Submersible Deep-Well Test Column
Vertical water test riser (diameter 150 mm, depth 40 m) equipped with calibrated backpressure throttling valve.
Evaluate the electrical-to-hydraulic power conversion efficiency and water discharge rate of a solar PV-powered brushless submersible drip irrigation pump across varying solar irradiance power levels. Explore interactive farm machinery simulation, irrigation hydraulics, and agricultural engineering telemetry.
Ready to sample with Power P_el = 500 W.
Adjust Power P_el, then execute agricultural trial.
Agricultural engineering telemetry and biosystems states are evaluated rigorously using 64-bit IEEE 754 precision. Residuals reflect ordinary least-squares regression across successive observations. Continuous data structures support high-fidelity agricultural and environmental modeling.
The linear power relationship applies above the minimum cut-in threshold (P_elec ≥ 200 W). Evaluated on a 1.0 kW rated multistage centrifugal submersible pump with integrated MPPT BLDC motor controller pumping against a fixed total dynamic head H = 35.0 m. Electrical power input is varied from 200 W to 950 W.
Vertical water test riser (diameter 150 mm, depth 40 m) equipped with calibrated backpressure throttling valve.
1.0 kW submersible water pump with high-efficiency brushless DC permanent magnet motor.
Programmable DC power supply (0-150 V, 0-15 A) reproducing solar PV I-V curves across varying irradiance.
Measures continuous water discharge flow rate Q with 0.1% volumetric accuracy.
Monitors discharge head at pump outlet to compute exact total dynamic head (TDH) in meters.
Simultaneously logs array DC voltage, current, and true electrical power input to the MPPT controller.
Evaluate the electrical-to-hydraulic power conversion efficiency and water discharge rate of a solar PV-powered brushless submersible drip irrigation pump across varying solar irradiance power levels. Standardized parameter settings: 200, 350, 500, 650, 800, 950 W.
Submerge the pump assembly, purge air from the discharge column, and adjust the throttle valve to maintain constant 35.0 m total dynamic head.
Configure the programmable DC power supply to simulate the output of a 1.2 kWp solar PV array at an initial power level of 200 W.
Energize the motor controller and allow 3 minutes for the internal MPPT algorithm to track the optimum power voltage and stabilize pump RPM.
Record stabilized discharge flow rate Q (m³/h), delivery pressure head H (m), DC voltage V_dc, and current I_dc over a 5-minute sampling window.
Increment PV simulator power through 350, 500, 650, 800, and 950 W, repeating hydraulic power and telemetry logging at each step.
Calculate hydraulic power P_hyd = ρ · g · Q · H and plot against array electrical power P_elec, computing subsystem efficiency η_sys.
Points are your recorded observations. The solid regression line validates Solar PV Submersible Pump mathematical scaling.
| # | Array Electrical Power P_elec (W) | Hydraulic Output Power P_hyd (W) | Array electrical power P_elec (W) | Hydraulic power P_hyd (W) | Remove |
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