Intel Iris Graphics 6100 Mobile

Intel Iris Graphics 6100 Mobile is an integrated graphics processor built on Intel’s Broadwell GT3 die, using a 14 nm process and the Generation 8.0 architecture. It is an end-of-life product released in September 2014, featuring 384 shading units, 48 texture mapping units, and 6 raster output units. The GPU operates at a base clock of 300 MHz with a boost clock of 1000 MHz, delivering a pixel rate of 6.000 GPixel/s, a texture rate of 48.00 GTexel/s, and a peak FP32 throughput of 768.0 GFLOPS. The die size is 133 mm², and the chip connects via a Ring Bus interface. The fact pack lists no nearest rivals, benchmarks, or average benchmark score, so this analysis relies on the GPU’s own specifications and percentile placement.

Power and Cooling

The Intel Iris Graphics 6100 Mobile carries a thermal design power (TDP) of 15 W, which categorizes it as a low-power integrated solution intended for mobile platforms. Because the GPU is an IGP (integrated graphics processor), it occupies no slot width and requires no dedicated power connectors. The power delivery is entirely dependent on the host motherboard and CPU package, with the fact pack explicitly listing power connectors as “None.” There is no suggested PSU rating provided, which aligns with its integration into a laptop or compact system where the power supply is fixed by the chassis design. Cooling requirements are inherently modest given the 15 W TDP, but the actual thermal solution depends on the portable device’s design; the fact pack does not specify cooler dimensions or fan configurations. The memory interface is System Shared, meaning the GPU draws on system RAM for frame buffer storage, and memory bandwidth is listed as “System Dependent,” so performance scaling with memory speed and capacity is variable across host platforms. The base clock of 300 MHz and boost of 1000 MHz are modest, which keeps power draw low but also limits peak throughput compared to discrete solutions. The die size of 133 mm² and 14 nm process node suggest efficient power usage per area, though no transistor count or density figures are available for deeper analysis. For system integration, the absence of auxiliary power connectors simplifies installation, but the IGP nature means no upgrade path exists for the GPU itself.

How It Compares

The fact pack provides no nearestRivals entries, so direct comparison against specific competing GPUs is not possible from the data. The percentileVsAllGpus score of 50 indicates that this GPU sits at the median of all GPUs in the database, meaning roughly half of all tracked graphics processors perform better and half perform worse. This percentile is a broad positioning metric rather than a head-to-head result. Without rival names, scores, or deltaPct values, no quantitative comparisons to other products can be made. The absence of benchmark data (benchmarks list is empty) and an avgBenchmarkScore of 0 further constrain any relative performance assessment. The GPU’s 384 shading units and 48 TMUs place it in a low-to-mid tier for integrated graphics, but the 6 ROPs are notably limited, which will constrain fill-rate bound workloads. The FP32 throughput of 768.0 GFLOPS is modest by modern standards, but for a 15 W part, it reflects a balance between compute capability and power efficiency. The texture rate of 48.00 GTexel/s and pixel rate of 6.000 GPixel/s are derived from the core’s clock and unit counts, and these figures alone suggest it is suited for older or lighter titles rather than demanding modern games. The lack of rival data means the 50th percentile is the only external reference point; this suggests the GPU is not an outlier in either direction but rather a typical performer for its era and class.

Ray Tracing and Feature Set

The Intel Iris Graphics 6100 Mobile does not include dedicated ray tracing cores or tensor cores; both fields are listed as null in the fact pack. This absence is consistent with its Generation 8.0 architecture, which predates hardware-accelerated ray tracing and AI-driven tensor operations. For API support, the GPU exposes DirectX 12 (11_1), OpenGL 4.4, and Vulkan 1.0. The DirectX 12 (11_1) designation indicates feature level 11_1 support, which covers many modern rendering techniques but lacks certain DirectX 12 Ultimate features like hardware ray tracing or mesh shaders. Vulkan 1.0 provides low-overhead access to the GPU, which can benefit CPU-bound scenarios, but again, no ray tracing or tensor acceleration is available. The shading units, TMUs, and ROPs operate in a traditional rasterization pipeline, meaning the GPU relies on software-based techniques for any ray-traced effects, which would be prohibitively slow given the 768.0 GFLOPS FP32 throughput. The memory being System Shared means bandwidth is not dedicated, further limiting any compute-heavy workloads. The absence of tensor cores rules out any local AI upscaling or denoising features. The display outputs are “Portable Device Dependent,” so connectivity varies by laptop model, but the GPU itself does not mandate specific output standards. The boost clock of 1000 MHz is the maximum sustained frequency under load, and with only 6 ROPs, the GPU will struggle with high-resolution rendering where pixel throughput is critical. The API set is adequate for games from its release era, but modern titles requiring DirectX 12 Ultimate or Vulkan 1.2+ features will not be fully supported.

Who Should Consider It

Given the 50th percentile placement and the lack of benchmark scores, the Intel Iris Graphics 6100 Mobile is positioned for users with modest graphical demands. The GPU’s 768.0 GFLOPS FP32 performance and 6.000 GPixel/s pixel rate indicate it can handle older titles, indie games, or esports at low settings and lower resolutions, though no specific resolution or settings guidance is provided in the fact pack. The System Shared memory architecture means performance scales with system RAM speed and capacity, so a dual-channel memory configuration would likely yield better results than single-channel, but this is not quantified. The 300 MHz base clock and 1000 MHz boost clock suggest the GPU is not designed for sustained high-frequency operation, making it suitable for light productivity tasks like video playback, office applications, or 2D graphical interfaces. Users considering this GPU for gaming should expect to run titles from around the 2014 era at reduced detail levels. The lack of ray tracing and tensor cores means it is not for users interested in modern visual effects or AI-assisted rendering. The 15 W TDP makes it appropriate for ultraportable laptops where battery life and thermals are prioritized over raw performance. The die size of 133 mm² and 14 nm process node indicate a mature manufacturing process, but the end-of-life status means no further driver optimizations are likely from Intel. The absence of a suggested PSU and power connectors reinforces that this is a drop-in component within a fixed platform, not a user-serviceable part. For those with older software that leverages DirectX 11_1 or Vulkan 1.0, the GPU offers a baseline level of compatibility, but for any demanding workload, a discrete GPU or a newer integrated solution would be necessary.

Benchmark Performance

The fact pack includes no benchmark entries, an avgBenchmarkScore of 0, and no nearestRivals data, so the only performance indicator is the percentileVsAllGpus value of 50. This median percentile implies that in the database’s aggregate ranking, the Intel Iris Graphics 6100 Mobile sits exactly at the midpoint of all GPUs, with an equal number of products above and below it. However, this percentile is not tied to any specific workload, score, or deltaPct, so it cannot be used to infer performance in gaming, compute, or professional tasks. The GPU’s theoretical peak FP32 of 768.0 GFLOPS is a hard ceiling for compute throughput, and the pixel rate of 6.000 GPixel/s and texture rate of 48.00 GTexel/s define the rasterization limits. With 384 shading units at a 1000 MHz boost clock, the per-clock efficiency is fixed, but the actual achieved performance will depend on driver overhead, thermal throttling, and memory bandwidth. The System Dependent bandwidth metric means that in a laptop with slow or low-bandwidth RAM, the GPU will underperform its theoretical rates. The 6 ROPs are a severe bottleneck for fill-rate intensive scenes, especially at higher resolutions, since each pixel must be processed by a limited number of units. The 48 TMUs are more generous relative to ROPs, indicating that texture-heavy scenes might fare slightly better than those requiring heavy pixel blending. The 14 nm process node and 15 W TDP suggest that the GPU can sustain its boost clock for short bursts, but sustained loads may cause frequency drops if the system’s cooling is inadequate. Without rival scores, it is impossible to state a percentage advantage or deficit; the only quantitative statement is that the GPU holds a 50th percentile rank. This percentile is likely derived from a wide range of GPUs, including much older and much newer parts, so the practical performance for a 2014 mobile processor is reasonable for its time but outdated for current software. The empty benchmarks list highlights that no standardized test results are available for this product, which limits any definitive performance conclusions. The fact pack also lists a production status of end-of-life, meaning the GPU is no longer manufactured, and its driver support may be frozen. For any user evaluating this GPU, the 50th percentile is a neutral signal: not a standout performer, not a bottom-tier part, but a middle-of-the-road integrated solution whose real-world behavior is highly dependent on the host laptop’s memory and cooling design.