Innovations

Innovations

Diagnostics with 1-Drop of Body Fluid at the Point of Care

Diagnostics

Advantages

Portable and thus spot diagnosis is possible

Functional with limited resources

Easy handling

Mass fabrication is possible

Inexpensive

Involvement of minimal infrastructures

Rapid and easy monitoring

Automated

Manufacturing Printed Paper Strips For Disease Detection

A. Single Sided

B. Double sided

Printed Paper Channels for Blood Pathology

Diagnostics
Diagnostics
Diagnostics

Testing Blood on a Portable Spinning Disc

Diagnostics
Diagnostics

Blood Glucose Detection on a Printed Paper Strip

Hemoglobin Detection: Screening of Anemia

Diagnostics
screening

Printed microfluidic chip

screening

Adding whole blood + diluting reagent to the reaction pad

screening

Bluish green colour developed in reaction pad

screening

Picture of the reaction pad captured with smartphone camera.

screening

Picture of the reaction pad captured with smartphone camera.

screening

In built app in smart phone performs robust image processing and displaying haemoglobin concentration

COVIRAP: A Nucleic-Acid Based Rapid Diagnostic Test for COVID-19

Diagnostics
Diagnostics

Low-Cost Portable Imaging Device for Early Screening of Oral Cancer

Diagnostics

Lifestyle factors in the underserved community

Current methods of diagnostics require sophisticated lab-based procedures

A low cost, portable, handheld imaging device to screen oral cancer and pre-cancer based on measured change in blood flow rate of the tissue fro thermal imaging and analytics.

Successful phase-I clinical trial with more than 60 patients indicated more than 96.66 % accuracy in detecting oral cancer and pre-cancer.

The early prototype developed is ready to be deployed in the field by minor sophistication and automation.

Method can be extended to other forms of cancer

Clinical Algorithm based App for Delivering Primary Care at Resource Poor Settings-Uday

Diagnostics

Covicube

Diagnostics

“COVICUBE” –which can simultaneously measure respiration rate, Oxygen saturation, breathing rate, Temperature has been prototyped and validated in rural settings. This will provide a much-needed low-cost integrated solution for screening the rural population through the same women rural health workers.

Lipidest

Diagnostics
Diagnostics

Reagent-free Anemia screening using paper and smartphone

Diagnostics

1. Apply glycerin on the paper pad of the cartridge with paint brush. Make sure that the glycerin is completely absorbed within the paper and no surplus volume of glycerin remains on the paper surface

2. Properly align the paper cartridge and the smartphone on the designated slot of the image acquisition platform.

3. Open the camera of the smartphone and adjust the magnification to 2.5X.

4. Perform finger pricking and deposit one drop of finger pricked blood on the wet paper cartridge just by touching the blood drop on the paper surface.

5. Capture the image of the blood pattern after 3-4 secs of dispensing blood.

6. Open smartphone app ‘Hemo-app’.

7. Click on ‘Start a new test’.

8. Click on ‘Upload image from Gallery’

9. Choose the recently captured blood pattern image.

10. Wait for the result display on the smartphone app.

11. Dispense the used paper cartridge into biosafety-waste bin.

Hematocrit and Hemoglobin Measurement using EIS

Diagnostics
Diagnostics
Diagnostics

1. Start with calibrating the impedance analyzer.

2. Connect the device electrodes with the impedance analyzer.

3. Dispense a drop of blood on the strip.

4. Instantly record the impedance magnitude at desired optimal frequency.

5. Feed the obtained impedance magnitude in the smartphone app.

6. Get the Hematocrit and Hemoglobin value result in the smartphone app.

ChestXAI

Diagnostics

This is a deep learning-enabled android app to predict the vulnerable COVID-19 patients based on digital frontal chest X-ray images. This app is designed to individuate COVID-19 cases from no- findings and non-COVID Pneumonia. Using this application, you can get the automated classification of frontal chest X-rays revealing fine-grained variability in appearance that are not distinguishable by Pulmonologist. Here, deep convolutional neural networks (CNN) were used to accomplish highly variable tasks in many types of fine-grained objects in the images. For the development of the CNN model, the classification of chest X-rays was carried out using a single CNN with transfer learning, formed end-to-end from direct images, using only pixels and disease tags as entries. The used CNN model was trained on a dataset accessed from public repository consisting of a total of 1697 frontal X-ray images (549 samples of COVID-19, 576 samples of no findings, and 572 samples of non-COVID pneumonia) with high classification accuracy.