Feature
Details
Course Format
Recorded, on-demand training
Domain
Nanotechnology, Environmental Science
Level
Intermediate conceptual training
Duration
Self-paced learning
Mode
Online recorded modules
Hands-On Component
Conceptual workflows and applied case examples
Primary Focus
Nanomaterials for microplastic detection and removal
Relevant Fields
Environmental engineering, nanotechnology, sustainability research
Course Category
Nanotechnology
About the Course
Microplastic pollution has emerged as one of the most complex environmental contamination problems of the last decade. These particles typically smaller than 5 millimeters and often much smaller originate from degraded plastics, industrial products, textiles, and packaging waste. Because of their size and chemical persistence, they are extremely difficult to remove using conventional filtration or wastewater treatment methods.
This course introduces the emerging role of nanotechnology in microplastic detection, filtration, and remediation.
Participants explore how nanoscale materials including nanofibers, nanoparticles, nanotubes, and nano-enabled membranes can interact with microplastic particles in ways that traditional filtration systems cannot. These materials can improve detection sensitivity, enhance adsorption efficiency, and support innovative remediation strategies.
The course explains where nano-enabled systems can realistically contribute to the microplastic challenge, particularly in environmental monitoring, water purification, and material recovery systems.
The program combines environmental science concepts with nanomaterials engineering, helping learners understand both the scientific foundations and the practical implementation challenges.
Why This Topic Matters
Microplastic contamination is now documented across nearly every environmental compartment marine ecosystems, freshwater systems, soils, atmospheric particles, and food chains.
Three factors make the issue particularly challenging:
- Particle size and persistence at micron or nanometer scales
- Chemical complexity from additives, dyes, and absorbed pollutants
- Monitoring limitations for detecting microplastics at low concentrations
Nanotechnology offers promising tools such as nano-enabled sensors, nanomaterial adsorbents, nano-structured membranes, and catalytic nanomaterials that may enable improved detection and removal.
What Participants Will Learn
• Understand microplastic formation and environmental distribution
• Identify major sources of microplastic pollution
• Learn how nanomaterials interact with polymer particles
• Explore nano-enabled filtration and sensing technologies
• Evaluate adsorption and catalytic nanomaterials
• Interpret current nanotechnology research in remediation
• Assess environmental and health considerations
Course Structure
Module 1 – Microplastics: Origins and Environmental Challenges
- Definition and classification of microplastics
- Sources of primary and secondary microplastics
- Microplastic transport in marine and freshwater systems
- Environmental and ecological impacts
- Human exposure pathways and health discussions
- Limitations of current filtration and waste management systems
Module 2 – Nanotechnology for Microplastic Detection and Filtration
- Fundamentals of nanotechnology in environmental systems
- Nano-enabled sensors for microplastic detection
- Optical and electrochemical nanosensors
- Nanostructured filtration membranes
- Nanofiber filtration systems
- Adsorption mechanisms between nanomaterials and polymer particles
Module 3 – Nano-Remediation and Sustainable Environmental Solutions
- Nanomaterial adsorbents for microplastic removal
- Carbon nanotubes and graphene-based materials
- Magnetic nanoparticles for particle capture
- Catalytic nanomaterials for degradation pathways
- Environmental safety considerations
- Scaling nanotechnology solutions for environmental cleanup
Tools, Techniques, or Platforms Covered
Nanomaterial Synthesis
Nanofiber Filtration Membranes
Carbon Nanotube Adsorption
Magnetic Nanoparticle Separation
Surface Functionalization
Nano-enabled Sensors
Spectroscopy & Microscopy
Real-World Applications
Nano-enabled technologies are being explored in wastewater treatment systems, environmental monitoring tools, marine pollution control technologies, industrial discharge management, and advanced environmental research on microplastic removal.
Who Should Attend
- Environmental scientists and researchers
- Nanotechnology and materials science professionals
- Environmental engineers
- Sustainability and climate technology professionals
- Policy analysts working on environmental regulation
- Graduate students in environmental science or nanotechnology
- Water treatment and waste management professionals
Prerequisites: Basic understanding of environmental science, chemistry, or materials science is helpful but not mandatory.
Why This Course Stands Out
Unlike courses that focus solely on environmental policy or ecological impact, this program explores the materials science and nanotechnology approaches to addressing microplastic pollution, offering a practical framework for evaluating nano-enabled environmental solutions.
Reviews
There are no reviews yet.