Keywords:

1. Optics
2. Photonics
3. Open access
4. Scientific excellence
5. Interdisciplinary collaboration
6. Innovation
7. Inclusivity
8. Diversity
9. Sustainability
10. Ethical publishing

Sub-Keywords:

1. Light-matter interaction
2. Optical devices
3. Spectroscopy
4. Quantum optics
5. Biomedical optics
6. Optical communication
7. Nonlinear optics
8. Optoelectronics
9. Optical imaging
10. Nanophotonics
11. Plasmonics
12. Lasers
13. Fiber optics
14. Terahertz technology
15. Solar energy
16. Environmental optics
17. Optical materials
18. Data storage
19. Photonic crystals
20. Optical sensing.
21. Optical micro/nano fabrication
22. Optical metrology
23. Imaging techniques
24. Integrated photonics
25. Computational optics
26. Optics in astronomy
27. Medical imaging
28. Optical diagnostics
29. Optical microscopy
30. Optics in agriculture
31. Optics in energy harvesting
32. Photovoltaics
33. Optomechanics
34. Holography

• Optics in neuroscience

36. Optical manipulation

• Optical biosensors
• Plasmonic biosensors
• Optical computing

40. Optical data processing.

These keywords and sub-keywords reflect the diverse and broad scope of research areas that Compendium of Optics and Photonics will cover. From fundamental physics to practical applications, our journal aims to publish cutting-edge research that advances the fields of optics and photonics. We hope that our journal will become a platform for interdisciplinary collaboration and knowledge exchange, providing valuable insights and solutions to the challenges facing these fields.

41. Ultrafast optics
42. Quantum information
43. Optical fibers
44. Optical properties of materials
45. Surface plasmons
46. Nanotechnology
47. Metamaterials
48. Near-field optics
49. Biophotonics
50. Optical tweezers
51. Optical waveguides
52. Optics in chemistry

• Microscopy techniques

54. Optical coherence tomography
55. Imaging in biology

• Optical MEMS

57. Optical computing
58. Fiber lasers
59. Optical spectroscopy
60. Optical communication networks.

These keywords and sub-keywords cover a wide range of topics within the fields of optics and photonics, including fundamental research, applications, and emerging technologies. We aim to publish articles that explore new frontiers in these fields and contribute to scientific progress, innovation, and sustainability. Our journal will be a platform for researchers, practitioners, and innovators to share their latest findings and insights, collaborate on interdisciplinary research, and push the boundaries of what is possible in optics and photonics.

61. Optical nanoscopy
62. Optofluidics
63. Optics in materials science
64. Nonlinear optical microscopy

• Optical vortices

66. Optical trapping and manipulation

• Optical frequency combs
• Plasmonic waveguides
• Quantum dots

70. Optics in sensing and detection
71. Photonic integrated circuits
72. Femtosecond lasers

• Optics in biomedicine

74. Optics in sensing and detection
75. Optical biosensors.

These additional sub-keywords further highlight the diverse applications of optics and photonics in a range of fields, including materials science, biomedicine, and sensing and detection. As an open access journal, we are committed to promoting inclusivity and diversity in scientific research and publishing, and we welcome submissions from all researchers, regardless of their backgrounds, affiliations, or geographical locations. Our editorial team will strive to ensure that the highest standards of ethical publishing are met, including transparency, accountability, and integrity in the peer review process. We are excited to launch Compendium of Optics and Photonics and look forward to publishing high-quality research that advances these important fields and contributes to global scientific progress.

• Optical materials processing

77. Optics in renewable energy
78. Metamaterial-based devices
79. Optical trapping and manipulation
80. Solar cells
81. Plasmonic nanoparticles
82. Biomedical imaging

• Optical diagnostics and therapeutics

84. Wavefront engineering
85. Optical antennas

• Light scattering

87. Optical coherence microscopy
88. Photonic crystal fibers
89. Attosecond optics
90. Laser applications in industry and medicine.

These additional sub-keywords provide further insight into the topics that Compendium of Optics and Photonics will cover, including renewable energy, biomedical imaging, and industrial applications of optics and photonics. Our journal aims to publish research that is not only scientifically rigorous and innovative but also has practical implications and societal impact. We believe that scientific research should be accessible to all, and as an open access journal, we will provide free and unrestricted access to our articles. Our goal is to be a leading platform for the dissemination of high-quality research in optics and photonics and to foster a community of scholars and practitioners dedicated to advancing these fields for the betterment of society.

91. Optical fibers for sensing
92. Ultrafast lasers

• Optical communications and networks

94. Terahertz optics
95. Laser-induced breakdown spectroscopy

• Mid-infrared photonics

97. Optical sensing of pollutants
98. Quantum optics
99. Optical biosensors for disease diagnosis
100. Optics in agriculture and food science.

These final sub-keywords cover a variety of important and emerging research areas within the fields of optics and photonics. From ultrafast lasers and terahertz optics to quantum optics and optical biosensors for disease diagnosis, our journal seeks to provide a comprehensive view of the latest advances in these fields. We also aim to highlight the practical applications of optics and photonics in areas such as agriculture and food science, showcasing the potential for these fields to address global challenges. Our journal will prioritize high-quality research that is relevant, impactful, and contributes to the broader scientific community. We are excited to embark on this new venture and look forward to the contributions and collaboration of researchers, practitioners, and innovators from around the world.

101. Optical sensors for structural health monitoring
102. Imaging through turbid media
103. Fiber optic sensors for temperature and pressure monitoring
104. Ultrafast dynamics in condensed matter
105. Micro and nanostructuring of optical materials
106. Photonic crystal devices
107. Nonlinear optics and solitons
108. Quantum computing with photons
109. Optical trapping for single-molecule studies
110. Plasmonic nanosensors.

These sub-keywords further demonstrate the diverse range of topics that Compendium of Optics and Photonics aims to cover. Optical sensors for structural health monitoring, fiber optic sensors for temperature and pressure monitoring, and plasmonic nanosensors are examples of how optics and photonics can be applied to monitor and detect physical phenomena. Imaging through turbid media, ultrafast dynamics in condensed matter, and nonlinear optics and solitons are examples of fundamental research that advance our understanding of optics and photonics. Quantum computing with photons, optical trapping for single-molecule studies, and photonic crystal devices are examples of emerging areas of research that have the potential to revolutionize the field of optics and photonics. Our journal will publish original research, reviews, and perspectives that cover these topics and more, providing a forum for the exchange of ideas and insights among researchers, practitioners, and innovators in optics and photonics.

111. Optical sensors for gas detection and analysis
112. Optical interconnects for data centers
113. Light sources for imaging and spectroscopy
114. Optical tweezers and their applications
115. Plasmonic metasurfaces
116. Quantum cryptography
117. Optical properties of 2D materials
118. Femtosecond laser micromachining
119. Optical imaging of brain function
120. Optical communications for space applications.

These additional sub-keywords highlight some of the specific applications of optics and photonics that Compendium of Optics and Photonics aims to cover. Optical sensors for gas detection and analysis, plasmonic metasurfaces, and femtosecond laser micromachining are examples of how optics and photonics can be used for materials analysis and microfabrication. Optical imaging of brain function and quantum cryptography are examples of how optics and photonics can be applied to the life sciences and information security, respectively. Optical interconnects for data centers and optical communications for space applications are examples of how optics and photonics are becoming increasingly important for information and communication technologies.

Compendium of Optics and Photonics aims to provide a platform for the dissemination of high-quality research in these areas and more. Our journal is committed to open access and the advancement of the fields of optics and photonics for the betterment of society. We invite researchers, practitioners, and innovators from around the world to contribute their work and join us in this mission.

121. Laser-based spectroscopy for chemical analysis
122. Optical coherence tomography
123. Nonlinear optical microscopy
124. Optical microscopy of nanomaterials
125. Solar energy conversion using optics
126. Optical sensors for medical diagnostics
127. Optical biosensors for food safety
128. Optical communication networks for 5G and beyond
129. Silicon photonics
130. Spectral imaging.

These sub-keywords continue to highlight the broad range of topics that our journal Compendium of Optics and Photonics aims to cover. Laser-based spectroscopy for chemical analysis, optical coherence tomography, and nonlinear optical microscopy are examples of how optics and photonics can be used for advanced imaging and analysis techniques. Optical microscopy of nanomaterials and silicon photonics are examples of how optics and photonics can be used for the development of advanced materials and devices.

Solar energy conversion using optics, optical sensors for medical diagnostics, and optical biosensors for food safety are examples of how optics and photonics can be applied to address pressing global challenges in energy, healthcare, and food safety. Optical communication networks for 5G and beyond and spectral imaging are examples of how optics and photonics are becoming increasingly important for advanced communication technologies and image analysis, respectively.

Compendium of Optics and Photonics aims to publish high-quality research that covers these topics and more. We are committed to open access and the advancement of the fields of optics and photonics for the betterment of society. We invite researchers, practitioners, and innovators from around the world to contribute their work and join us in this mission.

131. Terahertz spectroscopy and imaging
132. Optical trapping for colloidal assembly
133. Ultrafast spectroscopy of molecular dynamics
134. Micro- and nanofluidics for optics and photonics
135. Photonics for quantum information processing
136. Polarization optics and applications
137. Quantum dot lasers
138. Biomedical imaging with optical coherence tomography
139. Nonlinear optics in waveguide structures
140. Optical sensors for environmental monitoring.

These sub-keywords continue to demonstrate the diversity and breadth of research topics that Compendium of Optics and Photonics aims to cover. Terahertz spectroscopy and imaging, ultrafast spectroscopy of molecular dynamics, and nonlinear optics in waveguide structures are examples of how optics and photonics can be used to explore the dynamics and properties of materials and biological systems.

Optical trapping for colloidal assembly, micro- and nanofluidics for optics and photonics, and photonics for quantum information processing are examples of how optics and photonics can be used for advanced manufacturing and quantum technologies. Polarization optics and applications, quantum dot lasers, and biomedical imaging with optical coherence tomography are examples of how optics and photonics can be applied to a wide range of areas, including communication, sensing, and medicine.

Optical sensors for environmental monitoring is an example of how optics and photonics can be used to address pressing global challenges related to climate change and environmental sustainability. Compendium of Optics and Photonics is committed to publishing high-quality research in these areas and more, and to advancing the fields of optics and photonics for the betterment of society. We invite researchers, practitioners, and innovators from around the world to contribute their work and join us in this mission.

141. Spectroscopy and imaging in the infrared region
142. Plasmonics and metamaterials for photonics
143. Optomechanics and cavity optomechanics
144. Optics and photonics for cultural heritage
145. Imaging and sensing in harsh environments
146. Optical coherence elastography
147. Quantum optics and quantum information
148. Microscopy and imaging of living cells and tissues
149. Integrated photonics for sensing and communication
150. Advanced optics for astronomical telescopes.

These sub-keywords further demonstrate the wide range of research topics that Compendium of Optics and Photonics aims to cover. Spectroscopy and imaging in the infrared region, plasmonics and metamaterials for photonics, and optomechanics and cavity optomechanics are examples of how optics and photonics can be used for the development of advanced materials and devices.

Optics and photonics for cultural heritage, imaging and sensing in harsh environments, and advanced optics for astronomical telescopes are examples of how optics and photonics can be used for cultural preservation, environmental monitoring, and space exploration. Quantum optics and quantum information, optical coherence elastography, and microscopy and imaging of living cells and tissues are examples of how optics and photonics can be applied to a wide range of areas, including communication, sensing, and medicine.

Integrated photonics for sensing and communication is an example of how optics and photonics can be used to develop highly integrated and compact systems for sensing and communication applications. Compendium of Optics and Photonics is committed to publishing high-quality research in these areas and more, and to advancing the fields of optics and photonics for the betterment of society. We invite researchers, practitioners, and innovators from around the world to contribute their work and join us in this mission.

151. Optics and photonics for renewable energy
152. Nanophotonics for optoelectronics
153. Single-photon sources and detectors
154. Plasmon-enhanced spectroscopy and sensing
155. Optical fibers for sensing and communication
156. Ultrafast laser fabrication of micro/nanostructures
157. Terahertz communication and sensing
158. Optical neural interfaces
159. Optical manipulation and control of matter
160. Photonic crystals and periodic nanostructures.

These sub-keywords highlight some of the cutting-edge research areas that Compendium of Optics and Photonics aims to cover. Optics and photonics for renewable energy, nanophotonics for optoelectronics, and plasmon-enhanced spectroscopy and sensing are examples of how optics and photonics can be used to address important challenges in energy, electronics, and sensing.

Single-photon sources and detectors, terahertz communication and sensing, and photonic crystals and periodic nanostructures are examples of how optics and photonics can be used for advanced communication, sensing, and information processing. Optical fibers for sensing and communication, ultrafast laser fabrication of micro/nanostructures, and optical manipulation and control of matter are examples of how optics and photonics can be used for advanced manufacturing and material science.

Optical neural interfaces is an example of how optics and photonics can be applied to the development of advanced medical technologies for the treatment of neurological disorders. Compendium of Optics and Photonics is committed to publishing high-quality research in these areas and more, and to advancing the fields of optics and photonics for the betterment of society. We invite researchers, practitioners, and innovators from around the world to contribute their work and join us in this mission.

Top of Form.

161. Nonlinear optics and frequency conversion
162. Quantum sensing and metrology
163. Novel optical materials and devices
164. Ultrafast spectroscopy and dynamics
165. Quantum dot lasers and light emitting diodes
166. Biophotonics and biomedical optics
167. Optical sensors and biosensors
168. Optical coherence tomography and angiography
169. Nonlinear microscopy and imaging
170. Silicon photonics.
171. Optical communication and networking
172. Quantum cryptography and information processing
173. Optical computing and information storage
174. Metamaterials and metasurfaces
175. Holography and 3D imaging
176. Laser-based manufacturing and processing
177. Spectroscopy and sensing of atmospheric gases
178. Plasmonic and metamaterial-enhanced photovoltaics
179. Optics and photonics for astronomy and space science
180. Topological photonics.
181. Optomechanics and optofluidics
182. Femtosecond laser processing and micro/nanofabrication
183. Quantum optics and information
184. Optical trapping and manipulation
185. Optical metamaterials for energy harvesting
186. Plasmonics for nanoscale imaging and sensing
187. Ultrafast laser spectroscopy and microscopy
188. Microscopy and imaging for materials science and engineering
189. Light-matter interactions in two-dimensional materials
190. Machine learning and artificial intelligence for optics and photonics.
191. Nonlinear optics and photonics
192. Optics and photonics for renewable energy
193. Biophotonics and biomedical optics for diagnosis and treatment
194. Optics and photonics for environmental monitoring
195. Optics and photonics for agriculture and food science
196. Novel optical materials and devices
197. Optics and photonics for cultural heritage preservation
198. Optical sensors for industrial and commercial applications
199. Quantum emitters and light-matter interactions in nanostructures
200. Optics and photonics for national security and defense.