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AI 资讯

What’s behind the Google AI shake-up

Some of the biggest names on Google's AI team got new jobs this week. In some cases, including for legendary Googler Jeff Dean, those jobs are no longer at Google. Given that Google's models seem to be behind the best of what's coming out of anthropic and OpenAI, is this a sign of Google in […]

2026-08-08 原文 →
AI 资讯

Birdfy’s smart bird feeder is on sale for just $60

The Birdfy Feeder Rookie is a good option if you’re new to birdwatching or simply don’t want to spend a lot on a smart feeder, and several configurations are on sale. The standard model is down to $59.99 ($60 off) at Amazon, which is close to its lowest price. It includes seven days of access […]

2026-08-08 原文 →
AI 资讯

Why We Built MicroLeague Sports Vol. 3

Why Sports Data Is Harder Than Most People Think Building believable cross-era simulations turned out to be less about the engine and more about the data underneath it. Here is what we learned. MicroLeague Dev Blog, Vol. 3 By Eddie Solar When we started building MicroLeague Sports, I assumed the simulation engine would be the hard part. The vision was ambitious enough to justify that assumption. Let fans ask whether the 1996 Bulls beat the 2017 Warriors. Whether the 1985 Bears could slow down Patrick Mahomes. Which Cowboys team was actually the greatest. Teaching software to play those games across eras felt like the mountain. I was wrong about which mountain it was. The engine is hard, but it is a solvable, bounded kind of hard. The data underneath it is a different animal. Like most developers approaching this for the first time, we figured sports data was largely a collection exercise: gather historical teams, player stats, schedules, and box scores, feed it to the model, done. That assumption fell apart almost immediately, and the reason it fell apart is the subject of this article. Sports data is not a collection problem. It is an identity problem. Franchises do not stay the same thing. Players are not one entity. And the historical record does not agree with itself. The Real Problem Is Modeling Identity Over Time Volume 2 covered the era problem: statistics are confounded by the conditions that produced them, so a raw number pulled across decades lies to you. That is a normalization challenge, and it is real. But normalization assumes you already know what you are normalizing. Before you can compare the 1992 Cowboys to the 2023 Chiefs, your system has to have a confident answer to a more basic question: what exactly is a "team," and what exactly is a "player," when your dataset spans a hundred years? Those sound like trivial questions. They are not. They are the questions that ate most of our early engineering time, and getting them wrong quietly corrupts ever

2026-08-07 原文 →
AI 资讯

Instant Payments Risk Management: What Every Fintech Developer Should Know

The rise of instant payment networks has changed the way money moves. Transactions that once took hours—or even days—now settle in seconds. Whether it's FedNow, RTP, UPI, or other real-time payment systems, users expect payments to be fast, available 24/7, and completed almost instantly. For developers and fintech teams, however, speed creates a new challenge. When payments settle in real time, there's little opportunity to detect fraud, reverse errors, or manually review suspicious transactions. That makes instant payments risk management one of the most important aspects of building modern payment applications. Real-time payment systems leave only seconds to make fraud, compliance, and operational decisions before settlement becomes final. Why Instant Payments Change Everything Traditional payment systems often include a processing window where transactions can be reviewed before settlement. Instant payments remove that safety net. Once a payment is authorized and processed, the funds are typically transferred immediately. If a fraudulent transaction slips through, recovering the money becomes significantly more difficult. That's why payment platforms must shift from reactive fraud detection to proactive risk prevention. What Is Instant Payments Risk Management? Instant payments risk management is the combination of technologies, policies, and automated decision-making that helps businesses detect and reduce risks before an instant payment is completed. Instead of reviewing transactions after settlement, modern payment systems analyze risk while the payment is being processed. Typical risk management includes: Real-time fraud detection Identity verification Device and behavioral analysis Transaction monitoring Sanctions and compliance screening Velocity and limit controls Continuous risk scoring Every one of these checks must happen within milliseconds without creating noticeable delays for legitimate users. Why Traditional Fraud Rules Are No Longer Enough Older p

2026-08-07 原文 →
AI 资讯

Your table awaits: Exhibit at TechCrunch Disrupt 2026 to be seen by thousands

Not everyone needs a keynote slot to make noise at TechCrunch Disrupt 2026. Sometimes the best way to meet investors, customers, and partners is by exhibiting directly on the Expo Hall floor at San Francisco’s Moscone West from October 13-15. That’s exactly what our Exhibit Program offers, and it’s still open to showcase your startup. Here’s what $12,500 buys you: Joining fellow exhibitors is the fastest, lowest-lift way for a […]

2026-08-07 原文 →
开发者

Trevor Noah is hosting Google’s Pixel 11 launch event

Google is set to host its next live Made by Google hardware launch event on August 12th, and the company says in a new video that comedian Trevor Noah will be hosting the show. The video indicates that the event will feature other celebrities and influencers as well, including Call Her Daddy host Alex Cooper […]

2026-08-07 原文 →
AI 资讯

I blocked XSS attacks and API Key extraction in the browser by monkey-patching `crypto.subtle`. Why isn't everyone doing this?

Here is how I hardened the browser runtime for a Zero-Knowledge, Non-Custodial FinTech trading terminal. 👇 Client-Side Envelope Encryption: I derive a KEK from the user's password using PBKDF2-SHA256 (310,000 iterations). Then, a secure random 32-byte DEK (AES-256-GCM) encrypts the data. The password NEVER touches the server, and the DEK has a strict 15-min TTL in RAM before a wipe. Secure Enclave Anti-Export Guard: CryptoKeys are generated via crypto.subtle with {extractable: false} . To prevent injected malicious scripts from bypassing the sandbox, I implemented an isolated closure that overrides (monkey-patches) the native browser API: crypto.subtle.exportKey = async function(format, key) { if (isProtectedKey(key)) { _AuditChain.append('EXPORT_ATTEMPT', 'CRITICAL'); throw new Error('Export BLOCKED — unauthorized'); } return _origExport(format, key); }; If our database is breached, hackers find ZERO financial data. If the local session is compromised, runtime gating blocks extraction. Plus, client-side validation rejects API keys with withdrawal permissions enabled (zero custodial risk under MiCA, built for GDPR). The entire architecture runs client-side (WebSocket throttled at 100ms + local AI Advisor), keeping server costs near zero. Where does this runtime isolation logic fail? Why do major SaaS platforms still rely on standard local storage? Let's discuss. 💬

2026-08-07 原文 →