8 Ways to Encourage More Children and Young Adults to Study STEM

Content:

• Develop a growth mindset in students and teachers
• Focus on those who are struggling, not just those who are talented
• Conduct career counseling
• Create a welcoming atmosphere and use active learning
• Show how what is being studied relates to the real world
• Develop informal experiences with STEM
• Provide role models for successful self-realization in STEM
• Give bonuses for learning mathematics

Developing a Growth Mindset in Students and Teachers

Mathematics and science subjects are often perceived by schoolchildren and students as complex disciplines that require special abilities. If a student at school feels they are not capable of mathematics—especially among girls—this can lead to further difficulties in STEM subjects. This perception can lead to a self-fulfilling prophecy, where self-doubt hinders academic success. It is important to change attitudes toward these subjects and understand that with the right approach and support, every student is capable of mastering mathematics and science. Instruction should be accessible and understandable, fostering self-confidence and an interest in science. A student may think, "Math isn't for me," which leads to a lack of motivation and insufficient effort in their studies. As a result, they receive low grades, which confirms their perception of inability. However, it is important to understand that success in mathematics depends on persistence and regular practice. If a student changes their attitude toward a subject and begins to put in the effort, they can significantly improve their results and develop essential skills. Psychologist Carol Dweck describes the vicious cycle that arises from a fixed mindset, whereby a fixed mindset impacts personal development. If a person doesn't believe that their efforts can lead to the development of knowledge and skills, they will not take any action to achieve them. This mentality hinders growth and self-improvement, limiting an individual's potential. Understanding this connection between thinking and behavior can be key to overcoming barriers to learning and development. Research shows that developing a growth mindset in children and adolescents can significantly improve success in STEM subjects. Educators can explain to students that effort, as well as natural ability, is important for success in these subjects. Experiments confirm the effectiveness of this approach, but for its successful implementation, teachers must be convinced of its importance and allocate time for its integration into the educational process.

Another way to overcome impostor syndrome, which many students experience, is to record and celebrate their achievements. This helps boost self-confidence and promotes personal growth. Regularly assessing one's own successes helps students realize that they deserve their success and are capable of achieving their goals.

In their review of scientific studies on attracting girls and young women to STEM, Russian researchers emphasize that a variety of methods can be used to develop a growth mindset. For example, students should be offered lectures, articles, and videos dedicated to the characteristics of brain development, its plasticity, and the possibility of developing abilities throughout life. A key element of such initiatives are reflection assignments, in which students can analyze their previous academic difficulties in an essay or other format and recall how they overcame them. This will allow them to reframe their own experiences within the context of growth mindset theory, which can boost their confidence and motivation to study STEM subjects.

Research shows that developing a growth mindset is more beneficial for girls than for boys. There are many limiting beliefs in STEM that suggest girls lack the necessary abilities to study engineering and science. Recognizing that these stereotypes are false allows girls to increase their confidence and develop their talents in these fields. This underscores the importance of support and inspiration for girls striving for success in STEM.

To overcome low self-efficacy in individual subjects, it is important to emphasize the connections between different fields of knowledge. It is important to explain to students that successful people in one discipline often achieve high results in others. This approach helps break down stereotypes associated with perceiving oneself as a humanities or technical person and helps students develop confidence in their abilities.

It's important to consider not only the students' mindsets, but also the teachers' attitudes. The right mentality—one that views students without bias and has a growth mindset—plays a key role in the educational process. If a teacher believes that special abilities are required to succeed in their subject, this can negatively impact students' perceptions. For example, if students score poorly on a test, a teacher might "reassure" them by telling them that mathematics isn't for everyone. This approach can lead to students doubting their abilities and losing motivation. Therefore, it's important for teachers to support students' confidence and foster their potential.

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Students value a teacher's growth mindset more than their friendliness. A growth mindset allows teachers to adapt to change, develop their professional skills, and motivate students to learn. It's important for teachers to inspire students to overcome challenges and strive for self-improvement, which ultimately impacts the quality of education and student success.

A growth mindset is based on the belief that with enough effort, any skill and knowledge can be mastered. A key aspect of this approach is the recognition that the path to new skills is often fraught with difficulties. If something doesn't work on the first try, don't despair. Research shows that many students face similar challenges, and this is completely normal. Teachers are advised to remind students of this fact, which helps reduce stress and increase motivation. It's also worth encouraging interaction between students, for example, through project work. Discussing course material in online chats has been shown to improve academic performance, especially among girls. Creating a supportive learning environment where students can share experiences and help each other significantly increases learning effectiveness.

It's important to reduce barriers to knowledge, particularly by introducing the option to retake exams. Research confirms that this practice has a positive impact on interest in STEM courses at universities. When students know they can retake a course if they fail, they are more willing to choose these subjects because they become less susceptible to the fear of failure. This increases the number of students in STEM courses and improves the overall level of educational engagement.

Focusing not only on the talented, but also on those who struggle

It is necessary to more actively introduce students to STEM disciplines to make this field more accessible and understandable. Research from the United States shows that children who receive early exposure to various math and science programs are significantly more likely to choose STEM fields for their subsequent studies in universities. This highlights the importance of introducing STEM education at an early stage, which not only fosters interest in science and technology but also prepares future professionals in these critical fields.

One school district, in collaboration with a university, implemented a long-term project aimed at attracting students of color to STEM fields. Statistics show that members of these ethnic groups are less likely to choose STEM careers compared to their white peers. The project covered children from the end of third grade through high school and included a variety of extracurricular activities in mathematics, as well as tutoring provided by university students. From 2000 to 2013, 14 cohorts participated in the project. Results showed significant improvements in participants' performance in mathematics and reading. An increase in the number of students enrolling in advanced mathematics courses in high school was also noted, with 76% of project participants choosing advanced mathematics courses, compared to 50% of their peers from the same ethnic groups. While there is no data on the project's impact on STEM career choices, an increase in enrollment in more prestigious colleges has been observed. This approach can serve as an example of effective strategies for supporting diversity in STEM education.

Inclusive STEM schools are becoming increasingly popular in the United States and other countries. These schools don't focus on selecting students with existing achievements in mathematics and physics. Instead, they admit students who demonstrate an interest in these subjects, prioritizing those who face academic challenges. This is especially true for students from ethnic minorities, low-income families, and girls. Research shows that graduates of inclusive STEM schools are more likely to pursue STEM majors in college, confirming the effectiveness of this approach to education. Inclusive STEM schools not only promote diversity but also create equal opportunities for all children, regardless of their social or economic background. Significantly restricting subject choices in high school, forcing all students to study mathematics extensively, can have questionable results. For example, similar measures have been taken to attract more girls to study mathematics. However, after completing such a school, statistics showed that girls were no more likely to choose engineering and natural science majors to continue their education. This suggests that forced education does not always lead to the desired results and does not guarantee interest in STEM disciplines.

Conduct career counseling

Career counseling is effective in attracting girls to STEM professions. There are many practices aimed at this. In countries such as Switzerland, the USA, Australia, and Canada, special career days are held for girls and boys. During these events, participants are shown professions in fields traditionally considered atypical for their gender. For boys, the emphasis is on pedagogy and caregiving, including working with the elderly and people with disabilities. For girls, the main focus is STEM. Such initiatives help change stereotypes and expand the horizons of career opportunities for young people.

Counseling students' parents also plays an important role in choosing a future profession. In one study, parents of adolescents were given brochures containing information about various STEM careers and the school subjects associated with each career. A dedicated website with similar information was also created. The results of the experiment showed that students whose parents received these materials were significantly more likely to choose STEM subjects at school and showed greater interest in them compared to their peers in the control group. This underscores the importance of involving parents in the educational process and informing them about the opportunities available to their children in STEM.

Create a welcoming atmosphere and utilize active learning

In a 2021 article, Chapman University researchers identified 14 effective strategies for reducing anxiety in STEM students. These strategies are aimed at creating a supportive classroom environment. These include the use of humor, the ability to freely form groups for collaborative work, the infrequent administration of tests that determine final grades, and recommendations for effective teaching strategies and time management. These recommendations are universal and applicable not only to the natural sciences but also to other disciplines, making them useful for a wide range of educators.

Schoolchildren, especially during adolescence, show an interest in the practical application of scientific disciplines. Research shows that during this period, they strive to delve deeper into various sciences and are interested in applied activities where they can apply their knowledge. However, educational institutions often do not provide sufficient opportunities to realize these interests. Engaging in hands-on tasks and projects can significantly increase students' motivation and deepen their understanding of the subjects. Therefore, it is important to create conditions that promote active learning and skill development in schoolchildren.

To increase the involvement of adolescents and students in learning STEM fields are encouraged to use a variety of methods. Science experiments that explore natural phenomena and scientific instruments are effective. Pedagogical techniques such as small-group instruction and project-based tasks also play an important role. Active learning methods integrated into theoretical lessons, including flipped classrooms, pair work, and peer tutoring, promote better learning. Using clickers for immediate feedback on teacher questions significantly increases student engagement. Courses that utilize these methods result in students achieving higher exam results. This underscores the importance of innovative approaches in the educational process for successful learning in STEM subjects.

Show how what is being studied relates to the real world

Schoolchildren and students often underestimate their abilities in STEM subjects due to the fact that they encounter these subjects exclusively in the classroom. As a result, STEM subjects are perceived as disconnected from real life. Research shows that to change this perception, it's important to connect curriculum topics to what children know about the world and what matters to them, starting in school. This can be achieved by formulating mathematical and other problems around real-life situations rather than abstract concepts. An approach that incorporates everyday examples can significantly increase students' interest in STEM subjects and improve their self-esteem in these areas. In the US, more and more schools are adopting innovative approaches to teaching mathematics, although this process is not without its challenges. To engage students and reduce their anxiety about learning this subject, educators are developing assignments based on relevant topics from everyday life and pop culture. For example, some teachers are creating lessons on the cost of Cardi B's handbag collection, exploring traditional practices of various cultures through ethnomathematics, or teaching how to calculate family budgets and loan interest rates. This approach not only makes mathematics more appealing but also demonstrates its practical relevance.

Many renowned educational researchers, such as Joe Bowler, recommend focusing math assignments on practical applications in students' lives. Humanities professors support the view that most students should study statistics and data visualization instead of basic calculus. This approach will help students acquire knowledge that can be applied to real-world situations and will significantly increase their motivation to learn. The practical focus of mathematical subjects provides students with the opportunity to better understand the world around them and make informed decisions based on data analysis.

Some experts warn that if data science courses become the most popular, this could have undesirable consequences. As a result, more young people may choose careers in data science, while interest in science remains low. The problem is that high school students rarely choose theoretical and abstract courses, such as basic calculus. However, without the deep knowledge gained in such advanced mathematics programs, further study in university STEM programs becomes extremely difficult. Therefore, it is important to maintain a balance between practical skills and theoretical preparation to provide future professionals with the necessary knowledge and skills for successful careers in science and technology. In the early stages of learning mathematics, it is recommended not to overdo it with realistic examples. Research conducted using TIMSS data shows that children from low-socioeconomic backgrounds perform worse on such tasks. Although the reasons for this phenomenon are not fully understood, it is hypothesized that examples related to food, money, and social relationships may distract students from disadvantaged backgrounds, shifting their thoughts to real-life problems. This distraction negatively impacts their ability to focus on the learning task, which highlights the importance of choosing appropriate teaching methods for all groups of students.

Some research confirms that introducing students to the practical importance of mathematics does not require a complete overhaul of the curriculum. Even narrow practices, such as essay writing, can effectively engage students in STEM education if they connect the material being studied with personal interests. The content of classroom instruction remains unchanged; students are simply encouraged to reflect on the application of knowledge in their lives. This approach helps students develop an understanding of the significance of mathematics and its role in various fields of activity.

Teachers' comments on the importance of studying various topics can significantly influence student motivation. The more such comments, the clearer it becomes for students how they can benefit from the classes. This connection is also relevant for students: for example, linking the study of chemistry with aspects of health helps develop students' interest in this science. Increasing awareness of the practical value of knowledge can significantly increase engagement and desire to learn.

In vocational education, the study of STEM disciplines should be linked to the future professional activities of students. This not only deepens students' understanding of the subject but also prepares them for real-world challenges in the labor market. Linking theory to practice helps develop essential skills and competencies, facilitating graduates' successful integration into the professional world.

Develop informal exposure to STEM

A keen interest in science and a desire to study STEM disciplines often begin in childhood. Memories of scientific experiments, watching educational programs and films, and observing stars and other astronomical objects play an important role in this process. Support from parents and teachers in these activities, as well as discussions about science with friends and family, foster curiosity and a desire to learn science. These early experiences can lay the foundation for future careers in STEM.

Experts recommend actively introducing preschoolers to scientific facts, drawing their attention to everyday phenomena that may seem mundane to adults. It's important to offer children small, playful experiments based on these phenomena, which will help develop their interest in science and stimulate curiosity. This approach not only promotes learning but also develops critical thinking and observation skills in children.

You can organize a competition to determine which material allows balls to roll the farthest down an inclined plane and how the angle of the incline affects this process. You can also create simple weather vanes from scrap materials, observe changes in the size and direction of shadows, and study earthworms and insects. These simple game tasks promote the development of scientific thinking and interest in natural sciences.

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The large flying ball attracted attention and sparked interest among everyone present. Konstantin Tsiolkovsky, a prominent Russian scientist and pioneer of cosmonautics, taught his classes with passion and enthusiasm. His approach to teaching was unique: he skillfully combined theory with practical examples, allowing students to gain a deeper understanding of the fundamentals of physics and astronomy. Tsiolkovsky inspired his students to dream about space and strive for new discoveries. His lessons not only educated but also ignited a spark of interest in science and the exploration of the universe in the hearts of young people.

Some studies question whether informal activities contribute to academic achievement or influence children's choice of STEM fields in the future.

Providing role models for successful self-realization in STEM

It has been proven that one of the most effective ways to attract girls to STEM fields is to introduce them to successful women working in these professions. Such women become role models, helping to break down stereotypes. While exposure to role models through books, films, and media is also important, numerous studies show that the most effective approaches are achieved when girls interact with real-life professionals. Live examples inspire and motivate, creating opportunities for girls to see that they can succeed in STEM. Researchers are offering specialized projects in which female science and engineering students become mentors in schools. They discuss STEM career opportunities with students and help them develop metacognitive skills. Although the results of this experiment have not yet been documented in detail, feedback from schoolgirls and students about the meetings was positive. Such initiatives help foster interest in science and technology among girls and build self-confidence. Some studies emphasize the importance of equal distribution of boys and girls in study groups. This helps prevent feelings of isolation in girls that can arise when there are insufficient representatives of their gender in the group. Ensuring gender balance in educational institutions not only improves the learning environment, but also promotes healthier interactions between students.

Giving bonuses for learning mathematics

In 2012, Ireland introduced a bonus to the Senior School Certificate (SSC) score for students who took the highest level mathematics course and passed the exam with a score of at least 40%. This innovation contributed to a significant increase in the number of students taking this course: by 2019, the proportion of such students in the senior classes had more than doubled, increasing from 16% in 2011 to 32.9%. This measure emphasized the importance of mathematics education and its impact on academic achievement, which could serve as a model for other countries seeking to improve the level of mathematical literacy among schoolchildren.

Is it worthwhile to adopt the Irish practice in the Russian education system, for example, by awarding extra points to students who not only passed the Unified State Exam in specialized mathematics but also studied in specialized physics, mathematics, or engineering classes and successfully completed them? This is likely not the best approach, as teachers in Ireland have responded to this experiment in mixed reviews: opinions were divided, with reactions ranging from positive to negative.

As the number of high school students choosing challenging mathematics courses increases, low grades are also observed. Teachers suggest that many students choose this educational path with the wrong motivation, seeking only bonuses. The lack of a genuine intrinsic incentive to study mathematics makes it difficult to apply knowledge in future careers and life, which, in turn, negatively impacts results. It's important to foster students' interest in the subject so they recognize its value and significance for their professional development. The Irish experience demonstrates that artificially inflating the number of graduates taking mathematics exams can be an effective strategy. When mathematics offers clear benefits, students are more likely to choose the subject, expanding the pool of potential students prepared to study STEM subjects at university. However, relying solely on this approach is not advisable: the number of mathematics exam participants attracted by such methods does not always correspond to the quality of their preparation. In other words, many of them may not be sufficiently prepared for university study in STEM fields. Therefore, it is important not only to attract students to take exams, but also to provide quality training to prepare them for successful study in technical and scientific fields.