Nanofabrication of novel materials for spintronics and energy harvesting

Program Overview

The PhD in Nanofabrication of Novel Materials for Spintronics and Energy Harvesting at Loughborough University equips students with advanced nanofabrication techniques and knowledge in spintronics, 2D materials, and energy harvesting. Through coursework, research projects, and access to state-of-the-art facilities, graduates are prepared for careers in academia or industry, focusing on the development of novel materials and devices. The program fosters critical thinking, problem-solving abilities, and effective communication skills, enabling graduates to make significant contributions to the field.

Program Outline

Degree Overview:

Overview:

The PhD in Nanofabrication of Novel Materials for Spintronics and Energy Harvesting is a research-intensive program that prepares students for careers in academia or industry, focusing on the development of novel materials and devices using advanced nanofabrication techniques.

Objectives:

The program aims to:

• Equip students with in-depth knowledge and practical skills in nanofabrication, thin film deposition, scanning probe microscopy, and various electric and magnetic characterization techniques.
• Foster critical thinking and problem-solving abilities to tackle complex research challenges in spintronics, 2D materials, and energy harvesting technologies.
• Train students to conduct independent research, analyze data, and communicate scientific findings effectively through written and oral presentations.

Description:

The program combines theoretical and practical training through coursework, individual research projects, and access to state-of-the-art facilities, including a Multichamber deposition and lithography system. Students benefit from collaborating with the Centre for the Science of Materials, gaining exposure to diverse research topics and techniques alongside experts in physics, materials science, and related fields.

Outline:

Content:

• Module 1: Advanced Nanofabrication Techniques: This module covers various nanofabrication methods, including photolithography, electron beam lithography, and focused ion beam milling.
• Individual Research Project: Students conduct independent research projects under the supervision of faculty members, focusing on a specific topic within the broader field of nanofabrication, spintronics, or energy harvesting.

Structure:

The program consists of one year of coursework followed by three years of research. During the coursework phase, students attend lectures, participate in seminars, and complete assignments and exams. The research phase involves conducting individual research projects, analyzing data, and writing a dissertation.

Course Schedule:

The course schedule might vary based on the specific semester, but generally includes lectures, seminars, and research project supervision sessions spread across the week.

Modules:

• Each module, as described above, is typically delivered in a semester and followed by assessments.
Modules might involve lectures, tutorials, practicals, and independent study.

Assessment:

Assessment Methods:

Assessment methods, depending on the module, may include a combination of:

• Written exams
• Assignments
• Presentations
• Research project reports
• Dissertation defense

Assessment Criteria:

Assessments are typically graded based on criteria such as:

• Accuracy
• Depth of understanding
• Critical thinking
• Problem-solving skills
• Written and oral communication
• Research originality and contribution

Teaching:

Teaching Methods:

Teaching methods primarily include:

• Lectures: Delivering core theoretical concepts.
• Seminars: Facilitating discussion and critical thinking on research topics.
• Tutorials: Providing practical problem-solving and application exercises.
• Independent Study: Encouraging self-directed learning and research exploration.
• Research Project Supervision: Providing guidance and support throughout the research process.

Faculty:

The program is taught by experienced faculty members from the School of Physics, the Centre for the Science of Materials, and other relevant departments. faculty members have expertise in diverse areas, including nanofabrication, thin film deposition, scanning probe microscopy, spintronics, 2D materials, and energy harvesting.

Unique Approaches:

The program offers unique learning opportunities through:

• Access to a state-of-the-art Multichamber deposition and lithography system.
• Supervision by leading researchers in the field.
• A vibrant research environment fostering interdisciplinary interactions.

Careers:

Career Paths:

Graduates can pursue careers in:

• Academia: Conduct research and teach at universities or research institutions.
• Industry: Work in companies developing nanomaterials-based devices, spintronic devices, or energy harvesting technologies.
• Government agencies or research labs: Focus on research and development in related fields.

Career Opportunities:

Specific career opportunities include:

• Research scientist
• Fabrication engineer
• Materials scientist
• Device engineer
• University professor
• Research fellow

Career Outcomes:

• Applicants can contact the program leader for more specific information about the program.
• The program encourages students to participate in conferences and workshops to present their research findings and network with professionals in the field.
• The program is part of a wider research initiative at Loughborough University focused on advanced materials and devices.
• The program benefits from collaboration with national and international research institutions, providing students with access to a broader range of research opportunities.

UK fee £4,712 Full-time degree per annum International fee £26,000 Full-time degree per annum 2024-25 tuition fees are applicable to projects starting in October 2024, January 2025, April 2025 and July 2025. University fees and charges can be paid in advance and there are several methods of payment, including online payments and payment by instalment. Fees are reviewed annually and are likely to increase to take into account inflationary pressures.