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Scientific Utopia: I. Opening scientific communication (1205.1055v1)

Published 4 May 2012 in physics.soc-ph and cs.DL

Abstract: Existing norms for scientific communication are rooted in anachronistic practices of bygone eras, making them needlessly inefficient. We outline a path that moves away from the existing model of scientific communication to improve the efficiency in meeting the purpose of public science - knowledge accumulation. We call for six changes: (1) full embrace of digital communication, (2) open access to all published research, (3) disentangling publication from evaluation, (4) breaking the "one article, one journal" model with a grading system for evaluation and diversified dissemination outlets, (5) publishing peer review, and, (6) allowing open, continuous peer review. We address conceptual and practical barriers to change, and provide examples showing how the suggested practices are being used already. The critical barriers to change are not technical or financial; they are social. While scientists guard the status quo, they also have the power to change it.

Citations (265)

Summary

  • The paper identifies inefficiencies in traditional scientific communication and advocates a digital transformation to accelerate research dissemination.
  • The paper introduces an open access model and separates publication from evaluation to enhance transparency and reduce delays.
  • The paper recommends publishing peer reviews openly to improve accountability and foster continuous, community-based assessment.

Scientific Utopia: Proposals for Modernizing Scientific Communication

The paper "Scientific Utopia: I. Opening Scientific Communication" by Brian A. Nosek and Yoav Bar-Anan highlights the inefficiencies in current scientific communication practices and proposes a series of changes to align these practices more closely with the core scientific values of openness and transparency. This discussion is particularly relevant in the context of the digital era, where technological advancements provide ample opportunities to overcome the anachronistic limitations of traditional scientific communication methods.

The paper identifies several key inefficiencies in the current model of scientific communication, including incomplete or inaccurate reporting, slow dissemination of results, and the persistence of errors in published literature. The authors argue that these inefficiencies stem largely from social barriers rather than technical or financial limitations. The proposed roadmap emphasizes the adoption of digital communication methods, open access to research outputs, and a restructuring of the peer review process.

Key Proposals and Their Implications

  1. Full Embrace of Digital Communication: The authors advocate for a complete transition to digital communication, arguing that this would eliminate unnecessary publication lags associated with traditional paper-based dissemination methods. This transition would not only accelerate the availability of research findings but also reduce costs associated with printing and distribution.
  2. Open Access to Research: By transitioning to an open access model, publishing costs would be covered upfront, allowing free access to scientific literature. The authors suggest that this model would increase the accessibility of research outputs and reduce the financial burden on institutions. The evidence indicates that open access articles often have a citation advantage, reinforcing the practical benefits of this approach.
  3. Disentangling Publication from Evaluation: The paper proposes separating the publication of research from its evaluation. Authors would have the autonomy to publish their work in public repositories, while peer review would serve to evaluate and grade the research rather than act as a gatekeeping mechanism. This could greatly reduce the delay between research completion and publication and diminish the file-drawer problem.
  4. Grading System for Evaluation and Diversified Dissemination Outlets: The authors recommend a grading system to assess research quality, rather than the current system that ties evaluation to specific journal prestige. This would enable a more efficient and transparent review process and allow research to be disseminated across multiple platforms, fitting different research paradigms and audiences.
  5. Publishing Peer Review: Making peer reviews publicly available would enhance transparency and recognition for reviewers, encouraging higher quality assessments. This stage would empower the scientific community to access a fuller narrative of the research discourse, not just the final published results.
  6. Open, Continuous Peer Review: An open, community-based evaluation process would allow dynamic engagement with research work beyond the initial peer review, facilitating ongoing critique and discussion. This change would redefine the role of peer review, focusing it more on enrichment and less on gatekeeping.

Practical and Theoretical Implications

The cumulative implementation of these changes could result in more rapid scientific progress, as new research would be immediately accessible and continually evaluated. This might change how researchers allocate their efforts, focusing more on responding to emerging findings rather than negotiating the constraints of traditional publication. The proposed system would provide broader access to the scientific literature, leveling the playing field for researchers from various backgrounds and institutions, and potentially increasing collaboration and interdisciplinary research.

Theoretically, these changes challenge entrenched norms by questioning the necessity of traditional metrics such as journal impact factors for assessing research quality. More emphasis would be placed on the intrinsic value and subsequent influence of individual research outputs.

Future Developments and Challenges

While each stage is independently implementable and already demonstrated on a small scale, their broader implementation will require concerted effort and collaboration among scientists, institutions, and publishers. Overcoming social resistance, establishing new norms, and ensuring equitable participation across the global scientific community will be critical to realizing this utopia of scientific communication. The potential impacts on the efficiency and quality of scientific discourse suggest that these changes are worth pursuing, albeit with careful consideration of the challenges involved.