MY
Information
Name: Amir
Phone: +98-9338373473
Born in: 1995
Nation: Iranian
City: Tehran
Type of Cooperation: Freelancer
Last Name: Khodabakhsh
Educational Level: PhD Student
Email Addresses:
Amirkhodabakhsh1995@gmail.com
AmirKhodabakhsh@mail.com
me@amirkhodabakhsh.info
Languages: Persian-English
ELECTRONIC
Software Skills

Silvaco

QuantumATK

Cadence

Altium Designer

HSPICE

OrCAD

Advanced Design System

Cadence AWR

Lumerical

Proteus

Tanner EDA L-edit
OTHER
Software Skills

ICDL

MATLAB

Photoshop

COMSOL
PROGRAMMING
Languages

Python

Verilog
Graduate of Shahid Mofatteh High School, with a major in Academic Mathematical Physics, an total average of 18.61 was achieved. Following this, an Associate Degree was completed with a solid average of 17.42. A strong foundation in mathematics and chemistry has been pivotal in shaping this academic journey. In addition to academic pursuits, active engagement in sports and music has contributed to personal development and teamwork skills. Proficiency in various computer software and concepts is possessed, reflecting adaptability and eagerness to learn. A passion for technology is evident through involvement in small electronic projects, particularly in the fields of robotics and analog circuit boards.
During my bachelor’s years, I laid a solid foundation in electronics and mathematics, discovering a true passion for subjects like physics electronics, CMOS technology, analog/radio frequency, and digital design. Despite life’s challenges, I remained focused on education and sports, cultivating the resilience and determination to excel further. Alongside my studies, I gained practical experience through part-time jobs in PC assembly projects, PCB design, and circuit testing. I also learned essential market-relevant tools like Photoshop, Word, Excel, etc, alongside electronic software such as Cadence, HSPICE, ORCAD, Proteus, and MATLAB. These experiences shaped my skills and prepared me for a future in the electronics field.
Following the completion of advanced studies at Islamic Azad University, West Tehran Branch, a strong focus was placed on specialized courses in electronics, including VLSI, advanced CMOS, and analog-to-digital conversion, under the guidance of esteemed Dr. Amir Amini, Dr. Mohammad Fallah Nejad, and Dr. Seyyed Hossein Pishgar Komleh. These studies were complemented by hands-on experience with industry-standard tools such as Advanced Design System (ADS), Tanner EDA L-Edit, and Cadence, applied across numerous simulation projects. A deep interest in semiconductor devices led to the publication of a first article on JLFETs utilizing SiGe/Si heterostructures, with simulations performed using SILVACO TCAD. This work paved the way for further research, resulting in several ISI-indexed publications, particularly in RF applications and the emerging field of 6G communication. The master’s dissertation, titled “Optimizing Electrical Characteristics of Gate-All-Around Nano-Scale Transistor for Analog/Radio Frequency Circuit Applications,” achieved a near-perfect score of 19.99/20 and culminated in a publication in the prestigious IEEE TNANO journal. Alongside academic pursuits, professional experience was gained at “Ideal Electronics Energy Equipment”, where practical skills in electronic design and development were honed. Participation in numerous courses further enriched expertise in semiconductor physics and simulation techniques, providing a well-rounded perspective on the field. Most recently, master’s education was concluded with a research article on a pressure sensor based on JLFET GAA, featuring simulations conducted in both SILVACO and COMSOL.
With a continued commitment to research under the mentorship of Dr. Amir Amini, the focus shifted toward bridging the gap between atomic-scale device physics and circuit-level performance through advanced modeling techniques. This involved addressing the limitations in device scaling and quantum effects using atomic-level simulations based on Density Functional Theory (DFT) and Schrödinger equations. To translate these insights into practical applications, expertise was expanded to include Verilog-A language, enabling precise and efficient modeling of semiconductor devices within circuit simulations. Currently, advanced research is being conducted on semiconductor devices using hybrid simulation methods, a novel approach being explored for the first time in published articles. This methodology integrates atomic-scale simulations with higher-level device modeling to provide a comprehensive understanding of performance at both device and circuit levels. Additionally, a growing interest in optoelectronics has emerged as a response to the challenges posed by high-frequency limitations in traditional semiconductor devices. Beyond research, I actively teach software and device mechanisms, sharing knowledge on semiconductor physics, modeling techniques, and simulation tools. Through a combination of cutting-edge research, a solid foundation in solid-state physics, and a passion for innovation, the goal is to contribute meaningfully to advancements in both semiconductor and optoelectronic technologies while fostering the next generation of engineers and researchers.