3D printing, also known as additive manufacturing, has received a growing interest in (bio)analytical science due to its capability for rapid and affordable prototyping, reduced fabrication time and wide variety of materials and technologies currently available for increasing the plethora of functional print materials.3D printing in Analytical Chemistry will cover all the applications of 3D printed systems in relevant analytical areas such as sample preparation (use of sorbents, membranes and devices), separation devices in analytical techniques, as components in sensors and detection systems, among others.The book will also include key aspects about the preparation and design of novel 3D printed devices for analytical applications, including tips and tricks written by experts. The special features of the devices based on 3D printed structures for the different applications will be highlighted and the most relevant works will be covered in this book. Therefore, the information covered will be particularly useful for helping experts in the field to design/select the adequate device and materials to conduct their research
1. Chapter 1. Introduction to 3D printing from the analytical chemistry viewpoint - p. 3 2. Chapter 2. Overview of 3D printing technologies and materials - p. 17 3. Chapter 3. Tips and tricks for fabrication of 3D printing devices for analytical applications - p. 61 4. Chapter 4. 3D printing of analytical platforms: From prototyping to commercialization - p. 87 5. Section 2: 3D printing in analytical sample preparation - p. 97 6. Chapter 5. 3D-printed scaffolds for sample handling and preparation - p. 103 7. Chapter 6. 3D-printed materials in solid-phase extraction and microextraction - p. 141 8. Chapter 7. 3D printing and smart materials for sample preparation - p. 175 9. Chapter 8. 3D printed devices in membrane separation - p. 199 10. Chapter 9. Milli/microfluidic platforms using 3D-printed devices for sample analysis - p. 217 11. Section 3: 3D printing in analytical separation techniques - p. 230 12. Chapter 10. Potential of 3D printing for the fabrication of stationary phases - p. 237 13. Chapter 11. 3D printing in electrophoretic techniques - p. 265 14. Chapter 12. 3D printing in mass spectrometry - p. 281 15. Section 4: 3D printing devices for (bio)sensing applications - p. 303 16. Chapter 13. 3D printing in optical (bio)sensing - p. 311 17. Chapter 14. 3D printing devices for infrared, Raman, and other detectors in (bio)sensing applications - p. 337 18. Chapter 15. 3D-printed electrochemical sensors - p. 355 19. Chapter 16. Micro/millifluidic platforms for electrochemical detection - p. 393 20. Chapter 17. Micro/millifluidic platforms for bioanalytical applications - p. 425 21. Section 5: Perspectives on 3D printing - p. 443 22. Chapter 18. 3D printing in analytical chemistry—Quo Vadis? - p. 453 23. Index - p. 475
3D printing, also known as additive manufacturing, has received a growing interest in (bio)analytical science due to its capability for rapid and affordable prototyping, reduced fabrication time and wide variety of materials and technologies currently available for increasing the plethora of functional print materials.3D printing in Analytical Chemistry will cover all the applications of 3D printed systems in relevant analytical areas such as sample preparation (use of sorbents, membranes and devices), separation devices in analytical techniques, as components in sensors and detection systems, among others.The book will also include key aspects about the preparation and design of novel 3D printed devices for analytical applications, including tips and tricks written by experts. The special features of the devices based on 3D printed structures for the different applications will be highlighted and the most relevant works will be covered in this book. Therefore, the information covered will be particularly useful for helping experts in the field to design/select the adequate device and materials to conduct their research
1. Chapter 1. Introduction to 3D printing from the analytical chemistry viewpoint - p. 3 2. Chapter 2. Overview of 3D printing technologies and materials - p. 17 3. Chapter 3. Tips and tricks for fabrication of 3D printing devices for analytical applications - p. 61 4. Chapter 4. 3D printing of analytical platforms: From prototyping to commercialization - p. 87 5. Section 2: 3D printing in analytical sample preparation - p. 97 6. Chapter 5. 3D-printed scaffolds for sample handling and preparation - p. 103 7. Chapter 6. 3D-printed materials in solid-phase extraction and microextraction - p. 141 8. Chapter 7. 3D printing and smart materials for sample preparation - p. 175 9. Chapter 8. 3D printed devices in membrane separation - p. 199 10. Chapter 9. Milli/microfluidic platforms using 3D-printed devices for sample analysis - p. 217 11. Section 3: 3D printing in analytical separation techniques - p. 230 12. Chapter 10. Potential of 3D printing for the fabrication of stationary phases - p. 237 13. Chapter 11. 3D printing in electrophoretic techniques - p. 265 14. Chapter 12. 3D printing in mass spectrometry - p. 281 15. Section 4: 3D printing devices for (bio)sensing applications - p. 303 16. Chapter 13. 3D printing in optical (bio)sensing - p. 311 17. Chapter 14. 3D printing devices for infrared, Raman, and other detectors in (bio)sensing applications - p. 337 18. Chapter 15. 3D-printed electrochemical sensors - p. 355 19. Chapter 16. Micro/millifluidic platforms for electrochemical detection - p. 393 20. Chapter 17. Micro/millifluidic platforms for bioanalytical applications - p. 425 21. Section 5: Perspectives on 3D printing - p. 443 22. Chapter 18. 3D printing in analytical chemistry—Quo Vadis? - p. 453 23. Index - p. 475
