Passing a highly competitive university selection process is not just about getting accepted. It is more than that. It is a moment that shows all the hard work, discipline, and consistency finally pay off. For many students, including myself, it is also the moment when dreams start to feel real. Especially when acceptance comes from a top institution like Universitas Indonesia through a selective pathway such as Talent Scouting, it becomes truly meaningful. Being declared passed the selection for the Bioprocess Engineering program under the International Undergraduate Program is not just an achievement—it is a responsibility.
At first, it may look like just another academic milestone. But if we look deeper, it marks a transition. A transition from being a high school student who is still exploring interests, into someone who is preparing to become a professional. This is where the phrase “one step to pro” starts to make sense. It is not about becoming a professional instantly, but about taking the first real step toward that direction.
For me, choosing Bioprocess Engineering is not a random decision. It is closely related to a belief that I have held for a long time: science should not stay only in textbooks or laboratories. Science should be useful. It should improve human life. It should solve problems that people face every day. Chemistry is often seen as something difficult and abstract. But chemistry is everywhere—in the food we eat, the medicines we take, and even the environment we live in. That is why I see chemistry not just as a subject, but as a tool to create a better and more equitable world.
Bioprocess Engineering is one of the fields that can turn this belief into action. It combines chemical engineering with biology, allowing us to use living systems like microorganisms or enzymes to produce useful products. In the context of food chemistry engineering, this becomes even more relevant. We are not only talking about producing food, but also about making it more nutritious, more sustainable, and more accessible for everyone.
Today, the world is facing many serious challenges. Food insecurity is still a major issue in many parts of the world. Climate change is affecting agriculture and food production. Resources are becoming more limited. These problems cannot be solved using traditional methods alone. We need new approaches. We need innovation. And this is where bioprocess engineering plays an important role.
For example, alternative protein sources such as plant-based meat or lab-grown food are becoming more popular. These innovations are not just trends. They are responses to real problems, such as environmental damage caused by large-scale animal farming. Another example is fermentation technology, which has been used for centuries but is now being developed further using modern science. Through bioprocess engineering, traditional knowledge can be improved and scaled up to meet industrial needs.
Indonesia has great potential in this field. The country is rich in biodiversity and has a long tradition of food fermentation, such as tempeh. However, many of these resources are still underutilized. With the right approach, they can be developed into products that are not only competitive locally but also globally. This is one of the reasons why I am interested in food chemistry engineering. I believe that Indonesia has the potential to become a leader in this area, and I want to be part of that journey.
However, entering this field through a competitive selection process also comes with expectations. Being accepted means that we are expected to perform well, to keep learning, and to contribute. It is not the end of the journey—it is just the beginning. The real challenge starts after entering university.
The academic environment in Bioprocess Engineering is known to be rigorous. Students are required to understand various subjects, including mathematics, physics, chemistry, and biology. These subjects are not easy, and they require strong analytical skills. As students’ progress, they will learn more advanced topics such as thermodynamics, fluid mechanics, bioreactor design, and downstream processing. Each of these subjects plays an important role in understanding how to design and optimize industrial processes.
For example, in designing a bioreactor, we need to consider how microorganisms grow, how heat is transferred, and how substances move within the system. All of these factors are interconnected. If one part is not optimized, the entire process may fail. This shows that being a bioprocess engineer is not just about understanding theory, but also about solving complex, real-world problems.
But technical knowledge alone is not enough. To truly explore the intersection of science and society, we need more than that. We need critical thinking. We need to question things. Why do certain problems exist? Who is affected by them? How can we create solutions that are fair and inclusive? These questions are important because science does not exist in isolation. It is always connected to people.
This is why a solution-oriented perspective is important. It is not enough to identify problems—we must also find ways to solve them. And these solutions must be practical, sustainable, and beneficial for society. For example, developing a new food product is not just about making it efficient to produce. It must also be safe, affordable, and accepted by consumers.
At the same time, we also need to be aware of the ethical aspects of science. Not all innovations are automatically good. Some may have unintended consequences. For example, certain technologies may harm the environment or create inequality if they are not managed properly. Therefore, as future engineers, we must always consider the broader impact of our work.
Another important aspect is personal development. Entering a competitive program can be challenging. There will be pressure to perform well academically. There may also be moments of doubt and uncertainty. It is normal to feel overwhelmed. However, these challenges are part of the learning process. They help us grow stronger and more resilient.
Financial challenges can also be a concern, especially for students in international programs. Education is an investment, but it also requires careful planning. Scholarships and financial aid can help, but they often require strong academic performance and active participation in various activities. This means that students must be proactive and disciplined.
Despite these challenges, the opportunities are also significant. Students in Bioprocess Engineering can explore various career paths. They can work in the food and beverage industry, pharmaceutical companies, research institutions, or environmental organizations. They can become engineers, researchers, or even entrepreneurs. The skills they learn are versatile and can be applied in many fields.
More importantly, this field allows us to make a real impact. Improving food systems, reducing waste, and creating sustainable products are not just technical achievements—they are contributions to society. This is what makes the journey meaningful.
In the end, passing a highly competitive selection at Universitas Indonesia is something to be proud of. It shows that we are capable. But it also reminds us that we have a responsibility. We could learn, grow, and contribute. The question is how we use that opportunity.
“One step to pro” is not just a phrase. It is a mindset. It reminds us that becoming a professional is a process. It takes time, effort, and dedication. But every step matters. Every lesson learned, every challenge faced, and every problem solved brings us closer to that goal.
Exploring the intersection of science and society is not easy. It requires us to think beyond ourselves. It requires us to care about others. But it is also what makes science meaningful. Without society, science loses its purpose. And without science, society may struggle to progress.
Therefore, as I begin this journey in Bioprocess Engineering, I carry not only knowledge and ambition but also a sense of responsibility. A responsibility to use science for good. A responsibility to contribute to a better future. And a responsibility to ensure that the solutions we create are not only innovative, but also inclusive and sustainable.
Because in the end, becoming a professional is not just about success—it is about impact.
