AMD Ryzen 7 160 vs Qualcomm Snapdragon X2E-96-100 Comparison

Head-to-Head Benchmarks

The recorded database contains a complete PassMark benchmark suite for the AMD Ryzen 7 160, while the Qualcomm Snapdragon X2E-96-100 has no benchmark entries listed. This means the head-to-head comparison is one-sided in terms of measurable data. The Ryzen 7 160 delivers an average benchmark score of 37,117 across its tested workloads, placing it in the 85th percentile of all CPUs in the database. The Snapdragon X2E-96-100, by contrast, shows an average score of zero and sits at the 50th percentile, with no nearest rivals recorded for reference.

Looking at the Ryzen 7 160's individual PassMark results, the strongest performance appears in data compression with a score of 242,634, which is dramatically higher than its other workload scores. This indicates that the Zen 3+ architecture handles compression algorithms exceptionally well. Integer math follows at 81,370, while random string sorting reaches 25,981. The single-thread score is 3,435, which represents the baseline for lightly threaded applications.

The multi-thread score of 12,237 reflects the 8-core, 16-thread configuration. Floating point math comes in at 6,673, extended instructions at 16,170, and data encryption at 15,520. The physics score is 793, and the find prime numbers test yields a score of 43, which is the lowest recorded value in the suite.

Because the Snapdragon X2E-96-100 has no benchmark data in the database, there are no delta percentage values to report between the two processors. The nearest rivals for the Ryzen 7 160 provide context for its standing: the Intel Core i7-13700 scores 37,135 with a 0% delta, the Intel Core i9-12900T scores 37,112 with a 0% delta, the AMD Ryzen AI 7 PRO 450 scores 37,093 with a 0.1% delta, and the AMD Ryzen 7 7735H scores 37,161 with a -0.1% delta. These figures show the Ryzen 7 160 performs essentially identically to those four established desktop and mobile parts, with all deltas within 0.1 percentage points.

The absence of Snapdragon benchmark results means no direct wins can be assigned to either processor. The database records zero wins for each side in the head-to-head section. This is not a statement about real-world capability; it simply reflects that only one participant has measured data available.

FAQ

Q: Does the Ryzen 7 160 have a higher average benchmark score than the Snapdragon X2E-96-100?

A: Yes. The Ryzen 7 160 records an average benchmark score of 37,117, while the Snapdragon X2E-96-100 shows an average score of 0 in the database.

Q: What is the percentile ranking for each processor?

A: The Ryzen 7 160 sits in the 85th percentile of all CPUs, while the Snapdragon X2E-96-100 is in the 50th percentile.

Q: How many cores and threads does each chip use?

A: The Ryzen 7 160 has 8 cores and 16 threads. The Snapdragon X2E-96-100 has 18 cores and 18 threads, meaning it does not use simultaneous multithreading.

Q: What memory types do the two processors support?

A: The Ryzen 7 160 supports DDR5 memory on a dual-channel bus. The Snapdragon X2E-96-100 supports LPDDR5X memory on a triple-channel bus.

Q: Which processor has the higher boost clock?

A: The Snapdragon X2E-96-100 has a boost clock of 5.00 GHz, compared to the Ryzen 7 160's boost clock of 4.75 GHz.

Q: Are both processors currently in active production?

A: Yes, both the Ryzen 7 160 and the Snapdragon X2E-96-100 are listed with an active production status in the database.

Architecture Differences

The two processors come from fundamentally different design philosophies. The AMD Ryzen 7 160 uses the Zen 3+ architecture, codenamed Rembrandt-R, built on a 6 nm process node at TSMC. The die size is 210 mm². The Qualcomm Snapdragon X2E-96-100 uses a 3 nm process node, also from TSMC, with a slightly larger die at 220 mm². Its codename is Glymur, and it belongs to the Snapdragon X2 Elite generation.

The cache hierarchy differs substantially. The Ryzen 7 160 allocates 64 KB of L1 cache per core, 512 KB of L2 per core, and 16 MB of shared L3 cache. The Snapdragon X2E-96-100 uses a much larger per-core L1 at 288 KB, a per-module L2 of 16 MB, and a smaller shared L3 of 9 MB. This reflects the Snapdragon's modular design, where groups of cores share L2 rather than each core having a private L2.

Memory architecture also diverges. The Ryzen 7 160 supports DDR5 with a dual-channel memory bus and a recorded memory bandwidth of 76.8 GB/s. The Snapdragon X2E-96-100 supports LPDDR5X with a triple-channel memory bus and a significantly higher memory bandwidth of 228.6 GB/s. The Snapdragon also supports ECC memory, while the Ryzen 7 160 does not.

PCIe connectivity differs as well. The Ryzen 7 160 provides Gen 4 with 20 lanes from the CPU. The Snapdragon X2E-96-100 provides Gen 5 with 12 lanes from the CPU. The Snapdragon's PCIe generation is newer, but the lane count is lower.

Integrated graphics are another differentiator. The Ryzen 7 160 uses a Radeon 680M, while the Snapdragon X2E-96-100 uses an Adreno X2-90. Both target mobile platforms, but the underlying GPU architectures are entirely separate.

The process node difference is notable: 6 nm versus 3 nm. The smaller node typically allows for higher transistor density and improved power efficiency, though the database does not record transistor counts for either chip.

Specification Differences

The core and thread counts present the most immediate contrast. The Ryzen 7 160 has 8 cores and 16 threads. The Snapdragon X2E-96-100 has 18 cores and 18 threads, with no hyperthreading or equivalent technology.

Clock speeds differ across the board. The Ryzen 7 160 runs at a base clock of 2.70 GHz and a boost clock of 4.75 GHz. The Snapdragon X2E-96-100 runs at a base clock of 4.45 GHz and a boost clock of 5.00 GHz. The Snapdragon starts higher and ends higher, though the Ryzen's boost-to-base ratio is larger.

Thermal design power is recorded for the Ryzen 7 160 at 28 watts. The Snapdragon X2E-96-100 has no TDP value listed in the database.

The socket types are incompatible with each other. The Ryzen 7 160 uses AMD Socket FP7, while the Snapdragon X2E-96-100 uses Qualcomm BGA 2343. The part numbers are 100-000000991 (FP7r2) for the Ryzen and X2E96100 for the Snapdragon.

Memory support differs in type, channel configuration, and bandwidth, as detailed in the architecture section. ECC support also differs, with the Ryzen 7 160 supporting ECC and the Snapdragon not supporting it.

Release dates place the Ryzen 7 160 on September 30, 2025, and the Snapdragon X2E-96-100 on April 5, 2026. Neither processor has a recorded launch MSRP. Neither has an unlocked multiplier.

The market segment for both is mobile, and both are listed as active in production.

The Verdict

The data in the database presents an unusual situation. The Ryzen 7 160 has a full suite of benchmark results, a percentile ranking of 85, and an average score of 37,117. The Snapdragon X2E-96-100 has no benchmark results, a percentile ranking of 50, and an average score of zero. On measured performance alone, the Ryzen 7 160 is the only processor with evidence of capability in the database.

That said, the Snapdragon X2E-96-100 offers specifications that suggest a different class of hardware. Its 18 cores, 5.00 GHz boost clock, 3 nm process node, and 228.6 GB/s memory bandwidth indicate a design aimed at high throughput in multi-threaded and memory-intensive workloads. The Ryzen 7 160 counters with 16 threads, a 4.75 GHz boost clock, and a mature Zen 3+ architecture that already demonstrates strong results in the recorded benchmarks.

The nearest rivals for the Ryzen 7 160 confirm its competitive position. It matches the Intel Core i7-13700 and Intel Core i9-12900T within 0% delta, and it trades fractions of a percent with the AMD Ryzen AI 7 PRO 450 and AMD Ryzen 7 7735H. This places the Ryzen 7 160 squarely in the upper-middle tier of the database's CPU rankings.

For a buyer comparing these two, the recorded data favors the Ryzen 7 160 because it has verifiable performance numbers. The Snapdragon X2E-96-100 remains an unknown quantity in this database, despite its impressive specification sheet. Without benchmark results, no performance claims can be substantiated for the Qualcomm part.

Where Each One Wins

The Ryzen 7 160 wins in every category where benchmark data exists, simply because it is the only chip with recorded scores. Its strongest relative showing is in data compression, where the score of 242,634 dwarfs its other workload results. This suggests a clear advantage for compression tasks such as file archiving or database workloads that rely on data reduction algorithms.

The Ryzen 7 160 also demonstrates strength in integer math with a score of 81,370, which typically translates to strong general-purpose computing performance. Random string sorting at 25,981 and extended instructions at 16,170 round out a balanced profile for productivity applications. The multi-thread score of 12,237 and single-thread score of 3,435 give a complete picture of both heavily threaded and lightly threaded scenarios.

The Snapdragon X2E-96-100 cannot be assigned any wins from the recorded data. However, its specification sheet points to potential advantages in specific scenarios. The triple-channel LPDDR5X memory with 228.6 GB/s bandwidth is nearly three times the Ryzen 7 160's 76.8 GB/s, which could benefit workloads that are memory-bandwidth bound. The 18-core configuration with no threading overhead may also appeal to workloads that scale linearly with physical cores.

The Gen 5 PCIe interface on the Snapdragon, despite fewer lanes, offers newer connectivity for compatible peripherals. The smaller 3 nm process node could theoretically provide better power efficiency per operation, though no TDP is recorded to confirm this.

In practical terms, the Ryzen 7 160 wins on demonstrated performance and established benchmark presence. The Snapdragon X2E-96-100 wins on raw specifications related to memory bandwidth, core count, and process technology, but those advantages remain unverified in the database. A builder choosing between them should weigh the Ryzen's proven results against the Snapdragon's theoretical headroom, with the understanding that only one of these processors has data to back its claims.