EXTRACTION OF REMOTE SENSING INFORMATION OF BANANA UNDER SUPPORT OF 3S TECHNOLOGY IN GUANGXI PROVINCE

Similar documents
THE DESIGN AND IMPLEMENTATION OF SUGAR-CANE INTELLIGENCE EXPERT SYSTEM BASED ON EOS/MODIS DATA INFERENCE MODEL

DROUGHT RISK EVALUATION USING REMOTE SENSING AND GIS : A CASE STUDY IN LOP BURI PROVINCE

OVERVIEW OF IMPROVED USE OF RS INDICATORS AT INAM. Domingos Mosquito Patricio

AGRICULTURE DROUGHT AND FOREST FIRE MONITORING IN CHONGQING CITY WITH MODIS AND METEOROLOGICAL OBSERVATIONS *

Land cover/land use mapping and cha Mongolian plateau using remote sens. Title. Author(s) Bagan, Hasi; Yamagata, Yoshiki. Citation Japan.

SUPPORTING INFORMATION. Ecological restoration and its effects on the

DROUGHT ASSESSMENT USING SATELLITE DERIVED METEOROLOGICAL PARAMETERS AND NDVI IN POTOHAR REGION

Agricultural land-use from space. David Pairman and Heather North

Monthly overview. Rainfall

Preparation of LULC map from GE images for GIS based Urban Hydrological Modeling

DROUGHT MONITORING FOR ASIA-PACIFIC AREA USING THE CLOUD PARAMETERS METHOD BASED ON FY-2 DATA

Spatial Drought Assessment Using Remote Sensing and GIS techniques in Northwest region of Liaoning, China

Assessing Drought in Agricultural Area of central U.S. with the MODIS sensor

Preliminary Research on Grassland Fineclassification

Meteorology. Chapter 15 Worksheet 1

Drought Monitoring Based on the Vegetation Temperature Condition Index by IDL Language Processing Method

Vegetation Remote Sensing

The use of satellite images to forecast agricultural production

Application of Atmosphere Precipitation Resources Distribution Remote Sensed by Ground-based GPS in the West of Taiwan Strait.

Drought and its effect on vegetation, comparison of NDVI for drought and non-drought years related to Land use classifications

Chapter 3 Section 3 World Climate Regions In-Depth Resources: Unit 1

Atmospheric correction of HJ1-A/B images and the effects on remote sensing monitoring of cyanobacteria bloom

Crops Planting Information Retrieval at Farmland Plot Scale Using Multi-Sources Satellite Data

Global Climates. Name Date

CALIBRATION INFRASTRUCTURE AND TYPICAL APPLICATIONS OF CHINA LAND OBSERVATION SATELLITES. Li Liu. Executive summary (corresponding to ca ½ a page)

CLIMATE. UNIT TWO March 2019

Interannual variation of MODIS NDVI in Lake Taihu and its relation to climate in submerged macrophyte region

Chapter-3 GEOGRAPHICAL LOCATION, CLIMATE AND SOIL CHARACTERISTICS OF THE STUDY SITE

Average temperature ( F) World Climate Zones. very cold all year with permanent ice and snow. very cold winters, cold summers, and little rain or snow

The Study of Dynamic Monitor of Rice Drought in Jiangxi Province with Remote Sensing

An Algorithm for Retrieving Land Surface Temperatures Using VIIRS Data in Combination with Multi-Sensors

GIS-BASED DISASTER WARNING SYSTEM OF LOW TEMPERATURE AND SPARE SUNLIGHT IN GREENHOUSE

Hyperspectral Remote Sensing --an indirect trait measuring method

Lecture Topics. 1. Vegetation Indices 2. Global NDVI data sets 3. Analysis of temporal NDVI trends

ANALYSIS AND VALIDATION OF A METHODOLOGY TO EVALUATE LAND COVER CHANGE IN THE MEDITERRANEAN BASIN USING MULTITEMPORAL MODIS DATA

Seasonal and interannual relations between precipitation, soil moisture and vegetation in the North American monsoon region

Earth s Climate Patterns

Impact of aerosol on air temperature in Baghdad

Grassland Phenology in Different Eco-Geographic Regions over the Tibetan Plateau Jiahua Zhang, Qing Chang, Fengmei Yao

Energy Systems, Structures and Processes Essential Standard: Analyze patterns of global climate change over time Learning Objective: Differentiate

Radiation transfer in vegetation canopies Part I plants architecture

RESEARCH METHODOLOGY

DROUGHT IN MAINLAND PORTUGAL

Climate Classification Chapter 7

Constructing a typical meteorological year -TMY for Voinesti fruit trees region and the effects of global warming on the orchard ecosystem

Drought monitoring based on the vegetation temperature condition index. by IDL language processing method

Factors That Affect Climate

Spati-temporal Changes of NDVI and Their Relations with Precipitation and Temperature in Yangtze River Catchment from 1992 to 2001

2016 International Conference on Modern Economic Development and Environment Protection (ICMED 2016) ISBN:

The relationship analysis of vegetation cover, rainfall and land surface temperature based on remote sensing in Tibet, China

The Relationship between Vegetation Changes and Cut-offs in the Lower Yellow River Based on Satellite and Ground Data

Prentice Hall EARTH SCIENCE

Abstract. TECHNOFAME- A Journal of Multidisciplinary Advance Research. Vol.2 No. 2, (2013) Received: Feb.2013; Accepted Oct.

Application of Background Information Database in Drought Monitoring of Guangxi in 2010

What is Climate? Understanding and predicting climatic changes are the basic goals of climatology.

Physical Features of Monsoon Asia. 192 Unit 7 Teachers Curriculum Institute 60 N 130 E 140 E 150 E 60 E 50 N 160 E 40 N 30 N 150 E.

Our climate system is based on the location of hot and cold air mass regions and the atmospheric circulation created by trade winds and westerlies.

ANALYSIS OF THE FACTOR WHICH GIVES INFLUENCE TO AVHRR NDVI DATA

The Climatology of Clouds using surface observations. S.G. Warren and C.J. Hahn Encyclopedia of Atmospheric Sciences.

forest tropical jungle swamp marsh prairie savanna pampas Different Ecosystems (rainforest)

Analysis on Characteristics of Precipitation Change from 1957 to 2015 in Weishan County

THE EARTH. Some animals and plants live in water. Many animals, plants and human beings live on land.

Application of Seasonal Climate Prediction in Agriculture in China

Determination of the NDSI index and cloud mask algorithm (The Case Study: Sepidan Region, Iran)

SPATIAL AND TEMPORAL PATTERN OF FOREST/PLANTATION FIRES IN RIAU, SUMATRA FROM 1998 TO 2000

MAPPING LAND USE/ LAND COVER OF WEST GODAVARI DISTRICT USING NDVI TECHNIQUES AND GIS Anusha. B 1, Sridhar. P 2

FOREST FIRE HAZARD MODEL DEFINITION FOR LOCAL LAND USE (TUSCANY REGION)

Overview on Land Cover and Land Use Monitoring in Russia

PYROGEOGRAPHY OF THE IBERIAN PENINSULA

Climates of Earth. Lesson Outline LESSON 1. A. What is climate? 1. is the long-term average weather conditions that occur in a particular region.

Attribution of Estonian phyto-, ornitho- and ichtyophenological trends with parameters of changing climate

Geographical location and climatic condition of the

Land Surface Remote Sensing II

Monthly overview. Rainfall

World Geography Chapter 3

Leveraging Sentinel-1 time-series data for mapping agricultural land cover and land use in the tropics

Prentice Hall EARTH SCIENCE

GEO Joint Experiment for Crop Assessment and Monitoring (JECAM): 2014 Site Progress Report

Remote sensing Based Assessment of Urban Heat Island Phenomenon in Nagpur Metropolitan Area

Critical review of the Climate Change Impact on urban areas by assessment of Heat Island effect

ATMOS 5140 Lecture 1 Chapter 1

CLIMATE CHANGE Albedo Forcing ALBEDO FORCING

Climate and the Atmosphere

Weather and Climate of the Rogue Valley By Gregory V. Jones, Ph.D., Southern Oregon University

WHAT CAN MAPS TELL US ABOUT THE GEOGRAPHY OF ANCIENT GREECE? MAP TYPE 1: CLIMATE MAPS

Project title. Evaluation of MIR data from SPOT4/VEGETATION for the monitoring of climatic phenomena impact on vegetation

MDA WEATHER SERVICES AG WEATHER OUTLOOK. Kyle Tapley-Senior Agricultural Meteorologist May 22, 2014 Chicago, IL

Climate Dataset: Aitik Closure Project. November 28 th & 29 th, 2018

Long term weather trends in Phaltan, Maharashtra. French intern at NARI, student from Ecole Centrale de Lyon, Ecully 69130, France.

Dust Storm: An Extreme Climate Event in China

Meteorological Satellite Image Interpretations, Part III. Acknowledgement: Dr. S. Kidder at Colorado State Univ.

Many of remote sensing techniques are generic in nature and may be applied to a variety of vegetated landscapes, including

Comparison of cloud statistics from Meteosat with regional climate model data

A HIGH RESOLUTION EUROPEAN CLOUD CLIMATOLOGY FROM 15 YEARS OF NOAA/AVHRR DATA

Application of ZY-3 remote sensing image in the research of Huashan experimental watershed

Ganbat.B, Agro meteorology Section

CORRELATION BETWEEN URBAN HEAT ISLAND EFFECT AND THE THERMAL INERTIA USING ASTER DATA IN BEIJING, CHINA

CATCHMENT DESCRIPTION. Little River Catchment Management Plan Stage I Report Climate 4.0

Indian National (Weather) SATellites for Agrometeorological Applications

APPENDIX. Normalized Difference Vegetation Index (NDVI) from MODIS data

Transcription:

EXTRACTION OF REMOTE SENSING INFORMATION OF BANANA UNDER SUPPORT OF 3S TECHNOLOGY IN GUANGXI PROVINCE Xin Yang 1,2,*, Han Sun 1, 2, Zongkun Tan 1, 2, Meihua Ding 1, 2 1 Remote Sensing Application and Test Base of National Satellite Meteorology Centre, Nanning, China, 530022 2 GuangXi Institute of Meteorology, Nanning, China 530022 * Corresponding author, Address: GuangXi Institute of Meteorology, Nanning, 530022, P. R. China, Tel:+86-771-5875207,Fax:+86-771-5865594, Email:yangxinzhuanyong@sina.com Abstract: Keywords: This paper presents an automatic approach to planting areas extraction for mixed vegetation and hilly region, more cloud using moderate spatial resolution and high temporal resolution MODIS data around Guangxi province, south of China. According to banana growth lasting more 9 to 11 months, and the areas are reduced during crush season, the Maximum likelihood was used to extract the information of banana planting and their spatial distribution through the calculation of multiple-phase MODIS-NDVI in Guangxi and stylebook training regions of banana of being selected by GPS. Compared with the large and little regions of banana planting in monitoring image and the investigation of on the spot with GPS, the resolute shows that the banana planting information in remote sensing image are true. In this research, multiple-phase MODIS data were received during banana main growing season and preprocessed; NDVI temporal profiles of banana were generated; models for planting areas extraction were developed based on the analysis of temporal NDVI curves; and spatial distribution map of planting areas of banana in Guangxi in 2006 were created. The study suggests that it is possible to extract planting areas automatically from MODIS data for large areas. MODIS, 3S technology, banana, remote sensing information extraction

294 Xin Yang, Han Sun, Zongkun Tan, Meihua Ding 1. INTRODUCTION Banana is a monocotyledon which belongs to Musaceae from Musa. It is one of the four most famous fruits in the world. It has high yield, quick product, tastes good and crisp and rich nutrition. The banana output in china rank third in the world, and the planting area reached 80,000Ha in 2007. It is the second place in Chinese. Guangxi located in the area of low latitude (20o-27o) complicated geographic environment. Meteorological disaster such as frost injury, cold wave and drought could seriously affect banana production, especially in 2008. The most continuously lower temperature, rainy and snowy, freeze injury weather took place from on Jan 12th to Feb 12th in the southern of China. The disaster occurs once in fifty years. Banana and other sub-tropic crops were suffered injury severity. However, due to the laggard monitoring method and monitoring means, disaster loss evaluation had not been exactitude evaluated till on Apr 1st, 2008. The exactly and quickly evaluating disaster losing have become a focus issue for government.planting spatial distribution information is key factor in quickly disaster losing evaluation. With the development of satellite remote sensing technology, extraction of remote sensing information of banana planting spatial distribution by using 3S technology has become reality. Guangxi Province is the second biggest region of banana planting in China. Taking banana planting of Guangxi Province as example, the article try to use MODIS data for extraction of remote sensing information of banana planting spatial distribution. The objective is to make better use of 3S technology to serve the society. 2. METHODS 2.1 Study area and data source This study area is located in Guangxi province, south of China. It's latitude is 20 54 26 23 N and longitude is 104 29 112 04 E, total area is 236700.0km 2. It belongs to monsoon region of south subtropical zone and north tropical zone without four clearly demarcated seasons of spring, summer, autumn and winter. The climate here is hot and humid in summer and warm and dry in winter. Data input to the method is assumed to be calibrated and navigated level 1B radiance data which offered by National Satellite Meteorological Center and DVBS of GuangXi Institute of Meteorology. The time segment of

Extraction of Remote Sensing Information of Banana under Support of 3S Technology in Guangxi Province 295 complete data is from 2002 to 2007. The MODIS data used to this method must be clear without cloud or little cloud images. 2.2 Extraction of remote sensing information method Due to the relationship between vegetation indices calculated by different algorithms, reflectance of bands and field measurements of NDVI, we retrieve NDVI by using EOS/MODIS data. A NDVI retrieval model for study area can be established with this relationship. The specific flow chart of retrieval technique is shown as Fig. 1. Fig.1. The flow chart of the identify and extraction of banana planting space distribution information based on EOS/MODIS data Based on the above flow chart of technique, detailed steps are described as follows: (1)Inversing reflectance for EOS/MODIS imagery The objective of atmospheric correction for EOS/MODIS data is to attain related parameters which can indicate the vegetation inherent properties of the region. Since the remotely sensed image was affected by reflective solar energy, solar elevation, zenith angle, the thickness of aerosol and the

296 Xin Yang, Han Sun, Zongkun Tan, Meihua Ding bidirectional scattering due to the mutual influence of ground environment factors, we should take into account both atmospheric and bidirectional scattering to obtain accurate ground reflectance. Because the parameters of atmospheric profile based on measurements data or standard atmospheric profile were not established in China, in this paper we adopted international standard parameters of atmospheric profile to correct EOS/MODIS image. (2) Obtaining characteristic parameters of vegetation Due to the chlorophyll and inner architecture of foliage, a special reflective spectrum of vegetation foliage was formed like intensive absorption in the red waveband and intensive reflection in the near infrared waveband. Normalized difference vegetation index (NDVI) is chosen to obtain the vegetation coverage information from the satellite images. This index combines the algorithms of EVI, DVI and DDVI together with high fidelity of indicating the vegetation on the ground. It is one significant indirect index of the growth and number of vegetation and has a linear correlation with the vegetation coverage density. The formula is shown as: NDVI=(NIR-RED)/NIR+RED -1 NDVI 1 (1) In which NIR and RED represents the reflectivity of the vegetation coverage on the near-infrared band and red band respectively. From the equation we can see that the water area and roadway area and city or town area, theirs value of NDVI are below 0 or approach constant value in different seasons. But the land surface with cover foliage, NDVI ranges from 0.1 to 0.7. NDVI has been applied in many fields, such as land cover or change, vegetation and environment change, net primary productivity and the assessment of crop yield. (3)Sample training regions of banana of being selected by GPS To the same foliage, its value of NDVI is various with its growth process. As result, the values of NDVI between foliages are diversity in different seasons. In order to mastery the spectrum characteristic of banana and distinguish banana from many kinds of foliages, some sample training regions of banana (the area must be bigger than 7 ha 2 ) in different county of Guangxi were selected by GPS (the Global Positioning System). (4) The identify and extraction of banana planting information based on EOS/MODIS data In the first place, the values of NDVI of sample training regions of banana during the main growing seasons were calculated. As result, we could find the variety trend of curves of banana in regions being consistent (Fig.2).

Extraction of Remote Sensing Information of Banana under Support of 3S Technology in Guangxi Province 297 Fig2. The curse of NDVI of banana in Dacheng Town Banana s growth lasts more 9 to 11 months, the main of crops is banana in Guangxi province during winter, and the areas of banana cover are reduced during crush season. When the crush season was over, the values of banana planting areas approached zero. The same time, corn and rice and soybean, theirs growth (from sowing to harvest) are general lasting 3 or 4 months. The south subtropical zone and north tropical zone forest growth lasting more than 12 months, but its value of NDVI anniversary approach constant. Consequently, the curves of NDVI variety in different foliages during the main growth seasons are difference. We can use the Maximum likelihood to extract the information of banana planting and its spatial distribution through the calculation of multiple-phase MODIS-NDVI from different foliages in Guangxi province. The result shows that the information of banana planting and its spatial distribution in 2006 were clearly in remote sensing imagine (Fig.3). The survey of field also showed that the information of banana planting based on multiple-phase EOS/MODIS data was highly reliable and truth. Fig3. the imagine of banana planting and its spatial distribution based on EOS/MODIS in Guangxi province

298 Xin Yang, Han Sun, Zongkun Tan, Meihua Ding 3. CONCLUSION AND DISCUSSION Based on the above study and analysis, some conclusions can be drawn as follows: (1) It is first used for extraction of banana planting spatial distribution information by using MODIS data. (2)Method for extraction of banana planting spatial distribution information by using MODIS data is given in this paper. (3) Decomposition of Mixed pixel is a difficulty points in calculating area of banana, so this paper does not calculate area of banana. ACKNOWLEDGEMENTS This research was supported by National 11th Five-Year Plan major scientific and technological issues (2006BAD04B03) and National Key Technologies R&D Program (2008BAD08B01), It is also supported by the China Meteorological Administration new technology extend project CMATG2006M42, Sincerely thanks are also due to Guangxi Climate center and National Satellite Meteorology Center for providing the data for this study. REFERENCES Cheng Qian Huang J F Analyses of the Correlation Between Rice LAI and Simulated MODIS Vegetation Indices Red Edge Position U) Transactions of the CSAE 2003 19(5):104-108 Huete A Justice C Leeuwen V MODIS Vegetation Index(MOD1 3)Version 3 April 1999 Algorithm Theoretical Basis Document Kontoes C,Wilkinson G G, Burril A, et al. An Experimental System for the Integration of GIS Data in Knowledge Based Image Analysis for Remote Sensing of Agriculture. International Journal of Geographical Information Systems,1993,7(3):247-262 Murthy C S, Raju P V, Badrinath K V S Classification of Wheat Crop with Multi-temporal Images: Performance of Maximum Likelihood and Artificial Neural Networks. Int J Remote Sensing,2003,24(23):4871-4890 Zhao M S, Fu C B, Yan X D, et al. Study on the relationship between different ecosystem and climate in China using NOAA/AVHRR data. Acta Geographica Sinica, 2001, 56(3):287-296.(in Chinese) Zheng Y R, Zhou G S. A forest vegetation NPP model based on NDVI. Acta Phytoecologica Sinica,2002,24:9-12.(in Chinese)