3.Dynamic Allocation: Memory is automatically allocated based on the task. Running a massive AI model? The GPU gets most of the pool. Doing daily tasks? The CPU takes over. No memory is wasted.
2. Direct Read, Zero Copy: When the CPU writes AI model data or an image, it simply tells the GPU the memory address. The GPU reads it directly—completely eliminating the time wasted on data transfers and duplication
Traditional systems separate CPU and GPU memory, causing massive bottlenecks. UMA breaks these limits by integrating CPU, GPU, and high-bandwidth memory onto a single System-on-a-Chip (SoC). Here is the breakdown of how it works:
3.Dynamic Allocation: Memory is automatically allocated based on the task. Running a massive AI model? The GPU gets most of the pool. Doing daily tasks? The CPU takes over. No memory is wasted.
2. Direct Read, Zero Copy: When the CPU writes AI model data or an image, it simply tells the GPU the memory address. The GPU reads it directly—completely eliminating the time wasted on data transfers and duplication
Traditional systems separate CPU and GPU memory, causing massive bottlenecks. UMA breaks these limits by integrating CPU, GPU, and high-bandwidth memory onto a single System-on-a-Chip (SoC).
Here is the breakdown of how it works:
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