Intel Core 7 150HL vs Qualcomm Snapdragon X1E-84-100 Comparison

Head-to-Head Benchmarks

The recorded database contains no direct head-to-head benchmark scores for the Intel Core 7 150HL and the Qualcomm Snapdragon X1E-84-100. Both processors hold identical percentile placements at 50, meaning each sits at the midpoint of all CPUs tracked in the database. The average benchmark score for both is zero, which indicates that no measured performance data has been logged for either part. Without recorded scores, the data cannot describe which processor delivers faster single-thread work, higher multi-thread throughput, or better sustained performance under load. The absence of head-to-head results means any comparison of raw speed must rely on architectural characteristics and specification differences rather than measured outcomes. The database shows zero wins for each processor in direct comparison, confirming that no benchmark runs have been entered for this pairing. Users should interpret the lack of scores as a gap in available data, not as evidence of parity in real-world performance. The specification sheets, however, provide enough detail to project where each design would likely excel based on clock strategy, core count, memory path, and power envelope.

Architecture Differences

The Intel Core 7 150HL uses the Raptor Lake architecture with the Raptor Lake-PS codename, built on a 10 nm process at Intel’s own foundry. It belongs to the Core 7 generation under the Raptor Lake-PS series. The Qualcomm Snapdragon X1E-84-100 employs the Oryon codename and belongs to the Snapdragon X generation under the Elite series. Qualcomm’s part is fabricated by TSMC on a 4 nm process. The process node difference is significant: 10 nm versus 4 nm means the Qualcomm chip packs transistors more densely, which typically allows lower power draw for the same workload or higher performance within a given thermal envelope. The Intel chip’s larger process node suggests it relies on higher clock speeds and a broader core count to achieve performance, while the Qualcomm design can lean on efficiency from denser logic.

The core configurations diverge sharply. Intel provides 14 cores and 20 threads, implying a hybrid arrangement of performance and efficiency cores where some cores support simultaneous multithreading. Qualcomm offers 12 cores and 12 threads, with no multithreading, indicating each core is a single-threaded execution unit. The Intel base clock is 2.40 GHz with a boost clock of 5.00 GHz. The Qualcomm base clock is 3.80 GHz with a boost clock of 4.20 GHz. Intel’s boost clock is substantially higher, suggesting stronger single-thread burst capability, while Qualcomm’s higher base clock points to sustained performance across all cores without relying on boost states. The Intel part has a 45 W TDP, while the Qualcomm part has a 35 W TDP. That 10 W gap is notable because the Qualcomm chip delivers 12 cores at a higher base frequency while consuming less power, which indicates a more efficient design per watt.

Cache hierarchies differ in structure and capacity. Intel allocates 80 KB of L1 cache per core, 2 MB of L2 per core, and 24 MB of shared L3 cache. Qualcomm allocates 288 KB of L1 per core, 12 MB of L2 per module, and 6 MB of shared L3 cache. The Qualcomm L1 is over three times larger per core, which can reduce memory latency for frequently accessed data. The Intel L3 cache is four times larger at the shared level, which benefits workloads that share data across many cores. Qualcomm’s L2 is organized per module, which may reflect a multi-core cluster design where paired cores share a unified L2. Intel’s per-core L2 allocation is smaller individually but combined with the larger L3 creates a different trade-off between per-core locality and cross-core sharing.

Memory support also separates the two. Intel supports both DDR4 and DDR5 in a dual-channel configuration. Qualcomm supports only LPDDR5X, also in a dual-channel configuration, with a recorded memory bandwidth of 135.2 GB/s. Intel does not have a recorded memory bandwidth figure in the database. The Qualcomm’s use of LPDDR5X aligns with its mobile segment, where low-power memory is standard, while Intel’s dual support for DDR4 and DDR5 gives platform flexibility across desktop boards. PCIe connectivity differs as well: Intel provides Gen 4 with 8 lanes from the CPU, while Qualcomm provides Gen 4 with 12 lanes. The Qualcomm chip has more direct CPU-attached lanes, which matters for high-throughput devices like NVMe storage or discrete GPUs, though Intel’s desktop platform may offer additional lanes through the chipset.

Integrated graphics differ by vendor. Intel uses Iris Xe Graphics with 96 execution units. Qualcomm uses Adreno X1-85. The database does not record relative graphics performance, so the comparison is limited to naming the solutions. The Intel part is marked as a Desktop market segment, while Qualcomm is marked as Mobile. The Intel part uses Intel Socket 1700, a desktop socket, while Qualcomm uses Qualcomm BGA 2073, a ball-grid array package soldered to a board. This distinction affects upgradeability: the Intel CPU can be swapped on a compatible motherboard, while the Qualcomm is fixed to its carrier board. Both are production status Active. The Intel release date is April 7, 2024, and the Qualcomm release date is April 23, 2024. Neither part is multiplier unlocked, so overclocking is not supported for either. The Qualcomm part has a known part number, X1E84100, while Intel’s part number is listed as unknown.

FAQ

Q: Which processor has more cores and threads?

A: The Intel Core 7 150HL has 14 cores and 20 threads. The Qualcomm Snapdragon X1E-84-100 has 12 cores and 12 threads. Intel offers two more physical cores and eight more threads due to multithreading support.

Q: What are the base and boost clock speeds for each?

A: The Intel part runs at a 2.40 GHz base clock and a 5.00 GHz boost clock. The Qualcomm part runs at a 3.80 GHz base clock and a 4.20 GHz boost clock. Intel boosts higher, but Qualcomm sustains a faster base frequency.

Q: How do the power envelopes compare?

A: Intel has a 45 W TDP, and Qualcomm has a 35 W TDP. The Qualcomm chip operates at a lower thermal design power while running 12 cores at a higher base clock, indicating better efficiency per watt.

Q: Which processor has a larger cache for shared data?

A: Intel provides 24 MB of shared L3 cache. Qualcomm provides 6 MB of shared L3 cache. Intel’s shared pool is four times larger, which benefits workloads that frequently exchange data across cores.

Q: What memory types does each support?

A: Intel supports DDR4 and DDR5 in a dual-channel configuration. Qualcomm supports LPDDR5X in a dual-channel configuration with a recorded bandwidth of 135.2 GB/s. Intel’s memory bandwidth is not recorded in the database.

Q: Are these processors socket-compatible with each other?

A: No. Intel uses Intel Socket 1700, a desktop socket. Qualcomm uses Qualcomm BGA 2073, a soldered mobile package. They are not interchangeable, and the Qualcomm chip cannot be removed from its board.

Specification Differences

The two processors differ across nearly every major specification field recorded in the database. Core count: Intel has 14 cores, Qualcomm has 12 cores. Thread count: Intel has 20 threads, Qualcomm has 12 threads. Base clock: Intel is 2.40 GHz, Qualcomm is 3.80 GHz. Boost clock: Intel is 5.00 GHz, Qualcomm is 4.20 GHz. TDP: Intel is 45 W, Qualcomm is 35 W. Socket: Intel uses Intel Socket 1700, Qualcomm uses Qualcomm BGA 2073. Process node: Intel is 10 nm, Qualcomm is 4 nm. Foundry: Intel uses Intel, Qualcomm uses TSMC. Architecture: Intel is Raptor Lake, Qualcomm is listed with a null architecture field but carries the Oryon codename. Generation: Intel is Core 7 (Raptor Lake-PS), Qualcomm is Snapdragon X (Elite). L1 cache: Intel is 80 KB per core, Qualcomm is 288 KB per core. L2 cache: Intel is 2 MB per core, Qualcomm is 12 MB per module. L3 cache: Intel is 24 MB shared, Qualcomm is 6 MB shared. Memory support: Intel is DDR4 and DDR5, Qualcomm is LPDDR5X. Memory bus: both are dual-channel. Memory bandwidth: Intel has none recorded, Qualcomm has 135.2 GB/s. PCIe: Intel has Gen 4 with 8 lanes, Qualcomm has Gen 4 with 12 lanes. Integrated graphics: Intel uses Iris Xe Graphics 96EU, Qualcomm uses Adreno X1-85. Market segment: Intel is Desktop, Qualcomm is Mobile. Release date: Intel is April 7, 2024, Qualcomm is April 23, 2024. Part number: Intel is unknown, Qualcomm is X1E84100. Both are production status Active, neither is multiplier unlocked, and both have ECC memory support set to false.

The cache structure differences deserve emphasis. Intel’s per-core L1 is 80 KB, which is smaller than Qualcomm’s 288 KB per core. Qualcomm’s per-core L1 is 3.6 times larger. Intel’s L2 is 2 MB per core, while Qualcomm’s is 12 MB per module. If a module contains multiple cores, the effective per-core L2 for Qualcomm may be smaller, but the database records only the per-module figure. Intel’s L3 is 24 MB shared, which is larger than Qualcomm’s 6 MB shared. The total cache footprint favors Intel in shared capacity but favors Qualcomm in per-core L1 size.

The PCIe lane count is another concrete difference. Qualcomm exposes 12 Gen 4 lanes from the CPU, while Intel exposes 8 Gen 4 lanes. This gives Qualcomm a 50 percent advantage in direct CPU-attached lanes, which can support more simultaneous high-bandwidth devices without routing through a chipset. The memory bandwidth figure for Qualcomm, 135.2 GB/s, provides a measurable throughput number that Intel lacks in the database.

Where Each One Wins

Based on the recorded specifications, the Intel Core 7 150HL wins in scenarios that demand high multithreaded throughput and large shared cache. Its 14 cores and 20 threads give it a hardware thread advantage over the Qualcomm’s 12 cores and 12 threads. The 24 MB shared L3 cache provides ample space for workloads that share data across threads, such as database queries, compilation tasks, or content creation pipelines that scale across many cores. The 5.00 GHz boost clock gives Intel a strong single-thread burst capability, which benefits lightly threaded applications that rely on high frequency for responsiveness. The desktop socket and DDR4/DDR5 support make it suitable for traditional desktop builds where the user can select a motherboard and memory type. The Iris Xe Graphics with 96 execution units provides integrated display output for systems without a discrete GPU.

The Qualcomm Snapdragon X1E-84-100 wins in scenarios where power efficiency and sustained all-core performance matter. Its 35 W TDP is lower than Intel’s 45 W, and it still delivers 12 cores at a 3.80 GHz base clock, which is higher than Intel’s 2.40 GHz base. This suggests that under sustained multi-core load, the Qualcomm chip may hold higher clocks without hitting thermal limits as quickly. The 4 nm process from TSMC indicates a denser transistor design, which typically improves performance per watt. The 288 KB L1 cache per core reduces latency for repeated data access, which can benefit real-time workloads like signal processing or interactive applications. The 135.2 GB/s memory bandwidth supports fast data movement for memory-intensive tasks, and the 12 Gen 4 PCIe lanes provide more direct connectivity for storage or accelerators. The LPDDR5X memory support aligns with mobile platforms where low-power operation is critical. The Adreno X1-85 integrated graphics, while not benchmarked, is the only graphics option listed for this chip.

The market segment labels reinforce this split. Intel is categorized as Desktop, which implies a device that stays plugged in and can sustain higher power draw. Qualcomm is categorized as Mobile, which implies battery-powered operation where efficiency is paramount. The socket types further separate them: Intel Socket 1700 allows for a replaceable CPU on a standard desktop board, while Qualcomm BGA 2073 is soldered and tied to a specific device.

The Verdict

The data shows two processors built for different environments. The Intel Core 7 150HL is a desktop-oriented part with more cores, more threads, a higher boost clock, a larger shared L3 cache, and broader memory support. The Qualcomm Snapdragon X1E-84-100 is a mobile-oriented part with a smaller process node, a higher base clock, lower power consumption, larger per-core L1 cache, higher memory bandwidth, and more PCIe lanes.

For users building a desktop system where power draw is not a primary constraint, the Intel processor appears more capable for parallel workloads. The 14 cores and 20 threads provide higher theoretical throughput for tasks that can use many threads, and the 24 MB shared L3 cache reduces cross-core communication penalties. The 5.00 GHz boost clock gives it an edge in single-thread responsiveness over the Qualcomm’s 4.20 GHz boost. The dual DDR4 and DDR5 support allows the builder to choose a memory generation based on motherboard and budget, which is a flexibility the Qualcomm part does not offer.

For users prioritizing battery life, sustained multi-core performance, or compact mobile devices, the Qualcomm processor appears more suitable. The 35 W TDP is lower than Intel’s 45 W, and the 4 nm process suggests better efficiency. The higher base clock of 3.80 GHz means all 12 cores can operate at a faster frequency without needing to reach boost states, which is advantageous for sustained workloads like video encoding or long compile sessions. The 288 KB L1 cache per core provides low-latency access to hot data, and the 135.2 GB/s memory bandwidth supports data-heavy applications. The 12 PCIe lanes offer more direct device connectivity.

The database contains no benchmark scores for either processor, so these conclusions derive solely from architectural and specification data. The identical 50th percentile placement and zero average benchmark score confirm that no measured performance has been recorded. The verdict is therefore conditional: if raw multithreaded capability and upgradeability matter, the Intel part is the choice; if efficiency, sustained clock speed, and mobile integration matter, the Qualcomm part is the choice. Without head-to-head benchmark results, the data cannot declare a definitive winner, but the specification differences clearly point to distinct use cases.