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Introduction to Automotive Compliance

The automotive industry, with its intricate blend of mechanical and electronic systems, demands rigorous standards to ensure safety and reliability. Vignesh Radhakrishnan from Thoughtworks delivered an insightful presentation at OxidizeConf2024, exploring the concept of continuous compliance in automotive software development using Rust. He elucidated how the shift from mechanical to software-driven vehicles has amplified the need for robust compliance processes, particularly in adhering to standards like ISO 26262 and Automotive SPICE (ASPICE). These standards are pivotal in ensuring that automotive software meets stringent safety and quality requirements, safeguarding drivers and passengers alike.

Vignesh highlighted the transformation in the automotive landscape, where modern vehicles integrate complex software for features like adaptive headlights and reverse assist cameras. Unlike mechanical components with predictable failure patterns, software introduces variability that necessitates standardized compliance to maintain quality. The presentation underscored the challenges of traditional compliance methods, which are often manual, disconnected from development workflows, and conducted at the end of the development cycle, leading to inefficiencies and delayed feedback.

Continuous Compliance: A Paradigm Shift

Continuous compliance represents a transformative approach to integrating safety and quality assessments into the software development lifecycle. Vignesh emphasized that this practice involves embedding compliance checks within the development pipeline, allowing for immediate feedback on non-compliance issues. By maintaining documentation close to the code, such as requirements and test cases, developers can ensure traceability and accountability. This method not only streamlines the audit process but also reduces the mean-time-to-recovery when issues arise, enhancing overall efficiency.

The use of open-source tools like Sphinx, a Python documentation generator, was a focal point of Vignesh’s talk. Sphinx facilitates bidirectional traceability by linking requirements to code components, enabling automated generation of audit-ready documentation in HTML and PDF formats. Vignesh demonstrated a proof-of-concept telemetry project, showcasing how Rust’s cohesive toolchain, including Cargo and Clippy, integrates seamlessly with these tools to produce compliant software artifacts. This approach minimizes manual effort and ensures that compliance is maintained iteratively with every code commit.

Rust’s Role in Simplifying Compliance

Rust’s inherent features make it an ideal choice for automotive software development, particularly in achieving continuous compliance. Vignesh highlighted Rust’s robust toolchain, which includes tools like Cargo for building, testing, and formatting code. Unlike C or C++, where developers rely on disparate tools from multiple vendors, Rust offers a unified, developer-friendly environment. This cohesiveness simplifies the integration of compliance processes into continuous integration (CI) pipelines, as demonstrated in Vignesh’s example using CircleCI to automate compliance checks.

Moreover, Rust’s emphasis on safety and ownership models reduces common programming errors, aligning well with the stringent requirements of automotive standards. By leveraging Rust’s capabilities, developers can produce cleaner, more maintainable code that inherently supports compliance efforts. Vignesh’s example of generating traceability matrices and architectural diagrams using open-source tools like PlantUML further illustrated how Rust can enhance the compliance process, making it more accessible and cost-effective.

Practical Implementation and Benefits

In his demonstration, Vignesh showcased a practical implementation of continuous compliance using a telemetry project that streams data to AWS. By integrating Sphinx with Rust code, he illustrated how requirements, test cases, and architectural designs could be documented and linked automatically. This setup allows for real-time compliance assessments, ensuring that software remains audit-ready at all times. The use of open-source plugins and tools provides flexibility, enabling adaptation to various input sources like Jira, further streamlining the process.

The benefits of this approach are manifold. Continuous compliance fosters greater accountability within development teams, as non-compliance issues are identified early. It also enhances flexibility by allowing integration with existing project tools, reducing dependency on proprietary solutions. Vignesh cited the Ferrocene compiler as a real-world example, where similar open-source tools have been used to generate compliance artifacts, demonstrating the feasibility of this approach in large-scale projects.

Links:

• Thoughtworks company website

Mark Needham, from ClickHouse’s product team, and Dunith Danushka, a Senior Developer Advocate at Redpanda, presented an innovative experiment at DevoxxUK2024, showcasing an AI-driven co-pilot for live sports commentary. Inspired by the BBC’s live text commentary for sports like tennis and football, their solution automates repetitive summarization tasks, freeing human commentators to focus on nuanced insights. By integrating Redpanda for streaming, ClickHouse for analytics, and a large language model (LLM) for text generation, they demonstrate a scalable architecture for real-time commentary. Their talk details the technical blueprint, practical implementation, and broader applications, offering a compelling pattern for generative AI in streaming data contexts.

Real-Time Data Streaming with Redpanda

Dunith introduces Redpanda, a Kafka-compatible streaming platform written in C++ to maximize modern hardware efficiency. Unlike Kafka, Redpanda consolidates components like the broker, schema registry, and HTTP proxy into a single binary, simplifying deployment and management. Its web-based console and CLI (rpk) facilitate debugging and administration, such as creating topics and inspecting payloads. In their demo, Mark and Dunith simulate a tennis match by feeding JSON-formatted events into a Redpanda topic named “points.” These events, capturing match details like scores and players, are published at 20x speed using a Python script with the Twisted library. Redpanda’s ability to handle high-throughput streams—hundreds of thousands of messages per second—ensures robust real-time data ingestion, setting the stage for downstream processing.

Analytics with ClickHouse

Mark explains ClickHouse’s role as a column-oriented analytics database optimized for aggregation queries. Unlike row-oriented databases like PostgreSQL, ClickHouse stores columns contiguously, enabling rapid processing of operations like counts or averages. Its vectorized query execution processes column chunks in parallel, enhancing performance for analytics tasks. In the demo, events from Redpanda are ingested into ClickHouse via a Kafka engine table, which mirrors the “points” topic. A materialized view transforms incoming JSON data into a structured table, converting timestamps and storing match metadata. Mark also creates a “matches” table for historical context, demonstrating ClickHouse’s ability to ingest streaming data in real time without batch processing, a key feature for dynamic applications.

Generating Commentary with AI

The core innovation lies in generating human-like commentary using an LLM, specifically OpenAI’s model. Mark and Dunith design a Streamlit-based web application, dubbed the “Live Text Commentary Admin Center,” where commentators can manually input text or trigger AI-generated summaries. The application queries ClickHouse for recent events (e.g., the last minute or game) using SQL, converts results to JSON, and feeds them into the LLM with a prompt instructing it to write concise, present-tense summaries for tennis fans. For example, a query retrieving the last game’s events might yield, “Zverev and Alcaraz slug it out in an epic five-set showdown.” While effective with frontier models like GPT-4, smaller models like Llama 3 struggled, highlighting the need for robust LLMs. The generated text is published to a Redpanda “live_text” topic, enabling flexible consumption.

Broadcasting and Future Applications

To deliver commentary to end users, Mark and Dunith employ Server-Sent Events (SSE) via a FastAPI server, streaming Redpanda’s “live_text” topic to a Streamlit web app. This setup mirrors real-world applications like Wikipedia’s recent changes feed, ensuring low-latency updates. The demo showcases commentary appearing in real time, with potential extensions like tweeting updates or storing them in a data warehouse. Beyond sports, Dunith highlights the architecture’s versatility for domains like live auctions, traffic updates, or food delivery tracking (e.g., Uber Eats notifications). Future enhancements include fine-tuning smaller LLMs, integrating fine-grained statistics via text-to-SQL, or summarizing multiple matches for comprehensive coverage, demonstrating the pattern’s adaptability for real-time generative applications.

Links:

• Redpanda website
• ClickHouse website

Ines Montani, co-founder and CEO of Explosion AI, illuminated the pitfalls and potentials of natural language processing pipelines at DotAI 2024. As a core contributor to spaCy—an open-source NLP powerhouse—and Prodigy, a data annotation suite, Montani champions modular tools that blend human intuition with computational might. Her address critiqued the “prompts suffice” ethos, advocating hybrid architectures that fuse rules, examples, and generative flair for robust, production-viable solutions.

Harmonizing Paradigms for Enduring Intelligence

Montani traced instruction evolution: from rigid rules yielding brittle brittleness to supervised learning’s nuanced exemplars, now augmented by in-context prompts’ linguistic alchemy. Rules shine in clarity for novices, yet crumble under data flux; examples infuse domain savvy but demand curation toil; prompts democratize prototyping, yet hallucinate sans anchors.

The synergy? Layered pipelines where rules scaffold prompts, examples calibrate outputs, and LLMs infuse creativity. Montani showcased spaCy’s evolution: rule-based tokenizers ensure consistency, while generative components handle ambiguity, like entity resolution in noisy texts. This modularity mitigates drift, preserving fidelity across model swaps.

In industrial extraction—parsing resumes or contracts—Montani stressed data’s primacy: raw inputs reveal logic gaps, prompting refactorings that unearth “window-knocking machines”—flawed proxies mistaking correlation for causation. A chatbot querying calendars, she analogized, falters if oblivious to time zones; true utility demands holistic orchestration.

Fostering Modularity Amid Generative Hype

Montani cautioned against abstraction overload: leaky layers spawn brittle facades, where one-liners unravel on edge cases. Instead, embrace transparency—Prodigy’s active learning loops refine datasets iteratively, blending human oversight with AI proposals to curb over-reliance.

Retrieval-augmented generation (RAG) exemplifies balanced integration: LLMs query structured stores, yielding chat interfaces atop databases, supplanting clunky GUIs. Yet, Montani warned, context dictates efficacy; for analytical dives, raw views trump conversational veils.

Her ethos: interrogate intent—who wields the tool, what risks lurk? Surprise greets data dives, unveiling bespoke logics that generative magic alone can’t conjure. Efficiency, privacy, and modularity—spaCy’s hallmarks—thwart big-tech monoliths, empowering bespoke ingenuity.

In sum, Montani’s blueprint rejects compromise: generative AI amplifies, not supplants, principled engineering, birthing interfaces that endure and elevate.

Links:

• Explosion AI Website
• Ines Montani on LinkedIn

Maxime Thoonsen, CTO at Theodo, shared an exhilarating session at Forum PHP 2023, detailing his experience building two open-source personal AI applications using OpenAI’s technologies. As an organizer of the Generative AI Paris Meetup, Maxime’s passion for the PHP community and innovative AI solutions shone through. His step-by-step approach demystified AI development, encouraging PHP developers to explore generative AI by demonstrating its simplicity and potential through practical examples.

Understanding Generative AI’s Potential

Maxime began by introducing the capabilities of generative AI, emphasizing its accessibility for PHP developers. He explained how OpenAI’s APIs enable the creation of applications that process and generate human-like text. Drawing from his work at Theodo, Maxime showcased two personal AI projects, illustrating how they leverage semantic search and embeddings to deliver tailored responses. His enthusiasm for the community, where he began his speaking career, underscored the collaborative spirit driving AI innovation.

Practical AI Development with OpenAI

Delving into the technical details, Maxime walked the audience through building AI applications using OpenAI’s APIs. He highlighted the simplicity of implementing semantic search to retrieve relevant data from documents, advising against premature fine-tuning in favor of straightforward similarity searches. Responding to an audience question, Maxime noted the availability of open-source alternatives like Llama and Mistral, though he acknowledged OpenAI’s GPT-4 as a leader in embedding accuracy. His examples empowered developers to start building AI-driven features in their PHP projects.

Navigating the AI Ecosystem

Maxime concluded by addressing the rapidly evolving AI landscape, likening it to the proliferation of JavaScript frameworks. He emphasized the cost-effectiveness of smaller open-source models for specific use cases, while noting OpenAI’s edge in precision. His talk inspired developers to join communities like the Generative AI Paris Meetup to explore AI further, fostering a sense of curiosity and experimentation within the PHP ecosystem.

Links:

• Theodo website
• Generative AI Paris Meetup

Serverless computing has transformed application development by abstracting infrastructure management, offering fine-grained scaling, and billing only for execution time. At Spring I/O 2024 in Barcelona, Maximilian Schellhorn and Dennis Kieselhorst, AWS Solutions Architects, shared their expertise on building serverless Java applications with Spring. Their session explored running existing Spring Boot applications in serverless environments and developing event-driven applications using Spring Cloud Function, with a focus on performance optimizations and practical tooling.

The Serverless Paradigm

Maximilian began by contrasting traditional containerized applications with serverless architectures. Containers, while resource-efficient, require developers to manage orchestration, networking, and scaling. Serverless computing, exemplified by AWS Lambda, eliminates these responsibilities, allowing developers to focus on code. Maximilian highlighted four key promises: reduced operational overhead, automatic granular scaling, pay-per-use billing, and high availability. Unlike containers, which remain active and incur costs even when idle, serverless functions scale to zero, executing only in response to events like API requests or queue messages, optimizing cost and resource utilization.

Spring Cloud Function for Event-Driven Development

Spring Cloud Function simplifies serverless development by enabling developers to write event-driven applications as Java functions. Maximilian demonstrated how it leverages Spring Boot’s familiar features—autoconfiguration, dependency injection, and testing—while abstracting cloud-specific details. Functions receive event payloads (e.g., JSON from API Gateway or Kafka) and can convert them into POJOs, streamlining business logic implementation. The framework’s generic invoker supports function routing, allowing multiple functions within a single codebase, and enables local testing via HTTP endpoints. This portability ensures applications can target various serverless platforms without vendor lock-in, enhancing flexibility.

Adapting Existing Spring Applications

For teams with existing Spring Boot applications, Dennis introduced the AWS Serverless Java Container, an open-source library acting as an adapter to translate serverless events into Java Servlet requests. This allows REST controllers to function unchanged in a serverless environment. Version 2.0.2, released during the conference, supports Spring Boot 3 and integrates with Spring Cloud Function. Dennis emphasized its ease of use: add the library, configure a handler, and deploy. While this approach incurs some overhead compared to native functions, it enables rapid migration of legacy applications, preserving existing investments without requiring extensive rewrites.

Optimizing Performance with SnapStart and GraalVM

Performance, particularly cold start times, is a critical concern in serverless Java applications. Dennis addressed this by detailing AWS Lambda SnapStart, which snapshots the initialized JVM and micro-VM, reducing startup times by up to 80% without additional costs. SnapStart, integrated with Spring Boot 3.2’s CRaC (Coordinated Restore at Checkpoint) support, manages initialization hooks to handle resources like database connections. For further optimization, Maximilian discussed GraalVM native images, which compile Java code into binaries for faster startups and lower memory usage. However, GraalVM’s complexity and framework limitations make SnapStart the preferred starting point, with GraalVM reserved for extreme performance needs.

Practical Considerations and Tooling

Maximilian and Dennis stressed practical considerations, such as database connection management and observability. Serverless scaling can overwhelm traditional databases, necessitating connection pooling adjustments or proxies like AWS RDS Proxy. Observability in Lambda relies on a push model, integrating with tools like CloudWatch, X-Ray, or OpenTelemetry, though additional layers may impact performance. To aid adoption, they offered a Lambda Workshop and a Serverless Java Replatforming Guide, providing hands-on learning and written guidance. These resources, accessible via AWS accounts, empower developers to experiment and apply serverless principles effectively.

Links:

• Slides on SpeakerDeck
• AWS Serverless Java Container
• Lambda Workshop
• Serverless Java Replatforming Guide

Simon Ritter, Deputy CTO at Azul Systems, delivered a captivating session at DevoxxUK2024, exploring the transformative potential of Java’s Vector API. This innovative API, introduced as an incubator module in JDK 16 and now in its eighth iteration in JDK 23, empowers developers to harness Single Instruction Multiple Data (SIMD) instructions for parallel processing. By leveraging Advanced Vector Extensions (AVX) in modern processors, the Vector API enables efficient execution of numerically intensive operations, significantly boosting application performance. Simon’s talk navigates the intricacies of vector computations, contrasts them with traditional concurrency models, and demonstrates practical applications, offering developers a powerful tool to optimize Java applications.

Understanding Concurrency and Parallelism

Simon begins by clarifying the distinction between concurrency and parallelism, a common source of confusion. Concurrency involves tasks that overlap in execution time but may not run simultaneously, as the operating system may time-share a single CPU. Parallelism, however, ensures tasks execute simultaneously, leveraging multiple CPUs or cores. For instance, two users editing documents on separate machines achieve parallelism, while a single-core CPU running multiple tasks creates the illusion of parallelism through time-sharing. Java’s threading model, introduced in JDK 1.0, facilitates concurrency via the Thread class, but coordinating data sharing across threads remains challenging. Simon highlights how Java evolved with the concurrency utilities in JDK 5, the Fork/Join framework in JDK 7, and parallel streams in JDK 8, each simplifying concurrent programming while introducing trade-offs, such as non-deterministic results in parallel streams.

The Essence of Vector Processing

The Vector API, distinct from the legacy java.util.Vector class, enables true parallel processing within a single execution unit using SIMD instructions. Simon explains that vectors in mathematics represent sets of values, unlike scalars, and the Vector API applies this concept by storing multiple values in wide registers (e.g., 256-bit AVX2 registers). These registers, divided into lanes (e.g., eight 32-bit integers), allow a single operation, such as adding a constant, to process all lanes in one clock cycle. This contrasts with iterative loops, which process elements sequentially. Historical context reveals SIMD’s roots in 1960s supercomputers like the ILLIAC IV and Cray-1, with modern implementations in Intel’s MMX, SSE, and AVX instructions, culminating in AVX-512 with 512-bit registers. The Vector API abstracts these complexities, enabling developers to write cross-platform code without targeting specific microarchitectures.

Leveraging the Vector API

Simon illustrates the Vector API’s practical application through its core components: Vector, VectorSpecies, and VectorShape. The Vector class, parameterized by type (e.g., Integer), supports operations like addition and multiplication across all lanes. Subclasses like IntVector handle primitive types, offering methods like fromArray to populate vectors from arrays. VectorShape defines register sizes (64 to 512 bits or S_MAX for the largest available), ensuring portability across architectures like Intel and ARM. VectorSpecies combines type and shape, specifying, for example, an IntVector with eight lanes in a 256-bit register. Simon demonstrates a loop processing a million-element array, using VectorSpecies to calculate iterations based on lane count, and employs VectorMask to handle partial arrays, ensuring no side effects from unused lanes. This approach optimizes performance for numerically intensive tasks, such as matrix computations or data transformations.

Performance Insights and Trade-offs

The Vector API’s performance benefits shine in specific scenarios, particularly when autovectorization by the JIT compiler is insufficient. Simon references benchmarks from Tomas Zezula, showing that explicit Vector API usage outperforms autovectorization for small arrays (e.g., 64 elements) due to better register utilization. However, for larger arrays (e.g., 2 million elements), memory access latency—100+ cycles for RAM versus 3-5 for L1 cache—diminishes gains. Conditional operations, like adding only even-valued elements, further highlight the API’s value, as the C2 JIT compiler often fails to autovectorize such cases. Azul’s Falcon JIT compiler, based on LLVM, improves autovectorization, but explicit Vector API usage remains superior for complex operations. Simon emphasizes that while the API offers significant flexibility through masks and shuffles, its benefits wane with large datasets due to memory bottlenecks.

Links:

• Azul Systems website

Introduction

Vincent Warmerdam delves into the illusions often encountered in predictive modeling, highlighting the cognitive traps and statistical misconceptions that lead to overconfidence in model performance.

The Seduction of Spurious Correlations

Models often perform well on training data by exploiting noise rather than genuine signal. Vincent emphasizes critical thinking and statistical rigor to avoid being misled by deceptively strong results.

Building Robust Models

Using robust cross-validation, considering domain knowledge, and testing against out-of-sample data are vital strategies to counteract the illusion of predictive prowess.

Conclusion

Data science is not just coding and modeling — it requires constant skepticism, critical evaluation, and humility. Vincent reminds us to stay vigilant against the comforting but dangerous mirage of false predictability.

Introduction

Thomas Vachon shares insights into scaling data-driven products, blending machine learning, engineering, and user-centric design to create impactful and intelligent applications.

Key Ingredients for Success

Building intelligent products requires aligning data pipelines, model training, deployment infrastructure, and feedback loops. Vachon stresses the importance of cross-functional collaboration between data scientists, software engineers, and product teams.

Real-World Lessons

From architectural best practices to team organization strategies, Vachon illustrates how to navigate the complexity of scaling data initiatives sustainably.

Conclusion

Intelligent data products demand not only technical excellence but also thoughtful design, scalability planning, and user empathy from day one.

Watch the video

Introduction

Thierry Cordier and Valentin Laurent introduce MAPIE, a Python library within scikit-learn-contrib, designed for uncertainty quantification in machine learning models.

MAPIE on GitHub

Managing Uncertainty in Machine Learning

In AI applications — from autonomous vehicles to medical diagnostics — understanding prediction uncertainty is crucial. MAPIE uses conformal prediction methods to generate prediction intervals with controlled confidence, ensuring safer and more interpretable AI systems.

Key Features

MAPIE supports regression, classification, time series forecasting, and complex tasks like multi-label classification and semantic segmentation. It integrates seamlessly with scikit-learn, TensorFlow, PyTorch, and custom models.

Real-World Use Cases

By generating calibrated prediction intervals, MAPIE enables selective classification, robust decision-making under uncertainty, and provides statistical guarantees critical for safety-critical AI systems.

Conclusion

MAPIE empowers data scientists to quantify uncertainty elegantly, bridging the gap between predictive power and real-world reliability.

The Google Keynote at I/O 2024 painted a vivid picture of an AI-driven future, where multimodality, extended context, and intelligent agents converge to enhance human potential. Led by Sundar Pichai and a cadre of Google leaders, the address reflected on a decade of AI investments, unveiling advancements that span research, products, and infrastructure. This session not only celebrated milestones like Gemini’s launch but also outlined a path toward infinite context, promising universal accessibility and profound societal benefits.

Pioneering Multimodality and Long Context in Gemini Models

Central to the discourse was Gemini’s evolution as a natively multimodal foundation model, capable of reasoning across text, images, video, and code. Sundar recapped its state-of-the-art performance and introduced enhancements, including Gemini 1.5 Pro’s one-million-token context window, now upgraded for better translation, coding, and reasoning. Available globally to developers and consumers via Gemini Advanced, this capability processes vast inputs—equivalent to hours of audio or video—unlocking applications like querying personal photo libraries or analyzing code repositories.

Demis Hassabis elaborated on Gemini 1.5 Flash, a nimble variant for low-latency tasks, emphasizing Google’s infrastructure like TPUs for efficient scaling. Developer testimonials illustrated its versatility: from chart interpretations to debugging complex libraries. The expansion to two-million tokens in private preview signals progress toward handling limitless information, fostering creative uses in education and productivity.

Transforming Search and Everyday Interactions

AI’s integration into core products was vividly demonstrated, starting with Search’s AI Overviews, rolling out to U.S. users for complex queries and multimodal inputs. In Google Photos, Gemini enables natural-language searches, such as retrieving license plates or tracking skill progressions like swimming, by contextualizing images and attachments. This multimodality extends to Workspace, where Gemini summarizes emails, extracts meeting highlights, and drafts responses, all while maintaining user control.

Josh Woodward showcased NotebookLM’s Audio Overviews, converting educational materials into personalized discussions, adapting examples like basketball for physics concepts. These features exemplify how Gemini bridges inputs and outputs, making knowledge more engaging and accessible across formats.

Envisioning AI Agents for Complex Problem-Solving

A forward-looking segment explored AI agents—systems exhibiting reasoning, planning, and memory—to handle multi-step tasks. Examples included automating returns by scanning emails or assisting relocations by synthesizing web information. Privacy and supervision were stressed, ensuring users remain in command. Project Astra, an early prototype, advances conversational agents with faster processing and natural intonations, as seen in real-time demos identifying objects, explaining code, or recognizing locations.

In robotics and scientific domains, agents like those in DeepMind navigate environments or predict molecular interactions via AlphaFold 3, accelerating research in biology and materials science.

Empowering Developers and Ensuring Responsible AI

Josh detailed developer tools, including Gemini 1.5 Pro and Flash in AI Studio, with features like video frame extraction and context caching for cost savings. Pricing was announced affordably, and Gemma’s open models were expanded with PaliGemma and the upcoming Gemma 2, optimized for diverse hardware. Stories from India highlighted Navarasa’s adaptation for Indic languages, promoting inclusivity.

James Manyika addressed ethical considerations, outlining red-teaming, AI-assisted testing, and collaborations for model safety. SynthID’s extension to text and video combats misinformation, with open-sourcing planned. LearnLM, a fine-tuned Gemini for education, introduces tools like Learning Coach and interactive YouTube quizzes, partnering with institutions to personalize learning.

Android’s AI-Centric Evolution and Broader Ecosystem

Sameer Samat and Dave Burke focused on Android, embedding Gemini for contextual assistance like Circle to Search and on-device fraud detection. Gemini Nano enhances accessibility via TalkBack and enables screen-aware suggestions, all prioritizing privacy. Android 15 teases further integrations, positioning it as the premier AI mobile OS.

The keynote wrapped with commitments to ecosystems, from accelerators aiding startups like Eugene AI to the Google Developer Program’s benefits, fostering global collaboration.

Links:

• Google company website
• Google on LinkedIn
• Sundar Pichai on LinkedIn
• Demis Hassabis on LinkedIn
• James Manyika on LinkedIn