Strip-Till for Fine Seedbed Preparation in Silty Soil Davide Rizzo
The sustainable intensification process has though two main barriers: the learning curve to master new techniques and the cost of equipment suited for the new practices. This communication aims to discuss a project of strip-till design following an innovation system approach. First, we present the agronomic challenge and our approach for a custom supply development. Then, we discuss the relevance of our some early outcomes for the wider goal of sustainable intensification of crop production.
Keynote for the 9th International Scientific Conference
RURAL DEVELOPMENT 2019: Research and Innovation for Bioeconomy, 26-28th September 2019 Vytautas Magnus University | Akademija, Kaunas district, Lithuania http://www.ruraldevelopment.lt
This talk provides an overview of the multiple, sometimes contrasting perspectives on agtech players and their role for future agriculture and challenges for education and training (in France).
There is perchance no area under agriculture which does not benefit from the ubiquitous influence of mobile technology. The ease with which data can be monitored, stored and shared at anytime, anywhere in the world via a smartphone or tablet has taken precision agriculture to another level altogether!
Having a connected farm - with a flawless sync amongst on-site workers, the office, and handheld computers - is an option that is gaining paramount importance. Mobile technology is increasingly becoming a hot favorite for anyone and everyone involved with farming.
The use of such technology has enabled farmers worldwide to not only procure information on news, markets, pricing, as well as the weather, but also maximize production, and reduce dependencies.
Our expert teams at Extentia have successfully been able to club mobility with agriculture and have helped clients achieve high productivity by providing an appropriate solution to their needs.
Let us know how Extentia can help you! We can work with you to take your iPhone, iPad, Android, and Windows Phone application ideas and concepts straight to the application store. Reach out to us at http://www.extentia.com/contact-us.
Reshaping the Future of Agriculture through ICT: Agriculture 4.0Rizwan MFM
M.F.M. Rizwan | Assistant Director of Agriculture (Development)
National Agriculture Information & Communication Centre (NAICC) | Department of Agriculture
AI bots in the agriculture field can harvest crops at a higher volume and faster pace than human laborers. By leveraging computer vision helps to monitor the weed and spray them. Thus, Artificial Intelligence is helping farmers find more efficient ways to protect their crops from weeds.
Trends in Agricultural Robots. A Comparative Agronomic Grid Based on a French...Davide Rizzo
Equipment innovation is one of the crucial levers for the improvement of economic, societal and environmental performances of agriculture. In particular, precision farming is expected to be among the 10 technologies that could change our lives. Amid the different technologies enabling a greater precision of agriculture, robotics and sensors could radically change the way of farming. Automatic machines collecting and managing data, eventually feeding a bigdata approach, could provide new tools for fine-tuning farmers’ decision making and help them in mastering the environmental footprint of agriculture. Nevertheless, what is a robot from the agricultural point of view? What are the solutions under development or on the market? How to compare them? The disruptive transformation of the agricultural machinery market requires the definition of new landmarks, especially for agronomists who are facing new opportunities and technologies. We present here the early results of a comparative overview realized by a group of students in agronomy and specializing in agricultural equipment and new technologies at UniLaSalle. The five students were asked to provide figures and a summary of the agricultural robots available in France, either on the market or upcoming. Firstly, they defined what a “robot” is. They referred to Coiffet (2007) who considers “robot” a machine for the human assistance executing a work or a physical task, either as a tool handled during the execution of the task or capable to perform the work without human intervention. Accordingly, the database includes only agricultural machines fulfilling at least two out of the three following criteria: the capability to execute a task, the operational flexibility, the self-adaptability to the working environment. Three robot classes were identified (decision, assistance or substitution) further classified in two agricultural domains and related operational subdomains: crop production (including permanent crops, horticulture, field crop and other crops) and breeding (including cattle, poultry, and pig). Out of a 4 months work, the database finally contains 98 robots from 70 enterprises, with full specifications retrieved from more than 300 websites and 7 French agricultural journals, as well as through the participation to some specialized fora. For comparison, the “Agricultural Robots” report by Tractica highlighted 149 profiles over a comparable time period. Drawing upon a solid background in agronomy, the students analysed the farming operation performed by the listed robots, with a focus on the vehicle-soil interface. Altogether, the design and development of this database can provide agronomists with an up-to-date comparative grid of the existing and upcoming agricultural robots. Identifying clear landmarks in the high pace robot landscape will enhance the agronomic evaluation and enable a clearer understanding of robot relevance for farmers.
Strip-Till for Fine Seedbed Preparation in Silty Soil Davide Rizzo
The sustainable intensification process has though two main barriers: the learning curve to master new techniques and the cost of equipment suited for the new practices. This communication aims to discuss a project of strip-till design following an innovation system approach. First, we present the agronomic challenge and our approach for a custom supply development. Then, we discuss the relevance of our some early outcomes for the wider goal of sustainable intensification of crop production.
Keynote for the 9th International Scientific Conference
RURAL DEVELOPMENT 2019: Research and Innovation for Bioeconomy, 26-28th September 2019 Vytautas Magnus University | Akademija, Kaunas district, Lithuania http://www.ruraldevelopment.lt
This talk provides an overview of the multiple, sometimes contrasting perspectives on agtech players and their role for future agriculture and challenges for education and training (in France).
There is perchance no area under agriculture which does not benefit from the ubiquitous influence of mobile technology. The ease with which data can be monitored, stored and shared at anytime, anywhere in the world via a smartphone or tablet has taken precision agriculture to another level altogether!
Having a connected farm - with a flawless sync amongst on-site workers, the office, and handheld computers - is an option that is gaining paramount importance. Mobile technology is increasingly becoming a hot favorite for anyone and everyone involved with farming.
The use of such technology has enabled farmers worldwide to not only procure information on news, markets, pricing, as well as the weather, but also maximize production, and reduce dependencies.
Our expert teams at Extentia have successfully been able to club mobility with agriculture and have helped clients achieve high productivity by providing an appropriate solution to their needs.
Let us know how Extentia can help you! We can work with you to take your iPhone, iPad, Android, and Windows Phone application ideas and concepts straight to the application store. Reach out to us at http://www.extentia.com/contact-us.
Reshaping the Future of Agriculture through ICT: Agriculture 4.0Rizwan MFM
M.F.M. Rizwan | Assistant Director of Agriculture (Development)
National Agriculture Information & Communication Centre (NAICC) | Department of Agriculture
AI bots in the agriculture field can harvest crops at a higher volume and faster pace than human laborers. By leveraging computer vision helps to monitor the weed and spray them. Thus, Artificial Intelligence is helping farmers find more efficient ways to protect their crops from weeds.
Trends in Agricultural Robots. A Comparative Agronomic Grid Based on a French...Davide Rizzo
Equipment innovation is one of the crucial levers for the improvement of economic, societal and environmental performances of agriculture. In particular, precision farming is expected to be among the 10 technologies that could change our lives. Amid the different technologies enabling a greater precision of agriculture, robotics and sensors could radically change the way of farming. Automatic machines collecting and managing data, eventually feeding a bigdata approach, could provide new tools for fine-tuning farmers’ decision making and help them in mastering the environmental footprint of agriculture. Nevertheless, what is a robot from the agricultural point of view? What are the solutions under development or on the market? How to compare them? The disruptive transformation of the agricultural machinery market requires the definition of new landmarks, especially for agronomists who are facing new opportunities and technologies. We present here the early results of a comparative overview realized by a group of students in agronomy and specializing in agricultural equipment and new technologies at UniLaSalle. The five students were asked to provide figures and a summary of the agricultural robots available in France, either on the market or upcoming. Firstly, they defined what a “robot” is. They referred to Coiffet (2007) who considers “robot” a machine for the human assistance executing a work or a physical task, either as a tool handled during the execution of the task or capable to perform the work without human intervention. Accordingly, the database includes only agricultural machines fulfilling at least two out of the three following criteria: the capability to execute a task, the operational flexibility, the self-adaptability to the working environment. Three robot classes were identified (decision, assistance or substitution) further classified in two agricultural domains and related operational subdomains: crop production (including permanent crops, horticulture, field crop and other crops) and breeding (including cattle, poultry, and pig). Out of a 4 months work, the database finally contains 98 robots from 70 enterprises, with full specifications retrieved from more than 300 websites and 7 French agricultural journals, as well as through the participation to some specialized fora. For comparison, the “Agricultural Robots” report by Tractica highlighted 149 profiles over a comparable time period. Drawing upon a solid background in agronomy, the students analysed the farming operation performed by the listed robots, with a focus on the vehicle-soil interface. Altogether, the design and development of this database can provide agronomists with an up-to-date comparative grid of the existing and upcoming agricultural robots. Identifying clear landmarks in the high pace robot landscape will enhance the agronomic evaluation and enable a clearer understanding of robot relevance for farmers.
Impact of Digital Technology on Livestock Farming by Adeshile, Adedeji RichardDeji Richard Adeshile
This project is submitted as end-of-course requirement (Digital Dividends: Strengthening the analog foundation of the digital revolution).
Key target audience are the Governments, development partners, private investors and the general public.
The message is that, ICT driven agric-economy is a win-win catalyst for commercial returns to Farmers and other Private investors as well as social returns to Governments.
Governments must act now to mitigate inherent threat to Food Security and humanity due to degenerating impacts of climate change and Community unrest. The threat also gives negative outlook on Governments efforts to making Agriculture a key alternative to non-oil revenue generation.
ROLE OF INFORMATION AND COMMUNICATION TECHNOLOGY (ICT) IN THE CHANGING SCENAR...SRICHANDANA36
CONTAINS INFORMATION ABOUT ICT, INTRODUCTION, NEW PROJECTS OF ICT, MOBILE SERVICES, WEBSITES, PORTALS, HYBRID ICT PROJECTS BEING USED BY THE EXTENSION PERSONNEL FOR TRANSFERING LATEST AGRICULTURAL INFORMATION TO THE FARMERS
Xiaobo Zhang
BOOK LAUNCH
An evolving paradigm of agricultural mechanization development: How much can Africa learn from Asia?
FEB 9, 2021 - 09:30 AM TO 10:30 AM EST
Xinshen Diao
BOOK LAUNCH
An evolving paradigm of agricultural mechanization development: How much can Africa learn from Asia?
FEB 9, 2021 - 09:30 AM TO 10:30 AM EST
The Brussels Development Briefing n. 58 on “Africa’s Agriculture Trade in a changing environment” organised by CTA, the European Commission/EuropeAid, the ACP Secretariat, IFPRI, Concord and BMZ/GIZ was held on Wednesday 23 October 2019 (9h00-13h00) at Hotel Sofitel Brussels Europe, Place Jourdan 1, 1040 Brussels.
The briefing brought various perspectives and experiences around the new trends and opportunities in intra-Africa trade in the context of free trade agreements and regional integration. It also showed Africa trade within the broader global trade picture and with the EU as one of the main trade partners.
Experts presented trends and prospects of regional trade in Africa in the light of new policy developments as well as Africa’s recent performance in different markets. It also featured successes and innovative models in regional trade across regions in Africa and lessons learned for upscaling and expanding regional trade.
Role of ICTs in African Agriculture and how Africa-EU partnership can enhance...Francois Stepman
2 July 2017. Rome, Italy. Making Sustainable Agriculture a future for youth in Africa. This conference was hosted by the AU Commission, the European Commission and the Estonian Presidency of the EU at the FAO premises.
Presentation by Dr Yemi Akinbamijo, Executive Director of FARA.
Collapsing Narratives: Exploring Non-Linearity • a micro report by Rosie WellsRosie Wells
Insight: In a landscape where traditional narrative structures are giving way to fragmented and non-linear forms of storytelling, there lies immense potential for creativity and exploration.
'Collapsing Narratives: Exploring Non-Linearity' is a micro report from Rosie Wells.
Rosie Wells is an Arts & Cultural Strategist uniquely positioned at the intersection of grassroots and mainstream storytelling.
Their work is focused on developing meaningful and lasting connections that can drive social change.
Please download this presentation to enjoy the hyperlinks!
This presentation, created by Syed Faiz ul Hassan, explores the profound influence of media on public perception and behavior. It delves into the evolution of media from oral traditions to modern digital and social media platforms. Key topics include the role of media in information propagation, socialization, crisis awareness, globalization, and education. The presentation also examines media influence through agenda setting, propaganda, and manipulative techniques used by advertisers and marketers. Furthermore, it highlights the impact of surveillance enabled by media technologies on personal behavior and preferences. Through this comprehensive overview, the presentation aims to shed light on how media shapes collective consciousness and public opinion.
Media as a Mind Controlling Strategy In Old and Modern Era
FIRA 2018 - Santiago Santos Valle - FAO
1. Agrobots and
Agricultural Mechanization
FIRA
International Forum of Agricultural Robotics
Santiago Santos Valle, Agricultural Engineer, FAO
11th December, 2018 - Toulouse
Challenges of the adoption
of new agricultural technologies in
developing countries
2. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
FAO and Sustainable Mechanization
Dedicated organization of the United Nations created in
1945 to defeat hunger in the world.
194 member states Presence in 130 countries
Mechanization is currently part of the Plant Production and Protection Division (department)
The mechanization group supports FAO initiatives related with agricultural equipment and the sustainable
intensification of agricultural production.
Core areas of work:
- Develop national and regional strategies in support of sustainable mechanization with governments and
institutions.
- Identify appropriate business models for the development of hire services models
- Ensure the quality and adequacy of agricultural equipment in FAÓs interventions
- Facilitate South – South Cooperation to increase know-how and technology exchange
3. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
What is part of Sustainable Mechanization?
It encompasses all levels of production technologies, including:
- Simple hand tools
- Use of draught animals
- Motorized equipment
• Stationary engine-powered (i.e. pumps)
• Single axle tractors or tractor/trailer combinations
• Harvesting and crop management equipment
• 4 Wheel tractors
- Solar, wind and water powered equipment and machinery
- Autonomous equipment (drones, robots and bots)
It has the potential to create employment along the value chain and improve the
livelihood of the rural poor
COMIN
G
SOON!
4. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Agricultural MechanizationValue Chain
5. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Commercial vs Smallholder
• Subsistance driven
• Low capital investment
• Small land ownership/management
• Difficulties to finance
• No social cover schemes
• Poor knowledge and training
• Profit driven
• High capital investment
• Large land ownership/management
• Access to finance
• Has social cover schemes
• Usually has knowledge and training
6. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Why mechanize developing countries?
How many People can a Farmer Feed?
3
6
50
After Legg 1993
7. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Why mechanize developing countries?
United Nations Sustainable Development Goals (16 SDGs)
• Improve livelihoods
• Food soveraignity and adequate nutrition
• Rural – urban migration
• Create qualified employment and new business
• Close the technological gap
• Sustainable production intensification
• Sustainable resouce management
8. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
The Problem
• Can profitability of agricultural production be increased in a sutainable
manner through mechanization?
• Can agricultural mechanization be sustainable?
• How do we create more jobs and build adequate capacity in the
agricultural sector?
• How can we improve rural livelihoods?
• How can we achieve it protecting the environment?
• How can developing countries close the technology gap?
9. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Mechanization and technification myths
• Creates rural unemployment
• Leads to monoculture and industrial farming
• It is only for large-scale farmers
• It is only about large manufacturing companies
• It is only about the public sector
• It does not protect natural resources and is not climate-smart
Diversification and multiple farming possibilities
New job types, mitigates effects of migration
Technological solutions for all sort of farms and crops
Local workshops, sales representations, etc.
Private sector initiative brings innovation, public provides enabling
environment
Efficiency, new energies, sustainable practices
10. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Mechanization and technification myths
• Examples of myth busters:
Direct seeding
(photo J. Kienzle, FAO)
Axial Flow Pump
(photo CIMMYT)
11. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Agriculture 4.0
Smart
Farm
Big Data
Robotics
Could IoT
Sensing
Techn.
GPSTech
Autom.
Machines
12. Smart
Farm
Big Data
Robotics
Could IoT
Sensing
Techn.
GPSTech
Autom.
Machines
Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Agriculture in developing countries
Small
Farm
No Data
Hand or
animal
power
Analogic
or
mechanic
tech
No access
to
sensoring
Farmeŕs
experience
Manual
work
13. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Agriculture 4.0
The new agriculture is characterized by:
• Data collection and management
• Specialized equipment = specialized manpower
• Resource efficient
• New business models
• Dependent on reliable ICTs infrastructure
• Needs adequate technical support and service
It is easier to supply technology, than it is
to set a system to make it sustainable
14. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Mechanization and robotization vision
Paradigm shift
Machinery Agronomy
Magnitude Multitude
Complexity Simplicity
Capital intensive Capital sharing
Dependency Autonomy
Repetition Automation Credit:AGCO
15. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Agrobots in developing countries
• Adoption neglegible
• Capacity building should be the first step
• Infrastructure requirements can be a burden
• May contribute to labour shortages
• Technology costs are lowering
• Combination with other technologies (3D printing i.e.) could help to solve
logistical issues
• Main contribution will be sustainable crop intensification
• Service provision can be the entry point for the technology
16. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Challenges
17. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Challenges (3G signal example)
France: 675,417 km² Zambia: 752,614 km²
Source: http://maps.mobileworldlive.com
18. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Lessons learnt
• Public only or private only led initiatives do not succeed in time
• There is no general solution to increase production with mechanization
• Inadequate equipment and practices can damage severely natural resources
• Without capacity, technology is not adopted
• Technology adoption happens when it has an economic advantage
• Currently social and environmental concerns can favor adoption of particular
technologies
19. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Opportunities for small scale farmers
• Increase efficiency of agricultural production
• Create new job opportunities in rural areas for qualified manpower
• Close the technological gap with developed countries
• Reduce drudgery of agricultural work
• Enable new business and research ideas adapted to the context
• Strengthen the use of ICT technologies, renewable energy and monitoring
devices
20. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
The way forward
Sustainable Mechanization Strategies
• Creating effective linkages between each group of stakeholders and
defining roles
• Addressing issues which affect the profitability of these groups
• Identifying the basic conditions that national governments can
provide to create an enabling environment
Overall aim: Create a sustainable sector which allows
innovation and job creation
21. SUSTAINABLE AGRICULTURAL MECHANIZATION
STRATEGY
Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Strategy formulation process (I)
• Country-specific factors
• It involves a wide range of stakeholders and all should be involved
A PARTICIPATORY approach is a must
INDUSTRY
FARMERS
MINISTRY OF
AGRICULTURE
POLICY MAKERS
EXTENSION
SERVICES
UNIVERSITY
RETAILERS
SERVICE PROVIDERS
OTHER MINISTRIES
NGOS
22. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Strategy formulation process (II)
Enabling Enviroment
The outcome of a successful implementation of a SAM Strategy is the
creation of the adequate conditions for the development of
the sector.
• Increases natural resources and inputs use efficiency
• Allows the development of agri-food chains
• Creates new jobs for youth both in and urban rural areas
• Adopts and makes use of ICTs and new technological solutions
• Promotes social inclusion of vulnerable people (women, youth, etc.)
23. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Where do we want to be?
24. Agrobots and Agricultural Mechanization in developing countries
FIRA - International Forum of Agricultural Robotics
Thank you very much for your attention
Merci beaucoup
www.fao.org/sustainable-agricultural-mechanization