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Principles and Applications of Up-converting Phosphor Technology

Principles and Applications of Up-converting Phosphor Technology

Ruifu Yang

 

Verlag Springer-Verlag, 2019

ISBN 9789813292796 , 242 Seiten

Format PDF, OL

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Principles and Applications of Up-converting Phosphor Technology


 

Contents

5

1 Upconversion Luminescent Materials: Properties and Luminescence Mechanisms

7

1.1 Introduction to the Upconversion Luminescence

8

1.1.1 Upconversion Luminescence

8

1.1.2 The Main Processes in Upconversion Luminescence

10

1.1.3 Upconversion Materials

11

1.2 The Processes Governing the Upconversion Luminescence

15

1.2.1 The Energy Level Structure and the Radiative Transition of Rare Earth Ions (Huang 2002; Yen and Selzer 1981)

15

1.2.2 The Radiative Transition of RE Ions

17

1.2.3 The Upconversion Luminescence Based on Excited State Absorption Process

20

1.2.4 The Upconversion Luminescence Based on Photon Avalanche

22

1.2.5 The Upconversion Luminescence Based on Energy Transfer

24

1.2.6 The Differences Among the Upconversion Luminescence Processes

28

1.3 Managing the Upconversion Luminescence Color and Efficiency of Rare Earth Ions

31

1.3.1 Managing the Upconversion Luminescence Color of Rare Earth Ions

31

1.3.2 Optimization in Luminescence Efficiency and Brightness of the UCPs

35

References

36

2 Synthesis and Preparation of Upconverting Phosphor Particles

39

2.1 Introduction

39

2.2 The Components of Rare Earth Upconversion Luminescence Materials

41

2.2.1 The Host

41

2.2.2 The Activator

43

2.2.3 The Sensitizer

45

2.3 Major Types of Rare Earth Upconversion Luminescence Nanomaterials

46

2.3.1 Rare Earth Fluorides

49

2.3.2 Rare Earth Oxide Series

50

2.3.3 Rare Earth Fluoride Oxide Series

51

2.3.4 Rare Earth Halide Series

51

2.3.5 Rare Earth Sulfide Series

51

2.4 Synthesis of Rare Earth Upconversion Luminescence Nanomaterials

52

2.4.1 The Precipitation Method

53

2.4.2 The Water/Solvothermal Method

54

2.4.3 Thermal Decomposition Method

56

2.4.4 The Sol-Gel Method

57

2.4.5 Other Methods

58

2.5 Surface Properties and Cytotoxicity of Rare Earth Upconversion Luminescence Nanoparticles

59

2.5.1 Surface Groups and Surface Coatings

60

2.5.2 Cytotoxicity

62

2.6 The Main Challenges of Rare Earth Upconversion Luminescence Materials

63

2.6.1 Host Stability

63

2.6.2 Efficiency

63

2.6.3 Pump

64

2.6.4 Narrow Range of Luminescence

64

References

64

3 Modification and Functionalization of Up-Converting Phosphor Particles

69

3.1 Introduction

69

3.2 Siliconization of UCP Surface

70

3.3 Functionalization of the SiO2 Layer on UCP Surface

70

3.4 Conjugation of Bioactive Molecules to the UCP Surface

70

3.4.1 Cross-links Between Amino and Carboxyl

71

3.4.2 Crosslinks between amino groups

72

3.5 Development of UPT-based Immunochromatographic Platform

73

References

73

4 Upconversion Nanoparticles-Based Point-of-Care Testing Technology

75

4.1 Introduction

75

4.2 UPT-POCT Principles

76

4.2.1 UPT-POCT Elements

76

4.2.2 UPT-POCT Quantitative Analysis

77

4.3 UPT-POCT Assay Formats

79

4.3.1 UPT-POCT Assay in Sandwich Format

79

4.3.2 UPT-POCT Assay in Competitive Format

79

4.3.3 UPT-POCT Assay in Hybridization Format

81

4.4 UPT-POCT Assay for Multiplexing Detection

82

4.4.1 UPT-POCT Multiplexing in One Strip

82

4.4.2 UPT-POCT Multiplexing in a Multiple-Channel Disc

83

4.5 Future Outlook

83

References

84

5 Up-Converting Phosphor Technology-Based Biosensors

86

5.1 Basic Concepts of UPT Biosensor

87

5.1.1 Sensor

87

5.1.2 Biosensor

87

5.1.3 Immunosensor

88

5.1.4 Immunochromatographic Biosensor

89

5.1.5 Optical Biosensor

91

5.1.6 UPT Biosensor

92

5.2 Working Principle of UPT Immunoassay Analyzer

93

5.2.1 Quantitative Detection Principle of UPT LF Strip

94

5.2.2 Working Principle of Analyzer

95

5.2.3 Composition of Analyzer

98

5.3 Key Unit Techniques of UPT Immunoassay Analyzer

98

5.3.1 Photoelectric Measurement System

98

5.3.2 Control System

102

5.3.3 Algorithm Module

102

5.3.4 Mechanical Structure

103

5.3.5 Instrument Calibration

103

5.4 Development of UPT Immunoassay Analyzer

105

5.4.1 Development of Single-Channel UPT Immunoassay Analyzer

106

5.4.2 Development of Multichannel UPT Immunoassay Analyzer

127

5.4.3 Development of Imaging Detection System for LF Strip

129

5.5 Conclusions

136

Bibliography

137

6 Industrialization of Up-Converting Phosphor Diagnostic Products

139

6.1 Market Demand for Point-of-Care Testing Dictates the Industrialization of UPT Immunochromatographic Diagnostic Reagents

140

6.1.1 Status of Point-of-Care Testing

140

6.1.2 Market Demand for POCT

141

6.2 The Key Steps in UPT Technology Industrialization

142

6.2.1 Step One: The Combination of UPT Technology and Immunochromatography

142

6.2.2 Step Two: The Efficient Binding of UCNPs and Biomolecules

142

6.2.3 Step Three: The Uniformity of Coated PVC Sheets

143

6.2.4 Step Four: The Scale-Up of UCNPs Particle Preparation

143

6.2.5 Step Five: Large-Scale Production of UPT Biosensors

143

6.3 Social and Economic Benefits of Industrialization of UPT Diagnostic Production

143

6.3.1 Products that Have Obtained the Medical Device Registration Certificate and CE Certification from the China Food and Drug Administration

143

6.3.2 Social Benefits of UPT Diagnostic Products

144

References

145

7 Application of UPT-POCT in Emergency Medicine

146

7.1 Emergency Medicine

146

7.2 Emergency Diagnosis

147

7.2.1 Emergency Diagnosis of Circulatory System Diseases

147

7.2.2 Emergency Diagnosis of Blood Embolism Diseases

148

7.2.3 Emergency Diagnosis of Infectious Diseases

148

7.3 UPT-POCT Advantages in Emergency Diagnosis

148

7.4 Application of UPT-POCT in Emergency Medicine

149

7.5 Summary

150

References

150

8 Application of UPT-POCT in Internal Medicine

152

8.1 Internal Medicine

152

8.2 The Application of UPT-POCT in Liver Diseases

153

8.3 The Application of UPT-POCT in Circulatory System Diseases

154

8.4 The Application of UPT-POCT in Endocrine System Diseases

154

References

155

9 Application of UPT-POCT in Combat-Related Traumatic Infection

156

9.1 Introduction

156

9.2 The Diagnostics of Combat-Related Traumatic Infection

157

9.3 The Application of UPT-POCT in Combat-Related Traumatic Infection

157

9.3.1 Portable UPT-POCT Biosensor

157

9.3.2 UPT-POCT Diagnostic Kits for Combat-Related Traumatic Infection and Sepsis

158

References

159

10 Application of UPT-POCT in Medical Relief for Disasters

161

10.1 The Characteristic of Medical Relief for Disasters

161

10.1.1 The Present Situation of Medical Relief for Disasters in the World

161

10.1.2 The Characteristic of Detection for Medical Relief for Disasters

162

10.2 The Requirement of Detection for Medical Relief for Disasters

163

10.2.1 The Diseases and Corresponding Detection Items in Earthquake Disasters

163

10.2.2 The Diseases and Corresponding Detection Items in Flood Disasters

164

10.2.3 The Diseases and Corresponding Detection Items in Conflagration and Explosion Disasters

164

10.3 UPT-POCT Detection Method for Medical Relief for Disasters

165

10.4 Applications of UPT-POCT for Medical Relief for Disasters

165

References

167

11 Application of UPT-POCT in Detection of Foodborne Pathogens

168

11.1 Character for Detection for Foodborne Pathogens

168

11.1.1 The Main Foodborne Pathogens

169

11.1.2 The Characteristics of Detection for Foodborne Pathogens

170

11.2 Requirement for Detection of Foodborne Pathogens

171

11.3 UPT-POCT Detection for Foodborne Pathogens

172

11.3.1 The Performance of UPT-POCT for Detection of Foodborne Pathogens

173

11.3.2 The Advantage of UPT-POCT for Detection of Foodborne Pathogen

173

11.4 Application

174

11.4.1 The Current Detection Method for Food Pathogen

174

11.4.2 Applications of UPT-POCT in Detection of Foodborne Pathogens

175

References

177

12 Application of UPT-POCT in Detection of Food Safety Related Mycotoxins

179

12.1 Mycotoxins and Their Hazards

180

12.1.1 Aflatoxin

180

12.1.2 Zearalenone

180

12.1.3 Deoxynivalenol

181

12.1.4 Ochratoxin A

181

12.2 Current Status of Mycotoxin Detection Technology

181

12.3 Application of UPT-POCT in Mycotoxin Detection

182

12.3.1 Principles of UPT-POCT Kits

183

12.3.2 Applicable Sample Types

183

12.3.3 Detection Procedure

184

12.3.4 Application and Evaluation

184

12.4 Conclusion

185

References

185

13 Application of UPT-POCT in Public Health Emergencies

187

13.1 Introduction

187

13.2 Diagnostic Methods for Public Health Emergencies

188

13.3 The Application of UPT-POCT in Public Health Emergencies

189

References

189

14 Application of UPT-POCT in Import and Export Quarantine

191

14.1 Detection in Port Quarantine

192

14.2 Demand for Development in the Field of Port Inspection and Quarantine

193

14.2.1 Three Functions of Port Inspection and Quarantine

193

14.2.2 Port Inspection and Quarantine Demand for Detection Technology

193

14.3 Up-Converting Phosphor Technology

194

14.3.1 UPT Test Kits Developed for Port Inspection and Quarantine

194

14.3.2 UPT Test Kit for Diagnosis of Plague

194

14.3.3 UPT Test Kit for Diagnosis of Zika

195

14.3.4 UPT Test Kit for Diagnosis of Influenza

195

14.3.5 UPT Test Kit for Diagnosis of Ebola

196

14.4 Application

196

14.4.1 Current Detection Methods

196

14.4.2 The Application of UPT at Ports

198

References

198

15 Application of UPT-POCT in Detection of Drugs

200

15.1 Characteristic of Drug Detection

201

15.1.1 Denomination of Drug

201

15.1.2 The Detection Character of Drugs

202

15.2 Requirement for Drug Detection

203

15.3 UPT-POCT for Drug Detection

203

15.3.1 Principle of UPT-POCT for Drug Detection

203

15.3.2 Technology Advance of UPT-POCT for Drug Detection

204

15.3.3 Extensive Application of UPT-POCT for Drug Detection

205

15.4 Application of UPT-POCT

205

15.4.1 Current Detection Methods for Drug Detection

205

15.4.2 Application of UPT-POCT for Drug Detection

207

15.4.3 Application Prospect of UPT-POCT for Drug Detection

209

References

209

16 Application of UPT-POCT in Anti-bioterrorism and Biosecurity

210

16.1 Introduction

210

16.2 Overview of Bioterrorism Agents

211

16.2.1 Categories of Bioterrorism Agents

211

16.2.2 Common Transmission Routes of Bioterrorism Agents

212

16.2.3 Perniciousness and Diagnosis of Bioterrorism Agents

212

16.2.4 The Therapy and Prevention of Bioterrorism Agents

213

16.3 Characteristics of Detection in Bioterrorism and Biosecurity

214

16.3.1 Operational Safety

215

16.3.2 Detection Accuracy and Detection Time

215

16.3.3 Multiplexed Detection

216

16.4 Requirements for Detection of Bioterrorism-Associated Agents

216

16.4.1 Field of Application

216

16.4.2 Point of Care Testing

217

16.5 UPT-POCT Assay Applied for Detection of Bioterrorism Agent

217

16.5.1 Detection Mode

217

16.5.2 Performance Evaluation

219

16.5.3 Field Evaluation

223

16.6 Application

223

16.6.1 Current Detection Methods

223

16.6.2 The Merit of UPT-POCT and Its Application

229

References

231

17 Application of UCNPs in Bio-imaging and Treatment

233

17.1 Application of UCNPs in Bio-imaging

234

17.1.1 Deep Tissue Imaging

234

17.1.2 Targeted Imaging of Tumor Cells

234

17.1.3 Multi-modality Imaging with UCNPs

235

17.2 Application of UCNPs in Disease Treatment

236

17.2.1 Nanoscale Carriers for Drugs and Genes

236

17.2.2 Photodynamic Therapy

237

17.2.3 Photothermal Therapy

238

17.3 Biocompatibility and Toxicity of UCNPs

239

17.4 Conclusion

240

References

240