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3 Steps Before Starting Research ll Best Process to Start Research ll Dr Rizwana Mustafa thumbnail

3 Steps Before Starting Research ll Best Process to Start Research ll Dr Rizwana Mustafa

Dr Rizwana Mustafa·
5 min read

Based on Dr Rizwana Mustafa's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

Visit multiple labs aligned with the field and spend time with active research groups before committing to a topic or area.

Briefing

Choosing a research topic and research area can feel overwhelming for new students, but a clear early process can make the path smoother—starting with the right lab environment, then narrowing options through evidence, and finally selecting a supervisor who can shape a successful research career.

The first step is to visit research labs and spend real time with the student groups working on different topics. Instead of relying on assumptions, students are encouraged to go to labs aligned with their field—whether chemistry or other natural sciences—and observe ongoing projects firsthand. Chemistry, for example, is described as having multiple branches, each with distinct research areas and separate research groups. Students should not just tour; they should build a short questionnaire and ask practical questions about how the group actually functions. A key warning is that lab productivity can look high from the outside—students may appear busy from morning to evening—but the real measure is how much time goes into research work versus non-productive activities like gossip or downtime. Spending time with the group helps reveal the behind-the-scenes routine, the group’s true research activities, and the level of support available.

Students are also advised to treat this as a mini-survey before committing. If a lab group is reluctant to let someone visit or engage, that itself becomes a data point. The goal is to identify which groups offer the right environment for applied research—work that evolves into practical outcomes, including products and real-world applications. The transcript emphasizes that successful research projects tend to be those with applied relevance, and it highlights “green” impact as a guiding direction: research should be designed to support environmentally friendly goals, use fewer resources, and still produce meaningful results. After visiting and collecting responses, students should analyze the questionnaire results and categorize labs into tiers (A, B, C) based on which ones align best with their needs and expectations.

The second major decision is supervisor selection, framed as a career-defining choice. The supervisor is portrayed as the person who trains the student from the beginning, provides guidance through research writing and collaboration development, and whose vision the student may need to adopt. Strong supervisor-student interaction is presented as the top quality: how often the supervisor meets the group, how much time they give each student, and how structured the research plan is. The supervisor’s own research activity matters too—what their research focus is, how active they are in their field, and what national and international collaborations they have. Support for research writing and collaboration building is treated as a practical indicator of mentorship quality.

Finally, the transcript stresses that selecting a research area and research topic should be specific and aligned with a broader theme. “Green chemistry” is used as an example: it’s not enough to choose the general label; students should pick a focused principle (such as one of the 12 principles) and then narrow further into sub-areas like ionic liquids. The process ends with developing research objectives, identifying research problems, and shaping a research proposal through consultation with the research group and supervisor. The overall message is that the right lab environment, the right mentor, and a focused topic selection reinforce each other—and together they determine how feasible and rewarding the research journey becomes.

Cornell Notes

New researchers are urged to start with a practical, evidence-based process: visit labs, observe real group routines, and gather information before committing. Students should spend time with research groups, use a short questionnaire, and assess how much time is truly spent on research versus distractions. After surveying labs and analyzing responses, they should rank options (A/B/C) and then focus on supervisor selection, since mentorship quality strongly shapes training, research writing, and future opportunities. A good supervisor offers strong interaction, an active research profile, and national/international collaboration support. Finally, research area and topic selection must be specific—using green chemistry as an example, students should choose a particular principle and then narrow to sub-areas like ionic liquids, developing clear objectives and research problems.

Why is spending time in multiple labs the first critical step before choosing a research area?

The transcript treats lab visits as the only reliable way to understand how research groups actually operate. Students are encouraged to spend time with ongoing research groups, not just tour facilities. A questionnaire helps capture details like the group’s routine and how much time is devoted to real research work. The warning is that productivity can look high from the outside (students present from morning to evening), yet behind the scenes may involve low research time due to gossip or non-productive activities. Time spent with the group reveals the true environment and the level of support available.

What should students look for when evaluating whether a lab group is a good fit?

Students should assess diversity of research areas, the group’s routine, and the influence and involvement of the research supervisor. They should also evaluate the group’s research impact and whether projects are aligned with applied research outcomes—work that evolves into practical applications and products. The transcript also frames “green research” as a desirable direction: projects should support environmentally friendly goals, reduce resource use, and still generate meaningful outputs.

How does the questionnaire and A/B/C categorization help with decision-making?

After visiting labs and collecting responses through a questionnaire, students should analyze the results to determine which labs best match their criteria. The transcript recommends categorizing labs into A, B, and C based on the number of points they receive. This turns subjective impressions into a structured comparison, making it easier to select a research group aligned with the student’s expectations and career goals.

What qualities define a strong research supervisor according to the transcript?

The top requirement is strong interaction with the research group: frequent meetings, time allocated to each student, and a structured research schedule with clear feedback mechanisms. Next, the supervisor’s research activity matters—what their research input is, their own research background, and whether they actively pursue their field. Collaboration support is also emphasized, including national and international collaborations and help with research writing and collaboration development.

How should students choose a research area and research topic so it doesn’t stay too broad?

The transcript warns against selecting only a general label. “Green chemistry” is used to show how to narrow: choose a specific principle (from the 12 principles) and then explore a focused sub-area. If the sub-area is ionic liquids, then the research area becomes “ionic liquids” within the broader green chemistry framework. Students should then develop research objectives and identify research problems, shaping a research proposal through consultation with the research group and supervisor.

Review Questions

  1. What specific observations during lab visits help distinguish real research productivity from appearances?
  2. Which supervisor qualities in the transcript most directly affect a student’s training and future opportunities?
  3. How does the example of green chemistry illustrate the difference between choosing a research area and choosing a research topic?

Key Points

  1. 1

    Visit multiple labs aligned with the field and spend time with active research groups before committing to a topic or area.

  2. 2

    Use a short questionnaire during lab visits to measure the group’s real research routine and time allocation, not just visible busyness.

  3. 3

    Rank labs using an evidence-based method (A/B/C) after analyzing questionnaire results to narrow options efficiently.

  4. 4

    Select a research supervisor based on strong interaction, structured research planning, and consistent feedback to students.

  5. 5

    Prioritize supervisors who are actively engaged in research and who have national and international collaboration experience.

  6. 6

    Choose a research area and topic with specificity—start broad themes (e.g., green chemistry) and narrow to a particular principle and sub-area (e.g., ionic liquids).

  7. 7

    Develop research objectives and research problems into a proposal through consultation with the research group and supervisor.

Highlights

Lab productivity can look high on the surface, but the real test is how much time is actually spent on research—spending time with the group reveals the difference.
Supervisor selection is treated as career-defining, with strong interaction and structured meetings presented as the most important qualities.
Green chemistry is used as a model for specificity: pick a particular principle, then narrow further into a focused sub-area like ionic liquids.

Topics

  • Research Lab Selection
  • Supervisor Evaluation
  • Questionnaire Analysis
  • Green Chemistry
  • Research Proposal Development

Mentioned