Aruna Kranthi G

Ms. Aruna Kranthi G

orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 October 2024 in SN Computer Science
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Journal Article
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RNRakesh Nayak
Rakesh Nayak
DYDk Hayati Pg Hj Mohd Yassin
Dk Hayati Pg Hj Mohd Yassin
RGRamesh Gadde
Ramesh Gadde
AGAruna Kranthi G
Aruna Kranthi G

15 January 2024
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Conference Paper
Open access
RBRaj Kumar B
Raj Kumar B
AGAruna Kranthi G
Aruna Kranthi G
RMRavinder Reddy Malaga
Ravinder Reddy Malaga
PKPradeep Kagitapu
Pradeep Kagitapu
In the contemporary realm, web applications hold paramount significance in the lives of a vast multitude, thereby rendering web application security an imperative necessity. The inherent interconnectedness of web applications in today's digital landscape renders them an exceedingly attractive target for cybercriminals to exploit. In this paper, we shall present a comprehensive analysis of prevalent web application vulnerabilities, encompassing the likes of SQL injection, OS Command Injection, Local File Inclusion, and XML External Entities. We shall examine attack scenarios that exploit these vulnerabilities and present code snippets to facilitate development.

2 May 2024 in Multimedia Tools and Applications
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Journal Article
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AGArunakranthi Godishala
Arunakranthi Godishala
VRVeena Raj
Veena Raj
DLDaphne Teck Ching Lai
Daphne Teck Ching Lai
AGAruna Kranthi G
Aruna Kranthi G

Verified
Journal Article
Open access
PDF file
RBRajkumar Banoth
Rajkumar Banoth
SASantosh Reddy Addula
Santosh Reddy Addula
AGAruna Kranthi G
Aruna Kranthi G
RSRithwik Sannapu
Rithwik Sannapu
GSGuna Sekhar Sajja
Guna Sekhar Sajja
CTChaitanya Tumma
Chaitanya Tumma
The rapid proliferation of Internet of Things (IoT) devices has significantly increased the attack surface for large-scale botnet operations. While previous research, including detailed analyses using Cowrie and IoTPOT frameworks, has studied IoT botnet behavior, these studies often rely on retrospective datasets, isolated protocol analyses, or hard-to-replicate setups. This paper addresses that gap with two main contributions: a structured review of ten influential IoT security studies from the USENIX Security Symposium and a confirmatory empirical experiment deploying Cowrie and IoTPOT honeypots simultaneously on a Microsoft Azure cloud-based virtual machine. Unlike earlier studies that focus on single protocols or large-scale environments, this work acts as a validation study, confirming well-known IoT botnet behaviors, including credential brute-force attacks, Mirai-style commands, and Telnet dominance, using real-time attack data collected from a reproducible, affordable cloud environment that simulates known IoT vulnerabilities (such as CVE-2016-10401, CVE-2017-17215, and CVE-2014-9222). Rather than revealing new attack methods, this study explicitly verifies the persistence of behaviors first documented almost ten years ago. The data indicates that attackers continue to exploit basic authentication flaws and reuse long-standing command sequences, confirming that core IoT vulnerabilities remain prevalent despite a decade of security research. It also highlights the ongoing gap between research progress and industry implementation. The analysis situates these findings within the broader evolution of IoT botnets, from early centralized command-and-control structures like Mirai to more resilient peer-to-peer networks that use anonymized channels and target high-wattage devices for power-grid manipulation. This study shows that small, cloud-based honeypots are valuable for continuous threat monitoring, model validation, and security assessments, providing a practical, reproducible approach for ongoing IoT security research.