Recall vs Utilyze

Recall is a local-first multimodal semantic search tool that lets you find any file on your computer using natural language — images, PDFs, audio, video, and text — without any manual tagging, folder organization, or metadata. Ask "that invoice from the dentist last spring" or "photo of the whiteboard with the Q3 roadmap" and it surfaces the right file. Under the hood, Recall uses Google's Gemini Embedding 2 to generate semantic embeddings for all your files and stores them in ChromaDB, a local vector database that runs entirely on your machine. Nothing leaves your device. The Raycast extension adds a visual grid UI so you can search from anywhere on macOS without opening a terminal. First-run indexing can take 20-30 minutes for large libraries, but subsequent queries are near-instant. The project is MIT-licensed and built by a solo developer. It's a clear response to the frustration that Spotlight, Find, and Windows Search still rely heavily on filename and metadata matching even in 2026. As Gemini Embedding 2 is free within generous limits, the operating cost is essentially zero for personal use.

Utilyze is an open-source GPU monitoring tool that measures actual compute efficiency — the percentage of theoretical maximum floating-point throughput and memory bandwidth your workload is achieving. The core problem: standard GPU dashboards can read 100% utilization while your actual compute SOL (Speed of Light) percentage sits at 1%, creating dangerous false confidence. The tool tracks three metrics in real time: Compute SOL% (actual FLOPS vs theoretical max), Memory SOL% (achieved bandwidth vs peak capacity), and Attainable SOL% (the realistic ceiling given your workload's arithmetic intensity). This lets ML engineers immediately identify whether they're compute-bound or memory-bandwidth-bound and pull the right optimization levers. Built by Systalyze and released under Apache 2.0, Utilyze currently targets NVIDIA hardware with AMD MI300X/MI325X support planned. For any team spending real money on GPU compute for AI training or inference, this kind of visibility can cut cloud costs significantly — and it runs with negligible overhead, meaning you can monitor in production without affecting workload performance.