标签：#Computing

The Linkerd community has announced the release of Linkerd 2.20, introducing a series of performance, observability, and traffic management enhancements that further strengthen the CNCF-graduated service mesh's position as a lightweight alternative for Kubernetes networking. By Craig Risi

The machine that could change the world will be housed in a room that looks like a data center crossed with an ice cream factory. Inside will be some 100 stainless-steel cabinets, each about six feet tall and connected to a supply of liquid helium that keeps them only a few degrees above absolute zero.…

Bit by bit, Windows 11 is healing.

Try the new Siri AI and system-wide performance improvements.

I didn’t set out to diagnose hyperscalers. I wasn’t doing a grand industry analysis. I wasn’t mapping global architecture. I wasn’t trying to understand cloud strategy. I was just trying to use a popular software provider — and everything kept breaking. Every time something failed, I followed the thread. And every thread led to the same architectural gap. Eventually I realised I hadn’t been analysing hyperscalers at all. I’d accidentally mapped the substrate failure across the entire industry. Once you see the pattern, you can’t unsee it. Across Microsoft, AWS, Google, and Meta, the same structural drift appears: meaning drift identity drift trust drift state drift execution drift provenance drift agentic drift Different companies. Different stacks. Different histories. Same substrate gap. And it’s not just me. The world is waking up to these problems too. Vendor lock in isn’t just a technical nuisance anymore — it’s becoming a public conversation. People are asking why their money keeps disappearing into the same handful of providers. Organisations are asking why their systems collapse the moment they try to leave. Governments are asking why critical infrastructure depends on architectures they cannot inspect, cannot govern, and cannot reproduce. What started as a personal frustration with a popular software provider turns out to be the same structural issue everyone else is now discovering. And sovereignty is entering the conversation — not as a political slogan, but as an architectural question. When national systems depend on fragmented substrates owned by a tiny cluster of vendors, sovereignty becomes a structural issue. The question isn’t “who controls the cloud?” It’s “who controls the substrate the cloud is built on?” Follow the thread far enough and you reach a scenario nobody wants to think about: what happens in a moment of global stress when a hyperscaler’s fragmented substrate becomes a single point of failure? Not a political crisis — a structural one.

Know where to place your router and how to position its antennas should get you better coverage.

Cloudflare has recently introduced temporary accounts that let AI agents deploy Cloudflare Workers immediately, without first creating or authenticating with a permanent account. If left unclaimed, the accounts and their deployments expire automatically after 60 minutes. By Renato Losio

It has a proprietary OS, a QWERTY keyboard and dual(ish) screens.

PC shipments are falling, but revenue for manufacturers is still rising.

Apple's program to invest in US manufacturing sees it spend $30 billion on Broadcom chips.

DuckDuckGo will now block video ads by default in its browser.

AWS recently announced Amazon S3 Annotations, a feature that lets teams attach rich, searchable context such as summaries, classifications, compliance data, or AI-generated insights directly to S3 objects. Annotations can be updated independently of the object and queried across datasets, reducing the need for separate metadata systems. By Renato Losio

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Wi-Fi standards remain as confusing as ever.

Industry 4.0 data collection sounds simple until you look closely at the factory floor. In theory, the flow is clean: machine → gateway → cloud → dashboard In practice, it is usually less tidy. Factories may have PLCs, CNC machines, sensors, meters, inspection systems, production lines, and older equipment all working together. Some devices use Ethernet. Some still rely on serial interfaces. Some data is useful every second. Some data only matters when a machine changes state, crosses a threshold, or triggers an alarm. This is where an industrial edge gateway becomes useful. A gateway such as Robustel EG5120 can sit between factory equipment and upper-layer systems, helping collect selected machine or PLC data, handle it locally where needed, and forward useful information toward cloud or enterprise platforms. That does not mean the gateway replaces PLCs, SCADA, MES, or the cloud. It simply means factory data often needs a practical middle layer before it becomes useful somewhere else. Factory data is not one clean data stream One thing that gets underestimated in Industry 4.0 projects is how mixed the data sources can be. A PLC may provide equipment status, alarms, and process values. A CNC machine may expose cycle information or maintenance indicators. Sensors and meters may generate temperature, vibration, energy, or environmental data. Inspection systems may produce quality-related events or selected result data. A production line may generate throughput signals, downtime events, or operating states. These are all “factory data,” but they do not behave the same way. A machine fault may need quick attention. An energy reading may only need periodic reporting. A repeated sensor value may not need to be sent upstream every time. A quality inspection output may be useful as metadata, but not every raw file is practical to upload continuously.So the first question is not only: Can we connect this machine? A better question is: What data do we actually need, where sho

Apple's newest on-device model carries about 20 billion parameters, and on any given request it fires maybe one to four billion of them. That gap — 20B stored, roughly 3B running — is the whole story of 2026. The model that now ships inside the latest iPhone is no longer a shrunken, lobotomized cousin of the cloud model. It's a different kind of object: large in flash, small in motion, and it never phones home. For three years the on-device pitch was mostly aspirational. Demos ran, latency was rough, quality trailed the API by a generation, and every serious AI feature still resolved to a per-token bill in someone's datacenter. In mid-2026 that stopped being true. Two releases — Apple's third-generation Foundation Models at WWDC on June 8, and Google's Gemma 4 family on April 2 — quietly moved the floor. Genuinely useful agents now run on hardware you already own, offline, for free. The economics nobody priced in Forget benchmarks for a second; the load-bearing fact here is accounting. When the model lives in the cloud, every inference is a metered event — input tokens, output tokens, a line item that scales linearly with usage and explodes the moment you wrap the model in an agent loop. Agentic workloads are the worst case for the token meter: a single "go do this task" can fan out into dozens of model calls as the agent plans, calls tools, retries, and re-reads its own output. The bill grows with your ambition. Move the model onto the device and the marginal cost of an inference is approximately $0 . No API key, no rate limit, no usage dashboard. You paid for the silicon once; every token after that is free in the only sense a product manager cares about — it doesn't show up on a monthly invoice that grows with your success. That single change rewrites which features are worth building. A background task that re-summarizes your inbox every five minutes is insane on a per-token plan and trivial on-device. So is an agent that quietly loops a hundred times to get one

Vercel has released Eve, an open-source framework for building, deploying, and operating AI agents in production. The framework uses a filesystem-based project structure to organize agent instructions, tools, skills, subagents, communication channels, and scheduled tasks, enabling developers to define agent behavior while reducing the amount of supporting infrastructure they need to implement. By Daniel Dominguez

IBM says it has created the world's first sub-1 nanometer chip

IBM has built a new prototype chip with around 100 billion transistors on an area the size of a fingernail, which is twice the density of the company’s previous state-of-the-art technology announced in 2021. The design could pave the way for faster and more energy efficient computers for years to come. For more than half…

China took the supercomputer crown by relying on CPUs and not GPUs like other models.