G3D Mark is a standard benchmark that measures graphics performance in real-world gaming scenarios. It simplifies comparing cards from different brands, where higher scores directly correlate with better fps and smoother gaming experiences.

Head-to-Head Verdict, Benchmarks, Value & Long-Term Outlook

This comparison brings together gaming FPS, raw graphics performance, VRAM, feature set, power efficiency, pricing context, and long-term value so you can see which GPU actually makes more sense.

GeForce RTX 3050 6GB

2024

Why buy it

✅+283.2% higher PassMark G3D performance.
✅Delivers 100+% more G3D Mark for each dollar spent, at 63.6 vs 0 G3D/$ ($169 MSRP vs Unknown MSRP).
✅Access to DLSS 2 Super Resolution (2020).
✅50% more VRAM for high-resolution textures and newer games (6 GB vs 4 GB).
✅More future proof: Ampere (2020−2025) on 8nm with a newer platform for upcoming games.

Trade-offs

❌Fewer clear downsides in this head-to-head, aside from the usual pricing and availability swings.

Quadro K5000M

2012

Why buy it

✅Competitive enough if your priority is price, power, or specific feature preference.

Trade-offs

❌Lower PassMark G3D performance (2,805 vs 10,749).
❌Less VRAM, with 4 GB vs 6 GB for high-resolution textures and newer games.
❌No DLSS support; it relies on Upscaling support instead.
❌Very weak future-proofing: 2012-era hardware with 4 GB of VRAM is already obsolete for modern gaming and is hard to recommend today.
❌Lower G3D Mark per dollar, at 0 vs 63.6 G3D/$ (Unknown MSRP vs $169 MSRP).

GeForce RTX 3050 6GB

2024

Quadro K5000M

2012

Why buy it

✅+283.2% higher PassMark G3D performance.
✅Delivers 100+% more G3D Mark for each dollar spent, at 63.6 vs 0 G3D/$ ($169 MSRP vs Unknown MSRP).
✅Access to DLSS 2 Super Resolution (2020).
✅50% more VRAM for high-resolution textures and newer games (6 GB vs 4 GB).
✅More future proof: Ampere (2020−2025) on 8nm with a newer platform for upcoming games.

Why buy it

✅Competitive enough if your priority is price, power, or specific feature preference.

Trade-offs

❌Fewer clear downsides in this head-to-head, aside from the usual pricing and availability swings.

Trade-offs

❌Lower PassMark G3D performance (2,805 vs 10,749).
❌Less VRAM, with 4 GB vs 6 GB for high-resolution textures and newer games.
❌No DLSS support; it relies on Upscaling support instead.
❌Very weak future-proofing: 2012-era hardware with 4 GB of VRAM is already obsolete for modern gaming and is hard to recommend today.
❌Lower G3D Mark per dollar, at 0 vs 63.6 G3D/$ (Unknown MSRP vs $169 MSRP).

Quick Answers

So, is GeForce RTX 3050 6GB better than Quadro K5000M?

Yes. GeForce RTX 3050 6GB is clearly the better overall GPU here. You are also looking at 10,749 vs 2,805 in G3D Mark. On top of that, GeForce RTX 3050 6GB is a 2024 card with DLSS Super Resolution, while Quadro K5000M is a 2012 model from an older generation with no meaningful modern upscaling stack. So this is not really a tight same-tier comparison. It is more a modern card against an older, weaker alternative.

Which one is more future-proof for 2026 and beyond?

GeForce RTX 3050 6GB is the more future-proof choice for 2026 and beyond. You are getting a newer 2024 generation instead of 2012, 283.2% more raw performance headroom, more VRAM at 6 GB instead of 4 GB, and better upscaling support with DLSS 2 Super Resolution (2020) instead of no meaningful modern upscaling stack. That leaves it with more room for heavier textures, tougher ray tracing loads, and higher-end 1440p or 4K gaming over the next few years.

Which one is the smarter buy today, not just the cheaper card?

GeForce RTX 3050 6GB is the smarter buy today, but it is not as lopsided as a simple winner label makes it sound. GeForce RTX 3050 6GB is priced in an unclear MSRP range at $169 MSRP versus an unclear MSRP, and you are getting 283.2% higher G3D Mark. It also leads G3D-per-dollar by 100+%. That is why the better overall card still comes out as the smarter buy today, not just the faster one.

Is Quadro K5000M still worth buying for gaming in 2026?

Yes. Quadro K5000M is still a strong modern gaming GPU: it is still comfortable for 1080p and decent for 1440p, though 4K is more situational. It remains a good buy when you can get it meaningfully cheaper than the alternative around an unclear MSRP, even if GeForce RTX 3050 6GB is still the cleaner recommendation on overall value today.

Games Benchmarks

Real-world benchmarks and performance projections based on comprehensive hardware analysis and comparative metrics. Values represent expected performance on High/Ultra settings at 1080p, 1440p, and 4K. Modeled using a Ryzen 7 9800X3D reference profile to minimize specific CPU bottlenecks.

Note: Performance behavior can vary per game. Specific architectures may perform better or worse depending on game engine optimizations and API implementation.

GeForce RTX 3050 6GB Benchmark Check

Quadro K5000M Benchmark Check

Path of Exile 2

Preset	GeForce RTX 3050 6GB	Quadro K5000M
1080p
low	85 FPS	103 FPS
medium	72 FPS	89 FPS
high	60 FPS	70 FPS
ultra	40 FPS	42 FPS
1440p
low	74 FPS	90 FPS
medium	64 FPS	76 FPS
high	47 FPS	56 FPS
ultra	30 FPS	32 FPS
4K
low	27 FPS	29 FPS
medium	25 FPS	27 FPS
high	17 FPS	18 FPS
ultra	15 FPS	16 FPS

Open GeForce RTX 3050 6GB Open Quadro K5000M

Path of Exile 2

Path of Exile 2

Counter-Strike 2

Preset	GeForce RTX 3050 6GB	Quadro K5000M
1080p
low	174 FPS	83 FPS
medium	149 FPS	60 FPS
high	118 FPS	45 FPS
ultra	87 FPS	29 FPS
1440p
low	129 FPS	46 FPS
medium	106 FPS	30 FPS
high	83 FPS	22 FPS
ultra	62 FPS	16 FPS
4K
low	74 FPS	18 FPS
medium	62 FPS	11 FPS
high	48 FPS	9 FPS
ultra	34 FPS	7 FPS

Open GeForce RTX 3050 6GB Open Quadro K5000M

Counter-Strike 2

Counter-Strike 2

League of Legends

Preset	GeForce RTX 3050 6GB	Quadro K5000M
1080p
low	484 FPS	126 FPS
medium	387 FPS	101 FPS
high	322 FPS	84 FPS
ultra	242 FPS	63 FPS
1440p
low	363 FPS	95 FPS
medium	290 FPS	76 FPS
high	242 FPS	63 FPS
ultra	181 FPS	47 FPS
4K
low	242 FPS	63 FPS
medium	193 FPS	50 FPS
high	161 FPS	42 FPS
ultra	121 FPS	32 FPS

Open GeForce RTX 3050 6GB Open Quadro K5000M

League of Legends

League of Legends

Valorant

Preset	GeForce RTX 3050 6GB	Quadro K5000M
1080p
low	243 FPS	126 FPS
medium	210 FPS	101 FPS
high	171 FPS	84 FPS
ultra	144 FPS	63 FPS
1440p
low	185 FPS	95 FPS
medium	166 FPS	76 FPS
high	131 FPS	63 FPS
ultra	109 FPS	47 FPS
4K
low	104 FPS	63 FPS
medium	87 FPS	50 FPS
high	69 FPS	42 FPS
ultra	55 FPS	29 FPS

Open GeForce RTX 3050 6GB Open Quadro K5000M

Valorant

Valorant

Check FPS for your specific build

Technical Specifications

Side-by-side comparison of GeForce RTX 3050 6GB and Quadro K5000M

GeForce RTX 3050 6GB

The GeForce RTX 3050 6GB is manufactured by NVIDIA. It was released in February 2 2024. It features the Ampere architecture. The core clock ranges from 1042 MHz to 1470 MHz. It has 2304 shading units. The thermal design power (TDP) is 70W. Manufactured using 8 nm process technology. It features 18 dedicated ray tracing cores for enhanced lighting effects. G3D Mark benchmark score: 10,749 points. Launch price was $179.

Quadro K5000M

The Quadro K5000M is manufactured by NVIDIA. It was released in August 7 2012. It features the Kepler architecture. The core clock speed is 601 MHz. It has 1344 shading units. The thermal design power (TDP) is 100W. Manufactured using 28 nm process technology. G3D Mark benchmark score: 2,805 points. Launch price was $329.99.

⚡

Graphics Performance

In G3D Mark, the GeForce RTX 3050 6GB scores 10,749 versus the Quadro K5000M's 2,805 — the GeForce RTX 3050 6GB leads by 283.2%. The GeForce RTX 3050 6GB is built on Ampere while the Quadro K5000M uses Kepler, both on 8 nm vs 28 nm. Shader units: 2,304 (GeForce RTX 3050 6GB) vs 1,344 (Quadro K5000M). Raw compute: 6.774 TFLOPS (GeForce RTX 3050 6GB) vs 1.615 TFLOPS (Quadro K5000M).

Feature	GeForce RTX 3050 6GB	Quadro K5000M
G3D Mark Score	10,749+283%	2,805
Architecture	Ampere	Kepler
Process Node	8 nm	28 nm
Shading Units	2304+71%	1344
Compute (TFLOPS)	6.774 TFLOPS+319%	1.615 TFLOPS
ROPs	32	32
TMUs	72	112+56%
L1 Cache	2.3 MB+1991%	0.11 MB
L2 Cache	2 MB+300%	0.5 MB

✨

Advanced Features (DLSS/FSR)

The GeForce RTX 3050 6GB gives access to NVIDIA DLSS (Deep Learning Super Sampling), widely regarding as the superior upscaling method for image quality. The Quadro K5000M relies on FSR (FidelityFX Super Resolution), which is capable but generally slightly noisier than DLSS in motion.

Feature	GeForce RTX 3050 6GB	Quadro K5000M
Upscaling Tech	DLSS 2 Super Resolution	Upscaling support
Frame Generation	Not Supported	Not Supported
Ray Reconstruction	No	No
Low Latency	NVIDIA Reflex	Standard

💾

Video Memory (VRAM)

The GeForce RTX 3050 6GB comes with 6 GB of VRAM, while the Quadro K5000M has 4 GB. The GeForce RTX 3050 6GB offers 50% more capacity, crucial for higher resolutions and texture-heavy games. Bus width: 96-bit vs 64-bit. L2 Cache: 2 MB (GeForce RTX 3050 6GB) vs 0.5 MB (Quadro K5000M) — the GeForce RTX 3050 6GB has significantly larger on-die cache to reduce VRAM reliance.

Feature	GeForce RTX 3050 6GB	Quadro K5000M
VRAM Capacity	6 GB+50%	4 GB
Memory Type	GDDR6	GDDR5
Bus Width	96-bit+50%	64-bit
L2 Cache	2 MB+300%	0.5 MB

🖥️

Display & API Support

DirectX support: 12 Ultimate (GeForce RTX 3050 6GB) vs 12 (11_0) (Quadro K5000M). Vulkan: 1.3 vs 1.2. OpenGL: 4.6 vs 4.5. Maximum simultaneous displays: 4 vs 4.

Feature	GeForce RTX 3050 6GB	Quadro K5000M
DirectX	12 Ultimate	12 (11_0)
Vulkan	1.3+8%	1.2
OpenGL	4.6+2%	4.5
Max Displays	4	4

🎬

Media & Encoding

Hardware encoder: NVENC (5th Gen) (GeForce RTX 3050 6GB) vs 1st Gen NVENC (Kepler) (Quadro K5000M). Decoder: NVDEC (7th Gen) vs PureVideo HD VP5. Supported codecs: H.264,HEVC,AV1 (Decode Only) (GeForce RTX 3050 6GB) vs H.264,VC-1,MPEG-2,MPEG-4 (Quadro K5000M).

Feature	GeForce RTX 3050 6GB	Quadro K5000M
Encoder	NVENC (5th Gen)	1st Gen NVENC (Kepler)
Decoder	NVDEC (7th Gen)	PureVideo HD VP5
Codecs	H.264,HEVC,AV1 (Decode Only)	H.264,VC-1,MPEG-2,MPEG-4

🔌

Power & Dimensions

The GeForce RTX 3050 6GB draws 70W versus the Quadro K5000M's 100W — a 35.3% difference. The GeForce RTX 3050 6GB is more power-efficient. Recommended PSU: 300W (GeForce RTX 3050 6GB) vs 350W (Quadro K5000M). Power connectors: None vs PCIe-powered. Typical load temperature: 75°C vs 81°C.