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Effective Communication of Scientific Results

José Nelson Amaral

TL;DR

This article argues for a receiver-oriented approach to scientific communication in an era of information overload, offering practical guidance for both oral presentations and manuscript writing. It provides step-by-step methods for slide design, gradual information disclosure, effective hooks, and polished delivery, alongside rigorous guidelines for describing experimental methodologies and reporting results. By highlighting common pitfalls—such as improper data summarization and biases—it emphasizes reproducibility, robust data collection, and diverse benchmarks to strengthen the credibility and impact of scientific findings. The work aims to improve clarity, reduce misinterpretation, and promote trustworthy, audience-centered reporting in scientific discourse.

Abstract

Communication is essential for the advancement of Science. Technology advances and the proliferation of personal devices have changed the ways in which people communicate in all aspects of life. Scientific communication has also been profoundly affected by such changes, and thus it is important to reflect on effective ways to communicate scientific results to scientists that are flooded with information. This article advocates for receiver-oriented communication in Science, discusses how effective oral presentations should be prepared and delivered, provides advice on the thought process that can lead to scientific papers that communicate effectively, discusses suitable methodology to produce experimental data that is relevant and offers advice on how to present such data in ways that lead to the formulation of correct claims that are supported by the data.

Effective Communication of Scientific Results

TL;DR

This article argues for a receiver-oriented approach to scientific communication in an era of information overload, offering practical guidance for both oral presentations and manuscript writing. It provides step-by-step methods for slide design, gradual information disclosure, effective hooks, and polished delivery, alongside rigorous guidelines for describing experimental methodologies and reporting results. By highlighting common pitfalls—such as improper data summarization and biases—it emphasizes reproducibility, robust data collection, and diverse benchmarks to strengthen the credibility and impact of scientific findings. The work aims to improve clarity, reduce misinterpretation, and promote trustworthy, audience-centered reporting in scientific discourse.

Abstract

Communication is essential for the advancement of Science. Technology advances and the proliferation of personal devices have changed the ways in which people communicate in all aspects of life. Scientific communication has also been profoundly affected by such changes, and thus it is important to reflect on effective ways to communicate scientific results to scientists that are flooded with information. This article advocates for receiver-oriented communication in Science, discusses how effective oral presentations should be prepared and delivered, provides advice on the thought process that can lead to scientific papers that communicate effectively, discusses suitable methodology to produce experimental data that is relevant and offers advice on how to present such data in ways that lead to the formulation of correct claims that are supported by the data.
Paper Structure (22 sections, 2 figures)

This paper contains 22 sections, 2 figures.

Table of Contents

  1. Receiver-Oriented Communication
  2. Effective Oral Presentations
  3. The Process of Preparing Slides for a Presentation
  4. Gradual Introduction of Complex Information
  5. Presenting block diagrams or complex illustrations.
  6. Presenting Numerical Results in Graphs.
  7. Presenting Complex Algorithms or Program Code.
  8. Including Equations in Slides.
  9. Presentation of Textual Information.
  10. Hooking the Audience at the Start of a Presentation
  11. Delivering the Presentation
  12. Wrapping Up the Presentation
  13. The "Elevator" Presentation
  14. Creating a Manuscript to Report Scientific Results
  15. Describing Experimental Methodology in a Manuscript
  16. ...and 7 more sections

Figures (2)

  • Figure 1: Two versions of a single slide to explain the Compiler Development-Evaluation Cycle.
  • Figure 2: Two ways to compare the results from an experimental measurement.