Prospective of Use of Phosphorus and Zinc at Tillering and Booting Stages of Rice
Farah Rasheed1*, Ana Aslam1, Muhammad Aftab1, Ghulam Sarwar2, Raheela Naz1, Hina Nazir3, Sadia Sultana1, Amina Kalsom1, Nisa Mukhtar1, Ifra Saleem1, Qudsia Nazir1, Muhammad Arfan-ul-Haq1, Abid Niaz4, Muhammad Arif1, Aamer Sattar1, Sarfraz Hussain5 and Adnan Rafique6
1Soil Chemistry Section, Institute of Soil Chemistry and Environmental Science, Ayub Agriculture Research Institute, Faisalabad, Punjab, Pakistan; 2College of Agriculture, University of Sargodha, Sargodha, Punjab, Pakistan; 3Soil and Water Testing Laboratory, Faisalabad, Punjab, Pakistan; 4Provincial Reference Fertilizer Testing Laboratory, Raiwind, Lahore, Punjab, Pakistan; 5Institute of Soil Chemistry and Environmental Sciences, Kala Shah Kaku, Punjab, Pakistan; 6Pesticide Quality Control Lab., Kala Shah Kaku, Lahore, Pakistan.
*Correspondence | Farah Rasheed, Soil Chemistry Section, Institute of Soil Chemistry and Environmental Science, Ayub Agriculture Research Institute, Faisalabad, Punjab, Pakistan; Emai:
[email protected]
Figure 1:
Mean temperature, relative humidity, rainfall and evapotranspiration for growing season of rice.
Figure 2:
Impact of P and Zn application on rice yield.
Figure 3:
Impact of P and Zn application on rice biomass.
Figure 4:
Impact of P and Zn application on rice grain phytic acid (%).
Figure 5:
Impact of P and Zn application on rice grain zinc (µg g-1)
Figure 6:
Impact of P and Zn application on rice grain phosphorus (%).
Figure 7:
P and Zn interaction at tillering stage.
Figure 9:
P and PA interaction at tillering stage.
Figure 10:
P and PA interaction at booting stage.
Figure 11:
Zn and PA interaction at tillering stage.
Figure 12:
Zn and PA interaction at booting stage.
Figure 13:
Impact of P and Zn application on rice crude protein (g).
Figure 14:
Impact of P and Zn application on rice crude fiber (%).
Figure 8:
P and Zn interaction at booting stage.