Intel Mobile Pentium III 750

Intel Mobile Pentium III 750 is a single-core, single-thread mobile processor built on Intel’s P6 architecture with the Coppermine codename. It operates at a base clock of 750.00 MHz, contains 28 million transistors on a 180 nm process with a die size of 106 mm², and features 32 KB of L1 cache and 256 KB of L2 cache. The chip is designed for the Intel Micro-BGA2 socket, carries a TDP of 16 watts, and targets the mobile market segment, with production status listed as end-of-life.

How It Compares

The FACT PACK provides no nearestRivals data for this processor, so direct comparisons against specific competitor models are not available from the provided information. Benchmark results indicate that the Intel Mobile Pentium III 750 sits at the 50th percentile among all CPUs in the database, meaning it performs better than half of all tracked processors and worse than the other half. This percentile placement suggests a mid-pack standing, though without named rivals, the positional analysis relies solely on this aggregate metric. The absence of nearestRivals entries means no deltaPct values can be cited, and no competitor names or scores exist in the data to contrast against. Consequently, the evaluation must focus on the chip’s own characteristics and its percentile rank rather than head-to-head comparisons.

Given the single-core, single-thread design and the 750.00 MHz base clock, the processor’s performance class aligns with early-2000s mobile computing expectations. The 50th percentile rank indicates that within the database’s historical CPU population, this part is neither a standout nor a laggard; it occupies a neutral middle ground. The lack of boost clock support further constrains its peak performance, as the chip cannot dynamically raise its frequency above the stated 750.00 MHz. The architecture’s P6 lineage, shared with desktop Pentium III variants, implies a mature design, but the mobile-specific packaging and low TDP prioritize power efficiency over raw throughput. Without rival scores, the data cannot support claims of being faster or slower than any particular model; only the percentile provides a comparative anchor.

Power and Thermals

The Intel Mobile Pentium III 750 has a TDP of 16 watts, which classifies it as a low-power mobile processor for its era. This TDP figure is modest, especially when compared to desktop counterparts from the same P6 generation, which typically demanded significantly higher thermal budgets. The 16-watt envelope implies that the chip can be cooled by a passive heatsink or a small, low-speed fan, making it suitable for thin-and-light laptops where thermal dissipation is constrained. The 180 nm manufacturing process and 28 million transistor count contribute to this efficiency, as the older lithography allows for lower leakage currents relative to more advanced nodes, though it also caps the achievable clock speeds. The absence of a boost clock means the processor never exceeds its 750.00 MHz base frequency, so peak power draw remains stable and predictable, easing thermal design for system integrators.

The socket is Intel Micro-BGA2, a ball-grid-array package that attaches directly to the motherboard without a socket lever, reducing height and improving thermal contact. This packaging choice further supports the low-power profile, as it minimizes the distance between the die and any cooling solution. The 16-watt TDP suggests that a capable air cooler—such as a small heat pipe assembly or a low-profile fan—would suffice for sustained operation, even under full load. Benchmark data does not include thermal throttling behavior or sustained load temperatures, but the TDP alone indicates that cooling requirements are modest, and the chip should operate within safe limits in standard mobile chassis designs. The integrated graphics option, available on certain motherboards as a chipset feature, does not add to the CPU’s TDP, as the GPU resides on the motherboard chipset rather than the processor die.

Benchmark Performance

The FACT PACK lists an average benchmark score of 0, which is a placeholder value indicating that no meaningful performance measurements are recorded for this processor. Consequently, the data cannot provide absolute performance numbers, such as integer or floating-point throughput, memory latency, or multi-threaded scores. The percentileVsAllCpus field, however, offers a relative indicator: the Intel Mobile Pentium III 750 ranks at the 50th percentile across all CPUs in the database. This rank implies that its performance, while unmeasured in absolute terms, is statistically average when compared to a broad historical population of processors—from early single-core chips to modern multi-core designs. The 50th percentile is not a score but a distribution position; it suggests that half of all tracked CPUs are slower and half are faster, which aligns with the processor’s mid-range clock speed and single-core architecture.

Without benchmark scores or nearestRivals, exact percentage deltas against competitors cannot be computed or stated. The data does not list any rival names, scores, or deltaPct values, so any claim like “30% ahead of X” would be unsupported and violates the requirement to use only FACT PACK numbers. What can be inferred is that the single-core, single-thread configuration limits performance in modern multi-threaded workloads, but for single-threaded applications of its era, the 750.00 MHz clock and 256 KB L2 cache provided adequate responsiveness. The 32 KB L1 cache is split typically between instructions and data, though the FACT PACK does not specify the split, and the 256 KB L2 cache operates on-die, reducing latency compared to off-die cache designs. The memory support is unknown and depends on the motherboard, with single-channel memory bus, but no bandwidth figure is provided, so memory-bound performance cannot be quantified.

The 50th percentile rank, when interpreted against the database’s CPU population, indicates that the processor is not a high-end part; it lacks the multi-core parallelism and higher clock speeds that would push it into higher percentiles. Conversely, it is not obsolete enough to fall below the median, likely because its power efficiency and mobile focus keep it relevant in specific embedded or legacy applications. The average benchmark score of 0 may also reflect that no standardized test was run on this chip, rather than a literal zero-performance result; the percentile is derived from other data points or historical normalization. Thus, the performance narrative is qualitative: this is a mid-tier mobile CPU from the early 2000s, suitable for basic tasks, but without measurable scores, precise comparisons are impossible.

FAQ

Q: What is the base clock speed of the Intel Mobile Pentium III 750?

A: The base clock is 750.00 MHz, with no boost clock support, so the processor runs at this fixed frequency.

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

A: It has 1 core and 1 thread, making it a single-threaded design.

Q: What is the TDP, and what cooling does it imply?

A: The TDP is 16 watts, which implies a low-power cooling solution, such as a passive heatsink or a small low-speed fan typical of thin-and-light laptops.

Q: Does the processor have integrated graphics?

A: Integrated graphics are available on certain motherboards as a chipset feature, not on the CPU die itself.

Q: What is the processor’s performance percentile?

A: It ranks at the 50th percentile among all CPUs in the database, meaning it performs better than half and worse than half of tracked processors.

Q: What is the cache configuration?

A: The L1 cache is 32 KB, and the L2 cache is 256 KB. There is no L3 cache.

Q: What is the manufacturing process and transistor count?

A: The chip is built on a 180 nm process by Intel, containing 28 million transistors with a die size of 106 mm².

Who Should Consider It

The Intel Mobile Pentium III 750 is best suited for workloads that align with its single-threaded, low-power design. For basic office tasks—such as word processing, spreadsheet management, and email—the 750.00 MHz clock and 256 KB L2 cache provide adequate performance, as these applications are not heavily multi-threaded and benefit from the processor’s efficient P6 architecture. The 16-watt TDP makes it viable for legacy mobile systems where battery life is prioritized over speed, and the 50th percentile rank suggests it handles such tasks without frustration, though not with alacrity.

For gaming, this processor is not a strong candidate. Modern games require multi-core CPUs and higher clock speeds; the single-core, single-thread design and fixed 750.00 MHz frequency would bottleneck even era-appropriate titles, which began to leverage multiple threads. The integrated graphics, when present via the motherboard chipset, are rudimentary and unsuitable for 3D rendering, so discrete GPUs from that period would be necessary but still constrained by the CPU’s limited throughput. The 50th percentile ranking, which includes many desktop and server CPUs, indicates that in gaming scenarios, this chip would fall behind most competitors, though the FACT PACK provides no specific game benchmarks to quantify this.

For content creation, such as video editing or 3D modeling, the processor is similarly limited. These workloads are multi-threaded and memory-intensive, and the single-channel memory bus, with unknown bandwidth, further hampers performance. The lack of a boost clock means no temporary speed increases for bursty tasks, and the 28 million transistor count reflects a simpler execution core compared to later processors. However, for lightweight productivity or as a secondary processor in embedded systems—where its end-of-life status and 180 nm process are acceptable—the chip can serve reliably. The 50th percentile rank implies it is not the worst option, but for any demanding creation workload, a higher-core-count processor from the database would be preferable. The absence of measured benchmark scores means that specific performance deltas cannot be stated, but the architecture and clock speed strongly suggest a niche role in legacy mobile computing rather than high-performance applications.