Research Assistant, Isfahan University of Technology

Experimental research on advanced control systems including piezoelectric actuators (PEA), inverted pendulum, and twin rotor MIMO (TRMS) systems.

Associated with: Isfahan University of Technology

Position: Research Assistant, Department of Electrical and Computer Engineering

Duration: Nov 2023 – Dec 2025

Hands-on experimental research at the Nonlinear Control Lab conducting advanced control systems experiments across multiple platforms. Designed, implemented, and validated control algorithms for ultra-precise positioning and complex dynamic systems.


Project 1: High-Precision Piezoelectric Actuator Control

Duration: Jan 2025 – Dec 2025

Experimental research targeting ultra-precise positioning applications. Operated and controlled the PZS001 piezoelectric actuator to achieve high-fidelity position and velocity tracking for micro/nano-manipulation systems.

Skills: Control Systems Design, Process Control, Experimental Validation

Key Contributions:

  • Designed and implemented high-precision control algorithms
  • Achieved sub-micron level positioning accuracy
  • Developed real-time control system for micro/nano-manipulation

Publication:

Piezoelectric Actuator Control

Project 2: Digital Inverted Pendulum System, Controller Validation

Duration: Jul 2024 – Dec 2024

Designed and conducted hands-on experiments on a digital inverted pendulum platform to validate controller performance in angle and angular velocity tracking through collaborative research at Isfahan University of Technology.

Skills: Process Control, Experimental Validation, Controller Design

Key Contributions:

  • Validated controller performance on real inverted pendulum platform
  • Implemented angle and angular velocity tracking algorithms
  • Conducted comprehensive experimental analysis
Inverted Pendulum System

Project 3: Twin Rotor MIMO System, Multivariable Control

Duration: Nov 2023 – Jun 2024

Experimental investigation of the Twin Rotor Multiple-Input Multiple-Output (MIMO) aerodynamic platform. A benchmark system for studying coupled nonlinear dynamics similar to helicopter flight control. Emphasized simultaneous regulation of multiple coupled states under complex aerodynamic interactions.

Skills: Automation, Multivariable Control, MIMO Systems, Nonlinear Dynamics

Key Contributions:

  • Analyzed coupled aerodynamic interactions in MIMO system
  • Designed multivariable control strategies
  • Validated controller performance under complex coupled dynamics

Publication:

Twin Rotor MIMO System

Lab: Department of Electrical and Computer Engineering, Nonlinear Control Lab, Isfahan University of Technology