1 Replication Crisis and Credibility Revolution
7 sub-clusters · 146 referencesAttainment of foundational knowledge on the importance of reproducible and open research (i.e., grounding the motivations and theoretical underpinnings of Open and Reproducible Science). Integration with field specific content (i.e., grounded in the history of replicability). There are 7 sub-clusters which aim to further parse the learning and teaching process:
In order to understand and weigh in on current developments, we need to first understand how the Open and Reproducible Science movement started, from its origins over the replicability/reproducibility crisis to the credibility revolution.
In order to understand and weigh in on how the Reproducibility Crisis started, we first need to understand scientific misconduct, especially data fabrication and falsification. These practices erode trust in science and distort the research record. Fabrication involves inventing data, participants, or outcomes; falsification involves altering materials, methods, measurements, images, or reporting so that findings are misrepresented. Because intent to mislead is central, these acts are distinct from questionable research practices and from honest mistakes. Recognizing the role of misconduct is therefore essential for understanding how unreliable or non-replicable studies entered the literature and contributed to the broader crisis.
Questionable research practices are actions which researchers take to increase the probability of their desired result. They can be done consciously and unconsciously, distinguishing them from deliberate scientific misconduct, but still compromise research integrity since they can lead to misleading conclusions. Examples of such behaviors include p-hacking, selective reporting, and HARK-ing (Hypothesizing After the Results are Known). The ways in which researchers engage in behaviors and decision-making that increase the probability of their (consciously or unconsciously) desired result.
This is a collection of large scale replications that have been conducted estimating the rate of reproducibility of entire (sub)disciplines, offering a big-picture view of replication efforts and the current state of replicability across fields.
Published checklists and other resources that can be used to shift behavior more toward improved practices.
Engaging in Open and Reproducible Science practices comes with ethical challenges that need to be sensitively navigated (e.g. when sharing data openly).
Open Science is not a monolith, and continued scrutiny of the proposed practices and reforms can be of value - whether to understand why there is resistance (and how to combat anti-open arguments) as well as pushing us to evaluate the potential positive and negative impacts of reforms.