Drone technology has left a long-lasting impact on the Agriculture industry of India and its efficiency. We present drone-powered solutions to farmers to increase productivity in crop monitoring to planting, Livestock Management, Pesticide Spraying, Crop Stress identification, Treatment Planning, Plant Growth Monitoring, Precision Farming, Scouting and much more.
We use high-tech Aerial Surveying drones equipped with advanced sensors, such as RGB and Multispectral Sensors , to procure precise data. Drones such as DJI Inspire 2 accumulate high-resolution crop data to identify any issues with the crops and notify them for immediate action before damage occurs. Geo-tagging Aerial Images provide valuable information that reduces cost and boosts yield by a significant percentage.
Choosing the Best UAV Drones for Precision Agriculture and Smart Farming: Agr...Redmond R. Shamshiri
Best Drones For Agriculture, Exploring agricultural drones, Agricultural Drone Technology, Agricultural Drones for Sale, Choosing the Best UAV Drones for Precision Agriculture and Smart Farming: Agricultural drone buyer’s guide for farmers and agriculture service professionals
Choosing the Best UAV Drones for Precision Agriculture and Smart Farming: Agr...Redmond R. Shamshiri
Best Drones For Agriculture, Exploring agricultural drones, Agricultural Drone Technology, Agricultural Drones for Sale, Choosing the Best UAV Drones for Precision Agriculture and Smart Farming: Agricultural drone buyer’s guide for farmers and agriculture service professionals
When we think of agriculture we think of cultivation,
plant life, soil fertility, types of crops, terrestrial environment,
etc. But in today’s world we associate with agriculture terms
like climate change, irrigation facilities, technological
advancements, synthetic seeds, advanced machinery etc. In
short we are interested in how science of today can help us in
the field of agriculture. And so comes into the picture
Precision Agriculture (PA).
The general definition is information and technology
based farm management system to identify, analyze and
manage spatial and temporal variability within fields for
optimum productivity and profitability, sustainability and
protection of the land resource by minimizing the production
costs. Simply put, precision farming is an approach where
inputs are utilized in precise amounts to get increased average
yields compared to traditional cultivation techniques. Hence it
is a comprehensive system designed to optimize production
with minimal adverse impact on our terrestrial system. [1]
The three major components of precision agriculture
are information, technology and management. Precision
farming is information-intense. Precision Agriculture is a
management strategy that uses information technologies to
collect valuable data from multiple sources. This type of analyzing data gives idea what to do in upcoming years to tackle the situations.
Agriculture machinery plays a significant role to enhance the productivity.
Geo-informatics is the science that gather data regarding field conditions (Accurately). These are computational model cum strong algorithm based machinery or equipment to obtain real time data with precise application
Introducing SkyClaim by Skymatics
Provides an overview of the background and motivation for the SkyClaim web application which utilizes aerial imagery information from consumer drones for crop insurance claims.
http://skymatics.com/skyclaim/
A presentation by Dr. Cassidy Rankine at the 2016 Farm Forum Event (Trimble and Agri-Trend) in Calgary Alberta, Dec 6-8 2016.
How are drones used for farming? The use of drones in agriculture is the future. Heavy lift drones capable of crop dusting and drones equipped with multispectral sensors will change the way in which farming is done.
Use of Drone for Efficient Water Management – A Case Study of Crop Assessmentpravinkolhe
Drone in water management, Unmanned Aerial Vehicles, Information& Communication Technology, Crop Area Measurement, image processing, orthomossaic image
Precision Farming and Good Agricultural Practices (1).pptxNaveen Prasath
Precision agriculture (PA), as the name implies, refers to the application of precise and correct amounts of inputs like water, fertilizers, pesticides etc. at the correct time to the crop for increasing its productivity and maximizing its yields. The use of inputs (i.e. chemical fertilizers and pesticides) based on the right quantity, at the right time and in the right place.
This type of management is commonly known as “Site-Specific management”
Strictly based on Global Positioning System (GPS) i.e. unique character is precise in time and space.
These are the notes for Precision Farming useful in the course of Bsc(agriculture & food business) from Amity university or what so ever you are in.. All the best for your degree.!
Remote Sensing (RS), UAV/drones, and Machine Learning (ML) as powerful techni...nitinrane33
Precision agriculture utilizes modern technology to optimize agricultural practices, resulting in increased productivity while reducing costs and environmental impact. The use of remote sensing (RS), drones or unmanned aerial vehicles (UAVs), and machine learning (ML) has significantly transformed precision agriculture. These advanced technologies provide farmers with accurate, cost-effective, and timely tools to manage crops and resources effectively. This paper evaluates the use of these techniques in precision agriculture, including their benefits, and effective applications. Remote sensing involves using satellites, aircraft, or drones to collect data on crops and the environment, such as soil moisture, temperature, and vegetation indices. With high-resolution images and three-dimensional maps of crops, UAVs enable farmers to identify and address issues like pest infestations or nutrient deficiencies. Machine learning algorithms analyze large amounts of data to predict crop yields, optimize irrigation and fertilization, and identify areas of the field that need attention. Several case studies highlight the effectiveness of these techniques in different agricultural settings. However, the paper also acknowledges the challenges associated with adopting these technologies, such as cost, data management, and regulatory issues. While the initial investment in drones and sensors may be high, the long-term benefits in terms of increased yields, reduced costs, and environmental sustainability are substantial. Farmers need to be trained in the use of these technologies to make informed decisions, and effective data management and analysis are crucial. Additionally, regulatory frameworks are still evolving, and clear guidelines are required for data privacy, safety, and ethical use. Although challenges remain, the benefits of increased productivity, reduced costs, and environmental sustainability make these technologies an attractive investment for farmers worldwide.
Geospatial Science and Technology Utilization in Agricultureijtsrd
Since the agrarian revolution during the 18th century, the use of technology to improve the effectiveness and efficiency of farming practices has increased tremendously. Discoveries in the field of science and technology have enabled farmers to effectively use their input to maximize their yield. These advancements have been greatly assisted by the use of sophisticated machineries, planting practices, use of fertilizers, herbicides and pesticides and so on. At the present moment however, the success of large scale farming highly relies on geographic information technology through what is known as precision farming. Precision agriculture, or precision farming, is therefore a farming concept that utilizes geographical information to determine field variability to ensure optimal use of inputs and maximize the output from a farm Esri, 2008 . Precision agriculture gained popularity after the realization that diverse fields of land hold different properties. Large tracts of land usually have spatial variations of soils types, moisture content, nutrient availability and so on. Therefore, with the use of remote sensing, geographical information systems GIS and global positioning systems GPS , farmers can more precisely determine what inputs to put exactly where and with what quantities. This information helps farmers to effectively use expensive resources such as fertilizers, pesticides and herbicides, and more efficiently use water resources. In the end, farmers who use this method not only maximize on their yields but also reduce their operating expenses, thus increasing their profits. On these grounds therefore, this article shall focus on the use of geospatial technologies in precision farming. To achieve this, the paper shall focus on how geospatial data is collected, analyzed and used in the decision making process to maximize on yields. Dr. Anil Kumar "Geospatial Science and Technology Utilization in Agriculture" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-6 | Issue-4 , June 2022, URL: https://www.ijtsrd.com/papers/ijtsrd50330.pdf Paper URL: https://www.ijtsrd.com/biological-science/botany/50330/geospatial-science-and-technology-utilization-in-agriculture/dr-anil-kumar
GIS student project ideas, GIS case studies, GIS projects, GIS uses – From over 50 industries, this guide of 1000 GIS applications will open your mind to our amazing planet and its inter-connectivity.
Unleashing the Power of Data_ Choosing a Trusted Analytics Platform.pdfEnterprise Wired
In this guide, we'll explore the key considerations and features to look for when choosing a Trusted analytics platform that meets your organization's needs and delivers actionable intelligence you can trust.
When we think of agriculture we think of cultivation,
plant life, soil fertility, types of crops, terrestrial environment,
etc. But in today’s world we associate with agriculture terms
like climate change, irrigation facilities, technological
advancements, synthetic seeds, advanced machinery etc. In
short we are interested in how science of today can help us in
the field of agriculture. And so comes into the picture
Precision Agriculture (PA).
The general definition is information and technology
based farm management system to identify, analyze and
manage spatial and temporal variability within fields for
optimum productivity and profitability, sustainability and
protection of the land resource by minimizing the production
costs. Simply put, precision farming is an approach where
inputs are utilized in precise amounts to get increased average
yields compared to traditional cultivation techniques. Hence it
is a comprehensive system designed to optimize production
with minimal adverse impact on our terrestrial system. [1]
The three major components of precision agriculture
are information, technology and management. Precision
farming is information-intense. Precision Agriculture is a
management strategy that uses information technologies to
collect valuable data from multiple sources. This type of analyzing data gives idea what to do in upcoming years to tackle the situations.
Agriculture machinery plays a significant role to enhance the productivity.
Geo-informatics is the science that gather data regarding field conditions (Accurately). These are computational model cum strong algorithm based machinery or equipment to obtain real time data with precise application
Introducing SkyClaim by Skymatics
Provides an overview of the background and motivation for the SkyClaim web application which utilizes aerial imagery information from consumer drones for crop insurance claims.
http://skymatics.com/skyclaim/
A presentation by Dr. Cassidy Rankine at the 2016 Farm Forum Event (Trimble and Agri-Trend) in Calgary Alberta, Dec 6-8 2016.
How are drones used for farming? The use of drones in agriculture is the future. Heavy lift drones capable of crop dusting and drones equipped with multispectral sensors will change the way in which farming is done.
Use of Drone for Efficient Water Management – A Case Study of Crop Assessmentpravinkolhe
Drone in water management, Unmanned Aerial Vehicles, Information& Communication Technology, Crop Area Measurement, image processing, orthomossaic image
Precision Farming and Good Agricultural Practices (1).pptxNaveen Prasath
Precision agriculture (PA), as the name implies, refers to the application of precise and correct amounts of inputs like water, fertilizers, pesticides etc. at the correct time to the crop for increasing its productivity and maximizing its yields. The use of inputs (i.e. chemical fertilizers and pesticides) based on the right quantity, at the right time and in the right place.
This type of management is commonly known as “Site-Specific management”
Strictly based on Global Positioning System (GPS) i.e. unique character is precise in time and space.
These are the notes for Precision Farming useful in the course of Bsc(agriculture & food business) from Amity university or what so ever you are in.. All the best for your degree.!
Remote Sensing (RS), UAV/drones, and Machine Learning (ML) as powerful techni...nitinrane33
Precision agriculture utilizes modern technology to optimize agricultural practices, resulting in increased productivity while reducing costs and environmental impact. The use of remote sensing (RS), drones or unmanned aerial vehicles (UAVs), and machine learning (ML) has significantly transformed precision agriculture. These advanced technologies provide farmers with accurate, cost-effective, and timely tools to manage crops and resources effectively. This paper evaluates the use of these techniques in precision agriculture, including their benefits, and effective applications. Remote sensing involves using satellites, aircraft, or drones to collect data on crops and the environment, such as soil moisture, temperature, and vegetation indices. With high-resolution images and three-dimensional maps of crops, UAVs enable farmers to identify and address issues like pest infestations or nutrient deficiencies. Machine learning algorithms analyze large amounts of data to predict crop yields, optimize irrigation and fertilization, and identify areas of the field that need attention. Several case studies highlight the effectiveness of these techniques in different agricultural settings. However, the paper also acknowledges the challenges associated with adopting these technologies, such as cost, data management, and regulatory issues. While the initial investment in drones and sensors may be high, the long-term benefits in terms of increased yields, reduced costs, and environmental sustainability are substantial. Farmers need to be trained in the use of these technologies to make informed decisions, and effective data management and analysis are crucial. Additionally, regulatory frameworks are still evolving, and clear guidelines are required for data privacy, safety, and ethical use. Although challenges remain, the benefits of increased productivity, reduced costs, and environmental sustainability make these technologies an attractive investment for farmers worldwide.
Geospatial Science and Technology Utilization in Agricultureijtsrd
Since the agrarian revolution during the 18th century, the use of technology to improve the effectiveness and efficiency of farming practices has increased tremendously. Discoveries in the field of science and technology have enabled farmers to effectively use their input to maximize their yield. These advancements have been greatly assisted by the use of sophisticated machineries, planting practices, use of fertilizers, herbicides and pesticides and so on. At the present moment however, the success of large scale farming highly relies on geographic information technology through what is known as precision farming. Precision agriculture, or precision farming, is therefore a farming concept that utilizes geographical information to determine field variability to ensure optimal use of inputs and maximize the output from a farm Esri, 2008 . Precision agriculture gained popularity after the realization that diverse fields of land hold different properties. Large tracts of land usually have spatial variations of soils types, moisture content, nutrient availability and so on. Therefore, with the use of remote sensing, geographical information systems GIS and global positioning systems GPS , farmers can more precisely determine what inputs to put exactly where and with what quantities. This information helps farmers to effectively use expensive resources such as fertilizers, pesticides and herbicides, and more efficiently use water resources. In the end, farmers who use this method not only maximize on their yields but also reduce their operating expenses, thus increasing their profits. On these grounds therefore, this article shall focus on the use of geospatial technologies in precision farming. To achieve this, the paper shall focus on how geospatial data is collected, analyzed and used in the decision making process to maximize on yields. Dr. Anil Kumar "Geospatial Science and Technology Utilization in Agriculture" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-6 | Issue-4 , June 2022, URL: https://www.ijtsrd.com/papers/ijtsrd50330.pdf Paper URL: https://www.ijtsrd.com/biological-science/botany/50330/geospatial-science-and-technology-utilization-in-agriculture/dr-anil-kumar
GIS student project ideas, GIS case studies, GIS projects, GIS uses – From over 50 industries, this guide of 1000 GIS applications will open your mind to our amazing planet and its inter-connectivity.
Unleashing the Power of Data_ Choosing a Trusted Analytics Platform.pdfEnterprise Wired
In this guide, we'll explore the key considerations and features to look for when choosing a Trusted analytics platform that meets your organization's needs and delivers actionable intelligence you can trust.
Levelwise PageRank with Loop-Based Dead End Handling Strategy : SHORT REPORT ...Subhajit Sahu
Abstract — Levelwise PageRank is an alternative method of PageRank computation which decomposes the input graph into a directed acyclic block-graph of strongly connected components, and processes them in topological order, one level at a time. This enables calculation for ranks in a distributed fashion without per-iteration communication, unlike the standard method where all vertices are processed in each iteration. It however comes with a precondition of the absence of dead ends in the input graph. Here, the native non-distributed performance of Levelwise PageRank was compared against Monolithic PageRank on a CPU as well as a GPU. To ensure a fair comparison, Monolithic PageRank was also performed on a graph where vertices were split by components. Results indicate that Levelwise PageRank is about as fast as Monolithic PageRank on the CPU, but quite a bit slower on the GPU. Slowdown on the GPU is likely caused by a large submission of small workloads, and expected to be non-issue when the computation is performed on massive graphs.
Enhanced Enterprise Intelligence with your personal AI Data Copilot.pdfGetInData
Recently we have observed the rise of open-source Large Language Models (LLMs) that are community-driven or developed by the AI market leaders, such as Meta (Llama3), Databricks (DBRX) and Snowflake (Arctic). On the other hand, there is a growth in interest in specialized, carefully fine-tuned yet relatively small models that can efficiently assist programmers in day-to-day tasks. Finally, Retrieval-Augmented Generation (RAG) architectures have gained a lot of traction as the preferred approach for LLMs context and prompt augmentation for building conversational SQL data copilots, code copilots and chatbots.
In this presentation, we will show how we built upon these three concepts a robust Data Copilot that can help to democratize access to company data assets and boost performance of everyone working with data platforms.
Why do we need yet another (open-source ) Copilot?
How can we build one?
Architecture and evaluation
06-04-2024 - NYC Tech Week - Discussion on Vector Databases, Unstructured Data and AI
Discussion on Vector Databases, Unstructured Data and AI
https://www.meetup.com/unstructured-data-meetup-new-york/
This meetup is for people working in unstructured data. Speakers will come present about related topics such as vector databases, LLMs, and managing data at scale. The intended audience of this group includes roles like machine learning engineers, data scientists, data engineers, software engineers, and PMs.This meetup was formerly Milvus Meetup, and is sponsored by Zilliz maintainers of Milvus.
Techniques to optimize the pagerank algorithm usually fall in two categories. One is to try reducing the work per iteration, and the other is to try reducing the number of iterations. These goals are often at odds with one another. Skipping computation on vertices which have already converged has the potential to save iteration time. Skipping in-identical vertices, with the same in-links, helps reduce duplicate computations and thus could help reduce iteration time. Road networks often have chains which can be short-circuited before pagerank computation to improve performance. Final ranks of chain nodes can be easily calculated. This could reduce both the iteration time, and the number of iterations. If a graph has no dangling nodes, pagerank of each strongly connected component can be computed in topological order. This could help reduce the iteration time, no. of iterations, and also enable multi-iteration concurrency in pagerank computation. The combination of all of the above methods is the STICD algorithm. [sticd] For dynamic graphs, unchanged components whose ranks are unaffected can be skipped altogether.
The Building Blocks of QuestDB, a Time Series Databasejavier ramirez
Talk Delivered at Valencia Codes Meetup 2024-06.
Traditionally, databases have treated timestamps just as another data type. However, when performing real-time analytics, timestamps should be first class citizens and we need rich time semantics to get the most out of our data. We also need to deal with ever growing datasets while keeping performant, which is as fun as it sounds.
It is no wonder time-series databases are now more popular than ever before. Join me in this session to learn about the internal architecture and building blocks of QuestDB, an open source time-series database designed for speed. We will also review a history of some of the changes we have gone over the past two years to deal with late and unordered data, non-blocking writes, read-replicas, or faster batch ingestion.
Adjusting primitives for graph : SHORT REPORT / NOTESSubhajit Sahu
Graph algorithms, like PageRank Compressed Sparse Row (CSR) is an adjacency-list based graph representation that is
Multiply with different modes (map)
1. Performance of sequential execution based vs OpenMP based vector multiply.
2. Comparing various launch configs for CUDA based vector multiply.
Sum with different storage types (reduce)
1. Performance of vector element sum using float vs bfloat16 as the storage type.
Sum with different modes (reduce)
1. Performance of sequential execution based vs OpenMP based vector element sum.
2. Performance of memcpy vs in-place based CUDA based vector element sum.
3. Comparing various launch configs for CUDA based vector element sum (memcpy).
4. Comparing various launch configs for CUDA based vector element sum (in-place).
Sum with in-place strategies of CUDA mode (reduce)
1. Comparing various launch configs for CUDA based vector element sum (in-place).
2. ❏ We extend our top-notch drone services to numerous private firms
and government agencies across India.
❏ We cater to several industries - Transportation, Renewable Energy,
Mining, Utilities, Infrastructure, and Agriculture
❏ Best UAV Startup 2019 - India Today
❏ Backed by Innovative Drone Technology and Artificial Intelligence
About our company
4. Our Experience in Agriculture Industry
High Resolution
Crops Data
Faster Crop
Mapping
97% Accurate Crop
Predictions
Capture precise
data that drives
decisions
Scout your fields
in less time
Efficiently track
crops over time, for
research
5. Track agricultural yield across
2500+ acres with automated
plant count algorithms.
Accuracy increased by 10%.
Survey 4000+ hectares of mines
and deliver volume estimations
with 97% accuracy. 4x faster with
10x lesser labour, as compared to
manual surveying using Total
Stations.
Monitor 2000+ kms of railways
construction. 3x faster with 4x
lesser labour, as compared to on-
ground surveillance.
Why Equinox’s Drones?
Conduct detailed topography
cum hydrology studies at their
solar farms across the country
with a turnaround of 200MW of
data acquired and processed
per week.
6. ❑ Agriculture is the primary source of livelihood for about 58 per cent of India’s
population
❑ Gross Value Added (GVA) by agriculture, forestry and fishing was estimated at 19.48
lakh crore (US$ 276.37 billion) in FY20(PE)
❑ Growth in GVA in agriculture and allied sectors stood at 4% in FY20
❑ UAVs fill the gap of human error and inefficiency by traditional farming methods
❑ External factors like weather, soil conditions, and temperature play a critical role in
farming.
❑ The agriculture industry, if brought to its peak efficiency, will improve the GDP to
higher levels. The healthy yield of crops will also mean that the inflation in the food
industry will stabilize.
❑ Farmers that use real-time, reliable information on crop health have a competitive
advantage.
NEED FOR AGRICULTURAL
DRONES IN INDIA
7. Why now?
According to experts, the predicted world population will be 9 billion by
2050. Agricultural consumption is also said to increase simultaneously by
nearly 70%
8. Benefits of Drones in Agriculture
❑ Enhanced Production
❑ Effective and Adaptive Techniques
❑ Greater safety of farmers
❑ Highly accurate Predictions
❑ 10x faster data for quick decision-making
❑ Less wastage of resources
❑ Useful for Insurance claims and insurance companies
9. Precision Agriculture
❑ Precision agriculture/ satellite agriculture is an approach to farm
management that uses information technology to ensure that the crops
and soil receive exactly what they need for optimum health & productivity
❑ The goal of PA is to ensure profitability, sustainability and protection of the
environment
❑ Access real-time data about the conditions of the crops, soil and ambient
air, hyper-local weather predictions, labor costs and equipment availability.
❑ The data acts as a guide for crop rotation, optimal planting times,
harvesting times and soil management decisions.
10. Precision Agriculture uses
❑ Reduction of resources (seed, fertilizer, pesticides, fuel...)
❑ Reduction of machine and work hours
❑ Improvement of crop yield and crop quality
❑ Minimization of environmental impact
❑ Complete documentation of the production process
11. How we can help you
❑ Crop Health & Stress Analysis
❑ Irrigation Monitoring And Planning
❑ Crop Damage Assessment
❑ Crop Count & Plant Emergence Analysis
❑ Field Soil Analysis
❑ Pesticide Spraying
❑ Live stock Monitoring
❑ Mapping / Surveying
13. Our Approach
❑ Site Reconnaissance - A preliminary survey (Reconnaissance) will
be conducted to understand the site conditions and gauge the
site terrain as well as atmospheric conditions such as wind
speed, temperature and humidity. This is done to ensure that all
obstacles are dealt with before the actual flight.
❑ Mission Planning – Flight Planning will be done base on
the observation made in the above reconnaissance survey.
Additionally, markers will be fixed at the periphery of the area of
interest to ensure full coverage of the concerned plots.
❑ Data Acquisition - Flight mission will be planned and Flying
and Photography will be carried out using an Aerial Vehicle. The
sensor proposed for the purpose will be a visual RGB and multi-
spectral sensor.
Phase 1
14. ❑ Pre - Processing– In this stage, stacking of the images acquired by the
sensor will be carried out. Therefore, the first level outputs will include
raw images of the concernedplots and stacked Multispectral images if
required.
❑ Post Processing– Once the first level of outputs are ready,
final deliverables are produced. Raw images of the concerned plots
are georeferenced to produce geo prefred base maps of the same.
❑ Project Specific Data Analysis – Equinox's Drones planning team
will generate “Action Ready” outputs in the form of maps, figures, fly
through and reports in industry standard formats (AutoCAD and GIS
Files). These action ready
outputs will help in effective and efficient planning and monitoring
of suggested areas of interest at the university.
Phase 2
Our Approach
15. 1) VISUAL SENSOR
❑ Aerial mapping and imaging
❑ Photogrammetry and 3D reconstruction
❑ Plant counting
❑ Surveillance
❑ Emergency response
❑ Surveying and Land use application
Sensors used in Agriculture
16. AERIAL DATA ACQUISITION - VISUAL (RGB) CAMERA
The entire area of interest will be surveyed using an Unmanned Aerial Vehicle
(UAV). Several Flight Plans will be created to cover the entire area and later mosaiced
into a single orthophoto. Aerial images are captured maintaining a GSD (Ground
Sample Distance) GSD of ~3cm to ~5cm per pixel resolution or better.
The data have been acquired with 60% frontal and 30%
Lateral overlap. The data acquisition Team verifies the d
ata captured on-field itself to prevent gaps and re-
capturing of the data.
Flight Plans To Acquire Data
18. 2) MULTISPECTRAL SENSOR
❑ Plant health measurement
❑ Water quality assessment
❑ Vegetation index
❑ Plant counting
Crop Health and Stress Analysis
Locating citrus trees affected
with phytophthora (a fungal disease).
Sensors used in Agriculture
20. Multi Spectral Camera
Multispectral 5 band sensor (Red-Blue-Green-Near Infrared-Red-Edge) an be utilized to further
monitor the health of the crops.Vegetation indices namely NDVI, CCCI are used by researchers all
over the world to determine the status of healthy vegetation and differentiate from other land use
changes. Healthy, dense vegetation appears brighter andreflects more radiation in the near
infrared region of the spectrum whereas severely stressed vegetation appears dark and reflects
less radiation.
21. 3) THERMAL SENSOR
❑ Heat signature detection
❑ Livestock detection
❑ Surveillance and security
❑ Water temperature detection
❑ Water source detection
❑ Emergency response
Thermal Sensor Imagery
Sensors used in Agriculture
22. Thermal Camera
The multispectral images can be coupled with information such as air temperature
and soil temperature can be used to monitor irrigation scheduling, soil water
stress detection, plants disease detection, yield estimation etc.
Crop Damage Assessment
Field Soil Analysis
26. 5) HYPERSPECTRAL SENSOR
❑ Plant health measurement
❑ Water quality assessment
❑ Vegetation index calculation
❑ Full spectral sensing
❑ Spectral research and development
❑ Mineral and surface composition surveys
Sensors used in Agriculture
28. IMAGE PROCESSING AND
ORTHO-RECTIFICATION
In the initial level of processing, the first level of deliverables is produced. The raw
images or source files are stitched together with their geolocation information
(captured by the GPS) and their interior and exterior information to generate the
Orthomosaic. Also, based on the altitude information captured by an Inertial
Measurement Unit (IMU) and Geographical Positioning System (GPS), the Point
Cloud and the Digital Surface Model (DSM) is generated.
Therefore, the stages of Processing involves:
❑ Alignment and Sparse Point CloudGeneration
❑ Point Cloud Densification
❑ Digital Surface Model Generation
❑ Orthomosaic
Orthomosaic
29. GIS Deliverables
a. Orthomosaic
The individual flight plan image strips are mosaiced together to form an
orthomosaic. Colour balancing is maintained to achieve homogeneity
across strip boundaries.