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Video-Classification

In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM

List of movements that this program could recognize:

  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf

List of objects that this program could recognize:

  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka

** Note : All video are taken using Handphone camera with 720x1280 resolution

Sum of videos each class:

Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:

  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack. ** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.

Result:

Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About

In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM

Resources

Readme
Activity

Stars

2 stars

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1 watching

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1 fork
Report repository

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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
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Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
BranchesTags
Repository files navigation
Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
BranchesTags
Repository files navigation
Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

, 'i');
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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
BranchesTags
Repository files navigation
Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

, 'i');
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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
BranchesTags
Repository files navigation
Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
Skip to content
BranchesTags
Repository files navigation
Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

About
In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
Resources
Readme
Activity
Stars
2 stars
Watchers
1 watching
Forks
1 fork
Report repository
Releases
Packages
Contributors
Languages

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GitHub - nandiya/Video-Classification: In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM · GitHub
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Video-Classification
In this project, I try to make program that could classify object in video using CNN and try to classify movement using CNN+LSTM
List of movements that this program could recognize:
  • TAKE == Taking an object from shelf
  • CHECK == Checking an object or nothing from shelf
  • RETURN == Taking and then Returning an object (the same object) to shelf
List of objects that this program could recognize:
  • Candy - Chips - Nothing - Sponge
  • Cocacola - Javana - Oreo - Sprite
  • Chocopie - Nextar - Pokka
** Note : All video are taken using Handphone camera with 720x1280 resolution
Sum of videos each class:
Take = 205
CHECK = 221
TAKEBACK = 225 +

Total 651
Chips = 48
Cocacola = 96
Chocopie = 41
Candy = 16
Javana = 97
Nothing = 75
Nextar = 21
Pokka = 82
Oreo = 62
Sponge = 43 Sprite = 70 +
--------------------------
Total 651

How to do the same classification:
  1. Run Vid2frame.py. This code will turn generate every video in dataset you have into frames
  2. Split every frames folder into training datasets and testing datasets. Since i have unbalanced dataset for my object recognition i pick random video for each class in obejct recognition (If i use train test split, there's a chance where not all classes will be in training or testing datasets.
  3. Run Temporal Preporcessing.py and Spatial preprocessing.py. the code for spatial preprocessing is quite similar with temporal preprocessing. You just have to change some codes in temporal preprocessing.py to do spatial preprocessing. Temporal preprocessing is used for making matrix of optical flow for each video. While spatial preprocessing is used for making matrix of frames by stacking 10 frames into one stack.
** Note: with limited GPU resource that I have, I have to process dataset per each class.
  4. Run Training Movement.py and Training Object.py.
  5. Model and weights that you get from running training movement. py and training object.py can be used to predict the video datasets in testing data. Before predicting testing data, you have to do the same preprocessing in step to for testing data. You just have to change the location in source code of temporal preprocessing.py and spatial preprocessing. py into your testing data location.
Result:
Movement Recognition : 76.92 % by succesfully predicting 150 of 195 videos.
Object Recognition : 55.90 % by succesfully predicting 109 of 195 videos.

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In this project, I try to classify object in video using CNN and try to classift movement using CNN+LSTM
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