2026
Carotenoid biosynthesis drives root plasticity through aerenchyma and iron plaque formation in rice. Nature Plants
, 12, 1-12
Application of 1-Aminocyclopropane-1-Carboxylic Acid (ACC) as an efficient suicidal germination agent for controlling Striga hermonthica. Journal of Agriculture and Food Research
, 30, 103160
Arbuscular mycorrhizal symbiosis in tomato roots with a diverse range of carotene accumulation. Mycorrhiza
, 36, 32
Characterization and Quantification of Strigolactones in Root Exudates. In: Mukhtar, S. (eds) Plant Hormones. METHODS IN MOLECULAR BIOLOGY, vol 3026. Humana, New York, NY.
, 39–58
Bioconversion of carotenoids into high‐value crocins using a marine sponge carotenoid cleavage dioxygenase. New Phytologist
, https://doi.org/10.1111/nph.71118
Dual roles of pea CCD7 in strigolactone-dependent and -independent processes as revealed by transcriptomic profiling and mycorrhization assays. Plant Stress
, 20; 101326
Sustaining Rice Productivity with Reduced Fertilization Using Zaxinone Mimics. PLANT STRESS
, 20, 101290
2025
An evolutionarily diverged CCD4 enzyme negatively regulates mesocotyl elongation in rice. New Phytologist
, 70799, 70799
Boosting Drought Resilience in Rice: The Priming Effects of Zaxinone and Its Mimics. Physiologia Plantarum
, 177(6), e70667
Molecular Basis for Catalysis and Regulation of the Strigolactone Catabolic Enzyme CXE15. Nature Communications
, 16(1), 10290
LYCOPENE β-CYCLASE overexpression improves growth, modulates hormone content, and affects rhizospheric interactions in tobacco and tomato roots. Plant Cell Reports
, 44, (11)
Switch From Soil to Plant Host Lifestyle Is Mediated by <i>rpoS</i> Mutations in Bacterial Endophyte. Plant, Cell & Environment
, 48(11), 8068-8085.
Structural substitutions on the methoxybenzene ring retain the biological activity of the zaxinone mimics MiZax3. Frontiers in Plant Science
, 16, 1631066
Root remodeling mechanisms and salt tolerance trade-offs: The roles of HKT1, TMAC2, and TIP2;2 in Arabidopsis. PLOS Genetics
, 21(6), e1011713
Evaluation of formulated strigolactone analogs for Striga management in Kenyan agriculture. Journal of Agriculture and Food Research
, 21, 101921
Disruption of the Karrikin Receptor <i>DWARF 14 LIKE (D14L)</i> Gene Leads to Distinct Effects on Root and Shoot Growth, and Reprogramming of Central Metabolism in Rice. Journal of Experimental Botany
, eraf201
In vivo dynamics of indole- and phenol-derived plant hormones: Long-term, continuous, and minimally invasive phytohormone sensor. Science Advances
, 11(16), eads873
Mimics of the Growth Regulator Zaxinone Increase Saffron Yield and Improve its Nutritional Value. Journal of Plant Growth Regulation
, https://doi.org/10.1007/s00344-025-11690-y
Microscopy and spatial-metabolomics identify tissue-specific metabolic pathways uncovering salinity and drought tolerance mechanisms in Avicennia marina and Phoenix dactylifera roots. Scientific Reports
, 15, 1076
Development of a Rapid and Efficient Protocol for Seed Germination and Seedling Establishment of <em>Oryza coarctata</em>. BIO-PROTOCOL
, 15(1365)
2024
Effect of exogenous treatment with zaxinone and its mimics on rice root microbiota across different growth stages. Scientific Reports
, 14, 31374
The role of hydrolysis in perceiving and degrading the plant hormone strigolactones. Trends in Biochemical Sciences
, 49(12), 1039-1041
Assessing the mutagenic potential of methyl phenlactonoate 3 and Nijmegen-1 in bacterial reverse mutation assays. Heliyon
, 10(23), e40526
The rice orobanchol synthase catalyzes the hydroxylation of the noncanonical strigolactone methyl 4‐oxo‐carlactonoate. New Phytologist
, 244(6), 2121-2126
OsCYP706C2 diverts rice strigolactone biosynthesis to a noncanonical pathway branch. Science Advances
, 10(35), eadq3942
Chromosome-scale pearl millet genomes reveal CLAMT1b as key determinant of strigolactone pattern and Striga susceptibility. Nature Communications
, 15(1), 1-12
Distinguishing the functions of canonical strigolactones as rhizospheric signals. Trends in Plant Science
, 29(8), 925-936
<i>Zaxinone Synthase</i> overexpression modulates rice physiology and metabolism, enhancing nutrient uptake, growth and productivity. Plant, Cell & Environment
, 48(4), 2615-2629
Evaluation of granular formulated strigolactone analogs for Striga suicidal germination. Pest Management Science
, 80(9), 4314-4321
Strigolactone biosynthesis in rice can occur via a 9‐<i>cis</i>‐3‐OH‐10′‐apo‐β‐carotenal intermediate. FEBS Letters
, 598(5), 571-578
Integration of rice apocarotenoid profile and expression pattern of Carotenoid Cleavage Dioxygenases reveals a positive effect of β-ionone on mycorrhization. Plant Physiology and Biochemistry
, 207, 108366
Abscisic acid inhibits germination of Striga seeds and is released by them likely as a rhizospheric signal supporting host infestation. The Plant Journal
, 117(5), 1305-1316
2023
Zaxinone mimics (MiZax) efficiently promote growth and production of potato and strawberry plants under desert climate conditions. Scientific Reports
, 13, 17438
Disruption of the rice
<i>4-DEOXYOROBANCHOL HYDROXYLASE</i>
unravels specific functions of canonical strigolactones. Proceedings of the National Academy of Sciences
, 120(42), e2306263120
Strigolactone biosynthesis <i>lgs1</i> mutant alleles mined from the sorghum accession panel are a promising resource of resistance to witchweed (<i>Striga</i>) parasitism. PLANTS, PEOPLE, PLANET
, 7(2), 382-395
New Series of Zaxinone Mimics (MiZax) for Fundamental and Applied Research. Biomolecules
, 13(8), 1206
Disruption of the cytochrome CYP711A5 gene reveals MAX1 redundancy in rice strigolactone biosynthesis. Journal of Plant Physiology
, 287, 154057
Cytokinins as an alternative suicidal Striga germination compound. Weed Research
, 65(2)
Biomimetic Mineralization for Smart Biostimulant Delivery and Crop Micronutrients Fortification. Nano Letters
, 23(11), 4732-4740
Editorial: Specialized metabolites manipulating organismal behaviors and rhizospheric communications. Frontiers in Plant Science
, 14, 1197058
Does zaxinone counteract strigolactones in shaping rice architecture?. Plant Signaling & Behavior
, 18(1), 2184127
The Arabidopsis D27‐LIKE1 is a <i>cis</i>/<i>cis</i>/<i>trans</i>‐β‐carotene isomerase that contributes to Strigolactone biosynthesis and negatively impacts ABA level. The Plant Journal
, 113(5), 986-1003
2022
Metabolomics of plant root exudates: From sample preparation to data analysis. Frontiers in Plant Science
, 13, 1062982
Perspectives on the metabolism of strigolactone rhizospheric signals. Frontiers in Plant Science
, 13, 1062107
Canonical strigolactones are not the major determinant of tillering but important rhizospheric signals in rice. Science Advances
, 8(44), eadd1278
<i>ZAXINONE SYNTHASE 2</i> regulates growth and arbuscular mycorrhizal symbiosis in rice. Plant Physiology
, 191(1), 382-399
9-cis-β-Apo-10ʹ-carotenal is the precursor of strigolactones in planta. Planta
, 256(5), 88
Zaxinone synthase controls arbuscular mycorrhizal colonization level in rice. The Plant Journal
, 111(6), 1688-1700
Evaluation of the Biostimulant Activity of Zaxinone Mimics (MiZax) in Crop Plants. Frontiers in Plant Science
, 13, 874858
Protocol for characterizing strigolactones released by plant roots. STAR Protocols
, 3(2), 101352
Striga hermonthica Suicidal Germination Activity of Potent Strigolactone Analogs: Evaluation from Laboratory Bioassays to Field Trials. Plants
, 11(8), 1045
A New Formulation for Strigolactone Suicidal Germination Agents, towards Successful Striga Management. Plants
, 11(6), 808
2021
Rational design of<i>Striga hermonthica</i>-specific seed germination inhibitors. Plant Physiology
, 188(2), 1369-1384
Multi-omics approaches explain the growth-promoting effect of the apocarotenoid growth regulator zaxinone in rice. Communications Biology
, 4(1), 1222
SeedQuant: a deep learning-based tool for assessing stimulant and inhibitor activity on root parasitic seeds. Plant Physiology
, 186(3), 1632-1644
On the biosynthesis and evolution of apocarotenoid plant growth regulators. Seminars in Cell & Developmental Biology
, 109, 3-11
2020
Efficient Mimics for Elucidating Zaxinone Biology and Promoting Agricultural Applications. Molecular Plant
, 13(11), 1654-1661
The Apocarotenoid Zaxinone Is a Positive Regulator of Strigolactone and Abscisic Acid Biosynthesis in Arabidopsis Roots. Frontiers in Plant Science
, 11, 578
A New Series of Carlactonoic Acid Based Strigolactone Analogs for Fundamental and Applied Research. Frontiers in Plant Science
, 11, 434
2019
Apocarotenoids: Old and New Mediators of the Arbuscular Mycorrhizal Symbiosis. Frontiers in Plant Science
, 10, 1186
Overexpression of the NAC transcription factor JUNGBRUNNEN1 (JUB1) increases salinity tolerance in tomato. Plant Physiology and Biochemistry
, 140, 113-121
Emergent Protective Organogenesis in Date Palms: A Morpho-Devo-Dynamic Adaptive Strategy during Early Development. The Plant Cell
, 31(8), 1751-1766
Methylation at the C-3′ in D-Ring of Strigolactone Analogs Reduces Biological Activity in Root Parasitic Plants and Rice. Frontiers in Plant Science
, 10, 353
The apocarotenoid metabolite zaxinone regulates growth and strigolactone biosynthesis in rice. Nature Communications
, 10(1), 810
An LC-MS profiling method reveals a route for apocarotene glycosylation and shows its induction by high light stress in Arabidopsis. The Analyst
, 144(4), 1197-1204
2018
A rapid LC-MS method for qualitative and quantitative profiling of plant apocarotenoids. Analytica Chimica Acta
, 1035, 87-95
Engineering plant architecture via CRISPR/Cas9-mediated alteration of strigolactone biosynthesis. BMC Plant Biology
, 18(1), 174