In May, Sipeed — the Chinese RISC-V hardware maker with a genuine track record in affordable embedded compute — posted details about its K3 single-board computer. The claim was notable: a RISC-V SBC capable of running 30-billion-parameter LLMs at 60 TOPS in INT4 quantisation, with BF16 and FP16 also supported. That is a lot of numbers, but the meaningful one is the 30B figure — getting a model of that size to run locally on a small board at all is the kind of thing that, if true, would have caught the attention of anyone building edge AI infrastructure. Then, in late September, a second data point arrived. Forlinx, another hardware company operating in roughly the same space, detailed a 20-TOPS M.2 AI accelerator with an interesting architectural wrinkle: PCIe cascading, meaning multiple cards can be chained together to pool inference capacity for local LLM workloads. Two separate companies, two separate product lines, both pointing toward the same idea — that the hardware for running large language models locally is getting cheaper, smaller, and more modular.
If confirmed, here is what this means. The economic and privacy case for local AI inference has always been clear; the barrier has been hardware. A RISC-V board running 30B-parameter models changes the calculus for developers, researchers, and organisations who want inference capacity without cloud dependency or per-token billing. The Forlinx cascading approach is arguably more strategically interesting — it implies a path to scaling local compute incrementally, the way you might add RAM rather than replace an entire system. Second-order effects include pressure on established inference chip makers, new possibilities for air-gapped deployments in regulated industries, and a potential acceleration of the already-active open-weights model ecosystem, which now has more places to run its models. The RISC-V angle adds another layer: it is the architecture that China's hardware sector has been investing in heavily, partly as a hedge against export restrictions on more established chip designs.
Watch for independent benchmarks from developers who have actually received and tested these boards — community verification of the 60 TOPS claim, in particular, will tell you whether this is a genuine capability milestone or a figure measured under the most favourable conditions imaginable.
<!-- SC_OFF --><div class="md"><p>After burning way too much money on GPT-4 API calls, I finally went all-in on local models with Ollama. The progress in 2026 is insane
<!-- SC_OFF --><div class="md"><p>Might be another option of us local LLM folks. I am very curious on the price. </p> <p><a
<!-- SC_OFF --><div class="md"><p>Running Llama-3-70B with long contexts and hitting HBM limits constantly. 128K context burns approx 40GB just for KV cache — half the H100 gone
<!-- SC_OFF --><div class="md"><p><a
<!-- SC_OFF --><div class="md"><p>Today I set up a full coding toolbox on a single RTX 5080 (with RAM offloading) that's actually viable.</p> <p><strong>Autocomplete</strong>:
<!-- SC_OFF --><div class="md"><p>Hi everyone, so I have been playing around with the software side and an RTX 3090, but I'm wondering what hardware I could experiment with to get
<!-- SC_OFF --><div class="md"><p>Hey, </p> <p>Tldr: use local models like qwen 3.5 quantized with proprietary models for fire and forget work. Local model doing the grunt work.
<!-- SC_OFF --><div class="md"><p>Currently using glm 4.7 flash, it’s very meh </p> <p>Heard omnicoder or Crow 9b are good, are they any better?</p> <p>Or Qwen3.5 27b?</p>
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