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Deep Learnig Project, Machine Learning Project
Malaria Disease Prediction System using Deep Learning with Flask App Project
Original price was: ₹2,499.00.₹799.00Current price is: ₹799.00.
The following contents are Downloadable immediately after the successful payment
Source Code
Flask App
Dataset
Trained M0del
Project Report (Both PDF and Word files)
PowerPoint Presentation (PPT)
Instructions to install the necessary Software and Libraries
Step-by-step instructions to execute the project
Project Description
Malaria is a serious illness. The root cause is insects that infect humans through the bite of female Anopheles mosquitoes. It can be cured if the right steps are taken. Microscopic diagnoses are poorly maintained and rely heavily on microscopist ability and knowledge. It is very common for microscopes to operate alone in low-cost settings, without a solid system in place that can guarantee the conservation of their capabilities and thus curable quality. This results in a wrong diagnostic conclusion in this area. Therefore, these facts have encouraged us to take up this building project. Diagnosis of Malaria through ML will benefit Health Care and assist in our studies as Machine Learning is a new benefit to the industry.
This final-year project is based on Malaria Disease Detection using Deep Learning. We have used MobileNet(150 CNN) and VGG16 to classify images. It was found that 150CNN provides better accuracy than VGG16 in our project. The model is first trained on the training set and then tested to classify the images as Parasitized or Uninfected.
In this project design and implementation of the deep neural networks, and learning are presented. We have used an approach and an algorithm to detect Malaria using Deep Learning. We have implemented an Artificial Neural Network and Convolution Neural Network used for the classification of the infected and uninfected images of blood samples.
This final-year project is based on Malaria Disease Detection using Deep Learning. We have used MobileNet(150 CNN) and VGG16 to classify images. It was found that 150CNN provides better accuracy than VGG16 in our project. The model is first trained on the training set and then tested to classify the images as Parasitized or Uninfected.
In this project design and implementation of the deep neural networks, and learning are presented. We have used an approach and an algorithm to detect Malaria using Deep Learning. We have implemented an Artificial Neural Network and Convolution Neural Network used for the classification of the infected and uninfected images of blood samples.
Video Demonstration of Malaria Disease Prediction System using Deep Learning with Flask App Project
Steps in Implementing Malaria Disease Prediction System using Deep Learning with Flask App Project:-
The following steps are involved in the Methodology of our model –
- Dataset Collection
- Data Preprocessing
- Data Augmentation
- Proposing and Implementing Model
Dataset Description:
The dataset consisted of 27,560 cell images with the same number of parasitized and uninfected cell instances. Positive instances accommodate Plasmodium and the negative instances contain no Plasmodium but other kinds of objects including staining artifacts/ impurities. We used randomized splitting to split the entire data in the ratio of 80:20 as training and testing data respectively.
Training | Testing | |
Parasitized | 11024 | 2756 |
Uninfected | 11024 | 2756 |
Total | 22048 | 5512 |
Technical Specification
Language: Python
Libraries: Keras, TensorFlow, NumPy
Deep Learning Models Used
For classification: MobileNet(150CNN) and VGG16
Installation of required software and libraries
1. Extract the downloaded project folder.
2. Follow the video and Install the TensorFlow and CUDA toolkit
https://youtu.be/b9e3J-NJ8TY
Important Note:
If TensorFlow is not running properly, downgrade the Numpy version to 1.26.4 using the below command
>> pip install numpy==1.26.4
3. Open the Anaconda prompt (search Anaconda prompt in the search menu) and change the directory to the project folder
example:
cd path-of-project-folder
example:
cd path-of-project-folder
4. Switch to tf environment (which was created at the time of installing the TensorFlow) using the following command
>>> conda activate tf5. In tf environment, Install Requirements using the following command
>>> pip install -r requirements.txt
>>> conda activate tf5. In tf environment, Install Requirements using the following command
>>> pip install -r requirements.txt
Follow the steps to train the model after installing the requirements.
1. Open the Anaconda prompt (search Anaconda prompt in the search menu) and change the directory to the project folder
example:
cd path-of-project-folder
2. Switch to tf environment (which was created at the time of installing the TensorFlow) using the following command
>>> conda activate tf
3. Open Jupyter Notebook using the following command
>> jupyter notebook
4. Once the Jupyter notebook is opened in the default browser, Open the Malaria_Detection.ipynb and run all the cells. Once the training is over the trained model will be saved in the Models directory with file name CNN_model.h5 and VGG16_model.h5
Follow the steps to run the project after installing the requirements and Training the Model.
1. Open the Anaconda prompt (search Anaconda prompt in the search menu) and change the directory to the project folder
example:
cd path-of-project-folder
2. Switch to tf environment (which was created at the time of installing the TensoFlow) using the following command
>>> conda activate tf
3. Run the following command to launch Flask Webapp
>>> python app.py
4. The app is running at
http://127.0.0.1:5000
Happy Learning
Still need help to set up and execute the project
- Setup and modification are paid services based on requirements.
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