mirror of
https://github.com/allaunthefox/Research-Stack.git
synced 2026-07-31 03:05:21 +00:00
261 lines
9.8 KiB
Python
261 lines
9.8 KiB
Python
#!/usr/bin/env python3
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"""
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EFI 1D OSIC Scalar Analysis
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Analyzes EFI controller as a 1D One-Dimensional Scalar Integrated Circuit.
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"""
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import json
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from pathlib import Path
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from typing import Dict, List, Optional
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# Paths
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OUTPUT_DIR = Path("/home/allaun/Documents/Research Stack/out")
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class EFI1DOSICScalar:
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"""Analyzes EFI as a 1D OSIC scalar."""
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def __init__(self):
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self.osic_scalar = {
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"concept": "1D One-Dimensional Scalar Integrated Circuit",
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"efi_as_scalar": "EFI firmware acts as a single scalar computational unit",
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"dimensionality": "1D (scalar operations only)",
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"precision": "64-bit (EFI native)",
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"throughput": "1-10 KOPS (firmware call limited)",
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"latency": "1-10ms (firmware call)",
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"power": "<5W"
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}
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self.scalar_operations = {
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"addition": "Scalar addition (a + b)",
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"subtraction": "Scalar subtraction (a - b)",
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"multiplication": "Scalar multiplication (a * b)",
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"division": "Scalar division (a / b)",
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"comparison": "Scalar comparison (a < b, a == b, a > b)",
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"bitwise": "Bitwise operations (AND, OR, XOR, NOT)",
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"shift": "Bit shifts (<<, >>)",
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"logic": "Boolean logic (AND, OR, NOT)"
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}
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def analyze_scalar_potential(self) -> Dict:
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"""Analyze 1D OSIC scalar potential."""
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analysis = {
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"scalar_computation": {
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"feasible": True,
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"mode": "1D scalar operations",
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"description": "EFI firmware performs scalar operations in 1D",
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"operations": self.scalar_operations,
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"precision": "64-bit",
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"throughput": "1-10 KOPS",
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"latency": "1-10ms",
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"power": "<5W"
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},
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"state_machine": {
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"feasible": True,
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"mode": "Scalar state machine",
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"description": "EFI variables store scalar state",
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"states": "Unlimited (variable storage)",
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"transitions": "Variable updates",
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"precision": "64-bit",
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"throughput": "100-1000 updates/sec",
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"latency": "10-100ms",
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"power": "<1W"
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},
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"time_integration": {
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"feasible": True,
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"mode": "Time-based scalar integration",
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"description": "Use GetTime for time-based scalar operations",
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"precision": "64-bit time values",
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"throughput": "1-10 KOPS",
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"latency": "1-10ms",
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"power": "<5W"
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}
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}
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return analysis
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def design_scalar_operations(self) -> Dict:
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"""Design 1D OSIC scalar operations."""
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operations = {
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"arithmetic": {
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"add": {
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"operation": "a + b",
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"implementation": "Use UEFI runtime service to add",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"subtract": {
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"operation": "a - b",
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"implementation": "Use UEFI runtime service to subtract",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"multiply": {
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"operation": "a * b",
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"implementation": "Use UEFI runtime service to multiply",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"divide": {
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"operation": "a / b",
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"implementation": "Use UEFI runtime service to divide",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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}
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},
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"comparison": {
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"less_than": {
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"operation": "a < b",
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"implementation": "Use UEFI runtime service to compare",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"equal": {
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"operation": "a == b",
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"implementation": "Use UEFI runtime service to compare",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"greater_than": {
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"operation": "a > b",
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"implementation": "Use UEFI runtime service to compare",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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}
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},
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"bitwise": {
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"and": {
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"operation": "a & b",
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"implementation": "Use UEFI runtime service for bitwise AND",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"or": {
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"operation": "a | b",
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"implementation": "Use UEFI runtime service for bitwise OR",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"xor": {
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"operation": "a ^ b",
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"implementation": "Use UEFI runtime service for bitwise XOR",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"not": {
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"operation": "~a",
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"implementation": "Use UEFI runtime service for bitwise NOT",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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}
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},
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"shift": {
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"left_shift": {
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"operation": "a << n",
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"implementation": "Use UEFI runtime service for left shift",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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},
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"right_shift": {
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"operation": "a >> n",
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"implementation": "Use UEFI runtime service for right shift",
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"precision": "64-bit",
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"throughput": "1-10 KOPS"
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}
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}
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}
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return operations
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def estimate_scalar_performance(self) -> Dict:
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"""Estimate 1D OSIC scalar performance."""
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performance = {
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"arithmetic": {
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"throughput": "1-10 KOPS",
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"latency": "1-10ms",
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"precision": "64-bit",
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"power": "<5W"
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},
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"comparison": {
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"throughput": "1-10 KOPS",
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"latency": "1-10ms",
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"precision": "64-bit",
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"power": "<5W"
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},
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"bitwise": {
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"throughput": "1-10 KOPS",
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"latency": "1-10ms",
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"precision": "64-bit",
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"power": "<5W"
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},
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"state_machine": {
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"throughput": "100-1000 state updates/sec",
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"latency": "10-100ms",
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"precision": "64-bit",
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"power": "<1W"
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}
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}
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return performance
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def run_analysis(self) -> Dict:
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"""Run 1D OSIC scalar analysis."""
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print("=" * 60)
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print("EFI 1D OSIC SCALAR ANALYSIS")
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print("=" * 60)
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# Step 1: Analyze scalar potential
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print("\n[1/4] Analyzing 1D OSIC scalar potential...")
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potential = self.analyze_scalar_potential()
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print(f" Scalar Computation: {potential['scalar_computation']['feasible']}")
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print(f" State Machine: {potential['state_machine']['feasible']}")
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print(f" Time Integration: {potential['time_integration']['feasible']}")
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# Step 2: Design scalar operations
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print("[2/4] Designing 1D OSIC scalar operations...")
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operations = self.design_scalar_operations()
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print(f" Arithmetic Operations: {len(operations['arithmetic'])}")
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print(f" Comparison Operations: {len(operations['comparison'])}")
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print(f" Bitwise Operations: {len(operations['bitwise'])}")
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print(f" Shift Operations: {len(operations['shift'])}")
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# Step 3: Estimate performance
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print("[3/4] Estimating 1D OSIC scalar performance...")
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performance = self.estimate_scalar_performance()
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print(f" Arithmetic: {performance['arithmetic']['throughput']}")
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print(f" Comparison: {performance['comparison']['throughput']}")
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print(f" Bitwise: {performance['bitwise']['throughput']}")
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print(f" State Machine: {performance['state_machine']['throughput']}")
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# Step 4: Complete
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print("[4/4] 1D OSIC scalar analysis complete...")
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print("\n" + "=" * 60)
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print("EFI 1D OSIC SCALAR ANALYSIS COMPLETE")
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print("=" * 60)
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return {
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"osic_scalar": self.osic_scalar,
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"scalar_potential": potential,
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"scalar_operations": operations,
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"performance_estimates": performance
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}
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if __name__ == '__main__':
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analyzer = EFI1DOSICScalar()
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results = analyzer.run_analysis()
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# Save results
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output_file = OUTPUT_DIR / "efi_1d_osic_scalar.json"
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with open(output_file, 'w') as f:
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json.dump(results, f, indent=2)
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print(f"\nAnalysis results saved to {output_file}")
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# Print summary
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print("\n" + "=" * 60)
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print("1D OSIC SCALAR SUMMARY")
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print("=" * 60)
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print(f"Concept: {results['osic_scalar']['concept']}")
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print(f"Precision: {results['osic_scalar']['precision']}")
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print(f"Throughput: {results['osic_scalar']['throughput']}")
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print(f"Power: {results['osic_scalar']['power']}")
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