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Document parts for the review

The script split_documents.py writes this file. Do not edit it, because the next run replaces it. Each document part has a header with its source file and line range. It also shows the review findings for the part and a review worksheet. The folder name segments/ is older than the name “document parts”.

Architectural Analysis and Systems Breakdown of Assembly Language · 10 document parts

Source video: Assembly Language in 100 Seconds (Fireship, 2:43)

Part Title Kind Source lines Findings Goal met?
01 Foundational Overview and Historical Evolution section-lead 3-28 6
02 Instruction Set Architecture Heterogeneity and Modern Computing Domains section-lead 29-43 3
03 Memory Layout and Sectional Topology in Assembly Programs section-lead 44-57 5
04 Execution Flow Analysis: 64-Bit Linux System Programming section-lead 58-61 0
05 Data Allocation and Relative Addressing Mechanics subsection 62-75 3
06 Hardware Register Utilization and Parameter Staging subsection 76-94 5
07 Control Flow Termination and Fault Prevention subsection 95-116 5
08 Toolchain Orchestration: Binary Generation via Assembler and Linker section-lead 117-130 4
09 Systemic Implications: Microarchitecture, Security, and Future Paradigms section-lead 131-138 3
10 Works cited references 139-158 0

Comparative Strategic Analysis of Assembly and Modern Fortran: Pedagogical Yield, Toolchain Friction, and Industry Trajectories · 22 document parts

Part Title Kind Source lines Findings Goal met?
01 Introduction and framing preamble 1-4 0
02 Execution Timelines and Attainable Milestones section-lead 5-15 2
03 Assembly: Reading Fluency Versus Authoring Competence subsection 16-20 1
04 Modern Fortran: Rapid Transition to Production Capability subsection 21-25 3
05 Pedagogical Yield: Hardware Literacy Versus Mathematical Computing Abstractions section-lead 26-45 1
06 The Architectural Literacy of Assembly subsection 46-52 1
07 The Numerical Mastery of Modern Fortran subsection 53-60 5
08 Toolchain Complexity, Developer Ergonomics, and Ecosystem Modernization section-lead 61-73 2
09 The Assembly Environment: Fragmented and Unforgiving subsection 74-82 0
10 The Modern Fortran Renaissance: Modernized and Accessible subsection 83-95 1
11 Architectural Set Selection: The Prerequisite Choice for Assembly section-lead 96-109 1
12 The Pragmatic Utility of x86-64 subsection 110-115 0
13 The Structural Elegance of RISC-V subsection 116-121 1
14 The Contemporary Dominance of AArch64 subsection 122-127 1
15 Labor Market Realities, Economic Returns, and Industry Demand section-lead 128-139 3
16 The Assembly Market: Security, Firmware, and Binary Analysis subsection 140-147 1
17 The Fortran Market: High-Performance Computing and Legacy Infrastructure subsection 148-156 3
18 Strategic Decision Framework and Selection Criteria section-lead 157-167 0
19 Criteria for Selecting Assembly Language subsection 168-173 0
20 Criteria for Selecting Modern Fortran subsection 174-179 0
21 Conclusions section-lead 180-189 1
22 Works cited references 190-261 0

Comparative Strategic Analysis of Assembly and Fortran for 1980s–1990s Constrained Game Development: Low-Level Optimization, Simulation Architecture, and Modern Player Experience · 20 document parts

Findings about the full document (not one part): D02-M10

Part Title Kind Source lines Findings Goal met?
01 Introduction and framing preamble 1-4 0
02 The Retro-Engineering Paradigm: 1980s–1990s Hardware Ceilings section-lead 5-23 4
03 90-Day Execution Timelines and Attainable Milestones section-lead 24-34 4
04 Assembly: Direct Hardware Authorship subsection 35-44 4
05 Fortran: The Engine of Pure Mathematical Simulation subsection 45-55 2
06 Technical Architecture: Low-Level Optimization vs. Simulation Power section-lead 56-67 3
07 The Assembly Advantage: Conquering the 80s/90s Hardware Bottlenecks subsection 68-77 1
08 The Fortran Advantage: Simulation Depth and Procedural Complexity subsection 78-86 1
09 Designing for the Modern Player Under Vintage Constraints section-lead 87-100 0
10 1. Responsiveness and Input Latency subsection 101-107 1
11 2. Smooth Frame Pacing and Visual Fluidity subsection 108-113 2
12 3. Emergent Simulation and Procedural Depth subsection 114-119 1
13 Toolchains and Environment Setup section-lead 120-123 0
14 Assembly Retro Toolchain subsection 124-132 2
15 Fortran Retro Toolchain subsection 133-139 2
16 The Definitive Verdict: Which Language Should You Learn? section-lead 140-159 2
17 Choose Assembly If: subsection 160-167 3
18 Choose Fortran If: subsection 168-175 3
19 Recommended Strategy for the Remaining Months subsection 176-179 1
20 Works cited references 180-210 0

Technical Deconstruction of Fireship’s “FORTRAN in 100 Seconds”: Historical Foundations, Language Mechanics, and Modern Scientific Computing · 13 document parts

Source video: FORTRAN in 100 Seconds (Fireship, 2:38)

Part Title Kind Source lines Findings Goal met?
01 Historical Genesis and the Optimizing Compiler Paradigm section-lead 3-8 4
02 Electromechanical Constraints: Punch Cards, Fixed Form, and Typography section-lead 9-21 4
03 Technical Evaluation of Video Content and Syntactic Mechanics section-lead 22-25 2
04 Program Initialization and Source Extensions subsection 26-29 2
05 Implicit Typing Rules and the implicit none Anomaly subsection 30-46 5
06 Data Types and Stream Output subsection 47-50 2
07 Memory Architecture: Static Matrices to Modern Pointers subsection 51-54 2
08 Control Flow and Procedural Modularity subsection 55-58 2
09 Comparative Architectural Evolution section-lead 59-72 6
10 The Mechanics of Numerical Supremacy in High-Performance Computing section-lead 73-80 3
11 Critical Assessment of Rapid Micro-Pedagogy section-lead 81-86 2
12 Conclusion section-lead 87-90 2
13 Works cited references 91-107 1

Technical Architecture and Systems Deconstruction of Inkbox’s “It Took Every SNES Hardware Trick To Make My Game” · 25 document parts

Source video: It Took Every SNES Hardware Trick To Make My Game (Inkbox, 51:14)

Part Title Kind Source lines Findings Goal met?
01 Architectural Foundations and Project Scope section-lead 3-8 5
02 Video Structure and Narrative Progression section-lead 9-12 3
03 Bare-Metal Hardware Baseline and Computational Limitations subsection 13-16 4
04 Work RAM Topology and Procedural Dungeon Generation subsection 17-20 4
05 Picture Processing Unit Configuration and Hardware Decimal HUD Arithmetic subsection 21-24 6
06 Raster Manipulation via Horizontal Blank Direct Memory Access subsection 25-28 4
07 Object Attribute Memory Partitioning and Scanline Saturation subsection 29-32 4
08 Spatial Hashing and Entity Collision Architecture subsection 33-36 4
09 Real-Time Color Arithmetic and Visual Effects subsection 37-40 3
10 Independent Audio Subsystem and Custom SPC700 Driver Engineering subsection 41-44 5
11 Physical Manufacturing and Silicon Verification subsection 45-48 3
12 Detailed Structural Mapping of Video Content section-lead 49-64 13
13 Systematic Decomposition of Core Architectural Concepts section-lead 65-96 6
14 Work RAM Banking and Procedural Playfield Synthesis subsection 97-101 4
15 Picture Processing Unit Configuration and Hardware Decimal HUD Arithmetic subsection 102-107 4
16 Scanline Manipulation via Horizontal Blank Direct Memory Access subsection 108-134 4
17 Object Attribute Memory Management and Scanline Saturation Controls subsection 135-139 5
18 Constant-Time Spatial Hashing and Entity Collision Architecture subsection 140-148 3
19 Hardware Color Arithmetic for Dynamic Visual Feedback subsection 149-158 2
20 Subsystem Isolation and Custom SPC700 Audio Driver Implementation subsection 159-163 5
21 Physical Hardware Realization and Real-Silicon Divergence section-lead 164-169 2
22 Comparative Architectural and Resource Budgeting Matrix section-lead 170-185 13
23 Engineering Implications for Constrained Systems Development section-lead 186-191 3
24 Synthesis and Conclusions section-lead 192-204 5
25 Works cited references 205-234 1

Performance Analysis and Architectural Breakdown: C++ vs. Fortran vs. COBOL (Dave’s Garage Episode 04) · 15 document parts

Source video: What’s the FASTEST Computer Language? C++ vs Fortran vs Cobol: E04 (Dave’s Garage, 15:17)

Part Title Kind Source lines Findings Goal met?
01 Benchmark Design and Experimental Protocol section-lead 3-8 4
02 Architectural Foundations of the Contending Languages section-lead 9-12 0
03 COBOL: Business Data Processing and Record Orientation subsection 13-17 2
04 Fortran: Mathematical Array Translation and Vectorization subsection 18-23 3
05 C++: Zero-Overhead Abstractions and Systems Control subsection 24-28 2
06 Empirical Results and Quantitative Comparison section-lead 29-40 4
07 Analysis of Compiler Variations in Fortran subsection 41-58 6
08 Memory Hierarchy Dynamics and Compiler Code Generation section-lead 59-62 1
09 Cache Subsystem Locality: 1-Bit vs. 8-Bit Storage subsection 63-69 3
10 Object-Oriented Abstraction Costs subsection 70-74 2
11 Structural Bottlenecks in the COBOL Execution Model subsection 75-80 5
12 Broader Systems Engineering Implications section-lead 81-84 0
13 The Limits of Algorithmic Microbenchmarks subsection 85-90 1
14 Compiler Infrastructure Over Linguistic Inception subsection 91-96 1
15 Works cited references 97-176 0

Comparative Empirical Analysis of Programming Language Runtime Dynamics: The Prime Sieve Benchmark Evaluation · 9 document parts

Source video: E01: What is the FASTEST Computer Language? 45 Languages Tested! (Dave’s Garage, 22:26)

Part Title Kind Source lines Findings Goal met?
01 Architectural Context and Historical Provenance section-lead 3-7 4
02 Algorithmic Framework and Execution Criteria section-lead 8-13 3
03 Comparative Systems Analysis: Ada, Pascal, and Delphi Implementations section-lead 14-23 4
04 Compiler Code Generation and Safety Mechanics in Ada subsection 24-28 2
05 The Pascal and Delphi Memory Management Models subsection 29-34 3
06 Cross-Paradigm Performance Dynamics Across the Systems Spectrum section-lead 35-50 7
07 Systematic Implications for Modern Software Engineering section-lead 51-57 2
08 Conclusions section-lead 58-61 3
09 Works cited references 62-85 0

assembly_language_architectural_explorer.html

Section titled “assembly_language_architectural_explorer.html”

Assembly Language: Architectural Analysis & Systems Explorer · 6 document parts

Source video: Assembly Language in 100 Seconds (Fireship, 2:43)

Part Title Kind Source lines Findings Goal met?
01 Summary strip (no heading) html-section#summary 123-146 1
02 Instruction Set Architecture (ISA) Heterogeneity & Paradigms html-section#tab-content-isa 152-207, 641-642, 645-675, 856-900, 901-961 5
03 Virtual Memory Layout & Sectional Topology html-section#tab-content-memory 210-325, 676-708, 962-980 5
04 64-Bit Linux Execution Flow & Register State Machine html-section#tab-content-execution 328-453, 643-644, 709-808, 981-1019, 1020-1040 4
05 Binary Toolchain Orchestration & Object File Linking html-section#tab-content-toolchain 456-547, 809-833, 1041-1056 6
06 Systemic Implications: Security, Microarchitecture & High Performance html-section#tab-content-systemic 550-623, 1057-1074 1

Assembly vs. Modern Fortran: Strategic Learning Advisor · 7 document parts

Findings about the full document (not one part): D03-M4

Part Title Kind Source lines Findings Goal met?
01 Which language should you learn for the rest of the year? html-section#summary 119-173 0
02 Interactive Recommendation Engine html-section#wizard 176-268, 536-593 4
03 12-Week Acquisition Roadmap & Milestones html-section#roadmap 271-323, 594-669 2
04 Pedagogical Yield: Mental Models & Core Dividends html-section#pedagogy 326-387 0
05 Labor Market Realities & Toolchain Ecosystem html-section#market 390-451, 676-771 3
06 Instruction Set Architecture (ISA) Tradeoff Matrix html-section#isa 454-510 1
07 Ready to Start Your 90-Day Learning Track? html-section#call-to-action 513-526 0

Deep Research Report: It Took Every SNES Hardware Trick To Make My Game — Inkbox · 11 document parts

Source video: It Took Every SNES Hardware Trick To Make My Game (Inkbox, 51:14)

Part Title Kind Source lines Findings Goal met?
01 Executive summary section-lead 3-10 3
02 Identified video subsection 13-30 4
03 Transcript and quotation status subsection 31-42 1
04 Evidence hierarchy subsection 43-54 2
05 Segment map and timeline section-lead 55-82 6
06 Detailed segment breakdown section-lead 83-271 22
07 Main concepts and how they connect section-lead 272-295 4
08 Factual cross-check and caveats section-lead 296-316 6
09 The two most significant corrections subsection 317-322 2
10 What remains genuinely unsupported subsection 323-326 2
11 Sources and methodological notes section-lead 327-349 6

Fortran Technical Deconstruction & Interactive Analysis · 6 document parts

Source video: FORTRAN in 100 Seconds (Fireship, 2:38)

Part Title Kind Source lines Findings Goal met?
01 Section 1: Historical Genesis & The Optimizing Compiler Paradigm html-section#sec-genesis 133-179, 530-588, 609-613, 614-634, 726-743, 756-786 8
02 Section 2: Electromechanical Constraints & Fixed Source Form html-section#sec-punchcard 182-245, 589-608, 609-613 5
03 Section 3: Video Code Deconstruction & Interactive Compiler Simulator html-section#sec-compiler 248-321, 614-634, 635-685 3
04 Section 4: Comparative Architectural Evolution html-section#sec-evolution 324-357, 686-725, 726-743, 744-755 2
05 Section 5: High-Performance Computing & Memory Aliasing Supremacy html-section#sec-hpc 360-440, 756-786 5
06 Section 6: Evaluation of Rapid Micro-Pedagogy html-section#sec-pedagogy 443-498 1

prime_sieve_benchmark_interactive_explorer.html

Section titled “prime_sieve_benchmark_interactive_explorer.html”

Comparative Analysis: Prime Sieve Benchmark Dynamics · 6 document parts

Source video: E01: What is the FASTEST Computer Language? 45 Languages Tested! (Dave’s Garage, 22:26)

Part Title Kind Source lines Findings Goal met?
01 overview html-section#overview 76-112 3
02 1. Algorithmic Framework & Benchmark Harness html-section#call-to-action 115-177 3
03 2. Cross-Paradigm Performance Spectrum html-section#paradigm-chart 180-227, 491-509, 510-510, 511-511, 514-587, 588-603, 604-614 6
04 3. Systems Systems Deep Dive: Ada, Pascal, and Delphi html-section#systems-matrix 230-317, 512-513, 615-637 4
05 4. Micro-Architectural Memory & Cache Simulator html-section#cache-simulator 320-412, 638-640, 641-655, 656-703 6
06 5. Engineering Synthesis & Architectural Takeaways html-section#synthesis 415-476, 704-731 3

Retro Game Dev Advisor: Assembly vs. Fortran (1980s-1990s Constraints) · 7 document parts

Findings about the full document (not one part): D04-M5

Part Title Kind Source lines Findings Goal met?
01 Designing Under Vintage Limits for Modern Players html-section#summary 115-154 1
02 Retro Game Concept Diagnostic Engine html-section#diagnostic 157-260, 484-541 1
03 90-Day Retro Game Dev Acquisition Track html-section#roadmap 263-318, 542-614 2
04 Satisfying Modern Players Under Vintage Constraints html-section#architecture 321-376 2
05 Retro Game Engine & Genre Suitability Analytics html-section#analytics 379-408, 621-731 2
06 Retro Toolchain & Emulation Workstation html-section#toolchains 411-458 2
07 Ready to Author Your Retro Engine? html-section#call-to-action 461-474 0

Zero Star: SNES Hardware Architecture Deconstruction · 5 document parts

Source video: It Took Every SNES Hardware Trick To Make My Game (Inkbox, 51:14)

Part Title Kind Source lines Findings Goal met?
01 SNES Hardware Architecture & Memory Allocation html-section#tab-topology 140-227, 711-711, 817-847, 991-1042 13
02 Video Structure & Technical Chapter Roadmap html-section#tab-roadmap 232-259, 594-677, 755-801, 802-816 15
03 Dynamic SNES Hardware Calculators & Interactive Simulators html-section#tab-simulators 264-466, 712-712, 713-717, 848-865, 866-908, 909-911, 912-916, 917-921, 922-938, 939-950, 951-972, 973-990, 1043-1088, 1089-1139 11
04 SNES Hardware Bottlenecks vs Low-Level Software Solutions html-section#tab-matrix 471-499, 678-710, 1140-1159 8
05 Physical Silicon Verification & Engineering Principles html-section#tab-silicon 504-575 6

C++ vs Fortran vs COBOL: Performance & Architecture Breakdown · 6 document parts

Source video: What’s the FASTEST Computer Language? C++ vs Fortran vs Cobol: E04 (Dave’s Garage, 15:17)

Part Title Kind Source lines Findings Goal met?
01 Evaluating Compiled Execution Efficiency html-section#overview 63-94 6
02 Quantitative Results & Compiler Sensitivity html-section#results 96-133, 331-331, 332-333, 334-344, 345-385, 386-432, 433-439 6
03 Memory Hierarchy & Cache Locality Simulator html-section#cache-simulator 135-198, 440-505 7
04 Language Paradigm & Architectural Foundations html-section#architecture 200-272, 506-517 10
05 Benchmark Rules & Faithful Implementation Criteria html-section#integrity 274-305 4
06 Engineering Takeaways: Microbenchmarks vs Reality html-section#call-to-action 307-322 2