Intel Arc Pro B60 Workstation Graphics Card Review with technical Analysis and Teardown – Battle of the small Workhorses under 1200 Euros

1 - Intro, overview and technical data 2 - Test system and equipment 3 - Teardown: PCB, topology and components 4 - Teardown: Cooler and fan 5 - Teardown: Material analysis and TIM testing 6 - Autodesk AutoCAD 7 - Autodesk Inventor Pro 8 - PTC Creo 9 - Dassault Systèmes Solidworks 10 - Autodesk Maya 11 - SPECviewperf 15 (2025) 12 - Adobe Photoshop 26.10 13 - Adobe After Effects 2025 14 - Adobe Premiere Pro 25.41 15 - AI benchmarks (AI Vision, Image, Text) 16 - Rendering 17 - Temperatures, clock rate, power consumption, noise 18 - Summary and conclusion

Processing and implementation

The Intel Arc Pro B60 demonstrates a consistently professional level of workmanship and mechanical implementation. The card uses a compact blower design with a precisely milled heat sink and a clean heatspreader design. The care with which the contact surfaces of the GPU and memory chips have been machined is particularly striking. The entire cooler is constructed using a solid vapor chamber, which enables even heat distribution. The accuracy of fit between PCB, heat sink and radial fan is also impressive: nothing wobbles, no tolerances on the slot bracket or airflow. This means that the B60 is (almost) on a par with its NVIDIA and AMD counterparts in this price range in terms of craftsmanship. I’ll come to that in a moment.

On the back, the card remains functional – it dispenses with excessive covers or visual gimmicks, which does justice to the aim of a workstation product. The backplate is not only visually but also thermally relevant. It contributes to the passive relief of the rear memory chips via heat conduction pads, which has a measurable effect in thermal practice. Without the backplate, the hotspot of the rear GDDR6 modules rises to around 80 °C, while a stable value of around 73 °C was measured with the backplate. This is a clear indication of a well thought-out overall design that puts functionality before showmanship.

The otherwise well thought-out design of the Intel Arc Pro B60 is marred by two details that one would not really expect in this device class. The first point of criticism concerns the power cable attachment on the back of the board. There is an unclean metal retaining plate here, which has obviously not been deburred or carefully decoupled. The sharp edges of the metal piece visibly press into the insulation of the cable and could lead to material fatigue in the long term, especially if the card is exposed to vibrations or temperature changes. For a workstation product that is designed for continuous operation, this solution looks very temporary. Such fastenings are problematic because they are located at a point where thermal expansion and tensile stress meet. The risk of the cable insulation chafing over time or coming into contact with the metal housing is low, but cannot be completely ruled out. A simple plastic clip or a deburred metal sheet with an additional layer of insulation would have elegantly prevented the problem. The fact that Intel saves on a cent part here is in clear contradiction to the otherwise high-quality workmanship of the card.

The second point of criticism concerns the heat-conducting material used between the GPU and the cooler. Although it is a solid paste with recognizably thermally conductive fillers, a phase-change material (PTM) such as Dow Corning TC-5888 or a comparable high-end pad would clearly have been the better choice in view of the operating environment and the small mounting surface. Such a solution would ensure a more stable thermal connection over longer periods of time, especially with frequent load changes and temperature cycles. While a conventional paste can dry out over time and “pump” under mechanical stress, a PTM remains dimensionally stable, distributes more evenly and constantly reduces thermal resistance even after many hours of operation.

For workstation cards in particular, which often run 24/7, this difference plays a decisive role in long-term reliability. The board itself is based on a very clean four-layer structure with solid voltage converters that dissipate their heat in a controlled manner via the PCB and the vapor chamber. The power supply is extended compared to the smaller Arc Pro B50 to keep higher loads stable. The VRM zones reach temperatures of around 65 to 68 °C under maximum load, which is a very good value for a compact blower layout.

Benchmarks and performance

In the synthetic and practical tests, the Intel Arc Pro B60 presents a consistently consistent picture. In CAD and engineering, such as AutoCAD or Autodesk Inventor, it delivers consistently high values and outperforms the smaller Arc Pro B50 by 5 to 15 percent, depending on the scenario. It is particularly strong in AutoCAD 2D and mixed design workloads, where it even outperforms established workstation cards from NVIDIA and AMD in certain areas. In 3D design and visualization applications, such as PTC Creo, Maya or Blender, the B60 proves to be a mature all-round tool. Thanks to improved driver support and the enhanced oneAPI backend, Intel has overcome many of the previous limitations. The Cycles renderer in Blender scales cleanly with the available computing power, and the card remains thermally stable. SPECviewperf 15 shows that Intel has made significant progress, particularly with Maya, CATIA and 3ds Max.

In Adobe applications, the B60 stands out with a clear top position in Photoshop. It is ahead both in the overall score and in the filter tests. After Effects and Premiere Pro show a mixed picture: Here, NVIDIA dominates the GPU-based rendering pipelines with CUDA optimizations, but Intel keeps up remarkably well. The B60 remains close to the more expensive models, especially in tracking, 2D workflows and GPU-accelerated filters. The B60’s real strength lies in AI and inference. It achieves very solid results in the Procyon AI vision test, but the card takes the lead in generative models such as Stable Diffusion 1.5 (FP16) or the text inference tests (LLaMA and Mistral 7B). The OpenVINO and ONNX-Olive paths have a clear advantage here because they are optimally adapted to the Intel Xe architecture. Especially in the text benchmarks, the B60 is well ahead of NVIDIA and AMD, which makes it a remarkable solution for local AI applications.

Here is the simplified, normalized comparison table of all relevant overall results of the benchmarks – normalized to the Intel Arc Pro B60 = 100 %. Individual tests from AutoCAD, Inventor, Creo, SolidWorks, Maya and the PugetBench partial values have been removed; only the respective total scores of the main disciplines (workstation, DCC, AI and GPU benchmarks) are taken into account. This provides a clear overview of the general performance of each card in relation to the B60.

Classifying the performance improvements of the Arc Pro B60 compared to the B50

Let’s now compare theory and practice. Based on the simple approximation “performance ∝ execution units × clock rate”, the calculation for the B60 compared to the B50 is simple: execution units: 20 (B60) compared to 16 (B50) = 1.25 and clock rate at 2.4 GHz (B60) compared to 2.6 GHz (B50) = 0.923076, so that we obtain an overall factor of 1.25 × 0.923076, i.e. around 1.153846, if we initially exclude all other factors. This results in a theoretical advantage of the B60 of around 15.4 percent over the B50, always assuming identical architecture, the same IPC per execution unit and no limitations due to memory or drivers.

In the synthetic and practical tests, the Intel Arc Pro B60 shows a consistently coherent picture. In the area of CAD and engineering, it delivers consistently high values and outperforms the smaller Arc Pro B50 by up to 15 percent, depending on the scenario, which is pretty much in line with the theoretical prediction. However, the real strength of the B60 becomes apparent in the AI and inference area. Especially in the text benchmarks, the B60 is ahead by a clear margin of up to 44 percent, which ultimately results from the better cooling with a significantly higher power budget. Conversely, this also means that the Arc Pro 50 is actually limited here and not that the B60 is so much faster per se. This means that all increases of well over 15 percent are actually only disadvantages of the Arc Pro B50, which are due to the practical implementation of the card. The B50 could actually be much faster. If we look at the following curves, we can see above all the thermal limitation of the B50 at full load, while the B60 can keep the clock rate constant. The B50 doesn’t even fail due to the power limit, but almost exclusively due to its poorer cooling in the SSF factor:

Conclusion and price/target group classification

All in all, the Intel Arc Pro B60 is an extremely well-balanced workstation card that performs well in classic CAD environments as well as in modern AI and content creation scenarios. The card is thermally stable, efficient and cleanly processed. The advantage over the smaller B50 lies not only in the higher raw performance, but also in the more robust power supply and the noticeably better performance in computing-intensive applications. With a measured power consumption of around 70 to 145 watts under full load, it remains within the range of comparable mid-range models. The Arc Pro B60 is usually priced between 800 and 900 euros, depending on availability. It is therefore clearly aimed at professional users who require a stable and certified GPU solution without having to go straight into the four-digit price segment.

The B60 is aimed at architects, engineers and developers who mainly work in AutoCAD, Revit, Inventor or SolidWorks, but also occasionally carry out 3D rendering or AI-based simulations. It is equally interesting for creative professionals who use Photoshop, Premiere or AI-supported workflows but value quiet and efficient hardware. In this combination of performance, energy efficiency and price, the Intel Arc Pro B60 is currently positioned as an interesting mid-range workstation card: technically mature, economically sensible and far underestimated in its versatility. Intel only really needs to work on the drivers and finance the certifications.

For all gaming enthusiasts, Raff has also made a video about gaming and memory, which rounds off the whole thing in classic style:

All cards are privately owned by the author, except for the Intel Arc Pro B60 and NVIDIA RTX 2000 Ada kindly provided by a community member. There were no obligations towards the manufacturers and no influence was exerted on the selection of samples and benchmarks.