets.
Literature Review
Very little is known about science journalists’ watchdog practices, with only 3% of 660 articles in a recent scoping review of research integrity-related studies focusing on media and/or the public (Vendé et al., 2025). We review this emerging body of research, but caution that most studies only touch on science watchdog journalism tangentially, rather than as a primary focus.
A few studies have examined how journalists monitor the actions of powerful scientific and science-adjacent actors. Painter et al. (2024) found that niche environmental media outlets monitored political actors and called attention to actions with potentially negative climate implications, such as meetings between energy ministers and mining companies. In a U.S.-based study, health journalists said they primarily enacted a watchdog (or “adversarial”) role through maintaining skeptical relationships with sources, approaching their claims critically and attending to potential conflicts of interest (Hinnant et al., 2016). Such critical source relationships contrast with the great trust health and science journalists typically place in science public relations (PR) offerings, such as newsletters, wire services, embargoed early research access, and press releases (Gesualdo et al., 2020; Leask et al., 2010).
Other studies examine how U.S. journalists cover research integrity issues. Jamieson (2018) found that journalists often use a “counterfeit quest discovery detected and retracted” frame that pits a deceptive perpetrator (i.e., scientist responsible for a retracted article) against a valiant “protector who detected the deception” (p. 2621). Journalists also frequently adopt a “systemic problem” frame, portraying problems in research as signs of broken science. For Jamieson, both frames are misleading, with potential damage to public trust and perceptions of science. Instead, a “problem explored” narrative may better reflect the self-correcting nature of science and impact public perceptions less negatively (Ophir & Jamieson, 2021). However, this frame appears to be rare, at least within U.S. media coverage (Jamieson, 2018; Ophir & Jamieson, 2021).
Other studies focused on coverage of retracted journal articles, providing a narrower lens into watchdog science journalists’ practices. These studies find that retractions get relatively little coverage (Alabrese, 2022; Iwaniec-Thompson et al., 2026; Khan et al., 2022; Peng et al., 2022; Rada, 2007; Serghiou et al., 2021; Shema et al., 2019). This may reflect limited awareness of scientific misconduct among science journalists and limited space for such issues within the science news agenda (Liskauskas et al., 2019). An overly trusting stance toward science, paired with challenges accessing and verifying evidence about allegations of misconduct, may also play a role (Park et al., 2009). Finally, time pressures, resource restraints, and lack of incentives may discourage journalists from reporting on research retractions (Iwaniec-Thompson et al., 2026).
This research is complicated by challenges in distinguishing uncritical coverage of research that is later retracted (i.e., journalists unknowingly reporting on flawed studies) from critical coverage of the retractions themselves. Among studies that make this distinction, evidence suggests reporting on the original paper is more common (Barnett & Doblin, 2021; Rada, 2005, 2007), especially for highly publicized research articles (Serghiou et al., 2021). Moreover, media outlets seldom correct stories after studies have been retracted and typically offer minimal explanation of the reason for retraction (Iwaniec-Thompson et al., 2026; Valinciute & Halffman, 2025a). Where explanations are provided, they often resemble the retraction notices, suggesting minimal investigative work (Valinciute & Halffman, 2025a). A U.S. case study of one high-profile retraction found that journalists often described the initial finding and reasons for the retraction, but failed to provide wider context (Barnett & Doblin, 2021).
Media coverage of retractions is also imbalanced, with a small number of retractions dominating media attention (Khademizadeh et al., 2023; Shema et al., 2019). Alabrese (2022) found that media outlets disproportionately report on retracted papers published in “top journals” and focused on hard sciences, mirroring practices for reporting on research in general (Badenschier & Wormer, 2012; Conrad, 1999; Fleerackers, Moorhead, Alperin, et al., 2025). Journalists also preferentially report on retractions caused by fraud or fabrication, rather than honest mistakes (Rada, 2007; Valinciute & Roßmann, 2025b). This tendency may, in part, reflect the high proportion of retractions due to research integrity concerns (Brainard & You, 2018; Campos-Varela & Ruano-Raviña, 2019), but may also suggest an adherence to the traditional news value of deviance (Harcup & O’Neill, 2017). How frequently journalists report on retractions may also depend on whether they work for legacy media or nontraditional publications (Alabrese, 2022; Peng et al., 2022), due to differences in resource availability and editorial mandates. This suggests organizational factors may play a role in watchdog science journalism (see Theoretical Framework).
More recently, Mede et al. (2025) examined the content and audiences of the specialized science watchdog media outlet Retraction Watch (RW)’s X account. The study found that RW frequently posted content—including items from other outlets—describing ethics violations of members of the academic community. Users replying to the posts most often represented academic actors (41%), although media actors (3%) also engaged. This suggests that journalists, such as those at Retraction Watch, can play a role in alerting the scientific community and, to a lesser extent, other media outlets about problematic science. However, the study is limited to a single media outlet on a single platform.
Research on health crises (e.g., COVID-19, Ebola, measles outbreaks) has yielded mixed findings. Some specialized science journalists, freelancers, and data journalists have pursued in-depth, investigative pieces in these contexts (Klemm et al., 2019; Mesmer et al., 2024). However, others acted as “glorified notetakers” who uncritically reported claims from official sources, with minimal verification or analysis (Mesmer et al., 2024). In a Turkish analysis, only 10 of 850 COVID-19 news stories took a critical, investigative, “assertive” approach, and these stories were published by a single, left-leaning media outlet (Şen, 2021). These findings must be interpreted with caution as practices observed in uncertain crisis contexts may not reflect those of more “normal” reporting (Brüggemann et al., 2020; Fleerackers et al., 2022).
This study extends this emerging body of research with the following questions:
Theoretical Framework
Our analysis integrates a Stages of News Production framework by Domingo et al. (2008), which was adapted for the science journalism context by Fleerackers (2023), with Shoemaker and Reese’s (1996) Hierarchy of Influences model. The adapted Domingo et al. (2008) framework offers a structure for analyzing the practices journalists use across different stages of watchdog work (RQ1), while Shoemaker and Reese’s (1996) model helps identify the factors that enable or constrain these practices (RQ2). By examining how factors at different levels of the hierarchy impact newswork, the combined framework enables us to build a more complete understanding of how science journalists navigate their watchdog role.
Stages of (Science) News Production
The adapted Stages of News Production framework conceptualizes the steps involved in producing a science news story. In this study, we apply it to the watchdog context, focusing on the first three stages (which are the responsibility of reporters rather than editors or audiences):
Access/observation: monitoring the research community and identifying potential story ideas (RQ1a).
Filtering/selection: assessing newsworthiness and verifying evidence to determine which stories are worth pursuing (RQ1b and 1c).
Editing/processing: developing ideas into stories, including framing research integrity issues to engage audiences, without damaging trust (RQ1d).
Hierarchy of Influences
Emphasizing the exploratory nature of their framework, Domingo et al. (2008) called for research considering “factors of change” that influence journalists’ practices across stages. We thus integrate Shoemaker and Reese’s (1996) Hierarchy of Influences model, which asserts that a hierarchy of intersecting micro-, meso-, and macro-level “influences” shapes journalistic practices.
Individual-level factors include journalists’ individual role conceptions, preferences, and other traits that impact professional practices. For instance, story selection and verification are often driven by science journalists’ personal interests and “gut feeling” (Fleerackers, Moorhead, & Alperin, 2025; Hansen, 1994). How health journalists conceive their roles also impacts how they navigate source relationships and present information (Forsyth et al., 2012; Hinnant et al., 2016).
Routine-level factors refer to “patterns of behaviour that form the immediate structures of newswork” (Reese, 2016). Routines can be explicit (e.g., learned in journalism school) or implicit (e.g., internalized through working in the field) and are informed by journalistic norms and ideology. Science journalism routines include using credibility heuristics (e.g., prestige of researchers, institutions, journals) to determine what research to cover (Conrad, 1999; Fleerackers, Moorhead, Alperin, et al., 2025). Journalists’ routine dependence on information subsidies and journal embargoes could similarly weaken the watchdog mindset and independent vetting practices (Forsyth et al., 2012; Oransky, 2022a).
Organizational-level factors, such as media outlets’ prestige, reputation, and resource constraints, likely play a profound role in science journalists’ ability to act as watchdogs. Decades of financial strain within the news landscape have led media outlets to dramatically reduce resources and staff dedicated to specialized beats, including investigative and science journalism (Allan, 2011; Karadimitriou et al., 2022; Saari et al., 1998). Consequently, both investigative reporters and science journalists struggle to find the time, resources, and expertise they need (Barel-Ben David et al., 2020; Binns & Arnold, 2021; Dunwoody, 2021). Although evidence is lacking, these constraints likely have an outsized impact on watchdog science journalism, as this type of reporting involves both the time and resource commitments of investigative journalism and the technical complexity of science journalism.
Social-institutional factors encompass the broader ecosystem of entities and norms that influence news production but operate outside individual news organizations, such as sources, advertisers, and audiences (Shoemaker & Reese, 1996). In science journalism, key actors include scientific journals, research institutions, funders, and press officers, who provide crucial access to information and expertise but often resist scrutiny or attempt to control narrative framing (Autzen & Weitkamp, 2019; Hansen, 1994). These social-institutional dynamics may challenge watchdog science journalists, who must navigate complex power relationships while maintaining independence.
Social system-level factors represent characteristics of the larger cultural, sociopolitical, legal, and economic context within which journalists work. For instance, science journalists working in Global South contexts may adopt a less critical approach to reporting on science, due to a lack of specialist training and a strong “political grip” of science journalism in their countries (Nguyen & Tran, 2019). In more democratic systems, legal factors, such as defamation acts or strategic lawsuits by powerful organizations, may inhibit efforts by journalists to expose problematic science (Coe, 2021; Howarth, 2013). Cultural norms surrounding reputation preservation also shape whether journalists report on research integrity issues (Park et al., 2009).
Reese (2016) has argued that examining social-system level factors requires a cross-national comparative approach. We address this call by analyzing watchdog science journalism within Canada and the U.K., two distinct national contexts that fall within the Liberal model media system (Hallin & Mancini, 2004) and where strains on specialized science and investigative journalism have been particularly hard felt (Aberneithie & Tobitt, 2024; Murcott & Williams, 2013; Saari et al., 1998).
Methods
This study is guided by a pragmatist interpretive framework (Creswell & Poth, 2017). We conducted semi-structured interviews with journalists who had recently reported on a research integrity issue for a Canadian or U.K.-based English-language media outlet. We took a broad view of watchdog science journalism, being open to its many forms, from investigating research infractions to exposing political or commercial exploitation of science (as defined earlier). The study was deemed minimal risk and exempted from further review by the Behavioural Research Ethics Board at the University of British Columbia (BREB# H24-02141).
Sample Selection
Because of the highly specialized nature of watchdog science journalism, we used multiple sampling strategies to recruit interview participants. We invited journalists who had authored news stories about research retractions for U.K.- and Canada-based media outlets, which we identified by (a) querying the Altmetric Explorer for DOIs of retracted papers and retraction notices indexed in the Retraction Watch Database 1 and (b) querying the Nexis Uni database for stories mentioning relevant keywords. 2 We complemented this approach with targeted outreach to science journalism and communication groups and organizations, 3 social media promotion via the authors’ networks, and snowball sampling (i.e., asking interviewees to recommend potential participants). To be included, participants had to have written at least one story about a research integrity issue for an English-language, U.K.- or Canada-based media outlet between January 1, 2019, and December 31, 2024. Recruitment continued until we reached thematic saturation, with no new substantial insights emerging from additional interviews. We also considered information sufficiency, ensuring diversity of outlet types, career stages, and national contexts. The final sample included 21 journalists: 11 who had written for Canadians outlets, 10 for U.K. outlets (Table 1).
Overview of Participating Journalists (N=21).
Interview Procedures
The first two authors and two research assistants conducted semi-structured, in-depth interviews with journalists between September 2024 and June 2025 via online video conferencing. Semi-structured interviews enable researchers to probe decision-making processes that may not be visible in published content, and give participants freedom to describe their work in their own terms (Albaret & Deas, 2023). It allows for comparison across interviews while considering the diverse experiences of journalists working in different national settings and organizational environments.
The interview protocol, available online at Fleerackers et al. (2026), included questions about journalists’ role conceptions, motivations, practices, factors impacting their work, and basic background information. Where time allowed, interviews also included a “walk-through” portion, where participants were asked to describe their motivations and practices for reporting a specific news story they had written about a research integrity issue. Interviews were recorded, transcribed using Microsoft Teams or Zoom’s built-in transcription features, checked for accuracy, and de-identified for further analysis.
Data Analysis
Interview transcripts were qualitatively analyzed using framework analysis, a structured thematic analysis that allows for comparisons between and within cases (Gale et al., 2013). First, the lead author independently read and inductively coded a sample of 17 transcripts, grouped related codes to construct initial themes, and—guided by the data, research questions, and theoretical framework—produced an initial “working analytical framework” (Gale et al., 2013). She shared this framework with the research team and revised it based on their feedback (i.e., renaming and collapsing themes, ensuring findings aligned with the lived experiences of the watchdog science journalist on the team). She then applied the refined framework to the 21 transcripts using NVivo 14, used the Matrix Coding Query function to examine potential differences between types of journalists, and developed the themes below.
Findings
During interviews, journalists described practices and influences that have previously been identified in science journalism scholarship. We touch briefly on these findings below, but focus on results unique to the watchdog role.
Practices of Watchdog Science Journalism (RQ1)
Monitoring Science
Our participants found potential stories by monitoring for retractions, fraud, problematic data, paper mills, predatory journals, ethics breaches, problematic use of GenAI, and related integrity issues. A few participants also considered more “human” problems in science, such as equity and diversity-related issues or harassment, or monitored problems adjacent to the scientific system (e.g., international science relations, misinformation, government muzzling of scientists, inappropriate public spending).
Participants used multiple strategies to monitor science, including practices found in previous science journalism research (e.g., newsletters, journal alerts, conferences/events, preprint servers, other media outlets’ reporting). Sometimes participants were commissioned to write watchdog stories by editors, as elaborated below.
Beyond these well-established practices, personal and often anonymous tips (e.g., from suspicious colleagues or co-authors, advocacy groups, lawyers) were key. Often, whistleblowers were familiar with the journalist’s work or had spoken with them during an interview for another story. As J12 explained, “[T]here are scientists I know, trust, and chat to, who will come to me with stuff and say, ‘You know, this is a bit odd.’”
Participants also searched for story ideas using specialized information sources, such as retraction notices, Retraction Watch, and other websites “writing about retractions . . . without emotion” [J2]. These sources were valued because they acted as warning signals that there may be a newsworthy issue warranting further investigation, but also for their perceived objectivity. Whereas sources who tipped off journalists were sometimes “a little promotional” [J9], a retraction was perceived as “a fact” [J17] and an easier hook for a story.
In addition, participants emphasized the value of “spaces where scientists will speak somewhat informally” [J3] for finding potential stories. These included PubPeer, an online post-publication peer review platform where researchers and “science sleuths” can discuss study flaws and integrity issues (Wapner, 2024). Participants also monitored scientific message boards, researchers’ blogs, and scientists and science sleuths on social media. Many noted they had found the former Twitter to be particularly useful, as it allowed them to “eavesdrop on conversations” [J1] and “hear what the community is saying about a particular paper” [J6]. However, this practice appeared to be changing after Elon Musk’s takeover, with BlueSky lamented as “not quite the story generator that Twitter was” [J3]. Several participants were unsure how to replace what had once been one of their most important monitoring tools.
Selecting Stories
Established science journalism practices played a role in journalists’ decisions around which stories to pitch and pursue. Participants considered whether the issue excited them personally, interested their editor, fit the target media outlet’s remit, and had already been covered by competing outlets. Some also used their “own gut and bullshit detector” [J9] to assess whether potential stories were worth exploring.
Added to these are classic news values such as timeliness, novelty, surprise, elites, relevance, conflict/controversy, drama, and, most importantly, impact (for science and society). Participants used assessments of prestige and reputation (i.e., of journals, researchers, and/or institutions) to establish scientific impact, as in science journalism more broadly. However, such newsworthiness evaluations were not universal, as some journalists felt problematic research was “automatically of quite wide interest” [J6] to audiences and thus easy to pitch to editors.
Alongside these well-established selection criteria, journalists described feasibility as a key consideration for whether to pursue stories. They explained that watchdog stories are time and resource-intensive but sometimes lead to dead ends, making it essential to ask, “‘Is this something that we could actually get?’ So that we don’t waste weeks or months on digging around” [J9]. Relatedly, the journalistic “return” on the effort involved was perceived as lower than for other stories. As J12 explained, political watchdog stories were likely to “be on the front page of the paper,” but even the most impactful science watchdog stories could only hope for “a page lead on page seven that exists for one day.” These assessments were thus considered alongside the newsworthiness of the story, leading journalists to balance “How easy is it to get the story versus what’s the public interest?” [J8]. In some cases, feasibility concerns meant important, newsworthy story ideas were abandoned.
Investigating Research Integrity Issues
Participants described investigating watchdog stories as slow and labor-intensive, requiring multiple rounds of collecting, vetting, and triangulating information via source interviews, document gathering, and analysis. Implicit was an unstated—but universally understood—threshold of evidence that had to be met before the journalist could “pull the trigger” [J8] on a story. Participants used colorful metaphors to describe this process: “You usually start from the outside like an onion, and you peel away those layers” [J4], gathering “as much information as you can get that will paint that granular picture” [J13]. The granularity of this picture seemed to depend on the level of risk for journalists and targets, as some stories could ruin scientists’ careers or lead to expensive legal battles. In these higher-risk cases, participants were sure to “cross check or counter check” [J14] more often, “build[ing] my case like a prosecutor in a criminal trial” [J4].
Investigations ideally involved doing “interviews with as many people as possible” [J10], including whistleblowers, science sleuths, co-authors, research integrity experts, statisticians, and experts in the field. Hearing from many individuals was important for contextualizing issues, capturing multiple perspectives, and verification, because some sources were unwilling to go on the record and others were of unknown credibility. By triangulating and corroborating claims from diverse sources, participants felt more confident that their reporting was accurate and balanced.
When risks were high or interviews hard to come by, journalists relied on “as much documentation as possible” [J17], including academic research, reports, retraction notices, legal evidence, other media coverage, datasets, open research code, government websites, and social media. Internal documents (i.e., memos, reports, emails) were highly valued but often hard to access, as sources had to leak them or journalists had to submit freedom of information (FOI) requests—an expensive and slow practice. A small number of journalists used open peer review reports, including those from journals and post-publication review platforms. J21 explained that review reports were “great for accountability” but also “for highlighting good science” because they provide expert perspectives on new studies without the need for interviews.
When relevant documents were scarce, some participants made creative use of whatever they could access, such as public salary information or targets’ social media accounts. As J10 summarized, “You have to do a really good job of thinking, ‘What information is out there and what you can get from it?’”
Whatever the sources used, participants approached verification skeptically and carefully, fact-checking their work (sometimes line by line), keeping rigorous records, and investigating potential conflicts of interest of sources. Some described their watchdog work as being “much like the practice of science” [J4], involving developing hypotheses, gathering and analyzing data, and deriving conclusions.
Once journalists felt the threshold of evidence had been met, they typically took one last step: a “right of reply email” [J17] to the target and/or their institution that provided an opportunity to comment. This practice rarely, if ever, led to useful responses, nor affected whether journalists published their story. Yet it allowed participants to show they had done their due diligence and, especially for those working in the U.K., stave off potential lawsuits. This final step was one of the few parts of the investigative process where press officers played a role, either by providing official statements on behalf of their institutions or, more rarely, connecting journalists to the person accused of wrongdoing.
Reporting Watchdog Science Stories
When it came to writing stories, participants adopted classic journalistic practices, such as using succinct, accessible language and clear explanations, especially when working for outlets targeting broad, public audiences. As with verification, they strove to be accurate and objective, presenting “neutral” [J5] accounts of “just the facts” that would allow audiences to “decide for themselves” [J2] whether disciplinary action was needed. Participants stressed that accuracy was especially important in headlines, as these are often the only things audiences read, especially when covering issues still under debate within the scientific community.
Some journalists tried to entertain, using engaging hooks, telling the “human story” [J5] behind the misconduct, and spotlighting “really interesting characters” [J6] to “sneak integrity stuff in” [J2] without losing the audience’s interest. Importantly, these strategies were not universally applied because some journalists considered watchdog stories to be inherently newsworthy, as mentioned above.
By far, the most important practice was contextualization, as participants felt that providing sufficient background about the larger scientific system was necessary for putting transgressions into perspective. Aligning with Jamieson’s (2018) recommendations, they strove to communicate that science is self-correcting and that a single researcher’s actions do not indicate a broken system. As J1 explained when reflecting on a story they had written:
One thing I like about this piece is that . . . it goes beyond the story itself and looks at what journals are doing to screen figures. I think that’s important to do when it comes to pieces like this—to not just focus on the paper, but to look at the broader structural systems . . . that enable these kinds of problems.
For some, this desire to contextualize was also driven by anticipation of (public) skepticism and distrust in science.
Barriers and Facilitators of Watchdog Science Journalism (RQ2)
Individual-Level Influences
Experience and reputation appeared as key facilitators of participants’ work across every stage of news production. Well-established watchdog journalists often received tips, so that “you’re not necessarily looking for these stories, but they come towards you” [J3]. Editors were more trusting of these reporters and thus more receptive to their pitches. Experience also made story selection and investigation easier, due to the “gut feeling” [J13] and subject matter expertise developed through years of watchdog work. Having a reputation as a watchdog meant sources were sometimes more willing to go on the record, as “the more you report, the more people see you as someone who they can talk to” [J17].
Journalists’ status within the newsroom was important, with freelancers experiencing additional barriers compared to on-staff journalists and editors. Without the security of a stable job, they didn’t “have the bandwidth at all times to drop things and take a story” [J3]. Editors sometimes trusted them less in relation to editorial standards and were more reluctant to accept their pitches. Some journalists said freelancers’ interview requests were more frequently “knocked down” than those of on-staff journalists, which they saw as “a really terrifying development because lots of freelancers are doing that bread-and-butter work of reporting” [J13].
Finally, participants noted that passion helped them persevere through the weeks or months needed to pursue these stories. Having a background in science was helpful for understanding and vetting research, and strong record-keeping skills were crucial for managing extensive documentation.
Routine-Level Influences
The cycle-driven nature of newswork (Downs, 1972) and the importance of metrics in editorial decision-making (Lamot, 2022) posed routine-level barriers for participants. This is because watchdog stories did not always grab the most attention, and their impact was best understood on a big-picture, long-term level that was difficult to capture via audience metrics. Reporting these stories was described as “antithetical to how journalism is done” [J3] because of the slow nature of investigations.
To address this barrier, journalists used ad hoc strategies, such as “ignor[ing] your editors . . . and just dig[ging] at it yourself” [J17] or ensuring their watchdog story was “the first you write out of the two stories that you have gathered during that day” [J14] to decrease the odds it would get cut due to space constraints. Still, many important stories were never told because “there were other things to do” [J15] or due to pressure “to get the traffic numbers . . . [and] keep subscriptions up” [J17].
Organizational-Level Influences
While the impact of time and resource constraints on science journalism is well-documented (Allan, 2011; Saari et al., 1998), these constraints appear even more problematic for watchdog journalism, which “is expensive, is time consuming, [and] requires a lot of resources” [J18]. These stories require developing in-depth knowledge, meaning participants had to spend considerable time “understanding the science” [J21]. To save time, participants like J20 used a “triage” approach: first assessing the story’s potential, then deciding whether to wade through the “floods” of information ahead.
Dwindling time and resources intertwined with and amplified barriers at almost every other level of influence. Budget cuts resulted in organizations lacking the in-house expertise needed to take on watchdog stories and thus increased their reliance on freelancers. Limited resources made outlets more selective, prioritizing content that was more likely to draw attention over more important but less clickable stories. Financial constraints meant outlets could afford less legal and fact-checking support, increasing the risks for journalists covering these issues. This, paradoxically, raised the threshold of evidence needed to run a story, increasing the time and resources needed to gather and vet information.
Alongside resource-related influences, editorial approaches impacted opportunities for watchdog work. As J10 synthesized: “Editors have different philosophies on how they do things, different thresholds of when you publish or what’s good enough, different priorities.” Editorial priorities were often linked to the target audience, with journalists pitching watchdog science stories more successfully to specialist publications serving science-interested and -educated audiences. Combined with resource-related barriers, this meant watchdog work remained “a minor part” [J21] of science reporting, both within individual journalists’ dossiers and within the wider media ecosystem.
Social-Institutional-Level Influences
Social institutional-level influences primarily centered on access-related factors, such as lack of available sources and documents and PR professionals who acted as “gatekeeper[s]” [J1] trying to “control the narrative” [J4]. When seeking out interviews, participants experienced challenges finding good communicators with relevant expertise, weeding out untrustworthy sources, mitigating sources’ liability concerns, dealing with frustrated scientists, and grappling with sources who were unavailable or slow to respond.
Most importantly, legal and reputational risks meant potential sources were often “not sure that they wanted to put their neck out” [J5]. This was also true of individuals or institutions under investigation. As J20 summarized: “You ask some very reasonable questions about stuff in the public interest and their instinct is to flop off with not answering the questions, not providing data, providing vague answers and spin.” This comment reflects the intertwined issue of accessing (useful) data and document sources, as “crucial data that might reveal things that aren’t necessarily in a government’s or university’s best interest . . . is now being severely restricted” [J4]. This left journalists to “go on what I can access reasonably easily or what I can ask for” [J20].
Press officers and other institutional spokespersons added to the access challenges. Whether dealing with journals, government institutions, hospitals, or universities, the story was the same: “You always have to start with the PR. Sometimes they answer you, sometimes they’ll send you some really anodyne e-mail, but rarely they’ll set up an actual interview with someone” [J7]. Concerningly, this barrier appeared to be getting worse, reflected in observations such as “one trend I noticed . . . is that now you cannot get anywhere without going through a PR department” [J4]. In addition, watchdog stories sometimes led to access issues for future stories, cutting off ties with potential sources. As J14 explained, “I know that the universities and researchers I exposed at that time will never deal with me again . . . So, it comes at a price.”
Social System-Level Influences
Finally, social system-level influences sometimes impacted participants’ work. As J15 expressed, “Canada is not a very open society as far as media goes, and in any kind of institutional situation, the tendency is, ‘We don’t talk to journalists.’” Relatedly, some participants noted that there is a “lack of good Canadian outlets for these stories” [J7], leading freelancers to pitch larger outlets based in other countries, such as the U.S. or U.K. This is reflected in our sample. While we were able to identify journalists who had done watchdog work for Canadian media, these journalists often also freelanced for U.S. or U.K. media.
Reporting for U.K. outlets also came with unique risks, due, in part, to a lack of academic regulation: “In Britain, there is no body with powers like that of the Office of Research Integrity in the US . . . There are just universities regulating themselves” [J17]. Several interviewees reporting for U.K. outlets described highly restrictive libel laws as an additional barrier, as did freelancers based in other countries but reporting for U.K. or Canadian media. These journalists were not always sure whether they were beholden to libel laws where they were physically based, where the outlet was located, or both. Moreover, freelancers experienced different levels of protection at different outlets.
Finally, FOI legislation varied across contexts, with one journalist noting that in Canada, “information that is research is excluded from freedom of information legislation” [J8]. These laws further restricted the access barriers described above, raising the threshold of evidence needed to publish watchdog stories, and compounding the time and resource barriers so central to journalists’ challenges.
Discussion
Conceptually, this study advances science communication scholarship by shedding light on the practices and barriers associated with science journalists’ watchdog role, which has long been acknowledged as important but has received little scholarly attention. Overall, our findings suggest that watchdog science journalism can be understood and framed as a feasibility-bound role, in which pragmatic factors—for example, time, resources, access, and legal risks—often override perceived importance or traditional news values to determine which watchdog science stories are told. This points to potential divergences between the perception and performance of the watchdog role (Mellado et al., 2020) in the specialized area of science journalism—divergences that, to our knowledge, have never been identified in previous science communication research.
In particular, while interviewees saw watchdog science journalism as crucial, they faced significant challenges in covering these stories, resulting in a disjoint in how much the role is valued and how often it is actually performed. Challenges exist at each level of influence theorized by Shoemaker and Reese (1996): difficulties in accessing crucial evidence, persuading editors that a story will sell, avoiding libel actions, protecting sources, and alerting the public without eroding trust. In other words, watchdog science journalism is not merely a normative but a contingent practice that is structurally constrained at all levels of influence. These multi-level constraints interact with each other in ways that compound the challenges to the science watchdog role. Simultaneously, growing pressure on researchers and research institutions to attract positive coverage has contributed to heavy reliance on “science PR” (McKinnon et al., 2019; Weingart, 2022). Perhaps as a result, journalists perceived these institutions as opaque, sometimes actively restricting their access to sources needed for evidence-heavy stories. In this context, stories that matter can remain untold because they demand more investigation than the system can support.
Many of the barriers that emerged in the interviews are well documented in science journalism scholarship, including resource scarcity, information access, and story salability (Fleerackers et al., 2024; Hansen, 1994; Murcott & Williams, 2013). Our findings suggest that the time-consuming nature of watchdog work can amplify these problems. Reporting such stories often means navigating incomplete or untrustworthy information and uncooperative sources. This requires not only time, resources, and supportive editors, but also a trusting network of sources, a solid reputation, and the expertise to interpret and contextualize disputes that even scholars have not settled. Many interviewees said watchdog stories made up only a small share of their work, and they believed this pattern held across the field. The result is a set of systemic forces that dampen investigative reporting on science even when journalists are strongly motivated and the public interest is high (Blanchett et al., 2022; Blum, 2021; Murcott & Williams, 2013). These forces are amplified in the Canadian and U.K. media systems, where media outlets are increasingly resource-poor, and where specialist reporting has become a largely freelance and thus precarious profession (Aberneithie & Tobitt, 2024; Murcott & Williams, 2013).
Legal risk further constrains watchdog reporting for both journalists and the subjects of investigations. In Canada and the U.K., defamation laws place the burden of proof on the defendant, meaning that “it’s not up to the person allegedly defamed to prove that the allegation is false—it’s up to the journalist to prove that it’s true” (Canadian Judicial Council [CJC], 2007, p. 7; Webber, 2023). This burden is higher for freelancers, who may not be covered by an organizations’ legal insurance (Ibe, 2025). Guidance for journalists thus recommends practicing rigorous and comprehensive verification and extensive record keeping, providing targets with an opportunity for comment, presenting both sides of the story, and raising questions rather than making “statements of fact” about the accused (CJC, 2007, p. 9; Ibe, 2025). These strategies emerged in journalists’ self-described practices, illustrating how legal frameworks shape whether and how research infractions are brought to light.
Our findings also suggest measures to support watchdog science journalists. For instance, journalism schools and professional development initiatives should build capacity by incorporating additional training on scrutinizing research, managing legal risks, and navigating sensitive source relationships. Media outlets should ensure freelancers have access to the same legal protection and fact-checking support as in-house staff, while editors must take care to balance concerns about audience metrics with the public interest when selecting stories. The increasing use by some interviewees of informal science actors, such as science sleuths, whistleblowers, and informal post-publication peer reviewers, highlights the need to foster a distributed monitoring system within which watchdog science journalism can be co-produced with communities that traditionally sit outside science communication (Schapals et al., 2026). Most crucially, sustainable, independent funding for watchdog science journalism is needed for it to survive.
The scientific system, too, has a role to play by ensuring journalists have free, timely access to comprehensive retraction notices and expressions of concern (Valinciute & Halffman, 2025a), open peer review reports, and other critical information about problematic science. Scientists, institutional press officers, and journals can support journalists by taking a more collaborative and responsive approach when responding to queries (Bolland et al., 2018; Moorhead et al., 2023). For instance, journals such as Science encourage authors whose work is under scrutiny to provide journalists with their research data and, if applicable, direct them to other scientists who have replicated the work (Thorp & Phelan, 2025). Doing so could help improve researchers’ and their institutions’ public image when faced with allegations and support public trust in science (Jamieson, 2018; Ophir & Jamieson, 2021).
This study extends work on watchdog science journalism across two countries, but both are English-speaking liberal media systems. In Canada and the U.K., a small number of large companies control most media outlets, and platforms like Facebook and Google wield significant influence over news distribution (Jewell, 2024; Rochester et al., 2024). In addition, our research took place in the wake of the COVID-19 pandemic and during the rise of GenAI in science, both periods of growing concern about fraudulent and fabricated research. Participants may have described their work with these specific contexts in mind, limiting insights into forms of watchdog science journalism that may involve different practices and barriers (e.g., reporting on government abuse of science, ethics breaches). Further studies could expand this work to other media systems and contexts. In addition, our reliance on interview data means journalists’ self-reported practices may differ from lived realities. Studies using complementary methodologies (e.g., content analyses, newsroom ethnographies, surveys) are essential for filling the multiple research gaps that remain.
Footnotes
Acknowledgements
The authors thank Kristen de Jager and Arijit (A.J.) Joshi for their assistance in identifying and interviewing journalists for this research.
Author Contributions
Conceptualization: A.F., A.N., and A.H.; Data curation: A.F. and A.N.; Formal analysis: A.F. and A.N.; Funding acquisition: A.F., A.N., A.H., and I.O.; Methodology: A.F., A.N., and A.H.; Project administration: A.F., A.N., and A.H. Supervision: A.F. and A.H. Writing–original draft: A.F., A.N., and A.H. Writing–review and editing: A.F., A.N., A.H., and I.O.
Funding
The authors disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: This research was supported by two grants from the Social Sciences and Humanities Research Council of Canada (SSHRC): an SSHRC Insight Development Grant (430-2024-00840) and an SSHRC Postdoctoral Fellowship (756-2023-0114).
Declaration of Conflicting Interests
The authors declared the following potential conflicts of interest with respect to the research, authorship, and/or publication of this article: Ivan Oransky is co-founder of Retraction Watch, which developed the database used to identify journalists for this study. During interviews, some participants mentioned using Retraction Watch in their work, but Oransky played no role in the emergence of this finding.
