I am Amogh Dabholkar, an MS student at Georgia Tech (Graduating in May 2023) and my focus is in the domain of Deep Learning. I completed my undergraduate degree at
BITS, Pilani
where I majored in Electronics and Instrumentation Engineering. I am interested in the intersection of Deep Learning and Computer Vision. More recently,
I have also been exploring the new verticals like Adversarial attacks as well as Model Compression Techniques like Quantization and Pruning.
During my time at Ambarella Inc. during Summer 2022, I worked on implementing the RigL algorithm proposed by Google Brain and
implementing it in TF2-Keras. I was working out of their office in Santa Clara, CA under the supervision of Sandeep Mohan and
Santosh Chilkunda.
At Georgia Tech, I worked with Prof Hyesoon Kim on compression of Recommendation Systems in Spring 2022.
In the past, I worked at DeepEdge on building a semantic segmentation model using Mask RCNN for a Silicon Valley based client.
In the preceeding summer, I interned at Vidyaroha Innovations where I helped them build an end-to-end facial recognition pipeline. Simultaneously, I was also
pursuing a summer term at Carnegie Mellon University on a scholarship, where I studied graduate level Machine Learning and Image Processing courses.
In my final year of undergrad, I spent six wonderful months with
Prof Patricio Vela at
Georgia Tech working on building a supervised learning solution for estimating Control Barrier Functions (CBFs). This work
with Dr. Vela resulted in a publication at IROS 2020. Check out this seminar by Dr. Vela for more details about this work.
I am an ardent Football Club Barcelona fan and try to watch every game. I enjoy reading books a lot. Some of my favorite authors are Fredrik Backman and Sidney Sheldon. I have recently taken a liking towards Vietnamese food so hit me up with restaurant suggestions!
Feel free to check out my
CV
and drop me an
e-mail
if you want to chat with me!
Started working at Ambarella Inc. as a Deep Learning Intern.
[Aug'21]  
Started MS in ECE at Georgia Tech
[May'21]  
Last day at DeepEdge as a Deep Learning Engineer
[Nov'20]  
Started working with DeepEdge as a Deep Learning Engineer
[Aug'20]  
Started working with DreamVu as a Computer Vision Research Fellow
[Aug'20]  
Completed CMU Summer 2020 term (ECE 18-661 and ECE 18-793)
[July'20]  
Graduated From BITS Pilani
[May'20]  
Started CMU Summer 2020 term
[May'20]  
Started working as Machine Learning Intern at Vidyaroha Innovations
[Jan'20]  
Returned to BITS Pilani for Final Semester
[Aug'19]  
Started working with Prof. Patricio Vela at Georgia Tech in Atlanta for my bachelor's thesis
[Aug'18]    
Returned to BITS Pilani for Junior Year
[May'18]    
Started working at LVPEI Center for Innovation as Summer Intern
[Aug'16]    
Started undergraduate at BITS Pilani
Deep Learning Intern | Ambarella Inc.
May '22 - August '22
Improved the Neural Network Compression toolkit by implementing RigL and adapting the implementation to work for TF2-Keras. Added key features to the algorithm which aided the accuracy recovery process
after pruning.
Special Problem Student | Georgia Institute of Technology
January '22 - present
Working with Andrei Bersatti at HpArch under the Department of Electrical and Computer Engineering at Georgia Tech on compression techniques for Recommendation Systems.
Graduate Teaching Assistant | Georgia Institute of Technology
January '22 - present
Working under the supervision of Prof. Zsolt Kira as a Teaching Assistant for the on-campus version of CS7643/4644 Deep Learning for Spring 22 semester.
Deep Learning Engineer | DeepEdge
Nov '20 - May '21
Worked on solving a semantic segmentation problem using Tensorflow2 for unconventional object classes with necessary preprocessing and refinement of predicted masks using OpenCV. Also built an auto-annotation pipeline for the company.
Computer Vision Research Fellow | DreamVu
August '20 - October '20
Worked on deploying EfficientDet for custom object detection on panoramas captured by PAL -- world's first 360 stereo and depth sensor
Machine Learning Intern | Vidyaroha Innovations
September '20 - June '21
Built an end-to-end Facial Recognition Pipeline using the PyTorch achieving a f1 score of 47.3 on a small dataset with picture quality on the lower end
Controls and ML Intern | Georgia Institute of Technology
Aug '19 - Dec '19
Worked with Prof Patricio Vela at the IVA Lab in Department of Electrical and Computer Engineering at Georgia Tech. We developed a supervised machine learning approach for estimating Control Barrier Functions and the work ws published in IROS 2020.
Summer Intern | LVPEI Center for Innovation
May '18 - July '18
Improved battery system so that it could be charged and used at the same time and to display the remaining battery. Designed the main PCB using AutoCAD Eagle.
Cite as - M. Srinivasan, A. Dabholkar, S. Coogan and P. A. Vela,
"Synthesis of Control Barrier Functions Using a Supervised
Machine Learning Approach" 2020 IEEE/RSJ International
Conference on Intelligent Robots and Systems (IROS), 2020, pp.
7139-7145, doi: 10.1109/IROS45743.2020.9341190.
Control
barrier functions (CFB) are mathematical constructs used
to provide formal safety guarantees.
This work presented a supervised machine
learning approach for synthesis of control barrier
functions, using support vector machine (SVM).
In this paper CFB is
used to construct safe trajectory for robot to navigate and
avoid obstacles
Experiments were conducted with ROS
and Simple Two-Dimensional Robot (STDR) Simulator.
Both offline and online scenarios were tested, in offline
scenario all obstacles were known, online scenario robot
starts with zero knowledge of world and synthetic LIDAR
sensor were used to map obstacles.
In simulated scenario
with five obstacles Correlation Coefficients and Frechet
distances against ground truth were in average 0.98/0.05
for offline SVM and 0.92/0.09 for online SVM
The solution was also implemented succesfully for
slightly non-convex obstacles as well
Check out this seminar
by Dr. Vela for more details about this work.
Analyzed the effects of popular adversarial attacks such as the Fast Gradient Sign Method (FGSM), Basic Iterative Method (BIM) and DeepFool attack on DNNs trained to classify images on the MNIST and CIFAR-10 datasets.
Trained models on the CIFAR-10 dataset and studied the transferability of adversarial attacks by using examples generated for one model for evaluation by another.
Grad-CAM, a visualisation technique, was used to see where a deep learning model focuses on in an image during evaluation.
For visualisations, models trained on the ImageNet dataset and the FGSM attack were used.
Deep Ensemble Model for Retinal Diseases Detection and Classification