Greetings, and welcome to my website!

My name is Moinuddin Shuvo, and I am a Mechanical Engineer by profession. Feel free to reach out or connect with me!

About

Education

Skills

Honors and Awards

Extra-curricular Activities 

Research

Graduate Research [Ph.D.]

University: Penn State

Session: Fall 2020-Summer 2023

Title: Improving sustainability of Sand-Casting Processes via novel 3D Mold Designs. 

Additively manufactured 3D sand molds and cores have added new dimensions for complex rigging (gating and feeding) systems where non-conventional design rules have become more feasible. The purpose of this project is to design novel riser shapes and optimize its parameters in order to facilitate yield and solidification time along with reducing porosity, entrained air, and defects in the castings across different materials and geometries. Initial results have shown a 7% increase in feeding time and 47.27% reduction in entrained air volume fraction 

Graduate Research [MSc.]

University: University of Texas at El Paso

Session: Fall 2018-Summer 2020

Title of the Thesis: Multi-Wavelength Pyrometry For Emissivity Mapping And Accurate Surface Temperature Measurement In Powder Bed Fusion Systems

Abstract (abbreviated)-

Accurate surface temperature measurement in additive manufacturing (AM) is preeminent as  it  enables  process  control,  parameter development,  measuring  solidification  rates,  etc.  Specifically in  metal AM attaching  a probe within the processing zone  can compromise the  purity and finish of the printed part. Hence, researchers are dependent on pyrometry – a non-contact temperature measurement method. This study focuses on the use of a multiwavelength  (MW) pyrometer with 250 different wavelengths in the range of 850 to 1650 nm. The accuracy  of the pyrometer was validated using a K-type thermocouple probe in a controlled environment  at different elevated temperatures. The patented algorithm of the multiwavelength pyrometer  along with its reported emissivity are both elucidated. Emissivity measurements of Cu and Ti-6Al-4V powders having different particle sizes and temperatures will be presented. The results  show an increase in emissivity with the increasing temperature cycle and a constant emissivity  during the cooling cycle. Behavior of the emissivity maps is discussed along with the issues  encountered with the experimental setup for further improvement. [Link to the Thesis]

Undergraduate Research [BSc.]

University: Bangladesh University of Engineering and Technology

Session: Spring 2016-Summer 2017

Title of the Thesis: Energy and exergy based parametric optimization of waste heat recovery system using organic Rankine cycle.

Low grade temperature waste heat recovery system is a growing challenge for engineers and scientists around the World today. Energy, in conjunction with exergy, analysis of a waste heat driven Organic Rankine Cycle (ORC) is performed. Using actual plant data, performance of the cycle and pinpoint sites of primary exergy destruction are assessed. Furthermore, variations of energy and exergy efficiencies of the system with evaporator/condenser pressures, superheating and subcooling are analyzed. Eight different working fluids which are- Benzene, Cyclopentane, iso-Hexane, m-Xylene, p-Xylene, n-Butane, n-Pentane, Toluene are used to evaluate and compare the performance parameters. For DORC there are eight different combinations of fluids that are used. For high temperature (ht) cycle - Cyclopentane, m-Xylene, n-Butane, Toluene are used and for low temperature (lt) cycle Methanol and R41 are selected as working fluid. Using DORC can increase the power output about 40.37 kW according to present study.

Experience

Work Experience

Parker Hannifin Corp., Mentor, OH [10/2023-Current]

Tesla Inc., Austin, TX [04/2023-08/2023]

Ashland Foundry & Machine Works LLC, Ashland, PA [01/2022-07/2022]

The SHAPE Lab, Pennsylvania State University, State College, PA [09/2020 - Current]

W. M. Keck Center, The University of Texas at El Paso, El Paso, Texas [09/2018 - 05/2020]

ACI Limited, Dhaka, Bangladesh [01/2018 - 06/2018]

Department of ME, BUET, Dhaka, Bangladesh [5/15−7/17]

Projects

Our Purpose for the project was the followings-

Automatic Vehicle Speed Reduction System Using RF Technology & Accident Prevention system, This was a project made under our prescribed course of ''ME 362: Instrumentation and Measurement Sessional''. [Report

The objective of this project was to Automatically control the speed of the vehicles at speed restricted areas such as school and hospital zone, U-turn, and accident avoidance using ultrasonic sensor. 

These are some Computer Aided Design Projects completed by me : 

Research Projects

Computational Mechanics Research - Rectangular Plate With Eccentric Circular, Elliptical Hole under Tensile Loading

Using Linear Elastic Fracture Mechanics theory by Finite Element Analysis we solved the stress intensity factor (SIF) at the crack tip which initiates the static and fatigue failure under certain loading conditions. Results show that the increasing crack length and eccentricity of the circular hole increases the SIF values and the diameter of the circle also has a significant impact on the SIF values calculated.

Computational Heat Transfer Research - Heat Transfer Enhancement Using Nano-particles: 

Mixed convection heat transfer problem in a square cavity having wavy bottom wall with rotating circular cylinder at the center is analyzed in this numerical investigation. Heat transfer is considered for Ferrofluid (Fe3O4 - water) as working fluid. The wavy bottom wall is kept at high temperature and the top wall is cold while the right and left wall is considered insulated. Finite element method is used for numerical solution for the investigation.The results are discussed on the basis of these parameters and their effect on the streamlines, isotherms, entropy contours showing entropy generation due to fluid friction and entropy generation due to thermal gradient, average Nusselt number on the bottom wall of the cavity and Bejan number are discussed.

A rectangular enclosure with thin fin attached and filled with Cu-water nanofluid under external magnetic field is numerically analyzed in this study. Results are discussed on the basis of Streamline Plots, Isotherm contours, Variation of average Nusselt number with respect to Hartman number (Ha), Rayleigh number (Ra) and solid volume fraction (φ). Results show that heat transfer rate increases with the increment of Rayleigh number, solid volume fraction and decreases with the increment of Hartmann number.More than 40% better heat transfer is recorded for lower strength of magnetic field. There is no significant change in overall heat transfer at Ha > 40, even with increasing Ra.

Natural convection in a square cavity with square cylinder annulus filled with Al2O3-water nanofluid has been analyzed under external magnetic field. Numerical simulation has been carried out for wide range of Rayleigh number (Ra = 104 ~ 106), Hartmann number (Ha = 0 ~100) and solid volume fraction of nanofluid ( phi = 0 ~ 0.15). Galerkin weighted residual method of finite element analysis has been used in this study and grid independency test has been performed to ensure the numerical accuracy of the simulation. Results are shown on the basis of streamlines, isothermal lines. Average temperature of the fluid and Nusselt number (Nu) are plotted to discuss the heat transfer rate. Result of this study indicates that increment of Rayleigh and solid volume fraction of the nanofluid increases the heat transfer rate in a significant way whereas increment of Hartmann number decreases the overall heat transfer rate. Thus better heat transfer rate has been obtained for Ra= 106 at a lower Hartmann number.

Publication

Journal Publications

Conference Publications

Resources

Presentations

I will accumulate the presentation that I give here and there in this page.

Recommendations

YoutTube:


Documentaries:

Sketches

Contact

Md Moinuddin Shuvo

8940 Tyler Blvd, Mentor, OH 44060

Parker Hannifin, Gas Turbine Fuel System Division

Email: moinuddinshuvo@gmail.com