NVIDIA Quadro RTX 3000 Max-Q

The NVIDIA Quadro RTX 3000 Max-Q is a mobile professional GPU built on the Turing architecture, fabricated at TSMC on a 12 nm process with 10,800 million transistors packed into a 445 mm² die. It pairs 6 GB of GDDR6 memory on a 192-bit bus with 288.0 GB/s of bandwidth, and its 1,920 shading units, 120 TMUs, and 64 ROPs deliver 4.666 TFLOPS of FP32 compute. Benchmark percentile data places this part at exactly the 50th percentile of all GPUs tracked in the database, a true midpoint performer. The Max-Q variant runs at a 60 W TDP with no external power connectors, reflecting its intended deployment in thin, power-constrained portable workstations. Released on May 26, 2019, it is now end-of-life, with the Quadro Pascal-M as its predecessor and Ampere-MW as its successor.

Who Should Consider It

The 50th-percentile standing means the Quadro RTX 3000 Max-Q delivers exactly median performance across the entire GPU population tracked in this database. For users working at 1080p-class resolutions, the 6 GB GDDR6 frame buffer with 288.0 GB/s of bandwidth is sufficient for moderate texture loads and professional visualization tasks, though the 192-bit bus and 6 GB capacity will feel constrained in heavier multi-application workflows. The 4.666 TFLOPS FP32 throughput and 145.8 GTexel/s texture rate position this GPU for content creation, CAD, and simulation workloads where driver stability matters more than raw frame rates. The inclusion of 30 RT cores and 240 tensor cores means ray-traced rendering and AI-accelerated denoising are available, but the modest compute throughput suggests users should keep ray-traced workloads at conservative settings. The 77.76 GPixel/s pixel rate supports high-resolution desktop composition, though display outputs are portable-device dependent, so actual connectivity depends on the host laptop.

Given its end-of-life production status and 2019 release date, this GPU suits users acquiring refurbished or existing mobile workstations who need Turing's feature set — specifically DirectX 12 Ultimate and Vulkan 1.4 support — without requiring top-tier throughput. The 60 W TDP and IGP slot width indicate a thin-and-light form factor, so buyers should expect a laptop that prioritizes portability over sustained peak performance. It is not for users chasing high-refresh-rate gaming or heavy 4K rendering; the data shows a balanced, mid-range profile that excels in professional mobility rather than extreme compute. The base clock of 600 MHz and boost clock of 1215 MHz further confirm a power-constrained design where thermal headroom is the limiting factor.

How It Compares

The nearestRivals field in the database is empty, so no direct competitor scores or delta percentages are available for side-by-side comparison. However, the 50th-percentile rank across all tracked GPUs provides a meaningful anchor: exactly half of the GPUs in the database outperform this part, and half underperform it. This median placement suggests the Quadro RTX 3000 Max-Q occupies a middle ground between entry-level mobile graphics and high-end desktop parts, consistent with its Max-Q design philosophy of balancing performance within a 60 W power envelope.

Against its own predecessor, the Quadro Pascal-M generation, the Turing architecture brings hardware ray tracing and tensor core capabilities that older Pascal-based parts lacked, along with DirectX 12 Ultimate API support. The successor, Ampere-MW, represents a newer architecture generation, implying architectural improvements in ray tracing and tensor throughput, though specific numbers are not available in this dataset. The 12 nm process node, while mature, reflects the trade-off NVIDIA made to fit 10,800 million transistors into a 445 mm² die at a 60 W TDP — a density of 24.3 million transistors per square millimeter. In practical terms, the data shows a GPU that sits at the exact median of the performance distribution, meaning users coming from a lower-tier part will notice a solid uplift, while those accustomed to high-end parts will find it modest. The 6 GB memory capacity and 288.0 GB/s bandwidth are consistent with its mid-range positioning, neither generous nor restrictive for the compute throughput on offer.

Ray Tracing and Feature Set

The Quadro RTX 3000 Max-Q is built on the Turing architecture, which introduced dedicated ray tracing hardware. The GPU includes 30 RT cores specifically designed to accelerate ray-traced rendering, and 240 tensor cores for AI-accelerated workloads such as denoising and inference. API support is comprehensive: DirectX 12 Ultimate at feature level 12_2, OpenGL 4.6, and Vulkan 1.4. The DirectX 12 Ultimate designation indicates full support for hardware ray tracing, mesh shaders, variable rate shading, and other modern rendering features. The FP16 throughput of 9.331 TFLOPS at a 2:1 ratio relative to FP32 (4.666 TFLOPS) shows the tensor cores can process half-precision data at double the rate, which is advantageous for machine learning inference and certain compute workloads. The 145.8 GTexel/s texture fill rate and 77.76 GPixel/s pixel rate provide the fundamental rasterization throughput needed for traditional rendering. The 6 GB GDDR6 memory at 12 Gbps effective speed across a 192-bit bus yields 288.0 GB/s of bandwidth — sufficient for the GPU's compute capabilities, though not generous for large texture datasets. The Turing architecture's RT and tensor cores give this mobile Quadro a feature set that extends beyond pure rasterization, making it suitable for hybrid rendering pipelines that combine ray-traced effects with traditional rasterization.

FAQ

Q: Does the Quadro RTX 3000 Max-Q support hardware ray tracing?

A: Yes. The Turing architecture includes 30 dedicated RT cores, and the GPU supports DirectX 12 Ultimate (12_2), which mandates hardware ray tracing support.

Q: How much memory does it have and what type?

A: It has 6 GB of GDDR6 memory on a 192-bit bus, with 12 Gbps effective speed and 288.0 GB/s of bandwidth.

Q: What is the power draw and does it need external power connectors?

A: The TDP is 60 W, and the data shows no power connectors are required — the slot width is listed as IGP (integrated graphics package), indicating power is drawn from the motherboard.

Q: Is this GPU still in production?

A: No. The production status is end-of-life, with a release date of May 26, 2019.

Q: What API levels does it support?

A: DirectX 12 Ultimate (feature level 12_2), OpenGL 4.6, and Vulkan 1.4.

Q: What is the FP32 compute performance?

A: The GPU delivers 4.666 TFLOPS of FP32 compute, with 9.331 TFLOPS of FP16 at a 2:1 ratio.

Q: Where does it rank among all GPUs?

A: It sits at the 50th percentile of all GPUs tracked in the database, placing it exactly at the median.

Power and Cooling

The Quadro RTX 3000 Max-Q is rated at a 60 W TDP, a modest figure that reflects its Max-Q design philosophy for thin-and-light portable workstations. The power delivery is notable for what it lacks: the data lists no power connectors, meaning the GPU draws all power through its PCIe 3.0 x16 interface or the motherboard slot, consistent with its IGP (integrated graphics package) slot width classification. No suggested PSU is listed in the dataset, which aligns with the mobile form factor — the host laptop's power adapter and internal power delivery system handle the GPU's requirements, and there is no need for a discrete desktop PSU. The 12 nm fabrication process at TSMC, with 10,800 million transistors in a 445 mm² die, produces the 60 W thermal envelope. The absence of a dedicated cooler specification in the data suggests the thermal solution is integrated into the laptop's overall cooling system, which is typical for Max-Q parts. The 600 MHz base clock and 1215 MHz boost clock are relatively low, indicating the power budget is heavily constrained — the boost clock is where the GPU spends most of its operational time under load, and the 60 W limit keeps thermals manageable. The memory runs at 1500 MHz (12 Gbps effective), a fixed specification regardless of load. For users considering a system with this GPU, the data indicates no additional power infrastructure is needed beyond what the host laptop provides — no external power bricks, no supplementary PCIe power cables, and no PSU sizing considerations. The end-of-life status means thermal management has been validated over the product's lifecycle, but the 60 W envelope remains a firm limit; the boost clock of 1215 MHz will only be maintained if the laptop's cooling solution can dissipate the heat within that power budget.