Engineering is one of the most diversified fields with several sub-branches that cater to different disciplines. Nuclear engineering is one such branch that is a highly technical course that necessitates a solid foundation of technical abilities as well as an in-depth understanding of nuclear applications. These experts may work in the healthcare sector, power plants, and industrial settings. Let’s learn about ‘How Hard Is Nuclear Engineering?’.
What is a nuclear engineer?
An engineer that specializes in harnessing nuclear energy is called a nuclear engineer and is in charge of developing the procedures, operations, systems, and machinery that are employed in doing so. Nuclear engineers are highly skilled technically and have a thorough understanding of nuclear physics, chemistry, and radioactive materials, tools, and their applications. Nuclear engineering demands a specialized set of abilities and knowledge due to its highly technical characteristics and the volatile materials these engineers work with.
What exactly do nuclear engineers perform?
-Designing and creating nuclear equipment and instruments, such as reactor cores, radiation shields, and the parts required to make these instruments work.
-Directing the operation and upkeep of active nuclear equipment in hospitals and nuclear power plants to make ensuring that these devices abide by safety regulations.
-Creating operating guidelines that detail nuclear plant processes, particularly those for processing and getting rid of radioactive and nuclear waste.
How hard is nuclear engineering?
Two perspectives emerge from a careful evaluation of how challenging this field is. The first is from the perspective of a student obtaining a degree, and the second is from a working nuclear engineer.
Depending on the viewpoint, an engineering major can be challenging. A degree in nuclear engineering is likely to be difficult but possible for those who have a knack for learning about physics and mathematics, and it might even be entertaining. A major in nuclear engineering may be intimidating and demanding for students whose areas of strength are in another subject not based on science and mathematics. The difficulties in this field begin only in high school when you choose the courses in biology, chemistry, physics, geometry, algebra II, pre-calculus, calculus, English, computer science, statistics, and physiology that are necessary to pursue nuclear engineering. Many people consider these subjects challenging. You can follow your aspirations if these topics are not a major headache for you. After completing high school, it is time to enroll in a college course in nuclear engineering, which is again a tedious task as you must pass standardized exams. Standardized tests are used as a benchmark by administrators to evaluate students’ performance. So, it is advisable that you must start preparing for it in your junior year of high school. The results of the ACT or SAT are crucial in determining if a candidate for nuclear engineering is qualified. Aside from this, your high school transcript, which lists your grades, coursework, and GPA, is often the first document a college admissions officer looks over. So, focus on your high school coursework to build the strong foundation that you’ll need to major in nuclear engineering.
Students majoring in nuclear engineering complete a variety of coursework covering nuclear science, energy, and technology. Related subjects covered in their training include magnetism, electricity, radiography, thermodynamics, and fluid mechanics. They also need to master the principles of radiation and nuclear energy safety, as well as have a thorough understanding of physics, chemistry, and engineering mathematics. But it is possible to understand the fundamentals and physics of nuclear engineering if you are motivated and dedicated. However, some people can find complex computations and analyses tedious. Being highly conceptual, nuclear engineering is challenging to master because it requires more computations and theoretical effort. Because nuclear equipment is not widely available, few engineers get to witness how their work is applied in the real world.
For this area of engineering, the BLS reports a slower-than-average growth rate of only 4%. One has to face competition for open positions due to the fall in the number of nuclear engineers employed. So, to compete for the finest jobs in the business, nuclear engineering graduates will need more than simply a degree. Participating in cooperative engineering education programs benefits many nuclear engineers by providing them with useful training.
To succeed in nuclear engineering, one needs to possess the following skills-
- Abilities in analysis- To use nuclear energy and materials safely, nuclear engineers must assess technical data.
- Computer literacy
- attention to detail
- communication skills
- Mathematical abilities- nuclear engineering uses mathematics specifically in computer coding, instrumentation and control (I&C), heat transfer, and fluid flow.
- aptitude for solving issues
Challenges at Work: How Hard Is Nuclear Engineering?
Generally speaking, the discipline of nuclear engineering is both technically difficult and unstable politically. Those who spend their days in power plants may experience the most stress because they are in charge of preventing serious radioactive accidents. Those who actively interact with nuclear energy run the risk of being contaminated by radiation. Because they have to take such great care to ensure the health and safety of the general public, engineers who handle the disposal of hazardous materials also work under stressful circumstances. Hazardous substances may be exposed to nuclear engineers.
It is a stressful job as working in a power plant puts you in close proximity to and in contact with highly reactive material, it requires special training. The majority of nuclear engineers work full time, with occasional overtime. Working irregularly long hours is sometimes required by nuclear engineers, especially in times of emergency.
Engineers can work in research labs, educational settings, and commercial production facilities through the research, teaching, and design industries. A majority of engineers who aren’t directly involved in the upkeep of nuclear facilities’ physical infrastructure spend their working hours—on average, 46 hours per week—doing research. Most of them sit at workstations and need to be able to focus on extremely specific information for extended periods to create plans and models for nuclear applications.
The focus of nuclear engineering is on finding ways to use nuclear energy and radiation for beneficial purposes by using mathematical and scientific principles. The work itself is not easy, nor are the studies required to obtain a degree in the field. Even though the majority of nuclear engineers begin their careers with a bachelor’s degree, some entry-level positions in this field of engineering may call for an advanced degree. Although nuclear engineering students must complete a demanding and sophisticated curriculum, the six-figure median wage and the chance to impact industries like medical or energy production make the difficult degree path worthwhile.