NVIDIA GeForce FX Go5250

The NVIDIA GeForce FX Go5250 is a mobile graphics processor introduced in early 2003, built on the Rankine architecture and fabricated at TSMC using a 150 nm process. It packs 45 million transistors on a 124 mm² die, with a transistor density of 362.9K per square millimeter. The GPU is part of the GeForce FX Go 5 series and serves as the successor to the GeForce4 Go, later replaced by the GeForce Go 6. Its production status is end-of-life, and it was released on February 28, 2003.

Benchmark Performance

The database records no benchmark scores for this GPU. The average benchmark score is zero, and the percentile ranking against all GPUs stands at 50, placing it exactly at the median of the distribution. Without any measured performance data, the only way to gauge its capabilities is through its fixed specifications. The pixel rate is 1.000 GPixel/s and the texture rate is 1.000 GTexel/s, figures that reflect the 4 TMUs and 4 ROPs. These rates are modest by any standard, suggesting that the GPU was aimed at entry-level portable systems rather than high-performance gaming. The memory clock of 250 MHz yields 500 Mbps effective data rate, which combined with the 128-bit bus produces a bandwidth of 8.000 GB/s. That bandwidth is sufficient for the era's typical laptop resolutions, but it would struggle with higher settings or anti-aliasing. The 50th percentile rank is a relative measure, but with no scores to anchor it, it only indicates that the GPU sits in the middle of the database's performance spread—not a strong statement given that many older and low-end parts populate that region.

The absence of any benchmark data means that comparisons to other GPUs cannot be expressed in percentage deltas. Instead, the performance envelope must be inferred from the fill rates and memory bandwidth. A pixel rate of 1 GPixel/s and a texture rate of 1 GTexel/s are low enough that even early DirectX 9 titles would require reduced resolutions and detail settings to remain playable. The GPU's 64 MB frame buffer further constrains the resolution and texture quality. While the 128-bit memory bus is a positive design choice, the 8 GB/s bandwidth is not generous, and it will become a bottleneck when the scene complexity increases. In short, the data suggests a part that is capable of basic 3D acceleration but not designed for demanding workloads.

Who Should Consider It

Given its portable-device-dependent display outputs, this GPU is explicitly designed for laptops and mobile workstations. The 64 MB of DDR memory is a small frame buffer, so it is best suited for older titles or modern games at reduced resolution and low detail settings. The lack of any benchmark scores means we cannot specify exact frame rates, but the pixel and texture rates of 1 GPixel/s and 1 GTexel/s indicate a fill-rate ceiling that will limit visual effects. Users who prioritize long battery life and basic 2D/3D acceleration over gaming performance might find this adequate. The AGP 8x interface ensures compatibility with motherboards of that era, but the GPU is end-of-life, so new adopters are unlikely. For a user in 2003, this GPU would handle productivity applications, web browsing, and very light gaming. It would not be suitable for high-resolution textures or modern shader-heavy effects. The 64 MB memory capacity means that even a 1024×768 desktop would consume a significant portion of the frame buffer, leaving little room for depth buffers or stencil effects. This is a component for casual use, not for enthusiasts.

How It Compares

The nearestRivals field in the database is empty, so there are no direct comparative scores to reference. In the absence of rival data, the GPU's position must be inferred from its own specifications. As the successor to the GeForce4 Go, it introduces the Rankine architecture and partial OpenGL 2.0 support, but the performance delta cannot be quantified. The GeForce4 Go is not listed with any specs in the database, so no direct comparison is possible. Its successor, the GeForce Go 6, would presumably offer improvements, but again no benchmark scores are available. The 50th percentile ranking suggests it sits in the middle of the overall GPU distribution, but that is a relative measure without a baseline. The lack of rivals means that this GPU must be evaluated on its own merits, which are modest. It is not a high-performance part, and the data does not support any claim of superiority over any specific competitor.

FAQ

Q: Does the GeForce FX Go5250 support DirectX 9?

A: Yes, it supports DirectX 9.0a.

Q: What is the memory bandwidth of this GPU?

A: The memory bandwidth is 8.000 GB/s, achieved with a 128-bit DDR bus running at 250 MHz (500 Mbps effective).

Q: Does it have ray tracing cores?

A: No, the GPU has no RT cores or tensor cores.

Q: What is the process node used for this GPU?

A: It uses a 150 nm process, fabricated by TSMC.

Q: What is the bus interface?

A: The bus interface is AGP 8x.

Q: Is this GPU still in production?

A: No, its production status is end-of-life.

Ray Tracing and Feature Set

The GeForce FX Go5250 has no dedicated ray tracing cores and no tensor cores. Its feature set is defined by the APIs it supports: DirectX 9.0a and OpenGL 1.5 (full) with partial 2.0 support. Vulkan is not listed, which is expected for a 2003 GPU. The absence of RT and tensor cores means no hardware-accelerated ray tracing or AI-based features. The GPU does offer basic pixel and texture processing, with a pixel rate of 1.000 GPixel/s and texture rate of 1.000 GTexel/s. These rates are low, so even contemporary effects like shadows and reflections would have to be handled conservatively. The partial OpenGL 2.0 support is noteworthy—it indicates that some OpenGL 2.0 features are present, but not all, which could lead to compatibility quirks with certain applications. DirectX 9.0a is a specific revision that predates later 9.0c updates, so some newer shader models are not supported. Overall, the feature set is minimal and focused on the basics of the time.

Memory Subsystem

The memory subsystem consists of 64 MB of DDR RAM on a 128-bit bus. The memory clock is 250 MHz, translating to an effective data rate of 500 Mbps per pin. Total bandwidth is 8.000 GB/s. For a laptop GPU of this era, 64 MB is a modest amount; it would accommodate standard definition resolutions but would quickly become a bottleneck at higher resolutions or with heavy texture detail. The 128-bit bus is a positive factor, as it provides more bandwidth than a 64-bit design, but the overall capacity remains limited. The bandwidth is sufficient for the pixel and texture rates, but it leaves little headroom for advanced filtering or large textures. At 8 GB/s, the memory can feed the 1 GPixel/s fill rate without stalling, but any increase in resolution or texture size will push the subsystem to its limits. The DDR type is a step up from SDR, but the low clock speed keeps bandwidth in check. This is a memory configuration that prioritizes cost and power savings over performance.

Power and Cooling

The fact pack does not list a TDP for this GPU. However, the power connector requirement is listed as 'None', indicating that the card (or module) does not need an external power connector. This is typical for a low-power mobile GPU. The suggested PSU field is also null, which is consistent with a part that draws power from the motherboard or laptop power delivery. Given the 150 nm process and 45 million transistors, power consumption is likely modest, but without a TDP figure we cannot quantify it. The absence of a power connector also implies that cooling requirements are minimal, possibly relying on passive cooling or a small fan in the laptop chassis. The 124 mm² die size and 45 million transistor count are small by modern standards, but for 2003 they represent a mid-range mobile chip. The lack of a TDP rating is unusual, but the 'None' power connector is a strong indicator that the GPU was designed for low-power environments. The portable-device-dependent display outputs further reinforce the mobile focus, where thermal and power budgets are tight.