Abhijeet Rajwade

Abhijeet Rajwade

Abhijeet Rajwade is a seasoned professional with 18 years of experience spanning AI Infrastructure, Data Engineering. He is passionate about building innovative solutions, particularly in observability, generative AI, analytics, and business strategy. Currently, he serves as a Senior Customer Engineer for Google Cloud in the New York region, where he leads key growth initiatives. Known for his strategic thinking and technical expertise, Abhijeet has been a leader in navigating major technology shifts, including cloud adoption, emerging development methodologies like Design Thinking, and advancements in AI, ML, and generative AI-driven automation.
Authored Publications
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    Preview abstract As artificial intelligence (AI) transitions from experimental pilot programs to mission-critical enterprise operations, traditional software-based security frameworks are proving insufficient against sophisticated infrastructure-level threats. This article introduces the concept of Silicon-Level Sovereignty, a first-principles approach to digital trust that anchors security in the physical hardware rather than the software stack. We examine the technical architecture of Hardware Root of Trust (RoT), specifically focusing on the roles of Trusted Platform Modules (TPMs) and Secure Enclaves in modern AI accelerators such as GPUs and TPUs. By leveraging cryptographic remote attestation, organizations can move from a model of assumed software integrity to one of verifiable hardware-level proof. The discussion provides a comparative analysis of industry-leading implementations, including NVIDIA’s Hopper architecture [1, 2], Google’s Titan-backed TPU v5p [3, 4], and Microsoft’s Azure Boost Cerberus system [5, 6], alongside the cluster-scale trust challenges presented by ultra-large systems like xAI’s Colossus [7]. The article concludes that Silicon-Level Sovereignty is no longer an optional security feature but a foundational requirement for establishing the integrity, privacy, and multi-tenant isolation necessary for high-stakes AI workloads. View details
    Preview abstract As big data becomes the cornerstone of strategic decision-making in both commercial and public sectors, a significant "AI adoption gap" has emerged. Despite the vast potential of machine learning (ML), many organizations are sidelined by high entry barriers, including the steep learning curve of specialized programming languages (Python, R), prohibitive costs of premium analytics tools, and complex system integration challenges. This article explores how SQL-accessible ML models serve as a critical bridge to mitigate these barriers. By enabling data analysts to invoke artificial intelligence directly within existing SQL interfaces, this approach democratizes machine learning, leverages existing data ecosystems, and ensures high scalability without the need for costly data migration. The study further details the operational advantages of SQL-ML integration—such as enhanced data security, rapid prototyping, and cost efficiency—while providing a forward-looking analysis of the field. Future trajectories discussed include the evolution of real-time processing, deeper cloud integration, and the transition toward autonomous, self-optimizing data models. Ultimately, the article posits that SQL-accessible ML represents a paradigm shift toward making advanced AI universally accessible, allowing institutions to fully realize the value of their big data assets. View details
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