Introduction The purpose of this guide is to provide information about the Challenge. It includes details of what the Challenge is about and some ideas to get you started. Preparing an entry will involve learning about some of the challenges facing society and also about how science and technology can help to address these. Also included are details of how to enter, judging criteria to show what the judges are looking for, and some tips on how to prepare a good entry. The Importance of Agriculture Agriculture is crucial in every part of the world; without it, we would not have food on our plates, biofuels or natural fibres for clothing. However, the world’s population is growing and producing enough food to feed everyone, while protecting the environment, is one of the biggest challenges facing humanity. Scientists and engineers have a major role to play in meeting this challenge and today’s students are crucial to the development of future solutions. Syngenta has developed The Good Growth Plan to work together with partners to try and address these challenges: to produce more food with less waste, to increase biodiversity with less degradation, and to improve the lives of farmers. And we need your help! By taking part in this challenge, you will get experience in developing real-life applications of technology as well as developing the skills and innovative thinking that are relevant to a range of engineering and science careers. The Challenges and some ideas to get you started… Your Challenge is to design an innovation that uses digital technology to address one of the themes of The Good Growth Plan 1. Make crops more efficient To feed its growing population, the world will have to grow more food in the next 50 years than it has produced in the past 10,000. To be sustainable, the huge increase in production must be achieved while using resources more efficiently. The challenge will be even greater if climate change continues to disrupt temperature and weather patterns. Possible starting point: Irrigation Managing water is an important component of growing crops. One low tech example to measure water depth in rice fields is to use wide vertical pipes called pani pipes. Could this be improved with digital technology? Could a system be developed that could measure the water level in the pipe? What outputs could a system control to ensure the plant gets the right amount of water to allow it to grow well? http://www.knowledgebank.irri.org/training/factsheets/water-management/saving-water-alternatewetting-drying-awd High tech inspiration Orchard protection The Semios is a sensor for orchards that detects soil moisture, leaf wetness and the presence of pests to predict threats to crops. Data is processed and outputs can include informing the farmer of conditions, controlling irrigation or releasing pheromones to disrupt the mating of pests. The system is also linked to weather monitoring and can provide advanced warning to changing conditions that will need action from farmers. http://semios.com/ 2. Rescue more farmland Every second, the world loses an area of farmland the size of a football field to soil erosion, desertification and urban expansion. Poor farming practices expose soil to wind and rain erosion, leaving millions of hectares infertile each year. An area large enough to feed Europe is too depleted to produce food. Possible starting point: Soil Soil is incredibly important, without it we couldn’t grow the food we need to live. But it’s at risk from many different threats; wind, rain and flooding can cause soil to be lost (eroded) and if soil is compacted, rainwater will flow over the surface, taking soil particles with it. It will also mean that plant roots will not be able to move down through the soil and the crops will be stunted. Could something be developed that can help the farmer understand the condition of their soil? High tech inspiration Robotic monitoring of soil conditions Robots find it difficult to move over farmland if they have wheels or legs, but this robot designed like a hamster ball could solve that problem. This robot was developed by the Technical University of Madrid and enables the soil conditions to be monitored and can report back, telling the farmer, for example, if more fertiliser is required. http://www.bbc.co.uk/news/technology-23030082 3. Help biodiversity flourish The sustainability of agriculture depends on biodiversity. More than a third of the world’s agricultural crops depend on pollination, but pollinator populations have been falling in many countries. Changing agricultural practices have altered rural landscapes and natural habitats. Expanding the use of land for crops can reduce forests, meadows and hedgerows that provide food and shelter for flora and fauna that make a sustainable agricultural landscape. Possible starting point: Biodiversity Monitoring Biodiversity is critical to a healthy farm. Beneficial insects are needed for pollination and to help manage pests. Motion–triggered cameras have been used to detect large wildlife, but could something be developed to detect smaller biodiversity? Perhaps using sensors and imaging equipment? You would need to think about the type of animal you are trying to detect, how and when it moves and whether a record is needed or a response required. High tech inspiration Tracking Honey Bees The Global Initiative for Honey Bee Health (GIHH) and Australia’s Commonwealth Scientific and Industrial Research Organisation (CSIRO) are using Internet of Things technology to capture and analyse data produced by honey bees. The aim is to identify the cause of the decline in honey bee numbers. A micro senor kit is placed inside the hive and tiny Radio Frequency Identification (RFI) tags are placed on the bees’ backs to help scientists understand movement and the bees’ responses to stresses. https://iq.intel.com/tiny-technology-helps-save-the-honey-bees/ 4. Empower smallholders Over 2.5 billion people depend on agriculture for their livelihoods. Smallholder farmers are critical to the world’s food security, but they often face high financial risks with low returns. Every day, 180,000 people leave rural communities to live in cities. Ensuring that farming is an attractive occupation will help to create vibrant, productive rural communities. Possible starting point: Crop Storage A successful harvest is not the end of the story, smallholder farmers can lose some of their crops or the quality of their produce could be affected due to poor storage conditions. Food can be damaged and wasted during storage and transportation as high humidity and temperatures can spoil crops. Is there a way to measure the conditions in the store and alter them to prevent spoilage? High tech inspiration Supporting Smallholders in Kenya The Haller Farmers App, is a new application for smallholders in Kenya. The app contains basic information and sustainable agriculture techniques for smallholder farmers. It offers training opportunities and local trader advertising as well as providing a platform to empower farmers to buy and sell the goods they produce. http://haller.org.uk/haller-app/ 5. Help people stay safe Agriculture is the world’s second largest source of employment, often involving long hours and heavy work in challenging climates and harsh conditions. We have a responsibility to help improve occupational safety and health in agriculture. 6. Look after every worker We recognise a responsibility to ensure our supply chain meets internationally acceptable standards. If the agricultural sector does not offer fair and attractive conditions for its workers, population drift from rural communities to cities will steadily undermine efforts to increase agricultural production. Possible starting point: Farm Safety Like many places of work, a farm can be a dangerous place. Could an innovation be developed that can help keep people safe on the farm – either the people working there, their families or other visitors? It could be, for example, something that manages the movement of traffic in the farm yard, such as automatic gate closers or warnings when gates are not closed properly. http://www.nfuonline.com/business/farm-safety/farm-safety-partnership/ High tech inspiration Nozzle technology The design of advanced nozzles for spray application has enabled crop protection products to be applied more accurately and safely. Adjustments to the nozzle can result in different angles, speed and droplet sizes so that more of the product goes onto the crop and less of the spray is able to drift into non-target areas. 3D printers are used to quickly produce prototypes for testing. http://www.fwi.co.uk/arable/syngenta-3d-nozzle-targetsweeds-and-tackles-drift.htm A plant as a machine Another source of inspiration is to think of a plant like a machine. It takes in inputs (light, nutrients, water, CO2) carries out a process (photosynthesis) and produces outputs (carbohydrates for growth and oxygen). As well as altering the inputs, there are other factors that can help (or hinder) a plant’s growth: There are physical things we can do to improve growing conditions: for example growing them in a greenhouse or using a windbreak. But sometimes steps need to be more responsive; so instead of a set feature, inputs need to be monitored and controlled. Digital systems can detect all of the factors in the illustration above. For example, a light sensor can measure the intensity of light and how many hours a day light lands on the plant. A system can then be used to control an output such as switching on additional lighting. A system could also be used to test conditions, such as soil drainage or the presence of particular nutrients. The Technology It is up to your team to decide the best technology for your project. It could be a pocket sized computer such as a Raspberry Pi, Arduino or a BBC Micro:bit; alternatively a PC, Mac or an app might be used. Whatever technology you end up using, it is important you can apply an ‘input – process – output’ approach. An Input - Process - Output Example We know that plants need water; however, if there is too much water they may become waterlogged and die. A system could be designed to detect when the soil is drying out and then supply more water. The input would be the moisture of the soil, the process would detect the level of moisture and, if it’s too low, to signal an output, such as turning on a water supply. This is represented in the diagram below; the arrows represent the flow of information. Moisture detector Input Control circuit Process Water supply Output Other examples of the ‘Input-Process-Output’ approach are shown below: Input Data entered by the user. Information from a sensor – e.g. rainfall, temperature, GPS location. Could be information from other devices. Information from a database (online or offline). Processing Taking input(s) and converting into a format for output. Combining inputs from multiple sources. Output Action – e.g. turn on a light, play a sound, turn on a tap, drive a motor. Display a message. Send an email. Post to social media. There’s no reason why a system should only have single inputs and outputs. For example, the vents on a greenhouse might need to be closed if the temperature falls or if it gets too windy. The Judging Criteria Entries will be judged by a panel of experts drawn from the spheres of agricultural science, digital technology and education. The judges will consider both the written submission and the video when judging and each of the criteria will have equal weighting: 1. The project should be based on a need that is relevant to The Good Growth Plan. It should address one or more of the areas of productivity, biodiversity, soils and safety. (20 marks) 2. The project should demonstrate originality and creativity in the development of a solution. (20 marks) How has the project developed from its inception to the finished product? How is the invention better than current solutions on the market? 3. The solution should be developed in a logical way, including the selection of hardware, use of software, role of programming and testing of the product. (20 marks) Are there well thought out reasons behind the technology you have chosen for the project? How is the technology chosen better/more appropriate than other tech available? 4. Both the process and the outcome should be clearly and thoroughly evaluated. (20 marks) How effectively does the solution address the problem? Have you considered how easily the solution could be used on a real farm? 5. Key features of both the process and the outcome should be clearly and effectively communicated. (20 marks) The video and entry form should be where you ‘show their working’; make sure your ideas are clearly communicated. The Submission Process To be eligible to make an entry, students should be under 14 or in the academic year in which they turned 14 Entries can be made by groups of up to five students: Entries are admissible from individual students; these will be judged alongside entries from groups. Entries may have had the involvement of a larger group; however up to five students need to be named as leading and coordinating. Each submission should consist of: A written submission form (no more than 1500 words). A video pitch (up to three minutes in length). A registration form (to be completed by your teacher/tutor). You can download the written submission form from: www.farmtechchallenge.co.uk Remember to give each question consideration, don’t use up all your words on one question. You will also have to prepare a video pitch for your invention (think Dragon’s Den or The Apprentice). Your video should tell the judges the key things they need to know about your invention. Things to include are: a. Introduce the team name and school b. Why did you create your invention, what is the problem/challenge/need? c. Demonstrate your invention or prototype, how does it work? d. Where could it be used? What difference would it make? Although the judges will be evaluating both the written submission and video pitch together, it is important that each one makes sense when viewed in isolation. You should send your submissions to [email protected] Hints and Tips for Submissions The judging criteria are essential – consider these carefully. These are what the judges will use to score the projects. Here are some other ideas that might be helpful. 1. Think about how the project is relevant to The Good Growth Plan. Your project can address one or more of the themes but it doesn’t have to address everything. Doing one thing well is better than doing many things poorly. 2. There are no prizes for complicating things; in fact, simpler is often better. This is particularly true if the invention would have to work in inhospitable conditions, be sold to people who don’t have much money or work in parts of the world where technical support is limited. 3. The team can have up to five people in it. All the projects will be directly compared with others; no allowances are made for the size of the group. Selecting the team is important: it needs to cover the full range of skills needed. 4. Good projects build on other people’s ideas but don’t copy them, remember judges will be checking entries and undertaking online research. 5. The judges are interested in both how the team went about it and what you came up with. 6. Remember that one of the criteria relates to clarity of communication. However good the project is, it needs to be explained well. All the judges will know of the project is what is in the submission. A good idea is to show the completed submission to someone who knows nothing about the project, give them the judging criteria and see what they think. 7. Avoid being too descriptive; avoid trivial detail. It’s better to focus on how the solution was developed and why it’s effective. 8. Diagrams are a good way of explaining things. Flow charts and block diagrams don’t use many words but convey meaning well. 9. When it comes to the video pitch there are no marks for gimmicky extras. However it is worth getting the production basics right. Make sure the subject is well lit and that the sound quality is good. Avoid jerky hand held shots and crash zooms (it isn’t a music video). 10. Every project has to overcome problems. Don’t ignore these, but explain how they were solved. This is a good way of convincing the judges that the team is great at problem solving. Using Social Media Social media channels like Twitter, Facebook and YouTube are a great way to keep up to date with news regarding the Farm Tech Challenge.* The Farm Tech Challenge team will be posting regular updates, useful links and videos through our Twitter, Facebook and YouTube accounts. You can follow us and join the conversation at… Farm Tech Challenge UK @FarmTechUK Farm Tech Challenge UK Don’t forget to use #FarmTechUK in all your posts. *You must abide by school and site rules regarding access and use of particular sites. For example, Twitter and Facebook require everyone to be at least 13 years old before they can create an account. More information on The Good Growth Plan can be found at: www.goodgrowthplan.com More high tech examples can be found at the Farm Tech Challenge Facebook: Farm Tech Challenge UK and Twitter: @FarmTechUK pages. About Syngenta: Syngenta is a leading agricultural company helping to improve global food security by enabling millions of farmers to make better use of available resources. Through world class science and innovative crop solutions, our 28,000 people in over 90 countries are working to transform how crops are grown. We are committed to rescuing land from degradation, enhancing biodiversity and revitalizing rural communities. To learn more visit www.syngenta.com and www.goodgrowthplan.com
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