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NanoPurify: Transforming Wastewater with Nanotech

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Delivery Mode
Virtual (Google Meet)
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Level
Moderate
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Duration
3 Days (1.5 hours per day)
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Certificate
Mentor Based
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Language
English
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Rating
5 Stars
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About Workshop

This program introduces cutting-edge nanotechnology applications designed to tackle complex wastewater challenges. Participants will explore the mechanisms of nano-filtration, adsorption processes, and catalytic degradation, understanding how these technologies can be implemented to treat and reuse wastewater in various sectors effectively.
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Aim

To provide environmental engineers, researchers, and sustainability professionals with comprehensive knowledge and practical skills in applying nanotechnology to wastewater treatment, driving innovation and environmental sustainability.
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What Participants Will Learn

  • Understand the fundamentals of nanotechnology in wastewater treatment.
  • Explore various nanomaterials and their properties relevant to purification processes.
  • Learn about the design and implementation of nano-based water treatment systems.
  • Analyze the efficiency and effectiveness of nanotechnology in removing pollutants.
  • Examine the environmental impacts and sustainability of nano-treatment methods.
  • Discuss regulatory and safety aspects of using nanotechnology in environmental applications.
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Structure

Day 1: Dye Removal from Textile Dyeing Industry Wastewater Session 1: Introduction to Nanotechnology in Wastewater Treatment • Overview of Nanotechnology for Wastewater Treatment • Photocatalysis and Adsorption Methods for Wastewater Treatment Session 2: Physicochemical Characteristics of Textile Dyeing Industry Wastewater • Overview of Physicochemical Properties (pH, COD, BOD, TSS, etc.) • Impact of Untreated Textile Wastewater on the Environment • Analytical Techniques for Measuring Wastewater Characteristics Session 3: Selection of Dyes and Dye Characterization • Methylene Blue (Basic Blue 9) • Methyl Orange (Acid Orange 52) • Crystal Violet (Basic Violet 3) • Understanding the Environmental Impact of Dyes • Practical Session: Preparing Dye Solutions for Experimental Analysis Session 4: Selection and Synthesis of Functional Nanomaterials • Synthesis of Graphene Oxide/Titanium Dioxide (GO/TiO2), Graphene Oxide/Zinc Oxide (GO/ZnO) and Copper Oxide/Zinc Oxide-Tetrapods (CuO/ZnO-T) Nanocomposites • Characterization of GO/TiO2, GO/ZnO and CuO-ZnO-T Nanocomposites • Workshop: Laboratory Preparation of GO/TiO2, GO/ZnO and CuO-ZnO-T Nanocomposites Session 5: Performance Evaluation of Nanomaterials for Dye Removal • Designing and implementing Methylene Blue, Methyl Orange, and Crystal Violet Dyes Removal Experiments • Techniques for Measuring Dyes Concentration • Workshop: Setting Up and Conducting Dye Removal Experiments Day 2: Heavy Metal Ion Removal from Textile Dyeing and Oil Industry Wastewater Session 1: Understanding Heavy Metal Pollution • Sources and Impacts of Heavy Metal Ion Pollution in Industrial Wastewater • Focus on Hexavalent Chromium: Industrial Applications and Hazards • Case Studies: Real-World Incidents of Heavy Metal Pollution Session 2: Functional Nanomaterials for Heay Metal Ion Removal • Synthesis of CuO/ZnO-T and ZnO-T/AC Nanocomposites • Characterization of CuO/ZnO-T and ZnO-T/AC Nanocomposites • Workshop: Laboratory Preparation of CuO/ZnO-T and ZnO-T/AC Nanocomposites Session 3: Performance Evaluation of Nanomaterials for Heavy Metal Ion Removal • Designing and implementing Hexavalent Chromium (Cr(VI)) ions Removal Experiments • Techniques for Measuring Heavy Metal Ion Concentration • Workshop: Setting Up and Conducting Heavy Metal Ion Removal Experiments Session 4: Analyzing and Optimizing Performance • Data Collection and Statistical Analysis of Experiment Results Techniques for Measuring Heavy Metal Ion Concentration • Discussion: Factors Affecting the Efficiency of Heavy Metal Removal Day 3: Oil Removal from Oil Industry Wastewater Session 1: Understanding Oil Pollution • Sources and Impacts of Oil Pollution in Industrial Wastewater • Case Studies: Real-World Incidents of Oil Pollution Session 2: Functional Nanomaterials for Oil Removal • Synthesis of Polydimethylsiloxane@Zinc Oxide-Tetrapods@Iron Oxide-Nanorods • (PZF) Nanohybrid • Characterization of PZF Nanohybrid • Workshop: Laboratory Preparation of PZF Nanohybrid Session 3: Performance Evaluation of Nanomaterials for Oil Removal • Designing and Implementing Oil Removal Experiments • Techniques for Measuring Oil Concentration in Water • Workshop: Setting Up and Conducting Oil Removal Experiments Session 4: Analyzing and Optimizing Performance • Data Collection and Statistical Analysis of Experiment Results • Discussion: Factors Affecting the Efficiency of Oil Removal

Important Dates

Registration Ends

3:30 PM

Workshop Dates

2024-12-16
4:00 PM
4:00 PM
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What You Will Gain

Sample Certificate
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Outcomes

  • Nanomaterials Handling
  • System Design
  • Pollutant Analysis
  • Sustainability Practices
  • Regulatory Compliance
  • Innovative Problem Solving
  • Technical Communication
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Who Should Attend

  • Environmental engineers and water treatment professionals seeking to implement advanced technologies.
  • Researchers and academics in environmental science, nanotechnology, or related fields.
  • Sustainability professionals exploring innovative solutions for water and wastewater management.
  • Policy makers and regulatory officials focusing on water quality and treatment technologies.

Dr Mahima Sharma

Assistant Professor

Speciality: Nanomaterials Expertise: Proficiency in selecting and applying appropriate nanomaterials for specific water treatment applications., Water Treatment System Design: Skills in designing advanced water treatment systems that incorporate nanotechnology for optimal performance., Pollutant Identification and Removal: Ability to identify key pollutants in wastewater and effectively implement nanotechnology-based solutions for their removal., Sustainability Assessment: Competence in evaluating the sustainability of water treatment processes, focusing on long-term environmental impact and resource conservation., Regulatory Knowledge: Understanding of local and international regulations that govern the use of nanotechnology in water treatment to ensure compliance., Safety Protocols: Mastery of safety protocols related to the handling and disposal of nanomaterials used in environmental applications., Data Analysis and Reporting: Skills in analyzing treatment results, monitoring system performance, and preparing detailed reports for stakeholders., Project Management: Ability to oversee projects from conception through completion, including budgeting, scheduling, and team coordination, specifically for environmental engineering projects involving nanotechnology.

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