Compute Comparison
NVIDIAAda Lovelace2023

RTX 5000 Ada

32GB GDDR6 at a lower price than RTX 6000 Ada. No NVLink. Strong choice for 13B–30B model inference.

VRAM
32GB
GDDR6
FP16
130.6
TFLOPS
Bandwidth
576.0
GB/s
TDP
250W
power
Best for:Mid-range professional inference30B model servingCost-efficient enterprise AI

RTX 5000 Ada Overview

The RTX 5000 Ada is a Ada Lovelace-generation NVIDIA GPU built on the AD104 architecture, manufactured on a TSMC 4N process node with 35.8 billion transistors. Released in 2023, it delivers 130.6 TFLOPS of FP16 throughput and 130.6 TFLOPS BF16 — the two precision formats most commonly used for transformer model training and inference. The AD104 architecture represents NVIDIA's approach to balancing compute throughput, memory bandwidth, and power efficiency for data center AI workloads. At 250W TDP, the RTX 5000 Ada sits in the moderate power envelope (250W), suitable for both workstation and data center deployments.

Memory capacity is 32GB of GDDR6 with 576 GB/s bandwidth. This determines which models can run without quantization: approximately 16B parameters at FP16 (2 bytes/param), 32B at INT8 (1 byte/param), or up to 64B parameters at INT4/GGUF quantization (0.5 bytes/param). These figures are theoretical maximums — actual capacity is reduced by KV cache, framework overhead, and activation memory, typically by 10–20% for inference and 30–40% for training. The arithmetic intensity ceiling is approximately 227 FLOP/byte (130.6 TFLOPS ÷ 576 GB/s). Most autoregressive LLM inference falls well below this threshold, making the 576 GB/s memory bandwidth the binding constraint on tokens-per-second throughput rather than raw TFLOPS.

The RTX 5000 Ada uses PCIe 4.0 for host connectivity. Without NVLink, VRAM cannot be pooled across multiple cards — the single-card 32GB capacity is the hard ceiling for model size without model sharding over slower PCIe. For workloads that exceed 32GB, the alternative is pipeline parallelism (splitting model layers across cards) rather than tensor parallelism, which introduces inter-card communication overhead at each layer boundary. This makes the RTX 5000 Ada best suited for workloads that fit within a single card's VRAM budget.

The primary workloads for the RTX 5000 Ada are Mid-range professional inference, 30B model serving, Cost-efficient enterprise AI. 32GB GDDR6 at a lower price than RTX 6000 Ada. No NVLink. Strong choice for 13B–30B model inference. Key limitations to factor into your evaluation: GDDR6 memory bandwidth far below HBM alternatives; No NVLink on A4000/A2000 — single-card VRAM ceiling; Professional but older Ampere architecture — no FP8 support. When comparing this GPU against alternatives at similar price points, the most important metrics are memory bandwidth (for inference throughput), VRAM capacity (for model size), and FP16/BF16 TFLOPS (for training speed). Raw TFLOPS figures can be misleading for inference — a GPU with lower TFLOPS but higher memory bandwidth will often outperform a higher-TFLOPS card on tokens-per-second for memory-bound autoregressive generation.

In the broader GPU market, the RTX 5000 Ada is a 3-year-old architecture that is still widely deployed in cloud data centers. CUDA compatibility is a significant advantage: the RTX 5000 Ada benefits from the full NVIDIA software ecosystem including cuDNN, TensorRT, FlashAttention, and all major inference frameworks (vLLM, TGI, TensorRT-LLM). CUDA's maturity means optimized kernels are available for virtually every model architecture. For cloud rental, availability varies significantly by provider — some specialize in this GPU tier while others may have limited stock. Compare on-demand and spot pricing across providers using the rental comparison table on this page, and factor in region availability if latency is a concern for your inference workload.

Memory

VRAM32 GB
Memory TypeGDDR6
Bandwidth576 GB/s

Compute Performance

FP3265.3 TFLOPS
FP16130.6 TFLOPS
BF16130.6 TFLOPS
INT8261 TOPS

Hardware

ArchitectureAD104
GenerationAda Lovelace
Process NodeTSMC 4N
Transistors35.8B
TDP250 W
InterconnectPCIe 4.0
Release Year2023

Relative Performance

FP16 Compute2%
VRAM Capacity11%
Mem Bandwidth4%

Relative to highest-spec GPU in database

Limitations

GDDR6 memory bandwidth far below HBM alternatives
No NVLink on A4000/A2000 — single-card VRAM ceiling
Professional but older Ampere architecture — no FP8 support

Live Cloud PricingOn-demand hourly rates

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Use Case Guidance

Mid-range professional inference
30B model serving
Cost-efficient enterprise AI

LLM Model Size Guidance

Max model (FP16)~16Bparameters at FP16 precision
Max model (INT8)~32Bparameters at INT8 precision
Max model (INT4)~64Bparameters at INT4/GGUF

Estimates only. Actual capacity depends on context length, KV cache, and framework overhead.

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Frequently Asked Questions

How much VRAM does the RTX 5000 Ada have?

The RTX 5000 Ada has 32GB of GDDR6 memory with 576 GB/s bandwidth. This enables running models up to approximately 64B parameters at INT4 precision, 32B at INT8, or 16B at FP16.

What is the FP16 performance of the RTX 5000 Ada?

The RTX 5000 Ada delivers 130.6 TFLOPS of FP16 performance and 130.6 TFLOPS BF16. INT8 throughput is 261 TOPS. For transformer inference, memory bandwidth (576 GB/s) is often the binding constraint rather than raw TFLOPS.

What is the RTX 5000 Ada best used for?

The RTX 5000 Ada is best suited for: Mid-range professional inference, 30B model serving, Cost-efficient enterprise AI. 32GB GDDR6 at a lower price than RTX 6000 Ada. No NVLink. Strong choice for 13B–30B model inference.

What interconnect does the RTX 5000 Ada use?

The RTX 5000 Ada uses PCIe 4.0. Without NVLink, VRAM cannot be pooled across multiple cards — the single-card capacity is the hard ceiling for model size.

What LLM model sizes can the RTX 5000 Ada run?

With 32GB of GDDR6, the RTX 5000 Ada can run models up to approximately 16B parameters at FP16 (2 bytes/param), 32B at INT8 (1 byte/param), or 64B at INT4/GGUF (0.5 bytes/param). These are estimates — actual capacity depends on context length, KV cache size, and framework overhead. Longer context windows require more KV cache memory, reducing the effective model size that fits.

How does the RTX 5000 Ada compare to the A100 for LLM inference?

The RTX 5000 Ada has 130.6 TFLOPS FP16 vs the A100 80GB's 312 TFLOPS, and 576 GB/s memory bandwidth vs the A100's 2,039 GB/s. For memory-bound autoregressive LLM inference, bandwidth is the primary determinant of tokens-per-second. The A100's higher bandwidth gives it a throughput advantage for large model inference, despite the RTX 5000 Ada's lower cost.

What is the power consumption of the RTX 5000 Ada?

The RTX 5000 Ada has a TDP (Thermal Design Power) of 250W. This is the maximum sustained power draw under full load. For data center deployments, total rack power consumption is typically 1.2–1.5× the GPU TDP when accounting for CPU, memory, networking, and cooling overhead. At 250W, the RTX 5000 Ada is in the low-power tier — enables high-density deployments with standard rack power.

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