Privacy-Preserving AI for Enterprise Data Collaboration through Federated Cloud Computing Architectures
DOI:
https://doi.org/10.64235/rasmzw59Keywords:
Privacy-Preserving AI, Federated Learning, Enterprise Data Collaboration, Cloud Computing, Federated Cloud Architecture, Data Privacy, Secure Aggregation, Differential Privacy, Artificial Intelligence, Distributed Machine Learning, Enterprise Security, Confidential ComputingAbstract
Enterprise organizations increasingly depend on data-driven artificial intelligence to improve decision-making, automation,
forecasting, customer services, fraud detection, healthcare analytics, and operational efficiency. However, valuable
enterprise data are frequently distributed across departments, business units, geographical locations, cloud providers,
and organizational boundaries. Conventional centralized AI approaches require organizations to transfer data to a common
repository, creating substantial privacy, security, governance, regulatory, and ownership concerns. Privacy-preserving
AI provides an alternative by enabling organizations to collaboratively train or use AI models without directly sharing
sensitive raw datasets. Federated learning is particularly relevant because model training can occur locally while only
selected model parameters, updates, or privacy-protected information are communicated to a coordinating infrastructure.
When implemented through federated cloud computing architectures, this approach can provide scalable computational
resources, distributed orchestration, secure communication, and flexible collaboration among enterprise participants.
Nevertheless, federated AI does not automatically guarantee privacy because model updates may reveal information,
participants may behave maliciously, and centralized aggregation services can become attractive targets. Additional
techniques such as secure aggregation, differential privacy, encryption, trusted execution environments, access
control, and robust aggregation may therefore be necessary. This research examines a privacy-preserving AI framework
for enterprise data collaboration using federated cloud computing. The proposed methodology combines literature analysis,
requirements identification, architectural design, prototype development, experimental evaluation, privacy-risk assessment,
and expert validation. The study focuses on privacy, model utility, communication efficiency, scalability, security,
and regulatory considerations to establish an enterprise-oriented architecture capable of enabling collaborative intelligence
while reducing the need for direct exchange of sensitive organizational data.
References
Benchellal andLotfi Ben Othmane, F., Konapalli, Y., Tunc,
C., & Bhargava, B. (2026). Control-Aware Manipulation
of ArduPilot via Legitimate MAVLink Commands: Simulation
and Hardware Validation. arXiv e-prints, arXiv-
2606.
Anand, L. (2023). Machine Learning Enabled Enterprise Integration
through Intelligent API Governance Secure
Cloud Infrastructure and Automated Operations. International
Journal of Research and Applied Innovations,
6(3), 5972-5979.
Redouane, K., Veernapu, K., Konduru, S. C., Surendranath,
N., Fikri, Y., & Vaz, S. (2026, March). A Generative AIDriven
Cloud Framework for Predictive Optimization in
Smart Manufacturing Ecosystems. In 2026 Innovations
in Machine, Engineering, and Digital Conference
(IMED) (pp. 1-6). IEEE.
Sugumar, R. (2023, September). A Novel Approach to Diabetes
Risk Assessment Using Advanced Deep Neural
Networks and LSTM Networks. In 2023 International
Conference on Network, Multimedia and Information
Technology (NMITCON) (pp. 1-7). IEEE.
Sivakumer, D. (2024). The role of work models in influencing
organizational performance and employee wellbeing:
A comparative study on full-time, remote, and hybrid
paradigms. International Journal of Humanities
and Information Technology, 6(3), 198–216.
Gopinathan, V. R. (2025). Revolutionizing Revenue Cycle
Management in the US Healthcare System Using AIPowered
Cloud Solutions. International Journal of Computer
Technology and Electronics Communication, 8(4),
11106-11118.
Pokala, H. K. (2023). Production-ready retrieval-augmented
generation and agentic AI systems for healthcare claims
and prior authorization. International Journal of Intelligent
Systems and Applications in Engineering, 11(6s),
993-1002.
Ambati, K. C. (2026). AI-powered procurement architecture:
Streamlined UX, scalable ML pipelines, and enterprise
efficiency. International Journal of Research and Applied
Innovations (IJRAI), 9(1), 13681–13685.
Biswas, B., Faysal, S. M., Das, S., Hanif, A., Akter, T.,
Rashed, R. A. M., & Shamarukh, S. (2026). A Framework
for Agentic AI-Driven Financial Fraud Detection, Investigation,
and Risk Mitigation in Real-Time Payment Ecosystems.
International Journal of Computer Information
Systems and Industrial Management Applications,
18(3s), 1029-1040.
Rajula, A. (2024). Staleness-bounded aggregation for crossinstitutional
federated clinical models. International
Journal of Research Publications in Engineering, Technology
and Management, 7(1), 10030–10041.
Rohit Wadhwa. (2024). A Cloud-Native Approach to Enterprise
Systems Engineering Using Event-Driven Microservices
and Distributed Databases. International Journal
of Cloud Computing (IJCC), 2(1), 81–93. DOI:
https://doi.org/10.34218/IJCC_02_01_005
Raja, G. V. (2023). AI Driven Secure Intelligent Framework
for Fraud Detection Cybersecurity and Cloud Based Enterprise
Systems. International Journal of Advanced Research
in Computer Science & Technology (IJARCST),
6(5), 9068-9076.
Manda, P. (2023). Leveraging AI to Improve Performance
Tuning in Post-Migration Oracle Cloud Environments.
International Journal of Research Publications in Engineering,
Technology and Management (IJRPETM), 6(3),
8714-8725
Pareek, C. (2023). Unmasking bias: a framework for testing
and mitigating AI bias in insurance underwriting models.
J Artif Intell Mach Learn & Data Sci, 1(1), 1736-41.
Mathew, A. (2023). Sentinel AI: An Investigation into Robust
Threat Mitigation Strategies for Artificial Intelligence.
Educational Research (IJMCER), 5(5), 108-111.
Khanna, K., Bellundagi, M., & Kumar, S. (2026). AI-Driven
Transformation of Healthcare: From Predictive Analytics
to Personalized Medicine. Artificial Intelligence and
the Future of Disciplines, 1(1).
Ambalakannu, M. (2026). Building a unified benefits data
repository for real-time eligibility and enrollment processing.
International Journal of Engineering & Extended
Technologies Research (IJEETR), 8(2), 4770–4775.
Chaba, A. (2025). Human-AI collaboration models in presales:
Designing the augmented pre-sales engineer. International
Journal of Research and Applied Innovations(IJRAI), 8(4), 12736–12742.
Karnam, V. S. (2024). Adaptive and federated test automation
using AI in distributed multi-cloud and hybrid infrastructure
environments. International Journal of Future
Innovative Science and Technology (IJFIST), 7(4),
111–121
Narapareddy, V. S. R., & Yerramilli, S. K. (2021). Sustainable
IT operation system. International Journal of Engineering
Technology Research & Management, 5(10), 147–
155.
Cyril, H., & Poranki, U. (2026). Next-generation telecom
provisioning: AI-driven, cloud-native architectures for
autonomous networks. Notion Press
Gummadi, V. P. K. (2025). MuleSoft's Role in Advancing
Sustainable Digital Infrastructure: An Enterprise Integration
Perspective. Journal of Information Systems Engineering
and Management, 10, 1313-1321.
Sudhan, S. K. H. H., & Kumar, S. S. (2016). Gallant Use of
Cloud by a Novel Framework of Encrypted Biometric
Authentication and Multi Level Data Protection. Indian
Journal of Science and Technology, 9, 44.
Gummadi, V. P. K. (2025). MuleSoft's Role in Advancing
Sustainable Digital Infrastructure: An Enterprise Integration
Perspective. Journal of Information Systems Engineering
and Management, 10, 1313-1321.
Challa, R. (2026). Implementing clinical-grade data pipelines
for AI-driven diagnostics using HPC and highspeed
fabrics. International Journal of Computer Technology
and Electronics Communication, 9(2), 669–673.
Meesala, A. (2025). An enterprise-scale retrieval-augmented
generative intelligence platform for real-time financial
document synthesis and regulatory compliance automation.
International Journal of Artificial Intelligence, Data
Science, and Machine Learning, 6(1), 293-299.
Macha, Y., & Pulichikkunnu, S. K. (2024). A Survey of
DevOps Practices for Machine Learning and Artificial
Intelligence Workflows in Modern Software Development.
ESP J. Eng. Technol. Adv., 4(3), 200-208.
Raja, G. V. (2023). Modernizing enterprise systems using AI
with machine learning and cloud computing for intelligent
systems. International Journal of Future Innovative
Science and Technology (IJFIST), 6(6), 11713.
Suddala, V. R. A. K. (2026). Innovation and compliance at
global scale: Predictive analytics meets DevOps automation.
International Journal of Engineering & Extended
Technologies Research (IJEETR), 8(1), 239–245.
Juvvadi, R. R. (2025). Toward autonomous finance: A multiagent
system architecture for the self-driving financial
close. International Journal of Engineering & Extended
Technologies Research (IJEETR), 7(6), 11290–11295.
Vas, M. R. (2026). Accelerating Intelligent Enterprise Engineering
through Generative AI Secure Cloud Infrastructure
and Industrial Systems. International Journal of Science,
Research and Technology, 9(3), 855-862.
Kilari, K. K. (2026). Cybersecurity awareness and behavioral
outcomes in healthcare organizations. International
Journal of Drug Delivery Technology, 16(58s), 816–823.
Prasad, A. (2026, May). Accelerating HPC Performance:
Strategies for Overcoming Modern Challenges with
NVMe, InfiniBand, and RDMA. In 2026 International
Conference on Signal, Systems, and Computing for
Next-Gen Automation (ICSSCNA) (pp. 463-471). IEEE.
Downloads
Published
Issue
Section
License

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.

