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Gunjan Verma

10 accepted papers

2025

Joint Task Offloading and Routing in Wireless Multi-hop Networks Using Biased Backpressure Algorithm

ICASSP 2025accepted

A significant challenge for computation offloading in wireless multi-hop networks is the complex interactions among traffic flows in the presence of interference. Existing approaches often ignore these key effects and/or rely on outdated queueing and channel state information. To fill these gaps, we…

Cited by 0SourceScholar
2024

Congestion-Aware Distributed Task Offloading in Wireless Multi-Hop Networks Using Graph Neural Networks

ICASSP 2024accepted

Computational offloading has become an enabling component for edge intelligence in mobile and smart devices. Existing offloading schemes mainly focus on mobile devices and servers, while ignoring the potential network congestion caused by tasks from multiple mobile devices, especially in wireless mu…

Cited by 0SourceScholar
2023

Delay-Aware Backpressure Routing Using Graph Neural Networks

ICASSP 2023accepted

We propose a throughput-optimal biased backpressure (BP) algorithm for routing, where the bias is learned through a graph neural network that seeks to minimize end-to-end delay. Classical BP routing provides a simple yet powerful distributed solution for resource allocation in wireless multi-hop net…

Cited by 0SourceScholar
2022

Delay-Oriented Distributed Scheduling Using Graph Neural Networks

ICASSP 2022accepted

In wireless multi-hop networks, delay is an important metric for many applications. However, the max-weight scheduling algorithms in the literature typically focus on instantaneous optimality, in which the schedule is selected by solving a maximum weighted independent set (MWIS) problem on the inter…

Cited by 0SourceScholar
2021

Adaptive Contention Window Design Using Deep Q-Learning

ICASSP 2021accepted

We study the problem of adaptive contention window (CW) design for random-access wireless networks. More precisely, our goal is to design an intelligent node that can dynamically adapt its minimum CW (MCW) parameter to maximize a network-level utility knowing neither the MCWs of other nodes nor how…

Cited by 0SourceScholar
2021

Distributed Scheduling Using Graph Neural Networks

ICASSP 2021accepted

A fundamental problem in the design of wireless networks is to efficiently schedule transmission in a distributed manner. The main challenge stems from the fact that optimal link scheduling involves solving a maximum weighted independent set (MWIS) problem, which is NP-hard. For practical link sched…

Cited by 0SourceScholar
2021

Efficient Power Allocation Using Graph Neural Networks and Deep Algorithm Unfolding

ICASSP 2021accepted

We study the problem of optimal power allocation in a single-hop ad hoc wireless network. In solving this problem, we propose a hybrid neural architecture inspired by the algorithmic unfolding of the iterative weighted minimum mean squared error (WMMSE) method, that we denote as unfolded WMMSE (UWMM…

Cited by 0SourceScholar
2019

Attribution-Based Confidence Metric For Deep Neural Networks

NeurIPS 2019poster

We propose a novel confidence metric, namely, attribution-based confidence (ABC) for deep neural networks (DNNs). ABC metric characterizes whether the output of a DNN on an input can be trusted. DNNs are known to be brittle on inputs outside the training distribution and are, hence, susceptible to…

Cited by 88SourcePDFScholar
2019

Error Correcting Output Codes Improve Probability Estimation and Adversarial Robustness of Deep Neural Networks

NeurIPS 2019poster

Modern machine learning systems are susceptible to adversarial examples; inputs which clearly preserve the characteristic semantics of a given class, but whose classification is (usually confidently) incorrect. Existing approaches to adversarial defense generally rely on modifying the input, e.g. qu…