I'm an interdisciplinary researcher exploring how intelligent systems reason β from the symbolic structures of compilers to the emergent cognition of LLMs. My work seeks convergence between Neurosymbolic AI, Programming Language Theory, and Binary Analysis, drawing from mathematics, cognitive science, and social theory.
class Samuele95:
def __init__(self):
self.role = "Interdisciplinary AI Researcher"
self.education = "MSc AI & Robotics @ UniCam"
self.core_question = "How do intelligent systems reason?"
self.research = {
"neurosymbolic_ai": ["Reasoning Systems", "Context Engineering",
"LLM Cognition", "Symbolic-Neural Integration"],
"languages": ["Compilers", "Type Theory", "VMs", "Formal Semantics"],
"binary": ["Malware Analysis", "Reverse Engineering", "Binary Understanding"]
}
self.foundations = ["Mathematics", "Cognitive Science", "Neuroscience",
"Psychology", "Sociology", "Critical Theory"]
def philosophy(self):
return "The deepest insights emerge at disciplinary boundaries"Research Focus: Neurosymbolic AI Β· Reasoning & Cognition Β· Context Engineering Β· Compilers & VMs Β· Formal Language Theory Β· Binary Analysis
Deep Math Lover β
I believe the most profound insights emerge at the boundaries between disciplines. My research integrates:
| π Mathematics & Formal Theory | 𧬠Cognitive Science & Neuroscience |
|---|---|
| Type theory, category theory, formal verification, proof systems β the rigorous foundations of computation. | How do humans reason, form concepts, and construct mental models? Biological intelligence illuminates artificial intelligence. |
| π§ Psychology & Decision-Making | βοΈ Law & Ethics |
|---|---|
| Cognitive and investigative psychology β rational choice theory, cognitive biases, uncertainty processing. | Legal reasoning informs rule-based systems, precedent, interpretation, and AI governance. |
π Sociology & Critical Theory β Criminal sociology and social theory through:
- Foucault β Power structures & knowledge systems
- Bentham & the Panopticon β Surveillance & control
- Weber β Rationalization & bureaucratic reasoning
- Le Bon β Crowd psychology & collective behavior
- Malatesta β Anarchist theory & decentralized organization
NEUROSYMBOLIC AI
Reasoning Systems
Context Engineering
|
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v v v
MATHEMATICS COGNITIVE SOCIAL
Type Theory SCIENCE THEORY
Formal Systems Neuroscience Psychology
| | |
+----------------+----------------+
|
+----------------+----------------+
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v v v
COMPILERS BINARY AI COGNITION
& LANGUAGES ANALYSIS LLM Reasoning
Formal Semantics Reverse Eng. Context Windows
- Neurosymbolic AI bridges formal symbolic systems with neural learning
- Context Engineering mirrors how humans construct meaning through contextual frames
- Binary Analysis requires understanding both formal semantics and adversarial psychology
- Compiler Design embodies the transformation of human cognitive structures into machine execution
Compilation Pipeline:
- Lexical Analysis β Tokenization, finite automata (Flex)
- Parsing β LL/LR parsers, AST construction (Bison, ANTLR)
- Semantic Analysis β Type checking, symbol tables
- Code Generation β IR design, optimization passes
- Runtime Systems β Memory management, GC, JIT
Virtual Machine Architecture:
- Stack-based and register-based VM design
- Bytecode instruction sets and encoding
- Built LC3VM β Complete LC3 virtual machine
Language Design:
- Formal grammar specification (BNF/EBNF)
- Type system design and implementation
- Built Logo4J β Logo language interpreter
| Static Analysis | Dynamic Analysis & Forensics |
|---|---|
| PE/ELF Analysis β Headers, sections, imports | Sandboxing β Isolated execution environments |
| Disassembly β x86/x64 with Ghidra & IDA Pro | API Monitoring β System call tracking |
| Pattern Recognition β Packers, crypters, signatures | Memory Forensics β Volatility, artifact extraction |
| YARA Rules β Detection signature authoring | Injection Detection β Hollowing, hooking analysis |
| AI-Assisted β LLMs for code understanding | Protocol RE β Understanding proprietary protocols |

