Tanzania - Business creation project
Individual
participation
TerraSense
This automated drip irrigation system uses IoT sensors to monitor soil moisture. Real-time data personalizes watering for each zone, minimizing water waste and maximizing crop yields. Perfect for sustainable farms seeking a smarter irrigation solution.
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TerraSense
Describe your project or startup in a few words
This automated drip irrigation system uses IoT sensors to monitor soil moisture. Real-time data personalizes watering for each zone, minimizing water waste and maximizing crop yields. Perfect for sustainable farms seeking a smarter irrigation solution.
01.01 Describe your project in more detail
This innovative project tackles the challenge of water waste in agriculture. It utilizes an automated drip irrigation system powered by the Internet of Things (IoT). Here's how it works: Sensor Network: Sensors strategically placed in the soil continuously monitor moisture levels. Real-time Data: This data is transmitted wirelessly, providing a live picture of each zone's water needs. Data-driven Automation: The system analyzes the sensor data and automatically adjusts watering schedules for each zone. This ensures plants receive the precise amount of water they need, avoiding over or under-watering. Remote Monitoring & Control: Farmers can access the system remotely through a mobile app or web interface. This allows them to monitor sensor readings, adjust settings if needed, and ensure optimal irrigation practices throughout their farm. This project aims to revolutionize irrigation by: Conserving Water: By providing the right amount of water at the right time, the system significant
01.02 What is the main problem you are trying to solve?
Traditional irrigation often wastes water due to fixed schedules or manual adjustments. This leads to overwatering, harming plants and wasting resources, or underwatering, reducing yields. Our project tackles this by using an automated drip irrigation system with IoT sensors. These sensors, strategically placed in the soil, constantly monitor moisture levels, providing real-time data for each zone. The system then analyzes this data and automatically adjusts watering schedules, ensuring plants receive the precise amount they need. This data-driven approach minimizes water waste, optimizes crop yields by ensuring optimal plant growth conditions, and promotes sustainable practices, aligning perfectly with the principles of a circular economy. Farmers benefit from remote monitoring and control capabilities through a mobile app or web interface, allowing them to adjust settings and ensure optimal irrigation practices across their entire farm.
01.03 Tell us the major benefits and/or advantages of using the product/service that your project intends to provide (at least 3).
Reduced Water Waste: Traditional methods often lead to overwatering or underwatering due to inaccurate estimations. This system uses real-time data to deliver the precise amount of water each zone needs, significantly minimizing water waste, a crucial resource in agriculture. Optimized Crop Yields: Precise watering based on real-time soil moisture ensures plants receive the optimal amount of water for healthy growth. This can potentially lead to increased crop yields and improved overall farm productivity. Enhanced Farm Management: Remote monitoring and control capabilities allow farmers to access sensor data, adjust watering schedules if needed, and ensure efficient irrigation practices across their entire farm from anywhere with an internet connection. This saves time and resources while promoting better decision-making for sustainable farming practices.
01.04 Please describe who exactly your project is aimed at serving. Who are the targeted beneficiaries?
A) Farmers: This system directly benefits SME farmers by: Reducing water costs: Minimizing water waste through precise irrigation lowers water usage bills and conserves a valuable resource. Boosting crop yields: Optimal watering based on real-time data can potentially lead to increased crop production and higher profits. Saving time and resources: Remote monitoring and control capabilities free up time spent manually monitoring fields and adjusting irrigation schedules. Promoting sustainable practices: The system aligns with sustainable agriculture principles by encouraging responsible water use and resource management. B) The Environment: By promoting water conservation, this project benefits the environment in several ways: Reduces pressure on freshwater resources: Minimizing water waste ensures more water is available for other uses and ecosystems. Minimizes water pollution: Reduced water runoff from overwatering helps protect water quality and prevent potential contamination.
01.05 When did you start working on your project?
2023-01-27
01.06 How many other partners are associated with your business venture?
2
01.07 Among the other partners, how many are female?
2
01.08 Please describe the profile of each of the other partners (skills, experience, etc.)
Helga, is a highly experienced and detail-oriented Web Developer with a proven track record of success in building and maintaining complex web applications. for over 2 years. Possesses strong analytical and problem-solving skills, coupled with a passion for creating user-friendly and efficient web experiences. Adept at collaborating with team members and stakeholders to ensure project goals are achieved on time and within budget. Her years of experiencehave equipped her with not only technical prowess but also exceptional communication and collaboration skills. Eliud, excels in IoT integration, bringing a meticulous and analytical approach. He tackles tasks efficiently with an unwavering work ethic. His precision ensures seamless connections between devices and systems. He's not just technical; his experience in project management and proven success with previous tech projects make him an efficient and reliable asset.
01.09 If you have a website, a social media page (Facebook, Instagram, Linkedin…), or app, please provide the link here:
01.10 Which industry best describes your project?
h) IT (digital services, equipment and software)
02.01.01 My project contributes to the No poverty goal
6
02.01.02 No poverty - Justification
This automated drip irrigation system with IoT sensors tackles water waste, a major challenge for small-scale farmers in developing countries. Traditional methods often lead to over or under-watering, impacting crop yields and income – a significant barrier to escaping poverty (SDG 1). Our system combats this by: Boosting Yields: Precise watering based on real-time data optimizes plant growth, potentially leading to increased crop production, which translates to higher income for farmers. Lowering Costs: Minimized water waste reduces water bills, a significant expense for many farmers. Additionally, by potentially increasing yields and reducing manual irrigation checks, the system can contribute to overall cost savings. Enhancing Food Security: Increased crop yields can improve food security in local communities by providing a more reliable and sustainable source of food production. This empowers farmers and reduces dependence on external food sources, promoting self-sufficiency.
02.02.01 My project contributes to the Zero hunger goal
7 - Strongly Agree
02.02.02 Zero hunger - Justification
Our project tackles these challenges head-on, promoting Zero Hunger through: Efficient Water Use: Real-time data ensures crops receive the exact amount of water needed, minimizing waste and maximizing the use of available water resources for irrigation. Increased Crop Yields: Precise watering based on soil moisture promotes healthy plant growth, potentially leading to significantly higher crop yields, translating to a more abundant food supply. Improved Food Security: By boosting local food production, the system contributes to improved food security in communities, reducing dependence on external food sources and promoting self-sufficiency. This project combats Zero Hunger by promoting water efficiency, optimizing crop production, and fostering sustainable food security within communities. It ensures a more reliable and abundant food supply, ultimately contributing to the fight against hunger and malnutrition
02.03.01 My project contributes to the Good health and well-being goal
5
02.03.02 Good health and well-being - Justification
Water quality and agricultural practices are intricately linked to human health. Our project contributes to SDG 3 by: Minimizing Water Pollution: Traditional methods can lead to water runoff carrying excess fertilizers or pesticides. Our system optimizes water use, potentially reducing runoff and promoting cleaner water sources. Encouraging Sustainable Agriculture: By promoting water efficiency, the project supports sustainable farming practices that may lessen reliance on potentially harmful chemicals, potentially contributing to a healthier food system. Improved Dietary Diversity: Increased crop yields can lead to a wider variety of locally grown fruits and vegetables, promoting a more diverse and nutritious diet within communities. This project contributes to Good Health and Well-being by promoting practices that could lead to cleaner water sources, potentially less reliance on harmful chemicals in agriculture, and potentially increased access to a wider variety of fresh produce.
02.04.01 My project contributes to the Quality education goal
5
02.04.02 Quality education - Justification
Our drip irrigation automation with IoT tackles quality education on multiple fronts. Schools can use it to make STEM fields like sensor tech and microcontroller programming engaging by allowing students to: Monitor soil moisture with sensors. Program controls based on data. Analyze irrigation for water conservation. This fosters understanding of sustainability and precision agriculture, while showcasing the power of technology for real-world problems. It can also inspire students to be innovative and entrepreneurial!
02.05.01 My project contributes to the Gender equality goal
6
02.05.02 Gender equality - Justification
Reduced Labor Burden: Traditionally, women often play a significant role in water collection and irrigation tasks. This system can potentially reduce the time and labor required for irrigation, freeing up women's time for other activities or income generation. Increased Decision-Making Power: By providing real-time data and remote monitoring capabilities, the system empowers farmers, potentially including women, to be more involved in decision-making regarding irrigation practices. Accessibility for Women: Ensure the technology and training associated with the system are accessible and user-friendly for women farmers. Land Ownership: In some regions, women may have limited land ownership rights. Consider partnerships or initiatives that address this issue to ensure women can benefit from the technology.
02.06.01 My project contributes to the Clean water and sanitation goal
6
02.06.02 Clean water and sanitation - Justification
Minimized Water Waste: Traditional irrigation methods often lead to overwatering, resulting in water runoff that can potentially carry pollutants or excess fertilizers. Our system tackles this by delivering the precise amount of water needed, significantly reducing water waste and potential water contamination. Improved Water Management: By optimizing water use, the system promotes responsible water management practices, a Indirect Impact on Sanitation: While not a direct focus, reduced water waste can contribute to alleviating pressure on freshwater resources, potentially impacting sanitation practices that rely on adequate water availability.
02.07.01 My project contributes to the Affordable and clean energy goal
5
02.07.02 Affordable and clean energy - Justification
Ensure the chosen power source aligns with the principles of SDG 7, such as solar panels. Reduced Reliance on Pump Irrigation: Some traditional irrigation methods rely on pumps that may require electricity. By optimizing water use and potentially minimizing the need for frequent watering, the system could lead to reduced reliance on pump irrigation, lowering energy consumption in some cases.
02.08.01 My project contributes to the Decent work and economic growth
6
02.08.02 Decent work and economic growth - Justification
Increased Efficiency & Productivity: By optimizing water use and potentially increasing crop yields, the system can lead to increased efficiency and productivity for farmers. Reduced Costs: Minimized water waste translates to lower water bills and potentially reduced labor costs associated with traditional irrigation methods. Improved Income Potential: Higher crop yields can lead to increased income for farmers, promoting economic growth within the agricultural sector. Decent Work Opportunities: The system may create new opportunities for jobs related to installation, maintenance, and training for the technology.
02.09.01 My project contributes to the Industry innovation and infrastructure
7 - Strongly Agree
02.09.02 Industry innovation and infrastructure - Justification
Our project tackles water waste and inefficiencies, directly contributing to Build resilient infrastructure, promote inclusive and sustainable industrialization and foster innovation (SDG 9). Here's how: Resilient Infrastructure: Optimizes water use, promoting a more resilient agricultural infrastructure less vulnerable to water scarcity. Sustainable Industrialization: Encourages sustainable practices in agriculture by reducing water waste and potentially leading to environmentally friendly farming methods. Innovation & Technology: The startup utilizes innovative IoT technology, fostering advancements in precision agriculture and data-driven irrigation practices. By promoting water efficiency, sustainable practices, and innovative technology adoption, this project contributes significantly to achieving the multifaceted goal.
02.10.01 My project contributes to the Reduced inequalities goal
5
02.10.02 Reduced inequalities - Justification
Increased Income Potential for Small-scale Farmers: By optimizing water use and potentially increasing crop yields, the system can empower small-scale farmers, particularly in developing countries, to generate higher income. This can help close the income gap between them and larger-scale farmers. Improved Food Security & Reduced Vulnerability: Increased crop yields can contribute to improved food security in local communities, especially in regions facing food insecurity. This empowers farmers and reduces their dependence on external food sources, promoting self-sufficiency and reducing vulnerability. Promoting Technology Access & Knowledge Sharing: The project can contribute to closing the technological gap by providing access to innovative irrigation practices for farmers in developing countries. Knowledge sharing and training programs can further bridge this gap and empower these farmers.
02.11.01 My project contributes to the Sustainable cities and communities goal
6
02.11.02 Sustainable cities and communities - Justification
Urban Agriculture: Adapting the system for use in rooftop gardens or vertical farming applications in cities could directly contribute to sustainable urban food production. Smart Irrigation for Green Spaces: The technology could potentially be adapted for use in managing irrigation for parks and green spaces within cities, promoting water efficiency in urban environments. In peri-urban areas, the system could promote sustainable food production practices closer to cities, potentially reducing pressure on transportation and promoting access to fresh local produce.
02.12.01 My project contributes to the Responsible consumption and production goal
6
02.12.02 Responsible consumption and production - Justification
Water Conservation: The function of the system is to optimize water use, minimizing waste and maximizing the efficiency of this valuable resource. This directly aligns with the circular economy principle of reducing resource consumption. Durability and Potential Longevity: If the system itself is designed and manufactured with durable materials and a focus on long lifespan, it contributes to the circular economy by reducing the need for frequent replacements and associated waste generation. Potential for Upcycling: Consider designing the system with modular components or easy upgrade paths. This allows for potential future upcycling or refurbishment of older systems instead of complete replacements, reducing overall e-waste. Data-Driven Decision Making: The real-time data collected by the IoT sensors can inform better decision-making regarding water usage and potentially other agricultural practices. This data-driven approach promotes resource optimization and minimizes waste.
02.13.01 My project contributes to the Climate action goal
7 - Strongly Agree
02.13.02 Climate action - Justification
The following are the ways in which our startup can contribute to this goal Water Conservation: By significantly reducing water waste in agriculture, a major water user globally, the project helps conserve freshwater resources. Climate change can exacerbate water scarcity, so this conservation effort is crucial. Reduced Energy Consumption: Traditional irrigation methods often rely on pumps that require electricity. Optimizing water use can potentially lead to reduced reliance on pumps, lowering overall energy consumption in some cases. This translates to potentially fewer greenhouse gas emissions from energy production. Improved Soil Health: By delivering the precise amount of water needed, the system can promote optimal soil moisture levels. Healthy soil acts as a carbon sink, storing carbon dioxide and mitigating its effects on climate change.
02.14.01 My project contributes to the Life below water goal
5
02.14.02 Life below water - Justification
Reduced Freshwater Demand on Ecosystems: By promoting water conservation in agriculture, the system can potentially reduce overall freshwater withdrawal from rivers and aquifers. This, in turn, can help maintain healthy freshwater flows that eventually reach the ocean, supporting coastal ecosystems. Potential for Future Applications: Consider exploring ways to adapt the technology for use in aquaculture (fish farming). An IoT-based system could optimize water management and resource use in fish farms, potentially contributing to more sustainable aquaculture practices.
02.15.01 My project contributes to the Life on land goal
6
02.15.02 Life on land - Justification
Combating Desertification: Minimizes water waste, conserving water resources in arid regions and helping prevent desertification and land degradation. Sustainable Land Management: Promotes efficient water use, a key component of sustainable land management practices that support healthy soil. Indirect Impact on Biodiversity: Improved water management and potentially healthier soil conditions can indirectly benefit biodiversity by creating a more favorable environment for plant and animal life. By promoting water conservation, sustainable land management practices, and potentially creating a more favorable environment for biodiversity, this project contributes significantly to achieving SDG 15.
02.16.01 My project contributes to the Peace justice and strong institutions goal
5
02.16.02 Peace justice and strong institutions - Justification
Resource Scarcity and Conflict: Water scarcity can be a contributing factor to tensions and conflicts in some regions. By promoting water conservation in agriculture, a major water user, the system can potentially help alleviate pressure on freshwater resources. This can be a small but positive step towards reducing competition for water, which can contribute to peace and stability. Economic Empowerment: Increased income potential for farmers through higher crop yields (as addressed in SDG 8) can contribute to greater social stability and economic justice within communities.
02.17.01 My project contributes to the Partnerships for the goal
5
02.17.02 Partnerships for the goal - Justification
Innovation for Sustainability: The project itself embodies the essence of SDG 17 by promoting technological innovation (IoT sensors) to address a sustainability challenge (water waste in agriculture). This innovation has the potential to be shared and replicated in other regions, fostering international cooperation for sustainable development. Public-Private Partnerships: If our project involves collaborations between private businesses (our startup), government agencies (agriculture departments), or international organizations (development NGOs), then it exemplifies a successful public-private partnership for sustainable development, a key aspect of SDG 17.
05.01 There are a large number of customers who already use a product/service very similar to the product/service we envision creating.
2
05.02 The product/service we envision creating represents an entirely new type of product/service.
3
05.03 The product/service we envision creating could be described as a new technology.
4
05.04 The product/service we envision creating is an improvement on an existing product or service.
6
05.05 The product/service we envision creating could be described as an extension of a range of products or services.
6
05.06 The product/service we envision creating responds to a demand or need that has not been satisfied by other products/services.
5
05.07 The product/service we envision creating is a new version of an old product/service.
5
05.08 Justification
Unmatched Precision: We're not just about automation; we're about intelligent irrigation. Imagine sensors that monitor soil moisture in real-time, delivering the exact amount of water needed for optimal plant growth. This eliminates guesswork and water waste, a common issue with traditional timers or manual methods. Remote Management at Your Fingertips: Forget about tedious trips to adjust sprinklers. Our system allows you to monitor and manage your irrigation remotely through a user-friendly app. This saves you valuable time and effort, letting you focus on other aspects of your farm. Data is Power: The data collected by our IoT sensors is more than just numbers. It's a treasure trove of insights that can help you make informed decisions about irrigation strategies, potentially improving crop yields and resource management. Adaptable to Your Needs: Our system isn't a one-size-fits-all solution. We offer scalability and customization to suit various farm sizes.
05.09 Who are your main potential competitors and what makes you stand out from them?
Established Irrigation System Manufacturers: These companies might already offer or be developing automation solutions integrated with their existing systems. Smart Home/Agriculture Startups: There could be startups focusing on automating various aspects of agriculture, including irrigation. DIY/Open-Source Solutions: There might be open-source projects or enthusiasts offering DIY automation solutions for drip irrigation. What makes me stand out is; Unique features: like Real-time monitoring Focus on a particular niche: That is small scale farmers or smallholder farmers and enterprises. User experience: Our system is easy and simple to navigate and use Cost-effectiveness Data and analytics
10.06 Are you initiating actions within your community to promote the role of female entrepreneurs?
I've been actively involved in promoting female entrepreneurs within my community. I participated in assisting "SheTechs the Future," with organizing a series of events designed to bridge the technology gap for aspiring businesswomen. These events offered workshops on relevant topics like social media marketing, e-commerce platforms, and essential business tools, empowering women with the skills they need to succeed. Panel discussions featuring successful female tech entrepreneurs provided inspiration, practical tips, and a platform for building a supportive network. Overall, "SheTechs the Future" fostered a community where women could learn, connect, and leverage technology to achieve their entrepreneurial dreams.
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