NVIDIA GeForce FX Go5200 NPB 32M

Who Should Consider It

The NVIDIA GeForce FX Go5200 NPB 32M is a mobile graphics processor aimed at a very specific, and by modern standards, narrow audience. With an average benchmark score of 0 and a percentile rank of 50 against all GPUs, the data places it in a neutral, middle-of-the-road position that is more about capability class than raw performance. This chip is not for users chasing high frame rates or high-fidelity visuals.

Benchmark results indicate this part is suited for basic computing tasks where 3D acceleration is a secondary concern. It is a product for the entry-level laptop segment, designed to handle legacy applications, 2D desktop composition, and very light or older 3D workloads. At its launch, it would have been the component of choice for a mainstream productivity notebook, not a gaming machine.

For resolution and settings recommendations, the data points are clear: this GPU is constrained by its 32 MB memory and 64-bit bus. At a native resolution of 1024x768 or 800x600, which was typical for the era, users could expect playable frame rates in games from the early 2000s, provided detail settings were reduced. High resolutions and high-detail settings were simply not within its capability envelope. Users considering this chip today should strictly limit themselves to legacy titles, 2D strategy games, or indie games with minimal hardware demands. It is not suitable for any modern 3D application.

The 50th percentile ranking suggests that half of the GPUs in the database are slower and half are faster. In practical terms, this places the FX Go5200 in a position where it is neither an outlier nor a performance leader. It is a baseline mobile part, and the data suggests that any user with expectations beyond basic acceleration should look elsewhere.

Ray Tracing and Feature Set

The FX Go5200 is built on the Rankine architecture and does not feature any dedicated ray tracing or tensor cores. The fact pack lists no RT cores and no tensor cores, which is consistent with the generation it belongs to. This is a fixed-function pipeline GPU from an era before such technologies existed.

In terms of API support, the chip offers DirectX 9.0a and OpenGL 1.5 (full) with OpenGL 2.0 (partial) support. The DirectX 9.0a support is significant because it means the hardware can technically run shader model 2.0 code, though the limited shading units (not listed) and low memory bandwidth would severely hamper any shader-heavy workload. The partial OpenGL 2.0 support implies that some features of that specification are present, but not all, which could cause compatibility issues with certain applications that rely on the full 2.0 feature set.

For feature-set comparisons, the absence of tensor cores means no DLSS or AI-based upscaling. The absence of RT cores means no hardware-accelerated ray tracing. These are modern features that this 2003-era chip simply cannot provide. The core feature set revolves around the DirectX 9.0a API, which supports pixel shader 2.0 and vertex shader 2.0, enabling games of that period to run with basic visual effects like per-pixel lighting and simple shadows. Benchmark results indicate that the practical utility of these features is limited by the 800.0 MTexel/s texture rate and 800.0 MPixel/s pixel rate.

How It Compares

The fact pack does not list any nearest rivals for this GPU. With no benchmark scores and an empty nearestRivals array, there are no direct comparison points provided in the data. This is unusual but not entirely unexpected for a low-end mobile chip from 2003, as its performance class may not have been tracked alongside desktop or higher-end mobile parts.

What the data does show is a predecessor and successor relationship. The FX Go5200 succeeded the GeForce4 Go and was itself succeeded by the GeForce Go 6 series. Without specific rival scores or deltaPct values, a quantitative comparison cannot be made. However, the architectural jump from the GeForce4 Go to the FX Go5200 would have brought DirectX 9.0a support, which the GeForce4 Go lacked, as it was a DirectX 8-era product. The successor, GeForce Go 6, would have moved to a newer architecture with improved efficiency and potentially higher clock speeds, but again, specific numbers are not available.

Given the absence of rival data, the analysis must rely on the chip's own characteristics. With 4 TMUs and 4 ROPs, the FX Go5200 is a minimal implementation of the Rankine architecture. Its 45 million transistors on a 150 nm process at TSMC yields a die size of 91 mm². This makes it a small, low-power part, but the lack of a TDP figure prevents any direct power efficiency comparison.

FAQ

Q: Does this GPU support DirectX 9?

A: Yes, the FX Go5200 supports DirectX 9.0a, which allows for shader model 2.0 applications.

Q: What is the memory bandwidth of this card?

A: The memory bandwidth is 3.200 GB/s, achieved with a 64-bit bus and DDR memory running at 200 MHz (400 Mbps effective).

Q: Can this GPU handle modern games?

A: No. The data shows a 32 MB memory capacity and a 50th percentile ranking, indicating it is only suitable for legacy or very low-demand 3D applications.

Q: Does it support hardware ray tracing?

A: No. The fact pack lists no RT cores, and the Rankine architecture predates ray tracing hardware.

Q: What is the pixel fill rate?

A: The pixel rate is 800.0 MPixel/s, which limits the resolution and detail settings at which games can run smoothly.

Q: What generation does this GPU belong to?

A: It belongs to the GeForce FX Go 5 (Go 5000) generation and is built on the Rankine architecture.

Power and Cooling

The fact pack does not specify a TDP for the FX Go5200, which is common for mobile parts of this era where power draw was often integrated into the overall laptop design. However, the process node is 150 nm at TSMC, which suggests a relatively modest power envelope compared to desktop chips of the same generation. The 45 million transistor count on a 91 mm² die indicates a low-density, power-efficient design by the standards of the time.

The power connectors are listed as "None," meaning the GPU draws all its power from the AGP 8x slot. This is a significant advantage for mobile integration, as no additional power cabling is required. The suggested PSU is also not listed, which reinforces the notion that this is a slot-powered component designed for pre-built laptops where power is managed at the system level, not by an end-user PSU.

For cooling, the absence of a TDP suggests that a simple passive heatsink or a small, low-speed fan would suffice. The 800.0 MPixel/s pixel rate and 800.0 MTexel/s texture rate generate minimal heat compared to higher-end parts. In a laptop, the cooling solution would be shared with the CPU, and the FX Go5200's low power draw would not stress that thermal solution. The bus interface is AGP 8x, which is a legacy standard, and the display outputs are "Portable Device Dependent," meaning the actual outputs vary by laptop model.

Memory Subsystem

The memory configuration of the FX Go5200 is a critical bottleneck. It features 32 MB of DDR memory on a 64-bit bus, running at 200 MHz with an effective data rate of 400 Mbps. This yields a total memory bandwidth of 3.200 GB/s. For context, this is a very narrow and slow memory path, even for 2003. The 32 MB capacity was considered low even at launch, as many games of that era were beginning to require 64 MB or more for higher-resolution textures.

The 64-bit bus width directly limits the amount of data that can be transferred between the GPU and memory in a single clock cycle. Combined with the low memory clock, this results in the 3.200 GB/s bandwidth figure. This bandwidth must be shared between frame buffer access, texture reads, and vertex data, which means that in practice, the available bandwidth for any single task is even lower.

For high resolutions, this memory subsystem is severely inadequate. A 32 MB frame buffer cannot hold the color, depth, and stencil buffers for a 1280x1024 resolution at 32-bit color depth, let alone leave room for textures. The data indicates that users are effectively limited to 1024x768 or lower with reduced color depths or no anti-aliasing. The 800.0 MPixel/s pixel rate aligns with this limitation, as it suggests a fill rate sufficient for small resolutions but not for large ones. The texture rate of 800.0 MTexel/s further constrains the complexity of scenes that can be rendered, as each textured pixel requires a texel fetch. In summary, the memory subsystem is the primary factor that defines this GPU as an entry-level mobile part, suitable only for basic 3D tasks at modest resolutions.