SYSTEM ANALYZER

Rate My PC: Intel Core Ultra 9 285H + NVIDIA RTX 5000 Mobile Ada Generation

Get a comprehensive performance analysis of your gaming rig with detailed benchmarks, bottleneck detection, and upgrade recommendations

86 / 100
HIGH-END

Power Build

Top 14% of systems. Excellent for 1440p Ultra or 4K High gaming.

1440p Ultra4K High

System Balance Analysis

CPU vs GPU performance ratio
Well Balanced
CPU
92%
VS
GPU
80%
PROCESSOR

Intel Core Ultra 9 285H

38,312 Benchmark Score
Top 8% Market Ranking
View Full Specs →
GRAPHICS CARD

NVIDIA RTX 5000 Mobile Ada Generation

3,596 Benchmark Score
Top 20% Market Ranking
View Full Specs →

Market Position

How your build compares to others
Budget
0-30
Mid-Range
30-60
High-End
60-85
Enthusiast
85-100
Your Build

Game Performance Benchmarks

Real-world 4K FPS in popular titles
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Performance Insights

Tips to maximize your system

Strong Performance

Excellent for 1440p gaming. Most games will run at high/ultra settings smoothly.

Compatible Games See what you can play Compare CPUs Find upgrades Compare GPUs Find upgrades

Performance Tiers Explained

90-100

Ultimate

4K Ultra gaming, VR ready, ray tracing enabled, professional workloads

4K 60+ FPS VR Ready
70-89

High-End

1440p Ultra or 4K High settings, excellent for modern AAA titles

1440p Ultra 4K High
50-69

Mid-Range

1080p Ultra or 1440p Medium, great value for most gamers

1080p Ultra 1440p Med
30-49

Entry Level

1080p Medium settings, suitable for eSports and older titles

1080p Med eSports
0-29

Legacy

Basic gaming, older titles, consider upgrading for modern games

720p-1080p Low Older Games

# Balance and Bottleneck

The Intel Core Ultra 9 285H and NVIDIA RTX 5000 Mobile Ada Generation pairing presents an unusual balance profile. The CPU sits at the 86th percentile among all processors, while the GPU languishes at the 21st percentile among all graphics cards. This 65-percentile gap is the defining characteristic of this build — the processor is dramatically stronger relative to its competition than the graphics solution.

Benchmark data confirms the CPU's dominance in compute-heavy tasks. The Core Ultra 9 285H scores 20,781.5 in Cinebench R23 multi-core and 2,129.5 in single-core, with a Geekbench multi-core score of 14,743. These numbers place it within 0.2% of the AMD Ryzen 7 250 and within 0.1% of the Intel Core i5-13600HX in average benchmark score. The GPU, however, manages only 3,596 in 3DMark Steel Nomad DX12, landing within 0.1% of the NVIDIA GeForce GT 545 and 0.9% below the GeForce GTX 1050.

In gaming workloads, the GPU will almost certainly be the limiting factor. The CPU's Passmark single-thread score of 4,415 and multi-thread score of 34,171 indicate ample headroom for feeding frames to a graphics card that benchmarks closer to entry-level desktop parts from over a decade ago. For productivity tasks like rendering, video encoding, or compilation, the CPU's 16 cores and 5.40 GHz boost clock will keep utilization high, while the GPU's 41.15 TFLOPS FP32 throughput provides moderate acceleration for CUDA-accelerated workflows.

The bottleneck shifts depending on workload type. Gaming at any resolution will be GPU-bound. Content creation with GPU-accelerated effects will also hit the GPU ceiling first. Pure CPU workloads — code compilation, spreadsheet crunching, database operations — will run at the processor's full potential. The Passmark data compression score of 335,859 and encryption score of 26,140 suggest strong integer throughput for such tasks.

Power delivery reinforces this imbalance. The CPU carries a 45 W TDP, while the GPU is rated at 120 W. In a laptop chassis, the combined thermal envelope means the GPU likely operates at its rated limit, but the CPU may boost aggressively when the GPU idles. This is a workstation-oriented balance, not a gaming-oriented one.

Benchmark Performance

The Intel Core Ultra 9 285H delivers strong synthetic benchmark results across the board. In Cinebench R15, it scores 3,177.5 multi-core and 313 single-core. Cinebench R20 shows 12,201 multi-core and 1,722 single-core. The R23 scores of 20,781.5 multi-core and 2,129.5 single-core represent the most commonly cited figures — the multi-core result is roughly 9.8 times the single-core result, indicating excellent scaling across the 16 physical cores.

Geekbench results reinforce this picture: 14,743 multi-core and 2,178 single-core. Passmark tests show a multi-thread score of 34,171, a single-thread score of 4,415, and strong subsystem performance — floating-point math at 109,190, integer math at 85,922, and extended instructions at 26,794. The average benchmark score across all tests is 38,312.

Against nearest rivals, the Core Ultra 9 285H is essentially tied with several competing parts. It sits 0.1% below the Intel Core 9 270H (average score 38,335), 0.1% above the Intel Core i5-13600HX (38,261), 0.2% below the Intel Xeon w3-2525 (38,392), and 0.2% above the AMD Ryzen 7 250 (38,221). This is a tightly clustered field — the difference between best and worst is just 0.4%.

The NVIDIA RTX 5000 Mobile Ada Generation tells a different story. Its single 3DMark Steel Nomad DX12 score of 3,596 places it in a cluster with much older hardware. It sits 0.1% above the GeForce GT 545 (3,594), 0.6% below the GeForce GT 735M (3,616), 0.9% below the GeForce GTX 1050 (3,629), and 1.5% below the Radeon HD 6770 (3,649). These are all parts from a much earlier era, which puts the GPU's performance into stark perspective.

The combined percentile for this CPU+GPU pairing is 54. This reflects the averaging of a strong CPU with a weak GPU. The combined picture is a system that excels at processor-bound professional workloads but will struggle with graphics-intensive tasks. For a laptop in this class, the benchmark data suggests the GPU is the weak link that will define real-world limits in gaming and GPU-accelerated applications.

FAQ

Q: Is the CPU or GPU stronger relative to their respective markets?

A: The CPU is far stronger. The Intel Core Ultra 9 285H sits at the 86th percentile among all CPUs, while the NVIDIA RTX 5000 Mobile Ada Generation sits at the 21st percentile among all GPUs.

Q: How does the CPU compare to its nearest rivals?

A: The Core Ultra 9 285H is within 0.2% of all four nearest rivals: the AMD Ryzen 7 250, Intel Core i5-13600HX, Intel Core 9 270H, and Intel Xeon w3-2525. The average benchmark scores range from 38,221 to 38,392, with the 285H at 38,312.

Q: What is the GPU's performance tier based on benchmarks?

A: The GPU scores 3,596 in 3DMark Steel Nomad DX12. Its nearest rivals include the GeForce GT 545, GeForce GT 735M, GeForce GTX 1050, and Radeon HD 6770 — all within 1.5% of its score.

Q: Does the CPU support ECC memory?

A: Yes, the Intel Core Ultra 9 285H supports ECC memory. It also supports DDR5 and LPDDR5X memory in a dual-channel configuration with 102.4 GB/s bandwidth.

Q: What is the combined performance percentile of this pairing?

A: The combined percentile is 54, reflecting the midpoint between the CPU's 86th percentile and the GPU's 21st percentile.

Q: Is measured FPS data available for this CPU+GPU combination?

A: No, there are no measured FPS rows for this exact combination. All gaming performance figures are estimates based on the component benchmark scores.

Q: What is the CPU's launch MSRP?

A: The launch MSRP is $651.

Upgrade Path and Platform

The Intel Core Ultra 9 285H uses the Intel BGA 2049 socket, which is a mobile platform soldered to the motherboard. This means the CPU itself is not upgradeable — the socket is not a user-serviceable LGA design. The platform supports DDR5 and LPDDR5X memory in a dual-channel configuration, with ECC memory support available. Memory bandwidth is rated at 102.4 GB/s.

PCIe connectivity comes from the CPU with Gen 5 support across 8 lanes. The GPU connects via PCIe 4.0 x16, which is a separate interface from the CPU's PCIe lanes. This configuration is typical for mobile platforms where the CPU provides fewer high-speed lanes for storage and peripherals while the GPU gets a dedicated connection.

The GPU has a 120 W TDP with no power connectors (it draws power through the motherboard in an IGP form factor). The CPU has a 45 W TDP. Together, the CPU and GPU account for 165 W of thermal design power. This is a significant combined load for a laptop cooling solution, and the system's power supply must accommodate both components plus the rest of the platform.

A sensible next upgrade for this platform is limited by the BGA socket. Memory can be upgraded if the laptop uses replaceable SO-DIMMs rather than soldered LPDDR5X. Storage can be upgraded via the PCIe Gen 5 lanes available from the CPU, which support the fastest current NVMe drives. The GPU is not upgradeable in any practical sense — it is soldered to the motherboard.

The 45 W CPU TDP suggests this is a high-performance mobile processor that requires robust cooling. The 120 W GPU TDP is modest by desktop standards but substantial for a laptop. Users should ensure their chosen chassis has adequate thermal headroom for sustained workloads that stress both components simultaneously.

CPU Analysis

The Intel Core Ultra 9 285H is a 16-core, 16-thread processor from the Core Ultra Series 2, built on Arrow Lake architecture (specifically Arrow Lake-H). It uses a 3 nm process node from TSMC, which enables the relatively high 5.40 GHz boost clock within a 45 W TDP envelope. The base clock is 2.90 GHz.

Cache hierarchy consists of 192 KB L1 per core, 3 MB L2 per core, and 24 MB shared L3. This is a substantial cache configuration that helps feed the 16 cores in multi-threaded workloads. The processor has no unlocked multiplier, so overclocking is not supported.

The integrated graphics is Arc Graphics 140T, which provides a fallback display output and basic acceleration when the discrete GPU is idle or unavailable. This is a useful feature for laptops where power efficiency matters during light workloads.

Benchmark results show a processor that excels in both single-thread and multi-thread performance. The Cinebench R23 single-core score of 2,129.5 indicates strong per-core performance, which benefits everyday responsiveness and lightly-threaded applications. The multi-core score of 20,781.5 demonstrates that the 16 cores scale well under load — this is a processor that can handle demanding professional workloads.

Passmark results provide additional insight. The floating-point math score of 109,190 is notably strong, benefiting scientific computing and financial modeling. The integer math score of 85,922 supports general productivity tasks. Data compression at 335,859 and random string sorting at 40,931 indicate robust memory subsystem performance. The find prime numbers score of 330 is comparatively modest, but this is a workload that depends heavily on specific instruction patterns.

The CPU's 86th percentile ranking among all CPUs places it in the upper tier of available processors. Its nearest rivals — the Core 9 270H, Core i5-13600HX, Xeon w3-2525, and Ryzen 7 250 — are all comparable in average benchmark score, with deltas of 0.2% or less. This means users should not expect meaningful performance differences between these parts in most workloads.

Gaming Performance

No measured FPS data exists for this exact CPU+GPU combination. The FACT PACK contains no measuredFps rows, so all gaming performance figures discussed here are estimates derived from the component benchmark scores.

Based on the GPU's 3DMark Steel Nomad DX12 score of 3,596, this system should be considered capable of running games at low-to-medium settings at 1080p. The GPU's nearest rivals — the GeForce GTX 1050 and Radeon HD 6770 — are entry-level parts from previous generations. Users should expect frame rates consistent with that performance class.

The CPU will not be a limiting factor in gaming. Its single-thread performance (4,415 in Passmark, 2,129.5 in Cinebench R23) is more than sufficient for modern game engines, which typically require strong single-core performance for game logic and physics. The 16 cores provide ample headroom for background tasks, streaming, or recording while gaming.

For esports titles with low graphical requirements, the GPU may deliver playable frame rates at 1080p with competitive settings. For AAA titles with demanding graphics, users should expect to significantly reduce resolution and quality settings to achieve acceptable performance. The GPU's 16 GB of GDDR6 memory with 576.0 GB/s bandwidth is generous for its compute class, which may help at higher resolutions even if raw pixel throughput is limited.

The pixel rate of 236.9 GPixel/s and texture rate of 643.0 GTexel/s provide context for fill-rate-bound scenarios. The 112 ROPs are sufficient for 1080p and 1440p rendering, but the 41.15 TFLOPS FP32 compute is modest by modern standards. Ray tracing performance, supported by 76 RT cores, will be limited by the overall compute throughput.

GPU Analysis

The NVIDIA RTX 5000 Mobile Ada Generation is built on the AD103 chip using Ada Lovelace architecture, fabricated on a 5 nm process at TSMC. The die contains 45,900 million transistors across 379 mm², yielding a transistor density of 121.1 million per mm². This is a laptop-class GPU in an IGP form factor with no power connectors.

Memory configuration consists of 16 GB of GDDR6 on a 256-bit bus, running at 2250 MHz with 18 Gbps effective speed. Memory bandwidth is 576.0 GB/s, which is substantial and suggests the GPU is designed for memory-hungry professional workloads rather than pure gaming throughput.

The compute configuration includes 9,728 shading units, 304 TMUs, and 112 ROPs. There are 76 RT cores for ray tracing and 304 tensor cores for AI acceleration. FP32 performance is 41.15 TFLOPS, with FP16 at the same 41.15 TFLOPS (1:1 ratio). This 1:1 ratio is notable — many GPUs halve FP16 throughput, so this configuration indicates strong compute flexibility.

The GPU supports DirectX 12 Ultimate (12_2), OpenGL 4.6, and Vulkan 1.4, covering all modern graphics APIs. Display outputs are portable-device-dependent, meaning the laptop manufacturer determines the available ports.

Despite this seemingly capable specification sheet, the benchmark data tells a sobering story. The 3DMark Steel Nomad DX12 score of 3,596 places this GPU at the 21st percentile among all GPUs. Its nearest rivals are the GeForce GT 545, GeForce GT 735M, GeForce GTX 1050, and Radeon HD 6770 — parts from a much earlier generation. This suggests the AD103 chip is heavily configured for power efficiency and professional features rather than raw gaming performance.

The 120 W TDP is modest for a GPU with this feature set, explaining the relatively low benchmark scores. In rendering workloads, the 41.15 TFLOPS FP32 and 304 tensor cores provide meaningful acceleration for CUDA-based applications, even if gaming frame rates disappoint.

Build Overview

This is a laptop-class build combining the Intel Core Ultra 9 285H processor with the NVIDIA RTX 5000 Mobile Ada Generation GPU. The build class is "laptop," meaning both components are soldered and not user-upgradeable.

The combined percentile of 54 reflects the significant gap between CPU and GPU performance. The CPU is a top-tier mobile processor at the 86th percentile, while the GPU is a low-tier part at the 21st percentile. This creates a system that is exceptionally strong for processor-bound workloads but underpowered for graphics-intensive tasks.

The CPU's average benchmark score of 38,312 places it in a dead heat with four rival processors, all within 0.2% of each other. The GPU's average benchmark score of 3,596 places it alongside much older hardware. The pairing is unusual — it pairs a flagship-class CPU with a GPU that benchmarks like an entry-level part.

This configuration appears designed for professional mobile workstations where CPU performance is paramount and GPU acceleration is a secondary consideration. The 16-core CPU with 5.40 GHz boost, 24 MB L3 cache, and ECC memory support is ideal for compute-heavy tasks like code compilation, data analysis, and scientific computing. The GPU provides CUDA acceleration and 16 GB of VRAM for applications that need GPU compute, even if gaming performance is not a priority.

Who Should Build It

This system targets users whose primary workloads are CPU-bound and who need occasional GPU acceleration. Software developers compiling large codebases will benefit from the 16-core CPU and 45 W TDP that allows sustained all-core boost. The Passmark integer math score of 85,922 and data compression score of 335,859 indicate strong performance for build servers and database operations.

Data analysts and scientists running Python, R, or MATLAB workloads will appreciate the CPU's floating-point performance (109,190 in Passmark) and the GPU's 41.15 TFLOPS FP32 for array operations. The 16 GB VRAM with 576.0 GB/s bandwidth can hold large datasets for GPU-accelerated processing, even if the raw compute is modest.

Students in engineering or computer science programs will find the CPU more than adequate for their coursework, though the GPU may limit graphics-heavy applications like CAD or 3D modeling. The ECC memory support is a professional feature that adds reliability for long-running computations.

Small business workstations handling spreadsheets, databases, and document processing will run these tasks at the CPU's full potential. The strong single-thread performance (4,415 Passmark single-thread) ensures responsive everyday use.

Gamers should approach this build with caution. At 1080p with low-to-medium settings, the GPU should deliver playable frame rates in less demanding titles, but AAA games will require significant compromises. The CPU's gaming performance is not the issue — the GPU's 21st percentile ranking is the limiting factor. Users who prioritize gaming should look for a build with a stronger GPU, even if it means a weaker CPU.