The definition of drawing a conclusion
An experimenter aims to test a hypothesis (which is a statement about what the experimenter expects will happen in the experiment) and possibly answer some larger, important question. At the end of each experiment, an experimenter makes a statement that summarizes what they have learnt from the conducted observation. This is called a conclusion, and we can define the drawing of a conclusion as follows.
We can define the drawing of a conclusion as stating the insight gained from experimenting.
All that is learned during an investigation can be summarised in a concluding statement, called the conclusion. In simple terms, the conclusion of any research should be based purely on the findings of that research. It is supported by facts and proof from the research conducted.
The steps involved in drawing conclusions
In conducting scientific research, an experimenter will follow the scientific method described in the steps below. The experimenter will:
- ask a question and formulate a hypothesis,
- conduct an experiment or investigation,
- collect, represent and analyse information,
- interpret the results,
- and draw a conclusion.
The steps above outline the scientific method very briefly. As scientists, we must first formulate a hypothesis or a research question. This will determine the path that our research journey will take. Next, we will conduct an experiment or investigation to test our hypothesis. The results from our investigation will be collected, analysed and interpreted. We should have gained enough information to answer our research question, and the final step in conducting research is then to draw a conclusion. We'll discuss the scientific method in more detail in the next section. The figure below shows a simple representation of the steps involved in conducting research and arriving at a conclusion.
Fig. 1: This figure loosely outlines the scientific method. These are all of the steps involved in conducting scientific research. A hypothesis is tested by observations and a conclusion is finally achieved based on the results of those observations.
Using the scientific method to draw a conclusion
The steps above, from creating a hypothesis to drawing a conclusion, form the scientific method, as we've just mentioned. There are other steps in the scientific method that we have omitted for brevity (e.g. communicating findings), but for now, we'll deal with the experiment and its immediate outcomes. The figure below shows how this process can be repeated to continuously refute science with better science.
Fig. 2: This image shows a flow diagram highlighting the important steps of the scientific method.
Ideally, the conclusion of an investigation should prove or disprove the hypothesis and answer the research question. This is not always the case, as the scientific inferences may leave the scientist no nearer to the answer they require.
An example of drawing a conclusion
The example below outlines the steps involved in the scientific method and eventually reaches the final step, which is the focus of this article; drawing a conclusion.
Assume Mark and Joseph create a hypothesis regarding the January temperatures in their neighbourhood. They have followed the steps mentioned above to come to a conclusion.
Step 1: Formulating the hypothesis
Hypothesis 1: January days are hottest before 14:00, according to Mark.
Hypothesis 2: The warmest time of January days is after four o'clock in the afternoon, according to Joseph.
After setting their hypotheses, they want to perform an experiment and gather data to validate them.
Step 2: Performing an experiment
They decide to use a digital thermometer to measure the temperature outside at specific times during each day for January.
Step 3: Collecting and representing the data
The temperature data is collected for January and then averaged, as indicated in the diagram below.
Fig. 3: This bar graph shows the average temperatures by time for January.
Step 4: Interpretation of results
By simply looking at the data that is visualized by the vertical bar graph above, one can notice that the temperature increases from 08:00 until 12:00, at which point it reaches a maximum and decreases thereafter.
Step 5: Drawing conclusions
Joseph can tell from the graph that the investigation's findings contradict his ideas. Based on the data recorded and the observations, the hottest temperature occurs before 14:00, and not after 4 o'clock in the afternoon.
The findings corroborate Mark's premise and he can derive the following conclusion that validates his initial hypothesis.
Conclusion: Winter days are the hottest before 14:00.
The example above highlights the importance of representing data. Data that is well-collected and well-represented can make analysis and inference much easier. In turn, this can make it easier to draw conclusions.
Even if you put major efforts into preparing data, analyzing results, and performing observations, the conclusion is crucial in deciding whether the project will succeed or fail.
On one hand, the results will not be taken seriously if an otherwise good experiment is summarized by a poor conclusion. On the other hand, even if the set-up and the data gathered are valid, but the conclusion drawn is not correct, the experiment will not be valid.
Keep in mind that whether a theory is accepted or disproven is not a measure of success or failure, because both outcomes contribute to scientific knowledge.
The differences between inferences and drawing conclusions
It may seem as if the words are interchangeable but there are differences between inferences and conclusions.
An inference is a fact that is assumed based on the information that is provided.
Simply, an inference is an assumed fact based on other facts. Here's an example that will make this idea clearer.
Imagine that you observe someone slamming a door. You might infer that this person is angry. That is, you used the fact that the door was slammed to assume the fact that this person is angry.
Inferences are important because scientists can often pose and answer questions about things that are not immediately apparent. Next, we can define a conclusion.
A conclusion refers to an explanation or interpretation of an observation. It is the next step in the information process and comes after critical thought and logical reasoning.
Let us revisit the previous example to illustrate the difference between inference and conclusion.
Imagine that you observe someone slamming a door. You might infer that this person is angry. This cannot be your conclusion, however, since critically you would know that more information is required. A conclusion could be that this person is strong enough to slam a door.
We can see that there is a clear difference between making an inference and drawing a conclusion. A good scientific example would be the one below.
Dinosaurs have been extinct for millions of years, so simply observing them is not a possible way of determining their diet. What we can do is study fossils of dinosaur droppings and determine the type of food they ate. The following events would occur in the given order.
Observation: Studies of some dinosaur droppings show signs of crushed bones.
Inference: These dinosaurs preyed on herbivores that were smaller than themselves. This is a pretty safe assumption to make but we don't know this for certain.
Conclusion: These dinosaurs ate animals. However, they could have been predators, scavengers, or maybe even cannibals.
Drawing Conclusions - Key takeaways
References
- Fig. 1- Four stage scientific method (https://commonswikimedia.org/wiki/File:4_stage_Scientific_Method.jpg) by Brightyellowjeans is licensed by CC BY-SA 4.0 (https://creativecommons.org/licenses/by-sa/4.0/deed.en).
- Fig. 2- The Scientific Method (https://commons.wikimedia.org/wiki/File:The_Scientific_Method.svg) by Efbrazil is licensed by CC BY-SA 4.0 (https://creativecommons.org/licenses/by-sa/4.0/deed.en).
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