Process Development for New Formulation Products with Nanoparticles
| Program start date | Application deadline |
| 2024-07-01 | - |
| 2024-10-01 | - |
Program Overview
This PhD program focuses on developing innovative formulations incorporating nanoparticles, addressing challenges in their incorporation and deagglomeration. It provides expertise in high shear mixing techniques, physicochemical principles, and analytical characterization, preparing graduates for careers in pharmaceuticals, nanomaterials, and process industries.
Program Outline
Process Development for New Formulation Products with Nanoparticles
Degree Overview:
The program leverages the expertise of Dr. N G Ozcan-Taskin, a leading researcher in high shear mixing processes, and provides access to a large-scale pilot plant facility for conducting realistic process development studies. Graduates will gain a deep understanding of the physicochemical principles governing nanoparticle dispersion, allowing them to optimize process parameters and tailor formulations to specific applications.
Objectives:
- Develop a strong understanding of nanoparticle behavior in liquid formulations.
- Master high shear mixing techniques for nanoparticle incorporation and deagglomerattion.
- Design and optimize process parameters for efficient and scalable production of nanoparticle-based formulations.
- Apply fundamental knowledge to solve real-world challenges in various industries, including pharmaceuticals, agrochemicals, food, coatings, and more.
- Gain expertise in utilizing analytical techniques for characterization of nanoparticle dispersions.
- Develop critical thinking, problem-solving, and communication skills relevant to a research career.
Outline:
The program follows a structured curriculum encompassing:
- Theoretical foundation in particle science, fluid mechanics, and process engineering principles.
- In-depth study of the physicochemical properties of nanoparticles and their interactions in liquid media.
- Specialized modules focusing on high shear mixing technology and its applications in nanoparticle processing.
- Hands-on training in laboratory and pilot plant environments using state-of-the-art equipment.
- Comprehensive training in analytical techniques such as particle sizing, rheology, and electron microscopy.
Course Schedule:
The program typically spans 3.5 or 4 years for full-time students and 6 or 7 years for part-time students. The specific course schedule is subject to change, but typically includes modules covering the following areas:
- Introduction to Nanoparticles
- Physicochemical Properties of Nanoparticles
- Formulation Development for Nanoparticles
- Mixing and Dispersion of Nanoparticles
- Characterization Techniques for Nanoparticle Dispersions
- Process Design and Optimization for Nanoparticles
- Applications of Nanoparticles in Various Industries
- Research Methodology and Scientific Writing
- Scale-up of Nanoparticle Processing from Lab to Production: This module could address the challenges and considerations involved in translating lab-scale nanoparticle processing methods to larger production scales.
Assessment:
Assessment methods are likely to include a combination of:
- Examinations: Written tests covering theoretical knowledge and understanding of key concepts.
- Assignments and Projects: Individual or group-based assignments and projects requiring application of theoretical knowledge to solve practical problems and demonstrate critical thinking skills.
- Dissertation: A comprehensive research project conducted over the final year, culminating in a written dissertation demonstrating independent research skills, analysis, and synthesis of findings.
Assessment criteria will likely be based on factors such as:
- Accuracy and depth of knowledge demonstrated.
- Quality of written and oral communication.
- Ability to conduct independent research, analyze data, and draw conclusions.
- Originality and creativity in research contributions.
Teaching:
The program is likely to employ various teaching formats including:
- Lectures: Delivering essential theoretical concepts and foundational knowledge.
- Seminars: Facilitating discussion and interactive learning around specific topics and research findings.
- Laboratory Sessions: Hands-on experience with experimental techniques and equipment for nanoparticle characterization and process development.
- Pilot Plant Training: Practical application of processing methods and equipment for large-scale nanoparticle production. The program is likely to be taught by a team of experienced faculty members with expertise in various fields related to nanoparticle technology, process engineering, and analytical characterization.
Some unique teaching approaches might include:
- Problem-based Learning: Encouraging active engagement and application of knowledge through real-world case studies.
- Guest Lectures and Industry Collaborations: Providing insights from leading researchers and industry experts.
- Collaborative Research Projects: Fostering teamwork, communication, and problem-solving skills through collaborative projects.
- Utilization of Advanced Simulation Tools: Integrating theoretical knowledge with hands-on experience through process simulation software.
Careers:
Graduates are equipped to pursue diverse careers in various sectors including:
- Pharmaceuticals: Developing novel drug delivery systems and other pharmaceutical formulations with improved efficacy and stability.
- Nanomaterials and Nanotechnology Companies: Contributing to research and development of new nanomaterials and their applications across multiple industries.
- Chemical and Process Industries: Designing and optimizing production processes for various products incorporating nanoparticles.
- Academia: Pursuing research careers in universities or research institutes, focusing on further advancements in nanoparticle science and engineering.
Potential career titles and opportunities might include:
- Research Scientist in Nanotechnology
- Formulations Scientist
- Process Development Engineer
- Technical Specialist
- University Lecturer or Researcher
- The program prepares graduates to become highly skilled and knowledgeable individuals with the potential to lead and innovate within the rapidly growing field of nanotechnology and its diverse applications across various sectors.
Other:
The program actively promotes collaboration and networking opportunities with industry partners through research projects, internships, and guest lectures.
This provides students with valuable exposure to real-world applications and potential career paths within the industry.
Graduates are also encouraged to participate in international conferences and workshops, allowing them to showcase their research findings, learn from leading experts, and build a strong professional network within the global research community.
UK fee: £4,712 Full-time degree per annum International fee: £26,000 Full-time degree per annum 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. The project is self-funded so applicants will be required to cover the cost of tuition fees and their own cost of living.
