Deep dives into Metal optimization, Apple Silicon architecture, and medical imaging
A technical deep-dive into our Metal shader optimization strategies, unified memory architecture exploitation, and Neural Engine acceleration for wavelet transforms. Learn how we squeezed every drop of performance from Apple Silicon.
Read Full Article →Comprehensive benchmarks of HTJ2K MetaWave on the new M4 Max chip. We explore the 32-core GPU performance, memory bandwidth improvements, and how the upgraded Neural Engine impacts our codec pipeline.
Read Full Article →Traditional PACS systems struggle with modern 4K medical displays. We explore how real-time JPEG 2000 decoding transforms radiology workflows, reduces diagnostic latency, and improves patient care outcomes.
Read Full Article →An in-depth look at Metal's threadgroup memory and how we use it for wavelet transform optimizations. Includes code samples and performance comparisons vs traditional global memory approaches.
Read Full Article →How HTJ2K MetaWave enables real-time 8K stereoscopic video decoding for Apple Vision Pro. We discuss the unique challenges of spatial computing and our latency-optimized pipeline.
Read Full Article →Why Apple Silicon's unified memory architecture is a game-changer for image processing. Quantitative analysis of memory bandwidth, latency, and power efficiency compared to Intel + NVIDIA setups.
Read Full Article →A practical guide for medical device manufacturers incorporating our codec. We walk through the 510(k) submission process, required documentation, and validation testing protocols.
Read Full Article →Leveraging the M4's 16-core Neural Engine for RGB→YCbCr conversion. How we use Core ML to offload color transforms at 38 trillion operations per second with minimal power draw.
Read Full Article →Case study: How a leading pathology lab uses HTJ2K MetaWave to stream gigapixel whole-slide images in real-time. From workflow analysis to deployment architecture.
Read Full Article →A detailed explanation of why we chose to focus exclusively on Apple Silicon. From unified memory to Metal's unique features, we break down the architectural advantages that make 45× speedups possible.
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