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Triazole Chemistry and Nanotechnology
A Merger for a New Revolution
- 1st Edition - February 1, 2025
- Author: Tahir Farooq
- Language: English
- Paperback ISBN:9 7 8 - 0 - 4 4 3 - 1 5 2 4 6 - 7
- eBook ISBN:9 7 8 - 0 - 4 4 3 - 1 5 2 4 7 - 4
Triazole Chemistry and Nanotechnology: A Merger for a New Revolution covers recent examples of triazole-based nanotech formulation and its applications in sustainable agricultu… Read more
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Request a sales quoteTriazole Chemistry and Nanotechnology: A Merger for a New Revolution covers recent examples of triazole-based nanotech formulation and its applications in sustainable agriculture, target-specific medicine, eco-textiles and food and environmental monitoring. Triazoles are 5-membered heteroaromatic ring structures containing three nitrogen atoms. Highlighting the ever-widening scope of triazole chemistry and nanotechnology across a range of scientific disciplines, this book discusses the importance of triazole chemistry and its application in nanotechnology to R&D with the purpose of economically viable, eco-friendly and sustainable product development.
Both 1,2,3- and 1,2,4-isomers are widespread in biologically active compounds and functional materials, and as a consequence, their synthesis, reactivity and properties have been of high interest over the last two decades. This book will be of interest to students and researchers in medicinal and synthetic chemistry as well as those using heterocycles in their research or product development.
- Presents recent applications of triazole-based nanotech products
- Includes case studies, graphical abstracts, flow charts and diagrams
- Offers insights and future directions for new areas of research
Undergraduate and postgraduate level students in synthetic chemistry, functional electronics, textile technology, pharmacy, and nanotechnology, Researchers using heterocycles in various scientific disciplines including medicinal chemistry, functional textiles, sustainable agriculture, energetic materials and nanotechnology, R&D sections in optoelectronics, agrochemicals, textiles, pharmaceutical and chemical industries for nanotechnology
1. An introduction to triazole-based nano-tech formulations
1.1 Introduction to triazoles
1.2 Introduction to nanotechnology
1.3 Introduction to merger of triazole chemistry and nanotechnology
1.3.1 Triazole-functionalized magnetic nanoparticles
1.3.2 Triazole-functionalized nanomaterials
1.3.3 Triazole functionalized carbon nanomaterials
1.3.4 Triazole-functionalized hybrid nanomaterials
1.3.5 Triazole-functionalized nanocomposites
2. Triazole-based nanosensors and nanoprobes
2.1 Triazole-functionalized nanosensors/nanoprobes for food quality assessment
2.2 Triazole-functionalized nanosensors/nanoprobes for agriculture
2.3 Triazole-functionalized nanosensors/nanoprobes for environmental monitoring
2.4 Triazole-functionalized nanosensors/nanoprobes for drugs
3 Triazoles for nanoelectronics
3.1 Triazoles for nano-interconnections
3.2 Triazoles for solar cells
3.3 Triazoles for magneto-opticals
3.4 Triazoles for nanodevices
4. Triazoles for the functionalization of quantum dots
4.1 Triazole-functionalized QDs against infections
4.2 Triazole-functionalized QDs for sensing and detection
4.3 Triazole functionalized QDs for next generation displays
5. Role of triazoles in nanoagriculture
5.1 Triazole functionalized nanomaterials as carriers in agriculture
5.2 Triazole functionalized nanopesticides and nanofungicides for sustainable agriculture
5.3 Triazole-functionalized nanomaterials for plant growth regulations
6. Role of triazoles for the preparation and functionalization of nano-energetic materials
6.1 Triazole-functionalized nano-energetic materials
6.2 Triazole-functionalized nano-explosives
6.3 Triazole-functionalized nanothermites
7. Applications of triazoles in nanotextiles
7.1 Triazole functionalized nanofibers and nanocoatings
7.2 Triazole functionalized nanoformulations for textile processing
7.3 Triazole-functionalized nanoformulations for wastewater treatments in textiles
8. Triazole functionalized nanomedicines
8.1 Triazole-functionalized nanocarriers
8.2 Triazole-functionalized nanomedicines
8.3 Triazole-functionalized nanoformulations for biomedical applications
9. Applications of triazoles for the preparation and functionalization of nanocatalysts
9.1 Triazole-functionalized recoverable nanocatalysts for organic synthesis
9.2 Triazole-functionalized recoverable nanocatalysts for green chemistry
9.3 Triazole-functionalized nanocatalysts for pollution remediation
10. Triazole-based functional nanoconjugates with novel applications
10.1 Triazoles for functionalization of nanoconjugates
10.2 Triazole-functionalized nanoconjugates with novel applications
10.3 Triazole-functionalized bionano-conjugates with novel applications
1.1 Introduction to triazoles
1.2 Introduction to nanotechnology
1.3 Introduction to merger of triazole chemistry and nanotechnology
1.3.1 Triazole-functionalized magnetic nanoparticles
1.3.2 Triazole-functionalized nanomaterials
1.3.3 Triazole functionalized carbon nanomaterials
1.3.4 Triazole-functionalized hybrid nanomaterials
1.3.5 Triazole-functionalized nanocomposites
2. Triazole-based nanosensors and nanoprobes
2.1 Triazole-functionalized nanosensors/nanoprobes for food quality assessment
2.2 Triazole-functionalized nanosensors/nanoprobes for agriculture
2.3 Triazole-functionalized nanosensors/nanoprobes for environmental monitoring
2.4 Triazole-functionalized nanosensors/nanoprobes for drugs
3 Triazoles for nanoelectronics
3.1 Triazoles for nano-interconnections
3.2 Triazoles for solar cells
3.3 Triazoles for magneto-opticals
3.4 Triazoles for nanodevices
4. Triazoles for the functionalization of quantum dots
4.1 Triazole-functionalized QDs against infections
4.2 Triazole-functionalized QDs for sensing and detection
4.3 Triazole functionalized QDs for next generation displays
5. Role of triazoles in nanoagriculture
5.1 Triazole functionalized nanomaterials as carriers in agriculture
5.2 Triazole functionalized nanopesticides and nanofungicides for sustainable agriculture
5.3 Triazole-functionalized nanomaterials for plant growth regulations
6. Role of triazoles for the preparation and functionalization of nano-energetic materials
6.1 Triazole-functionalized nano-energetic materials
6.2 Triazole-functionalized nano-explosives
6.3 Triazole-functionalized nanothermites
7. Applications of triazoles in nanotextiles
7.1 Triazole functionalized nanofibers and nanocoatings
7.2 Triazole functionalized nanoformulations for textile processing
7.3 Triazole-functionalized nanoformulations for wastewater treatments in textiles
8. Triazole functionalized nanomedicines
8.1 Triazole-functionalized nanocarriers
8.2 Triazole-functionalized nanomedicines
8.3 Triazole-functionalized nanoformulations for biomedical applications
9. Applications of triazoles for the preparation and functionalization of nanocatalysts
9.1 Triazole-functionalized recoverable nanocatalysts for organic synthesis
9.2 Triazole-functionalized recoverable nanocatalysts for green chemistry
9.3 Triazole-functionalized nanocatalysts for pollution remediation
10. Triazole-based functional nanoconjugates with novel applications
10.1 Triazoles for functionalization of nanoconjugates
10.2 Triazole-functionalized nanoconjugates with novel applications
10.3 Triazole-functionalized bionano-conjugates with novel applications
- No. of pages: 250
- Language: English
- Edition: 1
- Published: February 1, 2025
- Imprint: Elsevier Science
- Paperback ISBN: 9780443152467
- eBook ISBN: 9780443152474
TF
Tahir Farooq
Tahir Farooq did his doctorate under the supervision of Dr. Bengt Erik Haug and Dr. Leiv K. Sydnes from the University of Bergen, Norway. During research work, he worked in the area of “click chemistry” for the synthesis of triazolic compounds. He followed Huisgen’s 1,3-dipolar cycloadditions using Cu-catalysis and Ru-catalysis approach to synthesize various 1,4- and 1,5-disubstituted 1,2,3-triazoles. Currently, Dr. Farooq is using the least-explored 1,2,3-triazoles as plant growth regulators and stress protectants, and is interested in exploring the role of 1,2,3-triazoles in abiotic stress management in crop plants.
Affiliations and expertise
Assistant Professor, Department of Applied Chemistry, Government College University, Faisalabad, Pakistan