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Development of an integrated model of natural science practicum based on the daily science project to embed 21st century skills in junior high schools

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Journal of Physics: Conference Series
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Development of an integrated model of natural science practicum based
on the daily science project to embed 21st century skills in junior high
schools
To cite this article: M Taufiq et al 2019 J. Phys.: Conf. Ser. 1321 032105
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5th ICMSE2018
Journal of Physics: Conference Series 1321 (2019) 032105
IOP Publishing
doi:10.1088/1742-6596/1321/3/032105
1
Development of an integrated model of natural science
practicum based on the daily science project to embed 21st
century skills in junior high schools
Abstract. The study aims to develop an integrated model of science practicum based on daily
science projectto embed 21st century skills in junior high schools (SMP). The 21st century skills
are 21st century skills that must be embeded to students consist of creativity and innovation,
criticalthinking and problemsolving, and communication. To achieve the objectives, research
and development (R and D) was carried out with ADDIE design (Analysis-Design-Develop-
Implement-Evaluate).Integrated model of natural science practicum based on the daily science
project has been developed and valid to applied in junior high schools. The implementation of
integrated model of natural science practicum based on the daily science project using IDEA
(Identification, Develop, Evaluate, Aplied)syntax valid and able to embed 21st century skills of
junior high school students.
1. Introduction
Although the era of disruption and industrial revolution 4.0 provided a number of impacts on the world
of education and Natural Sciences (IPA), the role of educators has never been replaced. For this reason,
an educator must continue to improve competence and see challenges as opportunities. An educator
must master, not be controlled by progress. Therefore increasing the competence of educators is an
absolute thing to do, in addition to the role to earth science in accordance with the context and in line
with the progress of the times.
At present there are many problems that cannot be solved by relying on only one scientific study,
such as physics or biology, but must study through various fields of science or interdisciplinary. The
study of various sciences in science, such as physics, chemistry, biology, is called integrated science,
and learning is called integrated science learning [1]. In addition to integrated learning, some experts
call it in other terms, such as interdisciplinary, multidisciplinary, trans-disciplinary, cross-disciplinary,
thematic [2].
As an effort to anticipate the needs needed by students to solve problems in daily life that tend to be
increasingly complex, some experts recommend the development of integrated science learning [3][4].
In this case, the Indonesian government also tried to begin to implement it through government
regulations on the Content Standards for the Primary and Secondary Education Unit, which mandated
integration between IPA substances (biology, physics, and chemistry), even with the environment,
technology and society. The 2013 curriculum also emphasizes thematic and integrated learning in
elementary and junior high schools.
Although integrated science learning has been mandated by the curriculum to be applied, but in
reality it cannot be implemented properly, especially in practical activities there is no integrated model.
M Taufiq*, E N Savitri, N R Dewi and I Nadia
Natural Science Education, Faculty of Mathematics and Natural Sciences, Universitas
Negeri Semarang, Indonesia
*Corresponding author: muhamadtaufiq@mail.unnes.ac.id
5th ICMSE2018
Journal of Physics: Conference Series 1321 (2019) 032105
IOP Publishing
doi:10.1088/1742-6596/1321/3/032105
2
This is due to at least the lack of examples of variations in the material analysis model of the material
to be learned, because it is not available either in the policy regulations that have been issued by the
government.
Science is not just knowledge, but also discovery and inquiry processes to get that knowledge. The
process of gaining knowledge in science applies a paradigm that has a normative order such as
objectivity and honesty, and training sensitivity to the environment situation. Learning science is
essentially developing science process skills, thus basic skills such as making observations, formulating
problems and hypotheses, designing and carrying out experiments, collecting and analyzing data are
part of science learning activities. Science is an application of an understanding of things that are
unknown or new situations [5].
Science is indeed not just a collection of knowledge, but also a process of discovery and how to apply
that knowledge to real life. Science learning should not only transfer knowledge from teachers to
students, but also direct students to interact, explore nature to build science knowledge and get used to
scientific work. One way to facilitate this is practicum activities [6].
Scientific work habits, which begin with the exploration of problems around their lives (daily science
project), are expected to foster thinking habits in solving everyday problems or contextual problems
[7][8][9]. If the habit has grown in students, science learning can be said to be successful, ie students
learn to be like a scientist (learning to be a scientist). This study aims to theoretically analyze the basic
principles of integration of science lab materials, formulate designs and test the validity of the science
science integration model based on a daily science project oriented to 21st century skills in junior high
schools.
2. Methods
To achieve the stated objectives, research and development (R and D) was carried out with ADDIE
design (Analysis-Design-Develop-Implement-Evaluate) [10][11]. The subjects of this study were
teachers and students of junior high school in two public and private schools in the city of Semarang,
Central Java, Indonesia. In the first stage a curriculum analysis was carried out to identify the SMP
Science practicum materials that made it possible to be integrated with each other so that at the end of
this stage the theme of the science material was determined which enabled the integration of the material.
In the second stage, developing a model integrating science practice material that had been established
by its integrated model of natural science practicum based on the daily science projectto embed 21st
century skills in junior high schools. In the third stage implementation is a trial that was conducted to
test the validity of the integrated model of natural science practicum based on the daily science projectto
embed 21st century skills in junior high school. In the fifth stage an evalution model through FGD
(Focus Group Discussion) activities.
3. Results and Discussion
This research and development was carried out according to the ADDIE model which stands for
Analysis, Design, Development or Production, Implementation and Evaluations. In the analysis of its
main activities, namely analyzing the need for the development of integrated model of natural science
practicum based on the daily science projectto embed 21st century skills and analyzing the feasibility
and development requirements. The development of integrated model of natural science practicum based
on the daily science projectto embed 21st century skills was initiated by the existence of problems in the
model of integrating the material that had been applied previously, namely planning, aplying, and
evaluating. The problem of the existing model can occur because the model of integrated science
practice applied by the teacher and the previous group of teachers is not relevant to the needs of the
target, the learning environment, technology, and characteristics of the students.
After analyzing the problem, it is necessary to develop a model of integrated science practice that
can answer existing problems. The researcher also analyzed the feasibility and requirements for
developing the integrated science practice model. The analysis process was carried out by developing
expert validation instruments to answer the following questions: (1) whether the integrated model of
natural science practicum based on the daily science projectto embed 21st century skills was able to
5th ICMSE2018
Journal of Physics: Conference Series 1321 (2019) 032105
IOP Publishing
doi:10.1088/1742-6596/1321/3/032105
3
overcome the learning problems faced, (2) whether the integrated model of natural science practicum
based on the daily science projectto embed 21st century skills get facility support to be implemented;
(3) whether the lecturer or teacher is able to apply theintegrated model of natural science practicum
based on the daily science projectto embed 21st century skills. Analysis of the model of integrated model
of natural science practicum based on the daily science projectto embed 21st century skills needs to be
done to determine the feasibility if the learning method is applied.
In the design phase of the integrated model of natural science practicum based on the daily science
projectto embed 21st century skills, the design phase has similarities to designing teaching and learning
activities with inquiry-based experimental methods. The characteristics of inquiry learning model
issuitable if applied to the concept or active material that allows students to analyze and solve problems
systematically [12]. The activity of developing a design starts from setting learning objectives, designing
scenarios or science practicum activities, designing learning devices, designing learning materials and
learning outcome evaluation tools. The design integrated model of natural science practicum based on
the daily science projectto embed 21st century skills is conceptual and becomes a further development
process. The design developed by the researcher as the syntax of implementing the IPA practice
integrated model of natural science practicum based on the daily science projectto embed 21st century
skills namely Identification, Develop, Evaluate, Aplied (IDEA).
Figure 1. IDEA syntax ofintegrated model of natural science practicum based on the daily science
projectto embed 21st century skills
The development stage was carried out by the realization of product design integrated model of
natural science practicum based on the daily science projectto embed 21st century skills with IDEA
syntax. At the design stage, a conceptual framework for the application of integrated model of natural
science practicum based on the daily science projectto embed 21st century skills with the IDEAsyntax.
At this stage of development a learning device has been prepared with syntax in the form of lesson plans,
integrated science materials, integrated science worksheets, media, tools and integrated science practice
materials.
At the stage of implementation the design and methods that have been developed in real situations,
namely in the classroom or in the laboratory. During implementation, integrated model of natural science
practicum based on the daily science projectto embed 21st century skills that have been developed was
applied to the actual conditions. Practical activities carried out in accordance with the integrated model
of natural science practicum based on the daily science projectto embed 21st century skills that have
been developed. After the application of the method, an initial evaluation was conducted to provide
feedback on the application of integrated model of natural science practicum based on the daily science
projectto embed 21st century skills.
Evaluation is carried out in two formative and summative forms. Formative evaluation is carried out
at the end of each meeting/ course (weekly) while summative evaluation is carried out after the activity
ends in its entirety (semester). Summative evaluation measures the final competency of the learning
objectives to be achieved. The evaluation results are used to provide feedback to the users of the model.
Revisions are made in accordance with the results of evaluations or needs that cannot be met by
integrated model of natural science practicum based on the daily science projectto embed 21st century
skills, namely teachers or science lecturers.
Based on the results of the analysis (A) and design (D)stage, indicated that the daily science project-
based science practicum integration model in junior high school was designed valid and able to (1)
overcome the learning problems faced; (2) gets the support of facilities to be applied; and (3) whether
Identification (I)
Develop
(D)
Aplied (A)
Evaluate
(E)
5th ICMSE2018
Journal of Physics: Conference Series 1321 (2019) 032105
IOP Publishing
doi:10.1088/1742-6596/1321/3/032105
4
the lecturer or teacher is able to apply IDEA as a integrated model of natural science practicum based
on the daily science project to embed 21st century skills. In the third stage develop (D)was carried out
and the results arelearning devices were made with a model of integrated science practice based on a
daily science project oriented to 21st century skills in the form of lesson plans, integrated science
materials, integrated science worksheets, media, tools and materials for integrated science practice.
Based on the implementation (I)were found that the integration model of daily science project-based
science practicum was valid and effectively applied in junior high schools. It was concluded that the
integrated model of natural science practicum based on the daily science projectto embed 21st century
skills in junior high schools.Through practical activities students are required to actively participate and
work in groups, so that practicum activities can increase the active role and ability to cooperate with
students in the learning process. Practical activities also make learning more meaningful because
students are involved in the learning process and gain hands-on experience. Practicum will be carried
out efficiently and effectively if available supporting facilities and infrastructure such as laboratories,
student practicum guides, tools, materials, and the time needed must be available properly and
adequately. Students in practical activities need to be given instructions to facilitate students in
conducting experiments [13].
The integrated model of natural science practicum based on the daily science project allows students
to broaden their knowledge horizons from learning. Knowledge gained becomes more meaningful and
learning activities become more interesting, because knowledge is useful for him to better appreciate
his environment, better understand and solve problems faced in everyday life. Thus it can be said that
the integrated model of natural science based on the daily relevant science project involves the
environmental aspects where students are and learns by involving the creativity and innovation that is
in students. Creativity and innovation can also be seen as a process used when an individual brings or
raises a new idea. The new idea is a combination of previous ideas that have never been realized. A
creative person starts from curiosity, often observes, and can solve problems so that ideas that are present
in him and produce something new [14] [15].
The integrated model of natural science practice based on the daily science project allows students
to communicate well in writing through lab reports and communication communication through the
presentation of results. When compiling a practicum report students are honed in their ability to examine,
analyze, interpret, evaluate evidence, critical thinking and problem solving. Students also learn to
manage the abundant flow of information so that they can have the ability to choose relevant sources
and information, find quality sources and assess sources of objectivity, reliability and proficiency. The
integrated model of natural science practice based on the daily science project issuitable if applied to
the concept or active material that allows students to analyze and solve problems systematically. The
implementation of integrated model of natural science practicum based on the daily science project using
IDEA (Identification, Develop, Evaluate, Aplied)syntax is valid and able to embed creativity and
innovation, criticalthinking and problemsolving, and communication of the students.
4. Conclusion
Integrated model of natural science practicum based on the daily science project has been developed
and valid to applied in junior high schools.The implementation of integrated model of natural science
practicum based on the daily science project using IDEA (Identification, Develop, Evaluate,
Aplied)syntax is valid and able to embed 21st century skills of junior high school students.
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Journal of Physics: Conference Series 1321 (2019) 032105
IOP Publishing
doi:10.1088/1742-6596/1321/3/032105
5
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  • D Oludipe
Oludipe D I 2011 J. Soil Sci. Environ. Manag. 2 (8) 134
  • Kurt K Pehlivan
Kurt K and Pehlivan M 2013 Int. J. Educ. inMathematics Sci. Technol, 1(2) 116
  • J T Ajai
  • B Imoko
Ajai J T, Imoko B I and O'kwu E I 2013 J. Educ. Pract., 5 (1) 131
  • P Rizki
  • Disman
Rizki P and Disman 2017 J. Elem. Educ, 1 (1) 109
  • F Angela
Angela F 2017 Aust. J. Teach. Educ, 41 (40) 63
  • A Broks
Broks A 2016 J. Balt. Sci. Educ, 15 (4) 408