AIMS AND SCOPE:

"Advances in Genetic Engineering" is a peer-reviewed, open-access journal that publishes original research articles, reviews, and commentaries in the field of genetic engineering. The journal aims to disseminate the latest research findings, methods, and tools in genetic engineering to the scientific community.

The scope of the journal covers the following topics:

1. Gene editing: CRISPR/Cas9 system, ZFNs, TALENs, RNA-guided nucleases, homing endonucleases, and other gene-editing tools and methods.
2. Recombinant DNA technology: Gene cloning, gene expression, DNA sequencing, synthetic biology, genome engineering, and other related techniques.
3. Genetic modification: Transgenic organisms, genetically modified organisms (GMOs), gene therapy, gene silencing, and other genetic modification techniques.
4. Genetic diversity and evolution: Genetic diversity, population genetics, phylogenetics, evolutionary genetics, and comparative genomics.
5. Genomics and transcriptomics: Whole-genome sequencing, gene expression profiling, transcriptome analysis, functional genomics, and other genomic and transcriptomic methods.
6. Molecular biology and biochemistry: Protein engineering, enzymology, metabolic engineering, synthetic biology, and other molecular biology and biochemistry techniques.
7. Systems and computational biology: Systems biology, computational modeling, network analysis, bioinformatics, and other computational and theoretical approaches to genetic engineering.
8. Applications of genetic engineering: Agriculture, biotechnology, medicine, environmental science, and other applied fields of genetic engineering.

The journal welcomes submissions from all areas of genetic engineering, including basic research, translational research, and applied research.

KEYWORDS/SUB-TOPICS:

1. CRISPR/Cas9 system
2. ZFNs
3. TALENs
4. RNA-guided nucleases
5. Homing endonucleases
6. Gene cloning
7. Gene expression
8. DNA sequencing
9. Synthetic biology
10. Genome engineering
11. Transgenic organisms
12. GMOs
13. Gene therapy
14. Gene silencing
15. Genetic diversity
16. Population genetics
17. Phylogenetics
18. Evolutionary genetics
19. Comparative genomics
20. Whole-genome sequencing
21. Gene expression profiling
22. Transcriptome analysis
23. Functional genomics
24. Protein engineering
25. Enzymology
26. Metabolic engineering
27. Systems biology
28. Computational modeling
29. Network analysis
30. Bioinformatics
31. Agriculture
32. Biotechnology
33. Medicine
34. Environmental science

• Applied fields of genetic engineering

36. Genetic engineering in cancer research

• CRISPR-Cas system in gene therapy
• Genome editing in agriculture
• Gene editing in rare diseases

40. CRISPR-mediated gene drives
41. Synthetic biology for biomanufacturing
42. Gene therapy for inherited disorders
43. CRISPR for RNA editing
44. Epigenetic modifications
45. Proteomics
46. Transcriptomics
47. Cell biology
48. Molecular genetics
49. Plant genetic engineering
50. Genome-wide association studies
51. Single-cell sequencing
52. Genetically modified food

• Genetic engineering in regenerative medicine

54. Genome editing ethics
55. Genetic engineering patents

• Drug discovery

57. Viral vectors in gene therapy
58. Stem cell engineering
59. Bioprocessing
60. Industrial biotechnology
61. DNA damage and repair
62. Genetic engineering in neurodegenerative diseases
63. Genome editing in plants
64. Genome editing in animals

• Genome editing in humans

66. Gene therapy

• CRISPR/Cas9 system
• Zinc-finger nucleases (ZFNs)
• TALENs (Transcription Activator-Like Effector Nucleases)

70. Synthetic biology
71. Gene drive
72. Synthetic gene circuits

• Genome-wide association studies (GWAS)

74. Epigenetics
75. Epigenetic inheritance

• RNA editing

77. RNA interference (RNAi)
78. Non-coding RNAs
79. Circular RNAs (circRNAs)
80. Long non-coding RNAs (lncRNAs)
81. MicroRNAs (miRNAs)
82. Small interfering RNAs (siRNAs)

• RNA vaccines

84. RNA sequencing
85. Single-cell sequencing

• Metagenomics

87. Structural genomics
88. Comparative genomics
89. Functional genomics
90. Proteomics
91. Protein engineering
92. Protein-protein interactions

• Protein structure prediction

94. Protein folding
95. Protein crystallization

• Antibody engineering

97. Immunotherapy
98. Vaccinology
99. Pharmacogenomics
100. Personalized medicine
101. Precision medicine
102. Cancer genomics
103. Cancer immunotherapy
104. Gene expression analysis
105. Transcriptomics
106. Metabolomics
107. Lipidomics
108. Glycomics
109. High-throughput screening
110. CRISPR screens
111. Drug discovery
112. Bioinformatics
113. Computational biology
114. Systems biology
115. Network biology
116. Machine learning
117. Artificial intelligence
118. Big data
119. Data mining
120. Data visualization
121. Biostatistics
122. Mathematical modeling
123. Mathematical biology
124. Evolutionary biology
125. Phylogenetics
126. Population genetics
127. Synthetic lethality
128. Mutagenesis
129. DNA repair
130. Telomeres
131. Telomerase
132. Aging
133. Senescence
134. Regenerative medicine
135. Stem cell biology
136. Cell reprogramming
137. Organoid culture
138. Tissue engineering
139. Bioethics
140. Intellectual property
141. Gene patents
142. Genetically modified organisms (GMOs)
143. Gene drives in the wild
144. Synthetic biology regulation
145. Gene therapy regulation
146. CRISPR/Cas9 regulation
147. Personalized medicine regulation
148. Privacy concerns in genomics
149. Clinical trials in genomics
150. Health disparities in genomics
151. Agriculture and genomics
152. Sustainable agriculture
153. Biofuels
154. Environmental genomics
155. Bioremediation
156. Synthetic biology and biosecurity
157. Biotechnology and industry
158. Patent law and biotechnology
159. Agricultural biotechnology
160. Medical biotechnology
161. Industrial biotechnology
162. Green biotechnology
163. Marine biotechnology
164. Bio manufacturing
165. Bioprocessing
166. Industrial fermentation
167. Enzyme engineering
168. Biomaterials
169. Biodegradable plastics
170. Food biotechnology
171. Food safety and genomics
172. GMO labeling
173. Nano biotechnology
174. Nano medicine
175. Nanoparticles
176. Nano toxicology
177. Ethics of nanotechnology
178. Stem cell therapy
179. Reproductive biotechnology
180. In vitro fertilization
181. RNAi
182. Site-directed mutagenesis
183. Transgenic animals
184. Transgenic plants
185. Synthetic biology
186. DNA synthesis
187. Genetic circuits
188. RNA sequencing
189. Epigenetics
190. CRISPR
191. Genome editing
192. Functional genomics
193. Proteomics
194. Metabolomics
195. Bioinformatics
196. Computational biology
197. Systems biology
198. Gene expression analysis
199. Chromatin remodeling
200. DNA repair mechanisms.

Overall, Advances in Genetic Engineering aims to provide a platform for researchers and scientists from various fields to publish their original research, review articles, and commentaries on genetic engineering, its latest advancements, and applications. The journal emphasizes the importance of promoting and disseminating knowledge in this rapidly evolving field to facilitate further developments and applications of genetic engineering in various industries, including agriculture, medicine, biotechnology, and environmental science. The wide range of topics covered in the journal ensures that researchers from various fields and disciplines can find relevant and valuable information related to genetic engineering. The journal also aims to promote ethical and responsible research practices in genetic engineering, keeping in mind the potential social, economic, and environmental implications of genetic engineering research and applications.