AMD Ryzen 7 160 vs Intel Core 5 221E Comparison

The AMD Ryzen 7 160 and Intel Core 5 221E occupy different corners of the processor market, and the recorded data shows a clear performance hierarchy between them. The Intel Core 5 221E wins every single head-to-head benchmark in the database, 11 wins to 0, but the nature of those victories varies dramatically across workloads. The Ryzen 7 160, a mobile part with a 28 W TDP, faces a desktop processor with a 65 W TDP, and the benchmark results reflect that power envelope disparity in specific, measurable ways.

Head-to-Head Benchmarks

The most lopsided result appears in floating-point math, where the Intel Core 5 221E scores 79,028 against the AMD Ryzen 7 160's 6,673. That is a 91.6% deficit for the AMD part, a gap so wide that it suggests fundamentally different execution resources for this workload. The Intel processor also dominates prime number finding, scoring 173 versus 43, a 75.1% difference. These two tests indicate that the Intel chip's higher core count and boosted clock speed translate directly into raw computational throughput.

Multithreaded performance shows a similarly decisive margin. The Intel Core 5 221E scores 30,510 in the PassMark multithread test, while the Ryzen 7 160 manages 12,237, a 59.9% deficit. The physics test follows the same pattern: 2,230 for Intel versus 793 for AMD, a 64.4% difference. These results align with the core count disparity: the Intel part uses 14 cores and 20 threads, while the AMD chip has 8 cores and 16 threads. The extra cores, combined with a higher boost clock of 5.20 GHz versus 4.75 GHz, produce consistent leads in heavily parallel workloads.

Data compression shows a 25.2% Intel advantage, with scores of 324,285 versus 242,634. Integer math follows at a 30.9% gap, 117,813 versus 81,370. Random string sorting shows a 31.1% difference, 37,686 versus 25,981. These mid-range gaps suggest that the AMD processor's Zen 3+ architecture handles integer-heavy tasks with reasonable efficiency, but it cannot overcome the Intel part's raw throughput advantage.

Single-thread performance is the closest contest, yet still favors Intel. The Core 5 221E scores 4,147 in the single-thread test, while the Ryzen 7 160 scores 3,435, a 17.2% difference. This is a meaningful margin for tasks that depend on per-core speed, such as legacy software or lightly threaded applications. Data encryption shows a 19.2% Intel lead, 19,205 versus 15,520, and extended instructions show an 11.2% lead, 18,216 versus 16,170. The extended instructions result is the smallest gap in the entire comparison, indicating that the AMD chip's architecture handles specialized instruction sets with relative competence.

The average benchmark scores place the Intel part at 40,144, which lands it in the 87th percentile of all CPUs in the database. The AMD processor averages 37,117, sitting in the 85th percentile. The nearest rivals for the Intel part include the AMD Ryzen 7 7700 at 40,081 (0.2% higher) and the AMD Ryzen 9 270 at 40,246 (0.3% lower). The AMD Ryzen 7 160's nearest rivals include the Intel Core i7-13700 at 37,135 (0.0% delta) and the AMD Ryzen 7 7735H at 37,161 (0.1% higher). These figures indicate that both processors compete in established performance tiers, with the Intel part positioned roughly 8% higher in average score.

FAQ

Q: Which processor wins the most benchmarks in the database?

A: The Intel Core 5 221E wins all 11 head-to-head benchmark comparisons against the AMD Ryzen 7 160. The AMD part records zero wins across every tested workload, including single-thread, multithread, and math-specific tests.

Q: What is the largest performance gap between the two processors?

A: The floating-point math test shows the biggest disparity. The Intel Core 5 221E scores 79,028, while the AMD Ryzen 7 160 scores 6,673, a 91.6% deficit for the AMD chip. This indicates a fundamental throughput difference in floating-point operations.

Q: How do the processors compare in single-threaded performance?

A: The Intel Core 5 221E leads by 17.2% in the single-thread test, scoring 4,147 versus 3,435. This is the smallest relative gap among the major workload categories, suggesting the AMD architecture is comparatively stronger per-core than its overall multithreaded showing implies.

Q: What do the average benchmark scores indicate about overall performance?

A: The Intel Core 5 221E averages 40,144 across all recorded benchmarks, while the AMD Ryzen 7 160 averages 37,117. The Intel part sits in the 87th percentile of all CPUs, while the AMD part sits in the 85th percentile, a modest but consistent ranking difference.

Q: Are there any workloads where the AMD processor is competitive?

A: Extended instructions show the narrowest gap, with the Intel part leading by only 11.2% (18,216 versus 16,170). Data encryption also shows a relatively contained 19.2% difference. These results indicate the AMD chip handles specialized instruction sets without the extreme deficits seen in floating-point math or prime number finding.

Q: What does the multithread score difference imply about core scaling?

A: The Intel Core 5 221E scores 30,510 in the multithread test versus 12,237 for the AMD Ryzen 7 160, a 59.9% deficit. With 14 cores versus 8 cores, the Intel part demonstrates that its additional cores scale effectively in parallel workloads, though the gap exceeds the raw core count ratio, indicating clock speed and architecture also contribute.

The Verdict

The data presents a one-sided comparison. The Intel Core 5 221E outperforms the AMD Ryzen 7 160 in every benchmark category recorded, with margins ranging from 11.2% in extended instructions to 91.6% in floating-point math. The average benchmark score difference of 3,027 points (40,144 versus 37,117) places the Intel part one percentile higher in the global ranking, 87th versus 85th.

For workloads that depend on floating-point math, prime number generation, or heavy multithreading, the Intel Core 5 221E is the clear choice based on the recorded data. The physics test result, 2,230 versus 793, reinforces this pattern for simulation or physics-based tasks. The AMD Ryzen 7 160's strongest showing comes in extended instructions and data encryption, where the gaps narrow to 11.2% and 19.2% respectively, but it still loses outright.

The market segment difference matters: the AMD part is a mobile processor with a 28 W TDP, while the Intel part is a desktop processor with a 65 W TDP. The performance data reflects this positioning, with the higher-power desktop part delivering substantially higher throughput. Users constrained by mobile power budgets might still consider the AMD part viable, but the benchmark data shows no workload category where it takes the lead.

Specification Differences

The two processors diverge on nearly every core specification. The AMD Ryzen 7 160 uses 8 cores and 16 threads, while the Intel Core 5 221E uses 14 cores and 20 threads. Both share a base clock of 2.70 GHz, but the Intel part boosts to 5.20 GHz versus the AMD part's 4.75 GHz. The TDP differs significantly: 28 W for AMD versus 65 W for Intel.

Cache hierarchies are distinct. The AMD part provides 64 KB L1 and 512 KB L2 per core, with 16 MB shared L3. The Intel part offers 80 KB L1 and 2 MB L2 per core, with 24 MB shared L3. The Intel processor's larger per-core L2 cache and 8 MB additional L3 likely contribute to its performance advantages in cache-sensitive workloads.

Memory support differs in scope. The AMD Ryzen 7 160 supports DDR5 only, while the Intel Core 5 221E supports both DDR4 and DDR5. Memory bandwidth favors Intel at 89.6 GB/s versus 76.8 GB/s for AMD. Both support ECC memory and dual-channel configurations. PCIe connectivity also differs: AMD provides Gen 4 with 20 CPU lanes, while Intel provides Gen 5 with 16 CPU lanes. The Intel part's newer PCIe generation offers higher per-lane bandwidth, though with fewer total lanes.

The integrated graphics differ substantially. AMD uses the Radeon 680M, while Intel uses UHD Graphics 730. The socket and platform requirements are incompatible: AMD Socket FP7 for the Ryzen part, Intel Socket 1700 for the Core part. The AMD processor has a die size of 210 mm², while the Intel die measures 257 mm². Release dates are close, with AMD launching on September 30, 2025 and Intel on January 12, 2025. The Intel part carries a launch MSRP of $232; the AMD part has no recorded launch MSRP.

Architecture Differences

The underlying architectures come from different process nodes and foundries. The AMD Ryzen 7 160 uses Zen 3+ architecture, codenamed Rembrandt-R, built on a 6 nm process at TSMC. The Intel Core 5 221E uses Bartlett Lake architecture, built on a 10 nm process at Intel's own foundry. The process node difference, 6 nm versus 10 nm, gives AMD a density and efficiency advantage on paper, but the benchmark data shows Intel's larger, higher-power design outperforms it.

The AMD generation is listed as Ryzen 7 (Zen 3+ Rembrandt), while the Intel generation is Core 5 (Bartlett Lake). Neither processor has an unlocked multiplier, so overclocking is not a differentiating factor. The AMD part uses a 210 mm² die, while the Intel part uses a 257 mm² die, reflecting the larger core count and cache configuration of the Intel design.

Cache architecture reveals different design philosophies. AMD allocates 512 KB L2 per core, a relatively modest amount, and shares 16 MB L3 across all cores. Intel allocates 2 MB L2 per core, four times the per-core capacity, and shares 24 MB L3. This larger private cache per core likely benefits the Intel part in workloads with localized data access patterns, while the shared L3 capacity supports cross-core data sharing.

The integrated graphics differ in class: the Radeon 680M is a higher-end integrated GPU typically found in mobile parts, while UHD Graphics 730 is a basic desktop solution. The AMD part's mobile heritage shows in its lower TDP and smaller die, while the Intel part's desktop positioning allows for higher power draw and more aggressive clock speeds.

Where Each One Wins

The Intel Core 5 221E wins in every recorded benchmark category, so the use-case split is defined by degree of advantage rather than outright victories. For floating-point math, the Intel part is overwhelmingly superior, with a 91.6% lead. This makes it the appropriate choice for scientific computing, financial modeling, or any workload that heavily exercises floating-point units. The prime number test, with a 75.1% Intel lead, reinforces this for computational number theory or cryptography-related tasks.

Multithreaded workloads strongly favor Intel. The 59.9% lead in the multithread test and 64.4% lead in physics indicate that rendering, video encoding, and simulation tasks will complete substantially faster on the Intel part. Data compression, with a 25.2% lead, suggests file archiving and compression workloads also benefit from the Intel chip. Integer math shows a 30.9% lead, covering general-purpose computing tasks.

Single-threaded applications still favor Intel, but by a smaller margin of 17.2%. This means lightly threaded software, such as older games or single-core legacy applications, will run faster on Intel, though the gap is less pronounced than in parallel workloads. The extended instructions test shows the smallest gap at 11.2%, indicating that the AMD part handles specialized instruction sets with reasonable efficiency, making it less disadvantaged in those specific tasks.

The AMD Ryzen 7 160 does not win any category, but its lower TDP of 28 W versus 65 W positions it for scenarios where power consumption is the primary constraint. Mobile devices, compact systems, or thermally limited environments might prefer the AMD part despite its lower performance. The Radeon 680M integrated graphics also surpass the UHD Graphics 730 in class, which could matter for systems relying on integrated graphics. However, based purely on the recorded benchmark data, the Intel Core 5 221E is the higher-performing processor across every measured workload.