Future Prospective of Resistance Breeding in Rice: A Comprehensive Review

Background: Disease resistance in plants can generally be classified into two fundamental types: either the host prevents the establishment of a successful parasitic relationship through hypersensitive responses at the infection site, or it restricts subsequent colonization and reproduction of the pathogen after successful infection Aims: The objective of this paper is to discuss plant breeding methods as an evolving technology for resistant varieties of rice for better production. Place and Duration of Study: The review paper includes rice growing areas where resistance breeding was conducted. The breeding methods used for resistance from the earlier to now-a-days. Methodology: Some breeding methods are discussed here like conventional breeding, ideotype breeding, wide breeding, population breeding, heterosis breeding, speed breeding and most recently molecular breeding. Enhanced productivity in any crop is achieved through a combination of improved understanding of underlying biological mechanisms and the deliberate management of processes involved in developing and selecting superior, pest- and disease-resistant varieties. Host plant resistance in certain crop cultivars arises from long-term co-evolutionary interactions with pests and pathogens. Various breeding techniques have been employed to improve resistant rice varieties. Plant breeding plays a crucial role in selecting superior genotypes based on yield and quality of edible parts, ease of cultivation, harvesting, and processing, as well as tolerance to environmental stresses and resistance to pests and diseases. Results: Recent advances in controlling the disease and protecting from insect attack to improve rice production systems are achieved through conventional and molecular breeding. Traditional breeding methods were based on the complementarily between parental characteristics promoting recombination for shuffling favourable alleles. Molecular breeding is easier, faster, highly efficient and precise. Genotyping technology sharply reduced the cost of genotyping, creating the possibility of scoring thousands of markers in populations of plants under selection. Conclusion: Resistance rice varieties have been developing through the better modern process of combining traditional breeding with molecular breeding technology. This review focuses on the constraints of rice production, breeding methods, innovation in resistance rice breeding and future prospects of rice breeding.

Authors

Publication Details

Journal
Journal of Advances in Biology & Biotechnology
Published
2026-04-06
DOI
https://doi.org/10.9734/jabb/2026/v29i43842
Primary Topic
Plant Disease Resistance and Genetics
Type
article
Field-Weighted Citation Impact
0.00
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Future Prospective of Resistance Breeding in Rice: A Comprehensive Review

Purnima Halder, Jimi Banik, Sitesh Chatterjee, Rajib Das
Journal of Advances in Biology & Biotechnology
Plant Disease Resistance and Genetics
article

Future Prospective of Resistance Breeding in Rice: A Comprehensive Review

Purnima Halder, Jimi Banik, Sitesh Chatterjee, Rajib Das
article en

Abstract

Background: Disease resistance in plants can generally be classified into two fundamental types: either the host prevents the establishment of a successful parasitic relationship through hypersensitive responses at the infection site, or it restricts subsequent colonization and reproduction of the pathogen after successful infection Aims: The objective of this paper is to discuss plant breeding methods as an evolving technology for resistant varieties of rice for better production. Place and Duration of Study: The review paper includes rice growing areas where resistance breeding was conducted. The breeding methods used for resistance from the earlier to now-a-days. Methodology: Some breeding methods are discussed here like conventional breeding, ideotype breeding, wide breeding, population breeding, heterosis breeding, speed breeding and most recently molecular breeding. Enhanced productivity in any crop is achieved through a combination of improved understanding of underlying biological mechanisms and the deliberate management of processes involved in developing and selecting superior, pest- and disease-resistant varieties. Host plant resistance in certain crop cultivars arises from long-term co-evolutionary interactions with pests and pathogens. Various breeding techniques have been employed to improve resistant rice varieties. Plant breeding plays a crucial role in selecting superior genotypes based on yield and quality of edible parts, ease of cultivation, harvesting, and processing, as well as tolerance to environmental stresses and resistance to pests and diseases. Results: Recent advances in controlling the disease and protecting from insect attack to improve rice production systems are achieved through conventional and molecular breeding. Traditional breeding methods were based on the complementarily between parental characteristics promoting recombination for shuffling favourable alleles. Molecular breeding is easier, faster, highly efficient and precise. Genotyping technology sharply reduced the cost of genotyping, creating the possibility of scoring thousands of markers in populations of plants under selection. Conclusion: Resistance rice varieties have been developing through the better modern process of combining traditional breeding with molecular breeding technology. This review focuses on the constraints of rice production, breeding methods, innovation in resistance rice breeding and future prospects of rice breeding.

Journal of Advances in Biology & BiotechnologyVol. 29(4)
Industry, innovation and infrastructure
Openalex Percentile: Top 32%
Plant Disease Resistance and Genetics
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.