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

The demand for AI infrastructure, particularly accelerators, is extremely high, leading to shortages and fragmented compute capacity across global data centers. Modern AI workloads, with large context windows, consume accelerator memory rapidly, exacerbating utilization issues. To address this, a layered routing architecture was developed to treat globally scattered capacity as a single pool. This system features a multi-cluster GKE Inference Gateway for global traffic distribution and an LLM-d router for memory-aware scheduling. The architecture is designed to be agnostic to runtime, model, and accelerator types. Benchmarks on a large multi-region GKE deployment demonstrated near-linear throughput scaling and a 99.9% success rate. The GKE Inference Gateway added less than 1% overhead, delivering 99.5% of direct cluster call throughput. Traffic is routed based on live application signals, specifically KV-cache token utilization, enabling the system to intelligently spill traffic between regions. This memory-aware routing ensures efficient utilization by preventing accelerators from being stranded due to memory saturation. The payoff is maximized "intelligence per dollar" by achieving near-proportional performance gains from added accelerators and avoiding wasted capital. Key lessons emphasize the importance of smart load balancing, considering agentic workload memory bottlenecks, adapting to AI traffic latency, integrating routing with native serving patterns, and opting for open, portable stacks.
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The increasing demand for compute power due to AI development is straining data processing and Apache Spark pipelines, leading to availability constraints. Google's Managed Service for Apache Spark offers flexible VMs to address this by allowing clusters to use a ranked list of acceptable machine families. This approach ensures pipelines remain operational even during capacity stockouts, which occur when demand exceeds available capacity for specific machine types. Flexible VMs enable multi-family blending, mixing nodes across different machine generations and types. They also support mixed storage, dynamically adapting to the host family's disk types, and provide comprehensive cluster coverage for all node types. A successful implementation requires careful ranking of preferred machine families to mitigate stockout risks without manual intervention. An example tiering strategy shows how to prioritize machine families and storage recommendations for production pipelines. For legacy workloads, a tiered strategy helps transition to newer, more available architectures. Adopting modern storage like Hyperdisk Balanced can unlock maximum availability with newer instance families. Key considerations include ensuring sufficient quotas for all specified machine types and leveraging Compute flexible Committed Use Discounts for cost savings. Performance can vary between machine generations and storage types, necessitating workload testing. Additional recommendations for improving resource availability include implementing AutoZone, using smaller machine shapes, deploying autoscaling, configuring partial cluster creation, and establishing regional fallbacks. By utilizing flexible VMs and these strategies, users can protect Spark workloads from hardware shortages and ensure critical pipelines continue running.
Enterprises struggle with generative AI adoption because developers face setup issues and return to their regular tasks, preventing successful implementation. Traditional enablement methods like week-long bootcamps are ineffective given developers' limited learning time. Google Cloud Consulting advocates for a four-pillar approach to AI enablement, focusing on quick, daily practice. This involves breaking down learning into short, single-skill objectives instead of lengthy training sessions. Pre-configured browser-based sandboxes eliminate setup hurdles, allowing immediate coding. Incorporating daily streaks and team challenges transforms practice into a routine workday activity. Each exercise should result in a functional component, cumulatively building a shared code library. The Advent of Agents program demonstrated this by offering daily, five-minute, browser-based exercises without setup, leading to significant developer participation and successful agent component creation. This data suggests developers will engage with learning when it fits their existing schedules, provided setup and scheduling barriers are removed. Effective AI enablement requires consistent practice and tools that integrate with regular work, not disrupt it. Google Cloud offers "Build with Gemini" workshops and the "Gemini Enterprise Agent Ready" (GEAR) program to facilitate this micro-enablement. By starting small with daily habits and ready-to-use tools, organizations can effectively build AI capabilities.
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Pine59 manages large data pipelines for location intelligence, producing metrics hourly to quarterly. Their Daily Foot Traffic metric processes up to 14 million locations per job, running on Google Cloud with BigQuery and Managed Service for Apache Airflow orchestrated by Airflow 3. To handle increasing data volumes and machine learning workloads, Pine59 modernized their monorepo containing hundreds of Directed Acyclic Graphs (DAGs). This transition significantly improved their MLOps capabilities, developer workflow, and pipeline speed.They stress-tested production workloads against the new Managed Airflow (Gen 3) architecture and observed immediate improvements in processing speed, task scheduling, and stability. The migration optimized MLOps by integrating a dedicated Google Kubernetes Engine cluster for model inference, separating orchestration from heavy ML execution. Airflow 3's improved developer workflow and user interface were leveraged through custom plugins like "BigQuery Auto-linkify" and "DAG Run Configuration Search" for faster debugging and troubleshooting. A compatibility shim layer streamlined operator migration between Airflow versions.Quantifiable results include dramatically reduced queue latency for DAG runs, with tasks starting almost immediately. The Daily Foot Traffic pipeline's completion time decreased by nearly 32%, from 38 minutes to under 26 minutes. Pine59 now runs all production workloads on their Gen 3 instance, establishing a faster, more resilient foundation for future data and AI pipelines. This move allowed their engineering team to focus more on value delivery than infrastructure management.
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Orange, a French telecom giant, successfully tackles cloud spend challenges through "FinOps Clean Days." These events involve engineering teams pausing their regular tasks to collaboratively optimize cloud costs, often with a competitive leaderboard and rewards. Experienced practitioners mentor newcomers, fostering learning through practical application and demonstrating tangible results to sponsors. This gamified approach has significantly boosted the engagement and satisfaction of Orange's FinOps community, achieving a high Net Promoter Score.The company's success is rooted in two core FinOps principles: shared responsibility for cloud costs and the necessity of communication for driving change. Orange emphasizes that FinOps, like cloud security, involves every stakeholder within a project. To facilitate this, they established a FinOps Community of Practice, utilizing standardized communication channels and providing actionable updates to ensure ongoing value.The concept of Clean Days arose from understanding the operational realities of agile teams, where optimization often gets sidelined by delivery priorities. By creating dedicated, collaborative, and enjoyable time for these activities, Orange overcomes this common hurdle. This strategy aligns with McKinsey's framework for change management, addressing conviction, formal mechanisms, role modeling, and talent development. Gamification and visible successes build conviction and role modeling, while peer-to-peer guidance develops skills.Extending this engagement beyond a core group of 100 people requires leveraging AI agents. These agents can handle time-intensive tasks, reduce friction for engineers, and address persistent challenges like awareness gaps, bandwidth limitations, or complexity in reporting. The strategic adoption of AI agents should begin with informing and suggesting capabilities, progressively moving towards agents that execute changes once trust is established and operational risks are managed.Building these AI solutions can be done with varying levels of coding, such as the no-code Gemini Enterprise App or the more advanced Gemini Enterprise Agent Platform for developers. Ultimately, effective Cloud FinOps is shifting from centralized reporting to decentralized action, driven by a strong cultural foundation augmented by AI agents. Orange's achievement underscores the importance of cultivating this community-driven approach as the crucial first step.
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Enterprise applications often face storage I/O and memory access bottlenecks, leading to over-provisioning of compute cores and increased software licensing costs. Google Cloud's new M4N machine series in Compute Engine is designed to address these challenges. These instances are purpose-built for I/O intensive, high-memory workloads, offering a significant advantage over competitors. M4N provides the highest per-core IOPS and throughput for high-memory instances. It also offers over a 20% total cost of ownership reduction for Oracle databases.The M4N instances feature higher memory ratios, up to 26:1, and can scale up to 6TB of memory. Powered by Intel's 5th Gen Xeon Scalable processors and Google Cloud's custom Titanium offload architecture, they deliver exceptional host storage performance. When paired with Hyperdisk Extreme, M4N instances achieve up to 25 GiB/s of aggregate storage performance and 1 million IOPS. This new offering complements existing memory-optimized families, specifically targeting storage and network bottlenecks.M4N is ideal for mission-critical databases, generative AI data layers, enterprise healthcare, and real-time analytics. Its high memory-to-core ratio allows for rapid data ingestion and zero-stall backup cycles. The instances also support sub-millisecond similarity searches for massive vector indexes and 400 Gbps network bandwidth. This capability is crucial for distributed model retrieval in generative AI.For enterprise healthcare and ERP systems, M4N ensures sustained I/O headroom, preventing latency spikes during peak usage. This is vital for applications like Epic Systems and SAP S/4HANA. Real-time analytics and Electronic Design Automation benefit from high memory capacity and maximum storage bandwidth for loading massive datasets. This allows for efficient checkpointing and in-memory processing.The M4N instances significantly optimize Oracle licensing costs by enabling right-sizing of infrastructure. Enterprises can reduce over-provisioning of cores while still meeting performance density requirements. This leads to a substantial TCO reduction compared to other hyperscalers. With more memory per core, larger portions of databases can reside in the system global area, reducing expensive I/O operations.Early customer experiences highlight M4N's role in transforming workloads by delivering high throughput across various instance sizes. The new compute platform demonstrates potential for scalable, resilient, and performant enterprise Oracle deployments. M4N bridges the gap between large memory footprints and extreme I/O performance, minimizing bottlenecks without additional infrastructure. This makes it a powerful solution for demanding data environments. The M4N instances are now available in select regions globally.
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SeaVerse is a gaming startup building a platform for playable AI experiences created by users from simple prompts. Users can play games, chat with AI characters, or create their own interactive apps and visual patterns. The platform prioritizes a fast and easy creative loop where ideas can be quickly refined and published without traditional coding. To achieve this, SeaVerse required robust infrastructure capable of running dynamic, multi-tenant AI workloads with strong isolation and low latency. They adopted Google Kubernetes Engine (GKE) and GKE Agent Sandbox to meet these demands. GKE provided a managed foundation for Kubernetes operations, freeing their engineers from cluster maintenance. GKE Agent Sandbox offered deep kernel-level isolation for dynamic sandbox workloads using technologies like Kata Containers and gVisor. This solution enabled SeaVerse to achieve strong security boundaries without compromising user experience speed. The platform now boasts improved observability into sandbox performance, allowing for faster issue resolution. This enhanced visibility transformed previously opaque sandbox failures into transparent processes. Furthermore, GKE Agent Sandbox provided cost flexibility, enabling SeaVerse to better match resources to workloads and reduce infrastructure costs by up to 60%. The platform now supports persistent storage for evolving creations, enhancing the creator experience. SeaVerse aims to make AI experiences immediate, expressive, and connected, with GKE and GKE Agent Sandbox providing a strong foundation for future growth and innovation.
The telecommunications industry is transitioning to autonomous network operations, driven by the increasing complexity of modern networks. Traditional manual methods and basic machine learning are insufficient for automating these sophisticated systems. AI agents offer reasoning capabilities but struggle with the massive scale of network data. To bridge this gap, Graph Neural Networks (GNNs) are being integrated with AI agents to process large-scale temporal and relational data. This combination allows for advanced diagnostics like root cause analysis and capacity planning, along with reasoning and action execution. Google Cloud's Autonomous Network Operations framework uses a three-component approach: Data, ML, and AI. The foundation is a network digital twin, a dynamic graph representation of the live network, hosted on Google Cloud's Spanner Graph for scalability and multi-model support. The ML layer utilizes Distributed Graph Flow (DGF), an open-source Python library for managing GNN lifecycles, enabling predictive insights. DGF simplifies GNN model development, allowing for applications like anomaly detection, root cause analysis, and predictive maintenance. It also facilitates "what-if" analyses by simulating network changes and their impacts. A five-step process outlines implementing root cause analysis using DGF and GNNs, involving connecting to the digital twin, training a prediction model, and deploying it for real-time inference. This GNN-powered evolution promises shorter outage times, optimized capacity, and improved customer experience.
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Cloud outages can significantly disrupt services, ranging from minor to widespread impacts. A structured workflow of Verify, Investigate, Report, Resolve, and Review is recommended for handling these incidents. Proactive preparation, including designing for failure and practicing response steps, is crucial. This guide focuses on foundational best practices for reliability incident handling, excluding security-specific measures. Advanced techniques involving AI agents are also emerging in Site Reliability Engineering. The initial step is preparation, encompassing design for automated responses, ensuring readily available and replicated data, developing clear playbooks with defined roles, and conducting regular training drills.The next phase is verification, where detected disruptions must be attributed to either Google, the user, or a third party. Checking Personalized Service Health and the public Cloud Service Health dashboard helps determine if Google has declared an incident. Investigating involves analyzing metrics and logs to pinpoint the cause, especially if Google hasn't declared an incident, and considering recent changes. Reporting to Google is necessary if services are failing despite green health dashboards, with appropriate priority setting and detailed case submission.Resolution involves communicating with stakeholders, failing over to secondary systems if possible, and identifying workarounds. Companies must also consider regulatory reporting requirements. After stability is restored, a blameless post-mortem analysis is essential to identify areas for improvement in playbooks, tools, and training. This review process helps refine incident response capabilities for future disruptions.
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Google Cloud Spanner, a globally consistent relational database, has updated its transaction handling for larger, more complex operations. Previously, Spanner limited total transaction modifications to 80,000 "mutation mods." This limit, calculated as rows multiplied by columns plus indexes, could be reached by evolving applications. The new flexibility shifts this 80,000 mutation mod limit from the entire transaction to individual Data Manipulation Language (DML) statements. This means a single transaction can now contain multiple DML statements, provided each statement adheres to its own 80,000 mod limit. This allows developers to group DML statements logically by business requirements without artificial splitting. The change is backward compatible with existing Spanner client libraries, requiring no application code updates. However, developers should be mindful that larger transactions hold locks longer, potentially increasing aborts. The 80,000 mod limit applies individually to DML statements but still applies to the entire set of mutations in a single commit call using the Mutation API. Developers can monitor the total mods via mutation_count in CommitStats. Single DML statements exceeding 80,000 mods will still error, and other transaction limits like byte size remain active. Best practices include monitoring CommitStats and optimizing large operations. Spanner remains a reliable choice for scalable, always-on operational applications, now offering enhanced flexibility for developers.
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Telecommunications company KDDI faced a challenge balancing quality and speed in their generative AI application, Buffmee. Buffmee is designed to help users grow by providing information grounded in over 100 diverse sources, ensuring reliability and preventing hallucinations. Initially, KDDI struggled with latency issues and the need to process a vast amount of proprietary content. To overcome these obstacles, they implemented an automated evaluation framework and performance optimization techniques.This systematic approach led to significant improvements, reducing total application response latency by 38% and improving Time To First Token (TTFT) by nearly 18%. KDDI utilized the Gemini Enterprise Agent Platform Evaluation Service for automated testing, replacing manual efforts with a data-driven process that improved groundedness scores by 25%. They adopted a binary evaluation system, strategic content sampling based on format and media composition, and calibrated thresholds based on product judgment.Bottlenecks were identified and resolved using BigQuery Agent Analytics and the Agent Development Kit (ADK) log analysis agent, which helped pinpoint prompt bloat and skill division issues. Large system prompts were modularized into ADK Skills to avoid attention drift and optimize response times. These techniques allowed KDDI to create a RAG system where ingested content instantly functioned, providing users with a safe and personalized way to explore media. The success of Buffmee demonstrates the importance of systematic evaluation and performance analysis for reliable generative AI applications.
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Adversarial actors are rapidly evolving their techniques, moving from basic AI prompting to sophisticated agentic AI workflows and automation. This evolution significantly reduces response windows for defenders. In Q2 2026, threat actors executed a mass credential harvesting operation using AI in under six hours after compromising a cloud resource. Furthermore, threat actors are increasingly targeting AI assets, including proprietary models, source code, and cloud compute resources for espionage, extortion, and theft.Software supply chain risks are expanding due to the integration of AI-assisted coding tools and open-source software. Adversaries are actively targeting developers, AI coding assistants, and AI security scanners to compromise open-source software. Proprietary AI intellectual property, such as models and code, is also becoming a prime target across various sectors. The shift towards agentic AI and automation enables adversaries to autonomously manage complex attack pipelines and resolve operational errors.AI serves as a force multiplier across the entire attack lifecycle, from reconnaissance to malware obfuscation and post-exploitation activities. Threat actors are also experimenting with AI to scale information operations campaigns. To bypass access costs and circumvent security measures, adversaries are procuring illicit accounts and hijacking enterprise cloud infrastructure for unauthorized AI computations. This intensified threat landscape necessitates robust defense strategies, including proactive model safeguards, specialized threat intelligence, and targeted containment. Google is implementing these multifaceted defenses to protect its customers and infrastructure. These advancements highlight a critical need for enhanced security measures in the rapidly evolving AI landscape.
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Yahoo, a global media and technology company, faced challenges with brittle data pipelines due to fixed virtual machine (VM) configurations in their high-speed analytics workloads. When regional capacity constraints occurred, cluster provisioning in Managed Service for Apache Spark could stall, delaying critical data pipelines. To address this, Yahoo implemented flexible VMs in their Managed Service for Apache Spark clusters. This allows the system to automatically absorb resource fluctuations by defining a ranked list of acceptable VM shapes. Enabling Auto-Zone placement helps the system search for capacity across an entire region, maintaining pipeline execution without manual intervention. This optimization is part of Yahoo's broader data modernization journey, migrating on-premises big data estates to Google Cloud. Flexible configurations enhance cluster creation success by selecting from a ranked list when a preferred VM type is unavailable. They also improve regional resource utilization by searching the entire region for capacity. Configuring flexible clusters requires enabling auto-zone placement and maintaining core and memory symmetry across VM shapes. It's also crucial to align component properties like YARN and Spark resource allocations. Yahoo successfully reduced cluster provisioning failures caused by regional stockouts by 85% by implementing this flexible VM approach. This ensures continuous workload execution and prevents downstream processing delays across their massive data pipelines.
Google's Finance Engineering team needed to modernize their legacy data layer with Spanner, a globally distributed and strongly consistent database. Migrating without downtime presented a significant challenge, as manually rewriting dual-write logic across numerous Data Access Objects (DAOs) was slow and error-prone. To overcome this, they developed an automated refactoring pipeline using Antigravity CLI in headless mode. This approach accelerated their migration velocity and ensured data parity in staging environments. The migration involved three phases: historical data backfill, dual-write/dual-read implementation, and automated API verification. At their scale, manual implementation of each DAO's unique requirements, like MutationConverters and rollback logic, was impractical, estimated to take months. They standardized their DAO refactoring pattern by decoupling Spanner schema translation into dedicated MutationConverter units. This created a deterministic contract for an AI coding agent to generate code reliably. Antigravity CLI's headless mode allowed for repeatable refactoring across many files without human prompts. Deterministic prompts, batch execution with automated verification, and overnight execution at scale significantly reduced migration effort. This resulted in a highly reliable data migration with sustained data fidelity and allowed engineers to focus on higher-value tasks. Key takeaways emphasize decoupling schema translation, moving from interactive chat to headless automation, and using build systems as guardrails for AI code generation.
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Gartner has recognized Google as a Leader in Strategic Cloud Platform Services for the ninth consecutive year, citing its Completeness of Vision. Google Cloud's dedication to customer success in building and scaling demanding workloads is highlighted. The company emphasizes accelerating customer journeys into the agentic era with a dynamic infrastructure and a unified platform for apps, data, and agents. Three key advantages are presented: a co-designed technology stack, a dynamic infrastructure for secure scaling, and digital sovereignty offering genuine choice. Google Cloud is committed to facilitating customer innovation and scale through flexibility, performance, and control. The first design principle is accelerating AI with a co-designed, open stack from silicon to applications, featuring custom hardware like TPUs and Axion processors. This approach maximizes operational efficiency without vendor lock-in, embracing open source and standards. The second principle focuses on scaling quickly and economically with a dynamic infrastructure that automates capacity management and modernizes applications. This enables organizations to securely connect data, apps, and agents for optimized global experiences. The third principle champions digital sovereignty, allowing organizations to retain data control and comply with regulations through flexible deployment options. These options include data sovereignty with boundary controls, local compliance via partner-operated clouds, and on-premises flexibility with Google Distributed Cloud.
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Mandiant is tracking a financially motivated threat actor named BREEZE COMET, formerly known as UNC5669, which has been actively compromising Brazilian financial organizations since 2024. This group specializes in manipulating payment systems and banking software to conduct fraudulent transfers. BREEZE COMET employs a customized malware suite and utilizes compromised trusted websites for initial access and command and control. Their operations have expanded to include leveraging generative AI for malware development, potentially increasing their operational sophistication. The group targets entities with access to the National Financial System Network and requires mTLS credentials for authenticated fraudulent transactions. BREEZE COMET uses various methods for initial compromise, including voice phishing and exploiting compromised government websites. They also gain footholds by connecting rogue hardware devices directly into retail networks. To escalate privileges, they utilize reconnaissance tools and custom malware, specifically targeting cloud and development environments for credentials and API keys. BREEZE COMET moves laterally through networks using hijacked service accounts and specialized routing malware like COBALTSPIN. They maintain persistence through custom backdoors such as LIGHTPAINT, MILDFROST, KICKPLATE, and BOATBEAM, often disabling endpoint defenses like Windows Defender. After compromising financial applications, BREEZE COMET executes mass fraudulent transactions and then clears event logs to cover their tracks. Their evolving tactics represent a significant shift in Latin American cybercrime, moving from retail fraud to direct intrusions into core financial infrastructure. BREEZE COMET's use of AI demonstrates its impact on enhancing threat actor capabilities, speed, and scale.
BigQuery Graph, now generally available, integrates native graph analytics directly into the data warehouse, eliminating silos and operational overhead. This new capability allows users to perform complex graph queries alongside traditional SQL using the ISO-standard GQL. It leverages BigQuery's petabyte-scale processing, existing security measures, and integrates with BigQuery ML and AI functions. Data teams across various industries, including cybersecurity, finance, retail, and IT, are adopting BigQuery Graph. Use cases include threat and fraud detection, supply chain optimization, customer 360, knowledge graph creation, and network management.Recent enhancements include a faster and broader graph engine, offering improved GQL execution speeds and expressiveness. The new borderless Graph Lakehouse feature enables BigQuery Graph to span data residing in native BigQuery tables and open Iceberg tables across different clouds without data movement. This allows agents to traverse virtual knowledge graphs composed of data from multiple sources, like a support agent querying customer and product information across Google Cloud and AWS. Conversational analytics enables natural language interaction with graphs, reducing ambiguity and hallucination for AI agents. Furthermore, agents can now build graphs by translating datasets into nodes and edges, with capabilities for authoring and verification. The context graph feature provides an auditable memory for AI agents, capturing their reasoning and decisions as a queryable trace within BigQuery Graph. This ensures explainability and forms the basis for improving future agent actions.
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Google Cloud is democratizing data pipeline orchestration with the new Orchestration Pipelines framework, introduced at Google Cloud NEXT ’26. This framework is made accessible through the Data Agent Kit, a free, open-source collection of data engineering tools. The kit integrates into popular IDEs and CLIs, providing a Data Engineering tab and an agentic skill for Airflow DAGs. It allows data professionals to author, deploy, and troubleshoot production-grade Airflow DAGs using natural language. The framework streamlines MLOps by decoupling orchestration logic from compute execution, using a declarative YAML DSL. This enables all data personas to bypass complex Python Airflow boilerplate. A practical example demonstrates building an MLOps architecture for proactive supply chain management. This architecture predicts transit times using BigQuery, Managed Service for Apache Spark, Gemini Enterprise Agent Platform, and dbt. The Data Agent Kit generates PySpark scripts and declarative YAML pipelines from natural language prompts. Three distinct pipelines are demonstrated: a training engine, a daily inference pipeline, and an automated evaluation and branching pipeline. Deployment is automated through CI/CD, with the Data Agent Kit generating necessary workflows. For day-two operations, the kit offers real-time monitoring and agentic troubleshooting within the IDE. It diagnoses failures, identifies root causes, and suggests inline fixes for issues. Orchestration Pipelines and the Data Agent Kit significantly reduce the time and complexity of building and maintaining MLOps architectures.
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This Cloud CISO Perspectives for August 2026, featuring Chris Sistrunk and Stephanie Kiel, addresses critical security issues in the water sector. Threat actors are increasingly targeting critical infrastructure, especially water utilities' internet-connected programmable logic controllers. While manual overrides have historically provided a safety net, fundamental digital security is paramount in the AI era. A threat-informed, risk-managed response is recommended for water and wastewater utilities. Key actions include inventorying assets, implementing basic security hygiene, maintaining robust backups, and utilizing network segmentation and multifactor authentication. Emergency planning should integrate cyber incident responses into existing all-hazards systems, and third-party vendor access must be secured rigorously. IT and OT leaders must collaborate to build unified governance frameworks to enhance cyber-physical system resilience. AI-augmented security approaches are crucial for modernizing defenses and acting as a force multiplier for lean security teams. The "Mandiant Operational Technology (OT) Theory of 99" highlights that most compromises occur in computer workstations and servers, offering a defender's advantage through AI to protect intermediary infrastructure. Integrating AI tools strategically, with human oversight, can shift the balance in network security towards defenders. Protecting water systems is a public safety imperative, leading to increased government action and initiatives like the pilot program launched by the Office of the National Cyber Director and the State of Texas.
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