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| Training Mode | Platform | Fee | Enroll |
|---|---|---|---|
| Online Training | Zoom/ Google Meet | 1,740USD | Register |
| Course Date | Location | Fee | Enroll |
|---|---|---|---|
| 10/08/2026 to 21/08/2026 | Nairobi | 2,900 USD | Register |
| 10/08/2026 to 21/08/2026 | Mombasa | 3,400 USD | Register |
| 14/09/2026 to 25/09/2026 | Nairobi | 2,900 USD | Register |
| 14/09/2026 to 25/09/2026 | Mombasa | 3,400 USD | Register |
| 12/10/2026 to 23/10/2026 | Nairobi | 2,900 USD | Register |
| 09/11/2026 to 20/11/2026 | Nairobi | 2,900 USD | Register |
| 09/11/2026 to 20/11/2026 | Mombasa | 3,400 USD | Register |
| 07/12/2026 to 18/12/2026 | Nairobi | 2,900 USD | Register |
| 14/12/2026 to 25/12/2026 | Mombasa | 3,400 USD | Register |
Course Introduction
Rapid urbanization is reshaping how cities produce, distribute, and consume food, creating unprecedented pressure on conventional agricultural systems and supply chains. Smart cities are increasingly integrating urban farming technologies and sustainable food production systems into their development strategies to improve food security, reduce environmental impacts, and strengthen resilience against climate change and global supply disruptions. This course equips participants with practical and strategic knowledge required to design and manage modern urban food systems within smart city environments.
Urban agriculture has evolved beyond traditional community gardens into sophisticated systems incorporating digital technologies, automation, artificial intelligence, Internet of Things devices, precision agriculture, and data-driven resource management approaches. Participants will explore how technology-enabled farming systems improve productivity, reduce waste, optimize energy consumption, and support year-round food production within densely populated urban environments while creating new economic opportunities and employment pathways.
The course provides comprehensive coverage of smart urban farming systems including hydroponics, aquaponics, aeroponics, vertical farming, rooftop agriculture, controlled environment agriculture, and integrated food production ecosystems. Participants will gain practical understanding of how these technologies contribute to sustainable cities while improving land utilization, reducing transportation emissions, and increasing local food availability for urban populations.
Strong emphasis is placed on sustainability principles that promote efficient water use, renewable energy integration, circular economy practices, waste recycling, biodiversity conservation, and climate resilience within urban food systems. Participants will examine how smart urban agriculture contributes to environmental sustainability goals while supporting healthier communities and improving urban ecosystem services in rapidly growing cities worldwide.
Emerging trends including digital twins, blockchain-enabled food traceability, artificial intelligence, smart sensors, robotics, climate-smart agriculture, and urban food policy innovations are transforming food production and distribution systems globally. Participants will evaluate how these innovations improve productivity and transparency while addressing governance, affordability, scalability, and sustainability challenges facing modern cities and metropolitan regions.
Upon completion of the course, participants will possess the expertise required to design, implement, manage, and scale smart urban agriculture initiatives successfully. They will be equipped to improve food security outcomes, strengthen urban resilience, support green economic growth, promote environmental sustainability, and contribute to the development of smarter, healthier, and more self-sufficient cities.
10 days
Urban planners involved in smart city development and sustainable infrastructure initiatives.
Agricultural professionals responsible for urban farming and food production projects.
Municipal officials overseeing urban development and environmental sustainability programs.
Environmental managers responsible for climate resilience and green city initiatives.
Agribusiness entrepreneurs seeking opportunities within urban agriculture ecosystems.
Smart city professionals involved in digital transformation and innovation projects.
Food security specialists working on resilient urban food systems and supply chains.
Development practitioners supporting sustainable livelihoods and community resilience programs.
Engineers involved in controlled environment agriculture and smart farming systems.
Researchers and academics specializing in urban sustainability and food systems innovation.
NGO professionals supporting community agriculture and sustainable development initiatives.
Investors and project managers evaluating opportunities within urban agriculture sectors.
Develop participants' ability to design and implement smart urban farming systems that improve food security, sustainability, and economic resilience outcomes effectively.
Equip professionals with practical knowledge regarding digital agriculture technologies including IoT systems, sensors, and automation platforms used globally.
Strengthen understanding of sustainable food production methodologies suitable for densely populated urban environments and smart city ecosystems comprehensively.
Enable participants to evaluate hydroponic, aquaponic, vertical farming, and controlled environment agriculture technologies strategically and effectively.
Improve competencies in integrating renewable energy, circular economy principles, and efficient resource management into urban agriculture systems successfully.
Build expertise in applying data analytics and artificial intelligence to optimize agricultural productivity and operational performance significantly.
Enhance understanding of climate-smart agriculture approaches that strengthen resilience against environmental and economic disruptions effectively.
Develop practical skills in urban agriculture project planning, implementation, financing, and performance management successfully and sustainably.
Provide knowledge regarding urban food policies and governance frameworks supporting sustainable food production systems comprehensively.
Strengthen participants' ability to evaluate environmental impacts and sustainability indicators associated with urban agriculture projects effectively.
Improve understanding of food traceability technologies and smart supply chain management systems supporting consumer confidence significantly.
Prepare professionals to lead smart agriculture transformation initiatives that support sustainable and resilient urban development successfully.
Understanding the evolution of smart cities and their relationship with sustainable urban food systems globally.
Exploring the role of urban farming in supporting food security and environmental sustainability objectives effectively.
Examining technological innovations transforming food production within modern urban environments comprehensively.
Understanding governance frameworks supporting urban agriculture initiatives successfully and sustainably.
Understanding components of integrated urban food systems and their economic and environmental impacts comprehensively.
Evaluating sustainable food production models suitable for growing metropolitan populations effectively and strategically.
Assessing food system vulnerabilities arising from climate change and urbanization pressures significantly.
Designing resilient food production systems supporting long-term sustainability outcomes successfully.
Understanding hydroponic production methods and their application within urban farming environments comprehensively.
Evaluating nutrient management systems supporting efficient and productive crop cultivation effectively.
Assessing operational considerations affecting commercial hydroponic farm performance significantly and strategically.
Designing hydroponic solutions suitable for urban food production initiatives successfully.
Understanding aquaponic systems integrating fish production with sustainable crop cultivation comprehensively.
Evaluating water recycling mechanisms supporting efficient resource utilization effectively and consistently.
Assessing biological interactions affecting productivity and operational stability significantly and strategically.
Designing integrated systems supporting diversified urban food production successfully.
Understanding vertical farming technologies and their role in maximizing urban land utilization comprehensively.
Evaluating lighting technologies and environmental controls affecting crop productivity effectively and strategically.
Assessing economic feasibility considerations associated with commercial vertical farming significantly.
Designing scalable vertical farming systems supporting urban food security successfully.
Understanding controlled environment agriculture principles supporting year-round production comprehensively and globally.
Evaluating environmental monitoring systems improving crop performance effectively and consistently.
Assessing risks associated with environmental control failures significantly and strategically.
Designing resilient production systems supporting operational continuity successfully.
Understanding IoT technologies supporting real-time monitoring and decision-making comprehensively and globally.
Evaluating sensor technologies used for precision agriculture applications effectively and strategically.
Assessing connectivity challenges affecting smart farming performance significantly and practically.
Designing IoT-enabled systems supporting efficient agricultural management successfully.
Understanding artificial intelligence applications improving urban agriculture productivity comprehensively and increasingly.
Evaluating predictive analytics supporting operational optimization effectively and strategically.
Assessing machine learning applications for yield forecasting significantly and practically.
Designing data-driven decision-making frameworks supporting sustainability successfully.
Understanding water management systems supporting sustainable urban agriculture comprehensively and globally.
Evaluating precision irrigation technologies improving resource efficiency effectively and consistently.
Assessing water scarcity risks affecting urban farming initiatives significantly and strategically.
Designing conservation strategies supporting long-term water sustainability successfully.
Understanding renewable energy technologies supporting sustainable food production comprehensively and globally.
Evaluating solar and alternative energy applications within urban agriculture effectively and strategically.
Assessing energy efficiency opportunities reducing production costs significantly and practically.
Designing low-carbon farming systems supporting climate objectives successfully.
Understanding circular economy principles supporting sustainable food production comprehensively and globally.
Evaluating waste recycling technologies improving resource efficiency effectively and strategically.
Assessing composting and nutrient recovery systems significantly and practically.
Designing circular production models supporting environmental sustainability successfully.
Understanding digital supply chains supporting transparency and food safety comprehensively and globally.
Evaluating blockchain technologies improving traceability and accountability effectively and strategically.
Assessing logistics challenges affecting urban food systems significantly and practically.
Designing smart distribution systems supporting market efficiency successfully.
Understanding regulatory frameworks affecting urban farming development comprehensively and internationally.
Evaluating policy instruments supporting sustainable food production effectively and strategically.
Assessing governance challenges influencing implementation outcomes significantly and practically.
Designing supportive policy environments encouraging innovation successfully.
Understanding investment opportunities within smart urban agriculture comprehensively and globally.
Evaluating business models supporting commercial viability effectively and strategically.
Assessing financing risks affecting project sustainability significantly and practically.
Designing investment strategies supporting long-term growth successfully.
Understanding climate-smart agriculture principles supporting urban resilience comprehensively and globally.
Evaluating adaptation strategies addressing environmental risks effectively and strategically.
Assessing sustainability metrics supporting performance measurement significantly and practically.
Designing resilient systems capable of withstanding future shocks successfully.
Exploring robotics and automation technologies transforming urban farming globally and increasingly.
Evaluating digital twins and advanced analytics supporting smart agriculture effectively and strategically.
Assessing future innovations shaping urban food systems significantly and practically.
Designing future-ready urban agriculture strategies supporting sustainable cities successfully.
Training Approach
This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.
Tailor-Made Course
This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808
Training Venue
The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.
Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant
Certification
Participants will be issued with Upskill certificate upon completion of this course.
Airport Pickup and Accommodation
Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808
Terms of Payment:
Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.
| Training Mode | Platform | Fee | Enroll |
|---|---|---|---|
| Online Training | Zoom/ Google Meet | 1,740USD | Register |
| Course Date | Location | Fee | Enroll |
|---|---|---|---|
| 10/08/2026 to 21/08/2026 | Nairobi | 2,900 USD | Register |
| 10/08/2026 to 21/08/2026 | Mombasa | 3,400 USD | Register |
| 14/09/2026 to 25/09/2026 | Nairobi | 2,900 USD | Register |
| 14/09/2026 to 25/09/2026 | Mombasa | 3,400 USD | Register |
| 12/10/2026 to 23/10/2026 | Nairobi | 2,900 USD | Register |
| 09/11/2026 to 20/11/2026 | Nairobi | 2,900 USD | Register |
| 09/11/2026 to 20/11/2026 | Mombasa | 3,400 USD | Register |
| 07/12/2026 to 18/12/2026 | Nairobi | 2,900 USD | Register |
| 14/12/2026 to 25/12/2026 | Mombasa | 3,400 USD | Register |
We support the development of a skilled and confident workforce to meet the changing demands of growing sectors by offering the best possible training to enable them to fulfil learning goals.
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