117 results on '"Shahzad, Zaigham"'
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2. PDR9 allelic variation and MYB63 modulate nutrient‐dependent coumarin homeostasis in Arabidopsis
3. Interdependent iron and phosphorus availability controls photosynthesis through retrograde signaling
4. Genetic analysis of cadmium accumulation in lettuce (Lactuca sativa)
5. EZ-Root-VIS : A Software Pipeline for the Rapid Analysis and Visual Reconstruction of Root System Architecture
6. Protein kinase SnRK2.4 is a key regulator of aquaporins and root hydraulics in Arabidopsis
7. Food for thought: how nutrients regulate root system architecture
8. To respond or not to respond? Natural variation of root architectural responses to nutrient signals
9. Cryptic variation in RNA-directed DNA-methylation controls lateral root development when auxin signalling is perturbed
10. Protein kinase SnRK2.4 is a key regulator of aquaporins and root hydraulics in Arabidopsis.
11. ARSK1 activates TORC1 signaling to adjust growth to phosphate availability in Arabidopsis
12. Natural variation at XND1 impacts root hydraulics and trade-off for stress responses in Arabidopsis
13. Plant growth stimulation by high CO2 depends on phosphorus homeostasis in chloroplasts
14. Unified establishment and epigenetic inheritance of DNA methylation through cooperative MET1 activity
15. Phosphate and zinc transport and signalling in plants: toward a better understanding of their homeostasis interaction
16. Protecting plant nutrition from the effects of climate change
17. Identification of three relationships linking cadmium accumulation to cadmium tolerance and zinc and citrate accumulation in lettuce
18. Epigenetic inheritance mediates phenotypic diversity in natural populations
19. Interdependent Iron and Phosphorus Availability Controls Photosynthesis Through Retrograde Signaling
20. Quantitative genetics dissection of root hydraulics uncovers novel pathways for plant adaptation to stresses
21. Root hydraulics: a key trait in plant adaptation to stresses
22. EZ-Root-VIS: A Software Pipeline for the Rapid Analysis and Visual Reconstruction of Root System Architecture
23. Quantitative genetics analysis of root hydraulics uncovers novel pathways of plant adaptation to the environment
24. Combined adaptation of roots to flooding and soil nutrients: Role of a MAP3K protein kinase
25. Regulation of root water transport under flooding
26. Hydraulic Conductivity of Root 1 controls potassium-dependent oxygen sensing to regulate root hydraulic
27. Evolutionary Insight on Plant Defensin type 1 (PDF1)
28. Adaptation conjointe des racines à l’inondation et aux nutriments du sol
29. Plant Defensin type 1 (PDF1) from an evolutionary perspective'
30. Plant response to zinc excess: insight on Plant Defensin type 1 (PDF1) expression regulation
31. Phosphate and zinc transport and signalling in plants: toward a better understanding of their homeostasis interaction
32. A Potassium-Dependent Oxygen Sensing Pathway Regulates Plant Root Hydraulics
33. Combating Mineral Malnutrition through Iron and Zinc Biofortification of Cereals
34. Plant Defensin type 1 (PDF1): protein promiscuity and expression variation within the Arabidopsis genus shed light on zinc tolerance acquisition in Arabidopsis halleri
35. Genetics of root hydraulics in Arabidopsis thaliana . Genomic, physiological and breeding approaches for enhancing drought resistance in crops
36. Plant response to zinc excess
37. The metal tolerance protein 1 (MTP1) gene family in the zinc tolerant and hyper-accumlulating species Arabidopsis halleri: inference on potential use as a molecular target for cereal biofortification
38. Evolution towards zinc tolerance in Arabidopsis halleri
39. Aquaporins in Plants
40. Etude moléculaire des familles de gènes Metal Tolerance Protein 1(MTP1) et Plant Defensins Type I (PDF1): contribution à la compréhension des mécanismes moléculaires évolutifs liés à l'acquisition de la tolérance au zinc chez Arabidopsis halleri
41. Plant defensins harbour 4 di-sulfide bridges, they are expressed in the endoplasmic reticulum and in Golgi vesicles, and they confer zinc tolerance. What is the mechanism by which defensins can induce zinc tolerance ?
42. Chimeric MTP1 Gene: a Good Candidate for Zinc Biofortification of Cereals ?
43. Genetic characterisation of the MTP1 zinc transporter family in Arabidopsis halleri reveals a large functional and genetic diversity
44. An intracellular plant defensin confers zinc tolerance
45. Identification des gènes candidats de la tolérance au zinc chez la pseudométallophyte Arabidopsis halleri par l'intégration des données de génomique comparative et de transcriptomique disponibles chez Arabidopsis
46. Identification des gènes candidats de la tolérance au zinc chez la pseudométallophyte Arabidopsis halleri par l'intégration des données de génomique comparative et de transcriptomique disponibles chez Arabidopsis
47. An Assay to Test the Capacity of Arabidopsis Plant Defensin Type1 Protein to Induce Cellular Zinc (Zn) Tolerance in Yeast
48. Plant Defensin type 1 (PDF 1): protein promiscuity and expression variation within the Arabidopsis genus shed light on zinc tolerance acquisition in Arabidopsis halleri
49. Estimation of Genetic Diversity in Rice (Oryza sativa L.) Genotypes using Simple Sequence Repeats
50. The Five AhMTP1 Zinc Transporters Undergo Different Evolutionary Fates towards Adaptive Evolution to Zinc Tolerance in Arabidopsis halleri
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