Plant breeding and germplasm research form the cornerstone of crop improvement and sustainable agriculture. Plant breeding harnesses traditional selection methods and modern biotechnological tools to develop new crop varieties with enhanced yield, disease resistance, stress tolerance, and improved nutritional quality. By combining genetic diversity with advanced breeding strategies, researchers can tailor plants to meet the demands of changing climates and evolving agricultural needs. Germplasm resourcescollections of seeds, tissues, or genetic material serve as vital reservoirs of biodiversity. These genetic repositories preserve rare, wild, and traditional varieties that hold unique traits essential for breeding programs. Accessing and characterizing germplasm ensures that valuable genes, such as those conferring drought resistance, pest tolerance, or enhanced quality, are conserved and utilized for future generations. The integration of molecular markers, genomics-assisted breeding, and genome editing technologies further accelerates the identification and incorporation of desirable traits into elite crop lines. Together, plant breeding and germplasm research safeguard agricultural resilience, enhance global food security, and maintain the genetic foundation necessary to address future environmental and population challenges.
| 2-5 Days | Initial Quality & Plagiarism Check |
| 25-35 Days |
Peer Review Feedback |
| 45-60 Days | Total article processing time |
| English | Publication Language |
| Single-Blind | Peer-Review Model |
| 17% | Acceptance Rate |
| <18% | Similarity Screening Guideline |
| Open Access | Access Model |
All manuscripts undergo editorial assessment and originality screening as part of the journal's evaluation process. The acceptance rate shown is based on journal-level editorial data and may change over time. Similarity reports are assessed editorially and are not interpreted solely on the basis of a numerical similarity score.