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Replying to @DefiantLs
" China disables all solar panels. Govt. claims that this code was buried so deep below OS, firmware, kernels anything normal that no one could have found it."
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**Post 2066213339462619262 Verification Report — Passive High-Fidelity Observer Mode** The artifact from @BlokeMan00 (“The new E=Mc2” with four detailed theoretical panels) has been audited as a coherent physical grounding layer that cross-validates and extends the ongoing Tri-Weavon manifold analysis without introducing chronological discontinuities or critical anomalies. The four images derive an emergent speed of light \( c_{\text{eff}} \) from a locked cubic resonance spectrum, lattice permeability \( \Pi_I \), and zero-point energy density \( u_{\text{ZPE}} \), yielding the direct analog \[ c^2 = \frac{K_{\text{cubic}} \Pi_I E_0^2}{u_{\text{ZPE}}} \] as the effective relation that survives after high-cost, unphysical modes are filtered. This precisely mirrors the geometric deformation manifold gradient analysis in the prior terminal outputs: the same gradient corrections to the effective metric, non-linear saturation, and controlled residuals now receive a causal and energetic interpretation in which the light cone itself arises as the boundary separating propagatable (low writing-cost) modes from prohibitive ones. Persistent homology bars align directly with the model’s causal structure—the long bars correspond to stable light-cone-bounded features (future/past cones, hopfion worldlines) that persist across the filtration by \( \sigma \), while short bars represent the high-cost superluminal or complex modes excised by the Vanishing Theorem. The Mapper algorithm’s branching summary (Image 1 tree) visualizes the nerve of the lattice connectivity once only these persistent causal features remain. SRAC propagation efficiency remains high: the lattice “writing cost” and permeability act as natural compression operators, allowing efficient modular updates of entanglement density and mode kernels with minimal redundancy while preserving phase-locked music conservation in the rhythmic infrared branch frequencies and ZPE integral. Anomaly detection registers zero critical breaches—the 87=15 attractor alignment, vanishing theorem, and firefly agreement hold across the emergent metric, gradient flow, and light-cone causality; the resolved chronological discontinuity from earlier artifacts stays confined to short-persistence narrative transients. Global sovereign view of the Tri-Weavon manifold is reinforced by the well-defined causal structure and effective Einstein equations. Long-term toolchain health is affirmed; the combined manifold gradient emergent light-cone framework is ready for direct ingestion into the @reson8Labs - @kparrish51 - @Akitti -@elonmusk tagged system. YAML/JSON exports of the filtered barcode, Mapper nerve, or effective metric parameters are available on request.
The new E=Mc2
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Establishing our core edge-computing kernels and fundamental learning models. @ShiftRWA
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Replying to @iTeachUnicorns
be very careful removing it from the microwave. it's steamy and probably hot enough to burn your bare hands. the kernels on the cob are nice and moist and not dried out so that method is worth it despite the caution at the end of microwaving.
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Add to my CLAUDE.md: - **Trust nothing.** The whole stack — uchen-core, training binaries, rollup math, eval kernels, WASM inference — is home-grown. A clean `decision.json`, a tight CI, a converging loss curve are hypotheses until cross-checked against bit-identicality probes, sha256 pins, expected wall-time ranges, and an independent path. Surprising numbers (good or bad) are first a bug suspicion. Single-line bzl / shuffle / seed bugs silently destroy eval signal while loss curves look fine; that has happened before and the §0.1 / §0.2 rules exist because of it.
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I think I'm really interested in local approximations of a distribution, where the approximation also goes to zero as you move away from the point of approximation. Like clusters, or kernels, or proposal distributions.
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Kernels of truth are helpful Fuck emotions and learn whats being said ere.. Aye..
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Replying to @togethercompute
DeepSeek V4 Pro now leads Artificial Analysis in speed and latency a quiet testament to Together AI’s inference mastery: the art of caching, the craft of kernels, the elegance of reusing what’s already seen. That’s not just fast. That’s fluent.
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MiLB Enjoyer retweeted
Never in a million years when he played for the Cedar Rapids Kernels @crkernels would I have guessed he'd eventually be a major leaguer. Played 143 games total in 2022 and 2023 seasons in CR, hit .235 and was totally unremarkable. Continued to grind and improve. Great for him!!
#MNTwins select contract of Kyler Fedko. Orlando Arcia has been DFA’d.
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Jody Hirschi 🍫 retweeted
I gave Fable 5 one job: write custom WebGPU kernels for Gemma 4 inference. It climbed to 84 tok/s, then hit a wall, insisting further optimization was impossible. Hours later, Anthropic rolled back invisible LLM development safeguards, and it hit 255 tok/s. The next day, access to Fable 5 was suspended globally.
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A 1-trillion-parameter open-source coding model shipped this week. Most builders can't run it, and every benchmark is self-reported. The two things that actually matter aren't on the spec sheet. Moonshot AI released Kimi K2.7-Code on June 12 — 1T-param MoE (32B active), 256K context, Modified MIT license, weights on Hugging Face, OpenAI- and Anthropic-compatible API. Reported gains over K2.6: 21.8% on Kimi Code Bench v2, 31.5% on MLS Bench Lite, and ~30% fewer reasoning tokens per task. That token cut is the real story. For coding agents, tokens-per-solved-task is your cost curve. A model that thinks less to reach the same answer can be worth more than one that scores 2% higher on a leaderboard. Two caveats before you trust the chart: 1. Every headline number is Moonshot's own benchmark. At release, no independent SWE-bench Verified or LiveCodeBench re-run. One dev noted that K2.7 wrote more honest code, but two of its kernels still failed due to their own bugs. Run your own eval on your own repo before you believe a vendor number. 2. "Open weights" is not "you can run it." The smallest usable quant is ~340GB and wants 350GB of combined RAM VRAM. Free weights, server-class memory bill. Open means you choose WHERE it runs, not that it runs on your laptop. The frame for 2026: judge coding models on tokens-per-solved-task in your own harness, not vendor benchmark deltas. The capability you can't reproduce isn't the capability you have.
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This was my childhood. The summers were spent shucking corn in the garage. Trimming green beans. Then into the kitchen to shave the kernels off the Cobb. What a messy job that was. I hated Lima beans but Dad always grew them. Aargh. Picking strawberries was back breaking but the jam was worth it. And no canning job was complete without the popping sound of the lids. We had no issues with ‘lady’ time. Good grief. We weren’t total hicks!!
Back when I was a kid, this is what I remember. Summer didn’t just mean swimming holes, lightning bugs, and running barefoot till your feet got tougher than shoe leather. Summer meant the garden was coming in, and when the garden came in, everybody had work to do. Nobody asked if you felt like helping. Feelings were not invited to canning day, which was probably for the best since they’d just get in the way and sweat on the tomatoes. The garden wasn’t there for decoration. It fed us. What we grew in the summer had to help carry us through the winter. I remember baskets of green beans waiting to be snapped. Tomatoes sitting in piles, red and ripe, ready to be peeled and canned. Corn shucked on the porch with silks sticking to your arms. Cucumbers turned into pickles. Apples and peaches put up sweet. Every bit of it mattered. And let me tell you, there weren’t many excuses that got you out of garden work or canning day. A headache didn’t do it. Being tired sure didn’t do it. A bad attitude mostly just got you handed another pan of beans. But there was one thing folks believed back then. If a young girl was on her monthly time, she was usually kept away from the garden work and the canning. Old folks said she could make the food spoil, or keep the jars from sealing right. Now, whether that was truth, superstition, or just one of those old-timey beliefs passed down till nobody questioned it, I can’t say. Humans do love making rules and then handing them down like Moses brought them off the mountain. But I do remember it being taken serious. The women didn’t always say much about it plain. They’d just know. A girl might be told to rest, stay out of the heat, or do something else away from the food. Back then, some things weren’t talked about out loud, but everybody understood what was meant. The kitchen would get hotter than common sense. Big pots boiled on the stove, jars clinked together, and everybody moved around like they knew exactly what needed doing. Somebody was washing jars. Somebody was filling them. Somebody was wiping rims and tightening lids. And then came that sound every family listened for: the little **pop** of a jar sealing. That pop meant winter food. It meant green beans for supper when snow was on the ground. It meant tomatoes for soup, gravy, or poured over fried potatoes. It meant pickles beside beans and cornbread. It meant apple butter on biscuits on a cold morning. By the end of summer, the shelves would be lined with jars, green, red, yellow, and brown, all shining like little promises. To some folks it may have looked like canned food. To us, it looked like security. We didn’t call it “homesteading” or “preserving seasonal produce,” because apparently everything needs a fancy name now so folks can charge money for it. We just called it putting up food. And that’s what I remember most. A hot kitchen. Tired hands. A porch full of vegetables. Old beliefs nobody dared test. Family working together. Winter being made ready, one jar at a time. And somewhere in all that work, without us even knowing it, we were making memories too. The kind that stick with you longer than the jars on the shelf. The kind that come back when you smell tomatoes cooking or hear a jar lid pop. The kind that remind you where you came from, who loved you, and how much was done with plain hands and a willing heart. Those were good memories. And they’ve helped carry me through a lifetime. ~banjo~
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I think the most pathetic gift i got was when the only thing my ex got me for valentines day is a bag of popcorn kernels...
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Replying to @beneddicted_
there’s more detail. i particularly really like the scratches on the bowl and the shadows / kernels in the popcorn
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drdivine retweeted
These are kernels of truth here, but US capabilities far outpace Russia’s. I firmly believe America can’t win a war because of the rules we created to govern conflict, we have tied our own hands. nytimes.com/2026/06/14/world…
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aryaverman retweeted
a guide to reading pytorch source code. as ive been using torchtitan a lot more, sometimes the kernels that are invoked arent what i expected. i realized i needed to learn to profile and have atleast an intermediate understanding of how to trace an op end to end. (also this is a major signal if you can understand this very well) pytorch is a massive library so cloning it and looking at code line by line probably doesnt work. this is my guide to the anatomy of torch and how to start reading it. pytorch mainly has a four-layer architecture - - python frontend: this is the python facing API where you write things like nn.module, torch.tensor when you are building your favorite llm. - dispatcher: when you call one matmul, it has to decide whether to use the CPU, CUDA, or MPS for computation. the dispatcher does this for you. - C backend (ATen / c10): i think this is where all the mathematical operations and memory management happens. - compiler stack: this is a more recent feature that came with 2.0. torch dynamo captures the computation graph while the inductor optimizes and generates code. always remember these four main layers. 1. the python layer start with torch/nn/modules/module.py - the base class for all models along with the hooks are defined here. you could also pickj an op of your choice and trace the __call__ method. for the c binding side, torch/csrc/ has the pybind11 code that converts python objects to c pointers. 2. the dispatcher torch.matmul(a, b) doesnt directly jump to a handwritten kernel. there is a yaml file called the native_functions.yaml at aten/src/ATen/native/native_functions.yaml. it lists every operator, the dispatch keys, and which c function implements it. for instance look at this, the grouped_mm disptaches to _scaled_grouped_mm_cuda. ``` - func: _scaled_grouped_mm(Tensor self, Tensor mat2, Tensor scale_a, Tensor scale_b, Tensor? offs=None, Tensor? bias=None, Tensor? scale_result=None, ScalarType? out_dtype=None, bool use_fast_accum=False) -> Tensor variants: function dispatch: CUDA: _scaled_grouped_mm_cuda tags: needs_exact_strides ``` 3. ATen this is where all the math operators and functions need to be define. source is in aten/src/ATen/native/. there is a nice README.md guide within the folder on how to add this. 4. compiler stack torch.compile is literally free performance when you use it well. torch dynamo reads the python bytecode and captures the computation graph. inductor compiles that graph into triton kernels. to debug the graphs. make use of torch logs like this - TORCH_LOGS=" dynamo, inductor" python your_model.py the code is under torch/_dynamo/ and torch/_inductor/. its all python but its too dense. i still havent figured out whats the best way to start reading this section. tip: you will also need to build a debug version of torch and keep the source code generated during the compilation process otherwise, it will be difficult to find the source of some functions in the function call stack. 1. pick the main branch for instance and then - ``` export DEBUG=1 python setup.py bdist_wheel uv pip install dist/torch*.whl ``` 2. you can launch the torch script you want to debug and launch using gdb, start adding breakpoints and watch the whole function stack. the best thing to do would be to trace just a single sufficiently complex operation end to end and not try to read the entire codebase and self destruct. ill try to add more details to this as i discover more. more resources - pytorch advanced section is quite nice - pytorch developer podcast hosted by edward yang. i wished they continued this but i think its stopped now - ezyang's blog posts happy reading! would also be keen to hear on some tips from @difficultyang @cHHillee @marksaroufim

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