Adil Khan 11 months ago
AdiKhanOfficial #FYP Ideas

Open Source Ultrasound system

The technology related to healthcare require a high degree of robustness, reliability, accuracy and precision therefore there is a need of a great deal of open-source hardware and software systems. On the software side there are already multiple open-source software that are used for medical imaging

Project Title

Open Source Ultrasound system

Project Area of Specialization

Biomedical Engineering

Project Summary

The technology related to healthcare require a high degree of robustness, reliability, accuracy and precision therefore there is a need of a great deal of open-source hardware and software systems. On the software side there are already multiple open-source software that are used for medical imaging, mainly used for image processing such as filtering and clarity in the visualization. However, the field of open-source hardware for medical area is less developed or currently less documented. In this project we focus on open source hardware setup with low cost reconfigurable electronic devices for ultrasound image that will be equipped with advanced image processing features.

Project Objectives

  1. Study currently available software based open source hardware ultrasound system.
  2. Develop an open source ultrasound system both in hardware form.
  3. Calibrate the developed system jointly with Medical Experts.

Project Implementation Method

 In this Ultrasound Kit we will mainly use two electronic modules which are called Ultrasound Imaging Analog Core(UIAC).

Transducer Processing Module:

  • It is designed to provide a precise high-voltage pulse, necessary to excite the sensor, while remaining robust enough to be controlled by an Arduino.
  • The Transducer Pulser Module (TPM) requires both a high-voltage source, and a pulser control.
  • These functions used the Recom Power R05-100B DC/DC Regulated Converter with single-output, to generate a stable high-voltage, which level is determined by a potentiometer, and a Supertex HV7360, High Speed Two or Three Level Ultrasound Pulser, to precisely control the pulse level and duration.

Analog Processing Module(APM):

  • It is designed to correctly process the raw ultrasound electric signal, while easily exposing all intermediary signals, and exposing a digital output to the user.
  • The Analog Processing Module (APM) uses a single channel ultrasound Time Gain Compensation (TGC) integrated circuit, the Analog Devices AD8331, Ultralow Noise VGA with Preamplifier, which gain can be controlled by an external 0 to 1V track. The amplified signal is fed into a RF envelope detector, the Analog Devices ADL5511, RF envelope and TruPwrrms detector. The envelope is the unbiased with an analog

Devices AD8691 Series   Precision     Amplifier, and optimized for the last item, the Analog Devices  AD7274, a 12-bit,3Mps analog to Digital Converters. We will use the two modules, with a simple transducer for the sensor, and a Arduino compatible microcontroller, with an appropriate ADC, and with wireless capabilities.

 

 

 

 

 

 In this Ultrasound Kit we will mainly use two electronic modules which are called Ultrasound Imaging Analog Core(UIAC).

Transducer Processing Module:

  • It is designed to provide a precise high-voltage pulse, necessary to excite the sensor, while remaining robust enough to be controlled by an Arduino.
  • The Transducer Pulser Module (TPM) requires both a high-voltage source, and a pulser control.
  • These functions used the Recom Power R05-100B DC/DC Regulated Converter with single-output, to generate a stable high-voltage, which level is determined by a potentiometer, and a Supertex HV7360, High Speed Two or Three Level Ultrasound Pulser, to precisely control the pulse level and duration.

Analog Processing Module(APM):

  • It is designed to correctly process the raw ultrasound electric signal, while easily exposing all intermediary signals, and exposing a digital output to the user.
  • The Analog Processing Module (APM) uses a single channel ultrasound Time Gain Compensation (TGC) integrated circuit, the Analog Devices AD8331, Ultralow Noise VGA with Preamplifier, which gain can be controlled by an external 0 to 1V track. The amplified signal is fed into a RF envelope detector, the Analog Devices ADL5511, RF envelope and TruPwrrms detector. The envelope is the unbiased with an analog

Devices AD8691 Series   Precision     Amplifier, and optimized for the last item, the Analog Devices  AD7274, a 12-bit,3Mps analog to Digital Converters. We will use the two modules, with a simple transducer for the sensor, and a Arduino compatible microcontroller, with an appropriate ADC, and with wireless capabilities.

 

 

 

 

 

Benefits of the Project

               There is no available open-source electronic analog system for ultrasound imaging. There are several open source software initiatives or multiple focus ultrasound control systems. This module will help the researchers by providing complete experimental setup for ultrasound imaging with low cost and size will be compact.

Technical Details of Final Deliverable

G.Elapsed time in (days or weeks or month or quarter) since start of the project

Milestone

Deliverable

Nov 2020-January 2021

Study of current state of the art

Recommendations

Feb 2021- March 2021

Developing design and Hardware selection

Hardware

March 2021-April 2021

Implementing the initial model

Hardware

April 2021-June 2021

Optimizing the developed system

Hardware

June 2021-August 2021

Calibration & testing

Hardware

September 2021

Documentation

Hardware + recomendations

G.Elapsed time in (days or weeks or month or quarter) since start of the project

Nov 2020-January 2021

Feb 2021- March 2021

March 2021-April 2021

April 2021-June 2021

June 2021-August 2021

September 2021

Final Deliverable of the Project

Hardware System

Core Industry

Health

Other Industries

Medical

Core Technology

Others

Other Technologies

3D/4D Printing

Sustainable Development Goals

Good Health and Well-Being for People

Required Resources

G.Elapsed time in (days or weeks or month or quarter) since start of the project

Milestone

Deliverable

Nov 2020-January 2021

Study of current state of the art

Recommendations

Feb 2021- March 2021

Developing design and Hardware selection

Hardware

March 2021-April 2021

Implementing the initial model

Hardware

April 2021-June 2021

Optimizing the developed system

Hardware

June 2021-August 2021

Calibration & testing

Hardware

September 2021

Documentation

Hardware + recomendations

If you need this project, please contact me on contact@adikhanofficial.com
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