: 978-602-99837-4-6
: 978-602-99837-4-6
PROCEEDING
ICMSTEA 2016 : The Role of Mathematics, Sciences, Technology, and Education Towards
ASEAN Economic Community and Global Challenges
Makassar, South Sulawesi, Indonesia
3rd
– 4th
October 2016
Fakultas Matematika dan Ilmu Pengetahuan Alam Universitas Negeri Makassar 2016
ICMSTEA 2016:
THE ROLE OF MATHEMATICS, SCIENCES, TECHNOLOGY, AND EDUCATION TOWARDS ASEAN ECONOMIC COMMUNITY AND GLOBAL CHALLENGES
Editor
:
Dr. Syafruddin Side
Dr. Ir. Wiharto Caronge, M.Si.
Uca, S.Si., M.Si., Ph.D.
Iwan Dini, S.Si., M.Si.
Ansari Saleh Ahmar, S.Si, M.Sc.
Bustang, S.Pd., M.Sc. Muh. Husnul Khuluq, S.Pd., M.Sc. Said Fachry Assagaf, S.Pd., M.Sc.
Sahlan Sidjara, S.Si., M.Si.
Ahmad Ansar, S.Pd., M.Sc.
Syamsuddin Mas’ud, S.Pd., M.Sc.
Muhammad Isbar, S.Si., M.Si.
Surahman, S.Pd., M.Pd. Editorial Assistant Layouter
: Andi Ikhsan Maulana, S.Pd
Dimas Suharto
Cover Administrator
: Nurul Kusuma Wardani, S.Pd.
Reviewer Board
: Prof. Alfred Edward Szmidt, Ph.D.
Prof. Valerio Sbordoni, Ph.D.
Prof. Birgit Loch
Dr. Richard Randriantoamanana
Prof. Fahrul Zaman bin Huyop, Ph.D.
Prof. Mohd. Ekhwan Toriman, Ph.D.
Prof. Eko Hadi Sujiono, M.Si.
Prof. Oslan Jumadi, S.Si., M.Phil., Ph.D
Muh. Abdy, S.Si, M.Si., Ph.D
Prof. Dr. Jasruddin M, M.Si.
Prof. Dr. Muris, M.Si.
Prof. Dr. Ir. Yusminah Hala, M.Si. Prof. Dr. Usman Mulbar, M.Pd.
Prof. Dr. Muh. Danial, M.Pd.
Copyright © October 2016
ISBN 978-602-99837-4-6
Diterbitkan oleh : Fakultas MIPA Universitas Negeri Makassar
P r o c e e d i n g | iii
WELCOME SPEECH
Forewords from the Chairman of Committee
Assalamu’alaykum wa Rahmatullahi wa Barakatuh
First of all, I wish to extend a warm welcome to fellow delegates from the various countries and regions. I
realize that you are fully dedicated to the sessions that will follow but I do hope you will also take time to
enjoy sparkling Makassar with its tropical setting, friendly people, and wonderful cuisine.
This 2nd
International Conference on Mathematics, Science, Technology, Education, and Their
Application 2016 is organized by the Faculty of Mathematics and Natural Sciences, Universitas Negeri Makassar to bring all experts and researches in these field sharing their important thoughts and findings.
The conference will be held in two days from 3rd
– 4th
of October 2016 with two keynote speakers, seven
invited speakers, and more than 80 parallel speakers from different backgrounds.
Let me take this opportunity, on behalf of the committee members, to express my gratitude and sincere
thanks to the keynote, invited and all parallel speakers for spending their valuable time with us in this
conference. I do hope that your time in Makassar will be valuable and memorable.
Finally, I would like to thank all steering and organizing committee for their hard work and dedication to
the success of this conference. I would like also to apologize to all of you should you find any
inconvenience during this event.
Thank you very much,
Wassalamu’alaykum Warahmatullahi Wa barakatuh
Chairman of Committee,
Dr. Drs. A. Mushawwir Tayeb, M.Kes.
P r o c e e d i n g | iv
The 2nd
ICMSTEA Speech
By The Dean of Mathematics and Natural Sciences Faculty
Universitas Negeri Makassar
Your excellency Rector of Universitas Negeri Makassar Honorable Vice Rectors and Dean of All Faculties Honorable Keynote Speakers Distinguished all invited speakers from outstanding universities Distinguished all speakers and guests All participants, Ladies & Gentlement,
Assalamu’alaykum Warahmatullahi Wabarakatuh. My greetings for all of you. May peace and
God’s blessing be upon us all. Alhamdulillah, all praises be to the Almighty God, Allah
subhanahu wata’ala.
It is my pleasure to welcome you all to the opening of The 2nd
International Conference
on Mathematics, Science, Technology, Education & their Applications (2nd
ICMSTEA). I am
delighted to see that the Mathematics and Natural Science Faculty has again organized the second conference that capitalize on our strength and built on our commitment to promoting Mathematics, Science, Technology and Education.
I do hope that this conference would bring a great opportunity for all of us to strengthen
our contribution to the advancement of our nation. I would like to take this opportunity to thank the conference organizing committee for
their diligent work. I would also like to thank participants, especially those of you coming from
abroad, for joining us and sharing your valuable experiences. Should you find any
inconveniences and shortcomings, please accept our sincere apologies. Finally, let me wish you fruitful discussion and a very pleasant stay in Makassar.
Thank you, Wassalamu’alaykum Warahmatullahi Wabarakatuh
Dean of Faculty of Mathematics and Natural
Sciences Universitas Negeri Makassar
Prof. Dr. Abdul Rahman, M.Pd.
P r o c e e d i n g | v
TABLE OF CONTENTS
Cover
Welcome Speech
Table of Contents
Invited Speakers
Genetic Structure and Evolutionary History of a Diploid Hybrid Pine Pinus densata Inferred from the Nucleotide Variation at Seven Gene Loci Alfred Edward Szmidt
Biodiversity and Big Data In A Changing World: From Museum Specimens to Citizen Sciences
Valerio Sbordoni
Engaging Students with Tablet Technology in Science, Technology, and Mathematics Education
Birgit Loch
Assesment Within Elpsa Lesson Design
Sitti Maesuri Patahuddin
Why High Performance Computing (HPC) Matters?
Richard Randriantoamanana
In Silico Study of L-specific dehalogenase from Rhizobial Species Strain RC1 Fahrul Zaman bin Huyop
Fostering Water Innovation: Securing the ASEAN Water Future Mohd. Ekhwan Toriman
Basic Research (in Physics) for Development of Nation Innovation Eko Hadi Sujiono
Parallel Speakers
The Influence Of Problem Based Learning Model Toward Motivation and Physics Learning Outcomes Of Students SMA Negeri 1 Parangloe Gowa Regency Muhajirin, Sidin Ali & Pariabti Palloan
Analysis of Student’s Conceptual Understanding of Mathematics on Set at Class VII SMP Frater Palopo
Muhammad Ilyas & Fahrul Basir
i
iii
v
1
1 – 8
9 – 15
16 – 38
39 – 48
49 – 58
59 – 68
69 – 78
79 – 86
87 – 95
96 – 102
P r o c e e d i n g | vi
Pah Characteristics In Sediment Around Makassar Coast Using GC-FID 103 – 114
Muhammad Syahrir, Nurul Hidayat Aprilita, Nuryono, & Netti Herawati
Perception of 21st Century Learners to The E-Books as A Learning Resources 115 – 122
Muhammad Takwin Machmud
The Group Of Understory Herbaceous Vegetation Stand At Tropical Lower Mountain 123 – 129
Forest Of Mount Salak, West Java
Muhammad Wiharto, Cecep Kusmana, Lilik Budi Prasetyo, Tukirin Partomiharjo,
Hamka L, & Abd. Muis
Antibacterial Compounds Characterization in Chloroform Extract Leaves of Tahiayam 130 – 135
Plant (Lantana Camara Liin.)
Muharram, St. Nurzulaiha, Nurrahmania, Iwan Dini, Pince Salempa, & Maryono
Effect of Mixture Inoculum of Lactic Acid Bacteria (LAB) and Mold Amylolytic In 136 – 143
Various Concentration And Fermentation Time of Changing Protein And HCN Content
Of Bitter Cassava Roots (Manihot aipi Phol.)
Nurhayani H. Muhiddin, Nur Arfa Yanti, & Hasanah
The Analysis of Total Cholesterol Levels in Mice (Mus musculus) MALES who were 144 – 150
Given Extracts of Methanol Leaf Cemba (Acacia pennata)
Nurul Muhlishah, Irma Suryani Idris , Andi Mu’nisa, & Ernawati
Plants in a Square: Explore Plants Description With QR Code Feature 151 – 155
Khalisha Azis, Sitti Saenab & Syamsiah
Exploring the Correlation between Metacognitive Skills and Retention of Students in 156 – 161
Different Learning Strategies in Biology Classroom
Arsad Bahri
Physical Fitness For Futsal Referee Of Football Association In Thailand 162 – 170
Acting Sub L.t.Thaweesub Koeipakvaen
Histological study of the respiratory system of Sulawesi Medaka fish (Oryzias 171 – 176
celebensis): as a candidate of animal model
Dwi Kesuma Sari, Irma Andriani, & Khusnul Yakin
Technological Innovation of Learning Mobile-Based Learning 177 – 184
Herlinah & Baso Habibi
Evaluation of Antimicrobial Activity and Phytochemical Screening of Chloroform 185 – 188
Extract of Usnea sp.
Iwan Dini, Maryono, Nurul Utami, Sitti Hajar, & Ahmad Hadani
The effectiveness of Scientific-Inquiry Learning Model to Improve Scientific Thinking 189 – 194
Skills of Grade X student of High School in Gowa Regency
Jusniar & Sumiati Side
P r o c e e d i n g | vii
Pedagogical Content Knowledge: Teacher’s Knowledge Of Students In Learning 195 – 199 Mathematics On Limit Of Function Material Ma’rufi, I Ketut Budayasa, & Dwi Juniati
Simulation Infiltration Rate of Water on Sand Media by Finite Difference Method 200 – 210
Masitah Osman, Nasrul Ihsan, & Muhammad Arsyad
The Influence Of Problem Based Learning Model Toward Motivation and Physics 211 – 218
Learning Outcomes Of Students SMA Negeri 1 Parangloe Gowa Regency
Muhajirin, Sidin Ali & Pariabti Palloan
The Influence of Experiment Methods on Science Process Skill and Cognitive Learning 219 – 226
Outcomes of the X Grade Students of MIA SMAN 1 Soppeng Riaja 2015/2016
A. Sri Sofializa, Muhammad Arsyad, & Muris
The Influence Of Problem Based Learning Model Toward Motivation and Physics 227 – 233
Learning Outcomes Of Students SMA Negeri 1 Parangloe Gowa Regency
Muhajirin, Sidin Ali & Pariabti Palloan
The Development of Critical Thinking Inventory Instrument for Biology Department 234 – 239
Students
Abd Muis, Adnan Gassing, Ismail Laumma & Nurjannah
Unleash Students’ Motivation with Blended Knowledge Transfer Instructional Model 240 – 243
Adnan, Sitti Saenab, & Andi Rahmat Saleh
The Development of Student’s Worksheet of Physics Based on Virtual Simulation and 244 – 251
Its Influence on Physics Learning Outcomes of Students
Ahmad Swandi & Bunga Dara Amin
Teaching Material Development with Challenge Based Learning (CBL) Basis to 252 – 258
Improve Critical Thinking Ability on Human Reproduction System Material of Class
XI IPA 4 Students at MAN Pinrang
Andi Asmawati Azis, Jasruddin, & Reni
Implementation of Accreditation Policy and Quality of Public Primary School 259 – 262
Education Service in South-Sulawesi
Andi Cudai Nur & Sumarlin Mus
Plants in A Square: Explore Plants Description with QR Code Feature 263 – 272
Khalisha Azis, Wiharto, Siti Saenab, & Syamsiah
Fostering Science Learning Quality in Frame of Ecosystem Topic through Lesson 273 – 275
Study
Besse Aisyah, Nurfatima, Rina Kurnia, Andi Asmawati Aziz, & Andi Nurul Virninda
Yusuf
Fractionation Ethyl Acetate Extract of Stem Bark Soursop(a. Muricata. Linn) Potential 276 – 279
Anticancer
Pince Salempa, Muharram, & Iwan Dini
P r o c e e d i n g | viii
Entrepreneurship Education Development In Dealing Asean Economic Community 280 – 285
Mohammad Rakib
The Development of Basic Chemistry Courses Program Based Problem Solving to 286 – 291
Improve Student’s Critical Thinking Skills
Ramlawati & Ratnawaty Mamin
Increase The Production and Quality of Biogas from Waste of Cattle Rumen Content 292 – 296
Through The Addition of Molasses and Zeolite
Ramli, Satria Aly, & Hartono
Marica Goat’s Response To The Provision of Superior Feed 297 – 301
Rosdiana Ngitung
Students’ Mathematics Achievement and Its Relationship with Parents’ Education 302 – 308
Level, and Socio-Economic Status In Turkey
Rusli
The Abstraction Ability in Constructing Relation Within Triangles By The Seventh 309 – 313
Grade Students of Junior High School
Sitti Mutmainna Hasma, Suwardi Annas, & Djadir
Water Content Influence to Electrical Properties From Soil Volcanic 314 – 320
Sulistiawaty
The Influence Of Using Destination Card Through Team Games Tournament (TGT) 321 – 324
Type Of Cooperative Learning Toward Student’s XII Grade Achievement at SMA
Negeri 01 Unggulan Kamanre, Luwu Regency
Ulva Nilawaty Sudarmadi
Applying SARAC Approach and The Effect in Learning Mathematics For Students 325 – 331
Grade VIII
Usman Mulbar & Nasrullah
Analysis Von Bertalanffy Equation With Variation Coefficient 332 – 338
Usman Pagalay, Budiawan, & Anisyah
Results Increasing Student Learning Through The Use of Biology Learning Model 339 – 346
Cooperative Think Pair Share (TPS) The Student Class XI IPA SMA Negeri 5
Makassar
Wiwik Wiji Astuti, Ismail &Musyafar
Characterization of crude chitinase produced by Trichoderma virens in solid state 347 – 354
fermentation
Rachmawaty & Madihah
Authentic Assesment In Mathematics Instruction Model Based On Conceptual Conflict 355 – 362
Asdar
A Simplified Model Of Aspergillus Niger Growth Using Nephrolepis Biserrata Leaves
For Exo-Polygalacturonase Production 363 – 370
Halifah Pagarra
Design And Effectiveness Of Mathematics Learning Packages Based On Bilingual
Method 371 - 382
Hamzah Upu
The Effect Of Supercritical Co2 On The Antioxidant Activity Of The Swietenia
Mahagoni Seed Extract By Box-Behnken Design 383 - 388
Hartati, Liza Md Salleh & Mohd. Azizi Che Yunus
Implementation Of Explicit-Reflective Approach To Improve Creative Thinking Skills
Of Students In Junior High School On Environmental Pollution Matter 389 - 393
Husnul Khatimah, Parsaoran Siahaan &Agus Setiabudi
The Effect Of Mole Ratio Of Acrylamide (AM) Monomer And Methylene-Bis-
Acrylamide (MBAM) Crosslinker Toward The Hardmess Of Gelcasting Porous
Ceramics 412 - 415
Suriati Eka Putri & Diana Eka Pratiwi
The Effect Of Neem (Azadirachta Indica) Coated Urea Fertilizer Against NH4+ And
NO3- Concentration In Clay Loam Soil Texture 416 - 422
Andi Bida Purnamasari, Sirinapa Kijkuakul & Pattamon Sangin
Application Of Simulation-Based Media To Physics Learning Achievement Of Student
At XI IPA Grade SMAN 1 Bontonompo
Dewanthikumala, S. Salmiah Sari &Nurhayati 423 - 437
Test The Power Of Drag Against The Growth Of Bacteria Of Staphylococcus Aureus
And Escherichia Coli Extracts Ethanol Leaf Mangrove Rhizophora Mucronata And The
Effects Of Antidiabetik On Mice Induced Aloksan 438 - 443
Ernawati, Nurul Muhlishah & Shasmita Irawan
Implementation Of Worksheet Based On Productive Questions To Improve Inquiry
Skill Of Senior High School Students 444 - 450
Herman & A. Momang Yusuf
Critical Thinking Skill Of Student Through Top Down Approach In Physics Learning 451 - 455
Aisyah Azi,Muhammad Aqil Rusli & A. Momang Yusuf
Preliminary Study On Field Application Of Human Urine Fertilizer On Cultivation Of
Green Amaranth In Bajeng Distric, Gowa, South Sulawesi. 456 - 459
Nani Kurnia & Andi Asmawati Azis
Student’s Physics Achievement Through Gasing Physics Learning 460 - 465
Muhammad Aqil Rusli, A. Momang Yusuf, Aisyah Azis, Agus Purwanto & Jutri Taruna
Exploration Of Plant Species In Traditional Ceremonies Kajang Tribe In Bulukumba
Regency South Sulawesi 466 - 475
Sudding & Jamaluddin
The Effect Of The Methanol Extract Of Cemba's Leaves (Acacia Pennata) In Lowering
Blood Glucose Levels Of Male Mice (Mus Musculus) 476 - 482
Aji Maulana, Irma Suryani & A.Mu'nisa
Comparison Of Learning Outcomes On Chemical Bonding Of Student Class X Senior
High School State 1 Ma’rang That Taught By Cooperative Learning Model Type TPS
And NHT 483 - 489
Sugiarti & Sugiarti
The Processing Of Coconut Shell Based On Pyrolysis Technology To Produce
Reneweable Energy Sources 498 - 508
Sudding & Jamaluddin
Oldeman Climate Zoning For The Agricultural Area 511 - 521
Rosmini Maru, M. Nur Zakariah Leo, Syamsiah Rahim & Nur Fatimah Basram
Application Of Sutte Indicator In Predicting Movement Of Indonesian Stock (A Case
Study Of XL Axiata Tbk And Smartfren Telecom Tbk) 522-530
Ansari Saleh Ahmar & Andi Nurani Mangkawani Arifin
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Proceedings of ICMSTEA 2016 : International Conference on Mathematics, Science, Technology, Education, and their Applications, Makassar, Indonesia, 3rd – 4th October 2016
Oldeman Climate Zoning for the Agricultural Area
Rosmini Maru*, M. Nur Zakariah Leo, Syamsiah Rahim,
Nur Fatimah Basram
Department of Geography, Faculty of Mathematics and Natural Sciences, Universitas Negeri
Makassar, Parangtambung, Makassar, Indonesia
Email: [email protected]
Abstract : Knowledge of the climate of a region is needed. One way to get to know the further climate is classified by calculating rainfall. One method to do that is Oldeman method by determining the average number of wet months and dry months later on interpolation and processed automatically in ArcGIS. This classification aims to determine the type of climate conditions based on Oldeman classification and regions
spreading on each type of climate types in Soppeng. The results of this study are to map climate types using Oldeman classification system in Soppeng. In order to know the type of climate and Agro-climate zones in the study sites. The attribute value of the determination of the type of climate in the interpolation using kriging method. Data collection techniques are secondary data collection, observation, and documentation. The data obtained were processed and counted then displayed in the form of maps and described systematically. The results showed there are three types of climate B2, C3 and E. Distribution B2 climate includes DonriDonri District and Marioriawa District with an area of distribution of 13%. C3 Climate contained in Citta, Donri-Donri, Lalabata, Lilirilau, Marioriawa and Marioriwawo District with an area of
distribution of 43%. E Climate contained in the District Citta, Donri-donri, Ganra, Lalabata, Liliriaja, Lilirilau, and Marioriwawo with an area of distribution of 44% and there is 24,6 % areas wich conformity between agroclimatic zone and planting frequency.
Keywords: Climate Type, Oldeman, Soppeng Regency, Interpolation
INTRODUCTION
The climate is an air temperature average condition, precipitation, air pressure, wind direction,
humidity, and the other climate parameters in the long term (Tjasyono, 2004). In general,
Indonesia has become the high-risk area for the climate change included around South Sulawesi.
The climate change is an important issue and always keep going on in these past few years. Climate change is already and is going to happen as long as the rising of human activity.
Climate information of an area is needing. In the tropical area, air temperature rarely becomes
the limit factor in the agriculture production, but the water supply is the most deciding factor in the
agriculture cultivation. The long and extreme dry season brings wide consequences for the
environment and human living.
Climate also affects the plant type in Soppeng Regency for cultivating in an area, scheduling
and cultivation techniques that will be carried out by farmers. However, Utilization of climate
information in this area is very little for the agricultural sector, whereas the climate will affect the
distribution of plants. This happens because of the lack of resources that can be utilized by people
to know the type of climate somewhere and types of plants suitable for the location of the right
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climate. Climate classification used for agriculture is climate classification according to Oldeman
climatic. Oldeman climatic classification uses the element of rainfall as a basis for determining the
classification its climate. The main type Oldeman classification is based on the number of
consecutive wet months, namely: Zone A, Zone B, Zone C, Zone D, and E. The zone subtypes
based on the number of consecutive dry months, namely: Zone 1, Zone 2, Zone 3 and zone 4
(Lakitan, 1994).
Based on the description of the background, it is necessary to do a research on the
climatic conditions currently affecting various aspects of human life and other living organisms
and is presented in the form of a research report entitled "Oldeman Climatic Zoning in Soppeng”.
The purpose of this study was to determine the distribution of climate types with Oldeman method.
METHODS
The research stage
This research stage includes data collection phase in the form of Soppeng rainfall data for the last 30 years. Then check the field, observing and plotting of each rainfall station. Data processing
by calculating the amount of rainfall based formula Oldeman, and GIS analysis in making
Oldeman climate distribution map in Soppeng.
Determination of climate types according to Oldeman
According to Oldeman climate to determine the climate types is the month of consecutive wet and dry consecutive month as well. To determining the Oldeman’ wet months and dry months,
there are:
Wet month is a month of rainfall over 200 mm
Dry month is the month of rainfall less than 100 mm (Kartasapoetra, 2008)
Based on the classification that focuses on the wet months, Oldeman offers five main zones of
wet months in a row as follows:
1) Zone A, wet months are more than 9 times in a row
2) Zone B, wet months are 7 to 9 times in a row
3) Zone C, wet months are 5 to 6 times in a row
4) Zone D, wet months are up 3 to 4 times
5) Zone E, wet months are less than 3 times (Kartasapoetra, 2008)
Table 1 Climate Criteria according to Oldeman
Month Rainfall
Wet >200 mm
Dry <100 mm
Source: Kadarsah, 2007
Table 2 Climate Zone by wet Month According to Oldeman
Climate The number of wet month in a row
A >9
B 7-9
C 5-6
D 3-4
E <3
Source: Kadarsah, 2007
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Proceedings of ICMSTEA 2016 : International Conference on Mathematics, Science, Technology, Education, and their Applications, Makassar, Indonesia, 3rd – 4th October 2016
Table 3 Oldeman Climate Classification based on the wet month and dry month
Climate Classification The number of wet month in a row The number of dry month in a row
A A1
A2
10-12 Months
10-12 Months
0-1 Month
2 Months
B
B1
B2
B3
7-9 Months
7-9 Months
7-8 Months
0-1 Month
2-3 Months
4-5 Months
C
C1
C2
C3
C4
5-6 Months
5-6 Months
5-6 Months
5-6 Months
0-1 Month
2-3 Months
4-6 Months
7 Months
D
D1
D2 D3
D4
3-4 Months
3-4 Months 3-4 Months
3-4 Months
0-1 Month
2-3 Months 4-6 Months
7-9 Months
E
E1
E2
E3
E4
E5
0-2 Months
0-2 Months
0-2 Months
0-2 Months
0-2 Months
0-1 Month
2-3 Months
4-6 Months
7-9 Months
10-12 Months
GIS Analysis with Kriging Interpolation
Spatial data processing is performed to determine the classification of the type of climate based
on Oldeman classification in the form of the area. The data in this spatial processing is rainfall for
over the past 30 years has been known in the wet and the dry months, climate type, and data
latitude and longitude coordinates post a graduated rainfall. The method is the Interpolation. The
interpolation method is a method of filling the data gaps with certain methods of a dataset to
generate a continuous distribution in the form of the area.
The methods in Geographic Information System that is used in the processing of these is by
interpolation of Kriging. Kriging interpolation is a method of estimating a value of a point on each
grid focus to the value of a point that has real value.
Steps for Kriging interpolation: 1. Input Oldeman climate types into excel.
2. In Excel contained Oldeman climate classification mode, then input the point coordinates in
the decimal degree of each rainfall measuring station.
3. In ArcGIS, export the excel data in a shapefile format.
4. Analyze the type of climate in order to interpolate by selecting ArcToolbox.
5. Because kriging interpolation is used in Arc Toolbox, select raster and select kriging
interpolation.
6. Click reclassify to reclassify raster re-class and select.
7. Due to the resulting interpolated still has no specific boundaries so the next step is clipping
Area. Where the move was made to cut the interpolation of the administrative map of the
region, in this case, is Soppeng area. 8. Once the results of the clip area appearing on the layer, then the next step is to export the
polygon as a result clip is still in the shape of raster area, by choosing conversion tools.
9. Showing interpolated in the form of a map layout, the distribution map of Oldeman climate
classification in Soppeng Regency area.
RESULTS AND DISCUSSION
This research used rainfall data in rainfall measuring posts in Soppeng for 30 years from 1985
to 2014. Calculation of rainfall as the basis for determining the classification of Oldeman climate
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done by calculating the average rainfall from 1985 to 2014 in each rainfall measuring posts in
Soppeng.
Table 4 Rainfall Data Monthly Average of 30 Years (1985-2014)
(Source: The results of the processing data, 2016)
Information:
BB= Month Wet,
BK = Month Dry.
In determining the wet months and dry months, according to Oldeman, is when an area has a
rainfall average monthly greater than 200 mm, the monthly rainfall in the area belonging to the wet month. If an area has an average monthly rainfall is less than 100 mm then the monthly rainfall in
the area is classified as dry months.
According to the table 7 Latappareng has 0 wet months and 5 months of dry, Leworeng have 2
months of wet and two dry months, Lapajung have one wet month and 3-month dry, Lalange have
one wet month and 3-month dry, Umpungeng has 5 wet months and 4 dry months, Sero has 0 wet
months and 3 months of dry, wet Salobunne have 8 months and 2 months of dry, wet and Congko
0 months 3 months to dry.
After wet months and dry months are known, the rainfall station data are classified based on
Table of the main type of Oldeman Classification Climate and Table of The sub-type of Oldeman
Classification Climate. The following data is:
Table 5 The Climate type Based on the main Oldeman climate type and Oldeman climate sub-type
of Soppeng
Number Name of Statiun Wet Month Dry Month Climate Type
1 Latappareng 0 5 E3
2 Leworeng 2 2 E2
3 Lapajung 1 3 E2
4 Lalange 1 3 E2
5 Umpungeng 5 3 C3
6 Sero 0 3 E2
7 Salobunne 8 2 B2
8 Congko 0 3 E2
Source: The results of the analysis of climate type, 2016
Based on Table 4.5 the regions with an E climate type (E2, E3) are the regions of Latappareng
station, Leworeng station, Lapajung station, Lalange station, Sero station, and Congko station and the region of C3 climate type is the region of Umpungeng station, and the climate of B2 type is
the region of Salobunne station. After knowing the type of Oldeman climate classification, next is
No Nama Stasiun JAN FEB MAR APR MEI JUN JUL AGS SEP OKT NOP DES BB BK
1 Latappareng 107.8 88.83 89.8 185.5 163.9 113 115.7 71.7 53.8 89 109.8 142.7 0 5
2 Leworeng 163.5 166 156.8 206.2 240.4 168.8 163 60 55.9 125 167.4 100.8 2 2
3 Lapajung 181.8 140.8 148.1 167 206.3 144.2 134.2 43.9 34.3 95 133.2 184.7 1 3
4 Lalange 130.2 108.6 132.6 150.8 202.6 167.9 129.8 56.4 46.1 86 121 118.1 1 3
5 Umpungeng 323.8 313.9 213.5 209.4 183 131.9 88.97 52 39.1 86 137.4 241.2 5 3
6 Sero 173.3 140.3 124.3 143.3 182.6 126.1 119.8 36.6 37.8 92 138.6 186.8 0 3
7 Salobunne 276.8 224.1 273.1 279.6 396.5 282.6 191.9 98.6 92.6 178 224.5 321.7 8 2
8 Congko 169.9 118.3 134.7 163.3 193.4 148.1 118 52.5 28.6 74 122.8 154.2 0 3
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Proceedings of ICMSTEA 2016 : International Conference on Mathematics, Science, Technology, Education, and their Applications, Makassar, Indonesia, 3rd – 4th October 2016
an interpolation of Oldeman climate type classification with the shaped element must be first
converted into a form of numbers.
The changes of attribute data are based on agro-climatic zones of each type of climate. Climate
types that have the most growing season will rate of at least a small number, whereas the type of
climate that has a growing season of at least will become the greatest score, and if the climate type
there is the same agro-climate zones, the greatest scoring will be given to the climate type that has
a number behind capital letter, and the following results are:
Table 6 Classification Notation Climate Data Attribute PosOldeman by a graduated Rainfall in
Soppeng
No Name of
station
Climate
type Agro-climate zone
Attribute
data
1 Latappareng E This area is too dry may only be one time
depending on their crops and even then rain 80
2 Leworeng E area is too dry may only be 1 time palawiaja
even then depending on their rain 80
3 Lapajung E E area is too dry may only be 1 time palawiaja
even then depending on their rain 80
4 Lalange E area is too dry may only be 1 time palawiaja
even then depending on their rain 80
5 Umpungeng C3 crops Rice once and 2 times but crops that both
must be carefully 50
6 Sero E area is too dry may only be 1 time palawiaja
even then depending on their rain 80
7 Salobunne B2 Rice Twice a year with crops 30
8 Congko E area is too dry may only be one time depending
on their crops and even then rain 80
Source: data processing, 2016
E-climate Type with agro-climate zones with the more dry areas can only be used one time to
plant the crops planted as the 2d crop in the dry season are given 80 attribute data that is located in
the region of Latappareng station, Leworeng station, Lapajung station, Lalange station, Sero
station and Congko station. C3 climate type with Agro-climate zone that have 1 times planting of
rice and 2 times planting the crops given the 50 attribute data in Umpungeng station area, and B2
climate type with agro-climatic zones that have Rice planting for 2 times a year and crops in 1
time are given the 30 attribute data in Salobunne station area.
The distribution of Oldeman Climate types can be viewed on an Oldeman climate classification map. The Interpolation used was Kriging, which were interpolated is the attribute values have been
determined based on the type of climate and the point coordinates at each observation station in
the area of research. The climate dissemination is basically aimed shows the limits of the coverage
area of climate types have been counted on each observation station. On the map of the
distribution of Oldeman climate types that have been generated can show zoning criteria and type
of climate as well as the breadth of each region at each observation station. Based on the results in
the reclassification of distribution map of Oldeman climate types can be seen that the climate type
spread in Soppeng is climate B2, C3, and E. Each type of climate is spreading in various sub-
districts in Soppeng. This climate types in its range of each region. For more details can be seen in
the following table:
Table 7 Distribution Type Size Region Climate Research Areas
No Climate Type Area (Ha) Percentage (%)
1 B2 17590.05 13%
2 C3 58923.29 43%
3 E 59901.33 44%
Total 136414.67 100%
Source: data processing, 2016
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From the rainfall monthly data, the average during 30 years (1985-2014) used and by using GIS, it
was found that Soppeng has climate type mode based on the Oldeman’ classifications are type B2,
C3, and E.
a. B2 Type
Oldeman Climate classification type of B2 spread in Soppeng total of 13% of the entire region
of Soppeng or an area of 17590.05 hectares which include: partial region of Marioriawa
District, the Bulue village, Laringgi village, ManorangSalo village, Tellulimpoe village, and
Patampanua village as well as a relatively small area of Donri-donriSubdistrict in the northern
part of the LalabataRiaja village. This climate types according to agroclimatic zones can be
planting two crops in one year with a variety of short lifespan and the dry season is short
enough for planting crops. b. C3 Type
Oldeman Climate classification type of C3 spread in Soppeng as much as 43% of the total
area in Soppeng or an area of 58923.29 hectares which include: partial region District of
Marioriawa, the AttangSalo village, Desa stones village, Bulue village on the west side,
eastern Laringgi village, ManorangSalo eastern in the Eastern side, Limpomajang village,
Kaca village, TelluLimpoe village on the eastern side, Panincong Village, Patampanua village
on the eastern side, most of Donri-donri District, there are Tottong village, the small part of
Labokong village on the north side, Sering village, Kessing Village on the eastern side, Donri-
Donri village, Pesse village in thw Western side, RiajaLalabata village, Pising village on the
Eastern side, Leworeng village on the northern side, a half part of Lalabata village, there are
Bila village on the northern side, the Mattabulu village on the eastern side, the Botto village, and most of Lebbae village. Lilirilau district there are Tetewatu village and Palangisang
village on the eastern side. And the most of Mariorawa district, there are Barae village, goarie
village, Marioriaja village, Gattareng Toa village, and Gattareng village. Agro-climatic zone
of this type is just one time of planting rice and the second crops planting have to be careful
not to fall in the dry months.
c. E Type
E-climate type classification based on Oldeman in Soppeng spread over as much as 44% of
the entire area in Soppeng or broad of 59901.33 hectares that include: Most of Citta district,
the Kampir village, Citta village, and Tinro village. Most of Donri-Donri district there are
Labokong village, Pisisng Village, Pesse village, kissing village danLeworeng village. Ganra
district, there are Ganra village, Belo village, enrekeng village, danLompulle village.
Lalabata district, there are LalabataRilau village, Ompo village, Bila village, SaloKaraja village, Lemba village, Maccile village, Mattabulu village, Lapajung village, Umpungeng
village, Liliriaja district there are Galung village, jennae village, Rompegading village,
Appanang village, Pattojo village, Jampu village, Lilirilau district there are Paroto village,
Ujung village, Tetewatu village, Macanre village, Pajalesang village, Masing village,
Parenring village, Abbanuangnge village, Palangiseng village, Baringeng village, danKebo
village, MarioriwawoLabessi district, Congko village, Mario Rilau village, Tettikenrarae
village, Watutoa village, Soga village, Goarie village, Watu village, Marioritengnga village,
danMarioriaja village This type of regional agro-climatic zone is too dry may only be 1 times
the crops and it depends on the rain.
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Frequency of Planting in Soppeng
Based on the data of BPS in Soppeng Regency, the Frequency results of Planting Rice and
Crops in Soppeng, there are:
Table 8 Frequency of Investment Soppeng
No Name of Sub-district Frequency Annual Investment
Paddy Corps
1 Marioriwawo 2 Times -
2 Lalabata 2 Times -
3 Liliriaja 2 Times -
4 Ganra 1 Time -
5 Citta 2 Times -
6 Lilirilau 2 Times -
7 Donri-donri 2 Times -
8 Marioriawa 2 Times 1
Source: BPS, 2014
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Based on the results of questioners and surveys of the frequency of rice and corps planting,
there are:
a. 2 times rice planting period
2 times rice planting in some district region in Soppeng regency, there are Mariorawa district,
Lalabata district, Liliriaja district, citta district, Lilirilau district, and Donri-donri district.
b. 1 time Rice Planting Period
Rice planting season is only found in one of the districts in the region Soppeng, it is Ganra district.
c. 2 times for rice planting and 1-time Crops-planting period
Rice planting Periods are 2 times and the crops planting period is 1 time in Mariorawa, one of
the districts in the northern Soppeng Regency.
Based on the results of interpolation using GIS with Kriging method is found that the agro-
climate zone and climate types in Soppeng divided into three zones of Agro-climatic based on
Oldeman climate classification, there are rice planting is twice within one year with a variety of
short lifespan and the dry season short enough for planting crops (type B2), only one rice planting
and the second planting crops must be careful not to fall in the dry (type C3), this area is generally
too dry, it may only be one of the crops, and even then subject to the rain (type E). While BPS on
2014 and the results of field survey Frequency annual planting in Soppeng can be divided into three, that is 2 times for rice planting per year, 1-time rice planting per year and 2 times for rice
planting and 1 times for crops. Based on the data generated map compatibility between agro-
climatic zones according to the frequency Oldeman rice cultivation in Soppeng.
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The frequency of the most dominanOldeman Climate classification type of B2 spread in
Soppeng total of 13% of the entire region of Soppeng or an area of 17590.05 hectares which
include: partial region of Marioriawa District, the Bulue village, Laringgi village, ManorangSalo
village, Tellulimpoe village, and Patampanua village as well as a relatively small area of Donri-
donriSubdistrict in the northern part of the LalabataRiaja village. This climate types according to
agro-climate zones can be planting two crops in one year with a variety of short lifespan and the
dry season is short enough for planting crops.
The type of climate and agro-climatic zones in Citta Sub-district divided by 2 is E-Type with too dry areas that only allows 1-time crops and C3 type with agro-climatic zones with 1 times for
rice planting and 2 times for corps planting. However, based on the frequency of planting Soppeng
in District Citta occur 2 times the cultivation of rice in a year, it indicates a mismatch between the
frequency Agroclimatic Zone planting in Citta sub-district. Citta sub-district which has Size
3493.14 Ha. Sub-district Citta with agro-climatic zone 1 time for crops are not in accordance with
the frequency of 2 times rice cultivation in a year has an area of 2210.68 hectares or 63% of the
total area in Citta sub-districts. Then, the Citta sub-district with agro-climatic zones for the rice
planting in 1 times and for the crops planting in 2 times are inappropriate for the frequency of rice
cultivation in a year has an area of 1282.46 hectares or 37%. Overall, the Citta sub-district between
agro-climatic zones and planting occurs inexpediency. These frequency caused by the irrigation
technology that provides the water supply so Crop Water Requirement (CWR) or so-called water
the plant needs are met and to do rice cultivation as much as 2 times a year. Donri-donri sub-district which has an area of 21902.81 hectares based on the type of climate
and agro-climatic zone is divided into three, there are E-Type with areas too dry that only allows 1
time for corps planting, C3 type with agro-climatic zones with 1 time for rice planting and 2 times
for crops planting, and B2 type with agro-climatic zones are 1 times for rice planting and 2 times
for crops planting. Based on Table 4.9 Donri-Donri sub-district has corresponding regions and is
not suitable for agro-climatic zones with a frequency between plantings. Donri-donri Sub-district
with the agro-climatic zone is 1 time for crops planting are not in accordance with the frequency of
2 times rice cultivation in a year has an area of 4337.36 hectares or 20% of the total area of Donri-
donri sub-district. And the Donri-donri sub-district with agro-climatic zones have 1 time for corps
planting and 2 times for crops planting, also do not correspond to the twice paddy planting
frequency in a year that has broad 16831.25 or 77% of the total area of Donri-donri districts. So, the Donri-donri sub-district amounted to 97% of its territory between agro-climatic zones and
planting occurs inexpediency. It happened because of irrigation technology that provides water
supply and helps the farmers to apply the CWR way for paddy cultivation and the paddy planting
time can become twice in a year. And there are 3% of Donri-Donri sub-district with agro-climate
zone have 2 times for corps planting in a year and the crops are the same as paddy planting in
Donri-Donri, twice in a year.
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The GanraSubdistrict have E climate type with the agro-climate zone. This area is too dry that
only allows 1 time for crops planting. However, based on the frequency of the planting of the
Ganra area planted with 1-time paddy planting in a year. So, the Ganra district have an
inexpediency between agroclimatic zone and planting frequency. It is because the irrigation
technology that provides the water supply so that CWR and fulfill the once a year of paddy
planting, and in this district, the irrigation water supply is only able to help for once a year of
paddy planting because it is the last area for the flow of water irrigation so that the water supply is
less.
SubdistrictLalabata, based on the type of climate and agro-climatic zones divided by 2 is Type
E with areas too dry that only allows 1-time crops and C3 climate type with agro-climatic zones
have 1 time for rice planting and 2 times for crops planting. However, based on the frequency of
planting in Soppeng exactly in Lalabata, have rice cultivation occurs two times in a year, it indicates a mismatch between the frequency Agro-climate Zone planting in Lalabata Sub-district.
Lalabata, that has 29899.28 hectares area with agro-climatic zone have 1-time crops planting is not
in accordance with the frequency of 2 times paddy cultivation in a year with 11624.66 hectares or
39% of the total area in Lalabata sub-districts. Then, the Lalabata District with agro-climatic zones
have 1 time for rice planting and 2 times for crops planting is a mismatch to the frequency of rice
cultivation in a year have an area of 18274.62 hectares or 61% of the total area of Lalabata district.
So, the Lalabata District occurs an inexpediency between agro-climatic zones and planting
frequency. It is because the irrigation technology that provides the water supply so that CWR and
fulfill twice a year of paddy planting.
District of Liliriaja has one type of climate and agro-climatic zone E-type with areas too dry
that only allows 1 time for corps planting. The whole District of Liliriaja occurs an inexpediency between agro-climatic zones and planting frequency. It is caused by the irrigation technology that
provides the water supply so that CWR rice plant are met and to do rice cultivation as much as 2
times in a year, so the lack of rainfall affecting agro-climatic zones did not significantly affect rice
cultivation in of this area.
LilirilauSubdistrict based on the type of climate and agro-climatic zones divided by 2, there is
E-Type with areas too dry that only allows 1-time crops and C3 type with agro-climatic zone have
1 time for rice planting and 2 times for crops planting. However, based on the frequency of
planting in Soppeng, exactly in Lilirilau District rice cultivation occurs two times in a year, it
indicates a mismatch between the planting frequency and Agro-climatic Zone. SubdistrictLilirilau
that has 15874.12 hectares area. LilirilauSubdistrict with agro-climatic zone has 1-time crops are
not in accordance with the frequency of 2 times paddy cultivation in a year that has an area of
899.08 hectares or 6% of the total area of Lilirilau districts. Then the District Lilirilau with agro-climatic zones and crops Rice 1 times 2 times do not correspond to the frequency of rice
cultivation in a year has an area of 14975.04 hectares or 94% of the total area of the District
Lilirilau. So overall the District Lilirilau between agro-climatic zones and planting occurs
inexpediency. it is caused by the irrigation technology that provides the water supply that causes
CWR can fulfill rice cultivation and can be done 2 times a year so the lack of rainfall affecting
agro-climatic zone is not too affecting rice cultivation in this area.
SubdistrictMarioriawa which has an area of 27054.32 hectares based on the type of climate and
agro-climatic zones divided by 2 is the C3 mode with agro-climatic zones with crops of rice 1
times 2 times and Type B2 with two rice agro-climatic zones with crops. According to Table 4.9,
Sub-District Marioriawa has corresponding regions and is not suitable agro-climatic zones with a
frequency between plantings. SubdistrictMarioriawa zone agroclimatic rice 1 time and pulses 2 times do not correspond to the frequency of planting two times the rice and 1 times crops a year
has broad 10295.63 or 38% of the total area districts Donri-donri, between zones agroclimatic and
frequency planting, occurs nonconformity. It is caused by the irrigation technology that provides
the water supply so that CWR f dan rice plant rice cultivation can be done 2 times a year. As 62%
of the District of Marioriawa with agro-climatic zones Rice 2 times a year to crops in accordance
with the frequency of planting in the District Marioriawa this is caused by the high rainfall in the
region.
SubdistrictMarioriwawo based on the type of climate and agro-climatic zones divided by 2 is
Type E with areas too dry that only allows 1-time crops and C3 mode with agro-climatic zones
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have 1 time for rice planting and 2 times for crops planting. However, based on the frequency of
planting in Soppeng exactly Marioriwawo District rice cultivation occurs two times in a year, it
indicates a mismatch between the frequencyAgroclimatic Zone Investment in Sub Marioriwawo.
SubdistrictMarioriwawo who has 23458.12 hectares area. SubdistrictMarioriwawo with agro-
climatic zone has 1-time crops planting are not in accordance with the frequency of 2 times paddy
cultivation in a year that has an area of 12499.40 hectares or 53% of the total area of Marioriwawo
districts. Then the District of Marioriwawo with agro-climatic zones have 1 time for rice planting
and 2 times for crops planting do not correspond to the frequency of rice cultivation in a year has
an area of 10958.72 hectares or 47% of the total area of the District Marioriwawo. So overall the
District Lilirilau between agro-climatic zones and planting occurs inexpediency. It is caused by the
irrigation technology that provides the water supply so that CWR rice plant are met and to do rice
cultivation as much as 2 times a year so the lack of rainfall affecting agro-climatic zone is not too affecting rice cultivation in this area.
CONCLUSION
Based on Geographic Information System analysis, shows that Soppeng has three types of climate
and the Classification of Oldeman Agro-climate zone are B2 climate type with agro-climate zone
have twice for paddy planting with the short life span varieties and once for the crops planting,
C2 climate type with agro-climate zone have one time for paddy planting and one time for crops planting and the E climate type with Agro-climate zones have once for crops planting and there
are 24.6% of the area in Soppeng have compatibility between agro-climatic zones and planting
frequency.
REFERENCES
1. Kartasapoetra, A.G. 2008. Klimatologi :PengaruhIklimterhadap Tanah danTanaman (EdisiRevisi). BumiAksara. Jakarta
2. Lakitan, B. 1994.Dasar-Dasar Klimatologi.Jakarta : PT. Raja GrafindoPersada.
3. Lakitan, B. 2002.Dasar-Dasar Klimatologi.Cetakanke-dua.RajaGrafindoPersada. Jakarta
4. Tjasyono, B. 2006.Klimatologi.Cetakan KE-2.IPB Press. Bandung.