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PLANT ANATOMY LEARNING ON BASED PRACTICES THROUGH THE INQUIRY STRATEGY: EFFORTS TO EQUIP THE ABILITY OF THE SCIENCE PROCESS AND SKILLS OF THE USE OF MICROSCOPE EQUIPMENT STUDENT OF BIOLOGY EDUCATION

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IJAEDU- International E-Journal of Advances in Education, Vol. IV, Issue 11, August 2018
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168
PLANT ANATOMY LEARNING ON BASED PRACTICES THROUGH THE
INQUIRY STRATEGY: EFFORTS TO EQUIP THE ABILITY OF THE
SCIENCE PROCESS AND SKILLS OF THE USE OF MICROSCOPE
EQUIPMENT STUDENT OF BIOLOGY EDUCATION
Muhibbuddin1*, Safrida2, Hasanuddin3
1Dr.,Universitas Syiah Kuala, Banda Aceh, Indonesia, muhib.bio@gmail.com
2Dr., Universitas Syiah Kuala, Banda Aceh, Indonesia, saf_rida@unsyiah.ac.id
3Dr., Universitas Syiah Kuala, Banda Aceh, Indonesia, hasanuddin@fkip.unsyiah.ac.id
*Corresponding author
Abstract
Ability of Biology students in Teaching Education organization (In-Service) in science process and the ability
to use microscope are in state of disappointment. A lot of research have been done to take care these
problems, however it has not given a maximum effect. Plant anatomy is the most suitable subject that can be
used to equip the student with science process learning and the ability to use microscope through inquiry
strategy learning implementation. The purpose of this research is to answer the questions of how inquiry
learning implementation affects the students’ ability of both science process and to use microscope. The
method of this research is One-Shot Case Study Design, with 30 students as research subject. The research
is conducted for three months (October to December 2017) at Faculty of Teacher Training and Education,
Universitas Syiah Kuala. The aspect that is observed in this research is the ability in practicum planning,
ability to use microscope and the ability to report the result. The result of the research showed that (1).
Planning ability of the students to conduct practicum increased 48% from the previous result, 76% of the
core maximum standard. Maximum score and minimum score are 97% and 55% respectively. (2) The ability
to use microscope achieve 67% from basic score and 87% from the expected maximum result. (3) The ability
to report the practicum result increase to 53% from the basic ability of 80% from maximum standard score.
From the research result, it can be concluded that inquiry strategy implementation at plant anatomy subject
has given a significant improvement toward students’ science process and the ability use microscope.
Keywords: Learning, plant anatomy, practicum, inquiry
1. INTRODUCTION
Plant anatomy is one of the science subjects that the learning that obey to the science nature as a process
and a product. That’s mean to learn plant anatomy; it cannot simply have done by giving out all the
information about the concepts and basic principles. Students must understand the process of learning
through lots of direct practices. Students need to actively observe, discuss among students and lectures that
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famously known as hands-on and minds-on activity. Through plant anatomy learning, biology students is
claimed to understand plant anatomy concepts and the relationship of the concepts in building the plant
body. Those abilities are important to bridging basic biology concepts with other advance biology concepts
such as plant physiology, plant taxonomy, genetics and ecology. The ability to analyze advance micrograph
structure figures such as graphs obtained from inner biology research using scanning electron microscope
(SEM), transmission electron microscope (TEM) and computer-enhanced light microscope (CELM), also the
ability to constructs three dimension figures from two dimension figures. Two dimension, three dimension
and other micrograph figures produced by SEM, TEM and CELM is research from concepts that published at
various modern biology literature (Wandersee, 2004, pp.161-176). Besides the main reason written above,
through plant anatomy, students are expected to have science process ability including: observation, asking
questions. Read literature books and other resources to seek available information, planning observation, to
conclude what they have conducted, to use lab tools, to collect and analyze data, data interpretation,
explanation, prediction and communicate the result (NRC, 2003, p.300; Depdiknas, 2003, p.232).
Plant anatomy is essential for the students, however there is still lots of problems faced by the students
during the learning process. Evaluation result from plant anatomy practicum from the last four years (2012 to
2016) on students of third semester of Faculty of teacher training and science UNSYIAH in Aceh, Indonesia
showed that (1) students lacks skills of using laboratorial tools such as microscope, (2) lacks skills in
preparing specimen, (3) difficulty in analyzing object using microscope, (4) low quality report, (5) inability to
prepare a proper practicum planning. Low level ability of biology students is expected due to conventional
practicum activity. This conventional activity asked students only to conduct practicum, limited guidance and
lack of science process training (Muhibbuddin, 2016, pp.1-26). The low grade biology students related to
both science process and using laboratorial tools in plant anatomy learning need an urgent improvement
through the implementation of effective strategy.
Inquiry is one of the methods of learning strategy that suitable to be implemented in plant anatomy subject.
Through inquiry, students can be equipping with science process skills and psychometric during learning
process. Through inquiry students can build their knowledge independently with proves and new ideas they
acquired. (Adair & Chiaverina, 2003). NSTA & AETS (2003, pp.1-9) confirmed there is relation between
inquirers and inquired. If they are related to learning process, inquirers refer to students as a knowledge
inventor and inquired is refer to what are invented (knowledge). One of the inquiry principle is students can
construct their understanding independently by conducting hands-on and minds-on activity during learning.
Inquiry can also be used to trigger the students’ ideas in investigating what they are doing (Henrichsen &
Jarrett, 1999, p.138).
There are three level of inquiry; First, discovery learning level, the main role of teacher in this level is to
identify problems and process, while students identify result alternative. Second, inquiry guided level, the
main role of the teacher at this level is to propose problems, while students select the process and problem
solver. Third, open inquiry, the main role of teacher is to explain problems context, while students identify
and solve them (NSTA &AETS, 2003, pp.1-9).
Research related to inquiry learning process have been published by several authors including (Capps &
Crawford, 2017, pp.497-526; Sahyar & Hastini, 2017, pp.120-126; Hannasari at al., 2017, pp.48-52; Yusrizal
et al., 2017, pp.88-93; Philip & Taber, 2016, pp.207-226; Hairida, 2016, pp.209-215; Kuhn, 2015, pp.37-50;
Siew Li & Arshad, 2015,pp. 151-175; Baseya at al., 2010; Baseya & Francis, 2011,pp. 241-255; Campo &
Garcia-Vazquez, 2010,pp. 15-20; Crawford, 2007; Schwartz at all., 2004,pp. 610-645; Buxeda & Moore,
1999,pp. 159-164; Switzer & Shriner, 2000,pp. 157-162; Jones et al., 2000,pp. 139-159; Windschitl &
Buttemer, 2000,pp. 346-350; Marbach-Ad & Claassen, 2001; Marbach-Ad et al., 2001,pp. 434-438;
Anderson, 2002,pp. 1-12). However, those research tend to explain more on understanding science/biology
concepts for senior high school students. Research related to plant anatomy subject, practicum based
through inquiry strategy as the efforts to equip students with science process skills and giving proper
knowledge on how to use laboratorial tools (Pre-Service) is still limited.
2. RESEARCH METHOD
Method used in this research is experiment method with design one-shot case study (Gall et al., 2003).
Research design is as below.
Table-1: One-Shot Case Study Design
Group
Treatment
Post Test
Treatment Class
X
O
X = Learning with strategy inquiry
O = Post Test (after treatment)
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Research is done with three steps; first, conducting evaluation toward student basic ability about: (1) ability
on using microscope, (2) ability on planning a practicum and (3) ability on reporting practicum result. At this
step, student is asked to plan a practicum by observing one of the objects with microscope and reporting the
analysis result. Data obtained from this step is used as basic skills value of the students before inquiry
strategy implementation. Second, conducting learning process with inquiry strategy with several steps (1)
guiding students in using practicum manual, (2) demonstrate ways to use microscope, to prepare a fresh
specimen and observing objects below the specimen, (3) guiding students on how to report practicum result
and (4) guiding students on practicum planning. Third, students are asked to do practicum activity
independently with guidance refer to practicum manual. At the end of the activity, students are asked to
report the result of practicum in written report. Fourth, conduct evaluation on students’ latest skills after
learning process. Evaluation is conducted during learning process (for practicum activity and microscope
usage skills) and after learning process (result report and practicum planning activity).
Instrument used in this research is consist of (1) Practicum working manual, (2) evaluation instrument on
skills of how to use microscope in a proper way which again consist of 12 skills, each of it having three and
four indicators. Each of the indicator is given a minimum score of 1 and maximum of 4. Total score maximum
Is 156 and minimum score is 39, (3) evaluation instrument on practicum planning, consist on ten
components, each of it consist of 2-4 items. Score minimum is 10 and maximum score is 87, (4) evaluation
instrument of practicum report, consist of 11 components, each of it have 2-6 items. Minimum score of 11
and maximum score is 100. The research is done on biology students at third semester of teacher training
and science Faculty, Universitas Syiah Kuala, Banda Aceh, Indonesia. The duration of the research is three
months (October to December 201). Total students involved in this research is 43 participants.
3. DATA AND ANALYSIS
The research result data is score from basic skills evaluation (Initial ability) and ending skills how to use
microscope, reporting practicum result, practicum planning process. Data analysis is conducted by
comparing initial skills and ending skills, also comparing both initial and ending skills with expected standard
skills.
4. RESEARCH RESULT
4.1 Skill to use Microscope
Result of the analysis on skills to use microscope during practicum activity (Figure 1) showed that initial skills
(pre-test) students average score on using microscope was 30 (19%). Maximum and minimum score
achieved were 37 (24%) and 26(17%) respectively. Latest skills measured from eight times practicum activity
has an average score of 135 (87%). Maximum score of post-test is 138(88%) and the minimum is 133(85%).
Figure 1. Score of Initial and ending ability skills using microscope.
At early practicum activity (Figure 2), student skills in using microscope still low, only achieve an average
of95 (61% of expected maximum score). Student skills is increasing at the next several activities (P-2 to P-
5).At practicum activity step 5 (P-5), the average score achieved 150 (96% of the expected maximum score).
At the next practicum activities (P-6 to P-8) student’s skill has achieved maximum, with average score of 152
(97%).
30
135
37
138
26
133
020 40 60 80 100 120 140 160
Initial ability
Ending ability
Minimum Score Maximum Score Average Score
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Figure 2. Average Score of student skill in using microscope during practicum activity (P-1: Activity -1 to P-8:
Activity-8).
4.2 Skill to use Microscope
Analysis result of initial skill of students in practicum planning compared to expected standard (Figure 3)
showed that 21 students with initial skill score 31 (average score), two students score 52 (maximum score)
and the other 8 students score 32 (minimum score). Compared with expected standard score, these result is
still too low. Student skill only 35% (average), 60% (maximum score) and 24% (minimum score) that
achieved from the expected standard score. After implementing inquiry strategy, student skill in practicum
planning is higher compared to initial skill and expected skill. The average of ending skill score increase 48%
from initial score and 76% from maximum score. Maximums core achieved 97% and minimum score is 55%
from standard score.
Figure 3. Comparison between Initial and Ending Skill Score with Standard Score
In Practicum Planning Activity
Looking at each component of rpacticum planning (Table 2) the average score of each component generally
has fullfill the criteria of standard score (100%). Only table of content construction that achieve 71%. This
result indicate that student already has the skill in planning a proper practicum according to agreed criteria.
Table 2. Comparison standard score with ending skill score per component of Practicum Planning
Research Report Component
Standard
Score
Students’
Average
Score
Student Score
Achievement
(%)
Report Completeness
4
4,00
100
Tittle Formulation
6
6,00
100
Background
9
9,00
100
Problem Statement
9
9,00
100
Purpose Statement
6
6,00
100
Literature Review
9
9,00
100
10
87
21
52
48
85
0
20
40
60
80
100
Minimum Score Maximum Score
Standard sore Initial ability Ending ability
95
112
127 140 150 152 152 152
0
20
40
60
80
100
120
140
160
P-1 P-2 P-3 P-4 P-5 P-6 P-7 P-8
SCORE STANDART:
MIN: 39
Max: 156
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Activity Steps
10
10,0
100
Result and Discussion
6
6,00
100
Conclusion and Recommendation
8
5,67
71
Reference
20
20,00
100
Total
87
84,67
97
4.3 Reporting Skill
Result analysis of initial and ending skill of students in reporting practicum result and compared with
expected standard skill (Figure 4) showed that 23 students that have the initial ability achieved score of 41
(average score).
Figure 4. Comparison of Initial and Ending skill score with standard score in reporting practicum activity
Three students achieved score of 59 (maximum score) and four students achieve score 24 (minimum score).
Compared with expected standard score, students skill in reporting practicum result is still low. Student skill
only achieve an average of 41% (average score), 59% (maximum score) and 24% (maximum score) from
expected standard score. Meanwhile ending skill improves compared to initial skill and expected standard
skill. The average of ending skill score increase 53% from initial skill and 80% from maximum standard
score. Maximum score achieves 92% and minimum score achieve 58% from standard score.
Ending skill in reporting practicum activity has achieved expected standard score (100%) from each
expected component within the report (Table 3), except background component (67%), result and discussion
part (83%) and table of content construction (88%). Compared to expected criteria, it is showed that students
already have the skill in proper reporting practicum activity.
Low score on writing table of content component is due to students only put list of references of the text
books, while on standard criteria it insists to obtain from various possible sources including internet. The low
average score of research report compared to standard also occurred on the way students presented the
practicum result where they only used either table or figures. Nevertheless, what have been included within
the report already fulfill the agreed criteria and the report is communicative.
Table 3. Comparison between Standard Score and Ending Skill per Component of Pracicum Acticity Report
Research Report Component
Standard
Score
Students’
Average
Score
Student Score
Achievement
(%)
Report Completeness
4
4,00
100
Tittle Formulation
6
6,00
100
Background
9
6,00
67
Problem Statement
6
6,00
100
Purpose Statement
4
4,00
100
Literature Review
9
9,00
100
Activity Steps
8
8,00
100
11
100
24
59
58
94
0
20
40
60
80
100
120
Minimum Score Maximum Score
Standard sore Initial ability Ending ability
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Result and Discussion
10
8,33
83
Conclusion and Recommendation
6
6,00
100
Reference
8
7,00
88
Research report component relationship
30
30,00
100
Total
100
94,33
94
The analysis result of using microscope skills and practicum work during eight times classes showed there is
consistent improvement and has reached maximum at the fifth class. The analysis result of practicum
planning activity and reporting practicum activities properly according to expected standard criteria.
Implementation of inquiry learning strategy is capable to equip student to have proper skills in using
microscope during practicum.
This skill is essential for students because most of biology subjects especially plant anatomy that need
students to use microscope during the learning process. Students as future teachers must be able to teach
the student in a proper way through practicum activity by using microscope. Therefore, Shulman (in
Wandersee, 2004, pp.161-176) insisted that biology teacher need to know the fundamental and understand
the advance microscopic structure as well as to able to construct knowledge obtained from observation result
through microscope at laboratory and interpret the analyze result.
McDermott (1998, pp.734-742) also stated that in preparing a well-rounded science teacher is not enough
by giving them the fundamental aspect of the subjects. Other aspects such as skill in using microscope in
details, science process skills (observing, clarify, interpret, predict and asking question), generic skills (critical
thinking, problem solving, communicate, obtain and use of knowledge and information) need to be improve.
5. CONCLUSION
From the research result obtained it can be concluded that implementation of inquiry learning strategy in plan
anatomy subject is effective to equip and improve students’ science process skill including practicum
planning, reporting practicum result and skill to use microscope.
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... It combines hands-on activities with students' thinking processes. Thus, it provides psychomotor skills, systematic thinking, objective, creative, quantitative literacy, science process skills, and the ability to use a microscope (Agustina et al., 2022;Muhibbuddin et al., 2018;Muspiroh, 2012;Nuraeni et al., 2015;Sugianto et al., 2020). Plant tissue is the subject of plant anatomy. ...
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Anecdotal accounts from science educators suggest that few teachers are teaching science as inquiry. However, there is little empirical evidence to support this claim. This study aimed to provide evidence-based documentation of the state-of-use of inquiry-based instruction and explicit instruction about nature of science (NOS). We examined the teaching practice and views of inquiry and NOS of 26, well-qualified and highly motivated 5th–9th-grade teachers from across the country in order to establish the extent to which their views and practice aligned with ideas in reform-based documents. We used a mixed-methods approach analyzing lesson descriptions, classroom observations, videotape data, questionnaires, and interviews to assess teaching practice and views of inquiry and NOS of these teachers. We also determined the relationships between teachers’ views and their teaching practice. Findings indicated the majority of these teachers held limited views of inquiry-based instruction and NOS. In general, these views were reflected in their teaching practice. Elements of inquiry including abilities, understandings, and essential features were observed or described in less than half the classrooms. Most commonly, teachers focused on basic abilities to do inquiry instead of the essential features or important understandings about inquiry. When aspects of inquiry were present, they were generally teacher-initiated. There was also little evidence of aspects of NOS in teachers’ instruction. This study provides empirical evidence for the claim that even some of the best teachers currently struggle to enact reformed-based teaching. Further, it highlights the critical need for an agreement upon definition of inquiry-based instruction and the need to develop appropriate and feasible assessments that specifically target inquiry to track changes in teachers’ views and practice. Important implications include the heightened need for rigorous and continuous professional development to support teachers in learning about inquiry and NOS and how to enact reform-based instruction in classrooms.
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We examined science inquiry, technology, and content in laboratory curricula of first-semester, general biology at six randomly selected community colleges in Colorado, USA. We derived a seven-point scale to assess science inquiry. For each exercise, we recorded the technology used, the biological principle examined, and whether the lab was derived from a commercial manual or a manual generated by the institution. Results showed that lab curricula at all six schools addressed an average of less than three categories of science inquiry. The main deficiencies were in deriving problems/hypotheses, variables, methods, and extensions. Labs implementing technology addressed significantly fewer categories of inquiry than those without technology. Microscopes were the most common source of technology, but were used almost exclusively for observations of teacher-determined objects, rather than as tools to increase the number of categories of science inquiry addressed. Labs from commercial manuals allowed students to address significantly more categories of science inquiry than labs from manuals generated by the institution. We suggest that educators evaluate inquiry in their labs with an inventory such as the one derived in this paper, and attempt to address the seven categories of science inquiry several times in each lab course.