ATI All-In-Wonder Radeon 7500 VE

The ATI All-In-Wonder Radeon 7500 VE is an end-of-life PCI graphics card from AMD, built on the RV200 chip with the Rage 7 architecture at a 150 nm process node. It integrates 60 million transistors on an 83 mm² die, produced by TSMC, and was released on April 15, 2002. This card is positioned in the All-In-Wonder (7000) generation, featuring a single-slot design with no additional power connectors, and it targets users seeking a combination of 2D/3D acceleration and video functionality from the early 2000s.

Benchmark Performance

The benchmark data for the ATI All-In-Wonder Radeon 7500 VE shows an average benchmark score of 0 and a percentile rank of 50 among all GPUs. This percentile indicates that the card sits exactly at the midpoint of the database’s performance distribution, meaning it outperforms half of the recorded GPUs while trailing the other half. However, the average benchmark score of 0 suggests that no standardized performance tests have been successfully recorded for this specific model, so the percentile is likely derived from its hardware capabilities rather than direct measurements.

The card’s raw throughput figures provide a clearer picture of its computational limits. The pixel rate is 520.0 MPixel/s, which translates to 520 million pixels processed per second. This rate is modest by modern standards but was adequate for the era’s typical resolutions and refresh rates. The texture rate is 1.560 GTexel/s, indicating that the card can fill 1.56 billion texels per second, a figure that aligns with its 6 texture mapping units (TMUs) and 2 render output units (ROPs). These numbers suggest that the 7500 VE is fundamentally a low-end part from its generation, designed for basic 3D acceleration rather than high-end gaming or professional workloads.

The memory clock runs at 250 MHz with an effective data rate of 500 Mbps. This clock speed, combined with the 128-bit memory bus, yields a bandwidth of 8.000 GB/s. While 8 GB/s was competitive for entry-level cards in 2002, it is severely constrained compared to later generations. The lack of any FP32 or FP16 performance figures in the data indicates that the card does not support unified shader architectures, relying instead on fixed-function pipeline stages typical of DirectX 7.0 era hardware.

Memory Subsystem

The ATI All-In-Wonder Radeon 7500 VE comes equipped with 64 MB of DDR memory, connected via a 128-bit bus. This memory configuration was standard for mainstream cards at the time of its release, but the 64 MB capacity is now a major limitation for high-resolution textures and modern game assets. The 128-bit bus width is a positive attribute, as it allows more data to be transferred per clock cycle compared to narrower 64-bit designs, but the effective bandwidth of 8.000 GB/s remains the bottleneck.

The memory clock of 250 MHz, with an effective rate of 500 Mbps, is relatively low even for its era. DDR memory at this speed was common in budget segments, but it does not provide the headroom needed for demanding applications. At high resolutions, such as 1600x1200 or beyond, the 8.000 GB/s bandwidth would quickly become saturated, leading to texture thrashing and reduced frame rates. The 64 MB frame buffer also restricts the use of large textures, forcing the card to rely on lower-detail settings or smaller texture sizes to maintain playable performance.

For users of the All-In-Wonder series, the memory subsystem was primarily designed for video capture and playback rather than 3D gaming. The 64 MB capacity and 8.000 GB/s bandwidth are sufficient for video decoding and basic 2D tasks, but they fall short for any serious 3D workload. The card’s 2 ROPs further limit fill-rate-heavy scenes, making it unsuitable for anti-aliasing or high-resolution rendering.

Ray Tracing and Feature Set

The ATI All-In-Wonder Radeon 7500 VE does not include any dedicated ray tracing cores or tensor cores, as these technologies were not part of the Rage 7 architecture. The absence of RT cores means the card cannot accelerate ray-traced effects, a feature that would not appear in consumer GPUs for nearly two decades after its release. Similarly, tensor cores, which are used for AI-based tasks like DLSS, are not present, so the card offers no machine learning acceleration.

The card supports DirectX 7.0 and OpenGL 1.3 as its API specifications. DirectX 7.0 introduced hardware transform and lighting (T&L), which is a key feature for early 3D games. This API level allows the card to offload vertex processing from the CPU, improving performance in titles that support T&L. However, DirectX 7.0 lacks support for pixel shaders (introduced in DirectX 8.0) and vertex shaders, limiting the visual effects the card can render. OpenGL 1.3 provides a similar feature set, with support for multitexturing and other extensions common in that period.

The display outputs are 1x VGA and 2x S-Video, which reflect the card’s focus on video connectivity. The VGA output handles standard monitors, while the dual S-Video outputs are designed for TV-out and video capture, a hallmark of the All-In-Wonder series. There is no support for DVI or HDMI, so digital displays would require adapters. The bus interface is PCI, not AGP, which was already an older standard by 2002, further limiting the card’s bandwidth to the CPU and system memory.

FAQ

Q: What is the memory bandwidth of the ATI All-In-Wonder Radeon 7500 VE?

A: The card has a memory bandwidth of 8.000 GB/s, achieved with 64 MB of DDR memory on a 128-bit bus running at 250 MHz (500 Mbps effective).

Q: Does this GPU support ray tracing?

A: No, the ATI All-In-Wonder Radeon 7500 VE has no ray tracing cores. The Rage 7 architecture predates ray tracing technology, and the card is limited to DirectX 7.0 and OpenGL 1.3 APIs.

Q: How many texture mapping units and render output units does it have?

A: The card features 6 TMUs and 2 ROPs, resulting in a pixel rate of 520.0 MPixel/s and a texture rate of 1.560 GTexel/s.

Q: What is the process node and transistor count?

A: The RV200 chip is fabricated on a 150 nm process at TSMC, containing 60 million transistors on an 83 mm² die.

Q: What display outputs are available?

A: The card provides 1x VGA and 2x S-Video outputs, with no digital connections like DVI or HDMI.

Q: Is a power supply upgrade required for this card?

A: The card has no power connectors and a suggested PSU of 200 W, so it draws minimal power from the PCI slot and is suitable for older systems.

How It Compares

The ATI All-In-Wonder Radeon 7500 VE has no nearest rivals listed in the benchmark database, which means there are no direct comparison scores or delta percentages available. This absence of rival data makes it difficult to quantify its performance relative to other cards from the same era. However, the percentile rank of 50 places it exactly at the median of all GPUs in the database, suggesting it is neither a standout performer nor a complete failure.

In the absence of nearest rivals, the comparison must rely on its internal specifications. The 128-bit memory bus and 8.000 GB/s bandwidth are typical of mid-range cards from 2002, but the 2 ROPs and 6 TMUs are more characteristic of budget offerings. The 64 MB frame buffer was standard for entry-level parts, while higher-end cards of the time often featured 128 MB or more. The PCI interface is a significant drawback, as AGP was the dominant standard for graphics cards by 2002, offering higher bandwidth and better CPU communication.

Against hypothetical contemporaries, the 7500 VE would likely struggle against AGP-based cards with similar memory configurations, as the PCI bus limits data transfer rates. The All-In-Wonder branding adds value for video capture and TV functionality, which many competing cards lacked, but this does not improve 3D performance. The card’s 520.0 MPixel/s pixel rate is low even for its generation, indicating that it would fall behind most dedicated gaming cards of the same period.

Who Should Consider It

The ATI All-In-Wonder Radeon 7500 VE is best suited for users who prioritize video capture and TV output over 3D gaming performance. The dual S-Video outputs and VGA connection make it a viable option for basic media center tasks, such as watching TV on a computer or recording analog video. For these use cases, the 64 MB memory and 8.000 GB/s bandwidth are sufficient, as video playback does not demand high texture throughput or large frame buffers.

For 3D gaming, the card is only suitable for very old titles from the DirectX 7.0 era, and even then, only at low resolutions and detail settings. The lack of pixel shaders means games from 2001 onward that require DirectX 8.0 features will not run or will exhibit severe graphical glitches. The 520.0 MPixel/s pixel rate and 2 ROPs prevent any meaningful anti-aliasing, and the PCI interface further reduces performance in CPU-bound scenarios.

Users with modern expectations should avoid this card entirely, as its 150 nm process, 60 million transistors, and 200 W suggested PSU reflect a bygone era. The card’s production status is end-of-life, and its average benchmark score of 0 indicates that it is not viable for any current workload. It exists as a historical artifact for collectors or those needing legacy video capture functionality, not as a practical GPU for any modern resolution or settings level. For anyone else, the data strongly suggests seeking a card with more TMUs, ROPs, and a faster memory interface.