A Unique Hybridization Route to Access Hydrazylnaphthalimidols as Novel Structural Scaffolds of Multitargeting Broad-Spectrum Antifungal Candidates by Jin-Xin Wang (15305262)

A Unique Hybridization Route to Access Hydrazylnaphthalimidols as Novel Structural Scaffolds of Multitargeting Broad-Spectrum Antifungal Candidates by Jin-Xin Wang (15305262)

A Unique Hybridization Route to Access Hydrazylnaphthalimidols as Novel Structural Scaffolds of Multitargeting Broad-Spectrum Antifungal Candidates by Jin-Xin Wang (15305262)

A Unique Hybridization Route to Access Hydrazylnaphthalimidols as Novel Structural Scaffolds of Multitargeting Broad-Spectrum Antifungal Candidates by Jin-Xin Wang (15305262)

Table_1_Blocking miR530 Improves Rice Resistance, Yield, and Maturity.XLSX by Yan Li (23143)

“…<p>MicroRNAs fine-tune plant growth and resistance against multiple biotic and abiotic stresses. …”

Data_Sheet_1_Positive effects of Cordyceps cateniannulata colonization in tobacco: Growth promotion and resistance to abiotic stress.docx by Lu Qiao (2861384)

“…</p>Conclusion<p>Specific strains of C. cateniannulata can be introduced into host plants as endophytes, resulting in promotion of host plant growth and increased resistance to abiotic stress and microbial pathogens. …”

Data_Sheet_1_Positive effects of Cordyceps cateniannulata colonization in tobacco: Growth promotion and resistance to abiotic stress.docx by Lu Qiao (2861384)

“…</p>Conclusion<p>Specific strains of C. cateniannulata can be introduced into host plants as endophytes, resulting in promotion of host plant growth and increased resistance to abiotic stress and microbial pathogens. …”

Data_Sheet_1_Blocking miR530 Improves Rice Resistance, Yield, and Maturity.PDF by Yan Li (23143)

“…<p>MicroRNAs fine-tune plant growth and resistance against multiple biotic and abiotic stresses. …”

Table_4_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_7_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_8_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_3_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_1_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_9_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_6_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_2_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

DataSheet_1_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

Table_5_Ozone and nitrogen dioxide regulate similar gene expression responses in Arabidopsis but natural variation in the extent of cell death is likely controlled by different gen... by Johanna Leppälä (522909)

“…However, we also identified exceptions, for example RBOHF encoding a reactive oxygen species producing RESPIRATORY BURST OXIDASE PROTEIN F. This gene had increased transcript levels by O₃ but decreased transcript levels by NO₂, showing that plants can identify each of the gases separately and activate distinct signaling pathways. …”

DataSheet_7_Last-Generation Genome–Environment Associations Reveal the Genetic Basis of Heat Tolerance in Common Bean (Phaseolus vulgaris L.).pdf by Felipe López-Hernández (7911326)

“…Common bean (Phaseolus vulgaris L.) is the most important legume for human consumption, and breeding it for resistance to heat stress is key because annual increases in atmospheric temperature are causing decreases in yield of up to 9% for every 1°C. …”

DataSheet_1_Last-Generation Genome–Environment Associations Reveal the Genetic Basis of Heat Tolerance in Common Bean (Phaseolus vulgaris L.).pdf by Felipe López-Hernández (7911326)

“…Common bean (Phaseolus vulgaris L.) is the most important legume for human consumption, and breeding it for resistance to heat stress is key because annual increases in atmospheric temperature are causing decreases in yield of up to 9% for every 1°C. …”