Creating hybrid nanodevices for optical control of nanomagnetic data control and computing | PhD

Program Overview

The program combines expertise in opto-electronics, photonics, and functional magnetic materials, providing students with a comprehensive understanding of these devices and their potential applications. Graduates are well-equipped for careers in research, academia, and industry, where they can contribute to the development of next-generation data processing and storage technologies.

Program Outline

The program combines the fields of opto-electronics, photonics, and functional magnetic materials to develop and implement novel light-controlled hybrid magnetic-plasmonic devices.

Objectives:

• Train researchers in the fabrication of novel light-controlled hybrid magnetic-plasmonic devices.
• Equip graduates with the ability to optimize and characterize magnetic and transport properties of these devices.
• Foster interdisciplinary research collaborations within the School of Science, drawing expertise from diverse areas including magnetism, spintronics, novel 2D materials, and neuromorphic computing architectures.
• Provide opportunities to gain expertise in state-of-the-art nanofabrication, optical methods, magnetic measurement characterization, and innovative computing approaches.
• Offer access to world-class research facilities including the Loughborough Materials Characterisation Centre, equipped with advanced instrumentation and the expertise of experienced researchers, and fostering international research collaborations.

Program Description:

This PhD program is designed to provide a comprehensive and in-depth understanding of light-controlled hybrid magnetic-plasmonic devices and their applications. Through extensive research and coursework, students will gain the expertise to:

• Design and fabricate these cutting-edge devices using state-of-the-art nanofabrication and thin-film deposition techniques such as e-beam evaporation and sputtering.
• Characterize and analyze the optical, magnetic, and transport properties of the devices using various experimental techniques, including magnetic measurements and X-ray diffraction.
• Develop innovative applications of these devices in areas such as data processing, neuromorphic computing, and magnetic data storage.
• Conduct original research and contribute to the advancement of knowledge in the field of hybrid nano-optoelectronic devices.

Outline:

Content:

• Design and fabrication of light-controlled hybrid magnetic-plasmonic devices
• Characterization of optical, magnetic, and transport properties of these devices
• Applications of these devices in data processing, neuromorphic computing, and magnetic data storage
• Fundamental concepts in physics, material science, electrical engineering, and computer science

Structure:

• Three-year program for full-time students, six years for part-time students
• Coursework focusing on foundational principles and advanced topics related to the program
• Individual research project supervised by academic experts in the field
• Regular research meetings and seminars to exchange ideas and foster discussion
• Opportunities to present research findings at conferences and in publications

Course Schedule:

The specific course schedule will be provided upon enrollment in the program.

• Continuous assessment through coursework assignments, presentations, and laboratory reports
• Research project thesis defended orally before an examining board

Assessment criteria:

• Depth of understanding of concepts and theories
• Ability to apply knowledge and skills to practical problems
• Critical thinking and problem-solving abilities
• Communication and presentation skills
• Originality and innovation of research contributions

Teaching:

Teaching methods:

• Interactive lectures and seminars led by experienced researchers
• Hands-on laboratory sessions providing practical training in device fabrication and characterization
• Access to online learning resources and e-books

Faculty:

The program benefits from the expertise of a team of renowned researchers in the School of Science, with specialization in areas such as:

• Dr Naëmi Leo (Primary Supervisor): expertise in hybrid nanostructured materials for plasmonics and magnonics
• Professor Kelly Morrison (Secondary Supervisor): expertise in theoretical modeling of magnetoplasmonic nanostructures
• Additional academic supervisors with expertise in various relevant domains

Unique approaches:

• Strong emphasis on interdisciplinary research and collaboration
• Access to state-of-the-art research facilities and world-class instrumentation
• Individualized supervision tailored to each student's research interests and career goals

Careers:

Potential career paths:

• Research scientist in academia, government laboratories, or private companies
• Industrial researcher focusing on the development of next-generation data processing and storage technologies
• University lecturer or professor in physics, material science, or related fields
• Entrepreneur founding their own company based on innovative hybrid nanodevices

Career opportunities:

• Positions in research and development teams of leading technology companies
• Academia positions as post-doctoral researchers, research fellows, or university faculty members
• Consulting roles in government agencies or private sector companies

Career outcomes:

Graduates of this program are well-equipped to pursue successful careers in various research, academic, and industry settings. The program's focus on interdisciplinary skills, cutting-edge research experience, and professional development prepares them to make significant contributions in the field of hybrid nanodevices and their applications in advancing data processing and computing technologies.

Other:

• 94% of Loughborough's research impact is rated world-leading or internationally excellent, based on the 2021 Research Excellence Framework (REF).
• The program welcomes applications from students with a strong background in physics, materials engineering, or other related subjects.
Relevant experience in areas such as lithography, thin-film deposition, magnetic characterization, optical experiments, or machine learning is considered advantageous.
• Loughborough University is committed to providing a supportive and inclusive learning environment for all students.
The program actively encourages applications from individuals from diverse backgrounds and nationalities.
• The program offers generous funding opportunities for eligible students, including scholarships, research assistantships, and other financial support mechanisms.