Ethnoscientific Reconstruction of Wonosobo District on the Concepts
of Temperature and Heat
Ahmad Khoiri, Kurniawati Mutmainah, Marwiati, Achmad Affandi,
Nurma Khusna Khanifa, Dewi Candra Resmi and Indrawati Aris Tyiarini
Universitas Sains Alqur an, Central Java in Wonosobo, 56351, Indonesia
Keywords: Learning, Students, Society’s, Science.
Abstract: Students have not fully understood the reconstruction of society's original science as a source of science
learning. The research aims to analyze the reconstruction of original science into scientific science based on
the concepts of temperature and heat. Interdisciplinary basic research methods use a qualitative descriptive
approach, data collection techniques use observation, local wisdom, Wonosobo Regency, Central Java
Province, and documentation. Qualitative descriptive analysis techniques use local wisdom exploration
patterns. The research results show that science reconstruction can provide opportunities for students to think
through recognizing issues that are developing in society and turning them into scientific knowledge.
Ethnoscientific reconstruction in Wonosobo Regency includes: 1) In the dreadlock hair ruwatan tradition there
is a scientific concept regarding measuring body temperature; 2) Dieng plateau house roofs using zinc can
explain thermal conductivity; 3) The dew phenomenon identifies changes in the form of objects; 4) The
endemic Carica tree expresses the air pressure and temperature conditions of the highlands; 5) Pranotomongso
agricultural system in explaining the concept of factors that influence environmental temperature; 6) Sikidang
Crater shows heat transfer by convection. Science reconstruction training equips students' character to
respond to the environment.
1 INTRODUCTION
Human Resource Development is the focus of the
21st-century learning process. Advances in science
and technology and the presence of the Industrial
Revolution 4.0 era have made the flow of information
and globalization increasingly unstoppable. When the
younger generation, especially junior high school
students, are not capable enough to adapt and have
strong character, they will easily be carried away by
the negative currents of this era of disruption (Kahfi
& Binamadani, 2023; Rusnaini, Raharjo,
Suryaningsih, & Noventari, 2021) So, it is important
to strengthen the character from the grassroots
regarding values that reflect the manners and culture
of the Indonesian nation, namely as reflected in
Pancasila.
The importance of improving thinking skills and
character through opportunities for students to
discover concepts will be easier when the learning
resources presented are directly close to their lives,
namely through scientific reconstruction included in
the ethnoscience approach (Khoiri, 2021) in addition
to ethnoscience learning resources which must
consider the challenges of the century. 21. Respect for
regional culture and traditions is an important factor
in why an ethnoscience approach is used (Arlianovita,
Setiawan, & Sudibyo, 2015; Fitriani, 2016);
Vitasurya, 2016) Learning activities through
scientific reconstruction are assumed to be able to
empower students' skills in scientific thinking
activities that can realize national character.
Strengthening the results of research on scientific
reconstruction can develop students' appreciation in
the form of appreciation for the potential of their
region and having science process skills, improve
student learning achievement (Okwara & Upu, 2017)
and develop scientific knowledge (Sudarmin &
Sumarni, 2018); Widodo, 2012) through a strategy of
developing science issues in society will be more
effective in constructing science (Amelia, Jumini, &
Khoiri, 2021;) and can foster an attitude of concern
for the environment, maintaining community
traditions and culture. This issue is very appropriate
74
Khoiri, A., Mutmainah, K., Marwiati, , Affandi, A., Khanifa, N. K., Resmi, D. C. and Tyiarini, I. A.
Ethnoscientific Reconstruction of Wonosobo District on the Concepts of Temperature and Heat.
DOI: 10.5220/0013452000004654
In Proceedings of the 4th International Conference on Humanities Education, Law, and Social Science (ICHELS 2024), pages 74-82
ISBN: 978-989-758-752-8
Copyright © 2025 by Paper published under CC license (CC BY-NC-ND 4.0)
to apply to schools that have their local
characteristics.
Based on interdisciplinary problems, it is
important to study efforts to reconstruct science into
scientific knowledge by exploring societal issues to
equip students with thinking skills and character.
2 METHODS
This type of qualitative research with a descriptive
pattern is used to describe and explore the local
wisdom of Wonosobo Regency, Central Java
Province, Indonesia. The data collection method uses
local wisdom observations according to the theme of
physics material, namely the concept of temperature
and heat. Furthermore, the documentation method is
used to provide strengthening data sources and
evidence of scientific research activities. The data
analysis technique uses inductive-deductive to
provide a comprehensive general overview of issues
developing in society, scientific knowledge, and
learning resources.
3 RESULT AND DISCUSSION
Research (Rostikawati & Permanasari, 2016) on the
reconstruction of science using a socioscientific
issues approach in increasing scientific literacy has
proven to be effective through science learning.
Furthermore, research results from (Supriyadi,
Haeruddin, & Nurjannah, 2016) show that there is a
higher difference in the results of the ability to solve
physics problems between ethnoscience-based causal
reasoning models compared to modern science
because the culture inherent in society provides more
real physics learning resource references in
understanding the problems being studied. Through
science. Similarities examine ethnoscience
approaches, while differences relate to problem-
solving skills. The results of research (Fitria &
Wisudawati, 2018) The Development of
Ethnoscience-Based Chemical Enrichment Book as a
Science Literacy Source of Students aims to
determine the characteristics of teaching materials
using an ethnoscience approach that was developed to
increase students' scientific literacy by introducing
Jogjakarta culture or customs such as Batik varieties.
Jogja, Shadow Puppetry, and Mount Merapi are used
as learning resources to transform original science
into scientific studies by utilizing regional culture to
improve cognitive, affective, and psychomotor
abilities (Fitria & Wisudawati, 2018).
3.1 Ethnoscience Approach and
Reconstruction of Science
Ethnoscience or Ethnoscience comes from two
words, namely "ethnos" meaning nation and the word
"Sciententia" meaning knowledge (Kertiasih, 2018).
The ethnoscience approach is a strategy for creating a
learning environment and designing learning
experiences that integrate culture as part of the
learning process.
The role of ethnoscience in reconstructing as
contextual learning provides students with an
understanding of science and can be implemented in
real life. Integration of students with the environment
can be realized when learning is oriented towards the
surrounding environment which is studied
meaningfully. So that students can make reciprocal
relationships with the surrounding environment (Lia,
2016) students are able to recognize and understand
the local potential of their region, so regional
environmental sustainability becomes an important
factor in learning with ethnoscience. HOTs are very
difficult to identify in a short time because they are
not immediate, but they can be identified through a
series of activities that define the HOTs themselves.
The activity in question is a habitual activity of
thinking, saying, and acting with all behavior that can
change for the better through learning activities on the
Student Activity Sheet. All learning activities are
carried out to train students' habits of exploring
higher-level thinking skills.
Characteristics of the ethnoscience approach in
constructing as a form of strategy and design of
learning experiences by creating an integrated
environment of culture and tradition in the learning
process (Parmin & Fibriana, 2019; Parmin,
Nuangchalerm, & El Islami, 2019). The results of
human creativity and initiative developed as original
knowledge (independent science) and can be
transformed into formal science. The term
ethnoscience can be studied in traditional ecological,
original science (Indigenous Science), local culture,
and local wisdom (Agussuryani, Sumarni, Subali, &
Saptono, 2020).
Learning from the culture and traditions
surrounding students' lives is much more meaningful
and easier for students to analyze than studying
abstractly. Ethnoscience is presented in community
activities which are important to study to maintain
culture in the era of modernization. Students become
more aware of the culture and traditions of the
community, and students feel part of community life,
so students will care more about their own culture.
This is confirmed by research (Parmin & Fibriana,
Ethnoscientific Reconstruction of Wonosobo District on the Concepts of Temperature and Heat
75
2019) showing that ethnoscience maintains students'
awareness of their culture and potential and fosters
learning independence.
The highest category of reconstruction efforts is
in the Potential Scientist Student (PS) category where
students can easily learn science because it is directly
related to students' lives. In the lowest category,
Inside Outsider (IOS), students feel discrimination or
alienation from the culture studied in scientific
science. The categorization is considered difficult to
develop because students cannot get out of their zone.
Meaningfulness and cultural isolation are
determining factors in exploring environmental
learning resources using an ethnoscience approach.
Knowledge will be transformed by describing based
on experience, verification, and data reduction to
complete concepts into scientific knowledge. The
boundaries of students' thinking as a reconstruction
effort are categorized into five groups.
3.2 Relevance Reconstruction of
Original Science to Physics
Concepts
Based on scientific reconstruction research on
local wisdom in Wonosobo Regency, Central Java
Province, Indonesia which can be studied through the
concepts of temperature and heat.
3.2.1 Dreadlock Ruwat Tradition
Social issues that are developing in the Dieng Plateau,
Wonosobo Regency, Central Java Province, which
not only contain beauty but also the mystery of the
dreadlocked boy who appears every now and then, the
Dreadlocked Boy is said to be the incarnation of Kyai
Kolodete and Nini Roro Ronce. Dreadlocks appear as
a sign that the child is suffering from a fever so the
child's dreadlocks can be cut, a Ruwatan must be
done, and the hair-cutting ritual must be followed.
Cutting children's dreadlocks is done using water
taken from Sendang Sedayu located in the corner of
the Dharmasala complex. After Dharmasala, the
children carried by their parents entered Arjuna
Temple. The temple complex has prepared a place for
the dreadlock hair-cutting procession. The procession
was led by the Dieng traditional elder, Mbah
Sumanto, before having their hair cut, the children
had asked for something that had to be realized at the
time of shaving their hair, and the public was
informed about each child's request.
The procession begins with the singing of the
Dandanggula macapat song, the child's dreadlocks
are cut. Initially, the person who started shaving hair
was a traditional elder, namely Mbah Sumanto. The
hair that has been cut is put into a barrel. The hair that
has been cut is then thrown into the river that flows to
the Indian Ocean. Usually, the place used for banning
is Telaga Warna. The dreadlocks "Larung"
procession is the final part of dreadlocks-cutting ritual
which is presented in Figure 1.
Based on Figure 1 Dreadlocks grow in children
aged one to five years. When dreadlocks first appear,
there are signs that the child's body temperature is
high, some are even accompanied by convulsions. It
is said that children can recover from heat after
dreadlock growth is complete. An explanation of
ethnoscience and its integration with physics
concepts is presented in Table 1.
3.2.2 Dieng Plateau Traditional House
Social issues regarding traditional Dieng Plateau
houses located in Kejajar and Patak Banteng Villages,
Dieng, Wonosobo are presented in Figure 2.
Figure 2 shows that traditional houses in the
Dieng High Mountains appear lower than houses in
general, with a height of no more than 2.5 meters,
which has a purposeless meaning. Houses with low
roofs and roofing materials using zinc, although a
small number of houses use tile roofs. The aim of
low-roof houses in scientific studies is to retain heat
for longer, considering the extreme cold
environmental conditions, so that with low-roof
houses it will last longer to store heat in the rooms of
the house. Zinc roofing material shows that the
thermal conductivity of the material is very different
for each substance, zinc can absorb heat more quickly
Figure 1: Dreadlock Ruwat Tradition (Source: Dieng Culture Festival).
ICHELS 2024 - The International Conference on Humanities Education, Law, and Social Science
76
Table 1: Identification of the original science of the dreadlocks ruwatan tradition and its relationship to physics concepts.
Issues The ori
g
inal science of societ
y
Ph
y
sics Content
dreadlocks
ruwatan tradition
The dreadlocked boy is said to be the incarnation of Kyai Kolodete
and Nini Roro Ronce
Temperature
measuring instrument,
thermometer
Starting with a fever or high fever
For a boy's dreadlocks to be cut, he must perform Ruwatan and
follow the hai
r
-cutting ritual
The concept of
temperature of objects
in liquids
Cutting children's dreadlocks is done using water taken from
Sendan
g
Seda
y
u. It is in the corner of the Dharmasala com
p
lex
The procession was led by Dieng traditional elders. Before having
their hair cut, the children had asked for something that had to be
realized when shaving their hai
r
Heat transfer by
convection
The procession begins with the singing of the Dandanggula macapat
son
g
, the child's dreadlocks are cut
The hair that has been cut is put into a barrel. The hair that has been
cut will then be thrown into the river that flows into the Indian Ocean.
Usually, the place used for banning is Telaga Warna
Figure 2: Dieng traditional house (personal documentation)
Table 2: Identification of the original science of traditional Dieng Plateau traditional houses and their relationship to physics
concepts.
Issues The original science of society Physics Content
Dieng Plateau
Traditional House
Most houses on the Dieng plateau use tin roofs Heat transfer
The height of the house is no more than 2.5 meters,
which means it is lower than a normal house
The volume of a room that
is affected by heat
The walls of the house use wood instead of walls The conductivity of an
ob
j
ect's material
than roof tiles or other materials. The process of heat
absorption occurs when heat is transferred from
outside to inside the room by radiation. The
relationship between ethnoscience and physics
concepts in traditional Dieng Plateau traditional
houses is presented in Table 2.
3.2.3 Upas Dew Phenomenon
Another social issue that is developing in the
Wonosobo community, specifically in the Tambi
Plantation area, Kejajar, Wonosobo is presented in
Figure 3.
Ethnoscientific Reconstruction of Wonosobo District on the Concepts of Temperature and Heat
77
Figure 3: Upas Dew Phenomenon (personal documentation).
Table 3: Identify the original science of the Dew Upas phenomenon and its relationship to physics concepts.
Issues The original science of society Physics Content
Upas Dew
Phenomenon
Dew is a condensation event that changes the form
of an object
Changes in the form of
objects due to heat
The extreme conditions of Dew Upas are part of a
weather anomaly
Freezing point of a liquid
The Upas Dew event is a change in state from gas to
solid and liquid
Conversion of object
temperature
Figure 3 shows the meteorological conditions and
the ongoing dry season. The phenomenon of cold
temperatures at night and Dew Upas on the Dieng
Plateau, Wonosobo is caused by meteorological
conditions and the changing of the dry season which
cannot be predicted with certainty. The peak dry
conditions that occur will cause several areas of the
Dieng Plateau to have the opportunity to experience
air conditions that are less than the freezing point
(0
0
C) because air molecules in mountainous areas are
more tenuous than in lowland areas.
Some places located in the mountains at a certain
altitude (1500-3000 meters above sea level) will have
the opportunity to experience surface air conditions
that are less than the freezing point of 0°C. Upas dew
which begins with the condensation process changes
form to become a solid and then melts if the weather
conditions in the area increase in temperature, this is
because the air molecules in mountainous areas are
more tenuous than in the lowlands so they cool very
quickly, especially when the weather is sunny. Not
covered by clouds or rain.
Water vapor in the air at night will experience
condensation which will condense, sticking to the
ground, leaves, or grass. "Water vapor in the air will
condensate at night and then condense to fall on the
ground, leaves or grass." The dew that sticks to the
shoots will immediately freeze because the air
temperature is very cold. These conditions are
relatively fluctuating as presented in Table 3.
The effects of Upas Dew are especially troubling
for farmers in Dieng, such as potato farmers, who are
worried that they will experience crop failure because
it damages the leaves and stems of plants. Based on
social issues, Dew Upas can be integrated into
discovery-oriented learning, giving rise to many
alternative answers and ways of solving problems,
environmental problems are very complex, allowing
students to find creative solutions. Local potential
which is part of the ethnoscience approach to learning
is used as a concrete learning resource to analyze the
environment, making students more active and
appreciative of the potential of their region. Local
wisdom is part of ethnoscience which is the result of
cultural
heritage from ancestors and can increase
ICHELS 2024 - The International Conference on Humanities Education, Law, and Social Science
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Figure 4: Endemic Carica Tree (personal documentation).
students' understanding of concepts assisted by an
ethnoscience approach which has been proven to be
able to develop indigenous knowledge in a
community that is studied through formal science as
a learning study.
3.2.4 Endemic Carica Tree
The endemic Carica tree (Carica pubescens) is a
social issue in the Dieng Plateau, usually along the
road to Dieng there are Carica trees. Dieng is a
highland area located on the island of Java with a land
height of up to 2400 meters above sea level. The fruit
that can only grow in low-temperature areas is carica
fruit (Carica pubescens). Carica plants are endemic
plants because they can only grow at a height above
sea level. Study of the Carica plant which only lives
on the Dieng plateau, a unique event that can be
studied is presented in Figure 4.
Figure 4 shows the learning resources studied to
explore students' creative thinking skills through an
analysis of the surrounding environment in the Dieng
plateau with several questions arising about "Why
only in the Dieng plateau can Carica trees bear fruit".
Students are required to study the height of the plains
using the concept of Braak Theory. Air temperature
in various regions is not the same, because it is
influenced by several factors which are explained
through Braak's Theory. The height of a place on the
earth's surface influences the high and low
temperatures and pressure of an area, the higher an
area, the lower the air temperature will be. Every time
the ground height rises by 100m, there will be a
decrease of 0.61°C. The rate of decrease in air
temperature with height follows two concepts,
namely dry adiabatic and wet adiabatic. The dry
adiabatic concept means that air is considered dry
without water vapor, where for every 100 m increase
in height the air temperature will decrease by 1°C. For
every 100 m in height the air temperature will rise by
1°C, mathematically it can be formulated as follows:
t
x
: 26,3°C (1)
Information:
t
x
: air temperature at altitude (°C)
26.3°C : air temperature at sea level
H : Height of the place (m)
Social issues in the Dieng Plateau with an altitude
of 2400 meters above sea level. Carica trees (Carica
pubescens) can grow and bear Carica fruit, but if the
Carica tree is planted in a different place it will
generally only bear papaya fruit. Facts show that the
Carica tree cannot grow just anywhere, so it can be
called an endemic plant with a height criterion of ±
1500-3000 meters above sea level.
The Carica tree which only lives on the Dieng
plateau, is a unique event that can be studied through
Braak's theory. The results of the research determined
three sample villages in the Dieng Plateau area based
on regional altitude. Garung Village with an altitude
of 1019 meters above sea level (Zone 1) produces a
temperature of 22.3°C, Kejajar Village's altitude of
1379 meters above sea level (Zone 2) produces a
temperature of 20.1°C and Dieng Village's altitude
(Zone 3) is 2306 meters above sea level 14.0°C
(Khoiri & Sunarno, 2019). The results of different
temperature conditions show that the higher the area,
the lower the surrounding temperature, so the Carica
tree only lives in the Dieng area, Wonosobo. Based
on the social environmental issue of the Carica Tree,
the temperature is a measure of how hot or cold a
system.
Ethnoscience as a form of strategy for creating
and
designing a learning environment that integrates
Ethnoscientific Reconstruction of Wonosobo District on the Concepts of Temperature and Heat
79
Table 4: Identification of the original science of the endemic Carica tree (Carica pubescens) and its relationship to physics
concepts.
Issues The original science of society Physics Content
Endemic Carica
Tree
Carica is an endemic tree because it can only grow
at a height above sea level.
Air pressure and
temperature
Carica will turn into ordinary papaya if the specific
tem
p
erature is not met.
Carica is used by native people as candied carica, a
t
yp
ical Wonosobo food.
Figure 5: Pranotomongso System Agriculture (personal documentation).
community culture through the endemic Carica tree
which only lives in the Dieng Plateau is studied using
the concept of Braak's theory. Even though it has been
proven to be good to apply, ethnoscience-based
learning is still very rarely done in Indonesia.
Knowledge about how much ethnoscience learning
influences creative thinking abilities, and the
processes of implementing ethnoscience in learning
through identifying native science of the endemic
Carica tree are presented in Table 4.
3.2.5 Pranotomongso System Agriculture
Climate deviation is a natural problem that humans
cannot avoid due to their actions. The climate changes
that are felt on Earth have an impact on nature and
human activities. The striking temperature deviation
called global warming has a strong influence on the
climate in Indonesia. Reduced rainfall and long dry
seasons are direct impacts that can trigger problems
in the agricultural sector. The occurrence of global
warming has an impact on the prolonged dry season,
making it difficult for farmers to predict rain using the
Pranotomongso calendar.
The natural situation is increasingly unbalanced,
the climate can no longer be predicted using natural
signs. Humans prefer a modern lifestyle which is
unfriendly to nature, causing further damage to the
environment. Modernity, besides being able to cause
seasonal changes, causes the disappearance of a
cultural richness that has long supported and guided
Javanese farmers in farming, as presented in Figure 5.
Figure 5 is a portrait of agriculture in the Dieng
Plateau. The disappearance of Pranotomongso was
lost to time because Dieng farmers used modern
systems to cultivate their plantations. Farmers do not
realize that the use of chemical fertilizers and modern
agricultural equipment is not environmentally
friendly, which has an impact on soil fertility and
damages the ecosystem. Agricultural activities using
fuel-based tools produce various waste products, one
of which is gas. Farmers think the gas just disappears,
and the atmosphere can absorb it indefinitely and not
have a bad impact on life. Exhaust gases can cause
fundamental changes in the atmosphere and living
conditions on earth, as presented in Table 5.
3.2.6 Sikidang Crateris
Another social issue at the Dieng tourist location,
precisely in Dieng Kulon Village, Wonosobo, is the
Sikidang Crateris which is presented in Figure 6.
Figure 6 is an ethnoscience study of the Sikidang
Crater, where natural boiling water contains high
levels of sulfur, and the formation of the crater moves
from place to place. A strategic source of information
through environmental issues developing in society.
Students learn more meaningfully because it is
contextual and can equip students' character through
cultural
preservation [26]. The importance of
ICHELS 2024 - The International Conference on Humanities Education, Law, and Social Science
80
Table 5: Identification of the original science of the Pranotomongso system of agriculture and its relationship to physics
concepts.
Issues The original science of society Physics Content
Pranotomongso System
Agriculture
The farmers' vegetable planting system still
uses the
p
ranotomon
g
so s
y
ste
m
Air pressure and
tem
p
erature
There are restrictions on planting vegetables
in certain seasons
Temperature factor in
plant growth
Plants or vegetables that do not use the
p
ranotomongso system are carrots
Different uses of plastic mulch and UV have
b
een
p
assed down from
g
eneration to
g
eneration
Radiation heat transfer
Figure 6: Sikidang Crateris (personal documentation).
Table 6: Identification of the original science of Sikidang Crateris and its relationship to physics concepts.
Issues The original science of society Physics Content
Sikidang Crateris A crater is an event of earth activity that releases hot
water naturally
The concept of boiling
point and freezing point of
li
q
uids
It is called Sikidang because the hot water moves
from place to place like the feet of the Kidang
Heat transfer by convection
Sikidang Crater is on the Dieng Plateau
strategies in the inquiry learning model through
environmental sources that still uphold the cultural
character of the community is the ethnoscience
learning approach.
Sikidang Crater in studying the boiling point of
liquid water which can be differentiated from
ordinary water. Contradictory social issues can foster
students' creative ideas. Ethnoscience learning has
been proven to increase students' creativity through
environmental learning resources. Based on the
identification of ethnoscience studies related to
physics topics, is presented in Table 6.
Based on the description of environmental
ethnoscience activities, students can learn physics
concepts more realistically in the culture of society by
reconstructing original science into scientific science
through students' creative ideas to find solutions to
environmental problems, as well as introducing the
culture and traditions of society which must be
maintained and preserved from generation to
generation continuously.
4 CONCLUSION
Science reconstruction can provide opportunities for
students to think through recognizing issues that are
developing in society and turning them into scientific
knowledge. Science reconstruction training equips
students' character to respond to the environment.
Ethnoscientific reconstruction in Wonosobo Regency
includes: 1) In the dreadlock hair ruwatan tradition
there is a scientific concept regarding measuring body
temperature; 2) Dieng plateau house roofs using zinc
can explain thermal conductivity; 3) The dew
phenomenon identifies changes in the form of
objects; 4) The endemic Carica tree expresses the air
Ethnoscientific Reconstruction of Wonosobo District on the Concepts of Temperature and Heat
81
pressure and temperature conditions of the highlands;
5) Pranotomongso agricultural system in explaining
the concept of factors that influence environmental
temperature; 6) Sikidang Crater shows heat transfer
by convection. The potential for local wisdom to be
studied continuously creates a habitual pattern for
students to respond to the surrounding environment
while at the same time practicing awareness and
respect for the traditions and culture of the
community.
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