Figures & data
Table 1. Temperature conditions for the 2007 and 2008 year-round experiments (Experiment 1) and districts experiments (Experiment 2).
Figure 1. (A) The relationship between grain weight per hill and H15-ave. And (B) the relationship between fertility and average (black circle), maximum (white square) and minimum (white triangle) temperature (Lur, Citation2009). **P value < .01. *Because the grains of the samples collected in 2007 of Experiment 1 were cracked in the process of polishing, we only used the samples from 2008 of Experiment 1 and samples from 2007 of Experiment 2 in this measurement. Equivalent sample numbers were used in measurements in Figure , Figure , and Figure .
![Figure 1. (A) The relationship between grain weight per hill and H15-ave. And (B) the relationship between fertility and average (black circle), maximum (white square) and minimum (white triangle) temperature (Lur, Citation2009). **P value < .01. *Because the grains of the samples collected in 2007 of Experiment 1 were cracked in the process of polishing, we only used the samples from 2008 of Experiment 1 and samples from 2007 of Experiment 2 in this measurement. Equivalent sample numbers were used in measurements in Figure 2, Figure 3, and Figure 6.](/cms/asset/9fcf046d-f86d-4bc7-8546-325ab8a2dd53/tpps_a_1128091_f0001_b.gif)
Table 2. P value of correlation between rice quality and temperature conditions.
Figure 2. The relationship between H15-ave and perfect grain ratio (black circle) or chalky grain ratio (white square). **P value < .01.
![Figure 2. The relationship between H15-ave and perfect grain ratio (black circle) or chalky grain ratio (white square). **P value < .01.](/cms/asset/e954a9b9-f31f-4bdc-8294-978086f643a6/tpps_a_1128091_f0002_b.gif)
Figure 3. The relationship between H15-ave and (A) grain length; (B) grain width; (C) grain length/width ratio. **P value < .01.
![Figure 3. The relationship between H15-ave and (A) grain length; (B) grain width; (C) grain length/width ratio. **P value < .01.](/cms/asset/868ee3dd-eb8d-4ad6-baac-07f82d60759f/tpps_a_1128091_f0003_b.gif)
Figure 4. The relationship between H15-ave and RVA characters: (A) Peak viscosity; (B) Breakdown; (C) Setback. *P value < .05; ***P value < .001.
![Figure 4. The relationship between H15-ave and RVA characters: (A) Peak viscosity; (B) Breakdown; (C) Setback. *P value < .05; ***P value < .001.](/cms/asset/5892f949-164f-4c7a-9328-d53f441799e2/tpps_a_1128091_f0004_b.gif)
Figure 5. The difference between rice quality in 2010 and 2011. n = 16. H15-ave were 26 °C and 30 °C in 2010 and 2011, respectively. H15-ave is the average temperature from 0–15 days after heading. The temperature data of H15-ave were collected from Central Weather Bureau.
![Figure 5. The difference between rice quality in 2010 and 2011. n = 16. H15-ave were 26 °C and 30 °C in 2010 and 2011, respectively. H15-ave is the average temperature from 0–15 days after heading. The temperature data of H15-ave were collected from Central Weather Bureau.](/cms/asset/b2c4de81-7263-4362-b9cf-3e0149e34af4/tpps_a_1128091_f0005_b.gif)
Figure 6. The relationship between grain length/width ratio and perfect grain ratio (black circle) or chalky grain ratio (white square). *P value < .05; **P value < .01.
![Figure 6. The relationship between grain length/width ratio and perfect grain ratio (black circle) or chalky grain ratio (white square). *P value < .05; **P value < .01.](/cms/asset/da1700a7-b284-40ab-964c-e5262807568c/tpps_a_1128091_f0006_b.gif)