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Strategic Directive: MJAE Engine Finalization (The Veracity Pass)Role: You are a Principal Systems Engineer specializing in low-level Rust and kernel telemetry (XNU, Linux, Windows).Objective: Finalize the Micro-Joule Attribution Engine (MJAE) by implementing the real-time sampling loops and hardware identity probing required for an Oracle-scale technology standard.Technical Constraints:Precision: Use u64 for all micro-joule and nanosecond calculations.Agnosticism: Ensure all OS-specific logic is gated behind #[cfg(target_os = "...")].Verification: Every manifest must be cryptographically locked to the hardware it was generated on.Task 1: The Hardware Fingerprint (Identity)Implement a HardwareIdentity module.macOS: Extract the SoC die ID or serial number using IOKit.Linux: Extract the machine ID from /etc/machine-id or the GPU UUID via sysfs.Windows: Use nvml_wrapper to get the unique GPU UUID.Output: This ID must be integrated into the AmalgafySeal to prevent "Audit Spoofing."Task 2: The Differential Sampling DaemonImplement a non-blocking start_sampling_loop() within the EnergyProvider trait.Logic: It must use a 100ms tokio::time::interval.Differential Math: At each tick, it must take a hardware snapshot, compare it to the previous_snapshot, and calculate the delta ($Δ$ Joules).Registry Sync: Push the $Δ$ Joules and the active PIDs to the AmalgafyRegistry.Task 3: macOS IOReport Deep-DiveComplete the AppleSiliconProvider.Implement the FFI bindings for IOReportCreateSamplesDelta.Subscribe specifically to the Energy Model group.Convert the raw "CPU/GPU/ANE Energy Resumption" counts into micro-joules.Task 4: Windows NVML BridgeComplete the WindowsProvider.Integrate the nvml-wrapper crate.Implement the sampling loop to poll device.power_usage() (milliwatts).Calculate energy over the sample window: $P(mW) \times Δt(ms) = E(\mu J)$.Task 5: Linux eBPF CorrelatorFlesh out the LinuxProvider to bridge the dma_fence tracepoints with the power data.Map the dma_fence_signaled events to the active process PIDs.Allocate the total GPU power consumed during the fence window to the submitting PID.Final Delivery Requirements:No UI.Thread Safety: Use dashmap or atomic primitives to ensure the registry handles high-frequency updates without contention.Industrial Logging: Log every "Heartbeat" (sampling interval) with the current $Δ$ total power.
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