PRE2019 3 Group14: Difference between revisions

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== State-of-the-art ==
== State-of-the-art ==
Artificial neural networks have been incorporated in the agriculture sector many times due to its advantages over traditional systems. The main benefit of neural networks is they can predict and forecast on the base of parallel reasoning. Instead of thoroughly programming, neural networks can be trained[https://www.sciencedirect.com/science/article/pii/S2589721719300182]. For example: to differentiate weeds from the crops[https://elibrary.asabe.org/abstract.asp?aid=7425], for forecasting water resources variables[https://www.sciencedirect.com/science/article/pii/S1364815299000079] and to predict the nutrition level in the crops[https://ieeexplore.ieee.org/abstract/document/1488826].
In this project, we focus on a deep learning system.  


In this project, we focus on a deep learning system.
Artificial neural networks and deep learning have been incorporated in the agriculture sector many times due to its advantages over traditional systems. The main benefit of neural networks is they can predict and forecast on the base of parallel reasoning. Instead of thoroughly programming, neural networks can be trained[https://www.sciencedirect.com/science/article/pii/S2589721719300182]. For example: to differentiate weeds from the crops[https://elibrary.asabe.org/abstract.asp?aid=7425], for forecasting water resources variables[https://www.sciencedirect.com/science/article/pii/S1364815299000079] and to predict the nutrition level in the crops[https://ieeexplore.ieee.org/abstract/document/1488826].
 
It is difficult for humans to identify the exact type of fruit disease which occurs on the fruit of plant. Thus, in order to identify the fruit diseases accurately, the use of image processing and machine learning techniques can be helpful[http://www.ijirset.com/upload/2019/january/61_Surveying_NEW.pdf]. Deep learning image recognition has been used to track the growth of mango fruit. A dataset containing pictures of diseased mangos has been created and was fed to a neural network. Transfer learning technique is used to train a profound Convolutionary Neural Network (CNN) to recognize diseases and abnormalities during the growth of the mango fruit[https://www.ijrte.org/wp-content/uploads/papers/v8i3s3/C10301183S319.pdf].


== Approach ==
== Approach ==

Revision as of 18:31, 6 February 2020

Team Members

Sven de Clippelaar 1233466

Willem Menu 1260537

Rick van Bellen 1244767

Rik Koenen 1326384

Beau Verspagen 1361198

Subject:

Sven

Objectives

Beau

Users

The main users that will benefit from this project are keepers of apple orchards, who will be able to divide task more efficiently. The farmers that work at the orchard also benefit from the application, since it will tell them where to go, such that they do not have to look for bad apples themselves.

State-of-the-art

In this project, we focus on a deep learning system.

Artificial neural networks and deep learning have been incorporated in the agriculture sector many times due to its advantages over traditional systems. The main benefit of neural networks is they can predict and forecast on the base of parallel reasoning. Instead of thoroughly programming, neural networks can be trained[1]. For example: to differentiate weeds from the crops[2], for forecasting water resources variables[3] and to predict the nutrition level in the crops[4].

It is difficult for humans to identify the exact type of fruit disease which occurs on the fruit of plant. Thus, in order to identify the fruit diseases accurately, the use of image processing and machine learning techniques can be helpful[5]. Deep learning image recognition has been used to track the growth of mango fruit. A dataset containing pictures of diseased mangos has been created and was fed to a neural network. Transfer learning technique is used to train a profound Convolutionary Neural Network (CNN) to recognize diseases and abnormalities during the growth of the mango fruit[6].

Approach

Willem

Planning:

Week 2

Create datasets

Preliminary design of app

First version of neural network

Reseach everything necessary for the wiki

Update the wiki

Week 3

Find more data if necessary

Coding of app

Improve accuracy of neural network

Edit wiki to stay up to date

Get information about possible robot

Setup of Raspberry Pi

Week 4

Finish map of user interface

Go to orchard for interview

Implement user wishes into the rest of the design

Week 5

Highest priority functions of the user interface are present

Week 6

Reflect on application by doing user tests

Reflect on whether the application conforms to the USE aspects

Week 7

Implement user feedback in the application

Week 8

Finish things that took longer than expected

Milestones

Rick

Deliverables

  • A system prototype that is able to recognize ripe apples out of a dataset containing unripe apples and apples with diseases for orchard farmers.
  • The wiki page containing all information regarding the project.
  • A presentation about the product

Who will do what?

Image recognition with CNN: Rick and Rik

User Interface (app or desktop application): Beau and Willem

Hardware: Sven and Willem

References