Apple M4 10-Core Processor
Exhibit Type: Mobile & Workstation Silicon Specification & Architectural Dossier
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Microarchitecture: Apple Silicon M4 / ARMv9.2-A (TSMC 3nm N3E)
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Form Factor: Monolithic System-on-Chip (128-bit LPDDR5X Unified Memory)
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Museum Inventory: 1 Unit (Installed in MacBook Pro 14-inch M4 2024 • Model Mac16,1 / A3112)
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Source Authority: Apple Inc., Wikipedia & PassMark Software
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Microarchitecture: Apple Silicon M4 / ARMv9.2-A (TSMC 3nm N3E)
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Form Factor: Monolithic System-on-Chip (128-bit LPDDR5X Unified Memory)
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Museum Inventory: 1 Unit (Installed in MacBook Pro 14-inch M4 2024 • Model Mac16,1 / A3112)
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Source Authority: Apple Inc., Wikipedia & PassMark Software
1. Technical Overview & Key Specifications
| Category | Property | Specification |
|---|---|---|
| Processor Identity | Model Name | Apple M4 10-Core SoC (PassMark ID: 6040 • Model ID: Mac16,1) |
| Microarchitecture | Apple Silicon M4 Series (ARMv9.2-A with Scalable Matrix Extension SME) | |
| Market Segment | High-Efficiency Mobile / Professional Laptop & Tablet Silicon | |
| Launch Date | May 7, 2024 (iPad Pro) / October 30, 2024 (MacBook Pro 14-inch M4) | |
| Host System Identifiers | Order: MW2W3LL/A • Model: A3112 (EMC 8623) • Verified Museum Inventory: 1 unit |
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| Physical & Manufacturing | Form Factor & Packaging | Monolithic System-on-Chip (SoC) with Package-on-Package (PoP) Unified DRAM |
| Fabrication Process | TSMC 3nm Second-Generation (N3E Enhanced FinFET Node) | |
| Transistor Count | 28.0 Billion transistors (Full monolithic silicon complex) | |
| Die Surface Area | Approx. 165.9 mm² (Calculated die envelope) | |
| Thermal Acoustic Profile | Active single-fan thermal management in MacBook Pro 14″ chassis (near-silent operation) | |
| Cores & Compute Performance | Physical Cores / Threads | 10 Cores / 10 Threads (Heterogeneous: 4 Performance Cores + 6 Efficiency Cores) |
| Performance Cores (P-Cores) | 4 Cores • Up to 4.41 GHz Max Turbo Frequency • Ultra-wide 10-wide instruction decode | |
| Efficiency Cores (E-Cores) | 6 Cores • Up to 2.89 GHz Max Clock Frequency • Deeply pipelined high-efficiency architecture | |
| Instruction Set Architecture | 64-bit ARMv9.2-A • Scalable Matrix Extension (SME) • Advanced SIMD (NEON) | |
| Matrix Acceleration Engine | Apple Matrix Coprocessor (AMX) instructions integrated into CPU execution pipelines | |
| Multi-Threading Model | 1 Thread per Core (SMT/Hyper-Threading omitted for maximal IPC and deterministic energy efficiency) | |
| Thermal & Electrical | Nominal Operating Power (TDP) | ~22 W (Active sustained workload envelope) |
| Maximum Package Power | ~28 W – 30 W (Combined all-core CPU + 10-core GPU synthetic peak power) | |
| Idle Power Draw | < 1.0 W (Enables up to 24 hours video playback on internal 72.4 Wh battery) | |
| Cache Hierarchy | P-Core Level 1 (L1) Cache | 192 KB Instruction + 128 KB Data cache per core (1.28 MB aggregate P-core L1) |
| P-Core Level 2 (L2) Cache | 16 MB Shared L2 cache pool across the 4 performance cores | |
| E-Core Level 1 (L1) Cache | 128 KB Instruction + 64 KB Data cache per core (1.15 MB aggregate E-core L1) | |
| E-Core L2 & System Cache | 4 MB Shared L2 cache across 6 E-cores • 24 MB Shared System-Level Cache (SLC) on fabric | |
| Memory Controller & UMA | Memory Architecture | Unified Memory Architecture (UMA) (Zero-copy unified physical addressing across CPU, GPU, and NPU) |
| Memory Type & Interface | LPDDR5X-7500 MT/s • 128-bit memory bus width (8 discrete 16-bit sub-channels) | |
| Peak Theoretical Bandwidth | 120.0 GB/s unified memory bandwidth | |
| Museum Host Installed RAM | 16 GB Unified Memory (Integrated on-package LPDDR5X modules) | |
| Supported Memory Capacities | 16 GB, 24 GB, or 32 GB unified memory configurations | |
| AI & Neural Processing (NPU) | NPU Hardware Architecture | Apple 16-Core Neural Engine (NNE) (4th Generation dedicated neural processor) |
| Dedicated NPU Throughput | 38 TOPS (INT8) dedicated tensor processing throughput | |
| Generational Acceleration | > 2× faster than Apple M3 NPU • ~3× faster than M1 NPU • 60× faster than A11 Bionic | |
| AI Software Frameworks | Apple Core ML, Metal Performance Shaders (MPS), Apple MLX (native LLM/diffusion framework) | |
| Graphics & Media Engine | Integrated GPU Architecture | 10-Core Apple M4 GPU with Dynamic Caching, Mesh Shading & Hardware Ray Tracing |
| GPU Compute Scale | 10 Cores • 160 Execution Units • 1,280 ALUs / Stream Processors • ~4.1 TFLOPS (FP32) | |
| Dedicated Media Engine | Hardware decode/encode for H.264, HEVC, ProRes, ProRes RAW + AV1 hardware decode | |
| Display Controller Engine | Supports internal Liquid Retina XDR (3024×1964 @ 120Hz ProMotion) + up to 2 external 6K @ 60Hz displays | |
| PassMark Benchmarks | Average CPU Mark (Multithread) | 23,592 (Rank #2 in Mateo’s Museum Collection • Collection Baseline: 23,785 • 2,801 samples) |
| Single Thread Rating | 4,496 MOps/Sec (#1 Highest Single Thread in Museum • 86th fastest overall in PassMark) | |
| Laptop CPU Category Rank | Rank #144 out of 1,647 Laptop CPUs in PassMark database (Top 8.7% globally) |
2. Silicon Topology & Apple Silicon M4 Architecture
Monolithic Silicon Density
28.0B
Transistors fabricated on TSMC second-generation 3nm (N3E)
Heterogeneous Execution
10 Cores / 10 Threads
4 P-Cores (up to 4.41 GHz) + 6 E-Cores (up to 2.89 GHz)
Neural AI & Memory Bandwidth
38 TOPS / 120 GB/s
16-Core Neural Engine + 128-bit LPDDR5X-7500 UMA
Internal Silicon Die Topology & System-on-Chip Floorplan
+---------------------------------------------------------------------------------------------------+
| APPLE M4 MONOLITHIC SYSTEM-ON-CHIP (TSMC 3nm N3E PROCESS) |
| |
| +--------------------------------+ +-------------------------+ +----------------------------+ |
| | PERFORMANCE CORE CLUSTER | | 16-CORE NEURAL ENGINE | | 10-CORE GPU COMPLEX | |
| | (4x High-IPC P-Cores) | | (Apple NNE - 38 TOPS) | | (Hardware Ray Tracing) | |
| | | | | | | |
| | +------------+ +------------+ | | +-------------------+ | | +----------+ +----------+ | |
| | | P-CORE 0 | | P-CORE 1 | | | | Tensor / Matrix | | | | GPU 0 | | GPU 1 | | |
| | | 192K+128KL1| | 192K+128KL1| | | | Execution Units | | | | 16 EUs | | 16 EUs | | |
| | +------------+ +------------+ | | | (38 Trillion | | +----------+ +----------+ | |
| | | P-CORE 2 | | P-CORE 3 | | | | Ops / Second) | | | GPU 2 | | GPU 3 | | |
| | | 192K+128KL1| | 192K+128KL1| | | +-------------------+ | | | 16 EUs | | 16 EUs | | |
| | +------------+ +------------+ | | | Dedicated NPU | | +----------+ +----------+ | |
| | +---------------------------+ | | | SRAM Buffer | | | GPU 4 | | GPU 5 | | |
| | | 16 MB Shared P-Core L2 | | | +-------------------+ | | | 16 EUs | | 16 EUs | | |
| | +---------------------------+ | +-------------------------+ | +----------+ +----------+ | |
| +--------------------------------+ | | GPU 6 | | GPU 7 | | |
| | | 16 EUs | | 16 EUs | | |
| +-------------------------------------------------------------+ | +----------+ +----------+ | |
| | EFFICIENCY CORE CLUSTER | | | GPU 8 | | GPU 9 | | |
| | (6x Low-Power E-Cores) | | | 16 EUs | | 16 EUs | | |
| | | | +----------+ +----------+ | |
| | +---------+ +---------+ +---------+ +---------+ +-------+ | | | Mesh Shaders / RT Cores | | |
| | | E-CORE 0| | E-CORE 1| | E-CORE 2| | E-CORE 3| | E-C 4/5| | | | Dynamic Caching Memory | | |
| | |128K+64KL1| |128K+64KL1| |128K+64KL1| |128K+64KL1| |128K+64| | +----------------------------+ |
| | +---------+ +---------+ +---------+ +---------+ +-------+ | | | |
| | +-------------------------------------------------------+ | | | |
| | | 4 MB Shared E-Core L2 Cache | | | | |
| | +-------------------------------------------------------+ | | | |
| +-------------------------------------------------------------+ | | |
| | | |
| ==================== ULTRA-WIDE ON-DIE COHERENT FABRIC CROSSBAR ==============================| |
| | | |
| | 24 MB SYSTEM-LEVEL CACHE (SLC) SHARED MEMORY BUFFER | |
| ==============================================================================================| |
| |
| +-----------------------------+ +-------------------------------+ +-------------------------+ |
| | APPLE MEDIA ENGINE | | DISPLAY ENGINE & SECURITY | | UNIFIED MEMORY (UMA) | |
| | - Hardware AV1 Decode | | - Tandem OLED Display Ctl | | - Dual LPDDR5X Channels | |
| | - ProRes / ProRes RAW Engine| | - Up to 2x External 6K @ 60Hz | | - 128-Bit Memory Bus | |
| | - 8K HEVC & H.264 Accelerat.| | - Apple Secure Enclave (SEP) | | - 120 GB/s Bandwidth | |
| | - Dedicated Video Encoders | | - Thunderbolt 4 / USB4 Ctl | | - 16 GB On-Package RAM | |
| +-----------------------------+ +-------------------------------+ +-------------------------+ |
+---------------------------------------------------------------------------------------------------+
3. Unified Memory Subsystem & High-Speed Coherent Fabric
Unified Memory Architecture (UMA)
- Zero-Copy Physical Sharing: The CPU cores, GPU shader arrays, and Neural Engine access the same physical memory space without costly PCIe bus transfers or driver buffer duplication.
- Blazing 120 GB/s Bandwidth: Dual 64-bit memory controllers driving LPDDR5X at 7,500 MT/s supply an ultra-wide pipe feeding heavy multi-stream 8K video timelines and multi-billion parameter LLMs.
- On-Package Integration: High-density packaging places LPDDR5X DRAM dies directly adjacent to the M4 SoC silicon, dramatically lowering interconnect trace capacitance and energy draw.
- Museum Host Deployment: Equipped with 16 GB of unified memory, enabling lightning-fast local LLM inferencing with Apple MLX and extensive developer workflow multitasking.
Ultra-Wide Coherent Fabric & 24MB SLC
- Sub-Nanosecond Crossbar: Custom low-latency coherent interconnect links the 4 P-cores, 6 E-cores, GPU, NPU, and display engines with deterministic low-latency cross-block routing.
- 24 MB System-Level Cache (SLC): Massive on-fabric cache absorbs high-frequency memory reads and writes, shielding the DRAM bus and slashing memory controller power consumption.
- Dynamic Caching GPU Architecture: GPU local memory is dynamically allocated in hardware in real time, guaranteeing that only the precise memory required is utilized per task.
- Native Display & I/O Integration: Integrated display controller natively drives internal 120Hz ProMotion XDR panel alongside two external 6K 60Hz displays via high-throughput Thunderbolt 4 pipelines.
4. Advanced Technologies, Virtualization & Platform Security
| Technology Category | Feature / Instruction Set | Functional Capability |
|---|---|---|
| Hardware Virtualization | ARM EL2 Virtualization | Hardware exception level 2 (EL2) virtualization assistance providing near-native execution of guest operating systems under macOS Hypervisor.framework |
| Apple Virtualization.framework | Kernel-level high-performance lightweight virtualization supporting Docker, Podman, and nested ARM64 Linux VM environments at bare-metal speeds | |
| Rosetta 2 Translation Engine | Hardware-assisted x86-to-ARM JIT/AOT binary translation with Total Store Order (TSO) memory consistency hardware support | |
| Vector, Matrix & AI Acceleration | 16-Core Neural Engine (38 TOPS) | Dedicated INT8 tensor accelerator offloading Core ML models, transformer inference, real-time image segmentations, and Apple Intelligence workloads |
| ARMv9.2-A SME & NEON | Scalable Matrix Extension (SME) and 128-bit NEON Advanced SIMD delivering high-throughput matrix math and digital signal processing directly on CPU cores | |
| Apple Matrix Coprocessor (AMX) | High-bandwidth proprietary matrix execution units tightly coupled to P-cores for GEMM matrix multiplication acceleration in Accelerate.framework | |
| Platform Security & Media | Apple Secure Enclave (SEP) | Isolated security coprocessor with hardware root-of-trust, encrypted memory, biometric Touch ID data vault, and hardware AES-256 cryptographic engine |
| PAC & Memory Tagging (MTE) | Pointer Authentication Code (PAC) and hardware memory safety mitigation preventing return-oriented programming (ROP) and memory corruption exploits | |
| Hardware AV1 & ProRes Engines | Dedicated fixed-function silicon decoders for 8K AV1 streaming video and dual-stream 4K/8K ProRes 422/4444 encode/decode engines |
5. PassMark Benchmark Dossier & Synthetic Performance (PerformanceTest V10)
Multithread Rating (CPU Mark)
23,592
Across 2,801 samples • Collection Baseline: 23,785 (Rank #2 in Mateo’s Museum)
Single Thread Rating
4,496
MOps/Sec • #1 Fastest Single Thread in Museum (86th fastest CPU overall in PassMark)
Data Encryption (Hardware Crypt)
15,123
MBytes/Sec sustained hardware-accelerated cryptographic throughput
PassMark PerformanceTest V10 Detailed Test Suite Results
| Test Suite Routine | Average Result Metric | Operational Context |
|---|---|---|
| Integer Math | 54,189 MOps/Sec | High-efficiency macOS Darwin kernel scheduling, compilation, and developer toolchain execution |
| Floating Point Math | 49,531 MOps/Sec | Vector numeric computation, digital signal synthesis, and scientific simulation |
| Find Prime Numbers | 263 Million Primes/Sec | Branch prediction accuracy and integer pipeline execution density |
| Random String Sorting | 34,239 Thousand Strings/Sec | 120 GB/s unified memory bandwidth and 24MB SLC cache indexing latency |
| Data Encryption | 15,123 MBytes/Sec | Hardware-accelerated AES/SHA encryption for APFS FileVault and line-rate WireGuard tunnels |
| Data Compression | 280,335 KBytes/Sec | LZFSE / ZSTD compression, Time Machine snapshot packing, and archive processing |
| Physics Simulation | 2,528 Frames/Sec | Multi-threaded kinematics simulation and real-time gaming physics execution |
| Extended Instructions | 13,619 Million Matrices/Sec | ARMv9.2-A SME and NEON SIMD tensor matrix vectorization throughput |
| Single Thread Performance | 4,496 MOps/Sec | Peak single-core responsiveness at up to 4.41 GHz boost on 10-wide decode P-cores |
PassMark Relative Hierarchy: Mobile Silicon & Museum Stack
| Processor Model | Cores / TDP | Average CPU Mark | Relative Variance |
|---|---|---|---|
| Intel Core Ultra 5 225T (Post #2988) | 10C (6P+4E) / 10T • 35W | 25,900 | +9.8% |
| AMD Ryzen Z1 Extreme | 8C / 16T • 28W | 24,585 | +4.2% |
| Apple M4 10-Core (Exhibit) | 10C (4P+6E) / 10T • ~22W | 23,592 | Baseline (0.0%) |
| Apple M4 9-Core (Binned) | 9C (3P+6E) / 9T • ~20W | 22,186 | -6.0% |
| AMD Ryzen 5 5600X | 6C / 12T • 65W | 21,823 | -7.5% |
| AMD Ryzen 7 5800H | 8C / 16T • 45W | 20,466 | -13.3% |
| Intel Core Ultra 9 288V | 8C (4P+4LP) / 8T • 30W | 19,808 | -16.0% |
| Apple M3 8-Core | 8C (4P+4E) / 8T • ~20W | 19,067 | -19.2% |
| Intel Core Ultra 7 258V | 8C (4P+4LP) / 8T • 30W | 18,864 | -20.0% |
| Apple M1 8-Core | 8C (4P+4E) / 8T • 15W | 14,123 | -40.1% |
6. Platform Synergy: Pairing with Apple MacBook Pro 14-inch (M4, 2024)
Seamless Silicon and System Co-Design
The Apple M4 10-Core SoC powers the Apple MacBook Pro (14-inch, M4, 2024) cataloged in Exhibit #2578. Co-engineered from the transistor level to the aluminum chassis, the system delivers unprecedented compute density and battery longevity in a compact form factor:
| Hardware Domain | Apple M4 10-Core SoC | MacBook Pro 14″ Implementation (Post #2578) |
|---|---|---|
| Chassis & Finish | Monolithic 3nm SoC Silicon Package | Precision CNC Silver Aluminum unibody (1.55 kg • 31.26 × 22.12 × 1.55 cm) |
| Unified Memory Subsystem | 128-bit LPDDR5X-7500 (120 GB/s bandwidth) | 16 GB Unified Memory (integrated PoP substrate) |
| Display & Refresh Engine | Hardware ProMotion controller with dual 6K output | 14.2″ Liquid Retina XDR (3024×1964 @ 120Hz • 1,000 nits sustained, 1,600 nits peak) |
| High-Speed Expansion | Integrated Thunderbolt 4 / USB4 controllers | Three Thunderbolt 4 ports (up to 40 Gb/s) + HDMI 2.1 + SDXC Card Slot |
| Edge AI Acceleration | 16-Core Neural Engine (38 TOPS INT8) | On-device Apple Intelligence, Center Stage computational video & local LLM inference |
| Thermodynamics & Battery | ~22W Active TDP / < 1.0W Idle power profile | 72.4 Wh Lithium-polymer battery (up to 24 hours video playback • 70W USB-C MagSafe 3) |
7. Curator’s Assessment & Homelab Applicability
- Museum Hardware Provenance: Mateo’s Museum archive preserves 1 verified physical unit of the Apple M4 10-Core processor. The silicon is actively deployed inside the Apple MacBook Pro (14-inch, M4, 2024) (Model ID:
Mac16,1, Part:MW2W3LL/A, Model No:A3112, EMC:8623), documented in museum Exhibit #2578. - #2 Ranked Overall Compute in Collection: Achieving a PassMark multithread CPU Mark of 23,592 (and collection baseline of 23,785), the Apple M4 10-Core processor holds the #2 highest compute rank across all processors in Mateo’s Museum collection. It easily surpasses enterprise 16-core dual-socket server platforms (such as the Xeon E5-2698 v3 at 18,835) while drawing a fraction of the electrical energy.
- Absolute Single-Thread Champion: With a Single Thread Rating of 4,496 MOps/Sec, the M4 establishes itself as the #1 fastest single-threaded processor in the entire museum collection, outpacing even the desktop Intel Core Ultra 5 225T (4,269 MOps/Sec). This delivers unmatched responsiveness for developer IDEs, local web server request handling, and interactive developer workflows.
- Edge AI Inference Powerhouse: The onboard 38 TOPS 16-Core Neural Engine, paired with 16 GB of unified memory across a 120 GB/s bus, transforms the system into a premier mobile AI workstation. Utilizing Apple MLX and Metal Performance Shaders, the processor executes quantized LLMs (such as Llama 3, Mistral, and Qwen) with zero CPU scheduling contention.
- Radical Compute-Per-Watt Efficiency: Consuming approximately 22 W under full CPU load and less than 1.0 W at idle, the M4 demonstrates why modern ARM-based system-on-chip designs dominate mobile computing. The host MacBook Pro delivers continuous 24-hour battery endurance while maintaining full performance on battery without thermal throttling.
- Developer Virtualization & MicroVM Density: Through Apple’s hardware-accelerated Virtualization.framework and ARM EL2 hypervisor extensions, the M4 runs containerized Linux stacks, Docker containers, and development environments with near-bare-metal efficiency and instantaneous boot times.