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In today’s world, education in STEM subjects (science, technology, engineering, and maths) is more critical than ever. These disciplines both drive innovation and form much of the backbone of our modern society, from technical integration into our everyday life to our quality of healthcare and living, and beyond.

STEM education is an approach to learning that aims to equip students with practical skills, and focuses on preparing people for future careers by encouraging them to apply their knowledge in solving real-world challenges.

A good grounding in STEM is preparation for those who want to pursue careers in medicine, academia, scientific research, chemistry, or engineering.

Key Takeaways

  • STEM education combines science, technology, engineering, and mathematics to equip students with practical skills and prepare them for their career

  • STEM subjects are essential for industries like medicine, engineering, scientific research, and technology, forming the backbone of modern society

  • STEM in schools provides a strong intellectual foundation, enhances learning through hands-on experiences, and fosters problem-solving skills applicable to all areas of life

  • STEM careers are crucial to society, with industries such as energy, transportation, and communication relying on skilled professionals

  • Examples of STEM careers include mechanical engineer, nuclear scientist, chemical engineer, environmental scientist, and data analyst, all of which require specialised knowledge and analytical skills

  • STEM skills in everyday life help individuals make informed decisions, improve problem-solving abilities, and adapt to an increasingly technology-driven world

What Does STEM Stand For?

STEM is an acronym for science, technology, engineering, and mathematics. It refers to the strand within the academic track that focuses on these disciplines, which are there to educate and train future scientists or engineers. 

STEM education is a highly competitive sphere, with many students aspiring to join the ranks of these courses and careers. However, due to this only a few talented students are admitted every year, and these types of skills are increasingly highly sought-after with a skills shortage perpetuating many industries.

Tests are usually required to determine the aptitude of students who want to pursue STEM-related courses. Additionally, a minimum grade standard must typically be met and maintained in order to stay on the education programme.

STEM with young man holding his hands

Why Is STEM Important In Schools?

  1. Backbone of civilisation

Science, technology, engineering, and mathematics are the foundations of our technological society. Industries and the economy in general are dependent on these complex and multi-layered systems that are ultimately taught in STEM subjects.

Without the technical knowledge and skills in various industries, civilisation as we know it wouldn’t be able to function properly. Power generation, transportation, communication, and food production are now all dependent on advanced technology, as well as large-scale productions and operations. STEM education ensures that these pillars of progress are taught to the masses.

  1. Solid intellectual foundation

STEM subjects are important in schools because they serve as the fertile ground from which future technical workers and industry leaders will be nurtured. STEM subjects provide the intellectual foundations and tools for future scientists, inventors, and engineers.

Although specialisation in the STEM strand is commonly offered in secondary schools, these subjects are taught early on. Some schools even specialise in STEM subjects that are intended for children as early on in their education as nursery.

  1. Better learning experience

The STEM approach is more hands-on and can be a fun way of learning – and hands-on learning means that children are more likely to remember what they’ve learned. At its core, this practical approach to learning helps pupils retain more information and understand concepts better.

For example, the basic concepts of classical mechanics, such as mechanical advantage and forces, can easily be understood using toys, allowing children to learn while having fun. For secondary school students, this hands-on approach in STEM, such as programming and experimenting, can cement key scientific concepts through practical application.

  1. Problem-solving skills

Even if students grow up to pursue careers that aren’t even remotely related to science, the STEM curriculum significantly helps them in becoming analytically minded. This scientific mindset goes a long way in helping them solve many types of problems, not only in the workplace, but in life in general. 

For instance, skills in algebra may help a businessperson figure out the optimal way their company can earn profits under certain parameters. Meanwhile, daily tasks like cooking can be executed more efficiently with basic maths skills or problem-solving capabilities. 

Stem education. Physical experiments at school, kids constructing atom model on lab workplace
STEM education creates a better learning experience by giving students a hands-on experience

What Are STEM Careers?

STEM careers are the backbone of our technological society. In order to function, society is hinged on industries that interweave and rely on each other. These all involve technical knowledge and skills that can be achieved through STEM education, and they include, but are not limited to, the following sectors:

  • Energy generation
  • Energy distribution
  • Mining and cultivation of raw materials
  • Transportation (by land, sea, and air)
  • Communication
  • Production
  • Information and logistics

Technologies developed in these sectors are all dependent on other industry technologies to function. Any significant interruption in one or more of these sectors can have a wide-reaching impact on society as a whole, from loss of supplies of food and water to far-reaching economic consequences. 

Some examples of STEM careers include:

H4: Mechanical Engineer

Mechanical engineers design, develop, and test various kinds of mechanical devices and systems. Their work spans various industries, including but not limited to aerospace, automotive, and manufacturing, and often make use of engineering chemicals and other materials. They might work on developing more efficient engines, designing innovative household appliances, or creating advanced robotics. 

A strong grasp of physics and mathematics is essential in this field, as is the ability to think creatively to solve complex problems.

Nuclear Scientist

Nuclear scientists study atomic particles and develop methods to harness nuclear energy. Their research can lead to advancements in energy production, medical treatments, and understanding fundamental aspects of matter. They often work in research laboratories, healthcare facilities, or energy plants. 

This career requires a deep understanding of physics and chemistry, as well as meticulous attention to safety protocols.

Chemical Engineer

Chemical engineers are multi-faceted, and apply principles from across scientific fields to develop products and processes that help improve our quality of life. They might work on creating sustainable materials, developing pharmaceuticals, or improving food processing techniques.  Through this, they learn to use various ways to test the world around them, such as through diagnostic reagents and other tools.

This career path can involve designing new equipment, creating and managing production processes, and ensuring safety and environmental regulations are complied with through chemical testing and other procedures. Strong analytical skills and a solid foundation in chemical principles are crucial for success in this field.

Environmental Scientist

Environmental scientists study the environment and create solutions to environmental challenges. As one of the less known careers you can pursue with a chemistry degree, their work has never been more important than now. 

They might conduct research on pollution control, natural resource management, or how to mitigate climate change. Their work often involves collecting and analysing data, developing environmental policies, and working with organisations to implement sustainable practices. 

A passion for the natural world and strong research skills are key attributes for this career.

Data Analyst

Data analysts’ work involves gathering, processing, and analysing large amounts of data. They help organisations make informed decisions by identifying trends, patterns, and insights. 

Data analysts are employed across various sectors, including finance, healthcare, and marketing. Proficiency in mathematics, statistics, and data visualisation tools is essential, as is the ability to communicate findings effectively to non-technical audiences.

A graphic showing a hand below an overlay of hexagons, each highlighting a different element of STEM education

Why Are STEM Skills Important In Life?

STEM skills extend beyond specific careers; they are invaluable in everyday life. Analytical thinking, problem-solving, and the ability to interpret data are all cultivated through STEM education and are applicable to a wide range of situations.

For instance, making informed decisions about personal finances, understanding health information, or evaluating news reports all benefit from a STEM-oriented mindset. Some of the nuanced STEM skills, like data analysis, are equally as important, and play a key role in decision-making and problem-solving. 

On top of that, as technology continues to advance, a basic understanding of STEM concepts becomes increasingly important, helping keep the world open and accessible across the board. 

Whether it’s political, financial, or relational problems, good analytical skills give people the ability to adapt and overcome, leading to a better future.

Conclusion

STEM education is more than a pathway to a specialised career; it’s a foundation for understanding and engaging with the world. By encouraging analytical thinking and problem-solving skills, STEM subjects prepare individuals to navigate the complexities of modern life and contribute meaningfully to society. 

Embracing STEM learning opens doors to numerous opportunities and equips us to tackle the challenges of the future.

About the author

Jessica Clifton

Director

Jessica is a Director at ReAgent and leads a variety of growth projects. She has an extensive background in marketing, and has worked in the chemical manufacturing industry since 2019. When she’s not writing articles for ReAgent, Jessica can be found on a run, in her campervan, building LEGO, or watching Star Wars.

Disclaimer

All content published on the ReAgent.co.uk blog is for information only. The blog, its authors, and affiliates cannot be held responsible for any accident, injury or damage caused in part or directly from using the information provided. Additionally, we do not recommend using any chemical without reading the Material Safety Data Sheet (MSDS), which can be obtained from the manufacturer. You should also follow any safety advice and precautions listed on the product label. If you have health and safety related questions, visit HSE.gov.uk.