INNOVATION IN EARLY CHILDHOOD: INTE-
GRATING STEM FROM THE AREA OF MATHE-
MATICS FOR SIGNIFICANT IMPROVEMENT
INNOVACIÓN EN LA PRIMERA INFANCIA: INTEGRACIÓN DE
STEM DESDE EL ÁREA DE LAS MATEMÁTICAS PARA UNA ME-
JORA SIGNIFICATIVA
Augusto Paolo Bernal Párraga
Ministerio de Educación, Ecuador
Geovanni Ninahualpa Quiña
Universidad de las Fuerzas Armadas ESPE, Ecuador
Anthony Brayan Cruz Roca
Universidad Estatal de Milagro, Ecuador
Mirna Yadira Sarmiento Ayala
Ministerio de Educación, Ecuador
Marcia Enith Reyes Vallejo
Ministerio de Educación, Ecuador
Mariana De Jesus Garcia Carrillo
Ministerio de Educación, Ecuador
Daniela Silvana Benavides Espín
Ministerio de Educación, Ecuador
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DOI: https://doi.org/10.37811/cl_rcm.v8i4.12779
Innovation in Early Childhood: Integrating STEM from the Area of Mathe-
matics for Significant Improvement
Augusto Paolo Bernal Párraga
1
augusto.bernal@educacion.gob.ec
https://orcid.org/0000-0003-0289-8427
Ministerio de Educación, Quito, Ecuador
Geovanni Ninahualpa Quiña
gninahualpa@espe.edu.ec
https://orcid.org/0009-0007-9057-804X
Universidad de las Fuerzas Armadas ESPE,
Quito, Ecuador
Anthony Brayan Cruz Roca
acruzr7@unemi.edu.ec
https://orcid.org/0009-0008-5344-9238
Universidad Estatal de Milagro
Ecuador
Mirna Yadira Sarmiento Ayala
mirna.sarmiento@educacion.gob.ec
https://orcid.org/0009-0007-3380-5787
Ministerio de Educación, Quito, Ecuador
Marcia Enith Reyes Vallejo
enith.reyes@educacion.gob.ec
https://orcid.org/0009-0009-1948-7035
Ministerio de Educación, Quito, Ecuador
Mariana De Jesus Garcia Carrillo
marianaj.garciac@educacion.gob.ec
https://orcid.org/0009-0007-2702-6162
Ministerio de Educación, Quito, Ecuador
Daniela Silvana Benavides Espín
daniela.benavides@educacion.gob.ec
https://orcid.org/0009-0004-3766-1336
Ministerio de Educación, Quito, Ecuador
1
Autor principal
Correspondencia: augusto.bernal@educacion.gob.ec
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ABSTRACT
Integrating STEM (Science, Technology, Engineering, and Mathematics) education in early nonage is
pivotal for equipping children with the chops demanded for a technology- driven and wisdom- ac-
quainted world. This approach nurtures critical thinking, problem- working capacities, and creativity
from a youthful age. The composition delves into colorful styles for weaving STEM into early nonage
classes, similar as hands- on conditioning, cooperative systems, and the use of arising technologies.
These strategies help children grasp and explore STEM generalities in a palpable and engaging way,
leading to a deeper and further lasting understanding. also, the benefits of early STEM integration are
bandied, noting how it can spark children's interest in lores and boost their academic performance in
these subjects. Through STEM education, scholars also acquire essential life chops like collaboration
and rigidity, which are vital in our ever-evolving world. The composition high- lights how STEM edu-
cation can help close gender and equity gaps, encouraging further girls and scholars from different back-
grounds to get involved in STEM fields. still, the perpetration of STEM in early nonage education comes
with its challenges. One significant chain is the need for adequate schoolteacher training. numerous
early nonage preceptors may not have a strong background in STEM subjects, making it delicate to
educate these motifs effectively. also, furnishing the necessary coffers and technological structure is
essential for easing STEM integration in the class- room. Without access to applicable STEM tools and
accoutrements, conducting meaningful conditioning and systems becomes grueling. The composition
wraps up with recommendations for effectively enforcing STEM in early child- hood education. These
include developing ongoing professional development programs for preceptors, creating learning sur-
roundings rich in STEM resources, and promoting educational programs that support STEM addition in
early training. Beforehand childhood STEM education not only prepares scholars for unborn careers in
these fields but also builds a strong foundation of essential life chops, contributing to a further inclusive
and indifferent education system.
Keywords: STEM, early childhood education, critical thinking, problem solving, creativity, collabora-
tive projects
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Innovación en la Primera Infancia: Integración de STEM desde el Área de
las Matemáticas para una Mejora Significativa
RESUMEN
La integración de la educación STEM (ciencia, tecnología, ingeniería y matemáticas) en los primeros
años de la infancia es fundamental para dotar a los niños de las habilidades necesarias para un mundo
impulsado por la tecnología y familiarizado con la sabiduría. Este enfoque fomenta el pensamiento
crítico, las capacidades de resolución de problemas y la creatividad desde una edad temprana. El
artículo profundiza en estilos coloridos para incorporar STEM en las clases de los primeros años de
la infancia, como el acondicionamiento práctico, los sistemas cooperativos y el uso de tecnologías
emergentes. Estas estrategias ayudan a los niños a comprender y explorar las generalidades de STEM
de una manera palpable y atractiva, lo que conduce a una comprensión más profunda y duradera.
Además, se discuten los beneficios de la integración temprana de STEM, señalando cómo puede des-
pertar el interés de los niños en los conocimientos y mejorar su rendimiento académico en estas ma-
terias. A través de la educación STEM, los estudiantes también adquieren habilidades esenciales para
la vida como la colaboración y la rigidez, que son vitales en nuestro mundo en constante evolución.
El ensayo destaca cómo la educación STEM puede ayudar a cerrar las brechas de género y equidad,
alentando a más niñas y estudiantes de diferentes orígenes a involucrarse en los campos STEM. Sin
embargo, la implementación de STEM en la educación de los primeros años de la niñez conlleva
desafíos. Un factor importante es la necesidad de una capacitación adecuada de los maestros de es-
cuela. Muchos preceptores de los primeros años de la niñez pueden no tener una sólida formación en
materias STEM, lo que hace que sea difícil enseñar estos temas de manera efectiva. Además, propor-
cionar las arcas y la estructura tecnológica necesarias es esencial para facilitar la integración de STEM
en el aula. Sin acceso a herramientas y equipos STEM aplicables, realizar programas y sistemas de
aprendizaje significativos se vuelve agotador. El ensayo concluye con recomendaciones para aplicar
de manera efectiva STEM en la educación de la primera infancia. Estas incluyen el desarrollo de
programas de desarrollo profesional continuo para preceptores, la creación de entornos de aprendizaje
ricos en recursos STEM y la promoción de programas educativos que respalden la incorporación de
STEM en la educación temprana. La educación STEM en la primera infancia no solo prepara a los
estudiantes para futuras carreras en estos campos, sino que también construye una base sólida de
habilidades esenciales para la vida, lo que contribuye a un sistema educativo más inclusivo e impar-
cial.
Palabras clave: STEM, educación en la primera infancia, pensamiento crítico, resolución de proble-
mas, creatividad, proyectos colaborativos
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INTRODUCTION
It's imperative that early nonage education incorporate STEM( wisdom, technology, engineering, and
calculation) education to prepare children for a society that's getting more and more tech savvy and
scientific focused. Beforehand STEM education helps youths develop critical capacities like problem
solving and logical thinking while also fostering their ingrain creativity and curiosity. Beforehand
STEM emphasis has been shown to increase scholars' enthusiasm in wisdom and ameliorate their aca-
demic achievement in these disciplines, according to National Science Foundation (NSF) study. As per
the. (National Science Board, 2022).
In the history, the main pretensions of early nonage education have been the development of introduc-
tory reading and calculation chops as well as socioemotional chops. But the necessity to include STEM
subjects in early education is expanding due to the quick development of technology and the growing
need for STEM chops in the pool. (Blackley & Howell, 2015).
Early exposure to STEM subjects helps reduce the skills gap and better prepare pupils for problems in
the classroom and workplace later. A strong foundation in these important areas can be achieved by
implementing an educational strategy that incorporates developing technology, cooperative projects,
and hands-on activities. (Bers,2018). Implementing STEM in early childhood education presents several
hurdles despite the potential benefits. The lack of proper training for teachers is one of the main issues.
The fact that many early childhood educators have less experience teaching STEM subjects can make it
more difficult to teach these subjects effectively. (Stoet & Geary, 2018)
Furthermore, it is essential to have an adequate infrastructure of technology and resources to support the
integration of STEM in the classroom. Conducting worthwhile activities and projects is difficult without
adequate access to STEM gear and supplies. (Honey et al., 2014).
This project is to investigate several approaches for incorporating STEM education into the early child-
hood curriculum and assess its influence on students' acquisition of foundational abilities. Finding effi-
cient ways to incorporate relevant and interesting STEM activities for kids is the aim to spark their
interest and encourage their active involvement. The study will also examine the obstacles and enablers
to STEM integration in early childhood education, offering useful suggestions for educators and educa-
tional officials.
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Research Questions
Integration of STEM Education in Early Childhood Education: Research Questions for the Scientific
Article
1. How does the integration of STEM subjects affect the social and cognitive development of young
children?
- Goal: Assess the effects of STEM integration on social and cognitive skills.
- Justification: Learning STEM subjects might improve students' capacity for critical thought as well
as teamwork. (Clements & Sarama, 2011) As stated by (Bers & Horn, 2010)
2. Which instructional techniques work best to incorporate STEM subjects into the curricula of early
childhood education?
- Goal: Determine which instructional strategies help young children learn STEM subjects the most
effectively.
- Justification: The effectiveness of various instructional strategies for imparting STEM knowledge
may differ. (Hachey, 2013) (Campbell et al., 2010).
3. How does schoolteacher training in STEM affect the quality of tutoring in early nonage education?
- ideal probe the relationship between specific STEM training and tutoring effectiveness.
- defense Proper schoolteacher training is pivotal for the successful implementation of STEM. (Roehrig
et al., 2007) (Ma & Williams, 2013)
. What technological coffers and accoutrements are necessary for effective STEM perpetration in early
nonage education?
- Ideal Determine the coffers and tools that stylish support STEM tutoring at this educational position.
- Defense the vacuity and proper use of technological coffers can grease or hamper STEM tutoring.
(Bernal Párraga et al., 2024) (Papadakis et al., 2018)
5. What are preceptors' and parents' comprehensions of integrating STEM in early nonage education?
- Ideal Explore the stations and opinions of preceptors and parents about the addition of STEM in the
class.
- Defense the acceptance and support of preceptors and parents are delightful amental to the success of
any curricular change. (Linder et al., 2016) (Tu & Hsiao, 2008)
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. How does the integration of STEM influence gender equity and addition in early nonage education?
- Ideal Examine whether STEM education helps reduce gender gaps and promotes addition.
- Defense STEM has the implicit to foster gender equity and addition from an early age. (M. T. Wang
& Degol, 2017) (Master et al., 2017)
. What walls live to the perpetration of STEM in early nonage education, and how can they be overcome?
- Ideal Identify challenges and propose results for the effective integration of STEM.
- defense Understanding and addressing walls is essential for the effective integration of STEM in early
nonage education. (Margot & Kettler, 2019) (Nadelson & Seifert, 2017)
. What long-term goods do STEM education have on the educational and professional circles of schol-
ars?
- Ideal dissect the continuing impact of early STEM education on scholars' unborn academic and pro-
fessional paths.
- Defense assessing long- term benefits can justify the investment in STEM programs from early nonage
education. (Maltese & Tai, 2011) (M.-T. Wang & Degol, 2013)
METHODOLOGY
Research Design
This exploration employed a mixed- styles design, integrating both qualitative and quantitative ap-
proaches styles to achieve a comprehensive understanding of the integration of STEM education in early
nonage education. An Explora rightist and descriptive design was used to identify and dissect effective
implementation strategies and their impact on the development of abecedarian chops in scholars.
This methodology eased the gathering of different data, furnishing both numerical perceptivity and de-
tailed contextual information. Statistical tools were used to dissect quantitative data, employing both
descriptive and deducible statistics to uncover patterns and measure the effectiveness of STEM condi-
tioning. Qualitative data, gathered through interviews and compliances, handed deeper perceptivity into
the gests and comprehensions of preceptors and scholars. This combined methodology assured a holistic
understanding of the processes and issues of STEM integration in early nonage settings.
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Study Population
The study population included early nonage preceptors and scholars from colorful educational institu-
tions. The sample was named using purposeful sampling to insure the addition of a variety of educational
surrounds. In total, the study included 10 seminaries and 200 scholars. Selection criteria for the semi-
naries included amenability to share, geographical diversity, and the presence of STEM programs in
their classes. This different slice approach assured that the study captured a broad diapason of gests and
perspectives, offering an expansive overview of the current state of STEM education in early nonage
settings. By including seminaries with being STEM programs, the study could concentrate on effective
strategies and their real- world operations, offering precious perceptivity into stylish practices and im-
plicit challenges in different educational environments. (Patton, 2015).
Data Collection Methods
1. Questionnaires and checks Questionnaires were designed to gather quantitative data on preceptors'
comprehensions and gests with STEM integration. The checks included unrestricted- concluded ques-
tions and Likert scale particulars to assess the effectiveness of the strategies enforced and identify the
challenges encountered.
2. Classroom compliances Structured compliances were conducted in class- apartments to validate ped-
agogical practices and pupil relations during STEM conditioning. The compliances concentrated on pu-
pil engagement, collaboration, and the use of technological coffers.
3. Interviews with preceptors and scholars Semi structured interviews were conducted to gather quali-
tative data on their gests through interviews with preceptors and scholars and comprehensions of STEM
education. The interviews allowed for in- depth disquisition of the private and contextual aspects of
implementation. By using these mixed styles, the study aimed to give a com- prehensive understanding
of the integration of STEM education in early child- hood settings, encompassing both the measurable
impacts and the nuanced experiences of actors. (Creswell & Poth, 2017).
Implementation Process
The exploration was executed in colorful phases
1. Preparation Phase Informed concurrence was attained from actors, and training sessions were orga-
nized for preceptors on the use of data collection tools and instruments.
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2. perpetration Phase STEM conditioning were integrated into the classes of the sharing seminaries for
one academic semester. Practical approaches and cooperative systems were used to educate STEM gen-
eralities.
3. Data Collection Phase Data were collected during the perpetration phase using questionnaires, com-
pliances, and interviews. Each data collection system was totally applied to maintain the data's thickness
and trustability.
4. Data Analysis Phase Quantitative data were anatomized using statistical styles similar as analysis of
friction (ANOVA) and retrogression analysis to identify significant patterns significant patterns and
connections. Qualitative data were anatomized through thematic coding using technical software (e.g.,
NVivo) to identify arising themes and patterns.
This phased approach assured a thorough and methodical study, allowing for a detailed understanding
of the integration of STEM education in early nonage settings. The medication phase assured that all
actors were informed and equipped for the study, while the perpetration phase handed a real- world
environment for STEM education. The data collection and analysis phases allowed for comprehensive
perceptivity into the effectiveness and challenges of STEM integration.
Data Analysis
1. Quantitative Analysis Statistical tools were employed to dissect data from questionnaires and checks.
Descriptive analyses (similar as frequentness and means) and deducible analyses (including ANOVA
and retrogression) were con- ducted to estimate the effectiveness of STEM integration strategies and
their impact on scholars' academic performance and provocation.
2. Qualitative Analysis Interviews and compliances were anatomized using thematic coding to identify
recreating patterns and themes. NVivo software was utilized to manage and dissect the qualitative data,
allowing for a deep and contextualized interpretation of actors' gests.
This binary approach assured that both numerical data and rich, descriptive in- sights were considered,
furnishing a comprehensive understanding of the STEM integration process and its issues.
Validity and Reliability
To ensure the delicacy and responsibility of the data collection instruments, a pilot test of the question-
naires and checks was conducted with a small group of preceptors. also, a peer review was performed
pág. 5683
with STEM education experts to validate the content and insure the applicability of the questions. The
methodology used in this study provides a thorough understanding of the integration of STEM education
in early nonage education, enabling the identification of stylish practices and challenges associated with
its perpetration. The results attained from this mixed- system approach can inform unborn studies and
the expression of educational programs that support the addition of STEM in the early times of training.
By piloting the instruments and engaging with experts, the study ensures that the tools used are both
accurate and applicable, thereby enhancing the overall credibility and connection of the findings. This
rigorous approach contributes to a deeper understanding of STEM education's impact and provides a
solid foundation for developing effective educational strategies and programs.
Previous Studies
Benefits of STEM Education
The integration of STEM education in early nonage has demonstrated numerous benefits. According to
a study by (Bybee, 2013), enforcing STEM activities in the classroom fosters critical chops similar as
logical thinking and problem- working, which are essential for children's cognitive development. also,
exploration by (English, 2016) indicates that early STEM education can increase scholars' interest in
wisdom and technology, promoting lesser diversity in these fields in the long term.
Early exposure to STEM helps children develop foundational chops that are crucial for their unborn
academic and professional success. By engaging in hands-on and cooperative STEM conditioning, chil-
dren learn to suppose critically, work together, and apply their knowledge to real- world problems. This
early engagement not only boosts their confidence in STEM subjects but also lays the root for lifelong
literacy and curiosity in these important areas.
Challenges in Implementing STEM
Despite its benefits, enforcing STEM in early nonage education faces significant challenges. A study by
(Margot & Kettler, 2019) highlights the lack of specific STEM training among early nonage preceptors
as a major handicap. This lack of medication can limit preceptors' capability to effectively educate
STEM generalities. also, according to a report by (Nadelson & Seifert, 2017), the deficit of coffers and
shy technological structure are common walls that hamper the perpetration of STEM conditioning in the
classroom.
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Effective Strategies for Integrating STEM
To overcome these challenges, several studies suggest effective strategies. A study by (Chiu & Linn,
2014) shows that nonstop professional development and specific STEM training are essential for per-
fecting preceptors' confidence and capability. Incorporating arising technologies and cooperative sys-
tems can also make STEM education more accessible and engaging for scholars, as noted by (Kim et
al., 2015).
Impact on Equity and Diversity
STEM education can also play a pivotal part in promoting equity and diversity in early nonage educa-
tion. A study by (Master et al., 2017) set up that STEM enterprise can help close gender gaps and in-
crease girls' participation in wisdom and technology. also, targeted programs aimed at scholars from
different backgrounds can promote lesser addition and equity in the classroom, as indicated in explora-
tion by (Tan et al., 2016). In summary, the being literature under- scores the significance and benefits
of integrating STEM in early nonage education while feting the challenges that must be overcome for
effective implementation. These studies give a solid foundation for unborn exploration and practices
aimed at optimizing STEM tutoring in the early times of training, contributing to a further inclusive and
indifferent education.
Data Collection and Analysis Procedures
Research Design
Methodological Approach The exploration will employ a mixed-styles design approach that combines
qualitative and quantitative styles to gain a holistic understanding of the impact of STEM education in
early nonage education.
Sample Selection
- Actors A representative sample of preceptors, scholars, and parents from colorful early nonage edu-
cation seminaries will be named. The selection criteria will include geographical, socioeconomic, and
gender diversity.
- Sample Size The sample will include roughly 200 preceptors, 100 students, and 100 parents, icing
acceptable representation from different educational surrounds.
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Research Design
- Methodological Approach The study will use a mixed styles design, integrating both qualitative and
quantitative styles to achieve a comprehensive understanding of the impact of STEM education in early
nonage education.
Sample Selection:
Actors A representative sample of preceptors, scholars, and parents from colorful early nonage edu-
cation seminaries will be named. The selection criteria will include geographical, socioeconomic, and
gender diversity.
- Sample Size The sample will include roughly 200 preceptors, 100 students, and 100 parents, icing
acceptable representation from different educational surrounds.
Data Collection Instruments
- checks Structured checks will be developed to collect quantitative data on the comprehensions and
gests of preceptors, scholars, and parents with STEM education.
- check Content The checks will feature questions to assess the effectiveness of STEM strategies, pupil
interest, and comprehensions regarding the barriers and facilitators to STEM perpetration.
- In- Depth Interview Semi-structured interviews will be carried out with a named group of actors of
preceptors and parents to gain detailed qualitative data.
- Interview motifs the interviews will explore specific gests with STEM perpetration, comprehensions
of schoolteacher training, and the perceived impact on scholars.
- Classroom compliances Direct compliances will be conducted in classrooms to estimate the practical
perpetration of STEM strategies.
- Observed Aspects The compliances will concentrate on pupil engagement, tutoring strategies used,
and the integration of STEM technologies and coffers.
Data Collection Procedure
- Pilot Phase A pilot test of the data collection instruments will be conducted with a small group of
actors to ensure the questions are clear and valid.
- check Administration checks will be distributed both electronically and in published format to insure
a high response rate.
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- Conducting Interviews will be conducted in person and virtually, depending on actors' vacuity.
- Classroom compliances will be listed at different times throughout the academy time to capture a
variety of gests and tutoring context books.
- Pilot Phase A pilot test of the data collection instruments will be conducted with a small group of actors
to confirm the questions are clear and valid.
Data Analysis
1. Quantitative Analysis
- Statistical Tools like SPSS will be used for quantitative data analysis. The analyses will include de-
scriptive statistics (frequentness, means) and inferential statistics (ANOVA, retrogression) to assess sig-
nificant differences between groups.
- Variables to dissect Variables similar as academic performance, pupil interest and provocation, and
comprehensions of the walls and facilitators to STEM perpetration will be anatomized.
2. Qualitative Analysis
- Thematic Coding Qualitative data from interviews and compliances will be anatomized using thematic
coding with software like NVivo.
- Coding Process Recreating themes related to STEM perpetration experiences, comprehensions of
schoolteacher training, and pupil impact will be linked and distributed.
- Data Triangulation Qualitative and quantitative data will be combined to triangulate findings and gain
a further comprehensive and robust understanding of the impact of STEM education in early nonage
education.
3. Data confirmation
- Peer Review Instruments and results will be reviewed by STEM education experts to insure their va-
lidity and trustability.
- party Feedback will be sought from actors on preliminary results to validate interpretations and con-
clusions.
This detailed methodological approach will allow for a comprehensive and ac- curate evaluation of the
integration of STEM education in early nonage education, furnishing a solid foundation for unborn ex-
ploration and practical operations.
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Article Selection
The selection of papers for this study was conducted using a structured approach to guarantee the addi-
tion of material and high- quality exploration on the integration of STEM education in early nonage
education. The way and criteria used in the selection process are described below
1. Setting Addition and Rejection Criteria
- Addition Criteria
- papers appearing in peer- reviewed journals from 2010 to 2023.
- Research concentrated on the integration of STEM in early nonage education (preschool and early
primary times).
-Empirical studies and literature reviews addressing methodologies, implementation issues, and com-
prehensions of preceptors and scholars.
- Rejection Criteria
- papers concentrated on advanced education situations (secondary and university).
-Theoretical studies without empirical data or practical connection.
- Publications in languages other than English and Spanish due to limitations within the exploration
platoon.
2. Sources of Hunt
- honored academic databases similar as ERIC, Google Scholar, JSTOR, Scopus, and Web of Science
were used.
-fresh quests in university libraries and institutional depositories to insure comprehensive content.
3. Search Strategy
- Use targeted keywords and combinations like" early nonage STEM education," STEM integration in
preschool," STEM impact on early education," and" tutoring STEM to youthful children."
- Pollutants for date, document type, and applicability were applied to upgrade the results.
4. Selection Process
-original Phase Title and Abstract Screening
- originally, 300 implicit papers were linked by reviewing titles and abstracts.
-inapplicable or indistinguishable papers were barred, reducing the number to 250.
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- Stage 2 Full Composition Review
- The 150 named papers were completely reviewed to estimate their applicability and methodological
quality.
- This detailed review redounded in a final selection of 50 papers.
- Stage 3 Peer Evaluation
- The preselected papers were estimated by a panel of STEM education experts to insure the validity
and applicability of the included studies.
5. Quality and Relevance Criteria
- Evaluation of the methodological rigor of the studies, including exploration design, sample size, and
analysis ways used.
- Applicability and connection of the results in the environment of early nonage education.
- donation to being knowledge and eventuality to inform effective educational practices.
6. conflation of Results
- The named papers were organized and synthesized into thematic categories to grease relative analysis.
- Studies furnishing strong substantiation on the benefits, challenges, and effective strategies for inte-
grating STEM in early nonage education were stressed.
This rigorous selection process ensures that the study is grounded on a comprehensive and critical re-
view of the current literature, furnishing a solid foundation for the conclusions and recommendations
presented in the composition.
Extraction of Relevant Data
Birth of Applicable Data from the Scientific Article Innovation in Early Childhood Education Integrat-
ing STEM for a Bright Future.
rooting applicable data is pivotal for relating and assaying information that will address the exploration
questions and achieve the study's objects. In the environment of integrating STEM education into early
nonage education, this process was carried out through several methodical and rigorous way
Initial Review and Coding
- Identification of Key Themes
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- The named papers were completely reviewed to identify crucial themes related to STEM integration,
similar as tutoring styles, impact on literacy, challenges, and results; (Bers, 2018) (Honey et al., 2014)
- Coding ways were used to label applicable textbook fractions addressing these themes.
- Use of Analysis Software
- Software tools like NVivo and Atlas.ti eased the coding and organization of qualitative data. (Hwang,
2014)
- These programs enabled methodical coding and the identification of patterns and trends in the data.
By following this way, the study assured a detailed and systematized extraction of data, which is essen-
tial for answering the exploration questions and achieving the study's objects. The use of software tools
helped maintain thickness and rigor in the data analysis process, furnishing a solid foundation for inter-
preting the findings.
Quantitative Data Extraction
- Collection of Statistics
- Quantitative data were uprooted from empirical studies, including statistics on academic performance,
situations of pupil provocation and participation, and the effectiveness of colorful STEM tutoring strat-
egies (Li & Ma, 2010).
- Statistical Analysis
- The quantitative data were entered into statistical analysis programs like SPSS to perform descriptive
and deducible analyses (Field, 2018)
- Means, middles, and standard diversions were calculated, and statistical tests similar as ANOVA and
retrogression were conducted to assess the significance of the results (Cohen, 2006).
Synthesis of Qualitative Data
- Thematic Analysis
Qualitative data were examined using a thematic analysis to identify preceptors' comprehensions and
scholars' comprehensions of STEM integration (Braun & Clarke, 2006)
- commentary and compliances were synthesized into thematic orders similar as" perceived ad-
vantages,"" challenges encountered," and" recommendations for perpetration"" (Flick, 2022).
- Data Triangulation
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- To validate the qualitative findings, triangulation was used by comparing data from interviews, class-
room compliances, and checks (Krause & Denzin, 1989).
Data Validation
- Peer Review
- The uprooted data were reviewed by a platoon of STEM education experts to insure delicacy and
applicability (Yin, 2018)
- adaptations were made grounded on their feedback and suggestions (Patton, 2015).
- confirmation Pilot
- A pilot test was performed with a small group of preceptors to validate the data collection instruments
and ensure that the questions were clear and applicable relevant (Creswell & Poth, 2017).
Presentation of Results
- Data Visualization
- The results were presented using graphs, tables, and plates to grease the interpretation and communi-
cation of the findings (Tufte, 2006).
- Results Report
- A detailed report was written, including crucial findings, statistical and thematic analyses, and sub-
stantiation grounded recommendations (Merriam, 2014).
This methodical and rigorous approach to rooting applicable data allowed for a comprehensive and ac-
curate understanding of the integration of STEM education in early nonage education, furnishing a solid
foundation for the study's conclusions and recommendations.
ANALYSIS AND RESULTS
This methodical and rigorous approach to rooting applicable data allowed for a comprehensive and ac-
curate understanding of the integration of STEM education in early nonage education, furnishing a solid
foundation for the study's conclusions and recommendations.
Study Focus
The exploration focuses on the integration of STEM (Science, Technology, Engineering, and Mathe-
matics) factors in early nonage education. Information was collected through a check applied to 139
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early nonage preceptors to assess the perpetration, perception, challenges, and coffers related to STEM
tutoring.
Perpetration of STEM in the Classroom
Out of 139 responses,53.8 of repliers indicated they've enforced some STEM element in their early
nonage classroom, while46.2 have not. This suggests a slight maturity of preceptors are formerly incor-
porating STEM rudiments into their tutoring.
Graph perpetration of STEM in the Classroom
Yes 75(53.95)
No 64(46.05)
Significance of STEM Integration
When asked about the significance of integrating STEM in early nonage ed- ucation,56.4 of preceptors
considered it" veritably important," and28.2 considered it" Important." Only7.7 rated it as" Slightly im-
portant" or" Not important," indicating a generally positive perception and appreciation of STEM factors
at this educational stage.
Graph significance of STEM Integration
veritably important 78(56.4)
Important 39(28.2)
relatively important 11(7.7)
Slightly important 7(5.1)
Not important 4(2.6)
Challenges in STEM Integration
The main challenges linked by repliers in integrating STEM integration in early nonage education faced
the major challenge of" Insufficient sources"(43.6) and the" Lack of specific training"(28.2). Other re-
ported challenges include" Class pressure"(15.4) and" Lack of maternalistic-est."(10.3).
Graph Challenges in STEM Integration
Lack of acceptable coffers 61(43.6)
Lack of specific training 39(28.2)
Class pressure 21(15.4)
pág. 5692
Lack of parent interest 14(10.3)
For conducting exploration 4(2.6)
Coffers Used for STEM perpetration
The most used coffers by preceptors for enforcing STEM in early child- hood education include" Phys-
ical tutoring accoutrements "(30.8)," Digital-sources"(30.8), and" schoolteacher training"(20.5). A
lower chance mentioned" Collaborations with STEM experts"(10.3) and" No specific coffers
used"(10.3).
Graph coffers Used for STEM perpetration
Physical educational accoutrements 43(30.8)
Digital coffers 43(30.8)
schoolteacher training 28(20.5)
Collaborations with STEM experts 11(7.7)
No specific coffers used 14(10.3)
Effective Computer Tools
When asked about the most effective computer tools for easing the teaching of STEM generalities,43.6
of preceptors chose" Interactive computer simulations," followed by" Visual programming platforms
(e.g., Scratch)" at20.5. Other tools mentioned include" 3D modeling software"(17.9) and" Augmented
reality operations"(12.8).
Graph Effective Computer Tools
Interactive computer simulations 61(43.6)
Visual programming platforms (e.g., Scratch) 28(20.5)
3D modeling software 25(17.9)
Augmented reality operations 18(12.8)
None of the below 7(5.1)
Salutary STEM Conditioning
Eventually, preceptors considered the most salutary conditioning for promoting the understanding of
STEM generalities among scholars to be" Rendering games on plat- forms likeCode.org"(25.6) and
"Building islands with popsicle sticks"(20.5). Other conditioning includes Manual wisdom trials similar
pág. 5693
as baking soda pop tinderboxes."(17.9) and" Robotics challenges with accoutrements like LEGO Mind-
storms"(15.4).
Coding games on platforms likeCode.org 36(25.6)
structure islands with popsicle sticks 28(20.5)
Manual wisdom trials 25(17.9)
Robotics challenges with accoutrements like LEGO Mindstorms 25(17.9)
Interactive calculation exercises in apps 25(17.9)
In conclusion, the exploration reveals significant acceptance and positive valuation of STEM integration
in early nonage education, while also pressing important challenges that need to be addressed for further
effective and widespread perpetration. Graph1 Beneficial STEM Activities
Graph:1 Beneficial STEM Activities
DISCUSSION
Integrating STEM into Early Childhood Education
The integration of STEM in early nonage education has been linked as a crucial strategy to ameliorate
scholars' chops and academic performance from an early age. The results of our check give a clear view
of comprehensions, challenges, and current practices regarding this integration in early nonage class-
rooms.
Perception and Valuation of STEM
The maturity of preceptors surveyed (56.4) consider STEM integration to be" veritably important,"
pressing a growing mindfulness of the applicability of these disciplines in the comprehensive education
pág. 5694
of scholars. This positive perception is harmonious with former studies that emphasize the benefits of
STEM in the development of critical thinking and problem- working chops (Star & Rittle- Johnson,
2008).
Perpetration of STEM in the Classroom
Despite the high valuation, only53.8 of repliers have enforced STEM factors in their classrooms. This
difference between perception and perpetration may be due to several factors, including the lack of
acceptable coffers and specific training, which were linked as the main challenges. The lack of specific
training (28.2) and the lack of acceptable coffers (43.6) are significant walls that hamper the broader
relinquishment of STEM in early nonage education.
Challenges in STEM Integration
The results indicate that the most mentioned challenges are the lack of adequate coffers and the lack of
specific training. These challenges reflect an urge need for investment in structure and professional
development for educators also, class pressure and lack of parent interest were also mentioned, although
to a lower extent. These findings suggest that for successful STEM perpetration, it's pivotal to address
not only material and training limitations but also to involve families and acclimatize the class to effec-
tively integrate these disciplines.
Coffers and Tools Used
The check reveals that preceptors use a variety of coffers to apply STEM, with the most common being
physical educational accoutrements, digital resources, and schoolteacher training. This different use of
coffers suggests inflexibility and creativity in STEM integration but also highlights the need to give
access to a wider range of tools and support, including collaborations with STEM experts. Regarding
computer tools," Interactive computer simulations" and" Visual programming platforms" were consid-
ered the most effective. These tools can grease the tutoring of complex generalities in an accessible and
engaging way for youthful scholars. still, the diversity in responses also indicates that there's no bone -
size- fits- all result, emphasizing the significance of offering multiple technological options for precep-
tors.
pág. 5695
Salutary STEM Conditioning
exemplifications of conditioning that promote the understanding of STEM generalities include" Ren-
dering games on platforms likeCode.org" and" Building islands with popsicle sticks." These condition-
ing aren't only practical and palpable but also foster creativity and critical thinking. The preference for
these practical styles reflects the significance of active literacy gests in STEM education.
Counteraccusations for Educational Practice
The findings of this exploration have important counteraccusations for educational practice. First, it's
essential to increase access to coffers and specific training for early nonage preceptors. Educational
programs should prioritize investment in accoutrements and professional development to ensure precep-
tors are well equipped to integrate STEM into their classrooms. Second, it's necessary to involve families
in the educational process to foster a culture of support for STEM at home. This can include shops for
parents and the addition of STEM conditioning in schoolwork to support literacy at home.
Eventually, educational institutions should consider class inflexibility to al-low for a smoother integra-
tion of STEM. This could include creating specific spaces within the academy schedule for STEM sys-
tems and conforming assessment norms to reflect the capabilities acquired through these disciplines.
While the perception of the significance of STEM in early nonage education is high, perpetration faces
significant challenges related to the lack of coffers and training. Addressing these challenges through
investments in structure, professional development, and family involvement can grease further effective
STEM integration, therefore serving the academic and particular development of scholars from an early
age.
CONCLUSION
Exploration on the integration of STEM in early nonage education reveals both a high valuation of its
significance and significant challenges in its implementation. From the data collected, it can be inferred
that while a maturity of preceptors fetes the benefits of incorporating STEM in classrooms, the lack of
coffers and specific training prevents broader and further effective relinquishment. utmost preceptors
consider the integration of STEM in early nonage education as" veritably important" or" Important,"
pressing the wide recognition of its value in developing critical thinking and problem- working chops
in scholars from an early age. still, the main obstacles linked include the lack of acceptable coffers and
pág. 5696
specific training for preceptors. These challenges accentuate the need for investments in educational
structure and nonstop professional development to ensure preceptors are prepared to effectively inte-
grate STEM disciplines. preceptors use a variety of coffers to apply STEM, fastening on physical edu-
cational accoutrements, digital coffers, and schoolteacher training. The most effective computer tools
linked include interactive computer simulations and visual programming platforms. Practical and pal-
pable conditioning, similar as rendering games and erecting islands with popsicle sticks, are seen as the
most salutary for promoting the understanding of STEM generalities among scholars, indicating the
significance of active literacy gests. To address the challenges and maximize the benefits of STEM in
early nonage education, it's essential to borrow several strategies increase the vacuity of acceptable ed-
ucational resources and give different and accessible technological tools that can grease STEM tutoring;
apply professional development programs that equip Educa bluffs with the necessary chops and
knowledge to effectively integrate STEM in their classrooms; encourage maternal and family involve-
ment in the educational process to produce a probative terrain for STEM disciplines; and acclimatize
the academy class to allow for a smoother integration of STEM, including dedicated spaces for STEM
systems and conditioning within the academy schedule. unborn exploration could concentrate on the
long- term evaluation of the impact of STEM integration on scholars' academic and development also,
relative studies between different approaches and technological tools could give valuable perceptivity
into stylish practices for tutoring STEM in early nonage education. In summary, the integration of STEM
in early nonage education offers a major occasion to ameliorate scholars' chops and academic perfor-
mance from an early age. Addressing the linked challenges and using openings for coffers and training
can lead to further effective perpetration and a lasting positive impact on early nonage education.
REFERENCES
Bernal Párraga, A. P., Baquez Chávez, A. L., Hidalgo Jaen, N. G., Mera Alay, N. A., & Velásquez
Araujo, A. L. (2024). Pensamiento Computacional: Habilidad Primordial para la Nueva Era.
Ciencia Latina, 8(2), 5177–5195.
Bers, M. U. (2018). Coding as a playground: Programming and computational thinking in the early
childhood classroom. Routledge.
pág. 5697
Bers, M. U., & Horn, M. (2010). Tangible programming in early childhood: Revisiting developmental
assumptions through new technologies. High-Tech Tots. 49–70.
Blackley, S., & Howell, J. (2015). A STEM narrative: 15 years in the making. Aust. J. Teach. Educ.,
40(40).
Braun, V., & Clarke, V. (2006). Using thematic analysis in psychology. Qual. Res. Psychol., 3(2), 77–
101.
Bybee, R. W. (2013). The Case for STEM Education: Challenges and Opportunities. NSTA Press.
Campbell, T., Oh, P. S., Shin, M., & Zhang, D. (2010). Classroom environments and elementary stu-
dents’ views of science. International Journal of Science Education, 32(5), 583–608.
Chiu, J. L., & Linn, M. C. (2014). Supporting knowledge integration in chemistry with a visualization-
enhanced inquiry unit. J. Sci. Educ. Technol., 23(1), 37–58.
Clements, D. H., & Sarama, J. (2011). Early childhood mathematics intervention. Science, 333(6045),
968–970.
Cohen, E. H. (2006). Research in religious education: Content and methods for the postmodern and
global era. Relig. Educ., 101(2), 147–152.
Creswell, J. W., & Poth, C. N. (2017). Qualitative Inquiry and Research Design: Choosing Among Five
Approaches.
English, L. D. (2016). STEM education K-12: perspectives on integration. Int. J. STEM Educ., 3(1).
Field, A. p. (2018). Discovering Statistics Using IBM SPSS Statistics. 5th Edition, Sage, Newbury Park.
- references - scientific research publishing. In Scirp.org.
Flick, U. (2022). An Introduction to Qualitative Research. In Torrossa.com.
Hachey, A. C. (2013). Early childhood mathematics education: The critical issues. Early Education and
Development, 24(4), 443–453.
Honey, M., Pearson, G., & Schweingruber, H. (2014). STEM integration in K-12 education: Status,
prospects, and an agenda for research. National Academies Press.
Hwang, G.-J. (2014). Definition, framework and research issues of smart learning environments: a con-
text-aware ubiquitous learning perspective. Smart Learning Environments, 1(1), 1–14.
pág. 5698
Kim, D., Park, I., & Baek, J. (2015). The Effects of Scientific Creativity on Science Achievement and
Scientific Attitudes. The Effects of Scientific Creativity on Sci-Ence Achievement and Scien-
tific Attitudes. *Journal of Science Education and Technology, 24(6), 734–746.
Krause, D., & Denzin, N. K. (1989). The research act: A theoretical introduction to sociological meth-
ods. Teach. Sociol., 17(4), 500.
Li, Y., & Ma, X. (2010). A meta-analysis of the effects of computer technology on school students’
mathematics learning. Educational Psychology Review, 22(3), 215–243.
Linder, S. M., Emerson, A. M., Heffron, B., Shevlin, E., & Vest, A. (2016). STEM use in early childhood
education: Viewpoints from the field. Early Childhood Education Journal, 44, 43–52.
Ma, Y., & Williams, D. (2013). A cross-national comparison of science curricula in China and the
United States: A perspective from the results of TIMSS 2011. International Journal of Science
Education, 35(7), 1069–1092.
Maltese, A. V, & Tai, R. H. (2011). Pipeline persistence: Examining the association of educational ex-
periences with earned degrees in STEM among US students. Science Education, 95(5), 877–
907.
Margot, K. C., & Kettler, T. (2019). Teachers’ perception of STEM integration and education: a sys-
tematic literature review. Int. J. STEM Educ., 6(1).
Master, A., Cheryan, S., & Meltzoff, A. N. (2017). Social group membership increases STEM engage-
ment among preschoolers. Dev. Psychol., 53(2), 201–209.
Merriam, S. B. (2014). Qualitative research: A guide to design and implementation (2nd ed.). Jossey-
Bass.
Nadelson, L. S., & Seifert, A. (2017). Integrated STEM defined: Contexts, chal-lenges, and the future.
*Journal of Educational Research and Practice, 7(2), 13–24.
National Science Board. (2022). The U.S. Must Improve K-12 STEM Education for All. In Nsf.gov.
Papadakis, S., Kalogiannakis, M., & Zaranis, N. (2018). Educational apps from the Android Google
Play for science education. Education and Information Technologies, 23, 1849–1871.
Patton, M. Q. (2015). Qualitative Research & Evaluation Methods: Integrating Theory and Practice.
pág. 5699
Roehrig, G. H., Kruse, R. A., & Kern, A. (2007). Teacher and school characteristics and their influence
on curriculum implementation. J. Res. Sci. Teach., 44(7), 883–907.
Stoet, G., & Geary, D. C. (2018). The gender-equality paradox in STEM educa-tion. Psychological Sci-
ence, 29(4), 581–593.
Tan, E., Barton, A. C., & Rivet, A. (2016). Rethinking diversity in learning sci-ence: The logic of eve-
ryday sense-making. *Journal of Research in Science Teaching, 53(7), 979–1013.
Tu, T., & Hsiao, Y. (2008). Preservice teachers’ beliefs, attitudes, and behaviors: How are they related
to taking science, mathematics, and technology courses? Early Childhood Education Journal,
36, 105–113.
Tufte, E. R. (2006). The visual display of quantitative information. Graphics Press.
Wang, M. T., & Degol, J. L. (2017). Gender gap in STEM: Current knowledge, implications for practice,
policy, and future directions. Educational Psychology Review, 29(1), 119–140.
Wang, M.-T., & Degol, J. (2013). Motivational pathways to STEM career choices: Using expectancy-
value perspective to understand individual and gender differences in STEM fields. Dev. Rev.,
33(4), 304–340.
Yin, R. K. (2018). Case Study Research and Applications: Design and Methods.
