ADVANCED MATERIALS & NANOTECHNOLOGY
Engineering Materials Across Scales
Materials development often involves competing requirements—for example, strength versus weight, reactivity versus stability, or performance versus manufacturability.
NanoTRIZ combines materials-science expertise with TRIZ-informed problem framing and AI-assisted analysis to examine these trade-offs and identify possible research and development pathways.
This focus area draws on experience in strain-engineered nanomembranes, functional materials, micro/nanosystems, and related fabrication approaches. Depending on project scope and available resources, activities may include evidence mapping, concept development, modelling, technical assessment, and validation planning.
Our mission is to support the translation of fundamental materials concepts into testable, reproducible, and application-oriented research directions.
Core Research Capabilities
NanoTRIZ applies published research experience, TRIZ-informed problem framing and AI-assisted analysis to selected projects in advanced materials, micro/nanosystems and deep-tech innovation.
1. Strain-Engineered Nanomembranes
Research and concept development involving ultrathin films that can roll, fold or form three-dimensional structures through controlled internal strain.
Potential directions include reconfigurable microsystems, sensors, functional surfaces, biomedical scaffolds and three-dimensional device architectures.
2. Micro/Nanomachines and Soft Microrobotics
Research analysis and development planning for catalytic, magnetic and bubble-driven micro/nanosystems capable of active movement in fluids.
Potential directions include active transport, environmental processing, sensing, microfluidic manipulation and biomedical research concepts. Any therapeutic application would require separate experimental, regulatory and clinical validation.
3. Microfluidic and Membraneless Energy Systems
Technical assessment and concept development for microfluidic electrochemical systems, including membraneless fuel-cell architectures.
Projects may examine electrode design, reactant management, performance trade-offs, materials selection and validation requirements.
4. Droplet Microfluidics and Encapsulation
Research and development planning for controlled droplets, microbubbles, microcapsules, particle-stabilised interfaces and related soft-matter systems.
Activities may include literature mapping, architecture comparison, experimental design, image or data analysis and collaboration-based validation planning.
Research and Development Workflow
Depending on the project, the NanoTRIZ workflow may include:
Technical problem and contradiction definition
Literature, technology and prior-art landscape analysis
Comparison of materials, mechanisms and design options
AI-assisted evidence organisation and modelling
Experimental or computational validation planning
Documentation of assumptions, risks and decision points
AI-assisted tools support analysis and comparison, while technical interpretation and final decisions remain subject to human review.
Industry Engagement
Defined projects may support companies working in advanced materials, microfluidics, energy systems, sensing, environmental technologies and related deep-tech areas.
The availability of fabrication, testing or prototyping depends on project scope, resources and suitable external collaborators. Deliverables, confidentiality, intellectual property, timelines and fees are established in a written agreement before work begins.
