Hi, I am a graduate student in the Department of Electrical and Computer Engineering at the University of Texas at Austin (UT Austin). I am part of a research group headed by Prof. Gustavo de Veciana

My research interest is in Mobile Edge Computing (MEC), Wireless Communication, and Analysis and Design of Networks. I am currently working on tradeoffs in communication and computation arising in the edge computing infrastructure. Formerly, I completed my Btech in Electrical Engineering from Indian Institute of Technology at Kanpur (IIT Kanpur).  

I started my journey at UT Austin in Fall 2020 when I joined the Decision, Information and Communication Engineering (DICE) track.  I am also part of the Wireless Networking and Communications Group (WNCG) and 6G @ UT. I have an ongoing collaboration with research professionals at Intel, Santa Clara. 

Besides research, I have a strong academic background in theory-based courses like Optimization/Probability/Linear algebra and practical courses like Data mining, Algorithms, evident through a perfect GPA of 4.0 since I joined UT Austin.

Interests 



Education 


University of Texas at Austin

 PhD in Electrical and Computer Engineering - DICE Track

University of Texas at Austin

 MS in Electrical and Computer Engineering - DICE Track (GPA: 4.0/4.0)

Indian Institute of Technology at Kanpur

Btech in Electrical  Engineering (CGPA: 9.5/10.0)                           



Austin, TX

Expected 2025


Austin, TX

Expected 2022


 Kanpur, India

    May 2019

Publications


Industry/Work Experience  


Qualcomm Wireless R&D Internship 

 Worked on a Cellular-V2X Project, using tools from Wireless Communication to manage workload offloading from a mobile device to edge and/or cloud server through a wireless network in dynamic network and sever environments.

Deutsche Bank (Financial Analyst)


Bridgewater, NJ

May 2022 - August 2022

                   

Mumbai, India 

June 2019 - Jun 2020

Selected Projects


Offloading computational workloads on the mobile edge communication-compute fabric (Research Project - In collaboration with Intel)

Motivation

Problem: How to optimize workload and system design to make the most of available resources and adapt to an evolving system with heterogeneous wireless channel qualities, workloads, user types, etc.


Predicting Labor Condition Approvals for H-1B visas (Machine Learning - Course Project)

We present various approaches to predicting decisions on H-1B visa case statuses. The H1B visa enables foreign workers to work in the United States and is an important mainstay of immigrant participation in the US economy. We analyze 3 million records of H1B petition data from 2011-2016 provided by the US Office of Foreign Labor Certification and train machine learning models to predict the case status of the visas.  We trained 7 different models on the data and report various metrics for each model, and find that XGBoost is the best performer for this challenging task. We envision that these models will simplify the decision making process for the H1B visa.

Modelling and Analysis of Hierarchical Systems (Analysis and design of networks - Course Project)

High Level objective: Our central aim in this project is to model and analyze service systems such as a healthcare system, or a system to screen and censor controversial content on social-media websites. Such systems usually consist of workers of varying levels of expertise. Moreover, incoming tasks (patients for healthcare, controversial content for social-media) will be of varying levels of difficulties as well, which maybe apriori unknown.

Co-existence of eMBB and URLLC in IAB enabled networks (Wireless comm. - Course Project)

Abstract: Integrated access backhaul (IAB) is a new age deployment strategy in 5G NR with its merits and has become quite prevalent because of its low deployment costs. As also, two major service classes Ultra-reliable low-latency communication (URLLC) and enhanced mobile broadband (eMBB) have emerged. In this work we study the coexistence of eMBB and URLLC on the same IAB network. Now, the problem is interesting because URLLC applications demand strict latency and reliability whereas eMBB services require high data rates. We make use of a puncturing based scheduling to study the affect on delay and throughput. In the context of delay, we take cues from queuing theory to understand the affect of URLLC traffic on eMBB. In the context of throughput, we rely on simulations to see the affect. In the simulation results for delay we see a contention for resources by the two types of traffic i.e., they negatively impact each other. Similarly in the simulation results for achievable rate, the nonlinear relation between achievable eMBB throughput and URLLC throughput is observed. 




Aug 2020 - Present










Aug 2021- Dec  2021






Jan 2021 - May  2021




Jan 2021 - May 2021 

Research Experience


Graduate Research Assistant

Summer Internship

Summer Internship 



Prof. Gustavo de Veciana

Prof. Shivendra Panwar 

Prof. Y.N. Singh 



UT Austin

NYU

IIT Kanpur



  August 2020 - Present 

Summer 2018

Summer 2017

Core ECE courses 


Undergraduate courses (IIT Kanpur)







Graduate courses (UT Austin)


Positions of Responsibility 


Core Team Member (Counselling Service, IIT Kanpur)

Leadership: 


Initiatives: 


Mentoring: 




 Feb  2017 -  April 2018






Contact

agrim.bari@utexas.edu