Once you’ve completed your project and analyzed your data, you’re ready to reach a conclusion. By this point you probably have a sense of the results of your project, but now you can formalize the answer that emerges from your research.

It’s highly likely that you learned many things from your project. All of these things are important, but at this point you must focus your attention on results directly tied to your initial hypothesis or objective.

  • For an experimental project, did your data support your hypothesis?
  • For an engineering project, did your invention succeed in its task, based on your criteria for success?
  • For an observational project, did you learn new things that can inform your production or marketing practices in the future?

To get to these answers, you’ll need to assemble the results of your data analysis, expressed in terms of these questions. 

A woman holding a pitchfork towards the ground in front of solar panels outside
An urban nonprofit in Denver did an agricultural research project to evaluate crop production strategies between solar panel rows on their 3-acre solar farm. While their research remains ongoing, they’re learning that some cool-season crops thrive in the shaded microclimate and require less irrigation, while pest pressure and labor are challenges that still need to be addressed. Photo by Cliff Grassmick, Sprout City Farms (SARE grant FW23-413)

Assignment

  1. As it’s appropriate for the type of analysis you performed, create a quantitative statement of your findings. Make sure it’s clear and concise.

Example for an observational study, where the goal is to determine attitudes of local Generation Z farm children toward regenerative agriculture: Approximately 75% of surveys sent were completed and returned. Of these respondents, 58% hoped to return to the farm and take over operations. Of these, 85% expressed the intention to significantly depart from their parents’ management strategies to become more regenerative and sustainable.

Example for an experimental project, comparing two feed supplements for laying hens to increase the concentration of omega-3 in eggs: The eggs from the hens fed supplement A had 0.34g of omega-3 per 100g of egg. The eggs from hens fed supplement B had 0.72g of omega-3 per 100g of egg. The control had 0.27g of omega-3 per 100g of egg. Thus, while both supplements did increase the omega-3 content of our eggs, supplement B almost tripled it compared to the control, whereas supplement A only offered a modest increase.

Example for an engineering project, designing an AI-powered sensor to detect the presence of a canine animal in a sheep enclosure: The goal was to detect the presence of a dog within 10 minutes of arrival in the pen at least 60% of the time. When the prototype was tested by introducing dogs to the enclosure, it achieved detection within 10 minutes only 43% of the time with one farm dog, but 49% with the other.

  1. State whether or not you supported your hypothesis, achieved your purpose, or met your criteria for success.
  1. Revisit the question you set out to answer in Lessons 1 and 2. Clearly state what your results mean in terms of your initial question and project objective.
  1. Discuss how this finding is directly important to sustainable agriculture. How might other farmers or ranchers utilize what you’ve learned?
  1. If the results of your analysis didn’t show exactly what you expected, why not? Please describe what you learned from the unexpected outcome.
  1. Describe further research that could build on the knowledge you’ve gained.
  1. What advice would you have for someone undertaking a similar project?

Assignment Self-Evaluation

  1. Are your statements supported by the data and analysis?
  1. What new questions arose during the project?
  1. If you could redo the project, what would you do differently?