Repository logo
Communities & Collections
Research Outputs
Fundings & Projects
People
Statistics
New user? Click here to register.Have you forgotten your password?
  1. Home
  2. KMITL
  3. Publication
  4. Mushroom spawn quality classification with machine learning
Loading...
Thumbnail Image

Mushroom spawn quality classification with machine learning

Author(s)
Tongcham, Phongsakhon
Supa, Pichaya
Pornwongthong, Peerapong
Prasitmeeboon, Pitcha
Date Issued
December 1, 2020
Type
Article
DOI
10.1016/j.compag.2020.105865
Abstract
During spawn incubation in mushroom cultivation, spawns can be contaminated by a variety of pests and pathogenic molds, which cause virulent crop damage. Contaminated spawns must be classified and discarded before they are delivered to the fruiting stage. In most mushroom farms, humans visually classify spawn, which is labor-intensive and susceptible to human errors. To solve this problem, we designed a machine learning algorithm to classify oyster mushroom (Pleurotus ostreatus) spawns. Spawn samples were collected from a farm in Thailand. Sample regions of interest of spawns, in polypropylene polypropylene bags, were extracted and filtered to reduce noise. Trivariate histograms of these regions were used as a feature. We analyzed the effects of two techniques, including feature scaling and feature compression, using principal components analysis (PCA) in a pre-processing step. We measured performance of five machine learning classifiers: support vector machines (SVMs), nearest centroid classifier (NCC), k-nearest neighbor (KNN), deep neural network (DNN) and decision trees. Parameters of the methods were optimized and overall performances were compared. Although the number samples obtained was limited and unbalanced, a 4-fold cross validation showed that the DNN classifier had the highest accuracy at 98.8%, with residual variance of 2.5%. Thus, our algorithm can be effectively used to create a model for further application in an embedded system for mushroom spawn classification.
Citation
Computers and Electronics in Agriculture, 179, 2020
Subjects

Agricultural automati...

Bag culture

Machine learning

Oyster mushroom

Spawn classification

Metrics
Get Involved!
  • Source Code
  • Documentation
  • Slack Channel
Make it your own

DSpace-CRIS can be extensively configured to meet your needs. Decide which information need to be collected and available with fine-grained security. Start updating the theme to match your Institution's web identity.

Need professional help?

The original creators of DSpace-CRIS at 4Science can take your project to the next level, get in touch!

Built with DSpace-CRIS software - Extension maintained and optimized by 4Science

  • Accessibility settings
  • Privacy policy
  • End User Agreement
  • Send Feedback