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Arguments in Critical Thinking Ability

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Arguments in Critical Thinking Ability
1stNonik Indrawatiningsih
STKIP PGRI Pasuruan
Pasuruan, Indonesia
nonik_pinkgirl@yahoo.com
AbstractThe ability to think critically is an essential skill
and becomes one of the primary goals in college. A person who
can think critically will be able to use appropriate criteria to
evaluate an argument. There must be clear evidence and
accompanied by a plausible explanation. This study aims to
investigate students' critical thinking skills in determining an
argument. The subject is the students of mathematics education
program at one private university in Pasuruan, i.e., 31 students.
Then, some students who have unique answers are selected to be
interviewed further about their critical thinking ability to an
argument. This research is a descriptive qualitative research.
Based on the results of a written test of 31 students, there is one
student who has a unique answer. The answer is different from
other students, so from the results of these tests, the student is
selected for the further interview. The findings of this study
highlighted that the student can mention arguments with the
accurate reasons and has a potential to have the ability to think
critically.
Keywords argument, Critical Thinking Ability
I. INTRODUCTION
Critical thinking is an essential skill that every student in
Higher Education should develop. This skill is vital to assess
any information, explain the reasons and be able to solve
problems that have not known the solution. In addition,
Douglas also said that critical thinking skills are generally
recognized as essential skills and become one of the primary
goals in college [1]. Critical thinking skills are preferred over
algorithmic cognitive abilities. It is also expressed by Amit
and Azikovitsh that the current reformation in mathematics
education throughout the world includes the transition from
algorithmic cognitive abilities towards higher cognitive
abilities, i.e., critical thinking skills [2].
According to Ennis, critical thinking is a reflective
thought which is plausible and focuses on what decisions to
believe or what to do [3]. Ennis defines the ability to think
critically related to decision making whether someone should
believe or not in an argument [4]. One indicator of people
who have the ability to think critically is he/she can evaluate
the accuracy of various arguments. In the same way, Cottrell
also conveys that evaluation is an essential part of critical
thinking, involving a series of cognitive processes aimed
identifying a problem, choosing a solution plan, and
evaluating. Assuming this, people who have the ability to
think critically can use appropriate criteria to evaluate an
argument [5].
In a study conducted by Norris and Phillips shows that
there are still many students who have difficulty in
determining a claim/argument and provide a proof of the
claim/argument that has been given to him [6]. Therefore,
students’ critical thinking skill in this case is the skill in
analyzing an argument- needs to be provoked. Furthermore,
providing a proof is a crucial aspect of explaining a reason
for the claim/argument [9].
Students who can examine and evaluate
arguments/claims are supporting evidence that the student
has critical thinking skills [10]. The ability to think critically
can encourage students to think independently and solve
problems in the context of everyday life [11]. As'ari states
that a person who has the ability to think critically is the one
who can determine whether a statement or an issue has been
given arguments/claims or not [12]. A person who has the
ability to think critically should be able to evaluate
information from various sources of information.
Arguments are a core component of critical thinking,
which includes the ability to construct its own argument,
agree or disagree with claims to the information/news that has
been heard [14;15;16]. Accordingly, someone who has the
ability to think critically should be able to criticize news or
reports from various sources of information. It involves
critical thinking and argumentation skills to determine
whether the claim/argument has been given right or wrong
[13]. Students must justify their arguments supported by the
evidence to argue that arguments must be accompanied by
contradictory examples or facts that do not support
As was discussed above, students' ability in determining
argument becomes an important indicator for students who
have critical thinking ability. For this reason, this research has
been participated by the mathematics students who have the
answers which is unique or different from the others in order
to find out if students who have unique answers or have the
potential to have critical thinking skills. Is argument an
important indicator used to track one's critical thinking
ability.
II. METHODS
This research has been administered using a qualitative
descriptive research. The subject of the research was the
students of Mathematics Education Study Program at one of
the private universities in Pasuruan force year 2015 amounted
to 31 students. There were 31 students tested and then some
of them, who have unique answers, have been selected and
interviewed further. A semi-structured interview was
conducted to investigate the results of tests that have been
done in depth. The instrument used is the critical thinking
ability of the material of triangular congruence which is made
in the form of proof which refers to the indicator of critical
thinking ability, namely argument identification. The
instrument that is examined to the students as a following Fig.
1. Interviews were carried out with the questions that
focused on how they explained the answers already done to
know whether there was a potential for critical thinking skills
or not. Interviews are conducted for 20-30 minutes. The
First International Conference on Science, Mathematics, and Education, (ICoMSE 2017)
Copyright © 2018, the Authors. Published by Atlantis Press.
This is an open access article under the CC BY-NC license (http://creativecommons.org/licenses/by-nc/4.0/).
Advances in Social Science, Education and Humanities Research, volume 218
12
interviews were recorded and then transcribed and finally
coded.
Fig. 1. Test Instrument
III. RESULTS
The arguments referred to in this study is a collection of
statements that have a causal relationship or a sentence
consisting of several statements and conclusions. This study
aims to investigate students who potentially have the ability to
think critically using with identifying their unique answers
and examine them whether they can explain the argument or
not. This suggests that the argument is a fundamental indicator
that must be possessed by people who have the ability to think
critically. Likewise, O'Rourke also conveys that students who
are able to examine and evaluate arguments/claims are
supporting evidence that the student has critical thinking skills
[8]. A person who knows that the sentence/information that
has been given to him or she is an argument or not is an
indicator of a person who has critical thinking skills [10]. The
following will explain the results and discussion of the
research.
The test revealed that there was only one from 31 students
who has a unique answer. The answer is different from other
students so that researchers conduct further interviews with
the student. Interviews here aim to identify if students who
have this unique answer have the potential to have critical
thinking skills and how the student explains the arguments that
the researcher has given while pointing out that the argument
is a fundamental indicator to track whether a person has
critical thinking skills or not. Here are the results of student
tests that have different answers with other students.
Fig. 2 the test result student about the argument
Pay attention to the picture below!
Prove that ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴!
Solution
𝐴𝐵 // 𝐷𝐶 as a consequence 𝐴𝐵
̅
̅
̅
=𝐶𝐷
̅
̅
̅
𝐴𝐷// 𝐵𝐶 as a consequence 𝐴𝐷
̅
̅
̅
=𝐵𝐶
̅
̅
̅
̅
𝐴𝐶
̅
̅
̅
̅
on ∆𝐴𝐵𝐶 = 𝐴𝐶
̅
̅
̅
̅
on ∆𝐴𝐵𝐶 (coinciding)
Based on triangle congruent theorem is side, side, side, so ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
∠𝐵𝐴𝐶 = ∠𝐷𝐶𝐴 (in the opposite, because of 𝐴𝐵 // 𝐷𝐶)
𝐴𝐶
̅
̅
̅
̅
on ∆𝐴𝐵𝐶 = 𝐴𝐶
̅
̅
̅
̅
on ∆𝐶𝐷𝐴 (coinciding)
Based on triangle congruent theorem was corner, side, corner, so∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
Which of the following is classified to argument and non-argument? Give the reason!
1. If 𝐴𝐵
̅
̅
̅
=𝐶𝐷
̅
̅
̅
, 𝐴𝐷
̅
̅
̅
=𝐵𝐶
̅
̅
̅
̅
, 𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
so∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
𝐴𝐵
̅
̅
̅
̅
̅
=𝐶𝐷
̅
̅
̅
,𝐴𝐷
̅
̅
̅
=𝐵𝐶
̅
̅
̅
̅
,𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
So ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
2. ∠𝐵𝐴𝐶 = ∠𝐷𝐶𝐴
𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
∠𝐴𝐶𝐵 = ∠𝐶𝐴𝐷
So ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
3. If 𝐴𝐵 // 𝐷𝐶 as a consequence 𝐴𝐵
̅
̅
̅
=𝐶𝐷
̅
̅
̅
If 𝐴𝐷// 𝐵𝐶 as a consequence 𝐴𝐷
̅
̅
̅
=𝐵𝐶
̅
̅
̅
̅
𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
So ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
4. If ∠𝐵𝐴𝐶 = ∠𝐷𝐶𝐴, 𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
and ∠𝐴𝐶𝐵 = ∠𝐶𝐴𝐷 So ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
5. If 𝐴𝐵
̅
̅
̅
̅
̅
=𝐶𝐷
̅
̅
̅
,𝐴𝐷
̅
̅
̅
=𝐵𝐶
̅
̅
̅
̅
, and 𝐴𝐶
̅
̅
̅
̅
=𝐴𝐶
̅
̅
̅
̅
so ∆𝐴𝐵𝐶 ≅ ∆𝐶𝐷𝐴
Advances in Social Science, Education and Humanities Research, volume 218
13
The following was the interview result of the
subject about the argument
R : for number 1 you answered an argument. Why?
S : the argument loaded conclusion, in here there
was statement 1 and statement 2 and both
statements could be concluded.
R : which one was the statements?
S : if AB
̅
̅
̅
=CD
̅
̅
, AD
̅
̅
̅
̅
=BC
̅
̅
̅
̅
, AC
̅
̅
̅
̅
=AC
̅
̅
̅
̅
so ABC
∆CDA these were statement 1AB
̅
̅
̅
=CD
̅
̅
, AD
̅
̅
̅
̅
=BC
̅
̅
̅
̅
,
AC
̅
̅
̅
̅
=AC
̅
̅
̅
̅
these were statement 2, so ABC
∆CDA was the conclusion
R : did the argument have to load statement and
conclusion?
S : yes ma'am, for example, there was no conclusion
it meant that it was no argument.
R : was the statement same with the premise? And
then the conclusion?
S : in my opinion they were same
R : could you be explained what premise/statement
was?
S : premise was …. (while thinking). I did not define
it ma'am, but the example was like number 1 if
AB
̅
̅
̅
=CD
̅
̅
, AD
̅
̅
̅
̅
=BC
̅
̅
̅
̅
, AC
̅
̅
̅
̅
=AC
̅
̅
̅
̅
so ABC ≅ ∆CDA
R : how about the conclusion?
S : based on the conclusion was taken from some
premises/statements then gave the conclusion
From the conversation above the subject can
already understand that the argument must contain a set
of premises and conclusions. If there is no conclusion
by subject, it is not an argument. Subjects are also able
to name their respective premises and conclusions. The
above conversation indicates that the subject of
potential possesses critical thinking skills, this is
evident when in-depth interviews are conducted on
arguments. The subject can determine whether it is an
argument or not and clarify that the characteristics of
the argument must contain the premise and conclusion
while not the argument only contains the premise
without conclusion. However, the subject has not
connected a valid and invalid argument. He has only
limited to explaining arguments and arguments, not yet
getting into more in-depth content about valid and
invalid arguments.
IV. DISCUSSION
Based on the information received by the
researcher, the subject is classified as a student who
has the moderate academic achievement. At the time
of the learning process took place in the subject is also
not very active in learning. The value of his
achievements was also standard. However, it turned
out that based on the test results and continued with
the above interview. There are findings that the subject
is able to analyze the information and can mention that
the information has been given an argument or not and
he can give reasons/clarification why it is called
arguments.
A person who cannot distinguish whether the
information that has been given to him is an argument
or not means the person cannot think critically. As
Asari says that if one cannot determine whether an
information that has been given to it is a
claim/argument or not, or the person cannot
distinguish which is the premise and what is the
conclusion in an argument, the person is far from being
said to have the ability to think critically [10]. Such
people tend not to have critical thinking skills.
O'Rourke argues that students who can examine
and evaluate an argument/claim, identify and evaluate
an argument, and can provide supporting evidence,
then the student performs an essential part of critical
thinking [8]. It also occurs on this subject, he can
check and assess whether the information that has
been given is an argument or not, otherwise he can also
give a reason why it is called an argument or not so
that this subject can already be concluded that he was
involved in critical thinking and have the ability to
think critically.
The results show that the most crucial primary
indicator in critical thinking ability is that students can
define arguments or not against information that has
been given to them. Evaluating arguments against
existing information is an essential tool for assessing
students' critical thinking skills especially knowledge
of arguments. It is vital that students be able to filter
the information well and not get stuck from the
arguments/claims that have been said by someone.
The ability to think critically is necessary for students
to succeed in the future. Therefore, critical thinking
skills must be applied and developed in the core
curriculum and teaching and learning process to
produce students who have the quality of thinking of
future leaders. Therefore, it is essential to develop
students' critical thinking skills in all subject lessons,
especially mathematics. Mathematics learning not
only teaches mathematical content.
V. CONCLUSION
Based on the results and discussion above, the
conclusions can be drawn is as follows.
1. Based on the test results from 31 students, there is
only one student who has a unique answer which
subsequently conducted interviews related to the
answer.
2. After interviewing the answer, it turns out this
student has the potential for critical thinking skills
whereas this student belongs to students who have
Advances in Social Science, Education and Humanities Research, volume 218
14
3. moderate academic achievement and time of
learning process in this student class is not active.
4. Arguments are the necessary and essential tool for
knowing whether a person has the potential to have
critical thinking skills.
ACKNOWLEDGMENT
The paper is supported by The Indonesian
Endowment Fund for Education (LPDP).
REFERENCES
[1] E.P. Douglas, Defining and Measuring Critical Thinking in
Engineering, Procedia Social and Behavioral Sciences, pp.
153-159, 2012
[2] E. Aizikovitsh & M.Amit, Evaluating an infusion approach to
the teaching of critical thinking skills through mathematics,
Procedia Social and Behavioral Sciences, pp. 3818-3822, 2010
[3] R.H. Ennis, Critical thinking and subject specificity:
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[4] R.H. Ennis. The nature of critical thinking: an outline of
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[5] S. Cottrell, Critical thinking skills: Developing useful analysis
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[8] M. O’Rourke, UI critical thinking handbook. Retrieved from
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Advances in Social Science, Education and Humanities Research, volume 218
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The objective of this research is to analyze the twelfth graders' mathematics critical thinking skills using a mathematics learning model to stimulate fundamental critical thinking abilities of science courses in SMA Negeri, Pacitan Regency, East Java Province, Indonesia. This quasi-experimental research design was used in this study with one group posttest only design using multiple substantive posttests. The sample of 141 students from the total population of six public schools involving the twelfth graders of the natural sciences was selected through purposive sampling technique, data were taken through tests of students' critical thinking skills and interviews. The data analysis consists of five stages, namely an analysis of one sample t-test, an analysis of students' grades, an analysis of problem-solving stages, an analysis of critical thinking abilities indicators, and an analysis of mathematics critical thinking abilities indicators. The results showed (1) The results of the one sample t-test show that the mathematics learning model is effective to stimulate critical thinking, which means that the application of the mathematics learning model is effective to stimulate critical thinking; (2) the overall grades of students that met the minimum mastery criteria; (3) the data analysis of eleven problem-solving stages proves that the criteria for critical thinking abilities are categorized as good and very good. The highest score indicator considers the principle and definition of transformation, while the lowest grade indicator is mainly concerned with the questions on right and coherent steps; (4) the critical thinking skills have seven indicators that highlight the criteria of students' critical thinking abilities categorized as good and very good. The indicators that get the highest score determine the definitions of terms, while the indicators of the lowest score determine the action; (5) the results of the analysis show indicators of mathematics critical thinking skills that have eight indicators. The criteria of students' critical thinking abilities met good and very good categories along with indicators with the highest value score by considering the definitions of terms, while the indicators of the lowest score deal with the habit of caution.
... The capacity to suppose critically, lead a person to behave a ways and carefully (Haryani, 2011), give an explanation for the reasons, and remedy problems (Indrawatiningsih, 2018). Someone who's considerate will now no longer make a selection with out thinking about the context of the trouble at hand. ...
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Critical thinking is an emphasis on the 2013 curriculum, as an activity in learning that must be done by the teacher for that it needs analysis to describe student abilities. This research uses descriptive quantitative research method with a sample of 318 elementary school students who are in public schools in the Tampan District, Pekanbaru, Riau Province. The results of the study found that out of 18 schools with a sample of 318 students there were 9 schools that received the 'not good' category, 9 schools that received the 'not good' category. Viewed from the critical thinking indicator, it turns out that the student's ability score reaches 23 with the category of underperformance or very low under the standard of mastery learning. It can be concluded that the ability of students in critical thinking is still very low and needs government attention to improve teacher learning.
... Argumentation is often claimed as an activity that coincides with proof or justification. It is a basic skill in science and the most essential skill in learning mathematics (Indrawatiningsih, Purwanto, As'ari & Dwiyana, 2019;Lubben et al., 2014;Indrawatiningsih, 2018;Chen, Lin, Chen, & Chen, 2014;Stylianides & Bieda, 2016). It includes one's skill in the process of making a statement along with evidence and logical reasons in order to justify, defend and promote particular beliefs, attitudes or values. ...
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This article explores the concepts of critical questions (from D. N. Walton, 199670. Walton , D. N. 1996 . Argument schemes for presumptive reasoning , Mahwah, NJ : Erlbaum . View all references) and integrative and refutational argument stratagems as an approach for teaching argumentation and critical thinking. A study was conducted for 6 months in 3 sections of a 7th-grade social studies classroom in which 30 students discussed and wrote about current events. One section served as a comparison group. Over time the experimental group made more arguments that integrated both sides of each issue. Collectively, the experimental group also successfully constructed salient critical questions, particularly in regard to weighing values and designing practical creative solutions. In-depth analysis of 1 student showed how conceptual structures and argument practices improved incrementally over time and how the appropriation of stratagems may have been facilitated by the dialectical nature of the intervention (e.g., using critical questions and stratagems successfully in discourse). The theoretical and practical importance of Walton's dialogue theory, and the critical question approach to argumentation, are discussed.
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Argumentation is one of the central practices in science learning and helps deepen students’ conceptual understanding. Students should learn how to communicate ideas including procedure tests, data interpretations, and investigation outcomes in verbal and written forms through argument structure. This article presents a negotiation model to show how argument can be a vehicle to drive students to learn core ideas of density. The negotiation model consists of five phases: (1) creating a testable question, (2) constructing an argument in groups, (3) critiquing arguments publicly, (4) advancing students’ arguments, and (5) writing and reflecting individually.
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A scientifically literate person should be able to engage and critique science news reports about socioscientific issues from a variety of information sources. Such engagement involves critical thinking and argumentation skills to determine if claims made are justified by evidence and explained by reasonable explanations. This study explored university students ’ critical thinking performance when they read science news reports. Undergraduate science/applied science (n = 52) and non-science (n = 52) majors were asked to select a science news report from Internet sources and then to read, critique, and make comments about its contents. The science and non-science majors ’ comments and their quality were identified and assessed in terms of analyzing the argument elements — claims and warrants, counterclaims and warrants, rebuttals, qualifiers, and evidence. The results indicated there is significant difference in identifying and formulating evidence favoring science/applied science over non-science majors (p G .01). Quality of critical thinking associated with the strength of the arguments made indicated that science/applied science majors demonstrate significantly (p < 0.05) more advanced patterns than non-science majors. The results suggest that further studies into improving undergraduates ’ concepts of evidence in the context of reading and critiquing science news reports are needed.
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The connection between critical thinking (CT) skills and mathematics scores of students of an engineering mathematics unit is explored in this paper through two batches of students. The DF postings resulting from participation in two online Discussion Forum (DF) problem solving sessions were analyzed for CT skills through CAIS model and a weighted CT score was given to each student. Mathematical achievement was measured through final examination scores, and initial mathematics ability was measured through an initial test. A significant linear relationship was observed between CT and mathematical achievement. The initial mathematics ability and CT scores showed a significant linear relationship only for one batch of participants. The study concluded that CT skills, when properly encouraged, could result in improvement in mathematical achievement.
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Critical thinking is generally recognized as an important skill, and one that is a primary goal of higher education. However, there is surprisingly little in the literature regarding critical thinking in engineering. This paper describes two pilot studies. A mixed methods study found that graduate engineering students performed worse than undergraduate students on a standard critical thinking instrument. This difference is explained through the two groups’ familiarity with test-taking. In a qualitative study, engineering undergraduates were interviewed about how they use critical thinking. It was found that their descriptions were more complex than typical definitions in the literature. Overall, the results point to a need to further investigate what critical thinking means for engineering.
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Current reforms in mathematics education worldwide include the transition from algorithmic cognitive skills towards higher order cognitive skills, particularly critical thinking. Ennis defines critical thinking as “reasonable reflective thinking focused on deciding what to believe or do” (Ennis, 1987, 1989). This research investigated the viability and consequences of developing critical thinking among students through a program of instruction in probability, employing the infusion approach (Swartz, 1992). Statistical comparison of these students’ averages in the Cornell tests focused on the relative rate of improvement. An ANOVA test showed that the experimental group considerably improved their critical thinking abilities and disposition.
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The concept of science as argument, and the view that engaging in scientific argumentation should play a key role in science education, has become widely endorsed. The case is made here that this objective will be enhanced by broad understanding of the nature of argument skills and their directions and patterns of development. A line of research directed to this goal is described. © 2010 Wiley Periodicals, Inc. Sci Ed94:810–824, 2010
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The claim that critical thinking is subject specific appears, to be of practical importance and theoretical interest. Its meaning is unclear, however, and discussions of its are often confusing and at cross purposes. In an attempt to clarify the topic, Ennis offers a number of distinctions, including a distinction among three versions of subject specificity: domain, epistemological, and conceptual subject specificity. He holds that the first two versions contain valuable insights, but that all three suffer from excessive vagueness of their basic concept (domain, field, and subject, respectively). If the proposed clarification and critique are appropriate, then a number of avenues of research—at both practical and theoretical levels—need to be pursued, some of which are outlined in this essay
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