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Grok Imagine Video 1.5 Preview just reached #1 on Video Arena, surpassing Seedance 2.0. Are we finally seeing real competition at the top, or will the leaderboard look completely different again next month? 🤔 submitted by /u/Old_Establishment287 [link] [留言]

The crypto weed vape found me on 4/20, the high holiday of cannabis enthusiasts everywhere. It arrived over Slack with the thumbnail of a man exhaling a plume of vapor, the words "every hit delivers Bitcoin" emblazoned across it. It claimed to be advertising a device called Gudtrip, and I thought everything about it sounded […]

The Enhanced Games — a singular sporting competition where a majority of the athletes were on performance enhancing drugs — may herald a new business model that the tech industry is ready to embrace.

There is a huge gap in open source AI accelerators, so I implemented mine . Popular and well known ones are already legacy and doesn't support contemporary operations like Attention. Here is what makes mine special: Attention mechanism smelted directly into silicon Prototyped end-to-end on FPGA (AWS F2) Benchmarked against PyTorch -based workloads Built on the RocketChip architecture (RISC-V) Native BF16 support Up to 225× speedup on vanilla attention mechanism Up to 96× speedup on TinyBERT Up to 50× speedup on ViT Up to 30× speedup on GPT-2 prefill I would really appreciate it if you check the repo and give me feedback! submitted by /u/Barrnie [link] [留言]

Maybe it’s just me, but I’ve been running into more and more half-working products lately. Buttons that do nothing. Checkouts that fail silently. Forms that throw errors with no explanation. And not from random small sites either, from companies that should absolutely know better. I think it’s the result of AI + fast shipping + less quality control. Teams are pushing out features at a speed that wasn’t possible 2 years ago, but the QA, testing, and ownership of quality hasn’t scaled with it. AI didn’t break the web. It just made it easier to ship things that were never properly checked. The other thing I’ve noticed: when something breaks now, you can’t even get to a real person. Support bots loop you in circles, and the actual humans who could fix it are buried somewhere behind 5 layers of auto-responses. Curious if others are seeing the same thing, or if I’m just unlucky lately. submitted by /u/Good-Locksmith-4978 [link] [留言]

First time, so no idea. submitted by /u/camelCasedUser [link] [留言]

As part of my game development journey, I recently created Hidden Collector , a Unity-based game where players explore levels and collect hidden items while progressing through different challenges. This project started as a way for me to improve my Unity and C# skills, but it quickly became an opportunity to learn about game design, UI systems, audio management, scene transitions, and player experience. What I Worked On While building Hidden Collector, I implemented: Player movement and interactions Collectible item systems Multiple game levels UI menus and game screens Audio and sound effects Progress tracking Game flow and scene management Challenges During Development One of the biggest challenges was making different game systems work together smoothly. Something as simple as collecting an item often required updates to UI elements, game state management, and progression systems. Debugging these interactions taught me a lot about organizing Unity projects and writing maintainable code. What I Learned This project helped me gain experience with: Unity Engine C# scripting Game architecture UI implementation Audio management Debugging and testing Most importantly, I learned that building complete projects teaches far more than following tutorials. Play the Game You can try Hidden Collector here: https://sinxcos07.itch.io/hiddencollector Screenshots What's Next? I'm continuing to improve my game development skills by building new projects, experimenting with different mechanics, and learning more about creating engaging player experiences. If you try the game, I'd love to hear your feedback. By Suryansh Sinha (sinxcos07) Connect With Me GitHub: https://github.com/sinxcos07 LinkedIn: https://www.linkedin.com/in/suryansh-sinha/ Play Hidden Collector: https://sinxcos07.itch.io/hiddencollector

I’ve spent a lot of time lately thinking about why some LLM agents feel "intelligent" while others just feel like chatbots with a slightly better prompt. It almost always comes down to how the system handles memory. When we treat the context window as the only place for state, we hit a ceiling very quickly. To build an actual agent, we have to move away from "one big prompt" and toward a layered memory architecture. Agentic Memory can be categorized in 4 layers by their function: Working Memory: The current context window. It's our RAM—fast, essential, but wiped clean after every session. Semantic Memory: The Vector DB or knowledge base. This is where the "world rules" and global conventions live. It’s the reference manual the agent checks to stay aligned. Procedural Memory: The "how-to" layer. Instead of stuffing every tool description into the prompt, the agent maintains a lean index of skills and pulls in the full implementation only when a specific task triggers it. This keeps the context window clean. Episodic Memory: This is the hardest part. It's the ability to distill a past interaction into a reusable insight. The real engineering challenge here isn't storage—it's the "forgetting" logic. Deciding what is noise and what is a core pattern is where most frameworks still struggle. Depending on the use case, the architecture changes: Reflex Agents: Just Working Memory. Support Agents: Working + Procedural. Coding Agents: The full stack. The gap between a demo and a production-ready agent is usually the distance between simple RAG and a functioning episodic memory. The ability to compress experience into a usable state is still a significant hurdle. Which of these layers are you currently implementing, and how are you handling the "forgetting" logic in your episodic memory?

GitHub - nikhilt101/email-blast-tool: Open source HTML email sender tool using CSV/XLSX + Gmail SMTP · GitHub Open source HTML email sender tool using CSV/XLSX + Gmail SMTP - nikhilt101/email-blast-tool github.com

Now that almost everyone has thought about or is actively integrating AI workflows into their projects, some might ask is this all worth the cost? Many think the current economics of the AI space don't scale and that there will be upward price movement. Others still might not be comfortable with sending their data to remote services for processing. Then there is the crowd that wants to deploy models in small spaces with limited compute. Are there ways we can deploy small models locally and run at a lower cost? Yes with Knowledge Distillation . Knowledge distillation can get a bad rap due to it's questionable use in training some Large Language Models (LLMs). But it's a perfectly valid way to transfer performance from a larger model to a smaller one. Especially when both models are yours and/or open. This article will explore progressive distillation which is a technique to incrementally transfer knowledge from a series of larger teacher models into a smaller student. Install dependencies Install txtai and all dependencies. pip install txtai [ pipeline - train ] datasets Setup the Training Pipeline The first step we need to do is setup up the training pipeline. We'll use the Hugging Face Training framework to build a series of models. The following code establishes a train method, test method and loads the classification training data. from datasets import load_dataset from transformers import AutoModelForSequenceClassification , AutoTokenizer from txtai.pipeline import HFTrainer , Labels def train ( teacher , student , distillation , ** kwargs ): trainer = HFTrainer () model = AutoModelForSequenceClassification . from_pretrained ( student , trust_remote_code = True ) tokenizer = AutoTokenizer . from_pretrained ( student , trust_remote_code = True ) return trainer ( ( model , tokenizer ), ds [ " train " ], columns = ( " sentence " , " label " ), maxlength = maxlength , teacher = teacher , distillation = distillation , ** kwargs ) def test ( model ): labels = Labels (

The Theorem That Changed How We Think About Databases In 2000, Eric Brewer stood at a conference and proposed a conjecture that would reshape distributed systems forever: "You can only guarantee two of these three properties at the same time: Consistency, Availability, and Partition Tolerance." Two years later, Seth Gilbert and Nancy Lynch proved it mathematically. It became known as the CAP Theorem — and every distributed system architect since has had to wrestle with it. It sounds abstract. But once you understand it, you'll never look at a database choice the same way again. You'll understand why Amazon DynamoDB and Google Spanner make opposite architectural choices. You'll know why your bank uses PostgreSQL while Twitter uses Cassandra. Let's break it down from first principles. The Three Properties C — Consistency Every read receives the most recent write, or an error. There's only one version of the truth — all nodes agree. Not the same consistency as ACID . CAP consistency (linearizability) means every read reflects the latest write across all nodes. ACID consistency means transactions don't violate database constraints. Different concepts, same confusing word. A — Availability Every request receives a non-error response — though it might not be the most recent data. The system is always up and answering. Note: "Available" in CAP doesn't mean "fast." It means "responds without error." A system that always returns a (possibly stale) answer is Available. P — Partition Tolerance The system continues operating even when network messages between nodes are lost or delayed. A partition is when part of your distributed system can't communicate with another part. The Unavoidable Truth: P Is Not Optional Here's the insight that makes CAP actually useful: In any real distributed system, partitions will happen. Networks fail. Cables get cut. Data centers lose connectivity. AWS regions go down. Since you must tolerate partitions (or have a single-server system, which does

GitHub · Change is constant. GitHub keeps you ahead. · GitHub Join the world's most widely adopted, AI-powered developer platform where millions of developers, businesses, and the largest open source community build software that advances humanity. github.com

You build a tournament bracket with a popular React library. In Chrome it's perfect — neat columns, clean connector lines. Then you open it on an iPhone, or in Safari, or inside your Capacitor app… and every match is crammed into the top-left corner, stacked on top of the round headers. If you've ever shipped a bracket to iOS, you've probably seen this exact bug. Here's why it happens — and a tiny library that fixes it for good. The symptom It looks fine everywhere Chromium runs (Chrome, Edge, Android WebView) and completely broken everywhere WebKit runs: Safari (macOS and iOS) iOS WKWebView Capacitor / Cordova apps Electron-on-WebKit The matches don't just shift a little — they all render at coordinate (0,0) of the bracket, piling on top of each other and the headers. The cause: SVG <foreignObject> in WebKit Most React bracket libraries — @g-loot/react-tournament-brackets , react-tournament-bracket , and friends — render the bracket as an SVG and place each match's HTML inside a <foreignObject> positioned with x / y attributes. WebKit has a long-standing bug: it ignores x , y , and transform on <foreignObject> and positions the content relative to the top-level <svg> instead of the foreignObject's own coordinates. Every match therefore collapses to the origin. And there's no CSS escape hatch — x , y , and transform are all ignored on foreignObject in Safari, so you can't nudge the content back into place. I even tried patching a library to wrap each match in a <g transform="translate(x,y)"> instead of a nested <svg x y> ; WebKit ignores ancestor transforms for foreignObject positioning too. The SVG approach is simply a dead end on WebKit. The fix: don't use SVG at all A bracket is really just columns of cards joined by connector lines — and both are expressible in plain CSS. Here's the key insight. Put each round in a flex column where every match sits in an equal flex: 1 slot. Because each round has half the matches of the previous one, a match's slot spans exactl

I have been using it heavily for about a year and lately I notice I can almost feel when something was written by it. There is a certain rhythm to it, the way it structures paragraphs, the way it wraps up with a summary sentence, the way transitions feel slightly too smooth. It is hard to explain but once you see it you cannot unsee it. What I find interesting is that even after editing ChatGPT output pretty heavily those patterns seem to stick around at a sentence level. The words change but something underneath stays the same. I started verifying this by running edited drafts through a few different tools and the results were eye opening. Some tools completely missed the patterns, others picked them up even after significant rewrites. Makes me wonder how much of what we read online right now has that same fingerprint sitting underneath it and we just do not realize it yet. Has anyone else started noticing this or developed a sense for spotting it just from reading? submitted by /u/Few-Education7746 [link] [留言]

A WordPress plugin update breaks the site. You SSH in to roll back the bad plugin with WP-CLI, and you get this: Fatal error : Uncaught Error : ... in / path / to / broken - plugin / main . php : 42 The plugin you came to fix has now stopped the tool you came to fix it with. It looks contradictory, but it makes sense once you know how WP-CLI starts up — and there's a flag pair that gets you out. Why WP-CLI itself crashes When you run a rollback command like wp plugin install <name> --version=X --force , WP-CLI internally boots WordPress before doing anything else . Plugin registration and option loading all happen during WordPress's startup, so a broken plugin gets loaded there, throws a fatal, and takes the WP-CLI process down with it. The sequence: WP-CLI boots WordPress WordPress loads the active plugins The broken plugin throws a fatal WP-CLI exits before ever reaching the file-replace step The actual rollback (downloading the PHAR, overwriting the plugin directory) never gets a chance to run. The fix — safe-mode flags WP-CLI has two startup flags, --skip-plugins and --skip-themes . With both set, WordPress's startup skips loading any plugins and themes at all . wp plugin install <name> --version = X --force --skip-plugins --skip-themes File-system operations (downloading the PHAR, unpacking it, replacing files) don't depend on plugin code, so they run fine. The broken plugin never gets loaded at boot, so it never fatals, and the rollback completes. Should you set these flags everywhere? You might think "why not just add these to every WP-CLI command by default?" But some commands genuinely need plugins or themes loaded. wp cache flush relies on the object-cache plugin's hooks. wp doctor reads diagnostic information that plugins register. Setting safe-mode flags on those would break them in subtle ways. The practical split: file-operation commands always get --skip-plugins --skip-themes . Cache and diagnostic commands don't. That single rule eliminates the worst

"A language model that answers questions is a tool. A language model that decides which questions to ask and then acts on the answers is something else entirely." Introduction: When Models Started Deciding For the first several years of modern NLP, the task was always the same: given input, produce output. One forward pass. One completion. Done. In 2022, a paper from Google Brain asked a different question. What if, instead of producing an answer directly, a model could reason about what information it needs, act to retrieve it, and revise its thinking based on what it found? The paper was ReAct: Synergizing Reasoning and Acting in Language Models (Yao et al., 2022). Applying it to an LLM created something qualitatively different: a model that could take real-world actions and adapt its reasoning based on what came back. A completion model is a calculator. An agent is a process: it has a goal, takes steps toward it, and updates when things go wrong. This week I went deep on the architecture behind these systems, the frameworks that define them, and what the open problems look like from a research perspective. Part 1: What Makes a System "Agentic"? The word "agent" gets used loosely in current literature. A clean definition comes from Russell and Norvig's Artificial Intelligence: A Modern Approach : An agent is anything that perceives its environment through sensors and acts upon that environment through actuators. For an LLM-based system, this is a loop: perceive an observation, reason about what to do, act via a tool call or output, observe the result, and loop again. But not every loop qualifies as agentic. Three properties distinguish genuinely agentic systems from tool-augmented chatbots: Property What It Means Goal persistence Maintains the original goal across multiple steps without re-prompting Adaptive planning Revises its approach based on intermediate results Tool autonomy Decides when and which tools to use, not just how to use one it was told to call Mos

This is a submission for the Hermes Agent Challenge : Write About Hermes Agent What if the biggest limitation in AI today isn't reasoning, model size, or context windows? What if it's memory? Every morning, millions of people open ChatGPT, Claude, Gemini, or another AI assistant and start a conversation. The AI seems intelligent. It writes code. It explains concepts. It helps brainstorm ideas. It can even help design an entire software architecture. Then the conversation ends. Tomorrow? It remembers nothing. Imagine hiring a senior engineer who forgets everything at the end of every workday. Every morning you would need to explain: What your company does How your product works Which technologies you use Why certain decisions were made What happened yesterday Nobody would call that employee productive. Yet this is exactly how most AI systems operate. And it reveals something important: Most AI agents aren't actually learning from experience. They're simply reasoning over whatever context happens to be available right now. That distinction may define the future of agentic AI. Because the next generation of AI won't just need better reasoning. It will need memory. And that's where Hermes Agent becomes interesting. The Strange Reality of Modern AI The public perception of AI often looks like this: User → AI → Intelligence But the reality is closer to this: User → Context Window → AI → Response The AI only knows what exists inside its current context. Once that context disappears, so does most of its understanding. This is why many AI experiences feel surprisingly repetitive. You spend 30 minutes explaining your project. The AI finally understands your goals. The answers become better. The recommendations become more relevant. Then the session ends. The next conversation starts from scratch. Not because the model isn't powerful. But because the knowledge never became persistent. Context Windows Are Not Memory A context window is not memory. It is temporary working space.