World Wire

In this tutorial, we build a complete quantitative backtesting workflow with OctoBot and OctoBot-Script while keeping the environment isolated from Colab’s preinstalled dependencies. We configure a rule-based trading strategy that combines RSI-based oversold signals, EMA trend confirmation, and ATR-driven adaptive stop-loss and take-profit levels, and we execute it through OctoBot’s native market-order and backtesting APIs. We also retrieve historical OHLCV data through OctoBot’s data layer with automatic exchange fallback, perform a multi-parameter grid search over an in-sample period, and select the strongest configuration based on its excess return relative to buy-and-hold. We then validate the selected parameters on a completely separate out-of-sample period to assess generalization and identify potential overfitting. Finally, we extract OctoBot’s backtest report data and use Pandas and Plotly to analyze parameter sensitivity, portfolio performance, price action, indicators, and...

webAI has released TwIL-LM , a two-model family of formal-logic reasoners at 1.7B and 3B parameters . The 3B member, TwIL-LM3 , is a merged fine-tune of SmolLM3-3B ; the 1.7B member is a PEFT LoRA adapter for SmolLM2-1.7B-Instruct . Both target autoformalization : translating English into first-order logic and checking whether a conclusion follows from its premises. Both run locally, with a 1.06 GB quantized build for the 1.7B and a 1.78 GiB Q4_K_M GGUF for the 3B. webAI’s announcement frames the release around beating gpt-oss-120b on four of five formal-reasoning lanes. Is it deployable? Partially . Non-commercial use only, as of now. Both checkpoints ship under the webAI Non-Commercial License ver. 1.0 . Revenue-generating deployment requires a separate agreement with webAI. Company level: any size. The 3B Q4_K_M GGUF is 1.78 GiB and runs on CPU or 4 GB of VRAM. The 1.7B Q4_K_M is 1.06 GB. Industries: compliance and RegTech, financial services, health...

In this tutorial, we implement an end-to-end MiniMax-H3 video generation workflow using ComfyUI as a headless inference backend. We configure the environment around GPU memory, disk capacity, model precision, resolution, duration, sampling strategy, and multiple generation modes, while dynamically selecting an appropriate weight profile based on the available hardware. We install and launch ComfyUI programmatically, download the required diffusion, text-encoder, video-VAE, and audio-VAE weights from Hugging Face, and communicate with the running server through its HTTP and WebSocket APIs. We also construct the ComfyUI execution graph directly in Python, validate node schemas against the live /object_info endpoint, and support text-to-video, first- and last-frame-conditioned generation, and reference-image-conditioned generation. By combining automated model setup, schema-aware graph construction, joint video-audio decoding, progress monitoring, and output collection, we create a rep...