Google Cloud Blog Note

Google Cloud Blog

cloud.google.com/blog is the official blog of Google Cloud. It provides news, updates, and insights on Google Cloud's products and services, as well as trends and innovations in the cloud computing industry. The blog features articles written by Google Cloud experts, engineers, and thought leaders, covering a wide range of topics such as artificial intelligence, machine learning, data analytics, security, and more. The articles often include technical tutorials, case studies, and best practices, making the blog a valuable resource for developers, IT professionals, and business leaders who use or are interested in Google Cloud. The blog is well-organized, with articles categorized by topic, product, and industry. Visitors can browse the latest articles, search for specific topics, or subscribe to the blog's RSS feed to stay up-to-date with the latest news and updates. Some of the key features of the blog include: - In-depth articles on Google Cloud products and services, such as Google Cloud Platform, Google Cloud Storage, and Google Cloud AI Platform - Technical tutorials and guides on how to use Google Cloud services - Case studies and success stories from Google Cloud customers - Insights and analysis on industry trends and innovations - News and updates on Google Cloud's partnerships and collaborations - Interviews with Google Cloud experts and thought leaders Overall, the Google Cloud blog is a valuable resource for anyone interested in cloud computing, artificial intelligence, and related technologies.

Thread Of Notes

Google Cloud's Knowledge Catalog is enhancing its context engine for agents with new preview features. Self-learning context enrichment analyzes agent and user interactions to automatically identify and update missing or outdated business context. Knowledge Studio provides a visual context graph and conversational exploration for managing this context. This addresses the challenge of manually curating context as the number of agents scales. Gemini-powered enrichment extracts verified definitions from various business documents and code repositories. These definitions are then organized into governed, reusable context sets for agents. This improves agent accuracy, reduces latency, and token usage significantly. Enrichment capabilities connect to both structured and unstructured data sources. Proposed context updates are presented with source citations and confidence scores for review. User and agent interactions pinpoint areas where agents struggle, enabling automatic fixes. Automation can be configured with confidence score thresholds for auto-publishing changes. Context sets allow for curated, domain-specific subsets of the broader context graph. These sets enforce data governance and fine-grained access control. Knowledge Studio transforms Knowledge Catalog into an interactive command center for context management. It offers visual navigation, conversational exploration, and version control for changes. These new features aim to keep context current and improve agent performance across organizations.
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The software industry faces periodic architectural shifts, with warehouse-scale computing and containers emerging after the web scale boom, and TPUs developed due to deep learning demands. Google also introduced Titanium for hardware-rooted security guarantees. A new fundamental shift is the rise of agentic AI, where AI agents take action beyond just answering questions. These agents are increasingly writing code, running tools, and orchestrating workflows, rapidly consuming compute and storage resources. Traditional compute primitives are insufficient for running millions of these agents cost-effectively and with low latency. This necessitates a new form factor, leading to the development of Agent Compute Engine, a Google Cloud service providing hardware-isolated microVMs for AI agents.Agent Compute Engine aims to bridge the gap between the isolation of virtual machines and the speed and density of containers. Existing VMs are too slow to start and stop for frequently pausing and resuming agents. Containers, while fast, lack the required isolation and kernel-level control for certain agent tasks. The system needs to efficiently manage agents, understanding when they are active or idle to avoid resource waste and preserve working state. Agent Compute Engine is designed as a unified platform offering a microVM abstraction for persistent, hardware-isolated computing.This new architecture supports diverse workloads, including interactive agent interfaces, autonomous software engineering, large-scale evaluations, and lightweight sandboxes for Google services. Security is paramount, with a defense-in-depth approach anchored in hardware-rooted trust via Titan silicon and Titanium IPUs. Host integrity is maintained through stateless, immutable appliances, and agentic sessions are isolated within single-tenant microVMs. A zero-secrets architecture prevents sensitive credentials from residing within the sandbox, ensuring security even if the guest OS is compromised.Networking is restricted, with all traffic flowing through a mediated proxy that enforces policy-driven outbound brokering. End-to-end encryption is implemented for both data in transit and at rest. Automated patching, runtime detection, and continuous security measures are in place, alongside strict separation between the agent harness and sandbox. The system operates under the assumption that the sandbox is controlled by an attacker, thus holding no credentials and having no direct network access. Governance is handled through first-class agent identities, managed via a registry and an authentication manager that acts as a vault and broker for agents.
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Google Cloud has launched Confidential G4 instances, a significant advancement in securing artificial intelligence workloads. These instances, powered by NVIDIA RTX PRO 6000 Blackwell Server edition GPUs, offer confidential computing capabilities. This means sensitive data and intellectual property processed by autonomous agents are protected in real time. The technology integrates NVIDIA Confidential Computing into Google Cloud's AI Hypercomputer, ensuring privacy during computation without sacrificing performance. Confidential G4 instances are now generally available across numerous zones, supporting various consumption models on Compute Engine VMs and GKE nodes. Support for Confidential Space, enabling secure multi-party data sharing, is also rolling out soon. Confidential G4 instances utilize hardware-based security features like non-exportable keys, remote attestation, and memory encryption. This allows organizations to meet strict regulatory requirements and maintain cost-efficiency. The solution provides end-to-end confidentiality, isolating data and model parameters from host administrators and cloud providers. Verifiable cryptographic trust is established through hardware-rooted remote attestation, ensuring integrity before sensitive operations commence. Crucially, no code refactoring is necessary for deployment, simplifying the adoption process. Performance testing indicates that Confidential G4 instances offer throughput comparable to standard G4 instances, with minimal performance degradation. This advancement empowers enterprises to scale AI deployments securely, maintaining control, confidentiality, and accountability over their valuable AI assets.
Enterprises are transitioning to complex agentic AI workflows, demanding infrastructure that offers both raw performance and essential flexibility. This new era requires the ability to run diverse models for specific tasks and maintain data and operational sovereignty. Google Cloud, in collaboration with NVIDIA, is introducing advancements to meet these challenges. New A5X instances, powered by NVIDIA's Vera Rubin platform, provide accelerated computing and expanded global availability. Virgo Network enhances scale-out capabilities, enabling massive GPU clusters across sites. Storage solutions now include Managed Lustre with NVIDIA GPUDirect Storage for direct GPU data access. Advanced KV caching on A5X instances improves long-context memory for agentic workloads. Google Kubernetes Engine (GKE) will orchestrate these A5X instances, simplifying distributed AI operations. Support for open models like Gemma and Mistral is expanding within Google Cloud's Sovereign Cloud portfolio. NVIDIA's Nemotron models and Cosmos simulations are integrated with Gemini for customization and virtual world generation. Sovereign AI capabilities are being extended to on-premises environments via Google Distributed Cloud. This includes NVIDIA Blackwell Ultra GPUs and Gemini Flash models for air-gapped deployments. Confidential Computing in the public cloud is enhanced with Confidential G4 instances and Confidential Bare Metal options. These innovations aim to protect sensitive intellectual property and user data through hardware-enforced security. The co-engineered Google Cloud AI Hypercomputer with NVIDIA's full-stack platform offers a unified foundation for scaling AI.
PyTorch Conference 2026 introduced new products and integrations for running PyTorch on Google Cloud and other infrastructures. TorchTPU, the native PyTorch stack for Google TPUs, is now open source on GitHub. This allows seamless training, serving, and deployment of models on TPUs using familiar tools like vLLM, SGLang, and Hugging Face. The integration provides users with a choice of computing options including TPUs, GPUs, and CPUs with a consistent operational model. TorchTPU enables running existing PyTorch workloads on TPUs with minimal code changes and familiar APIs. It supports eager mode debugging and optimizes TPU utilization and memory through torch.compile. Hugging Face models now run natively on TorchTPU, simplifying deployment with device_map="tpu". Inference optimization is achieved through TorchTPU integrations with serving engines and fleet routing across TPUs and GPUs. vLLM provides high-throughput serving and memory efficiency on TPUs with features like continuous batching and quantization. SGLang accelerates agentic and structured workloads on TPUs by reusing KV cache across requests. llm-d 1.0, a CNCF Sandbox project, connects PyTorch serving engines with Kubernetes for distributed LLM inference. TorchTitan offers PyTorch-native distributed high-performance training at scale, validated on thousands of TPUs. VeRL, a popular RL framework, now includes a TPU backend for scalable post-training and reinforcement learning workloads. Ray has added native TorchTPU support, enabling orchestration of AI pipelines across various accelerators within a single workflow. LiteRT, Google's on-device AI inference solution, now joins the PyTorch ecosystem, allowing PyTorch models to run on diverse devices. The TPU agent suite is also in early preview on GitHub to automate onboarding, diagnostics, and performance tuning for PyTorch models on TPUs.
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Google is hosting a summit to discuss how public sector missions can achieve ambitious goals through technology. Public sector leaders face increasing demands for speed and efficiency amidst complexity and limited resources. While many agencies have adopted AI agents, widespread adoption is hindered by legacy data silos and integration challenges. Google aims to simplify these processes with secure, scalable technology.The company is introducing the Gemini agent, a universal assistant for various work tasks that integrates with existing systems and adheres to organizational security controls. Gemini for government services is a new platform designed for public sector security and workflow requirements, enabling secure connections to existing systems without data migration. Wiz agents are now available within Wiz for Gov, a FedRAMP certified environment, to accelerate remediation for critical priorities like Post-Quantum Cryptography. Wiz also offers no-cost security assessments through its Scan for Good program.Enterprise search capabilities are being brought to Gemini on Google Distributed Cloud for air-gapped environments, allowing classified data analysis without internet compromise. Partnerships with organizations like America.gov, SUNY, the Department of Energy, the U.S. Army, and the Department of War are demonstrating how Google's technology drives mission impact. These collaborations focus on simplifying federal service access, advancing research, strengthening national security, and improving logistics. Case Western Reserve University is using Gemini to enhance learning and research. Google emphasizes its role as a mission partner in the agentic era, encouraging public sector entities to build and create impact together.
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Agentic systems are increasingly valuable for enterprises, but organizations with strict data sovereignty mandates face challenges deploying them. Sending sensitive data to public clouds is often not an option, and building private AI stacks is time-consuming. Google Distributed Cloud (GDC) air-gapped innovations now address this by enabling deployment directly where sensitive data resides. Key advancements include enterprise search powered by Gemini, support for open-weight models, turnkey ISV applications, and accelerated infrastructure. GDC aims to transform isolated infrastructure into a modern agentic innovation platform with flexibility from foundational and open models. Gemini on GDC enterprise search offers a conversational interface for querying vast data repositories within sovereign perimeters. It supports multimodal data like text, audio, and video with low-latency inference and built-in retrieval-augmented generation. GDC air-gapped now generally available supports Gemini 3.5 Flash and leading open models like Gemma and Mistral, offering workload choice. The platform features a new, elevated Infrastructure-as-a-Service stack for running AI and traditional workloads together. This includes A4 Ultra machine types with NVIDIA Blackwell GPUs for high-performance agentic infrastructure and resilient, managed networking solutions. An expanding ISV partner ecosystem brings familiar software like Teradata, Solo.io, and Mattermost to run natively on GDC. These integrations allow organizations to leverage AI without compromising data privacy or leaving familiar tools behind, transforming sensitive data into actionable insights within compliant, secure, and controlled air-gapped environments.
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BigQuery now supports Python UDF logging, allowing developers to emit structured logs directly into Cloud Logging using Python's standard logging library. This new feature facilitates operational monitoring and debugging without external plugins, particularly useful for building fault-tolerant data pipelines. The workflow involves inline validation within the Python UDF, real-time alerting via Cloud Monitoring on log-based metrics, and SQL triage/replay of quarantined data.A practical example demonstrates an e-commerce event ingestion pipeline. The generic Python UDF parses JSON, logs diagnostic information for invalid records, and returns NULL to prevent query failure. Logging is enabled via SET @@udf.properties in the BigQuery session.Real-time alerts can be configured in Cloud Logging using a specific log filter for UDF errors. For forensic analysis, BigQuery Log Analytics over the linked _AllLogs view allows data engineers to query quarantined payloads directly with SQL. Because raw payloads are preserved, problematic records can be recovered and re-ingested into the production table, ensuring no data loss.Beyond data validation, this logging feature supports use cases like shadow execution for safe migrations, PII redaction auditing, and detecting ML inference drift. Best practices include enabling debug output, avoiding sensitive data in logs, and managing logging costs by selective logging. This integration streamlines debugging and enhances data pipeline resilience within BigQuery.
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The automotive industry is rapidly transitioning to software-defined vehicles, moving core functions from physical hardware to digital systems. While infotainment and high-performance computing systems are often developed using cloud-native methods, many crucial microchips and control modules remain hardwired. This creates a significant bottleneck, making updates and expansion difficult post-manufacturing and pushing costly defect resolution to the end of development cycles.Google, through partnerships like with RemotiveLabs and its Horizon platform, aims to address these inefficiencies. Android Automotive OS (AAOS) already leverages virtual testing environments like Cuttlefish on Arm-based Google Cloud instances for seamless cockpit software development. RemotiveTopology extends this virtual model across the entire vehicle's electrical and electronic (E/E) architecture.By converting vehicle networks into "vehicle-as-code," RemotiveTopology creates a full, simulated E/E architecture that connects AAOS to other vehicle systems. This allows developers to spin up a complete virtual vehicle on demand, enabling continuous signal and cross-domain visibility. The system, built on standard Linux tooling, runs on various platforms, from laptops to Google Cloud.This approach facilitates early, rather than late, integration of all onboard systems within a virtual environment before physical hardware is involved. Critical, multi-domain interactions, such as ADAS events appearing in the infotainment cluster, can be tested continuously from the start. This early integration significantly reduces the likelihood and cost of discovering defects later in the development process.The ultimate goal is to enable scalable software development for even the smallest vehicle components, bridging the gap to fully software-defined vehicles. Google Cloud's Arm-based infrastructure, including Axion's bare-metal C4A instances, ensures parity between cloud-developed software and actual vehicle control modules. This holistic system allows for the first time, full vehicle system development and integration testing in the cloud, directly transferable to physical vehicles.The benefits are substantial, including over 10x faster integration cycles, as measured in early customer engagements. Virtual systems are crucial for keeping pace with AI-assisted workflows, which generate, test, and refine vehicle software rapidly. RemotiveTopology makes this architecture accessible, offering an open-source simplified vehicle on GitHub for immediate use without new third-party tooling.Manufacturers can leverage existing toolchains and easily integrate RemotiveTopology into Arm-based Google Cloud environments. For those currently limiting virtual development to the cockpit, it's time to expand to the entire vehicle in the cloud through this innovative approach.
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Modern AI agents function as simple dispatchers, quickly processing prompts and API calls. However, biotechnology tasks like protein folding and compound screening are complex, sustained simulations, unlike fast API lookups. Standard AI paradigms fail with these demanding workflows due to timeouts and IP exposure risks. Building enterprise-grade R&D agents requires a new approach, moving beyond monolithic assistants. This involves a three-layer architecture separating cognitive orchestration, computational execution, and enterprise governance.The execution layer handles heavy scientific computations, with workloads run on dedicated GPUs or managed cloud endpoints. To mitigate GPU cold-start penalties, maintaining warm pools and preloading weights are crucial for responsiveness. Containerized NVIDIA Inference Microservices (NIMs) ensure rapid prototyping while maintaining strict data isolation for proprietary chemical information. The cognitive layer orchestrates agentic workflows using a hierarchical multi-agent structure.Key orchestration patterns include in-process native agent handoffs for speed and passing bulky payloads by reference via cloud storage to keep context windows compact. Workflow logic is decoupled from biochemical reasoning, assigning planning to general LLMs and domain expertise to specialized models. Evaluation incorporates context-driven assessment rather than rigid cutoffs, allowing for dynamic risk tolerance in drug candidate assessment.Performance best practices emphasize optimizing I/O and payload sizes over raw token speed. Aligning client-side concurrency with backend mechanics and avoiding deep tool chains are also vital. Passing heavy payloads by reference and streaming intermediate stage completions improve visibility and efficiency. Wrapping end-to-end pipelines behind a single, clean interface simplifies compute.The Gemini platform provides enterprise governance with agent identity, an agent gateway for secure ingress/egress, and an agent registry for approved tools. Model Armor inspects prompts and payloads for security. Asymmetric autonomy balances reversible automated operations with gated irreversible ones requiring human sign-off. This decoupled architecture ensures scalable, secure, and auditable research systems for future complex simulations.
The real challenge in building agentic systems is not construction but measurement. Evaluation engineering is crucial for creating trustworthy AI systems by implementing systematic, repeatable tests. Developing the Google Cloud Developer plugin provided real-world insights into these evaluation principles.One key lesson is to grade execution steps rather than just the final summary. Evaluating the raw tool-call trajectory, verifying commands executed, validated, and scoped, is more accurate than relying on an LLM judge to score the agent's text reply. Another lesson emphasizes designing evaluations for asynchronous operations. Preserving turn structure in telemetry is vital to understand concurrent tool dispatch and avoid issues where guidance is processed after actions are taken.It is also important to test live runs and "dry runs" side-by-side. Live runs verify actual execution and safety, while plan-only runs reveal the model's reasoning without permission errors. The delta between these two can expose significant cognitive flaws. Finally, using "golden sets" as durable baselines is recommended. These sets represent ideal paths curated by experts and serve as a safety net against model and harness evolution.These evaluation suites are essential for enterprise-grade agents that handle multi-step interactions and permissions. Building and shipping a reliable agent requires more work in evaluations to ensure expected behavior. The durability of a stress-tested eval suite ultimately outlasts model churn.
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The Temporal execution platform, crucial for distributed systems and AI agents, faces challenges in worker deployment and scaling. Traditional methods often involve managing Kubernetes or VMs, leading to continuous costs and scaling lags. Temporal Cloud now offers Serverless Workers on Cloud Run, addressing these issues. These workers are deployed as a "worker pool" that Temporal automatically scales, even down to zero when idle. This eliminates the need for managing clusters or autoscalers, keeping worker code unchanged.Cloud Run worker pools are designed for continuous background tasks, aligning with how Temporal workers operate. Temporal Cloud monitors task queues and adjusts the worker pool size via the Cloud Run Admin API. Each build version of a worker runs in its own pool, allowing older versions to scale to zero until needed. This technology enables autoscaled agentic workers for AI, handles long-running workflows efficiently, and supports bursty batch processing with cost savings.Previously, running Temporal workers on Cloud Run required workarounds for port listeners and instance billing. Worker pools remove these, offering no endpoint management and steady CPU at a lower cost. Scaling doesn't cause revision churn, and Temporal manages growth by monitoring task backlog latency. Scale-in is more conservative to ensure availability, with configurable graceful shutdown for workers.Temporal Serverless Workers on Cloud Run also enforce Temporal Worker Versioning, a critical feature for stateful, deterministic workflows. Deploying new code involves creating distinct worker pools for each version, preventing mid-run errors. Workflows remain on their original version or can be configured for automatic upgrades, depending on the workflow type. Setting up involves containerizing workers, deploying them as a Cloud Run worker pool, granting Temporal Cloud permissions, and creating a Worker Deployment Version. This new feature is currently in preview.
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BigQuery generative AI functions allow users to integrate large language models directly into SQL queries for tasks like classification and sentiment analysis. These functions are billed per token, making proactive budget management crucial for large-scale use. Google Cloud has introduced token-based cost management for these functions through daily quotas managed via IAM.Four daily quotas exist: AI input tokens per day, AI input tokens per day per user, AI output tokens per day, and AI output tokens per day per user. These quotas apply globally and cover specific generative AI functions in BigQuery, excluding embedding functions. Administrators can view and adjust quotas directly in the Google Cloud console or programmatically through APIs.To manage costs effectively, users can lower quotas immediately or request increases, which are often auto-approved. Monitoring usage on the Quotas & System Limits page helps detect spikes and right-size budgets. Token quotas act as a preventive, AI-specific guardrail, distinct from broader Cloud Billing spend caps.Enforcement involves stopping work when quotas are reached, either rejecting queries upfront or halting LLM calls mid-query. The AI.COUNT_TOKENS function aids in estimating input token usage without incurring extra costs. By understanding token pricing and estimating usage, administrators can set appropriate quota values to align with budget goals.Best practices include starting with per-user quotas, measuring input data with AI.COUNT_TOKENS, being mindful of the higher cost of output tokens, and iteratively adjusting limits based on observed usage. Implementing these token-based guardrails provides cost predictability for generative AI in BigQuery.
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A decade after the original release, Google is publishing a completely rewritten second edition of their Site Reliability Engineering book. This update is necessary due to profound shifts in the computing landscape, including the rise of AI, microservices, and multi-cloud. The first edition focused on early cloud adoption and monolithic architectures, whereas the new edition addresses the challenges of maintaining reliability in complex, modern, globally scaled systems. Practices like SLOs, monitoring, automation, and reliability testing have matured significantly over the past ten years. For instance, SLOs have evolved from basic availability metrics to user-centric, multi-tiered systems with automated enforcement. Monitoring has transformed from static dashboards to leveraging OpenTelemetry and distributed tracing for quick root cause analysis.Automation has moved from custom scripts to declarative infrastructure as code and internal developer platforms. Reliability testing now includes continuous resilience checks and live production canary verification. Capacity management has shifted to dynamic auto-scaling and cloud FinOps alignment. Organizational models for SRE have also diversified beyond dedicated teams. The new edition also delves into the dual role of SRE and AI, explaining how SRE supports AI infrastructure and how AI enhances operational reliability. It covers operating large language models and using AI tools to improve incident triage and postmortem generation. Despite technological advancements, the core principles of SRE and the importance of a reliability-focused culture remain unchanged. This rewritten edition is intended as a definitive roadmap for the next era of production systems.
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Business intelligence users often struggle with standardized dashboards and limited chart options, requiring cumbersome CSV exports for deeper analysis. Designing custom dashboards that meet specific needs, like executive briefings or customer portals, is also challenging with typical grid-based tools. Previously, this led to building custom applications, a process now faster with AI but still hindered by production deployment issues. These issues include a lack of governed data, row-level security, and a clear security review path. To address this, Looker is launching Looker Data Apps, which combine AI's speed with Looker's governance framework.Data apps are AI-generated, interactive web applications hosted within Looker, designed for specific operational workflows. They offer bespoke layouts, allow user input for scenario testing and simulations, and connect analysis to execution tasks like updating records or dispatching events. These apps are built using AI developer tools grounded in Looker's semantic layer. They expand upon dashboards by enabling active execution and custom web components, unlike dashboards' aggregate visibility and standardized charts.Looker Data Apps are grounded in governed data, ensuring accuracy and consistency through the semantic layer. They transform analysis into action with customizable, multi-page web app experiences. Designed for enterprises, these apps inherit existing semantic models, row-level security, and access controls. They offer zero-code deployment of agent-generated applications, with no runtime token costs for end-user interactions. Deploying data apps is as simple as embedding a dashboard, allowing them to be integrated into external portals seamlessly. Looker Data Apps enable the transition from prototype to production-grade tools in minutes, bridging the gap between basic dashboards and complex custom systems.
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Payment delays prompted a compliance team to suspect fraud, requiring a data scientist to identify transactions for investigation. This process involves ingesting and cleaning raw transaction logs, training a fraud detection model, scoring new transactions, and automating the workflow. The Data Agent Kit within the Antigravity IDE simplifies this end-to-end process.The kit offers MCP tools and Markdown skills to connect agents to Google Cloud data services and provides guidance for data stack interactions. It also enables users to manage Google's Agentic Data Cloud directly from their IDE. Initially, transaction logs are loaded into BigQuery using Spark via an agent-generated notebook.Following data loading, a dbt project is created for cleaning and enriching the BigQuery data, including handling duplicates and joining with reference information. This dbt project also includes a uniqueness test for transactions. Next, a training notebook is generated to build a Random Forest fraud detection model using historical data with known fraud labels.The trained model is then used in an inference notebook to score unlabeled transactions. Transactions with a fraud probability exceeding a specified threshold, like 50%, are sent to a Spanner table for review. This process creates a shortlist of transactions for the compliance team to investigate.Finally, Managed Service for Apache Airflow is utilized to automate the entire workflow, ensuring it runs daily. The agent generates an Airflow DAG definition and deployment configuration, orchestrating the data loading, transformation, and scoring steps. This automated pipeline continuously populates the review queue with potentially fraudulent transactions.
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Alteryx One Live Query and Google Cloud BigQuery offer a powerful solution for handling complex data. This integration minimizes data movement by executing transformations natively within BigQuery, a concept called SQL pushdown. Live Query provides a no-code, browser-based interface for building data pipelines. It seamlessly orchestrates Google's AI models, like Gemini, to extract intelligence from unstructured documents such as PDFs. This approach is particularly beneficial for finance and operations teams dealing with inconsistent vendor invoices. Traditionally, invoice processing involved manual effort or fragmented tools, leading to errors and delays. The Alteryx and BigQuery integration automates this entire lifecycle, from extraction to standardization, directly within BigQuery. This ensures data governance and security by keeping sensitive information within the warehouse. The workflow begins with extracting structured fields from PDFs using AI models. Results are then standardized and compared against existing historical invoice data in BigQuery. This reconciliation process quickly identifies potential duplicates and enables faster exception handling. The system applies business rules to flag further anomalies, leading to governed operational outputs. This Google Cloud-native pattern keeps data resident in BigQuery, leveraging its security and control features. The browser serves as the authoring layer, Alteryx One Platform Services manage coordination, and Google Cloud acts as the governed data and execution layer.
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Google has announced Gemini, a new universal agent designed to enhance efficiency and growth for small and midsize businesses. Gemini acts as a personal assistant and team member, integrating with existing tools and data to handle tasks from answering questions to writing code. It connects to popular SMB platforms like Asana, Salesforce, and Slack, learning and improving with use. Gemini offers model choice, allowing it to leverage the best model for each job, optimizing accuracy and cost. The agent is accessible across web, mobile, and desktop applications, ensuring widespread usability. Cost controls are integrated to manage expenses effectively, with features like multi-model orchestration and spend caps. Early access customers are already reporting significant benefits, such as reduced troubleshooting times and automated project management. Examples include Aerotech improving production capacity and Angelus streamlining R&D. EdSpan Global automates learning object standardization, while Eficode enhances customer support. KLog.co drastically cuts data entry errors and increases document processing. Koufu automates sales reporting, and La Maison du Whisky creates marketing copy. NEEOH standardizes AI usage for campaign generation, and Quadrant Health Group automates back-office tasks. Salt Productions and Pinch Creative consolidate fragmented files for easier access. Sep 2 deploys AI agents for threat monitoring, and Stratagem automates administrative workflows. Sunhouse improves access to archived design work, saving valuable time. Google also offers free training programs and a partner network to support SMB adoption of AI.
Capital markets demand predictable performance and low latency, facing limitations with traditional data centers. Google Cloud has launched its Ultra Low Latency (ULL) Solution to address these challenges. This solution combines the speed of co-location with cloud scalability and automation. It offers ultra-low latency networking and agility for high-frequency trading workflows in the cloud. The ULL Solution is built on three key pillars: hardware-level networking for data distribution, advanced networking observability for analysis, and deterministic high-performance compute for execution. These pillars provide capabilities like bare metal performance, high-performance storage, and physical traffic isolation. Hardware-accelerated multicast distribution bypasses traditional virtual switches for direct market data streaming. Accelerated packet processing and precision timing with UTC synchronization ensure accurate and predictable data handling. Built-in telemetry provides continuous low-latency packet capture for compliance and analytics without performance impact. The U4 machine family, featuring U4P, U4C, and U4S series, powers the ULL Solution with dedicated bare metal and high-performance VMs. This architecture enables core exchange systems and trading strategies to run in the cloud with the required speed and consistency. Storage options include fast local Titanium SSDs for logging and scalable Hyperdisk for archives. The ULL Solution is available in select Google Cloud regions, empowering financial markets with cloud benefits for today and future AI-driven trading.
Google proudly announces the release of MCP Toolbox Java SDK version 1.0, enhancing agent orchestration for enterprise Java. This SDK provides type-safe agent management, crucial for mission-critical AI deployments due to Java's concurrency and state management capabilities. The Model Context Protocol (MCP) acts as a universal interface, simplifying integration by decoupling AI models from data sources. This eliminates the need for numerous custom connections, reducing security risks and maintenance overhead.Key improvements in Java SDK v1.0 include transport layer abstraction for flexible network implementations and decoupled client authentication for enhanced security compliance. Native support for default parameters reduces payload sizes, while pruning bound parameters prevents sensitive data exposure to LLMs. Standardized version selection and robust session tracking ensure protocol consistency. Developers can easily attach custom headers to outgoing requests for added metadata.A real-world example demonstrates an autonomous transit concierge application using AlloyDB and Spring Boot. This agent answers complex travel queries by integrating unstructured pet policies with structured schedules and booking functionalities. The MCP Toolbox maps natural language intents to secure SQL queries via a tools.yaml configuration.Stateful agent architecture is achieved using Spring Boot and LangChain4j, managing conversational memory within HTTP sessions. This architecture allows for clean separation of concerns, with a declarative agent interface and a tool execution service. The SDK simplifies session management, defines agent personas, and enables type-safe tool execution.Authentication is secured by default using Application Default Credentials (ADC), eliminating hard-coded keys. Runtime warnings alert developers to potential credential exposure over plaintext HTTP. The decoupled nature of MCP Toolbox and the Spring Boot agent allows independent scaling on Google Cloud Run. Developers can easily add the SDK dependency to their Maven or Gradle projects. Resources like the GitHub repository and demo application are available for getting started.