Research / Paper Files

Paper Files

Paper Files are a personal practice of continuous study in cybersecurity that applies the scientific method as a learning tool. Each article is written not for academic publication, but as a deliberate exercise to sharpen the axe — deepening knowledge on specific topics, organizing ideas with rigor, and observing how understanding of certain subjects develops over time. It is the intellectual equivalent of a training journal: each entry records what was studied, how it was analyzed, and what conclusions emerged.

I strongly recommend that security professionals adopt this method. Choose a topic you want to master, research primary sources (RFCs, papers, official documentation), structure your text with introduction, methodology, analysis, and conclusion, and write as if you were explaining to a colleague. The act of writing forces clarity of thought and exposes gaps in understanding that passive reading cannot reveal. Use the articles on this site as examples of format and depth, and build your own collection — over time, you will have a personal repository of refined knowledge that no course or certification can replace.

DAI & ADAI · 2026

AllDetectionDFIRAppSecDevSecOpsAI SecurityIAMCloudContainersIRCryptoResearchPhishingSecrets

28 papers

DFIR

DFIR-GraphX: A Formal Architecture Based on Probabilistic Temporal Graphs for Incident Response and Digital Forensics in Hybrid and Multicloud Environments

ProbabilisticInference ProbabilisticInference --> HypothesisGeneration HypothesisGeneration --> Verification Verification --> IncidentAttribution IncidentAttribution --> [] Verification --> GraphConstruction ``` This state machine allows formal reasoning about termination and correctness of the inference process. Theorem 1: Convergence of Incremental Graph Construction Let $G_t = (V_t, E_t)$ denote the reconstructed investigation graph at time $t$. Assume event streams are finite and each event produces at most $k$ new edges. We show that the incremental construction algorithm converges.

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DFIR

Scalable Digital Forensics and Incident Response in Cloud-Native and AI-Augmented Environments: Operational Methodologies for 2026 Threat Landscapes

IntegrityVerification IntegrityVerification --> ArtifactExtraction ArtifactExtraction --> CorrelationEngine CorrelationEngine --> HypothesisGeneration HypothesisGeneration --> AnalystReview AnalystReview --> EvidenceArchival EvidenceArchival --> [] IntegrityVerification --> AlertTamperingDetected AlertTamperingDetected --> AnalystReview ``` Each transition enforces constraints over evidence metadata and cryptographic integrity properties. Evidence Integrity Property Let $E_i$ represent a forensic artifact and $H(E_i)$ a cryptographic hash function such as S

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DFIR

ARC-DFIR: A Formal, Probabilistic, and Scalable Architecture for Automated Detection, Reconstruction, and Correlation of Incidents in Heterogeneous Corporate Environments

1. Introduction

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DFIR

A Unified Graph-Theoretic and Causality-Driven Framework for Scalable Digital Forensics and Incident Response in Heterogeneous Enterprise Environments

Generic_PHP_Webshell { strings: $eval = /eval\s\(/ $base64 = /base64_decode\s\(/ condition: uint16(0) == 0x3c3f and 2 of ($eval,$base64) } ``` Suricata Signature (Suspicious Outbound Exfiltration) ``` alert http $HOME_NET any -> $EXTERNAL_NET any \ (msg:"Possible Data Exfiltration via Large POST"; \ flow:established,to_server; content:"POST"; http_method; \ dsize:>1048576; sid:900001;) ``` These artifacts integrate into the suspicious set $S$ that seeds graph extraction. 5. Implementation The ingestion layer uses Apache Kafka with partitioning by host and

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