Computer Engineering Student · AI Systems & Reliability
Focused on designing intelligent systems that remain stable, adaptive, and reliable under uncertainty and real-world operational constraints.
My interests span AI systems architecture, self-regulating computational models, machine learning infrastructure, and system-level reliability engineering.
Tizbam Educational Company
Maintain IT infrastructure for e-learning platforms, resolving 10–15 software and hardware issues weekly. Automated data workflows and log analysis with Python scripting, and collaborate with educators and developers to support platform reliability — practical, daily exposure to how systems behave and fail in production.
Alongside the technical role, I volunteer as an organizer for Tizbam's preparatory exam events — coordinating exam-day logistics and guiding students through the process. Working as part of the organizing team under time pressure taught me operational coordination and responsibility for other people's experience, not just systems.
Tizbam Educational Company
Supported the IT Specialist with day-to-day infrastructure and technical support tasks, gaining hands-on experience with company systems and internal data workflows — the stretch where I moved from following instructions to owning problems myself.
Tizbam Educational Company
Learned SQL and database fundamentals while assisting with basic technical support tasks under senior staff supervision — my first real exposure to how a company's systems actually run, started the same month I began university.
Selected engineering work. Each project is an applied step toward the same question: how do you build systems that understand and manage their own behavior?
A containerized machine-learning service that does more than serve predictions — it monitors its own performance, evaluates its prediction confidence, and regulates its own behavior. When confidence drops below threshold, it returns a safe "uncertain" response and flags itself for retraining through a self-assessing health endpoint. An applied realization of the principles in my SRCA research: a system that recognizes the edges of its own competence.
A fully local, AI-powered transcription pipeline combining Whisper speech-to-text with a locally-run language model to clean and refine raw transcripts — entirely offline, with no external API dependency. Built end to end: backend service, web interface, and conservative LLM prompting designed to correct without rewriting the speaker's meaning.
A reinforcement-learning agent trained with PPO to drive autonomously in a simulated environment, extending an interest I first developed through the AWS DeepRacer League into a fully open, self-built implementation. Average training reward improved from approximately −58 to +121 over 100,000 training steps — a system learning, visibly, from its own mistakes.
My long-term goal is to contribute to the development of intelligent systems that can adapt, learn, and operate reliably in complex environments.
I am particularly drawn to the intersection of machine learning, system reliability, and autonomous decision-making — the space where a system's intelligence matters less than whether it can be trusted. Years of maintaining real infrastructure taught me that the hard problem is rarely making something work; it is making something keep working when conditions change.
Whether through research, engineering, or collaboration with leading institutions, I aim to help build technologies that are not only intelligent, but trustworthy and resilient. I treat every project, research effort, and learning opportunity as a step toward that goal.
Designing systems capable of adaptive behavior while maintaining stability, fault tolerance, and operational trustworthiness.
Exploring feedback-driven computational structures that support autonomous adaptation, coherence maintenance, and intelligent regulation.
Scalable data systems, machine learning infrastructure, and system-level engineering for real-world intelligent applications.
Independent research preprint (single author) — indexed on PhilPapers.
SRCA proposes a self-regulating model for artificial awareness based on multi-domain cognitive organization and closed-loop coherence maintenance. The framework integrates perspectives from Integrated Information Theory, Global Workspace Theory, and predictive processing into a unified, testable architecture for systems that regulate their own internal states.
Four-domain cognitive architecture (E-U-P-C structure)
Self-regulation and feedback-loop mechanisms
Formal distinction between awareness and computation
Testable architectural implications for intelligent systems
Applied companion project: Self-Regulating ML Inference Service →
Self-healing systems using reinforcement learning
Fault prediction in distributed systems
AI-driven reliability and failure detection in complex infrastructure
Scalable architectures for intelligent monitoring in cloud and edge computing
Before systems, there was competition — in science and in sport. Both shaped how I approach problems: preparation, discipline, and performing under pressure.
Participated in the Iranian Physics Olympiad in 10th grade — an early, formative encounter with rigorous problem-solving beyond the standard curriculum.
Regional and provincial medalist in chess, swimming, and basketball — strategy, individual endurance, and team coordination, respectively.
Open to research collaboration, technical discussions, and opportunities in AI systems and data engineering.