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πŸ™ GPU COMPARISON MATRIX FOR AI / LLM WORKLOADS

Detailed technical comparison between five graphics cards: RTX 3060 12GB, RTX 5060 Ti 16GB, 9060 XT 16GB, Arc A770 16GB, and Arc B60 24GB, focusing on core metrics for AI, Deep Learning, and Local LLM deployments.

πŸ“Š Detailed Comparison Matrix

Metric NVIDIA GeForce RTX 3060 NVIDIA GeForce RTX 5060 Ti AMD Radeon RX 9060 XT Intel Arc A770 (Graphics) Intel Arc B60 (Workstation)
1. VRAM Capacity 12 GB GDDR6 16 GB GDDR7 16 GB GDDR6 16 GB GDDR6 24 GB GDDR6
2. Memory Speed 15 Gbps
(Bus: 192-bit)
(Bandwidth: 360 GB/s)
28 Gbps
(Bus: 128-bit)
(Bandwidth: 448 GB/s)
16 Gbps
(Bus: 128-bit)
(Bandwidth: 320 GB/s)
17.5 Gbps
(Bus: 256-bit)
(Bandwidth: 560 GB/s)
19 Gbps
(Bus: 192-bit)
(Bandwidth: 456 GB/s)
3. AI Compute (INT8 TOPS) ~244 TOPS
(Tensor Cores Gen 3)
~759 TOPS
(Tensor Cores Gen 5)
~410 TOPS
(RDNA 4 AI Accelerators)
~256 TOPS
(XMX Engines)
~197 TOPS
(XMX Engines Gen 2)
4. Release Date Q1 / 2021 Q1 / 2025 Q1 / 2025 Q4 / 2022 Q1 / 2025

πŸ’‘ Quick Analysis for AI / Local LLM Engineers

  1. VRAM & Model Capacity:

    • The Intel Arc B60 stands out with its massive 24GB VRAM, matching upper-tier workstation cards in capacity. This allows it to comfortably host larger models (up to quantized 32B or heavily compressed 70B models) entirely within the GPU memory.
    • The 5060 Ti, 9060 XT, and A770 sit comfortably at 16GB VRAM, which is the ideal sweet spot for running mid-sized models like Llama-3-8B or Qwen-2.5-14B without system RAM spillover.
    • The RTX 3060 falls behind with 12GB, but remains a budget-friendly entry-level gateway card.
  2. Memory Bandwidth (Token Generation Speed):

    • The older Intel Arc A770 still holds the highest raw bandwidth (560 GB/s) due to its unconstrained 256-bit bus width, ensuring fluid data transfer during inference loops.
    • The Arc B60 sits at 456 GB/s; even with its 24GB capacity, the 192-bit bus acts as a subtle speed limit compared to high-end architectures.
    • The RTX 5060 Ti achieves a highly efficient 448 GB/s by leveraging next-gen GDDR7 28 Gbps modules, overcoming its narrow 128-bit bus constraint.
    • The RX 9060 XT is the most bottlenecked here at 320 GB/s, which slightly bottlenecks its token-per-second output during pure LLM inference tasks.
  3. Raw Inference Performance (INT8 TOPS):

    • The RTX 5060 Ti absolutely obliterates the field with a staggering 759 TOPS, making it the premier choice for fine-tuning, computer vision, and heavy image generation loops.
    • The RX 9060 XT occupies a strong mid-range position at ~410 TOPS, representing a substantial compute upgrade for AMD's mainstream platform.
    • The Intel Arc B60 significantly underdelivers in compute density, dropping below 200 TOPSβ€”effectively losing to both its predecessor (A770) and even the aging RTX 3060 in raw matrix mathematical operations.
  4. Software Ecosystem & Compatibility:

    • NVIDIA (3060, 5060 Ti): Seamless out-of-the-box operation natively powered by CUDA. 100% day-one compatibility with major frameworks (PyTorch, HuggingFace, vLLM).
    • AMD (9060 XT): Relies on ROCm. Highly performant and native on Linux-based environments (via Ollama or Llama.cpp), though Windows support requires slightly more setup.
    • Intel (A770, B60): Requires reliance on the OneAPI / OpenVINO toolkit or IPEX (Intel Extension for PyTorch), demanding a higher degree of manual environment configuration and command-line troubleshooting.