School Learning from the Seeding Project in the Context of Child Care
Aprendizaje escolar del proyecto de siembra en el contexto
del cuidado infantil
Jhon Holguin-Alvarez
1a
, Fany Figueroa-Hurtado,
2
Juan Apaza-Quispe,
3
Aquila Montañez-Huancaya,
4
&
Juana Cruz-Montero
5
ORCID ID: https://orcid.org/0000-0001-5786-0763
1
ORCID ID: https://orcid.org/0000-0003-0757-3461
2
ORCID ID: https://orcid.org/0000-0002-1157-7185
3
ORCID ID: https://orcid.org/0000-0003-2754-1520
4
ORCID ID: https://orcid.org/0000-0002-7772-6681
5
Universidad César Vallejo, Lima, Perú
135
Universidad Nacional de Educación Enrique Guzmán y Valle, Lima, Perú
24
Recibido: 28 de octubre de 2020 Aceptado: 17 de enero de 2021
Abstract
The research proposed to develop scientific learning and research skills, developing in the pre-
experimental method. We executed a seeding program with cognitive and cultural exchange in
250 individuals from a Children's Assistance Complex. In this sample, urban schoolchildren
(without knowledge of the use of natural resources) and of Andean origin (with knowledge of
sowing and harvesting) participated. The experiment was based on the application of four
didactic phases: (1) intercultural organization, (2) collaboration for analysis, (3)
experimentation, (4) scientific argumentation. We found an increase in scientific learning in the
sample and their abilities to formulate problems, formulate hypotheses, argue and formulate
results. The proficiency and cognitive interrelation allowed this improvement, being the main
contribution of the study to the science area.
Keywords: Educational Interrelation; School Science Project; Scientific Learning; Scientific
Skills; Sowing Project.
Resumen
La investigación propuso desarrollar el aprendizaje científico y sus habilidades de
investigación, desarrollándose en el método pre experimental. Ejecutamos un programa de
sembrío con intercambio cognitivo cultural en 250 individuos de un Complejo Asistencial
Infantil. En este muestra intervinieron escolares citadinos (sin conocimiento del uso de recursos
naturales) y de origen andino (con conocimiento de sembrío y cosecha). El experimento se basó
a
Correspondencia al autor:
E-mail: jholguina@ucv.edu.pe, jhonholguinalvarez@gmail.com
Apuntes Universitarios, 2021: 11(2), abril-junio ISSN:
2304-0335 DOI: https://doi.org/10.17162/au.v11i2.642
apuntesuniversitarios.upeu.edu.pe
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172
en la aplicación de cuatro fases didácticas: (1) organización intercultural, (2) colaboración para
el análisis, (3) experimentación, (4) argumentación científica. Encontramos incremento del
aprendizaje científico en la muestra y sus habilidades para formular problemas, plantear
hipótesis, argumentar y formular resultados. La proeficiencia e interrelación cognitiva
permitieron esta mejora, siendo la principal contribución del estudio al área de ciencias.
Palabras claves: leadership distribution; pragmatic leadership; smart institutions; visionary
leadership; talent training.
Introduction
The pedagogy of science skills presents current problems that aggravate educational
methodologies, teaching systems and evaluation. This problem is crucial, since it must start
from the student's curiosity to promote their motivation and their disposition towards science.
The pedagogy for the scientific method focuses mainly on questions and assumptions about the
phenomena observed in the environment, from experiences through training in investigative
autonomy, which formalizes scientific skills in Higher Education. Algunos estudios
evidenciaron que los estudiantes entre cuatro y seis años demuestran competencias científicas
con determinados niveles de desarrollo al participar en proyectos interactivos con los recursos
naturales, un ejemplo claro es el cultivo de habilidades científicas, esto ha ocurrido tanto en la
educación básica como en la inclusiva utilizándose el análisis de la flora y fauna (Daphne, 2015;
Taylor et al., 2018). Sin embargo, en estas modalidades de aprendizaje, la curiosidad y actitud
exigen que el docente domine didácticas inclusivas e interculturales. That is, to know the origin
of the students and the resources with which they relate better. Other studies introduced the
educational project based on chemistry, to demonstrate how to promote scientific literacy to
awaken interest in materials and substances worthy of scientific study (Cahyono et al., 2016;
Rodríguez et al., 2015).
Some reports show that 40% of children develop a low level of learning in science, but
it is surprising to know that 0.6% developed tasks at a high level (UNESCO, 2016; OECD,
2016). The Local Management Unit of sector 04 (2014), located in the capital, reported that
36.8% of its students reach a low level in learning natural sciences and scientific argumentation,
only 2% obtained a satisfactory level . This implies certain weaknesses in all areas of
educational training, the need to adapt the curricular programming by integrating other areas
such as communication and mathematics, arises after the search to obtain achievements of
competences to autonomously develop inclusive scientific inquiry (Álvarez, 2015; Hardianti &
Kuswanto, 2017). In this context, we consider that scientific competences must be inclusive to
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integrate the use of reflective skills from mathematics and reading as well as analytical from
the area of communication.
Two important resources also play a role here: (a) educational games (b) the use of
technology (Al-Tarawneh, 2016; Cerda & Tineo, 2017; Izquierdo, 2016; Song & Kong, 2014).
Despite the fact that this requires economic investment and monitoring of resources, the use of
current didactics can significantly increase the possibilities of learning through projects such as
school planting, taking advantage of the land closest to the students in their own schools
(Cabrera, 2016; Kärkkäinen et al., 2016; Leibovitz et al., 2015; Marín & Santa, 2017; Ortega,
2017). Therefore, crops, in addition to increasing scientific skills, promote student
environmental attitudes; they also generate greater motivation to investigate natural elements
unknown to themselves.
The didactic method and scientific skills
Scientific skills are human reasoning skills or mental processes that support, analyze,
extrapolate, and empower scientific principles. The steps of the scientific method allow the
student to develop skills that facilitate the procedure to reach rational thinking, in order to solve
problems and reach the knowledge of the truth (Ramírez, 2010). In this regard, we can consider
the scientific method as a link between knowledge and the investigating subject; from its
didactic duality it integrates two meanings: (a) method (praxis), and (b) pedagogical approach
(theory). Therefore, they guide the teaching of science and the self-regulation of thought, before
these two processes the student examines and verifies the natural laws (Bayarre & Horsford,
2014; López, 2017).
The scientific method, developed in the teaching of elementary school children, implies
planning the execution of each scientific inquiry activity (Sanmartí & Márquez, 2017), although
the scientific inquiry that students carry out will depend on the time each proposed pedagogical
situation lasts. In other words, cognitive processing for the scientific method must be
accompanied by the necessary attitudes (interest, reflection, self-government) to keep the
cognitive skills involved in using scientific skills activated. Some structuring dimensions of
scientific competence are the skills for formulating problems, posing hypotheses, the moment
of testing and the presentation of results. The scientific knowledge acquired allows the student
to understand the phenomena that occur in their natural environment, so much so that they are
able to reflect on the methodical steps of the investigation. Science is a conglomerate of
knowledge, through which an attempt is made to give explanations and foundations to the
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phenomena of reality; in addition, it seeks to master the steps that explain the causes and effects
in natural phenomena.
The theory that Bruner raises about learning by discovery (cited in Soto & Navarro,
2005), corresponds to the constructivist model, which conceives learning as the construction of
knowledge, with the active cognitive process being responsible for the acquisition of learning.
In that sense, if we apply this concept to the development of scientific skills, the progressive
discovery of knowledge through trial-and-error experiments would allow reflection and
discernment before natural events given in nature or caused by it. In this case, the seeding
project can lay the foundations for acquiring the capacity for analysis and organization in the
pragmatic application of knowledge in reality.
Experience since the production of crops
Productive education from the school curriculum allows for benefits in the scientific
learning of schoolchildren (ANDECHA, 2015; Macedo, 2012; Ministry of National Education
of the Republic of Colombia, 2012). The importance of productive projects lies in the
complementation of formal education with productive work in the environment, so that it
integrates and opens the way for meaningful learning in the area of science. In this sense, it is
considered as the opportunity to involve different scientific experiences that also imply the use
of educational interculturality (FONDEP, 2015; Macedo, 2012). The projects from the
productive education from the pedagogical inclusiveness require the search for interrelations
between the students from Andean contexts, with knowledge of unknown regions for the capital
students.
This experience allows the students of the capital to transfer more common knowledge
in city life, since scientific pedagogical processes are generated in the search for the truth of
both contexts. Here, the proposal starts from the elaboration of intercultural crops, since it
guides the teaching as the construction of the student from different contexts and the guiding
teacher to encourage comprehensive education and productive work. In research, the
intercultural sowing project is a proposal aimed at strengthening the competencies and skills of
the scientific method in primary school students, through the cultivation of seeds of different
origin, direct experience with the environment (soil, air, water), it should be noted that
productive work also has favorable implications in the development of scientific socialization
through interaction between peers.
The study by Chávez (2018) exemplifies the model of this experience based on seed
sowing projects for the development of the scientific method. This allowed us to carry out an
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investigation with similar characteristics, including a larger sample quantity, since it was
interesting to try to validate their pedagogical processes involved in the development of science
at the school stage, considering the vulnerable context in a district of the capital, from Peru.
The hypothesis that emerged was: School scientific learning is increased through the
application of the seeding project in schoolchildren of a Child Care Complex.
Other studies that precede this experience (Leblebicioglu et al., 2017), report the work
of schoolchildren with samples of similar characteristics, in the immediate environment,
specifically with flora and fauna, outdoors and in camps, improving skills scientific studies, the
use of school methods in experimental science and attitudes towards their belief or investigative
determination, after including in their activities some methods of guided inquiry. On the other
hand, Martín & Santa (2017), involved the development of ecological spaces in the learning
programming of the scientific inquiry competence, as well as in the identification of natural
phenomena; therefore, the structuring and development of seedbeds also influenced student
environmental education.
Method
The research has a quantitative approach, pre-experimental design (Tamayo & Tamayo,
2015). The population was characterized by 1290 students from four Municipal Assistance
Centers located in Lima. They received classes by grades or by levels of attention (academic
cycles), which were homologated to the age characteristics required by the Ministry of
Education of Peru with respect to its regular basic education system. We included as part of the
sample 250 sixth grade students from a Child Care Complex of a district with social and
economic vulnerability located in Lima (male = 55%; female = 45%; M = 10.9 years of age).
The selection criteria allowed the integration of students from Andean regions with others from
institutions located in the capital of Peru, at the Children's Assistance Center. The empirical
origin caused the replication of similar studies developed in this context; we used the Skills
Test of the scientific method (PHMC) by Chávez (2018), which is a performance test with 36
polytomous-type items with an option of open responses.
Table 1
Cronbach's Alpha Index of the PHMC instrument
Component
Denomination
Variable
Competencies of the scientific method
Dimensions
Problem formulation
Statement of hypotheses
Testing moment
Results presentation
Source: Data base of Investigation
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The validity of the instrument was considered after obtaining agreements averaged
98.5% acceptance. This was declared by 10 experts in science and technology didactics from
schools and universities in the country. The reliability of the instrument corresponded to the
test-subtest correlation analysis higher than r = 8.98 (p <.001). Table 1 shows the Alpha index
of the instrument, which was considerable for our study.
Procedure
The Children's Assistance Center is an institute for the care of judicialized or abandoned
children from their parents. To achieve internalization in this context, the informed consent of
the tutors and coordinators responsible for this institution was requested, since they were the
representatives in charge of said student population. To start the research, 536 learning sessions
of the Sowing Project were consolidated based on the experience of intercultural sowing of
Chávez (2018). All pedagogical activities were based on Brunner's discovery work and J.
Dewey's proposals. The teachers applied the phases of the children's scientific method in four
didactic moments: (1) intercultural organization, (2) collaboration for analysis, (3)
experimentation, (4) scientific argumentation. The activities were adapted to the context of the
students in the Complete Child Care Center, in order to provide as much time as possible for
the development of scientific skills and their usual activities. An advantage of the development
of this project was that the boys and girls lived in the center, which facilitated a daily practice
of scientific activity in their own field, favoring in turn, in the interrelation of students with
different ethnic origin and cultural.
Moment 1: intercultural
Organization
Moment 2: collaboration for
analysis
Moment 3: experimentation
Moment 4: scientific argumentation
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Figure 1. Didactic moments of the seeding project.
Note: Exemplification from the use of the images located in Chávez (2018).
Figure 1 describes the steps for the teaching of the scientific method in students of the
Children's Assistance Complex in collaboration to achieve scientific skills. We were able to
homologate the seeding project to that of Chávez's intercultural seeding (2018). Our activities
had the use of 1800 resources for the activities: (a) stationery materials, (b) multimedia, (c)
organic compost, (d) cultivation tools, (e) seeds, (f) fruits, (g) natural seeds, (h) water, (i)
farmland; among others. The experience was developed during a year, being directed by the
pre-professional practice in Primary Education of a private university during the year 2019.
Finally, to assert the effectiveness of the project, dynamic activities were carried out that
aroused the interest of the students, as well as the theme it implied a good degree of theoretical
and practical content.
Results
The competence of the school scientific method
Regarding the hypothesis initially raised, it was corroborated that the seeding project
favored the competence of the scientific method in students of the sample, since in the
comparison of the pretest and posttest measurements, positive scores prevailed for this support
(W (+) = 38; Rp = 19.50; Sr = 741.00). In turn, the difference between both tests was significant
(Z = -5.221; p <.05). The differences are also located in figure 2, from which the increase greater
than 50% in the outstanding achievement is deduced, as well as the decrease greater than 30%
in the lowest level (without achievement).
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Figure 2. Percentages of the school scientific method.
Scientific method skills
The evidence of improvement established in Table 2 was also reflected in descriptive
results, presenting these results in the problem formulation dimension, with improvements in
35 % of all students who reached the outstanding learning level, 53 % at the level of of learning
achieved. In the hypothesis-setting dimension, 45 % reached an outstanding learning level; In
relation to the time of the test, 43 % reached the same level and 48 % achieved learning. Finally,
in the dimension presentation of results, 44 % reached outstanding learning and 34 % reached
the level of learning achieved.
Table 2
Pretest and posttest comparison in scientific method skills
Skills
Ranks
(n)
Average rank (sum of ranks)
Z
Sig.*
Problem
formulation
Negative
0
18,5 (666,00)
-5,252
,000
Positive
36
Ties
4
Statement of
hypotheses
Negative
0
19,0 (703,00)
-5,317
,000
Positive
37
Ties
3
Test moment
Negative
0
18,50 (666,00)
-5,247
,000
Positive
36
Ties
4
Results
presentation
Negative
0
15,10 (702,00)
-5,410
Positive
31
,000
Ties
9
Source: Research database.
Nota: *p <.001.
Regarding the indicators derived from the dimensions (table 2), the reports showed
important differences in the analysis of the context of the problem (M = 2.3; p <.005), and in
the analysis of the context of ideas or proposals (M = 2.5; p <.005). Regarding the classification
5%
37%
58%58%
22%
20%
0%
10%
20%
30%
40%
50%
60%
70%
Featured learning Learning achievement No achievement
Pre-test Pos-test
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of antecedents, causes and effects [relative to the hypothesis statement dimension], the
differences in the mean were low (M = 1.031), but they were significant (p <.005). We also
found differences in indicators such as the execution of experiments (M = 3.41; p <.005),
verification of beliefs (M = 2.49; p <.005) and causal experimentation (M = 3.4; p < .005).
Finally, regarding the dimension presentation of results, indicators such as verbalization of
responses (M = 2.51; p <.005) and critical comment (M = 3.47; p <.005), were the most
outstanding in the analysis.
Discussion
The findings found so far on the school scientific method showed significant differences
in the comparison of evaluation scores, these evidences being similar to that of Leibovitz et al.
(2015), who increased the knowledge, understanding and procedural skills through the analysis
and exploration that the experimental individuals carried out on marine biodiversity, so that the
work with the ecosystem and its particularities improve the process of the school scientific
method (Álvarez, 2015; Cabrera, 2016; Martín & Santa, 2017). These improvements were also
pronounced in the sample that we integrate, favored by the activities of analysis of the earth's
ecosystems and the use of seeds for the crops achieved in the productive projects that we
applied.
The investigative process was favored thanks to the participation in activities that led to
new scientific experiences, such as the experience with natural environments: compost,
gardens, orchards or other environments of nature. These activities were the causes of playful
incentives to acquire the scientific and exploratory attitude, the generation of curiosity in the
students who, with the adoption of a better perception of the specific phenomena, also learned
to establish their own position through scientific argumentation. Regarding this development,
Bruner's theory is accepted (cited in Soto & Navarro, 2005), from which scientific learning is
conceived as a construct that develops through experience, in intermediate processes in
classroom learning. Due to its experimental nature and autonomous construction, this allows
the student to direct their learning process to promote their findings through scientific
knowledge in a stage of writing in the stage of construction of results in the classroom.
Regarding the aspects of the scientific method, hypothesis statement and formulation of
the problem, the evidence of statistical improvement found was similar to that found by
Dejonckheere et al. (2016), who demonstrated that spontaneous play is an important didactic
method to assess children in understanding causal events (cause and effect) and understanding
scientific reasoning. Regarding the dimensions of the test moment and the presentation of
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results, some similarities were found that are still not clear with the study by Kärkkäinen et al.
(2016), who reported significant improvements in the interpretation of contextual situations, by
promoting such activity in a natural park, trying to obtain some progress in the observation and
description of problems in visits to natural landscapes of their research. Although these effects
have been similar, it has not yet been determined whether the effects on exploration, observation
and analysis have been due to the diversity of landscapes integrated in the experimentation,
which occurs in a similar way in the study we conducted. Although in the sowing project, we
implement different modalities, as well as different resources for a good harvest (seeds,
fertilizer), we do not evaluate the improvement of scientific skills longitudinally, perhaps to
achieve evidence of particular improvements with respect to unit activities or groups of
activities that sustain positive effects based on the variety of natural environments.
Certain similarities were found with other studies focused on environmental attitude as
a means to recognize and analyze problems in productive orchards through reasoning (Huamán
et al. 2015; Daphne, 2015), which confirmed the improvement in the development of
environmental attitudes in regarding the recognition and determination of the problems that
arise in their environment, through the implementation of productive bio-gardens. Regarding
the results on the hypothesis statement, test moment and presentation of results, these were
similar to the conclusions found in studies, in which the experimenters sought to generate
hypotheses in the student, contribute in their verification through formal scientific reasoning
and informal (Chen & She, 2015; Wu et al., 2016). Some studies managed, on the contrary, to
develop experimentation through the design of guided experiments under the domain that the
study presented (Asuad & Vázquez, 2014; Song & Kong, 2014), although in our research we
proposed another didactic format, rigorously scientific but with freedom in the development of
the scientific method applied by the students themselves. This reduced the obligation to follow
routes, which could skew part of our results by influencing more vertical activities with other
more liberating ones. The reason was due to the fact that science in the school environment is
not only aimed at research classes within the classroom, so we decided to avoid placing students
in contexts in which the applied research schemes would be intuited, this allowed to obey to
Brunner's approach to discovery learning.
The limitations of the study were related to the sample, since economic difficulties did
not allow finding significant differences that could be extended to two larger populations such
as the regional or provincial one. In turn, another of the limitations presented was oriented in
not having access to a control sample, which limited to obtain better indications about its
effectiveness under comparisons from the start of the study.
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Conclusions
As a first response to our objective and hypothesis, it was shown that the learning of
scientific method skills as part of school scientific learning, improved due to the differences
found between the scores of the pretest and posttest measurements were, being significant. Here
it is worth adding that once the activities of the seeding project were developed, the skills such
as the exploration of information, hypothesis and contrast that are born in the scientific process
appeared in this group from the didactic interaction to which we subjected among students of
the Children's Assistance Center and those that came from different Andean origins. The
mechanisms to improve the sowing from the beginning of its plantation, allowed developing
the capacity of inquiry, observation, contrast and analysis in the experimental group, although
the questions in the knowledge generated by the hypotheses caused in student interrelations
remaining open, which can be important empirical options for purely experimental
methodological studies. The increase in the general scores in the subsequent measurement,
allowed demonstrating the improvement of the dimensions; many of the subjects of the
experimentation learned to understand certain scientific situations, establish theoretical
relationships to reality, question the phenomena of the activity, propose explanations based on
assumptions and argue the hypotheses according to convergent or divergent scientific
knowledge.
Finally, we can conclude that the strategies (1) intercultural organization, (2)
collaboration for analysis, (3) experimentation, (4) scientific argumentation, allowed students
to develop the skills they acquired in school, but also adopted the of their peers with proficiency
styles applied during sessions that involved cognitive interaction. In this sense, they developed
cognitive tools to guide themselves in the execution of the school scientific method, without
having to be individualistic. This allowed to conclude that the consequences of the execution
of science also improves learning as well as their own academic attitudes towards research at
an early age.
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