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

Idle temperatures and power consumption

The card shows very balanced thermal behavior in idle mode. With a power consumption of just 15 to 22 watts, the highest temperature of around 50.4 °C is on one of the rear memory chips, while the other memory modules are almost on a par at 49 to 50 °C. The GPU socket reaches around 47.8 °C and the voltage converters are even slightly lower at 43 to 49 °C. The GPU socket reaches around 47.8 °C and the voltage converters are even slightly lower at 43 to 49 °C. The overall temperature pattern is very homogeneous and shows no noticeable hotspots or uneven heating. This range is completely uncritical for GDDR6 memory. The fact that the memory remains the warmest component even in idle mode is due to the behavior of the Arc drivers. Depending on the number of monitors, resolution and refresh rate, the VRAM clock remains comparatively high even in idle mode in order to ensure stable image output. As a result, the memory chips heat up slightly, while the GPU and VRMs practically run in energy-saving mode.

The measured temperatures demonstrate efficient heat distribution across the entire board. With an average difference of only around 25 to 30 Kelvin above ambient temperature, the thermal impedance of the board is in the very low range and shows that the cooling system actively dissipates heat even under minimal load. It is particularly positive that there is no localized overheating, which indicates a good thermal connection of all components. This means that the card works extremely efficiently in idle mode. The memory chips remain pleasantly cool at around 50 °C, the GPU and voltage converter are below this temperature, and there is no thermal risk even when the case air is stagnant. With a slight airflow in the case, the temperatures generally drop to around 45 °C. The measured behavior therefore corresponds exactly to that of a well-tuned blower design with even heat distribution and a stable base temperature.

Clock rates, temperatures and power consumption in AutoCAD (2D and 3D)

The evaluation of the measurement data revealed a very efficient mode of operation. The measurement process shows stable values without significant outliers, which is typical for AutoCAD, as the GPU is usually only moderately utilized in 2D and 3D workloads. The card operates in the range of its efficiency plateau, with hardly any thermal load and a constant clock rate. The clock rate remained at an average of around 1,380 MHz, which corresponds to around 65% of the maximum possible boost of the Intel Arc Pro B60. This shows that AutoCAD only uses a portion of the GPU resources, even in 3D mode.

The temperature barely rose above 58 °C during the measurement, which indicates well-dimensioned cooling and low load peaks. This keeps the cooler in the almost inaudible range, as the fan operates below 1,000 rpm. The measured power consumption was just under 64 watts on average, with brief peaks of up to 78 watts during 3D drawing operations in the Cadalyst test. In 2D mode, it dropped to under 50 watts. The Intel Arc Pro B60 works very efficiently in AutoCAD with low power consumption, moderate temperature development and a stable clock rate. The card operates far below its thermal and electrical limits, which indicates high efficiency and driver stability in CAD operation.

Clock rates, temperatures and power consumption in Blender

The measurement data from the Blender test shows a consistently high load level with only minor fluctuations over the entire runtime. The Cycles renderer places a constant load on the GPU, which is reflected in stable temperatures and consistent power consumption. The clock rate is almost constantly at 2,400 MHz and thus remains at Boost level. Only in the short initialization phases at the beginning and end of the test does the clock rate drop back to 600 MHz, which is typical for load changes. On average, the GPU reaches 2,326 MHz, which underlines the high stability of the frequency control and the lack of thermal limitations.

The temperature rises from an initial 43 °C to a maximum of 56 °C and settles at around 53-54 °C after about a minute. This level remains constant over the entire test period. The cooler therefore operates in the optimum range without the fan speed having to increase aggressively. The average power consumption is around 99 watts, with short-term peaks of around 136 watts. The lowest measured value of 36 watts only occurs in the idle phases at the end of the test. The card thus uses around 70 to 80 percent of its specified board power, which is typical for compute-intensive ray tracing workloads. In Blender rendering, the Intel Arc Pro B60 constantly operates at a high performance level with stable clock rates and very efficient thermal behavior. Despite a permanently high computing load, the temperature remains below 56 °C, which confirms excellent cooling performance. The power consumption is clearly below the maximum TDP, which indicates good energy efficiency and well-balanced power management.

Clock rates, temperatures and power consumption in OpenVINO – AI imaging

The OpenVINO workload generates an even, high GPU load with a clearly defined performance plateau. The card runs almost permanently in the boost range, demonstrating that AI inference and image generation place similar demands on the GPU as continuous rendering. The clock rate remains stable at around 2.4 GHz, the temperature rises only moderately and the power consumption briefly reaches the upper performance limit. The temperatures range between 44 and 58 °C, with a stable average value of around 56 °C. There are no thermal fluctuations or limitations, the cooling works constantly and quietly. The average power consumption rises to around 141 watts and briefly reaches peaks of up to 145 watts. This means that the card does not even come close to reaching its specified power limit and therefore remains fully within the efficiency range. The clock shows excellent stability with an average of 2,397 MHz. Only in the idle phases at the beginning and end of the test does it briefly drop back to 400 MHz.

The thermogram shows a very evenly heated rear of the graphics card, whereby the hotspots can be clearly assigned to the memory chips (Memory #1 to #3) and the voltage converters (VRM #1 and #2). The highest measured temperature is 80.5 °C at the upper memory chip (Memory #1), while the other memory areas are between 73 °C and 74 °C. The GPU socket itself remains significantly cooler at 64.9 °C, which indicates good heat dissipation via the main cooler. The VRM zones reach 65 °C to 68 °C, which is thermally completely uncritical and indicates a stable load distribution.

As the recording was made without a backplate and thermal pads, the temperatures of the memory chips on the back are to be regarded as a worst-case scenario. In a fully assembled state with thermal connection via the backplate and suitable pads, the temperature of these areas is generally reduced by 8 K to 12 K. The maximum 73 °C measured with the sensor attached to the hotspot also confirms this in practice: the temperature drop of around 7 K compared to the IR image with the rear side exposed is typical for effective heat dissipation via the backplate. Overall, memory heating is therefore well below the critical specification limit (usually 95 °C – 105 °C for GDDR6). The thermal balance of the board is good, there is no localized overheating and the temperature gradient between GPU and memory remains moderate. The rear is thermally active, but not excessively hot, which indicates even heat distribution in the PCB and solid contacting of the components. However, at almost 48 dB(A), this comes at a very high acoustic price.