Best Rate (Hyderabad) Call Girls Jahanuma ⟟ 8250192130 ⟟ High Class Call Girl...
Phase_1-SAMPLE_AMCEC.pptx
1. AMC ENGINEERING COLLEGE,
BANGALORE-560018
Department of Computer Science & Engineering
INSIGHT GUARD: PIONEERING EARLY
GLAUCOMA DETECTION THROUGH
MACHINE LEARNING
Presented By
Nanda Kumar V [1AM20CS124]
Neelesh S[1AM20CS127]
Nischith PM[1AM20CS129]
Saberi Younus Mushtaq[1AM20CS165]
Under the Guidance of
Ms. Indu Priya V
Assistant Professor
Dept. of CSE
AMCEC
3. INTRODUCTION
Vision plays a vital role in everyone’s life to visualize the things around us but
there is vision loss in many people due to few eye related diseases.
According to 2019 survey of World Health Organization, 2.2 billion people are
suffering from several eye related diseases among which 39 million people are
completely blind.
The overall percentage of the eye diseases which causes blindness are 47.8% is
due to cataract, 12.3% for glaucoma, 8.7% for age related macular degeneration,
4.8% of diabetic retinopathy, 5.1% due to corneal opacities.
Major challenging task is to detect Glaucoma in the early stages which is
the second main cause for the vision loss worldwide.
4. OBJECTIVE
The fundamental objective of the "Insight Guard: Pioneering Early
Glaucoma Detection through Machine Learning" project is to
revolutionize the landscape of glaucoma diagnosis by developing an
advanced machine learning model.
The primary goal is to substantially improve diagnostic accuracy,
allowing for the identification of subtle signs and indicators of glaucoma
at its onset.
Through the seamless integration of this innovative machine learning
model into routine eye examinations, the project seeks to streamline the
glaucoma screening process, providing healthcare professionals with an
efficient tool for early detection and intervention.
5. PROBLEM IDENTIFICATION
Glaucoma, a prevalent eye condition leading to irreversible blindness,
poses a significant challenge in current healthcare systems. The existing
diagnostic methods often struggle to detect the disease in its early stages.
This delayed identification hampers the ability to implement timely
measures, resulting in compromised vision and reduced quality of life for
affected individuals.
Insight Guard addresses this critical issue by leveraging machine
learning to enhance early glaucoma detection, offering a solution to the
limitations of traditional diagnostic approaches.
6. LITERATURE SURVEY
SL
NO
TITLE AUTHOR PULICATION YEAR DESCRIPTION
1 Glaucoma
detection
using image
processing
techniques
Abdullah
Sarhan, John
Rokne and
Reda Alhaji
Science Direct,
Computerized
Medical Imaging
and Graphics, Vol.
78, No 101657.
2019 This research gives
an idea of optic
nerve changes and
visual field loss.
Early detection
through automated
image analysis is
crucial for
prevention
7. SL
NO
TITLE AUTHOR PULICATION YEAR DESCRIPTION
2 A Survey of
Glaucoma
Detection
Algorithms
using
Fundus and
OCT Images
Riley Kiefer,
Jessica Steen,
Muhammad
Abid, Mahsa
R Ardali,
Ehsan
Amjadian
IEEE Xplore Digital
Library, 13th Annual
Conference 2022
2022 The publication
allow us to
understand AI
Advancement done
to enhance early
glaucoma detection
using ML technique
3 Glaucoma
Screening,
Segmentatio
n and
Classificatio
n
JoséCamara, Alexa
ndre Neto, Ivan
Miguel
Pires, María
Vanessa
Villasana,Eftim
Zdravevski
and António
Cunha
National Library of
Medicine, Jan 2022,
PMID: 35200722
2022 These survey
illustrates various
methods and
techniques used for
Glaucoma, to
improve diagnosis
of detection result
8. PROPOSED SOLUTION
Insight Guard, a revolutionary initiative, proposes a solution to advance
early glaucoma detection through state-of-the-art machine learning. By
integrating diverse ocular data and employing sophisticated algorithms, it
promises accurate and timely diagnosis.
The user-friendly interface ensures seamless integration into healthcare
systems, prioritizing accessibility. Ethical considerations guide the
development, while a phased deployment approach and continuous
monitoring ensure practicality and ongoing effectiveness.
Insight Guard emerges as a transformative solution, pioneering proactive
eye health management on a global scale.
12. METHODOLOGY
MODULES
Data Collection and Preprocessing:Gather a comprehensive dataset
including optic nerve head morphology, visual field tests, intraocular
pressure measurements, and relevant patient history. Ensure uniformity in
data format and quality through preprocessing techniques, addressing
missing values, outliers, and noise.
Algorithm Training:Utilize labeled datasets to train machine learning
algorithms, employing techniques such as convolutional neural networks
(CNNs) and support vector machines (SVMs).Identify key features
indicative of early glaucoma, allowing the algorithm to discern subtle
patterns associated with the disease.
13. Cross-Validation and Model Evaluation:Validate the model's
performance across multiple folds to assess its generalizability and
robustness. Employ metrics such as accuracy, sensitivity, specificity,
and area under the receiver operating characteristic (ROC) curve to
evaluate the model's effectiveness.
Integration with Healthcare Systems:Develop an intuitive interface
for seamless integration into existing healthcare systems, ensuring
ease of use for eye care professionals. Align the system with industry
standards for interoperability to facilitate widespread adoption.
14. CONCLUSION
Glaucoma is optic nerve disease caused due the increased intraocular
pressure which leads to complete vision loss if it is not detected in the
initial stages.
Thus, detection of disease in the early stages is necessary.
Here we accomplish the detection process in the early stages using image
processing techniques considering CDR value and by automating the
detection using process using deep learning algorithms by extracting other
features of the fundus image and achieved an accuracy of 84.51%.
Later, Correlating the results of image processing and deep learning to
make the system efficient. This technique gives a best solution compared
to the currently existing technologies as they need plenty of time to detect
the disease and expensive.
15. REFERENCES
[1] Hina raja, etal, “Detection of glaucoma using cup to disc ratio from
spectral domain optical coherence tomography images” IEEE 2018.
[2] Aneeqa Ramzan, etal, “Clinical and Technical Perspective of
Glaucoma Detection using OCT and Fundus Images”,1st International
Conference on Next Generation Computing Applications
(NextComp),2017.
[3] Sulatha V Bhandary, etal, “Deep convolutional neural network for
accurate diagnosis of glaucoma using digital fundus images”,
Information Sciences,2018.
[4] Sandra Morales, etal, “CNNs for Automatic Glaucoma Assessment
Using Fundus Images”, BioMed Eng OnLine, 2019.