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🏛️ TheMiniCEO Research Division & Laboratory Directory

Applied AI & Operational Decision Systems Research Lab

Conducting foundational and empirical research on Dynamic Matching, Stochastic Optimization, Multi-Agent Coordination, and Foundation Model-Assisted Operational Decision Making.

👨‍🔬 PI / Director: Amir Pazhooh (Amir Hossein Hosseini)
🏢 Parent Organization: TheMiniCEO
📍 Location: Tehran, Iran (Hybrid Distributed Lab)
🌐 Access: Public Directory Profile
Faculty & Leadership Directory

Principal Investigator & Lab Leadership

Confirmation of institutional leadership, academic roles, verified scholarly citations, and research oversight for computational grant and API evaluation boards.

AP
🛡️ Principal Investigator (PI) & Lab Director

Amir Pazhooh (Amir Hossein Hosseini)

Director of Applied Research & Principal Investigator, Decision Systems Lab
📋 Official Institutional Position Confirmation

This institutional registry certifies that Amir Pazhooh (Amir Hossein Hosseini) serves as the Principal Investigator (PI) and Director of the Applied AI & Operational Decision Systems Research Laboratory within TheMiniCEO. In this capacity, he defines the scientific research agenda, oversees mathematical modeling and algorithmic dispatch frameworks, supervises empirical evaluations, and holds primary administrative authority for institutional partnerships, academic researcher access programs, and foundation model computational resource allocations.

Biography & Scholarly Profile: Amir Pazhooh is an applied researcher and systems architect specializing in dynamic matching mechanisms, causal inference, behavioral mobility models, and operational decision making under uncertainty. His peer-reviewed and preprint contributions focus on real-time bipartite matching algorithms, stochastic dispatching optimization, and multi-attribute pricing engines for large-scale two-sided platforms. He also directs empirical investigations evaluating how generative foundation models and autonomous multi-agent systems interact with complex operational market environments.

Core Scientific Program

Research Areas & Methodological Focus

Grounded in empirical operations research, stochastic optimization, and modern generative AI architectures.

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1. Dynamic Matching & Stochastic Batch Dispatch

Formulating real-time bipartite matching algorithms (e.g., Hungarian variants, Kuhn-Munkres extensions) for two-sided platforms. Mitigating spatial-temporal demand friction, driver idle time, and multi-agent dispatch interference under non-stationary order arrivals.

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2. Causal Inference & Operational Market Design

Applying econometric and causal inference frameworks to quantify network spillover effects, supply-demand elasticity, and interference in dense operational ecosystems. Testing randomized and synthetic control experiments on pricing sensitivity.

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3. Behavioral Mobility & Habit Discontinuity

Investigating adoption barriers in shared urban transit and carpooling. Modeling behavioral shifts and decision friction using spatiotemporal optimization to accelerate user transitions from single-occupancy vehicles to shared transport networks.

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4. Foundation Model Multi-Agent Orchestration

Evaluating frontier Large Language Models (LLMs) and autonomous agents in executing multi-criteria operational decisions, automated dispatching policies, and complex resource allocation under conflicting real-world constraints.

Scholarly Outputs

Publications & Working Papers

Research papers authored by the PI, indexed on Google Scholar with persistent digital object identifiers (DOIs) and open-source code repositories.

✓ Google Scholar Verified • Zenodo Open Access
Dynamic Pricing and Multi-Attribute Dispatch Optimization for Moving Logistics
Amir Pazhooh
Zenodo Preprint Series • Published September 2026 • DOI: 10.5281/zenodo.22956619
Abstract: In real-time two-sided marketplaces—such as urban mobility and on-demand logistics platforms—spatial-temporal demand variability and non-stationary stochastic order arrivals introduce substantial operational friction and market interference. This working paper introduces a dynamic matching and batch dispatching algorithmic framework formulated to balance supply-demand equilibrium under uncertainty. By explicitly incorporating agent availability constraints, spatial dynamics, and network spillover effects, the proposed mechanism mitigates multi-agent dispatching interference and reduces matching latency in dense urban conditions. Empirical evaluations and experimental dispatch protocols demonstrate marked operational efficiency improvements, notably enhancing order fulfillment rates while substantially mitigating driver idle times and operational friction.
✓ Google Scholar Verified • Zenodo Open Access
A Dynamic Matching Algorithm for Real-Time Carpooling: Overcoming Adoption Barriers in Urban Mobility
Amir Pazhooh
Zenodo Preprint Series • Published August 2026 • DOI: 10.5281/zenodo.22065899
Abstract: The rapid acceleration of global urbanization has precipitated an escalating crisis in metropolitan mobility, characterized by severe traffic congestion, heightened greenhouse-gas emissions, and the systemic inefficiencies of single-occupancy vehicles. Although dynamic carpooling and real-time ride-sharing offer promising mechanisms for alleviating these pressures, existing mobility platforms frequently suffer from localized market failures and low user-adoption rates. This research develops a real-time bipartite dynamic matching algorithm leveraging spatiotemporal optimization and behavioral habit discontinuity frameworks to lower entry barriers, overcome adoption hesitations, and maximize matching throughput.
Ongoing Research

Current Projects & Grant Testbeds

Active computational testbeds utilizing foundation model APIs and empirical simulations.

Project 1: Foundation Model Multi-Agent Dispatch Simulation (FM-MADS)
● Active Testbed
Developing an open simulation benchmark assessing how autonomous LLM agents resolve multi-attribute dispatching and dynamic pricing trade-offs in simulated urban logistics. Benchmarks frontier models on constraint handling, equilibrium convergence, and network spillover minimization.
Multi-Agent Systems Dynamic Matching Foundation Model Benchmarking Urban Logistics
Project 2: Causal Sensitivity and Spillover Estimation in Dynamic Platforms
● Empirical Evaluation
Simulating multi-unit spatial interference in dense urban transit networks to test causal estimator robustness when standard SUTVA (Stable Unit Treatment Value Assumption) conditions are violated by routing dependencies.
Causal Inference Market Interference SUTVA Violations Operational Optimization
Personnel

Research Team & Scientific Collaborators

Multidisciplinary researchers focusing on operations research, AI architectures, and causal inference.

AP
Amir Pazhooh
Principal Investigator (PI) & Director
Dynamic Matching & Operational Decision Systems
MR
Mohammad Rezaei, M.Sc.
Senior AI Systems Engineer
Agent Orchestration & Simulation Pipelines
SR
Dr. Sara Rahimi
Visiting Research Scientist
Decision Theory & Behavioral Modeling
AK
Ali Kaveh
Compute & Infrastructure Lead
Distributed Inference & Benchmarks
⚡ Computational Resource Requirements & Academic Grant Disclosure

Our empirical research actively involves large-scale Monte Carlo agent rollouts, long-horizon decision simulations, and foundation model evaluations across non-stationary supply-demand environments. High-rate-limit programmatic access to frontier reasoning models (such as the OpenAI Researcher Access Program, Google Cloud Research Credits, and Anthropic Academic Access) directly powers our reproducible experiments and open benchmark suites.

Commitment to Non-Commercial Open Research: Subsidized API credits and computational grants awarded to our group are strictly dedicated to non-commercial academic research, open-source software releases on GitHub, and peer-reviewed scientific dissemination.

Administrative & Directory Verification

Official Verification Directory

Comprehensive institutional directory data for grant review panels, academic committees, and API access evaluators.

Parent Organization TheMiniCEO (Digital Innovation & Applied Advisory Institute)
Research Group / Lab Applied AI & Operational Decision Systems Research Laboratory
Laboratory Director & PI Amir Pazhooh (Amir Hossein Hosseini) — Confirmed Principal Investigator
Verified Google Scholar Profile scholar.google.com/citations?user=G0ADtx0AAAAJ
Public Web URL https://theminiceo.ir/en/research/ (Open, Public, No Login Required)
Institutional Contact Email [email protected]
Principal Investigator Direct Email [email protected]
Physical Location Tehran, Iran (Hybrid Distributed Research Team)
Open Source Code Repositories https://github.com/amirHHP
Verification Status ● Confirmed Institutional Profile (Publicly Accessible • No Login Required)