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STEM, ROBOTICS, CODING, AND MAKER’S SPACE 1
STEM, Robotics, Coding, and Maker’s Space
Andrea Bradley
School of Education, Liberty University
Author Note
Andrea Bradley
I have no known conflict of interest to disclose.
Correspondence concerning this article should be addressed to Andrea Bradley
Email: asbradley2@liberty.edu
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 2
STEM, ROBOTICS, CODING, MAKER’S SPACES
Technology advances have influenced learning institutions to shift their practices and
adopt newer innovations for their students' education. In the 21st-century world that is changing
quite fast, education is experiencing a dramatic transformation with STEM (Science,
Technology, Engineering, and Mathematics), robotics, coding, and maker spaces, which are
becoming core components of the learning environment. STEM education provides the
fundamentals for scientific discoveries and technological inventions by providing students with
the tools of critical thinking, problem-solving and creativity, which are the requisites for
managing the complexity of a modern world. Also, robotics has been discovered to be an
excellent tool that helps students engage in hands-on exploration and promotes interdisciplinary
cooperation. Coding, which once was considered solely the skill of specialization, has now
become a profound literacy enabling students to learn computational thinking capabilities that
play a crucial role in succeeding in the digital era. Maker spaces, collaborative environments
where individuals can make, create, innovate, and learn, are a democracy of innovation that
teaches learners how to be creators and innovators.
The following essay is a study to evaluate the four initiatives: STEM, Robotics, Coding,
and Maker’s Spaces. In the analysis, the significance of each initiative will be provided to help
elaborate its relevance in education. Also, the downsides and barriers related to all four
initiatives will be scrutinized, along with the ethical considerations and best practices for
implementation. Future trends for the four initiatives will be included to determine how they will
change for a better society. Lastly, resources will be provided for each initiative concerning a
particular locality, along with their brief descriptions. Integrating STEM, robotics, coding, and
maker spaces into education represents a transformative shift that empowers learners with
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 3
essential skills and knowledge while addressing challenges related to equity, access, and ethical
considerations, thereby paving the way for innovative and inclusive learning experiences in the
digital age.
STEM
STEM is an abbreviation for science, technology, engineering, and mathematics fields
that have been playing a leading role in most scientific developments, innovations and societal
advancements. Science, technology, and engineering (STEM) have resulted from our curiosity
about nature and innovations that have become the foundation of modern civilization, where they
drive innovations in different areas, including health care, communication, transportation, and
sustainability (Septiyanto et al., 2024).
Why is it significant?
STEM education is significant as it produces students with critical thinking, problem-
solving, and creativity abilities, thus making them ready to face and resolve complex problems
and promoting scientific and technological progress. With the long-term importance of
technologies that increasingly dominate the world, the demand for STEM expertise is rising.
STEM education is needed to prepare the future workforce, groomers, and better societies
(Septiyanto et al., 2024).
What are the downsides and barriers, and how might these be overcome?
One major downside of STEM is the absence of equity and commonality, which can be
seen especially in terms of gender and race expressions. The recent research exposed that groups,
women and minorities with diverse backgrounds are experiencing different structural barriers
and socially built stereotypes (Septiyanto et al., 2024). Another downside is that students'
opportunity to receive quality STEM education is limited, particularly in underserved
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 4
communities, even worsening existing disparities between students' STEM participation and
achievements.
The downsides of STEM can be overcome through unified approaches such as
establishing community outreach programs, allocating mentorship, and creating corresponding
networks within STEM environments. By creating a welcoming environment and eliminating
systemic biases, the STEM community can leverage the complete pool of various talents and
draw innovations from several students, thereby helping forge a better society (Septiyanto et al.,
2024).
What ethical considerations and best practices for implementation have been identified?
One of the ethical considerations for implementation that has been identified includes the
establishment of inclusive ethical cultures in STEM. Ethical consideration is essential as it
allows for technological developments that significantly improve people's lives and reduce risk
(Hildt et al., 2024). The practice improves ethical consciousness, supports ethical decision-
making, and adopts ethically informed guidelines for science, engineering, and technology.
Where is it going in the future?
The future of STEM offers the possibility of more excellent invention, creativity, and
discovery. Innovation in artificial intelligence, biotechnology, and renewable energy can be
expected to alter industries and address the most critical global issues significantly. The potential
can be attained by continuing investment in STEM education, research, and infrastructure with
the view of growing more scientists, innovators, and engineers (Hildt et al., 2024).
Resources available in North Carolina
North Carolina Department of Public Instruction is an organization that works to boost
STEM education through STEM Recognition Program for elementary, middle, and high schools.
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 5
Link; https://www.dpi.nc.gov/districts-schools/classroom-resources/academic-standards/
programs-and-initiatives/stem-education-and-leadership#:~:text=The%20STEM%20Recognition
%20Program%20provides,the%20STEM%20Schools%20Progress%20Rubric.
Robotics in Education
Robotics in education has become an indispensable device in converting conventional
learning spaces into intelligent and interactive platforms. Using robotics technology enhances
educational experiences, supplementing STEM concepts and thus cultivates values for skill and
success in the modern world (Meral & Altun Yalçın, 2024).
Why is it significant?
Robotics in education is significant in its capacity to provide learners with practical tasks
that reach beyond classroom conventions. Using robotics in projects enables students to engage
with and understand challenging STEM concepts in a hands-on and fun manner. Through
designing, building, and programming robots, students can work on critical skills to compete in
the complex and challenging 21st-century workforce, such as thinking critically, problem-
solving, and collaborative efforts (Meral & Altun Yalçın, 2024).
What are the downsides and barriers, and how might these be overcome?
The downside of robotics in education is the adoption of robotics class materials and the
establishment of new policies, which are still hard for teachers, especially in schools and
communities that need more resources. Implementing robotics will be a significant challenge for
public schools that need more resources for effective outcomes. Another barrier is the feeling
among the teachers and educators that integrating robotics into the curriculum would need some
heavy training, which may make them unwilling or uncomfortable with using robotics education
(Meral & Altun Yalçın, 2024).
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 6
The barriers can be overcome through robust training and professional development that
will provide the skills needed for long-term operations. Additionally, the local and state
governments must provide adequate financing to increase the accessibility to robotics resources
across all schools.
What ethical considerations and best practices for implementation have been identified?
Ethical considerations such as privacy and cybersecurity should be identified when using
robotics in education. As robotic technologies evolve with their increasing sophistication, they
initiate disputes about data privacy, cybersecurity, and the ethical use of artificial intelligence.
Conducting ethics education with teenage students, encouraging responsible usage of
technology, and establishing dialogue on ethics in robotics curriculum are factors that should be
considered for implementation (Yeslyamov, 2024).
Where is it going in the future?
Promisingly, the years to come will undoubtedly move robotics in the educational realm
to even higher levels of invention and overall expansion. Innovations in robotics technology,
which encompass not only the introduction of artificial intelligence and machine learning but
also robotic arms as well as autonomous systems, promise new vistas for robotics education
(Yeslyamov, 2024). Therefore, cheaper, and simpler robotics devices open the way for robotics
education everywhere. It helps students of all backgrounds get involved in STEM and develop
skills that will be useful in the future.
Resources available in North Carolina
NC STEM & Robotics Competitions is home to major competitions that provides
students with opportunities to grow their abilities. Link;
https://goopennc.oercommons.org/hubs/NCSRCR
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 7
Coding in Education
Coding in present-day classrooms is no longer limited to an occasional class; it has
become a fundamental skill that teaches students the language of computers and computationally
shapes their thinking. Coding means creating programs that support applications, websites,
electronic devices, and many others that computers can understand based on the given in a
written format (Becker et al., 2023). As such, coding becomes an essential skill that students
should be equipped with to help them handle the future of advanced technologies.
Why is it significant?
Coding is significant in education for several reasons, such as offering students
computational thinking skills, which are critical for solving problems and thinking logically.
Education by programming enhances the capacity of students to break down significant problems
into smaller, more straightforward goals and to develop organized strategies for solving them
(Becker et al., 2023). Another significance of coding is that it facilitates creativity and
innovation, allowing students to realize their digital creations, such as simple codes, interactive
games, or large multimedia tasks (Becker et al., 2023).
What are the downsides and barriers, and how might these be overcome?
A primary barrier is the unavailability of coding resources and the need for opportunities,
especially in underserved community points. Coding in education requires that the learning
institutions are well equipped with the hardware and software resources and skilled educators to
impart the skills to the learners effectively. In addition, some students may consider coding
complex or highly complicated, making them die or underestimate themselves as coding experts.
Students who consider coding a challenge will build negative attitudes towards it, degrading their
performance (Becker et al., 2023).
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 8
What ethical considerations and best practices for implementation have been identified?
Some ethical considerations associated with coding education include data privacy,
cybersecurity, and the ethics around artificial intelligence regarding code production. Practical
implementation issues include the development of digital citizenship and responsible coding
culture, humanization through participation in the decision-making process, and the potential
societal impacts of coding projects (Hou et al., 2024).
Where is it going in the future?
In the coming years, coding in education will continue to show great promise for further
integration and refinement. With this technological evolution, coding education will grow and
cover new horizons, such as artificial intelligence, machine learning, and robotics (Hou et al.,
2024). Along with that, instructions related to computational thinking will be stressed among all
the disciplines to train the students for the demands of the digital and global society.
Resources available in North Carolina
North Carolina Cyber Academy as a virtual public charter school is an alternative
learning environment that helps children shape their computer and coding skills. Link;
https://www.myncca.com/learn-more?utm_campaign=ncca&utm_medium=search-
p&utm_source=google&utm_content=unbranded&gad_source=1&gclid=Cj0KCQjwiMmwBhD
mARIsABeQ7xR8KmC1eiVNBZgbNghG6eYyz76d4r5wc1joo8xNx4FU-
gYEcAt2hDcaAiefEALw_wcB
Maker’s Spaces
A maker’s space is also called a Hackerspace or a Fab Lab where individuals can
collaborate as they use various tools, materials, and technologies to create, innovate and learn
new things through hands-on experimentation. Such zones offer a vast array of tools - from 3D
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 9
printers to electronics and woodworking devices - making it possible for the participants to
transform their thoughts into real products (Mahlstedt, 2022).
Why is it significant?
Maker spaces are significant because they equalize the innovation process and help
people of any age and education level become creators and innovators. People get the
opportunity to have direct access to the tools, resources, and development of expertise, which
consequently leads to an atmosphere of experimentation and entrepreneurship, making
makerspace very interesting. Maker spaces enhance cross-disciplinary teamwork as technology,
art, science, and engineering, among other subject areas, are complemented (Mahlstedt, 2022).
As a result, the maker space platforms boost creativity, problem-solving, and critical thinking
among the students.
What are the downsides and/or barriers, and how might these be overcome?
Several downsides exist with using marker spaces, such as capital investment costs,
which sometimes get more expensive. Lack of equipment is a significant downside as it prevents
the implementation of marker spaces, especially in institutions that need adequate funding to
sponsor the implementation (Mahlstedt, 2022). Furthermore, these obstacles also apply to the
issue of physical facilities, staffing, and expertise, which are primarily prevalent in educational
institutions or community-based maker spaces.
Barriers to successful implementation of marker spaces can be overcome by collaborating
with the potential of funding, resource sharing and forming partnerships with the local
institutions. With the collaborative efforts, there would be adequate funding that supports
implementation even in communities by creating more physical facilities and adequate staffing
(Mahlstedt, 2022).
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 10
What ethical considerations and best practices for implementation have been identified?
Ethical concerns in the workshop include safety, inclusion, and intellectual property
rights. Implementation guidelines, equipment use and safety rules, championing diversity and
respect for intellectual property rights are the key points to consider when designing maker
spaces (Melo, 2020).
Where is it going in the future?
The future of maker spaces remains a source of enthusiasm and curiosity, considering its
fast evolution in modern societies. In the era of fast-paced technology advancements, maker
spaces will get updated to incorporate new rapidly developing technologies like virtual reality,
augmented reality, and artificial intelligence, reinforcing the scope of innovations and creativity
across different societies. Moreover, there would be massive investment in the maker education
approach, which aims to enhance STEM education in formal and informal learning organizations
(Melo, 2020). Besides that, there will be more places where maker education is incorporated in
formal and informal learning spaces so that people can be lifelong learners and makers,
regardless of age.
Resources available in North Carolina
The Kenan Science Library Makerspace is a resource located in Kenan Science Library at
the University of North Carolina that offers collaborative workspaces for different talents. Link;
https://guides.lib.unc.edu/makerspace.
Conclusion
The combination of STEM, robotics, and coding, as well as the maker spaces used as a
teaching tool, represents a new educational pattern shift that gives students unparalleled access to
the elements they will need to thrive in the 21st century. Despite coming across barriers like
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 11
unequal distribution of resources, access and ethics, these learning practices have shown their
significance, indicating their potential to change the world as we know it by democratizing
education, boosting creativity, and encouraging creation. Through partnership work and strategic
funding, educators, policymakers, and other stakeholders can achieve equitable and quality
education by creating environments suitable for every student to experience transformative
teaching and learning, preparing them to face the challenges of an increasingly digital and
interconnected world. In the future, advocating STEM, robotics, coding, and maker spaces' role
and application in education should be made more meaningful. Then, their full potential should
be exploited to create an equal environment and a better society for all. As innovation and
cooperation are embraced, it is crucial to pave the way to a brighter future in which every child
can become great and achieve their goals in life.
STEM, ROBOTICS, CODING, AND MAKER’S SPACE 12
References
Becker, B. A., Denny, P., Finnie-Ansley, J., Luxton-Reilly, A., Prather, J., & Santos, E. A.
(2023, March). Programming is hard-or, at least it used to be: Educational opportunities
and challenges of a code generation. In Proceedings of the 54th ACM Technical
Symposium on Computer Science Education V. 1 (pp. 500-506).
https://doi.org/10.1145/3545945.3569759
Hildt, E., Laas, K., Miller, C. Z., & Brey, E. M. (2024). Building Inclusive Ethical Cultures in
STEM. In Building Inclusive Ethical Cultures in STEM (pp. 1-13). Cham: Springer
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Hou, X., Ericson, B. J., & Wang, X. (2024). Integrating Personalized Parsons Problems with
Multi-Level Textual Explanations to Scaffold Code Writing. arXiv preprint
arXiv:2401.03144. https://doi.org/10.1145/3626253.3635606
Mahlstedt, A. (2022). The Best Way to Utilize MakerSpace in a 6th Grade Science Classroom.
https://digitalcommons.hamline.edu/hse_cp/883/
Melo, M. (2020). Navigating ethical challenges in academic library maker spaces. iConference
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