Nourish360

Our vision is to create one staple food, one crop, that can cover all necessary micro and macro nutrients needed to sustain a healthy tife, and avoid the millions of deaths caused by malnourishment.

About Us

What is Our Mission?

Malnourishment is a serious issue that leads to a wide range of negative effects in people's lives. Not only physically. Living in a place where need obtaining food and performing agricultural duties are the main priorities is limiting and stressful. The population doesn't get educated. The people don’t have as much time as the person reading this article does to pursue their interests and develop themselves. In some locations, getting food will be the citizen’s first priority. Yet we still ponder on how these areas are less developed.


At Nourish360, our goal is to develop one crop with the necessary amount of nutrients to support a population. At Nourish360, our goal is to create an effective, scalable, and sustainable solution to malnourishment. Using safe crossbreeding and genetic engineering techniques, we are working to develop a strain of crop and grain packed with all the necessary nutrients for a balanced and healthy lifestyle. This crop will primarily serve to support malnourished communities. Currently, our focus is sub-Saharan Africa, but we are hopeful to expand to other regions of the world.

How will Nourish350 Improve Sustainability?

1. Reduce the use of pesticides and herbicides: By engineering plants to be resistant to pests and diseases, it is possible to reduce the amount of pesticides and herbicides used in farming. This can help reduce the negative impact of these chemicals on the environment.

2. Improve soil health: By engineering plants to have more efficient nutrient uptake or to produce their own nutrients, it is possible to improve soil health and reduce the need for synthetic fertilizers.

3. Reduce water usage: By engineering plants to be more drought-resistant, it is possible to reduce the amount of water needed for irrigation, which can help conserve water resources.

4. Increase crop yields: By engineering plants to have higher yields, it is possible to reduce the amount of land needed for farming, which can help preserve natural habitats and reduce deforestation.

What's Next?

What do we hope to achieve?

In less developed countries that often face higher rates of malnourishment, monoculture crop farming proves to be simpler and more efficient. Monoculture farming involves growing one kind of crop, which involves less experience, effort, and resources than polyculture which deals with many sorts of plants. In line with the United Nation's 2nd Sustainable Development goal, we are hoping to decrease the effects of malnourishment with our sustainable techology. Our solution will give farmers a hardier crop, and surrounding people the nutrients they need to live a healthy lifestyle.

How will we go about doing so?

The process would work as follows:

Identify the genes responsible for the biosynthesis of the desired vitamin: Scientists would need to identify the genes that encode the enzymes involved in the particular biosynthesis. These genes are typically found in other organisms, such as bacteria or plants, that produce the desired nutrient.

Isolate the genes: Once the genes have been identified, they would need to be isolated and cloned into a vector, such as a plasmid, which can be used to transfer the genes into the quinoa plant.

Introduce the genes into the quinoa plant: The vector containing the biotin biosynthesis genes would then be introduced into the quinoa plant using a variety of techniques, such as Agrobacterium-mediated transformation or biolistics. These techniques involve introducing the vector into the plant cells and allowing it to integrate into the plant genome.

Screen for the desired nutrient production: Once the genes have been integrated into the quinoa genome, scientists would need to screen the plants for biotin production. This can be done by measuring the levels of biotin in the plant tissues using various biochemical assays.

Select and breed the modified plants: Once the desired nutrient-producing plants have been identified, they can be selected and bred to produce more plants with the desired trait. This can be done through conventional breeding methods, such as crossing the modified plants with other high-yielding quinoa varieties.

Team

Roma Jasmin Patel

Jovana Urošević

Olivia Avalos Villar