As Neuro rehabilitation is a complex medical process designed to help to treat patients with neurological diseases, therefore the aim of the project is to reduce the complexity of system. Rehabilitation aims to increase function, reduce debilitating symptoms, and improve a patient?s quality of life.
Design and Progession Analysis of Neuro Rehabilitation System using Machine Learning
As Neuro rehabilitation is a complex medical process designed to help to treat patients with neurological diseases, therefore the aim of the project is to reduce the complexity of system. Rehabilitation aims to increase function, reduce debilitating symptoms, and improve a patient’s quality of life. The incidence of many neurologic diseases is rising partly. As a result, more survivors are emerging with most exhibiting life altering impairments that require neurorehabilitation. Moreover, physiotherapy treatment is expensive plus traveling and frequent visits to the physiotherapy centers and hospitals are not feasible for everyone and time consuming too. Therefore, our aim is to design the Neuro Rehabilitation System which is home convenient, less complex, less costly and less time consuming.
Stroke is the second leading cause of death and third most common contributor to disability and a costly disease. This is the reason we have chosen “Stroke Rehabilitation” as our probe domain.
Secondly, in this revolutionary era of technology, most of the doctors are still relying on Manual Muscle Testing (MMT) or manual instruments like goniometer. Although digital goniometers are there but they are quite expensive, are not widely used in hospitals in Pakistan and require expertise. Therefore, we propose an automated Neuro Rehabilitation system that utilizes two sensors namely Electromyography (EMG) and Inertial Measurement Unit (IMU) to collect the data of patients regarding the three important parameters.
A suitable set of exercises in virtual environment will be performed by patients and our designed machine learning model will assess patient’s task-oriented rehabilitation exercises to conclude how each set of exercise could provide improvement in the performance of the patient.
As Machine learning models can easily utilize data of patients through sensors so instead of manually reviewing abundant features, machine intelligence can automatically identify salient features to provide useful insights on patient’s performance to validate the prediction of outcomes. A newly developed ML model for Embedded systems will be deployed on Microcontroller using TinyML to build our Neuro Rehabilitation System.
“To design an Automated Neuro rehabilitation system with the aid of sensors and (ML) machine learning. The system which will be efficient, cheap, less complex and home convenient.”
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figure 2. Steps of proposed methodologyimages/Design and Progession Analysis of Neuro Rehabilitation System using Machine Learning _1639949468.pngThis project comprises of tensor Flow lite for micro software and hardware, i.e sensors and Arduino Nano 33 BLE Sense /STM32F4 nucleo microcontroller, for deploying the machine learning model. Sensors are used for recognizing the parameters i.e ROM, smoothness and muscle contraction. Machine learning model will be designed on tensor flow lite for micro and deploy on microcontroller using tiny ml. Deployment of machine learning model on microcontroller has its own advantages over the Cloud, GPU like less power consumption, smaller in size, less costly. The end delivery will be closed loop hardware and software integrated system working together in real-time concluding which particular set of exercises would enhance the performance of particular stroke’s patient.
Figure 3. Hardware and Software tools
images/Design and Progession Analysis of Neuro Rehabilitation System using Machine Learning _1639949470.png
| Item Name | Type | No. of Units | Per Unit Cost (in Rs) | Total (in Rs) |
|---|---|---|---|---|
| EMG Sensor | Equipment | 2 | 3500 | 7000 |
| IMU Sensor | Equipment | 2 | 2000 | 4000 |
| Arduino Nano 33 BLE Sense /STM32F4 nucleo Microcontroller | Equipment | 1 | 22000 | 22000 |
| VR SHINECON 3D VR Glasses Virtual Reality Headset Monochrome | Equipment | 1 | 1338 | 1338 |
| Monochrome o.96”OLED | Equipment | 4 | 400 | 1600 |
| PCB designing | Equipment | 4 | 5000 | 20000 |
| Plastic goniometer (for comparative testing) | Equipment | 1 | 845 | 845 |
| Consultation fee of physiotherapists and orthopedics (for testing) | Miscellaneous | 1 | 5000 | 5000 |
| TinyML Machine Learning with TensorFlow Lite on Arduino and Ultra-Low- | Equipment | 1 | 6000 | 6000 |
| Travelling, printing etc | Miscellaneous | 1 | 5000 | 5000 |
| Total in (Rs) | 72783 |
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