# BusyBox **Repository Path**: mirrors_microsoft/BusyBox ## Basic Information - **Project Name**: BusyBox - **Description**: No description available - **Primary Language**: Unknown - **License**: Not specified - **Default Branch**: main - **Homepage**: None - **GVP Project**: No ## Statistics - **Stars**: 0 - **Forks**: 0 - **Created**: 2025-09-25 - **Last Updated**: 2025-09-27 ## Categories & Tags **Categories**: Uncategorized **Tags**: None ## README # BusyBox: Benchmarking Affordance Generalization BusyBox is a physical 3D-printable device for benchmarking affordance generalization in robot foundation models. ![busybox_assembled](assets/bb_head_no_background.png) It features - Modular design with 6 interchangeable modules (buttons, switches, sliders, wires, knob, and display) - Open-source CAD files and bill of materials for easy reproduction - Optional electronics and Raspberry Pi instrumentation for automated state logging - Reconfigurable setups enabling systematic evaluation of generalization - A language-annotated dataset of 1000+ demonstration trajectories oof BusyBox affordances Please check out our [website]() for more details. ## Quick-Start ```bash systemctl status evaluate-bringup.service systemctl enable evaluate-bringup.service systemctl restart evaluate-bringup.service ``` The `evaluate_bringup` will now be running and the BusyBox is recording its states during rollouts. ## BusyBox assembly instructions For fully building a instrumented BusyBox capable of state logging, see the [BOM](). TODO: add BOM. First print the BusyBox following [Printing Instructions](cad/printing_instructions.md) with details on files to print and any details on print settings. ## Electronic Assembly: TODO: add instructions on how to assemble electronics with pictures ## Firmware Flashing: TODO: add instructions on how to flash Arduino Nanos with firmware. ## Data Collection Guide See [Data Collection](assets/taskbox_data_collection.docx) for a look into how we collected our data.