ACCENTS Transactions on Information Security ISSN (Online): 2455-7196 Volume-10 Issue-37 October-2025
  1. 250
    Citations
Enhancing cloud data security with ECC-SVM: a machine learning-driven framework for encryption and threat detection

MD Imran Khan1 and Mohan Kumar Patel1

Department of Computer Science,Patel College of Science and Technology,Madhya Pradesh,India1
Corresponding Author : MD Imran Khan

Received : 25-November-2025; Revised : 15-December-2025; Accepted : 18-December-2025

Abstract

Cloud computing provides scalable and flexible computing resources but remains vulnerable to unauthorized access, data leakage, and network-based attacks. This study proposes an integrated elliptic curve cryptography-support vector machine (ECC-SVM) framework for strengthening cloud data security through combined cryptographic protection and intelligent threat detection. ECC is employed to encrypt sensitive data before cloud storage, while SVM analyzes incoming network traffic and distinguishes legitimate requests from malicious activities. The framework incorporates user authentication, ECC key generation, data encryption, cloud storage, traffic feature extraction and preprocessing, SVM-based threat classification, secure access control, and ECC decryption. A synthetic cloud security dataset containing 12,000 traffic records was generated, comprising 6,000 legitimate and 6,000 malicious samples representing brute-force login, distributed denial-of-service, unauthorized access, SQL injection, and port-scanning attacks. Twenty traffic and behavioral features were considered, and the dataset was divided into 80% training and 20% testing subsets. Experimental results demonstrate that the proposed ECC–SVM framework achieves 98.75% accuracy, 98.61% precision, 98.83% recall, and a 98.72% F1-score. The receiver operating characteristic analysis produced an area under the curve of 0.988, demonstrating strong discrimination between legitimate and malicious traffic. Batch-wise evaluation further demonstrated stable classification performance, with accuracy ranging from 98.54% to 99.00%. Cryptographic evaluation showed that ECC encryption and decryption times increased gradually with data size, reaching 0.286 s and 0.221 s, respectively, for 20 MB data. Overall, the results demonstrate the potential of the proposed framework to provide integrated data confidentiality and intelligent threat detection for secure cloud computing environments.

Keywords

Cloud computing, Elliptic curve cryptography, Support vector machine, Cloud security, Intrusion detection, Data encryption.

Cite this article

Khan MI, Patel MK. Enhancing cloud data security with ECC-SVM: a machine learning-driven framework for encryption and threat detection. ACCENTS Transactions on Information Security. 2025;10(37):1-11. DOI : 10.19101/TIS.2024.935004

References
[1]
Ali T, Al-Khalidi M, Al-Zaidi R. Information security risk assessment methods in cloud computing: comprehensive review. Journal of Computer Information Systems. 2026; 66(1):123-50.
[2]
Zou Y. Design and implementation of a cloud computing security assessment model based on hierarchical analysis and fuzzy comprehensive evaluation. Procedia Computer Science. 2026; 282:2233-40.
[3]
Morchid A, Alblushi IG, Khalid HM, Alami RE, Sitaraman SR, Muyeen SM. High-technology agriculture system to enhance food security: a concept of smart irrigation system using Internet of Things and cloud computing. Journal of the Saudi Society of Agricultural Sciences. 2026; 25(3):42.
[4]
Chaurasia BK, Shukla MM, Vishwakarma V, Tiwari B. Transformative impact of edge computing with 6G network using cloud computing. Journal of Cloud Computing. 2026.
[5]
Gurung D, Rashid SZ, Ul AZ, Rath S. Cloud revolution: tracing the origins and rise of cloud computing. In 16th annual computing and communication workshop and conference (CCWC) 2026 (pp. 1100-6). IEEE.
[6]
Pizzato F, Bringhenti D, Sisto R, Valenza F. Intent-driven network isolation for the cloud computing continuum. Journal of Network and Systems Management. 2026; 34(1):6.
[7]
Deng Q, Goudarzi M, Shaghaghi A, Sarvi M, Buyya R. A secure framework for containerized IoT applications in integrated edge–cloud computing environments. Future Generation Computer Systems. 2026; 174:108010.
[8]
Alam M, Shahid M, Mustajab S, Sajid M. LSDMA: levelized security driven deadline constrained multiple workflow allocation model in cloud computing. Future Generation Computer Systems. 2026; 174:107941.
[9]
Valivarthi DT, Peddi S, Narla S. Cloud computing with artificial intelligence techniques: Hybrid FA-CNN and DE-ELM approaches for enhanced disease detection in healthcare systems. Cognita. 2026; 1(1):23-40.
[10]
Kaur B, Gupta S. A novel and optimized framework to assess the impact of intrusions in autonomous cloud computing environment. International Journal of Information Technology. 2026:1-8.
[11]
Gautam A, Sharma S. Quantum curve cryptography-enabled cloud computing, network security, and computation analysis for Industry 5.0. In innovating cost-efficient and scalable business models in the digital Era 2026 (pp. 401-32). IGI Global Scientific Publishing.
[12]
Ch R, Naresh B, Batra I, Malik A, Grandhe P. Revolutionizing healthcare with cloud computing: Opportunities, challenges, and innovations for secure patient-centered systems. Analyzing Mobile Apps Using Smart Assessment Methodology. 2026:95-112.
[13]
Motwani D, Chitre V, Bhosale V, Nashipudmath MM, Shinde S, Nerurkar A. Implementing secure elliptic curve cryptography for blockchain-based financial transactions. Journal of Discrete Mathematical Sciences and Cryptography. 2026; 29(2-A):617-27.
[14]
Laiphrakpam DS, Sharma R, Patgiri R, Khoirom MS. Cryptanalysis and improvement of an image cryptosystem based on hill cipher combined with elliptic curve cryptography. Multimedia Tools and Applications. 2026; 85(2):162.
[15]
Ibor AE, Ashishie DU, Odey JA, Ele BI, Ojugo AA. Can we unchain the blockchain? a review of attacks on elliptic curve cryptography and countermeasures. Security and Privacy. 2026; 9(4):e70234.
[16]
Gudivada D, Rao MK. Behavioural biometric authentication and secure key agreement for smart networks using machine learning and lightweight elliptic curve cryptography. Discover Computing. 2026; 29(1):514.
[17]
Wankhede H, Nasre V, Kailuke A, Gupta K, Kakde P, Keswani V, et al. Impacting financial predictions & security through quantum support vector machines, quantum approximate optimization, and quantum-resistant lattice cryptography. Iranian Journal of Science and Technology, Transactions of Electrical Engineering. 2026:1-27.
[18]
Jayakanthan N, Shafiy OM, Shaik S, Nithya K, Visveswaran A, Sadat QT. Enhancement of network security based on modified lightweight elliptic curve cryptography with optimization algorithm. In 2nd international conference on sustainable computing and integrated communication in changing landscape of AI (ICSCAI) 2026 (pp. 1-5). IEEE.
[19]
Kim B, Lee S. A unified framework for cognition-driven security policy generation in cloud-native environments. Available at SSRN 5916085. 2026.
[20]
Selvaraj S, Ponnuviji NP. A hybrid intrusion detection model for cloud security: feature selection, classification, and authentication using TFSEA framework. Computers & Security. 2026:105022.
[21]
Li X, Song Q, Lv H, Wang M, Xia H. Collusion-resistant data security search protocol for cloud-edge-end collaboration with formal verification. Computer Networks. 2026:112589.
[22]
Qashou A, Bahar N, Mohamed H. Empirical validation of a data security risks model for implementing mobile cloud computing in higher education. Computers & Security. 2026:104977.
[23]
Shahrour G, Junejo A, Ahmad AA. Security and privacy challenges in healthcare IoT systems with cloud, edge, and fog computing: a systematic literature review. Computer Science Review. 2026; 62:101005.
[24]
Wang B, Cao J, Wang C, Huang W, Song Y. Security-aware task scheduling for improving the user satisfaction in hybrid clouds. Journal of Parallel and Distributed Computing. 2026: 105252.
[25]
Pathak M, Mishra KN, Singh SP, Mishra A. A hybrid machine learning and cryptography-based predictive probability model for enhancing security and privacy in cloud-IoT environment. Computers & Security. 2026: 104870.
[26]
Zarin AT, Radee O, Azad MS, Mahdy MR. QuCloud: enhancing cloud storage security by combining quantum key distribution, post-quantum cryptography, and custom proxy re-encryption. Journal of Information Security and Applications. 2026; 99:104449.
[27]
Yan G, Huang Q, Jian R. Sublinear generic Boolean keyword search with enhanced security in cloud-assisted IoMT. Journal of Information Security and Applications. 2026; 99:104416.
[28]
Karatza HD. Scheduling mixed workloads with security requirements in a cloud-fog-mist computing environment. Simulation Modelling Practice and Theory. 2025:103231.