It’s safe to say the scientific method is one of the main pillars of science, which helps researchers understand our complex world. In simple terms, the scientific method structures the process of discovering new things, including the most groundbreaking scientific findings. Sure, structured and organized science probably shatters your image of the nutty professor’s spontaneous “eureka’ moment. But here’s the sad truth about science: it’s not like in the movies.
Nevertheless, I’d argue a more structural approach makes science more interesting, solid, and reliable. But not only that, I’ll go out on a limb and argue that you can use the scientific method to improve your daily and professional life. After all, the approach doesn’t belong exclusively to science; the scientific method merely offers a common, logical way of observing and understanding your surroundings and world.
Before you learn how to apply the scientific method in your life, let’s look at how we can structure the scientific method. It’s rather simple.
Standard steps of the scientific method
I was tempted to title the section “The steps of the scientific method” but eventually decided to make it less since it’s not a fixed protocol. In other words, the specifics of the scientific method may change somewhat between descriptions but with a similar overall idea.
You can divide the scientific method into five steps:
- Observe something and ask a question
- Research and collect information
- Formulate a hypothesis
- Test the hypothesis
- Present your findings, discuss, and refine
Step 1: Observe something and ask a question
It all starts with an observation and a question. Let’s say you want to charge your phone (yes, buckle up because I’m going 21st-century, high-tech millennial). You realize the little battery icon on your screen stays the same. Frustrating, sure, but see the issue as an opportunity to test your newly gained scientific-method skills in real life. So, start by asking a question:
Why is my phone not charging?
Congratulations! You’ve just passed the scientific method’s first step: observing something and asking a question. However, you’re still a white belt.
Step 2: Research and collect information
In the next step, you gather as much information on your observation as possible. You want to research what’s already known, for example, if other people have answered your questions already.
You might want to check articles or forums for your particular phone model to find out if someone with your phone model has experienced the same issue.
Step 3: Create a hypothesis
Once you’ve studied the topic, you’ll formulate a hypothesis, an educated guess that can answer your question. Although guesswork might seem odd after all the research and study, you (the researcher) are now ready to try to explain the observation. This step constitutes the essence of the scientific method because it will keep you on track and guide you closer to the true answer.
You can use the good ol’ “if, then” statement:
If__________(fill the gap) then__________(fill the gap).
Or other formats, for example: “The phone charger is broken and cannot transfer electric current into the phone.”
And don’t worry, the hypothesis doesn’t have to be true; both positive and negative results can offer exciting outcomes. However, the hypothesis should be testable. Otherwise, what’s the whole point of going through the previous steps? So, a flawed hypothesis is a prediction you cannot test. For example: “The phone has a personality disorder and only charges when it’s in the mood of charging.”
Go ahead, and try to mentally test this hypothesis for a while before continuing to the next paragraph I’ll #checkmywatchnonchalantly).
Still, let’s stick to the following hypothesis: “The phone charger is broken and cannot transfer electric current into the phone.”
Step 4: Create a prediction and test
You’ve now reached most researchers’ favorite step: to test your hypothesis. And boy, can you be creative here. Your experimental approaches are almost indefinite, and your choice will depend on your question (and resources). The world is your oyster.
First, you want to create a prediction that you can test. “If I change the charger, the phone will start charging.”
Next, you’ll test your prediction with an experiment. All good experiments should bring you closer to answering the question, “is my hypothesis correct?” and, in this quest, you want to compare different conditions. You’ll study at least one so-called experimental condition where you change something you want to test and one or more control conditions that remain the same. The results from the control sample shouldn’t vary too much; they ensure the outcomes from the experimental sample depend on whatever condition you’re changing (the variable).
Now back to the phone: To test whether the charger causes the issue, you might want to find another new charger that matches your phone model (the experimental condition). You then want to compare the new charger with your old charger (the control condition) to evaluate whether a different charger from your old one can change the battery icon and charge the phone.
Now, you test whether your experiment supports your hypothesis based on your prediction above. Two outcomes will be apparent after the test: the prediction is either correct or wrong:
The experiment outcome supports your hypothesis if the new charger charges the phone battery.
The experiment outcome doesn’t support your hypothesis if the new charger doesn’t charge the phone battery.
Note the word “support” here. None of the two outcomes will conclusively prove your hypothesis. Why? Because even if the experiment supports the hypothesis, other factors may have affected the outcome. You may have used different outlets in the two conditions, connected the chargers to different cords, or tested the old charger in an environment that disrupts charging (I don’t know; probably not).
Similarly, if the experiment doesn’t support the hypothesis, your hypothesis is probably incorrect but can also indicate experimental mistakes. In other words, your results only tell you the probability of your hypothesis being right or wrong.
If the new charger alters the battery icon to “charging”, you can breathe the first sigh of relief; it’s the first indication your prediction and hypothesis are correct. However, the icon indication alone does not confirm anything since it’s just that, an indication, not the actual outcome. Before celebrating, you may want to ensure the battery bar gets filled and that the phone works after some charging.
While this last confirmation may seem overly meticulous, it’s worth noting that most precise and demanding tests give you the most accurate results.
Step 5: Present your findings and refine
You’ve analyzed your results and established if the hypothesis is likely correct or incorrect. Now, you’ll have time to assess your new findings and reflect on the results with others and yourself. It’s time to think about the next steps and refine your results.
- If the phone started charging with the new charger, you might want to find out why the other charger is not working, why the new charger is so much better, or if the chargers work the same on other phones.
- If the phone didn’t charge, you may want to know if you tested the conditions correctly or if a navel lint could be stuck in the charging port, blocking the charger.
“Wait, it’s a cycle?” Correct, the scientific method never ends; it keeps pushing your questions and answers closer to the truth. Observe, test, reflect, repeat.
Of course, you’ll find that you may want to go back to a specific step before you reach Step 5. After testing the hypothesis, you might find that your experiment isn’t working and that the new charger is 10 years old and dusty. You might want to take a step back and refine your experiment, testing a brand-new charger to extract reliable data. Or, perhaps you realize you need to specify the hypothesis further.
Friends, if the point was unclear, the key here is to refine it before repeating it. Don’t repeat the same experiment (unaltered); it will lead you nowhere (you’re not a squirrel and the cycle is not an exercise wheel).
The scientific method in your daily life
Today, I use the scientific method all the time for everyday tasks, and I don’t even realize I do; it has become ingrained in my way of thinking, and I love it! I think you should embrace it too. The scientific method will make you a better problem solver and help you with different issues or dilemmas in life, including work. It will make you a better person.
You don’t need to complicate things. Instead, start with the mundane stuff and structure your thinking around the scientific method to approach the truth. I leave you with some everyday-life examples highlighting how you can use the strategy seamlessly and without much equipment.
- Observation and question: My website has fewer visitors than expected. How can I improve my monthly page views on my website and, ultimately, sell more products?
- Research: How many visitors do I have today? What’s normal for a website similar to mine? Have other people had the same issue? What did they do to overcome these?
- Hypothesis: I need more images and videos on my web pages to attract more people.
- Experiment: I duplicate one of my pages, add more images and videos to the duplicate, and perform a split test. I then compare the number of visitors on both pages.
- Reflect, discuss, and refine: Did the results support my hypothesis? Are the differences significant? Can I improve them more? Does it make sense to improve further? If so, how?
In the gym
- Observation and question: I’m not gaining muscle even though I go to the gym three times per week. Why am I not making gainzzz?
- Research: How much muscle weight have I gained during 3 months? What’s the minimal amount of training I need to make gains? What training programs are available?
- Hypothesis: If I change the program to TripleXL3000™, gains will come faster.
- Experiment: Try TripleXL3000™ and track the weight for 3 months. Compare the weight changes between TripleXL3000™ and my old program.
- Reflect, discuss, and refine: Were the muscle gains with TripleXL3000™ significant? Is the program sustainable? Can I improve? Should I test the programs on other people and compare them?
- Observation and question: My food tastes like nothing. Why does my food taste like crap?
- Research: What ingredients do chefs use to give taste to foods? Which of those do I not use? What do other people think about my food?
- Hypothesis: If I add salt, then my food will taste more.
- Experiment and data collection: Make two identical dishes but add some salt to one of them (experimental sample) and none to the other one (control sample). Invite some of my friends over and make them taste both – without letting them know the difference between the dishes. Collect their reviews and ratings.
- Reflect, discuss, and refine: Which one was the best? If the salted food was, did people still enjoy the dish? How much better was the experimental dish compared with the control dish.
Now it’s your turn. Start playing with the scientific method in your everyday life, whether socializing, learning new stuff, or working. The approach will help you solve many problems systematically and accurately. At first, you might need to think about the different steps actively, but eventually, the thought process becomes second nature; you’ll own the scientific method.