Test the best random partition generated by non hierarchical community detection methods using Clus framework
This code is part of my doctoral research at PPG-CC/DC/UFSCar. Test Random Partitions + k-NN Sparsification + Non Hierarchical Comunity Detection Methods + Clus Classifier
@misc{Gatto2021, author = {Gatto, E. C.}, title = {Test Random Partitions using Communities Detection Methods for Multilabell Classification}, year = {2022}, publisher = {GitHub}, journal = {GitHub repository}, howpublished = {\url{https://github.com/cissagatto/TCP-Random-NH}}}
Click here to go to the cometa page
Click here to download
Click here to download
To use conda environment to run this experiment, please consult here
This source code consists of an R project for R Studio and the following R scripts:
- libraries.R
- utils.R
- validate.R
- testClus.R
- run.R
- tcp.R
This code is executed in X-fold cross-validation. First, you have to obtain the X-fold cross-validation files using this code. All the instructions to use the code are in the Github. After that, put the results generated in the Datasets folder in this project as "tar.gz".
Confirms if the folder utils contains the following files: Clus.jar, R_csv_2_arff.jar, and weka.jar, and also the folder lib with commons-math-1.0.jar, jgap.jar, weka.jar and Clus.jar. Without these jars, the code not runs.
A file called datasets_2022.csv must be in the root project folder. This file is used to read information about the datasets and they are used in the code. All 74 datasets available in Cometa are in this file. If you want to use another dataset, please, add the following information about the dataset in the file:
Id, Name, Domain, Labels, Instances, Attributes, Inputs, Labelsets, Single, Max freq, Card, Dens, MeanIR, Scumble, TCS, AttStart, AttEnd, LabelStart, LabelEnd, xn, yn, gridn
The Id of the dataset is a mandatory parameter in the command line to run all code. The fields are used in a lot of internal functions. Please, make sure that this information is available before running the code. xn and yn correspond to a dimension of the quadrangular map for kohonen, and gridn is (xn * yn). Example: xn = 4, yn = 4, gridn = 16.
To run this code you will need the partitions generated from this code. Please, read the instructions there.
This code was develop in RStudio Version 1.4.1106 © 2009-2021 RStudio, PBC "Tiger Daylily" (2389bc24, 2021-02-11) for Ubuntu Bionic Mozilla/5.0 (X11; Linux x86_64) AppleWebKit/537.36 (KHTML, like Gecko) QtWebEngine/5.12.8 Chrome/69.0.3497.128 Safari/537.36. The R Language version was: R version 4.1.0 (2021-05-18) -- "Camp Pontanezen" Copyright (C) 2021 The R Foundation for Statistical Computing Platform: x86_64-pc-linux-gnu (64-bit).
Please, make sure all the dependencies are installed (verify libraries.R). This code does not provide any installation of the packages.
This code may or may not be executed in parallel, however, it is highly recommended that you run it in parallel. The number of cores can be configured via the command line (number_cores). If number_cores = 1 the code will run sequentially. In our experiments, we used 10 cores. For reproducibility, we recommend that you also use ten cores. This code was tested with the birds dataset in the following machine:
System:
Host: bionote | Kernel: 5.8.0-53-generic | x86_64 bits: 64 | Desktop: Gnome 3.36.7 | Distro: Ubuntu 20.04.2 LTS (Focal Fossa)
CPU:
Topology: 6-Core | model: Intel Core i7-10750H | bits: 64 | type: MT MCP | L2 cache: 12.0 MiB | Speed: 800 MHz | min/max: 800/5000 MHz Core speeds (MHz): | 1: 800 | 2: 800 | 3: 800 | 4: 800 | 5: 800 | 6: 800 | 7: 800 | 8: 800 | 9: 800 | 10: 800 | 11: 800 | 12: 800 |
Then the experiment was executed in a cluster at UFSCar.
Important: we used the CLUS classifier in this experiment. This implies generating all physical ARFF training, validating, and testing files. Our code generates the files first in RAM and then saves them to the HD. However, to avoid memory problems, immediately after saving to HD, the files are validated (or tested) and then deleted. Even so, make sure you have enough space on your HD and RAM for this procedure.
To run the code, open the terminal, enter the /TCP-TR-H/R/ folder, and type
Rscript tcp.R [number_dataset] [number_cores] [number_folds] [similarity] [name_folder_results]
Where:
number_dataset is the dataset number in the datasets.csv file
number_cores is the total cores you want to use in parallel execution.
number_folds is the number of folds you want for cross-validation
similarity is similarity measure that were used to build the graph
name_folders_results is the name of the folder to save the results
All parameters are mandatory. Example:
Rscript tcp.R 17 5 10 "Jaccard" "/dev/shm/results/"
This will execute the code for the dataset number 17 in the dataset.csv, with 5 cores, 10 folds and the process will be store in the /dev/shm/results/. This code automatically makes a copy of the /dev/shm/results in the folder Reports - which is in the root of the project. In this way, you can run the code using a temporary folder, like scratch and shm, to speed up the execution.
The results are store in the Reports folder
Click here to watch a video that demonstrate how to run this code
- This study was financed in part by the Coordenação de Aperfeiçoamento de Pessoal de Nível Superior - Brasil (CAPES) - Finance Code 001.
- This study was financed in part by the Conselho Nacional de Desenvolvimento Científico e Tecnológico - Brasil (CNPQ) - Process number 200371/2022-3.
- The authors also thank the Brazilian research agencies FAPESP financial support.
| Site | Post-Graduate Program in Computer Science | Computer Department | Biomal | CNPQ | Ku Leuven | Embarcados | Read Prensa | Linkedin Company | Linkedin Profile | Instagram | Facebook | Twitter | Twitch | Youtube |