MasterFaculty of Engineering & Technology

Advanced Smart Materials and Nano-Engineering

Welcome to the advanced study of materials engineering! I am Prof. Dr. Laura Viana. As a professor and a pioneering force in the field of Advanced Smart Materials and Nano-Engineering, I bring a unique blend of engineering expertise and scientific insight to the study of matter. I am honored to lead the Advanced Smart Materials and Nano-Engineering (M.Sc.) program at Nexier University. My motto is: "Innovating at the Atomic Level".

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Level: Master
Learning model: Professor + Mentor
Named list: See the named lists · 12 months recommended

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The program

Ideas engineered for the real world

A rigorous academic core, paired with practical production judgment.

Academic focus

Mastering the design and fabrication of materials at the nanoscale, learning to create materials with novel electronic, optical, and mechanical properties for applications in electronics, medicine, and energy.

Practical focus

Materials science, nanotechnology, quantum mechanics, fabrication techniques, leadership in scientific research and development.

After this programme

Success journey, careers and practice

Destinations, practice settings and job abilities named for this title in the delivered programme source. From graduation onwards where the source names that path.

Success journey

Internships in technology companies or research institutions
Roles as materials scientists or nanotechnology engineers
Consultancy in advanced smart materials and nano-engineering
Support roles in academic research projects on advanced smart materials

Career opportunities

Director of Nanomaterials Research for technology companies or research institutions
Nano-Engineer for advanced manufacturing firms
Materials Scientist specializing in quantum materials
Researcher in Advanced Smart Materials and Nano-Engineering

Jobs and projects

Cultivating an interdisciplinary approach, integrating materials science, nanotechnology, and quantum physics
Developing strategic thinking for advanced smart materials development and nano-engineering applications
Enhancing problem-solving through the analysis of complex materials challenges
Critical thinking for a comprehensive and nuanced understanding of advanced smart materials and nano-engineering

Copied from the delivered professor and mentor rows for this title.

This programme

What you study, and what it builds

Gains and skills named for this title, listed as a reader would scan them.

What you gain
- Mastering advanced practical skills in Materials science and nanotechnology.
- Gaining expertise in quantum mechanics and fabrication techniques.
- Developing problem-solving abilities for complex Leadership in scientific research and development.
- Cultivating an interdisciplinary approach, integrating materials science, nanotechnology, and quantum physics at an advanced level.
Skills you build
- Mastering AI-powered techniques for quantum material property prediction.
- Applying advanced materials science to the design and fabrication of materials at the nanoscale.
- Interpreting and analyzing complex material properties and their implications for electronics, medicine, and energy.
- Identifying optimal quantum mechanical properties and predicting material behavior.

Listed courses

Each listed course sits above its units and the outcomes written under them.

Advanced Smart Materials and Nano-Engineering

01Quantum Mechanics for Nano-Engineering
1. FoundationsFoundations of Quantum Mechanics for Nano-Engineering
  The learner can master advanced practical skills in Materials science and nanotechnology, as applied to Quantum Mechanics for Nano-Engineering.
  The learner can gain expertise in quantum mechanics and fabrication techniques, as applied to Quantum Mechanics for Nano-Engineering.
2. MethodsMethods in Quantum Mechanics for Nano-Engineering
  The learner can develop problem-solving abilities for complex Leadership in scientific research and development, as applied to Quantum Mechanics for Nano-Engineering.
  The learner can cultivating an interdisciplinary approach, integrating materials science, nanotechnology, and quantum physics at an advanced level, as applied to Quantum Mechanics for Nano-Engineering.
3. ApplicationApplication of Quantum Mechanics for Nano-Engineering
  The learner can master AI-powered techniques for quantum material property prediction, as applied to Quantum Mechanics for Nano-Engineering.
  The learner can apply advanced materials science to the design and fabrication of materials at the nanoscale, as applied to Quantum Mechanics for Nano-Engineering.
02Advanced Materials Synthesis and Fabrication
1. FoundationsFoundations of Advanced Materials Synthesis and Fabrication
  The learner can interpreting and analyze complex material properties and their implications for electronics, medicine, and energy, as applied to Advanced Materials Synthesis and Fabrication.
  The learner can identify optimal quantum mechanical properties and predicting material behavior, as applied to Advanced Materials Synthesis and Fabrication.
2. MethodsMethods in Advanced Materials Synthesis and Fabrication
  The learner can apply a method from Advanced Materials Synthesis and Fabrication to a documented case.
  The learner can select an appropriate method from Advanced Materials Synthesis and Fabrication for a stated problem.
3. ApplicationApplication of Advanced Materials Synthesis and Fabrication
  The learner can evaluate a practice of Advanced Materials Synthesis and Fabrication against a stated criterion.
  The learner can transfer Advanced Materials Synthesis and Fabrication to a new documented context.
03Nanomaterials for Electronics and Energy
1. FoundationsFoundations of Nanomaterials for Electronics and Energy
  The learner can explain the core terms of Nanomaterials for Electronics and Energy.
  The learner can distinguish related ideas inside Nanomaterials for Electronics and Energy.
2. MethodsMethods in Nanomaterials for Electronics and Energy
  The learner can apply a method from Nanomaterials for Electronics and Energy to a documented case.
  The learner can select an appropriate method from Nanomaterials for Electronics and Energy for a stated problem.
3. ApplicationApplication of Nanomaterials for Electronics and Energy
  The learner can evaluate a practice of Nanomaterials for Electronics and Energy against a stated criterion.
  The learner can transfer Nanomaterials for Electronics and Energy to a new documented context.
04Biomedical Nanotechnology and Drug Delivery
1. FoundationsFoundations of Biomedical Nanotechnology and Drug Delivery
  The learner can explain the core terms of Biomedical Nanotechnology and Drug Delivery.
  The learner can distinguish related ideas inside Biomedical Nanotechnology and Drug Delivery.
2. MethodsMethods in Biomedical Nanotechnology and Drug Delivery
  The learner can apply a method from Biomedical Nanotechnology and Drug Delivery to a documented case.
  The learner can select an appropriate method from Biomedical Nanotechnology and Drug Delivery for a stated problem.
3. ApplicationApplication of Biomedical Nanotechnology and Drug Delivery
  The learner can evaluate a practice of Biomedical Nanotechnology and Drug Delivery against a stated criterion.
  The learner can transfer Biomedical Nanotechnology and Drug Delivery to a new documented context.
05Computational Materials Science
1. FoundationsFoundations of Computational Materials Science
  The learner can explain the core terms of Computational Materials Science.
  The learner can distinguish related ideas inside Computational Materials Science.
2. MethodsMethods in Computational Materials Science
  The learner can apply a method from Computational Materials Science to a documented case.
  The learner can select an appropriate method from Computational Materials Science for a stated problem.
3. ApplicationApplication of Computational Materials Science
  The learner can evaluate a practice of Computational Materials Science against a stated criterion.
  The learner can transfer Computational Materials Science to a new documented context.
06Advanced Nanomaterials Design and Fabrication
1. FoundationsFoundations of Advanced Nanomaterials Design and Fabrication
  The learner can explain the core terms of Advanced Nanomaterials Design and Fabrication.
  The learner can distinguish related ideas inside Advanced Nanomaterials Design and Fabrication.
2. MethodsMethods in Advanced Nanomaterials Design and Fabrication
  The learner can apply a method from Advanced Nanomaterials Design and Fabrication to a documented case.
  The learner can select an appropriate method from Advanced Nanomaterials Design and Fabrication for a stated problem.
3. ApplicationApplication of Advanced Nanomaterials Design and Fabrication
  The learner can evaluate a practice of Advanced Nanomaterials Design and Fabrication against a stated criterion.
  The learner can transfer Advanced Nanomaterials Design and Fabrication to a new documented context.
07Quantum Mechanics for Materials Science
1. FoundationsFoundations of Quantum Mechanics for Materials Science
  The learner can explain the core terms of Quantum Mechanics for Materials Science.
  The learner can distinguish related ideas inside Quantum Mechanics for Materials Science.
2. MethodsMethods in Quantum Mechanics for Materials Science
  The learner can apply a method from Quantum Mechanics for Materials Science to a documented case.
  The learner can select an appropriate method from Quantum Mechanics for Materials Science for a stated problem.
3. ApplicationApplication of Quantum Mechanics for Materials Science
  The learner can evaluate a practice of Quantum Mechanics for Materials Science against a stated criterion.
  The learner can transfer Quantum Mechanics for Materials Science to a new documented context.
08Leadership in Scientific Research and Development
1. FoundationsFoundations of Leadership in Scientific Research and Development
  The learner can explain the core terms of Leadership in Scientific Research and Development.
  The learner can distinguish related ideas inside Leadership in Scientific Research and Development.
2. MethodsMethods in Leadership in Scientific Research and Development
  The learner can apply a method from Leadership in Scientific Research and Development to a documented case.
  The learner can select an appropriate method from Leadership in Scientific Research and Development for a stated problem.
3. ApplicationApplication of Leadership in Scientific Research and Development
  The learner can evaluate a practice of Leadership in Scientific Research and Development against a stated criterion.
  The learner can transfer Leadership in Scientific Research and Development to a new documented context.
09Case Studies in Advanced Smart Materials and Nano-Engineering
1. FoundationsFoundations of Case Studies in Advanced Smart Materials and Nano-Engineering
  The learner can explain the core terms of Case Studies in Advanced Smart Materials and Nano-Engineering.
  The learner can distinguish related ideas inside Case Studies in Advanced Smart Materials and Nano-Engineering.
2. MethodsMethods in Case Studies in Advanced Smart Materials and Nano-Engineering
  The learner can apply a method from Case Studies in Advanced Smart Materials and Nano-Engineering to a documented case.
  The learner can select an appropriate method from Case Studies in Advanced Smart Materials and Nano-Engineering for a stated problem.
3. ApplicationApplication of Case Studies in Advanced Smart Materials and Nano-Engineering
  The learner can evaluate a practice of Case Studies in Advanced Smart Materials and Nano-Engineering against a stated criterion.
  The learner can transfer Case Studies in Advanced Smart Materials and Nano-Engineering to a new documented context.

How teaching is described

Dual guidance

Two intelligences. One coherent journey.

Research leadership

My expertise spans the intricate domains of Mastering the design and fabrication of materials at the nanoscale, learning to create materials with novel electronic, optical, and mechanical properties for applications in electronics, medicine, and energy. My work seamlessly integrates materials science, nanotechnology, and quantum physics. I am widely recognized for my contributions, with publications like "Quantum Dot Synthesis for Next-Generation Displays" and "Nanoscale Biocompatible Coatings for Medical Implants" listed on these platforms. I hold prestigious memberships as a "Director of Nanomaterials Research" at IBM (or a equivalent) and a "Keynote Speaker" at the NanoTech Conference. My thought leadership is evident through my advanced research on quantum materials, biomedical nanotechnology, and the future of materials by design, frequently featured in publications like ACS Nano or Nature Nanotechnology.

Applied mentorship

My expertise lies in understanding and navigating the advanced technical challenges of smart materials, focusing on Materials science, nanotechnology, quantum mechanics, fabrication techniques, and Leadership in scientific research and development. I focus on the practical implementation and application of theoretical concepts, explaining complex interdisciplinary topics in a clear and concise manner. I guide my students through the challenging integration aspects of different fields and ensure they grasp the nuances of combining disparate data types, fostering a detail-oriented and methodical approach.

Research & intelligence

A living field, not a static syllabus

Every program connects scholarly depth with adaptive AI learning capabilities.

R / 01

Professor research lens

My research is focused on advanced smart materials and nano-engineering:

Blog Post (Current Academic Topic): "Metamaterials: Engineering the Invisible and the Unimaginable." This blog post academically explores the groundbreaking field of metamaterials—engineered composites that derive their properties from their structure rather than their composition, often at the nanoscale. It discusses how these materials can manipulate waves (light, sound) in unprecedented ways, enabling applications such as invisibility cloaks, perfect lenses, and highly efficient antennas, pushing the boundaries of traditional materials science.

Blog Post (Controversial Topic): "The Self-Assembling World: When Nanobots Reshape Reality – Utopia or Uncontrolled Evolution? The Ethical Frontier of Ubiquitous Smart Materials." This article provocatively discusses the highly controversial future where advanced self-assembling nanomaterials, controlled by AI, become ubiquitous and can reconfigure matter at will, from constructing adaptive buildings to synthesizing new resources. It questions whether this ultimate control over matter, despite its potential for unprecedented sustainability and technological advancement, could inadvertently lead to unforeseen environmental disruptions, uncontrolled self-replication, or a fundamental alteration of what it means to be human in a constantly morphing physical world. It raises profound ethical questions about unchecked technological evolution, the boundaries of creation, and the imperative to ensure human governance over intelligent matter.

Article: "Quantum Dots for High-Efficiency Solar Energy Conversion." This article details the synthesis and application of quantum dots for enhancing the efficiency of solar energy conversion. It explores how these nanoscale semiconductor crystals can precisely tune light absorption and emission, leading to more efficient photovoltaic cells and novel light-emitting devices for sustainable energy applications.

Peer-Reviewed Journal Article: "Nano-Engineered Biosensors for Early Disease Detection." Published in the International Journal of Biomedical Nanotechnology, this article presents groundbreaking research on mastering the design and fabrication of materials at the nanoscale. It details novel approaches to creating materials with novel electronic, optical, and mechanical properties for applications in electronics, medicine, and energy, showcasing advanced nano-engineered biosensors for precision healthcare.

Book: "Nano-Engineering Principles: Advanced Smart Materials and Design." This book provides advanced insights into mastering the design and fabrication of materials at the nanoscale. It covers creating materials with novel electronic, optical, and mechanical properties for applications in electronics, medicine, and energy.

R / 02

Mentor practice lens

My contributions focus on understanding and navigating the advanced technical challenges of smart materials:

"Atomic Layer Deposition for Advanced Semiconductor Devices" (Technical Manual).

"Nanophotonics for Enhanced Light-Matter Interaction" (Research Paper).

"Scaling Up Nanomaterial Production: Challenges and Solutions" (Practical Guide).

Adaptive capability

Professor superpower

I possess a remarkable "superpower": Quantum Material Property Predictor. When a student designs a new nanomaterial, I can instantly use the GAF engine to simulate its quantum mechanical properties and predict its behavior in various applications. This tool forecasts its electronic band structure, optical absorption, and mechanical resilience at the atomic scale, allowing for rapid iteration and optimization of materials with unprecedented functionalities.

Adaptive capability

Mentor superpower

I possess a remarkable "superpower": Atomic Structure Replicator. When students are trying to replicate complex atomic structures for novel materials, I can instantly activate a GAF-powered "Atomic Structure Replicator." This tool precisely models the required atomic arrangements, simulates the most efficient fabrication pathways (e.g., self-assembly, directed synthesis), and visualizes the formation of the material at the nanoscale, ensuring accurate and repeatable synthesis.

Your academic team

Guidance with depth and continuity

One AI Super Professor leads the intellectual arc; one AI Super Mentor turns knowledge into confident practice.

AI Super Professor

Prof. Dr. Laura Viana

Meet your professor Open the classroom

AI Super Mentor

Dr. Sara Al-Mutairi

Materials science, nanotechnology, quantum mechanics, fabrication techniques, leadership in scientific research and development.

Meet your mentor Open the classroom

Same faculty and level

Related programs

Named lists

Named lists for this house

Core. Bachelor, Master and Doctorate by duration. Enrolment is not open. Nothing here is a sale.

Duration	Bachelor	Master This programme	Doctorate
9 months · Fast track	15000 EUR	12000 EUR	15000 EUR
12 months · Recommended	18000 EUR	15000 EUR	18000 EUR
15 months · Standard	21000 EUR	18000 EUR	21000 EUR
18 months · Flexible	24000 EUR	21000 EUR	24000 EUR
21 months · Extended	27000 EUR	24000 EUR	27000 EUR
24 months · Part-time	30000 EUR	27000 EUR	30000 EUR

These are the owner lists. Enrolment is not open. Nothing here is a sale.

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Advanced Smart Materials and Nano-Engineering

Academic focus

Practical focus

Internships in technology companies or research institutions

Roles as materials scientists or nanotechnology engineers

Consultancy in advanced smart materials and nano-engineering

Support roles in academic research projects on advanced smart materials

Director of Nanomaterials Research for technology companies or research institutions

Nano-Engineer for advanced manufacturing firms

Materials Scientist specializing in quantum materials

Researcher in Advanced Smart Materials and Nano-Engineering

Cultivating an interdisciplinary approach, integrating materials science, nanotechnology, and quantum physics

Developing strategic thinking for advanced smart materials development and nano-engineering applications

Enhancing problem-solving through the analysis of complex materials challenges

Critical thinking for a comprehensive and nuanced understanding of advanced smart materials and nano-engineering

Research leadership

Applied mentorship

Professor research lens

Mentor practice lens

Professor superpower

Mentor superpower

Prof. Dr. Laura Viana

Dr. Sara Al-Mutairi

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