Get AI summaries of any video or article — Sign up free
what is the Difference B/W Research Method and Research Methodology  | Dr Rizwana | Urdu/Hindi thumbnail

what is the Difference B/W Research Method and Research Methodology | Dr Rizwana | Urdu/Hindi

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

A research method is the step-by-step procedure used to achieve a specific research objective.

Briefing

Research methodology and research method get mixed up in practical research planning, but the distinction is straightforward: a research method is the step-by-step procedure used to achieve a specific research objective, while research methodology focuses on the reasoning and science behind why each step is done. That difference matters because it determines whether a study can be executed efficiently and produce reliable results—or whether it stalls and forces last-minute troubleshooting.

A research method is described as a structured process aimed at reaching a particular outcome. The transcript uses everyday analogies to make the idea concrete. Sewing a dress requires a sequence of steps; cooking a meal depends on following defined stages; and developing any product involves processes that must be followed in order. In research, that same logic applies to the workflow used to answer a research question. For example, when separating a specific alkaloid from a plant, the method is the full chain of actions from crude material to a purified product: collecting the plant sample, drying it, crushing it, soaking it in a solvent (often methanol), partitioning the mixture into major portions, testing those portions, and then using separation techniques to isolate the alkaloid that appears in the desired fraction. The key point is that the steps must be followed as a coherent sequence—starting with sample preparation and only moving to techniques like column chromatography after earlier stages are completed.

Research methodology enters at the “why” level. It addresses the logic behind each scientific step and the rationale for choices made during the procedure. In the alkaloid example, methodology explains why the plant is crushed (to convert material into smaller portions that improve extraction), why it is dried, and why methanol is used for soaking. Methanol is chosen because it can dissolve both low-polar and high-polar components, enabling compounds to be handled together effectively before further separation. Methodology also clarifies why partitioning is done into major portions and how those fractions are expected to behave, based on the underlying chemistry.

The transcript also warns that without understanding the science behind the method, researchers cannot optimize efficiency or achieve the intended results. When separation fails—such as when a compound does not move through a solvent system—methodology provides the troubleshooting framework. Instead of guessing, researchers adjust the solvent system based on polarity and matching with the compound’s properties. The logic is that as solvent polarity becomes better aligned with the target compound’s polarity, solubility and movement improve, enabling separation.

Finally, the same “steps vs. reasons” distinction is illustrated through pizza dough and baking: ingredients like salt, sugar, and yeast each serve a purpose, and warm conditions support fermentation. The method is the procedure (mixing, proofing, timing), while methodology is the science behind fermentation enhancement. The practical takeaway is that method and methodology work together: method delivers the procedure, and methodology supplies the scientific rationale that makes the procedure adaptable when results don’t go as planned.

Cornell Notes

A research method is the step-by-step procedure used to reach a specific research objective, such as the full workflow for extracting and purifying a plant alkaloid (sample collection, drying, crushing, methanol soaking, partitioning, fraction testing, and separation). Research methodology focuses on the reasoning and science behind those steps—why crushing improves extraction, why methanol dissolves both low- and high-polar compounds, and why partitioning and fraction handling are expected to work. Understanding methodology is what enables researchers to troubleshoot when outcomes fail, such as adjusting solvent polarity when a compound won’t separate. Without that “why,” studies can become inefficient or stuck, forcing random changes instead of targeted fixes.

How does the transcript define a research method, and what makes it different from a general idea of “doing research”?

A research method is a structured, step-by-step process designed to achieve a specific research objective. It’s not just a broad plan; it’s the operational sequence that moves from starting materials to the desired outcome. The alkaloid example illustrates this: collecting the plant sample, drying, crushing, soaking (often in methanol), partitioning into major portions, analyzing/testing fractions, and then applying separation techniques to isolate the target compound. The method is the “how” that must be followed in order to answer the research question.

What does research methodology add beyond the procedure itself?

Research methodology provides the reasoning and scientific logic behind each step in the method. It explains why steps are performed and why particular choices are made. For instance, crushing is done to increase extraction efficiency by converting the plant into smaller portions; methanol is used because it can dissolve both low-polar and high-polar components; and partitioning is used to separate mixtures into fractions that can later be analyzed and refined. Methodology is the “why” that supports confident execution and optimization.

Why is methanol highlighted in the transcript’s extraction example?

Methanol is emphasized because it has the ability to dissolve both low-polar and high-polar components in a single soaking step. That matters because it allows researchers to extract a wider range of compounds from the plant material before later separation steps. The methodology rationale is that this solvent choice supports efficient extraction and sets up subsequent fractionation and purification.

What should a researcher do when a compound fails to separate in a solvent system?

The transcript frames this as a methodology-driven troubleshooting problem. If a compound doesn’t move or separate under a given solvent system, researchers should adjust the solvent system—especially its polarity—to better match the compound’s polarity. As polarity alignment improves, the compound becomes more soluble in the solvent system and begins to move, enabling separation. The key is using scientific logic rather than random changes.

How does the pizza dough analogy reinforce the method vs. methodology distinction?

Pizza dough illustrates that steps and reasons are distinct. The method is the procedure: dissolve yeast in warm water, add salt and sugar in specific amounts, mix ingredients, and proof the dough in a warm environment for a set time. Methodology is the science behind why those ingredients and conditions matter: salt and sugar support fermentation, yeast activates in warm water, and warmth enhances the dough’s rise through improved fermentation.

Review Questions

  1. In the plant alkaloid example, which actions belong to the research method, and which explanations belong to research methodology?
  2. If a target compound does not separate under the current solvent system, what specific variable does the transcript suggest adjusting, and why?
  3. Why does the transcript argue that knowing only the procedure (method) is insufficient for achieving desired results?

Key Points

  1. 1

    A research method is the step-by-step procedure used to achieve a specific research objective.

  2. 2

    Research methodology focuses on the scientific reasoning behind each method step—why it works and why specific choices are made.

  3. 3

    In plant alkaloid extraction, method includes sample collection, drying, crushing, methanol soaking, partitioning, fraction testing, and purification steps.

  4. 4

    Methodology explains the logic behind choices like crushing for better extraction and methanol for dissolving both low- and high-polar components.

  5. 5

    When separation fails, methodology enables targeted troubleshooting, such as adjusting solvent polarity to improve solubility and movement of the target compound.

  6. 6

    The method-versus-methodology distinction also applies to everyday processes like baking, where steps must be paired with the science behind fermentation and ingredient roles.

Highlights

Research method is the “how” (the ordered procedure), while research methodology is the “why” (the science and logic behind each step).
Methanol is used in the extraction example because it can dissolve both low-polar and high-polar components, supporting efficient extraction before fractionation.
If a compound won’t separate, the fix should be guided by methodology—such as increasing solvent polarity to better match the compound.
The transcript treats troubleshooting as a scientific reasoning problem, not a trial-and-error guessing game.
Everyday analogies like pizza dough reinforce that steps and their underlying purposes must both be understood.

Topics

  • Research Method vs Methodology
  • Plant Alkaloid Extraction
  • Solvent Polarity
  • Scientific Reasoning
  • Research Troubleshooting

Mentioned