Nazanin Minaian, Ph.D., is a mechanical engineer and researcher specializing in bio-inspired sensing systems and smart materials. Her doctoral research at the University of Nevada, Las Vegas, conducted in the Active Materials and Smart Living (AMSL) Lab, focused on electroactive polymers (EAPs) for flow sensing and energy harvesting.
Drawing inspiration from aquatic sensory organs, her research focused on the development of EAP-based “artificial skin” and canal-type sensors capable of detecting fluid dynamics in underwater environments. Her work bridges materials science, fluid mechanics, and biomimetic design to advance technologies for underwater robotics, renewable energy, and soft sensing platforms.
Beyond her research, Nazanin is committed to mentorship and scientific community building, guiding students through interdisciplinary projects in smart materials and experimental design. She is passionate about innovation that connects natural principles with human-centered technology.
PhD in Mechanical Engineering, 2025
University of Nevada, Las Vegas
MS in Aerospace Engineering, 2024
University of Nevada, Las Vegas
BS in Mechanical Engineering, 2018
University of Nevada, Las Vegas
Python (Jupyter, OpenCV), MATLAB, Wolfram Mathematica
SolidWorks, COMSOL Multiphysics, Autodesk Fusion 360, Simpleware ScanIP
SEM, FFT Analysis, Additive Manufacturing, Laser Cutting, DMA
DSLR, PIV (Planar and Volume), Motion Tracking
Project Reports, SOPs, Proposals, Conference Posters/Presentations, Publications
LabVIEW, OriginLab, Tecplot, LabJack, VSCode
Active Materials and Smart Living (AMSL) Lab
Responsibilities include:
Soft Mechatronics (SM) & Robotics Lab
Responsibilities include:

Inspired by the superficial neuromasts of aquatic organisms, this study explores the development of an “artificial skin” for passive hydrodynamic sensing. By utilizing electroactive plasticized polymer gels (EPPGs), a surface-mounted system was developed, capable of detecting local flow behavior through mechanical deformation—generating a voltage response without the need for external power. This project bridges the gap between soft material physics and autonomous underwater navigation.

Inspired by the canal neuromasts of fish, this study explores how subdermal geometries act as mechanical filters to dampen environmental noise. An analytical model was developed along with a Fluid-Structure Interaction (FSI) simulation of the deformation of an Ionic Polymer-Metal Composite (IPMC) sensor within a designed canal system. This project bridges biological sensing theory with advanced computational modeling to enable high-resolution detection of localized flow events.

This project focuses on the physical fabrication and dynamic testing of a bionic sensing canal designed for underwater autonomy. Using a scaled model with integrated IPMC sensors, I conducted experimental flume testing to validate the system’s ability to detect dipole stimuli. The results demonstrate a scalable approach to creating “smart” subdermal sensors that provide high-resolution environmental awareness for autonomous platforms.

Utilizing acquired DICOM images to create CAD models designed for additive manufacturing (employing various software suites such as Simpleware ScanIP and Autodesk Fusion 360). This project is an ongoing effort in gaining insight into new working mechanisms that will aid in underwater vehicle or platform design – largely inspired by biological components. Currently the lead on this project to create a scalable Sea Lion pelvis model that can be used for training volunteers on blood extraction. Additionally mentored two undergraduate students as a technical advisor who utilized this method for their university capstone project.

Submitted proposal on anti-fouling methods for proprietary company surface coating materials was presented at a symposium by local startup company. Was selected as the top pick for funding from a group of graduate-level researchers at UNLV. Collaborated and researched methods to further improve thermal and anti-fouling characteristics of proprietary surface coating material.

Designed a small-scale vortex flow meter with an interior diameter of 10 mm and implemented a 5 mm rectangular IPMC sensor to detect the frequency of vortices shedding from a bluff body. SLA printed and wired fully functional prototype. Performed COMSOL fluidstructure analysis to verify acquired experimental data.

Lead on managing the fluid dynamics division of the Active Materials and Smart Living (AMSL) lab within UNLV. Tasks include procurement of equipment and negotiating with the university regarding competitive exemption of equipment purchasing; Equipment includes but not limited to a Loligo® Systems Swim Tunnel (185L), TSI V3V Particle Imaging Velocimetry (PIV) System, and a three-phase VFD which required additional electrical setup per university building requirements; Responsible for decisions on equipment location, operation, and was lead on installation; A standard operating procedure (SOP) was written and approved along with extensive safety considerations and training plans as required from the building where the lab resides; A safety enclosure was also designed and fabricated to meet safety guidelines.

Concepted, designed, and fabricated a novel faucet-less sink with multiple radially placed laminar nozzles within the sink basin to provide unobstructed hand and face washing capabilities. Focused on CAD modeling, fluid dynamic analysis, material selection, fabrication, marketing, and dissemination of results. Awarded 1st Place Interdisciplinary Engineering Design Award Spring 2018