Jeff Bradshaw is the founder of Adaptris and Group CTO of Adaptris/F4F/DBT within Reed Business Information. He has spent his career integrating data wherever it resides and in-flight across a number of industries including Agriculture, Airlines, Telecommunications, Healthcare, Government and Finance.
Jeff has worked with and contributed to a number of international standards bodies and continues to work with large enterprises to help them extract value from their data silos and share data seamlessly with their trading partners to achieve business benefit. For the last few years Jeff has been focusing on Big Data and how to gather that across a wide range of sources to help gain insight into the agri-food supply chain.
Abstract Summary:
Precision agriculture – Predicting outcomes for farmers using machine learning to help feed the world:
Agricultural data is vast, often unstructured and includes many challenges when working with legacy farm systems on premise in rural areas. For instance, traditional farm equipment such as tractors, sprayers, and combines aren’t often from the same vendor, and it’s complex moving data between them. This is further complicated with the vast array of other systems used by our farmers. Furthermore, the number of sensors in agriculture is astonishing, whether it is sensors that measure the gait of the cow walking into the dairy parlor, or chickens that are pecking. All this data needs to turn into usable information on a global scale to improve the yields farmers get and provide greater visibility into what’s going on both in and out of the farm. In this session, a case study will be shared on how data was collected, normalized and analyzed leveraging the open source HPCC Systems platform from remote Farm Management Systems (used by farmers to manage their farms), and when merged with weather data, soil data and actual machinery data, the analyzed predictions is used to feed Agronomists and Crop Protection/Seed Manufacturers to get recommendations back. The goal is to deliver a precision agriculture solution, helping farmers increase their yield, which then helps feed the growing population of the world.
Proagrica - Big Data to Feed the WorldHPCC Systems
Proagrica uses big data to help drive growth and efficiency in agriculture. They consolidate vast amounts of data from sources like farm machinery, weather, soil, and satellites. Proagrica's HPCC platform integrates this data and provides analytics and insights. Analyzing yield data from UK oilseed rape farms showed that higher yields correlated with warm springs, wet winters, and proper pesticide application. Variety choice did not have a large impact on yields.
Among the new and emerging technologies in agriculture, Big Data is the one that promises the best improvements. Producers and growers want superior yields, cost savings, and better real-time data; consumers want healthier agricultural products at better prices; agriculture scientists need improved seeds and plants to face climate changes and prevent famine.
Big data analytics is increasingly important for agriculture as the global population grows. Analytics can reduce farming costs by $2.3 trillion according to researchers, including $250 billion from data analytics alone. Analytics provides real-time soil sensor data to optimize nutrition levels, utilizes GPS-enabled tractors, provides timely pest and disease reports from IoT sensors to efficiently manage threats, helps trace supply chains to reduce food waste, and enables near-accurate yield predictions using satellite data.
Today the use of data is having a very revolutionized effect with
cultivatable land in decline demand for food increasing from
developing countries farmers.
Farmers who use data are capable of turning ordinary harvests into
bumper crops and profits behind.This is the precision agriculture hub connecting the world’s biggest agricultural businesses farmers and suppliers using integrated software solutions.
Presentation made on the new CGIAR Big Data in agriculture platform, and how big data approaches can contribute to improved productivity through data driven agronomy.
1. The document discusses how aWhere provides agricultural intelligence and data to help farmers increase food production in the face of challenges like increasing weather variability and population growth.
2. aWhere collects data from various sources like weather stations, satellites, and field observations and provides weather and agronomic forecasts, predictions, alerts and recommendations to farmers.
3. This data-driven assistance helps farmers improve yields, reduce risks, and better manage their resources and operations, working towards solving the global challenge of sustainably feeding a growing population.
Jeff Bradshaw is the founder of Adaptris and Group CTO of Adaptris/F4F/DBT within Reed Business Information. He has spent his career integrating data wherever it resides and in-flight across a number of industries including Agriculture, Airlines, Telecommunications, Healthcare, Government and Finance.
Jeff has worked with and contributed to a number of international standards bodies and continues to work with large enterprises to help them extract value from their data silos and share data seamlessly with their trading partners to achieve business benefit. For the last few years Jeff has been focusing on Big Data and how to gather that across a wide range of sources to help gain insight into the agri-food supply chain.
Abstract Summary:
Precision agriculture – Predicting outcomes for farmers using machine learning to help feed the world:
Agricultural data is vast, often unstructured and includes many challenges when working with legacy farm systems on premise in rural areas. For instance, traditional farm equipment such as tractors, sprayers, and combines aren’t often from the same vendor, and it’s complex moving data between them. This is further complicated with the vast array of other systems used by our farmers. Furthermore, the number of sensors in agriculture is astonishing, whether it is sensors that measure the gait of the cow walking into the dairy parlor, or chickens that are pecking. All this data needs to turn into usable information on a global scale to improve the yields farmers get and provide greater visibility into what’s going on both in and out of the farm. In this session, a case study will be shared on how data was collected, normalized and analyzed leveraging the open source HPCC Systems platform from remote Farm Management Systems (used by farmers to manage their farms), and when merged with weather data, soil data and actual machinery data, the analyzed predictions is used to feed Agronomists and Crop Protection/Seed Manufacturers to get recommendations back. The goal is to deliver a precision agriculture solution, helping farmers increase their yield, which then helps feed the growing population of the world.
Proagrica - Big Data to Feed the WorldHPCC Systems
Proagrica uses big data to help drive growth and efficiency in agriculture. They consolidate vast amounts of data from sources like farm machinery, weather, soil, and satellites. Proagrica's HPCC platform integrates this data and provides analytics and insights. Analyzing yield data from UK oilseed rape farms showed that higher yields correlated with warm springs, wet winters, and proper pesticide application. Variety choice did not have a large impact on yields.
Among the new and emerging technologies in agriculture, Big Data is the one that promises the best improvements. Producers and growers want superior yields, cost savings, and better real-time data; consumers want healthier agricultural products at better prices; agriculture scientists need improved seeds and plants to face climate changes and prevent famine.
Big data analytics is increasingly important for agriculture as the global population grows. Analytics can reduce farming costs by $2.3 trillion according to researchers, including $250 billion from data analytics alone. Analytics provides real-time soil sensor data to optimize nutrition levels, utilizes GPS-enabled tractors, provides timely pest and disease reports from IoT sensors to efficiently manage threats, helps trace supply chains to reduce food waste, and enables near-accurate yield predictions using satellite data.
Today the use of data is having a very revolutionized effect with
cultivatable land in decline demand for food increasing from
developing countries farmers.
Farmers who use data are capable of turning ordinary harvests into
bumper crops and profits behind.This is the precision agriculture hub connecting the world’s biggest agricultural businesses farmers and suppliers using integrated software solutions.
Presentation made on the new CGIAR Big Data in agriculture platform, and how big data approaches can contribute to improved productivity through data driven agronomy.
1. The document discusses how aWhere provides agricultural intelligence and data to help farmers increase food production in the face of challenges like increasing weather variability and population growth.
2. aWhere collects data from various sources like weather stations, satellites, and field observations and provides weather and agronomic forecasts, predictions, alerts and recommendations to farmers.
3. This data-driven assistance helps farmers improve yields, reduce risks, and better manage their resources and operations, working towards solving the global challenge of sustainably feeding a growing population.
This document discusses how predictive analytics can help the agriculture industry, specifically in Nova Scotia. It begins with an introduction of the speaker and defines predictive analytics as using statistical models to predict future events. It then discusses applications of predictive analytics like marketing and fraud detection. Specifically, it explains how predictive analytics can help precision agriculture by optimizing crop yields, managing water and inputs, and intelligently applying pesticides and fungicides. As an example, it outlines how predictive analytics could help detect and control apple scab in Kings County, Nova Scotia, reducing costs by over $13,000 while increasing apple production and profits. Overall, the document argues predictive analytics provides economic benefits and a competitive advantage for the agriculture industry in Nova Scotia.
1) The document discusses using data analytics to improve agriculture through open data on climate, soil, crops, markets and more which faces challenges of converting data into actionable insights.
2) It proposes an Interactive Agricultural Service Platform (IASP) that provides personalized agro-advisories to farmers through push and pull services on web, mobile and IVRS in multiple languages.
3) The IASP would integrate data collection, analytics, knowledge services and delivery across platforms to help farmers with customized advice, access inputs and credit, and sell produce.
Better ways of using Analytics in Agriculture in indiaYagnesh Shetty
Received the 1st Prize for this Research Paper presentation on Better Ways of using Analytics in Agriculture in India. Undertook Primary and Secondary Research to understand innovations in the agricultural sector that could transform the productivity levels and yeild/hectare for Indian farms. Did a comparative study of the Global scenario and made recommendations for Indian scope.
this presentation was prepared for a minisymposium on the occasion of PhD defence of Niels Rutten June 14 2017 at Wageningen University, with the thesis entitled “The utility of sensor technology to support reproductive management on dairy farms”. The public defence of his thesis was a good reason to share knowledge about current sensor research in the dairy farming industry
SC2 Workshop 1: Big Data challenges and solutions in agricultural and environ...BigData_Europe
“Lightning talk” in the Big Data Europe (BDE) workshop on “Big data for food, agriculture and forestry: opportunities and challenges” taking place on 22.9.2015 in Paris by Rob Lokers and Sander Janssen from Alterra, Wageningen UR
The Netherlands.
Mining large amounts of existing crop, soil, and climate data, and analyzing new, non-experimental data can help optimize production and make agriculture more resilient to climate change.
Diverse agro-ecological and Socioeconomic situations create opportunities as well as vulnerabilities for Nepalese farmers. Rapidly changing unpredictable climate and technology innovations increase the need for reliable data/information day by day to make our agriculture more efficient, competitive and sustainable. Our data sources are different and we need to bring them together and make those data complete, secure, user-friendly, and accessible. The government's role needs to be more proactive, coordinating and facilitating to create data platforms working with other actors.
Internal seminar on the progress for the project Environmental characterization of crop wild relative pre-breeding environments, funded by The Crop Trust.
This document discusses trends in using information and communication technologies (ICT) in agriculture. It notes that agronomists working with informatics can help foster a revolution through techniques like remote sensing from satellites, machine learning, and data mining of "big data" to gain insights. This can help optimize site-specific management practices and climate-smart agriculture. The emerging field of "A-geek-ulture" uses ICTs like sensors, drones, and satellites to collect big data that can then be analyzed using various statistical and machine learning methods to address agricultural challenges and improve yields, especially for small-scale farmers.
Julian R - Using the EcoCrop model and database to forecast impacts of ccCIAT
Preliminary results on the assessment of global food security issues under changing climates. Presented at Tyndall Centre, Norwich, UK, by Julian Ramirez
Livestock, human welfare, and sustainability: The challenge of harmonizing fa...ILRI
Presented by James Hammond, Léo Gorman, Simon Fraval, Mark van Wijk at the 9th Multi-Stakeholder Partnership Meeting of the Global Agenda for Sustainable Livestock, Manhattan, Kansas, 9-13 September 2019
Presented by Mark van Wijk, Romain Frelat, Randall Ritzema and Sabine Douxchamps at the ILRI@40 Livestock and Environment workshop, Addis Ababa, 7 November 2014
An overview of the CGIAR Platform for Big Data in Agriculture, officially launched in May 2017. The 15 CGIAR Research Centers and 12 Research Programs are partners in the Platform, alongside 70 external partners ranging international institutions, universities to private companies.
More info at: http://bigdata.cgiar.org
This document is a checklist for small ruminant farmers to assess the sustainability of different components of their farm operations. It contains over 30 questions organized under topics like forages, livestock, marketing, economics, and farm management. Farmers are prompted to investigate options for strengthening any components they answer "no" to by referring to relevant sections of a guide on small ruminant sustainability. The checklist is intended to help farmers identify weak links and make improvements to fully utilize resources and maximize profits from their small ruminant farms.
IRJET- Crop Yield Prediction based on Climatic ParametersIRJET Journal
The document describes a study that developed a machine learning model and web application to predict crop yields based on climatic parameters. The model was trained using a random forest algorithm on historical crop production and climate data from Maharashtra, India. The application allows farmers to input details of their district, crop, and field area to receive a predicted crop yield output. The model achieved 87% accuracy on 10-fold cross validation testing. The goal was to help farmers and policymakers make informed decisions based on predicted yields under varying climate conditions.
An Efficient and Novel Crop Yield Prediction Method using Machine Learning Al...IIJSRJournal
This document describes a proposed method for crop yield prediction using machine learning algorithms. It begins with an introduction to the importance of agriculture in India and challenges faced by farmers in predicting crop yields. It then discusses previous related work on predicting yields based on environmental factors. The proposed method uses a random forest algorithm and backpropagation neural network to predict yields based on data like rainfall, temperature, and land area. It also describes predicting fertilizer needs and crop prices. The method is evaluated on a dataset and results are discussed. It is concluded that this approach can help farmers predict yields and make better decisions about crop selection and management.
Building SI on a Rock: Is a systems perspective essential for integrated crop...africa-rising
Presented by Peter Thorne (ILRI) and Sieg Snapp (Michigan State University) at the 2019 ASA-CSSA-SSSA International Annual Meeting, San Antonio, USA, 12 November 2019.
Presentation in the CGIAR Science Week in Montpellier 2016 on how Big Data cna change agricultural research and development, and what the CGIAR needs to do.
This document discusses how big data analytics can help revolutionize farming in India by addressing challenges in agriculture. It explains that sensors collect real-time data from fields and equipment that is integrated with other data sources to identify patterns and insights. These reveal existing issues and help form predictive algorithms to prevent future problems and control risks. Benefits of big data in agriculture include useful data collection, managing pests and diseases, identifying hidden patterns, helping cope with climate change, predicting yields, enabling automated agriculture, advanced supply tracking, and risk assessment.
Data is the new oil! No, not really. Data not effectively applied is nothing but a noise; and a huge nuisance. Data can enable us to build resilient food systems, systems required to ensure we have what it takes to feed a prospective 9.7 Billion people by 2050.
Farm Management System - Delivering a Precision Agriculture SolutionHPCC Systems
Jeff Bradshaw & Graeme McCracken, RBI, present at the 2016 HPCC Systems Engineering Summit Community Day.
In this session, we will share our use case on how we have collected data from remote Farm Management Systems (used by the Farmers/Growers to manage their farms), and overlaying that with weather data and actual machinery data (IoT) and using this data to feed Agronomists and Crop Protection/Seed Manufacturers to get recommendations back. The goal is to deliver a precision agriculture solution which helps the Farmer to increase his yield and helps us to feed the growing population of the world.
Jeff Bradshaw is the founder of Adaptris and Group CTO of Adaptris/F4F/DBT within Reed Business Information. He has spent his career integrating data wherever it resides and in-flight across a number of industries including Agriculture, Airlines, Telecommunications, Healthcare, Government and Finance.
Jeff has worked with and contributed to a number of international standards bodies and continues to work with large enterprises to help them extract value from their data silos and share data seamlessly with their trading partners to achieve business benefit. For the last few years Jeff has been focusing on Big Data and how to gather that across a wide range of sources to help gain insight into the agri-food supply chain.
Graeme is the Chief Operating Officer for Proagrica, the global agricultural and animal health division within RELX covering Media, Software, Integration & Connectivity and Data & Analytics. Prior to this role, Graeme was the CEO of RELX’s Construction Data & Analytics business in North America with a background in data, product and IT innovation across a complex portfolio of companies in Europe, North America and Australasia.
Graeme has been in RELX for 24 years driving a range of strategic initiatives and building strong teams that are well motivated, involved and having fun. As part of overall strategic alignment, successfully delivered the divestment of a number of divisions whilst ensuring that these units were well set for the future. Impressive track record in transforming a range of business units across RELX and setting them on a successful growth path.
The document discusses how geoinformatics and big data can help improve agricultural research and resilience. It notes that internet usage and data are growing exponentially worldwide. New analytical approaches are needed to effectively use this data. Satellite imagery and sensors can provide detailed spatial and temporal data on topics like land use, vegetation, drought, and more. Integrating this diverse data through geoinformatics platforms has potential to help address issues like changing demographics, diets, land degradation, and water balances. The document advocates for data-driven agricultural systems research focused on building sustainable, resilient agroecosystems.
This document discusses how predictive analytics can help the agriculture industry, specifically in Nova Scotia. It begins with an introduction of the speaker and defines predictive analytics as using statistical models to predict future events. It then discusses applications of predictive analytics like marketing and fraud detection. Specifically, it explains how predictive analytics can help precision agriculture by optimizing crop yields, managing water and inputs, and intelligently applying pesticides and fungicides. As an example, it outlines how predictive analytics could help detect and control apple scab in Kings County, Nova Scotia, reducing costs by over $13,000 while increasing apple production and profits. Overall, the document argues predictive analytics provides economic benefits and a competitive advantage for the agriculture industry in Nova Scotia.
1) The document discusses using data analytics to improve agriculture through open data on climate, soil, crops, markets and more which faces challenges of converting data into actionable insights.
2) It proposes an Interactive Agricultural Service Platform (IASP) that provides personalized agro-advisories to farmers through push and pull services on web, mobile and IVRS in multiple languages.
3) The IASP would integrate data collection, analytics, knowledge services and delivery across platforms to help farmers with customized advice, access inputs and credit, and sell produce.
Better ways of using Analytics in Agriculture in indiaYagnesh Shetty
Received the 1st Prize for this Research Paper presentation on Better Ways of using Analytics in Agriculture in India. Undertook Primary and Secondary Research to understand innovations in the agricultural sector that could transform the productivity levels and yeild/hectare for Indian farms. Did a comparative study of the Global scenario and made recommendations for Indian scope.
this presentation was prepared for a minisymposium on the occasion of PhD defence of Niels Rutten June 14 2017 at Wageningen University, with the thesis entitled “The utility of sensor technology to support reproductive management on dairy farms”. The public defence of his thesis was a good reason to share knowledge about current sensor research in the dairy farming industry
SC2 Workshop 1: Big Data challenges and solutions in agricultural and environ...BigData_Europe
“Lightning talk” in the Big Data Europe (BDE) workshop on “Big data for food, agriculture and forestry: opportunities and challenges” taking place on 22.9.2015 in Paris by Rob Lokers and Sander Janssen from Alterra, Wageningen UR
The Netherlands.
Mining large amounts of existing crop, soil, and climate data, and analyzing new, non-experimental data can help optimize production and make agriculture more resilient to climate change.
Diverse agro-ecological and Socioeconomic situations create opportunities as well as vulnerabilities for Nepalese farmers. Rapidly changing unpredictable climate and technology innovations increase the need for reliable data/information day by day to make our agriculture more efficient, competitive and sustainable. Our data sources are different and we need to bring them together and make those data complete, secure, user-friendly, and accessible. The government's role needs to be more proactive, coordinating and facilitating to create data platforms working with other actors.
Internal seminar on the progress for the project Environmental characterization of crop wild relative pre-breeding environments, funded by The Crop Trust.
This document discusses trends in using information and communication technologies (ICT) in agriculture. It notes that agronomists working with informatics can help foster a revolution through techniques like remote sensing from satellites, machine learning, and data mining of "big data" to gain insights. This can help optimize site-specific management practices and climate-smart agriculture. The emerging field of "A-geek-ulture" uses ICTs like sensors, drones, and satellites to collect big data that can then be analyzed using various statistical and machine learning methods to address agricultural challenges and improve yields, especially for small-scale farmers.
Julian R - Using the EcoCrop model and database to forecast impacts of ccCIAT
Preliminary results on the assessment of global food security issues under changing climates. Presented at Tyndall Centre, Norwich, UK, by Julian Ramirez
Livestock, human welfare, and sustainability: The challenge of harmonizing fa...ILRI
Presented by James Hammond, Léo Gorman, Simon Fraval, Mark van Wijk at the 9th Multi-Stakeholder Partnership Meeting of the Global Agenda for Sustainable Livestock, Manhattan, Kansas, 9-13 September 2019
Presented by Mark van Wijk, Romain Frelat, Randall Ritzema and Sabine Douxchamps at the ILRI@40 Livestock and Environment workshop, Addis Ababa, 7 November 2014
An overview of the CGIAR Platform for Big Data in Agriculture, officially launched in May 2017. The 15 CGIAR Research Centers and 12 Research Programs are partners in the Platform, alongside 70 external partners ranging international institutions, universities to private companies.
More info at: http://bigdata.cgiar.org
This document is a checklist for small ruminant farmers to assess the sustainability of different components of their farm operations. It contains over 30 questions organized under topics like forages, livestock, marketing, economics, and farm management. Farmers are prompted to investigate options for strengthening any components they answer "no" to by referring to relevant sections of a guide on small ruminant sustainability. The checklist is intended to help farmers identify weak links and make improvements to fully utilize resources and maximize profits from their small ruminant farms.
IRJET- Crop Yield Prediction based on Climatic ParametersIRJET Journal
The document describes a study that developed a machine learning model and web application to predict crop yields based on climatic parameters. The model was trained using a random forest algorithm on historical crop production and climate data from Maharashtra, India. The application allows farmers to input details of their district, crop, and field area to receive a predicted crop yield output. The model achieved 87% accuracy on 10-fold cross validation testing. The goal was to help farmers and policymakers make informed decisions based on predicted yields under varying climate conditions.
An Efficient and Novel Crop Yield Prediction Method using Machine Learning Al...IIJSRJournal
This document describes a proposed method for crop yield prediction using machine learning algorithms. It begins with an introduction to the importance of agriculture in India and challenges faced by farmers in predicting crop yields. It then discusses previous related work on predicting yields based on environmental factors. The proposed method uses a random forest algorithm and backpropagation neural network to predict yields based on data like rainfall, temperature, and land area. It also describes predicting fertilizer needs and crop prices. The method is evaluated on a dataset and results are discussed. It is concluded that this approach can help farmers predict yields and make better decisions about crop selection and management.
Building SI on a Rock: Is a systems perspective essential for integrated crop...africa-rising
Presented by Peter Thorne (ILRI) and Sieg Snapp (Michigan State University) at the 2019 ASA-CSSA-SSSA International Annual Meeting, San Antonio, USA, 12 November 2019.
Presentation in the CGIAR Science Week in Montpellier 2016 on how Big Data cna change agricultural research and development, and what the CGIAR needs to do.
This document discusses how big data analytics can help revolutionize farming in India by addressing challenges in agriculture. It explains that sensors collect real-time data from fields and equipment that is integrated with other data sources to identify patterns and insights. These reveal existing issues and help form predictive algorithms to prevent future problems and control risks. Benefits of big data in agriculture include useful data collection, managing pests and diseases, identifying hidden patterns, helping cope with climate change, predicting yields, enabling automated agriculture, advanced supply tracking, and risk assessment.
Data is the new oil! No, not really. Data not effectively applied is nothing but a noise; and a huge nuisance. Data can enable us to build resilient food systems, systems required to ensure we have what it takes to feed a prospective 9.7 Billion people by 2050.
Farm Management System - Delivering a Precision Agriculture SolutionHPCC Systems
Jeff Bradshaw & Graeme McCracken, RBI, present at the 2016 HPCC Systems Engineering Summit Community Day.
In this session, we will share our use case on how we have collected data from remote Farm Management Systems (used by the Farmers/Growers to manage their farms), and overlaying that with weather data and actual machinery data (IoT) and using this data to feed Agronomists and Crop Protection/Seed Manufacturers to get recommendations back. The goal is to deliver a precision agriculture solution which helps the Farmer to increase his yield and helps us to feed the growing population of the world.
Jeff Bradshaw is the founder of Adaptris and Group CTO of Adaptris/F4F/DBT within Reed Business Information. He has spent his career integrating data wherever it resides and in-flight across a number of industries including Agriculture, Airlines, Telecommunications, Healthcare, Government and Finance.
Jeff has worked with and contributed to a number of international standards bodies and continues to work with large enterprises to help them extract value from their data silos and share data seamlessly with their trading partners to achieve business benefit. For the last few years Jeff has been focusing on Big Data and how to gather that across a wide range of sources to help gain insight into the agri-food supply chain.
Graeme is the Chief Operating Officer for Proagrica, the global agricultural and animal health division within RELX covering Media, Software, Integration & Connectivity and Data & Analytics. Prior to this role, Graeme was the CEO of RELX’s Construction Data & Analytics business in North America with a background in data, product and IT innovation across a complex portfolio of companies in Europe, North America and Australasia.
Graeme has been in RELX for 24 years driving a range of strategic initiatives and building strong teams that are well motivated, involved and having fun. As part of overall strategic alignment, successfully delivered the divestment of a number of divisions whilst ensuring that these units were well set for the future. Impressive track record in transforming a range of business units across RELX and setting them on a successful growth path.
The document discusses how geoinformatics and big data can help improve agricultural research and resilience. It notes that internet usage and data are growing exponentially worldwide. New analytical approaches are needed to effectively use this data. Satellite imagery and sensors can provide detailed spatial and temporal data on topics like land use, vegetation, drought, and more. Integrating this diverse data through geoinformatics platforms has potential to help address issues like changing demographics, diets, land degradation, and water balances. The document advocates for data-driven agricultural systems research focused on building sustainable, resilient agroecosystems.
HPCC Systems - Using Big Data to Help Feed the WorldHPCC Systems
At our latest meetup, Jeff Bradshaw presents a case study - Delivering a Precision Agriculture Solution (Fit Bit for Cows?!).
Learn how data was collected leveraging the open source HPCC Systems platform from remote Farm Management Systems (used by the Farmers/Growers to manage their farms), and when merged with weather data and actual machinery data (IoT), this data is used to feed Agronomists and Crop Protection/Seed Manufacturers to get recommendations back. All in an effort to deliver a precision agriculture solution which helps the farmer increase his yield and helps feed the growing population of the world.
Geo-Big Data and Digital Augmentation for Sustainable AgroecosystemsICARDA
16-17 March 2019. Cairo, Egypt. 5th General Assembly of the Arab Water Council .
Presentation by Dr. Chandrashekhar Biradar, International Center for Agricultural Research in the Dry Areas (ICARDA).
HIGH-THROUGHPUT PHENOTYPING METHODS FOR ECONOMIC TRAITS and DESIGNER PLANT TY...Komal Kute
A growing world population is expected to cause a "perfect storm" of food, feed, and biofuel. Under the climate change scenario, it is a challenge for agricultural scientists to ensure food and nutritional security for an ever-increasing population with limited and rapidly depleting resources. However, researchers are now observing that conventional breeding methods will not be sufficient to meet projected future demands for foods. To overcome these constraints, plant breeding has evolved over the past two decades towards a much closer integration of high-throughput phenotyping (HTP) tools and technologies.
The "phenotyping revolution" targets extremely precise and accurate measurements of very specific traits in large populations in the field. Sorghum breeding is not new to this advancement, which obviously implies significant shifts in the breeding programs. First, it indicates breeders integrate trait assessment with traditional yield and agronomic evaluation, emphasising that breeding programmes are opened up to new or other disciplines. It additionally requires that these new or other disciplines think about and conceptualise their own actions and orientations from the perspective of how they may fit into a breeding methodology. In this instance, the four primary sorghum breeding domains—staying green and transpiration limitation under high vapour pressure deficit (VPD); nodal root angle and depth; grain mineral content (Fe, Zn); and grain and stover quality traits—are tightly correlated with HTP. These ongoing initiatives focus on value of the particular trait and why it is considered by breeders; how it is measured with HTP approaches (method, throughput, cost, simplicity) and finally, how these traits are currently being embedded in the breeding program. Through various research, it became evident there are several other avenues of technology that, although not yet routinely implemented, could bring about a major benefit to the breeding programme’s endeavour to increase the rate of genetic gains. Here, we discuss the use of drone imaging for yield trial quality control and pinpoint plot heterogeneity, the integration of quality analysis into the assessment of agronomic traits in the field, and the use of X-ray spectroscopy to assess grain or crop architecture traits.
A brief discussion on Precision agriculture, its components and constraints in its adaptation. It also covers the various protected structure and the way forward in this new avenue of protected cultvation.
Farming techniques are becoming smarter with the use of new technologies. Smart farming uses tools like GPS, drones, sensors, and weather forecasting to increase yields, reduce costs and environmental impact, and minimize human errors. It provides benefits such as higher crop production through precision agriculture, lowered expenses via improved resource management, and better environmental stewardship. However, the effects on climate change are unclear as pesticide and fertilizer use may rise, and large-scale factory farming may still present social issues. Smart farming incorporates various digital technologies tailored to different agricultural operations and livestock monitoring.
Precision Agriculture for smallholder farmers: Are we dreaming?CIMMYT
Presentation delivered by Dr. Bruno Gerard (Global Conservation Agriculture Program, CIMMYT) at Borlaug Summit on Wheat for Food Security. March 25 - 28, 2014, Ciudad Obregon, Mexico.
http://www.borlaug100.org
Artificial intelligence has the potential to help address challenges facing the agricultural sector as the global population increases. New technologies like drones, driverless tractors, automated irrigation, and machine learning are helping farmers monitor crops and soils, apply inputs precisely, and increase yields. Startups are developing tools using computer vision, satellites, and deep learning to diagnose plant health, predict weather, and optimize resource use. These AI solutions aim to help farmers "do more with less" and help feed the world's growing population in a sustainable way.
Presentation delivered by Deepak Pareek, CEO & Founder, MyCrop at BiharAgriTech Conference held on 16th December 2017 at Patna. The world is getting larger with the population growing by nearly 3 more people every second, which is 240,000 people a day. By 2025, the global population will reach 8 billion people and 9.6 billion by 2050. This means within one generation, there will be more people additionally on the planet than there were at the beginning of the
20th century. Feeding the growing world population poses an unprecedented challenge to human ingenuity. By 2050, food production must increase by 70% to keep pace.
Achieving the level of agricultural productivity necessary to meet the immensely risen world demand for food, fiber, and fuel by 2050 will be a challenge. Meeting this challenge is made even more daunting by a number of stringent constraints including environmental challenges and need to make benefits of development reach all. While Precision Agriculture has been in circulation for more than few decades but has been confined to the developed and the rich due to prohibitive cost and marginal value it brought to the table. Further complexity of the concept made it difficult or repulsive to smallholder farmers the core of agriculture ecosystem in developing the world.
Big Data technologies have suddenly changed this equation. The impact is so profound that Precision Agriculture which seemed to be the muse of the elite has suddenly become a rage for the underserved. This presentation takes you through a complete set of reasons and facts which are driving Big Data revolution in AgTech and the resulting adoption of Precision Agriculture by Smallholder farmers.
"Controlled Environment Agriculture - The Future of Food"AG/SUM
The document discusses the future of farming and controlled environment agriculture. It notes that the world population is projected to reach 9.7 billion by 2050, requiring a 70% increase in agricultural production to meet demand. However, traditional farming faces challenges from environmental risks, inefficient use of resources, and a costly distribution network. The solution proposed is controlled environment agriculture using indoor farms like TerraFarms, which offer production advantages like year-round harvests, higher yields, and more efficient water and land use. However, indoor farming currently faces challenges like high electricity usage, labor intensity, and limited product types. Future developments in automation, plant science, and new business models focused on selling produce rather than systems are poised to help indoor farming
Machine Learning in Agriculture Module 1Prasenjit Dey
Discuss the opportunities of incorporation of machine learning in agriculture. Briefly discuss different machine learning strategies. Briefly discuss the ways of machine learning can be used
Reference Strips and Precision Sensors for Nitrogen Managementuiolgawalsh
This document summarizes a presentation on precision agriculture given by Olga Walsh. The presentation covered the benefits of precision agriculture for producers through tools like variable rate technology, current Idaho research projects on improving water and nitrogen use efficiency in wheat, and the future of precision agriculture with technologies like drones and robotics. Walsh discussed the concepts of yield goal versus yield potential and how crop sensors can help estimate yield potential to determine precise nitrogen needs. Reference strips and understanding common misconceptions about sensors were also covered.
Scaling up Ethiopia’s ‘Seeds for Needs’ approach of using agricultural biodiv...Bioversity International
Bioversity International scientist Carlo Fadda presents to the World Bank on the results we have had so far working with partners in Ethiopia to tap into the genetic diversity of the country and the knowledge of farmers, to help them adapt better to climate change.
Find out more about Seeds for Needs: www.bioversityinternational.org/research-portfolio/adaptation-to-climate-change/seeds-for-needs/
Agriculture weather information system for farmers DHBindu
This document outlines plans to develop web and mobile-based agriculture weather advisory tools to help farmers plan for weather risks and maximize productivity. It aims to incorporate climate information and best practice recommendations. The tools would translate climate data into actionable advice on planting dates, crop/variety selection, and fertilizer use. A decision support system is proposed utilizing an existing crop simulation model to generate climate-smart recommendations. The system would integrate data from research, weather stations, and farmers to provide timely, relevant advisories through various delivery channels. The expected outcomes include improved farming decisions, better extension services, and wider adoption through farmer organizations.
PS Nutraceuticals aims to ensure food security and public health through its smart farms initiative. Investors can purchase units to fund the setup of aeroponic farms growing yams or Irish potatoes. The farms are managed by PS Nutraceuticals and are expected to generate high returns within 1 year. Initial farms will be established in Nigeria with the goal of expanding trade both within Africa and globally. The initiative aims to boost agricultural efficiency, yields, and food availability through innovative farming technologies.
Contains information about use of different ICT tools in Indian agriculture. Also contains information about challenges in application of ICT in Agriculture sector and way forward to resolve the issues
Unleashing The Power Of Agriculture Sensors In Precision Farming.pdfGQ Research
This article delves into the realm of Agriculture Sensors, exploring its applications, benefits, challenges, and the promising future it holds for sustainable agriculture.
Presentation at "Food Security in a World of Growing Natural Resource Scarcity" event hosted by IFPRI at Newseum on February 12, 2014. Speakers: Mark Rosegrant, Jawoo Koo, Nicola Cenacchi, Claudia Ringler, Ricky Robertson, Myles Fisher, Cindy Cox, Karen Garrett, Nicostrato Perez, and Pascale Sabbagh.
Similar to Proagrica - Using Big Data to Help Feed the World (20)
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The document thanks sponsors of different levels for an HPCC summit. It also provides a link to a YouTube video from the summit that is 20 minutes and 19 seconds long and is part of a playlist.
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Come hear a brief overview on the direction the HPCC Systems platform is heading, and get a glimpse into some of the likely highlights included in the next minor and major versions.
This talk will explain the reasoning behind the release cycle changes, and how overcoming the challenges faced in the previous practice of automated testing has introduced new benefits and wider acceptance from the wider community.
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This presentation will provide an overview of the latest advancements in Machine Learning modules over the past year, including Clustering, Natural Language Processing, Deep Learning, and the Expanded Model Evaluation Metrics.
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The training process for modern deep neural networks requires big data and large computational power. Though HPCC Systems excels at both of these, HPCC Systems is limited to utilizing the CPU only. It has been shown that GPU acceleration vastly improves Deep Learning training time. In this talk, Robert will explain how HPCC Systems became the first GPU accelerated library while also greatly expanding its deep neural network capabilities.
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Let me tell you what we see.
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Watch the video recording at https://youtu.be/5vjwGfPN9lw
Sign up for future HUG events at https://events.hubspot.com/b2b-technology-usa/
Beyond the Basics of A/B Tests: Highly Innovative Experimentation Tactics You...Aggregage
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A quick poll on agility in changing pipelines from end to end indicated a huge span in capabilities. For the question "How long time does it take for all downstream pipelines to be adapted to an upstream change," the median response was 6 months, but some respondents could do it in less than a day. When quantitative data engineering differences between the best and worst are measured, the span is often 100x-1000x, sometimes even more.
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Proagrica - Using Big Data to Help Feed the World
1. Using big data to help feed the world
Jeff Bradshaw - CTO
2. Who are Proagrica
Proagrica, the global agricultural division of RELX, drives growth and improves efficiency by
delivering high-value insight and data, critical tools and advanced technology solutions
5. Precision Agri: Our Data Landscape / Assets
Vast amounts of data spread across the Agricultural landscape. Proagrica is consolidating, organising and enhancing this data
to help drive value across the entire industry, from the farm gate all the way to the super market shelf
Farm Machinery
Every piece of equipment on the farm is
now generating data and wants to be
precise
Agronomist
Providing farm advice, shape files and
data to farmers
Manufacturers & Distributors
Adaptris manages supply chain
connectivity between MFRS and their
Distributors
Weather Data
Global current and historical weather and
soil moisture data at sub-field level
Farm Management Information
Systems (FMIS)
A wide spectrum of tools used by
Farmers all generating data
Satellites / Drones
Ability to identify yield and crop issues
from space / drones
Sensors
Ground and animal sensors measuring
everything from animal fertility to soil
moisture
Soil
Global soil type horizons
9. ProAgrica HPCC Platform
DATA
STORA
GE,
ENTITY
LINKIN
G &
ETL
LAYER
DATA
SCIENCE
LAYER
THE
WORLD
INDEX SEARC
H
REF DATA APIs
GEOLOCATION
INFO
SOIL TYPES
WEB API
vIPER
DATA
VIZ
PRODU
CT
Farm Management Systems
IoT / Machinery
10. What does it deliver?
▶ Global insight through fully integrated data, Data As A
Service and a range of Analytics tools
▶ An agile, scalable, resilient and secure platform that can
consume data from any source, consolidate, enrich and
expose global agricultural data from everything soil to
animals and all the way to satellites
▶ Precision Ag covering the full Ag value chain from Mfr,
through Agronomist, CO-OP, Farmer and Distributor
▶ A range of Analytics solutions focused on Pesticides,
Herbicides, Fertilizers, Seeds, Cattle, Milk, etc. that provide
insight at market, region, farm, field and sub-field levels
▶ Enabling the industry to increase yield and profitability
whilst reducing inputs and improving environmental impact
13. What does it deliver?
▶ Global insight through fully integrated ESB data,
Data As A Service and a range of Analytics tools
▶ An agile, scalable, resilient and secure platform that
can consume data from any source, consolidate,
enrich and expose global agricultural data from
everything soil to animals and all the way to satellites
▶ Precision Ag covering the full Ag value chain from
Mfr, through Agronomist, CO-OP, Farmer and
Distributor
▶ A range of Analytics solutions focused on Pesticides,
Herbicides, Fertilizers, Seeds, Cattle, Milk, etc. that
provide insight at market, region, farm, field and sub-
field levels
▶ Enabling the industry to increase yield and
profitability whilst reducing inputs and improving
environmental impact
14. A worked example – OSR aka Canola
▶ It is an edible crop
▶ Food oil
▶ High protein animal feed
▶ BioDiesel
▶ Lubricant
▶ Variable yield
▶ New diseases
▶ Pesticide limitations
▶ Tight profit margins
15. Patterns of OSR using Principal Component Analysis
▶ Why was the 2016 harvest in the UK so awful?
▶ What correlates to higher yields?
▶ How effective are pesticides?
▶ Are hybrids better?
34. What causes variation in yield – it’s a similar story
▶ Degree days
▶ Fertiliser treatments
▶ Fungicide treatments
▶ Insecticide treatments
▶ Month of first insecticide
application
▶ High wind events
▶ Temperatures
▶ Average rainfall
▶ Coldest week
▶ Total radiation
▶ Wettest weeks
▶ Driest weeks
▶ Soil moisture
▶ Precipitation
▶ Latitude & Longitude
▶ Soil content
35. Overall, what correlates with a high yield?
Warm winters
Dry springs
Warm
summers
FerIlisers not needed?
Larger and
Northern?
2016
2015
36. At last some answers…….
▶ Why was the 2016 harvest in the UK so awful?
▶ Wet spring and/or dry winter
▶ What correlates to higher yields?
▶ Warm spring, wet winters and proper pesticide application
▶ How effective are pesticides?
▶ Yes for fungicide, “perhaps” for insecticide
▶ Are hybrids better?
▶ Not really
37. Take home messages
▶ If you’re a farmer
▶ There are probably too many varieties of OSR in the world!
▶ OSR does better in wet springs and warm winters
▶ If you’re in to analytics
▶ Working with big data is a lot of fun
▶ Dimension reduction is great for picking out correlations in
complex data