Intel Core 7 150HL vs Qualcomm Snapdragon X1P-46-100 Comparison

Where Each One Wins

The recorded data splits these two processors along clear usage lines. The Intel Core 7 150HL is built for parallel throughput: 14 cores and 20 threads give it a structural advantage in workloads that scale across many execution units. The Qualcomm Snapdragon X1P-46-100 counters with a leaner design: 8 cores and 8 threads, but a higher 3.40 GHz base clock versus the Intel part’s 2.40 GHz. In lightly threaded tasks where clock speed dominates, the Snapdragon starts with an edge.

For multi-threaded productivity, the Intel part’s 14-core, 20-thread configuration should carry it ahead in rendering, compilation, and heavy spreadsheet or database workloads. The Snapdragon’s 8-core, 8-thread layout means every physical core handles exactly one thread, which simplifies scheduling but limits parallel headroom. The Intel chip also offers a 5.00 GHz boost clock, a full 1.00 GHz higher than the Snapdragon’s 4.00 GHz ceiling, so even in single-thread bursts the Intel part can close the gap when thermal headroom allows.

The Snapdragon wins on efficiency-oriented mobile scenarios. Its 30 W TDP is 15 W lower than the Intel part’s 45 W TDP, and its 4 nm TSMC process node is a generation ahead of Intel’s 10 nm node. The Qualcomm part pairs with LPDDR5X memory and delivers 135.2 GB/s of memory bandwidth, a concrete figure that the Intel database entry does not list. For sustained mobile workloads where power draw and memory throughput matter, the Snapdragon’s profile is better suited.

The Intel part targets desktop sockets (Intel Socket 1700) while the Snapdragon uses Qualcomm BGA 2073, a mobile footprint. That alone dictates where each chip belongs: the Intel Core 7 150HL in fixed desktop systems, the Snapdragon X1P-46-100 in portable devices.

Architecture Differences

The two chips come from fundamentally different design schools. Intel’s Core 7 150HL uses the Raptor Lake architecture, specifically the Raptor Lake-PS codename, built on Intel’s 10 nm process at Intel’s own foundry. Qualcomm’s Snapdragon X1P-46-100 uses the Oryon codename under the Snapdragon X (Plus) generation, fabricated by TSMC on a 4 nm node. The process gap, 10 nm versus 4 nm, explains much of the efficiency difference.

Core counts diverge sharply. Intel provides 14 cores and 20 threads, implying a hybrid arrangement of performance and efficiency cores typical of Raptor Lake parts. Qualcomm provides 8 cores and 8 threads, a homogeneous layout with no multithreading. Cache hierarchies also differ: Intel allocates 80 KB of L1 per core, 2 MB of L2 per core, and 24 MB of shared L3. Qualcomm allocates 288 KB of L1 per core, 12 MB of L2 per module, and only 6 MB of shared L3. The Intel part’s larger L3 pool (24 MB versus 6 MB) helps in cache-sensitive workloads, while Qualcomm’s larger per-core L1 and L2 suggest a design tuned for lower latency per core.

Memory support diverges as well. Intel lists DDR4 and DDR5, dual-channel, with no bandwidth figure recorded. Qualcomm lists LPDDR5X, dual-channel, with a measured 135.2 GB/s. The Intel part lacks ECC support; so does Qualcomm. PCIe lane counts differ: Intel provides Gen 4 with 8 lanes (CPU only), Qualcomm provides Gen 4 with 12 lanes (CPU only). Qualcomm gives the CPU more direct I/O lanes.

Integrated graphics differ in branding and capability. Intel uses Iris Xe Graphics with 96 execution units, a known quantity for desktop and laptop systems. Qualcomm uses Adreno X1-45, a mobile-oriented GPU. Neither database entry includes a benchmark score for these GPUs, so the comparison stops at architecture.

The Intel part is marked for the Desktop market segment; the Qualcomm part is marked for Mobile. Release dates are close but not identical: Intel shipped on 2024-04-07, Qualcomm on 2024-09-02. Both are listed as Active in production. Neither has an unlocked multiplier. The Intel part’s part number is unknown; the Qualcomm part number is X1P46100.

FAQ

Q: Which processor has more cores and threads?

A: The Intel Core 7 150HL has 14 cores and 20 threads. The Qualcomm Snapdragon X1P-46-100 has 8 cores and 8 threads.

Q: What is the boost clock difference between the two?

A: The Intel part boosts to 5.00 GHz. The Snapdragon boosts to 4.00 GHz. That is a 1.00 GHz advantage for Intel in peak single-core frequency.

Q: Which chip has a smaller manufacturing process?

A: The Snapdragon uses a 4 nm TSMC process. The Intel chip uses a 10 nm Intel process. The 4 nm node is the smaller of the two.

Q: How much memory bandwidth does the Snapdragon provide?

A: The Snapdragon X1P-46-100 records 135.2 GB/s of memory bandwidth. The Intel database entry lists no memory bandwidth figure.

Q: Which chip has a higher TDP?

A: The Intel Core 7 150HL lists a 45 W TDP. The Snapdragon lists a 30 W TDP. The Intel part draws 15 W more at the recorded specification.

Q: What memory types does each support?

A: The Intel part supports DDR4 and DDR5. The Snapdragon supports LPDDR5X only.

Specification Differences

The two processors differ in nearly every major specification field recorded in the database.

• Cores: 14 (Intel) versus 8 (Qualcomm)
• Threads: 20 (Intel) versus 8 (Qualcomm)
• Base clock: 2.40 GHz (Intel) versus 3.40 GHz (Qualcomm)
• Boost clock: 5.00 GHz (Intel) versus 4.00 GHz (Qualcomm)
• TDP: 45 W (Intel) versus 30 W (Qualcomm)
• Socket: Intel Socket 1700 versus Qualcomm BGA 2073
• Architecture: Raptor Lake (Intel) versus Oryon (Qualcomm)
• Codename: Raptor Lake-PS (Intel) versus Oryon (Qualcomm)
• Process node: 10 nm (Intel) versus 4 nm (Qualcomm)
• Foundry: Intel versus TSMC
• L1 cache: 80 KB per core (Intel) versus 288 KB per core (Qualcomm)
• L2 cache: 2 MB per core (Intel) versus 12 MB per module (Qualcomm)
• L3 cache: 24 MB shared (Intel) versus 6 MB shared (Qualcomm)
• Memory support: DDR4, DDR5 (Intel) versus LPDDR5X (Qualcomm)
• Memory bandwidth: not recorded (Intel) versus 135.2 GB/s (Qualcomm)
• PCIe: Gen 4, 8 lanes (Intel) versus Gen 4, 12 lanes (Qualcomm)
• Integrated graphics: Iris Xe Graphics 96EU (Intel) versus Adreno X1-45 (Qualcomm)
• Market segment: Desktop (Intel) versus Mobile (Qualcomm)
• Release date: 2024-04-07 (Intel) versus 2024-09-02 (Qualcomm)
• Part number: unknown (Intel) versus X1P46100 (Qualcomm)

Both parts have no ECC support, no unlocked multiplier, and no launch MSRP recorded.

Head-to-Head Benchmarks

The database currently contains no head-to-head benchmark runs for the Intel Core 7 150HL versus the Qualcomm Snapdragon X1P-46-100. The winsA and winsB fields are both 0. The headToHeadBenchmarks array is empty. Neither chip has a recorded avgBenchmarkScore; both sit at 0. Both parts occupy the 50th percentile against all CPUs in the database’s broader ranking.

Without measured benchmark scores, the analysis must rest on architectural and specification differences. The Intel part’s 20 threads versus the Snapdragon’s 8 threads indicates a large theoretical advantage in parallel workloads. Multi-threaded tasks such as video encoding, 3D rendering, or batch compilation should favor the Intel chip by a wide margin, possibly two to three times in core count alone.

The Snapdragon counters in single-thread and efficiency metrics. Its base clock of 3.40 GHz is 1.00 GHz higher than Intel’s base, and its boost clock of 4.00 GHz trails Intel’s 5.00 GHz but starts from a higher floor. For short, latency-sensitive tasks that do not sustain high clocks, the Snapdragon’s higher base clock reduces the need to ramp up. The 4 nm process versus 10 nm also points to lower power draw per operation, which matters in mobile chassis where the 30 W TDP limit is binding.

Memory behavior differs meaningfully. The Snapdragon’s 135.2 GB/s of LPDDR5X bandwidth is a recorded figure that exceeds typical DDR4 or DDR5 dual-channel desktop bandwidth in many configurations, though the Intel entry does not list its own number. The Intel part’s 24 MB L3 cache is 4 times the Snapdragon’s 6 MB, which can reduce memory traffic in workloads with high cache reuse. The Snapdragon’s 288 KB L1 per core is 3.6 times larger than Intel’s 80 KB, favoring workloads that repeatedly access small hot data sets.

PCIe connectivity also differs: the Snapdragon exposes 12 Gen 4 lanes from the CPU, the Intel part only 8. For I/O-heavy tasks like NVMe storage arrays or external GPU attachment, the Snapdragon has more direct CPU-attached bandwidth.

The Intel part’s 14 cores include a mix of performance and efficiency cores (typical of Raptor Lake), which means thread scheduling depends on the operating system to route work appropriately. The Snapdragon’s 8 identical cores avoid that complexity but cap peak parallel throughput.

In the absence of direct benchmark numbers, the database’s percentile fields offer no differentiation: both sit at the 50th percentile. That means neither chip is an outlier in the full CPU distribution. The practical verdict relies on usage context. Desktop users with multi-threaded workloads should expect the Intel part to dominate. Mobile users who value battery life, memory bandwidth, and a modern process node should expect the Snapdragon to deliver better efficiency per watt.

The TDP gap of 15 W is the clearest quantified efficiency signal. At 45 W, the Intel part can sustain higher peak clocks but consumes more power under load. At 30 W, the Snapdragon operates in a lower power envelope, which aligns with its mobile market segment and 4 nm process. The base clock advantage of 1.00 GHz for Qualcomm also suggests that at low power states, the Snapdragon keeps more performance available without boosting.

No measured scores exist to confirm these expectations. The data indicates that the Intel Core 7 150HL is the parallel-workload specialist, while the Qualcomm Snapdragon X1P-46-100 is the efficiency-focused mobile processor. The two chips occupy different sockets, different market segments, and different design philosophies. A direct benchmark comparison would require a common test harness, which the database has not yet recorded. Until that data appears, the specification sheet provides the only basis for comparison.