AMD Ryzen AI Max+ PRO 495 vs Intel Arc G3 Comparison

Head-to-Head Benchmarks

The recorded database contains no direct head-to-head benchmark entries between the AMD Ryzen AI Max+ PRO 495 and the Intel Arc G3. The wins tally is zero for both parts, and the head-to-head benchmark array is empty. This absence of measured comparisons means the relative performance picture must be assembled from the architectural and specification data available in the database.

The AMD part carries 16 cores and 32 threads, while the Intel part offers 14 cores and 14 threads. The thread count differential is substantial: the AMD processor supports simultaneous multithreading, doubling its thread count to 32, whereas the Intel processor has no hyperthreading, leaving its thread count equal to its core count at 14. In heavily threaded workloads, the AMD part could process nearly 2.3 times the threads of the Intel part, a significant advantage for parallel compilation, rendering, or scientific workloads.

Clock speed data from the database shows the AMD part with a base clock of 3.10 GHz and a boost clock of 5.20 GHz. The Intel part lists a base clock of 1.90 GHz and a boost clock of 4.60 GHz. The AMD base clock is 1.20 GHz higher, and its boost clock is 0.60 GHz higher. For single-threaded responsiveness and lightly threaded tasks, the AMD part holds a clear frequency advantage at both the sustained and peak levels.

Memory bandwidth differs notably. The AMD part uses a quad-channel LPDDR5X configuration, delivering 273.1 GB/s of bandwidth. The Intel part uses a dual-channel LPDDR5X configuration, delivering 136.5 GB/s. The AMD bandwidth is exactly double the Intel figure. For memory-sensitive workloads such as large matrix operations, data analytics, or integrated graphics gaming, this doubling of available memory bandwidth is a decisive architectural edge.

The integrated graphics solutions also differ. The AMD part pairs with a Radeon 8065S, while the Intel part includes an Arc B370. The database does not provide benchmark scores for either iGPU, so direct graphical performance comparisons cannot be quantified. The memory bandwidth advantage for the AMD part, however, suggests its integrated graphics have more headroom for texture streaming and frame buffer operations.

Power envelopes are recorded at 55 W TDP for the AMD part and 25 W TDP for the Intel part. The AMD processor draws 30 W more at its rated TDP. This difference implies that in thermally constrained thin-and-light chassis, the Intel part may sustain its clocks for longer periods, while the AMD part demands a more robust cooling solution to reach its full performance potential.

Process technology differs by one node generation. The AMD part uses TSMC's 4 nm process, while the Intel part uses Intel's 3 nm process. The Intel node is one step smaller, which typically allows higher transistor density and improved power efficiency at the same clock. The database does not record transistor counts or die sizes for either part, so density comparisons cannot be made beyond the node names themselves.

Cache hierarchies are structured differently. The AMD part has 80 KB of L1 per core, 1 MB of L2 per core, and a 64 MB shared L3 cache. The Intel part has 192 KB of L1 per core, 2.5 MB of L2 per core, and an 18 MB shared L3 cache. Per-core L2 is 2.5 times larger on the Intel part, which helps with working sets that fit in that level. The AMD part has 46 MB more shared L3, which benefits multi-core workloads with shared data patterns.

PCIe capabilities differ in both generation and lane count. The AMD part provides Gen 4 with 16 lanes, while the Intel part provides Gen 5 with 4 lanes. The AMD part offers four times the lane count, though at half the per-lane data rate. For connecting multiple high-bandwidth peripherals such as NVMe storage arrays or discrete GPUs, the AMD part has more total lane capacity. The Intel part's Gen 5 lanes offer higher per-lane throughput but fewer total lanes.

ECC memory support is present on the AMD part and absent on the Intel part. This makes the AMD processor suitable for error-sensitive compute tasks where memory corruption is unacceptable. The Intel part lacks this capability, narrowing its applicability in scientific or financial computing environments.

Both parts are mobile-segment processors. The AMD part uses AMD Socket FP11, while the Intel part uses Intel BGA 2540. Both are socketed or soldered in a mobile context, and neither has an unlocked multiplier. The production status for both is listed as Active, meaning both are currently shipping parts.

The AMD part was released on May 19, 2026, and the Intel part on May 27, 2026. The Intel release is eight days later. Neither part has a launch MSRP recorded in the database, so no price-based analysis is possible.

The percentile versus all CPUs is 50 for both parts, indicating that each sits at the median of the database's recorded CPU population. This parity in percentile, combined with the empty benchmark arrays, suggests that neither part has been characterized with recorded performance scores yet. The average benchmark score is zero for both, confirming the absence of measured data.

The Verdict

From the recorded data, the AMD Ryzen AI Max+ PRO 495 shows a clear structural advantage in thread count, clock speeds, memory bandwidth, cache capacity, ECC support, and PCIe lane count. The Intel Arc G3 shows advantages in process node size, per-core L2 capacity, and TDP efficiency. Without recorded benchmark scores, the verdict rests on these specification-level differences.

The AMD part suits workloads that scale with thread count and memory bandwidth. Its 32 threads, 273.1 GB/s memory bandwidth, and 64 MB L3 cache position it for parallel compute, large data sets, and memory-heavy integrated graphics tasks. Its higher base and boost clocks also support responsive single-threaded interaction.

The Intel part suits thermally constrained systems and workloads with moderate thread counts. Its 25 W TDP allows thinner cooling solutions. Its 192 KB L1 and 2.5 MB L2 per core support per-core working sets that exceed the AMD per-core cache sizes. The 3 nm process suggests improved power efficiency per clock.

The database percentile parity at 50 indicates both parts are median performers among all recorded CPUs. This parity is a specification-level snapshot, not a measured performance result. The absence of head-to-head benchmarks means no definitive winner can be declared from measured data.

Users requiring maximum memory bandwidth and thread parallelism should select the AMD part. Users prioritizing low power draw and compact system integration should select the Intel part. Neither part has recorded benchmark data to override these structural conclusions.

Architecture Differences

The AMD Ryzen AI Max+ PRO 495 uses the Gorgon Halo codename and belongs to the Ryzen AI Max+ PRO generation built on Zen 5. The Intel Arc G3 uses the Panther Lake codename and belongs to the Arc G3 generation. Both are mobile processors but from different architectural families.

The process nodes differ: the AMD part uses TSMC's 4 nm process, while the Intel part uses Intel's 3 nm process. The Intel node is smaller, which typically provides better transistor density and lower power at equivalent clock. The AMD part uses a dual-die design with a recorded die size of 2x 70.6 mm², while the Intel die size is not recorded in the database.

Core counts differ: 16 cores on the AMD part versus 14 cores on the Intel part. Thread counts diverge further because the AMD part supports 32 threads while the Intel part supports only 14. The AMD part uses simultaneous multithreading; the Intel part does not.

Cache structures are organized differently. The AMD part has 80 KB L1 per core, 1 MB L2 per core, and 64 MB shared L3. The Intel part has 192 KB L1 per core, 2.5 MB L2 per core, and 18 MB shared L3. The Intel per-core L1 is 2.4 times larger, the per-core L2 is 2.5 times larger, but the shared L3 is 46 MB smaller.

Memory support is LPDDR5X for both parts. The memory bus width differs: the AMD part uses quad-channel while the Intel part uses dual-channel. Resulting bandwidth is 273.1 GB/s for AMD and 136.5 GB/s for Intel. ECC memory support exists only on the AMD part.

PCIe connectivity differs: the AMD part provides Gen 4 with 16 lanes, while the Intel part provides Gen 5 with 4 lanes. The AMD part has more total lanes; the Intel part has a newer generation per lane.

Integrated graphics differ: the AMD part includes a Radeon 8065S, while the Intel part includes an Arc B370. Neither has recorded benchmark scores.

TDP is 55 W for the AMD part and 25 W for the Intel part. The AMD part requires more power and cooling. The AMD part also uses a different socket, AMD Socket FP11, versus Intel BGA 2540 for the Intel part.

Both parts are active production mobile processors. Both have locked multipliers. The AMD part number is 100-000002124, and the Intel part number is SA4QZ.

FAQ

Q: How many cores and threads does each processor have?

A: The AMD Ryzen AI Max+ PRO 495 has 16 cores and 32 threads. The Intel Arc G3 has 14 cores and 14 threads.

Q: Which processor has higher clock speeds?

A: The AMD part has a base clock of 3.10 GHz and a boost clock of 5.20 GHz. The Intel part has a base clock of 1.90 GHz and a boost clock of 4.60 GHz.

Q: What is the memory bandwidth difference?

A: The AMD part uses quad-channel LPDDR5X and delivers 273.1 GB/s. The Intel part uses dual-channel LPDDR5X and delivers 136.5 GB/s. The AMD bandwidth is exactly double.

Q: Does either processor support ECC memory?

A: Yes, the AMD part supports ECC memory. The Intel part does not.

Q: What are the TDP ratings?

A: The AMD part has a 55 W TDP. The Intel part has a 25 W TDP.

Q: Which processor has a smaller process node?

A: The Intel part uses a 3 nm process from Intel. The AMD part uses a 4 nm process from TSMC. The Intel node is smaller.

Where Each One Wins

The AMD Ryzen AI Max+ PRO 495 wins in thread count, offering 32 threads versus 14. This makes it the stronger choice for heavily parallel workloads such as video encoding, software compilation, and multi-threaded rendering. The 64 MB L3 cache further supports workloads with large shared data footprints.

The AMD part wins in memory bandwidth with 273.1 GB/s versus 136.5 GB/s. This doubles the data throughput to the CPU and integrated graphics. Workloads that stream large data sets, such as data analytics, image processing, or integrated-GPU gaming, benefit directly from this bandwidth advantage.

The AMD part wins in clock speeds, with a 3.10 GHz base and 5.20 GHz boost versus 1.90 GHz and 4.60 GHz. This provides faster single-threaded execution and lower latency for interactive tasks like code editing, web browsing, and office applications.

The AMD part wins in ECC memory support, which the Intel part lacks. Error-correcting memory is essential for long-running compute jobs where silent data corruption is unacceptable. This includes scientific simulations, financial modeling, and server-like mobile workloads.

The AMD part wins in PCIe lane count with 16 Gen 4 lanes versus 4 Gen 5 lanes. The higher lane count allows connection of more peripherals simultaneously. This matters for mobile workstations with multiple NVMe drives, external GPUs, or high-speed capture cards.

The Intel Arc G3 wins in power efficiency at the TDP level, drawing 25 W versus 55 W. This makes it suitable for fanless or passively cooled designs, ultraportable laptops, and systems where battery life takes priority over peak performance.

The Intel part wins in per-core cache capacity, with 192 KB L1 and 2.5 MB L2 per core versus 80 KB and 1 MB. Workloads with per-core working sets that fit in these larger caches, such as certain database queries or single-threaded processing loops, may see fewer cache misses.

The Intel part wins in process node size, using a 3 nm process versus 4 nm. This smaller node provides a foundation for better power efficiency at equivalent clock, though no measured performance data confirms this advantage.

The Intel part wins in release timing, launching on May 27, 2026, eight days after the AMD part's May 19, 2026 release. This does not affect performance but indicates a slightly newer product introduction.

The AMD part wins in total L3 cache capacity, 64 MB versus 18 MB. This is a 46 MB advantage, which helps when multiple cores share data structures. The Intel part lacks a comparable shared cache pool.

Both parts sit at the 50th percentile among all CPUs in the database, and both have zero recorded benchmark scores. No measured performance advantage exists for either part in the current data. The wins above are structural and specification-based, not derived from benchmark results.