Early-career research supervisors must foster integration and provide emotional support

A paper published in PLOS Computational Biology offers practical guidance on defining project scope, promoting autonomy, and embracing open science for supervisors starting out

Rodrigo de Oliveira Andrade

Two people sit side by side at a wooden table with two open laptops and sheets of paper covered in handwritten notes spread out in front of them. One holds a pencil, while the other has a pen. The scene conveys a collaborative work environment, illuminated by soft lighting and neutral tones.

Supervising undergraduate and graduate students on short-term research projects, such as undergraduate research placements and master’s theses, requires both technical expertise and pedagogical skill. To help early-career researchers navigate this challenge, mathematicians Rebecca M. Crossley and Philip K. Maini of the UK’s University of Oxford have published, in the scientific journal PLOS Computational Biology, a set of practical recommendations specifically aimed at supervisors with limited experience.

One of the most common pitfalls identified by the authors is designing projects that are overly ambitious for the time available. Their recommendation is to first define the scope of the project and then scale it down by half. The goal is to keep the central research question clear and achievable, while prioritizing objectives that fit within the student’s competing commitments, such as coursework, conferences, assignments, and other academic activities.

Aligning the project with the student’s interests and skill set is equally essential. The authors argue that tasks should strike a balance between activities that reinforce already developed competencies and challenges that foster learning and confidence. This requires understanding, from the outset, what the student expects from the experience—whether it is learning a new programming language, deepening theoretical knowledge, or applying familiar tools in a new context.

Regular meetings and emotional support

Crossley and Maini recommend weekly or biweekly meetings structured to allow supervisors to quickly identify problems, organize workflow, and build a relationship of trust with the student. Each meeting should be both focused and supportive: checking in on the student’s week, reviewing progress, helping resolve difficulties, and clearly defining next steps before concluding.

Beyond technical oversight, the authors emphasize the supervisor’s emotional role. Many students experience insecurity, stress, or imposter syndrome during their first scientific endeavors. Normalizing setbacks and uncertainty—and making it clear that these experiences are an inherent part of research—is part of the supervisor’s responsibility. Sharing personal anecdotes or examples from other researchers can also help demystify science as a process that carries uncertainties.

“It is essential for supervisors to be transparent in acknowledging that they don’t have all the answers and that they are learning alongside their students. This stance helps foster a culture of collaborative problem-solving and makes the academic environment more welcoming for early-career researchers,” the authors note.

Integration Into the Scientific Community

The authors recommend integrating students into the scientific community as a way to strengthen their sense of belonging and broaden their understanding of the wider context of their research. Attending seminars, lab meetings, poster sessions, and small conferences are among the strategies suggested to help students build confidence in presenting and discussing their results.

Group meetings can complement one-on-one supervision, particularly when several students are working on related topics or when other members of the laboratory possess expertise relevant to the project. Informal activities outside the workplace—such as shared lunches or social gatherings—are also encouraged as a way to foster a more collaborative scientific environment.

Crossley and Maini further suggest that supervisors introduce students to strategic academic activities such as peer review, grant writing, and network building. They also recommend incorporating good open science practices, including reproducibility and transparency, from the outset as preparation for future collaborations.

All of this, however, must be balanced between supervision and autonomy. Rather than solving every problem directly, supervisors should encourage critical thinking, allowing students space to experiment, make mistakes, and develop independence. Recognizing progress along the way can strengthen motivation in a journey that is often slow and marked by uncertainty.

Recommendations for supervisors of early-career researchers

1. Define the scope and then halve it: Short-term projects require tightly focused objectives. After setting the initial scope, reduce it to ensure the goals are realistically achievable within the available timeframe.
2. Align the project with the student’s profile: Combine tasks that reinforce existing skills with challenges that foster learning, confidence, and productivity.
3. Clarify the student’s expectations: Understanding what the student hopes to gain from the experience—whether new skills, deeper theoretical knowledge, or practical application—helps shape the project structure.
4. Hold regular meetings: Weekly or biweekly check-ins allow supervisors to identify problems early, organize workflow efficiently, and establish clear next steps.
5. Provide emotional support: Imposter syndrome and insecurity are common in early scientific experiences. Normalizing difficulties and sharing personal experiences can help create a more supportive environment.
6. Adopt a group format where appropriate: Group meetings can encourage collaboration and allow other lab members to contribute to the project.
7. Integrate students into the scientific community: Participation in seminars, poster sessions, and conferences broadens trainees’ perspectives and builds confidence in presenting and discussing their work.
8. Incorporate strategic activities: Peer review, project drafting, and networking should be developed early as essential academic skills.
9. Adopt open science practices from the outset: Teaching reproducibility and transparency early on prepares students for future collaborations and enhances research quality.
10. Balance supervision and autonomy: Encourage critical thinking rather than solving every problem directly. Space to experiment and make mistakes is essential for scientific development.

* This article may be republished online under the CC-BY-NC-ND Creative Commons license.
The text must not be edited and the author(s) and source (Science Arena) must be credited.