........ Pressure transducer is a device that converts an input (pressure p) into an electrical output signal (voltage U). The pressure drop [kPa] across a valve in a water pumping system was measured with a pressure transducer that provides a voltage signal [mV]. Below are the results of a calibration measurement for the transducer: U [mV]p [kPa] 16 93 2 13 170 24 247 35 303 43 Your task: a) Based on the calibration measurement results, form a linear model U = K p+a for the pressure p to voltage U relationship of the pressure transducer. U = P+ Create a straight-line model in units [kPa] and [mV] b) Determine the transducer nonlinearity (in millivolts) when the transducer pressure is 27 kPa and the output signal is 193 mV. Nonlinearity is mV c) Find nonlinearity at 27 kPa as a percentage of span % of output span.
........ Pressure transducer is a device that converts an input (pressure p) into an electrical output signal (voltage U). The pressure drop [kPa] across a valve in a water pumping system was measured with a pressure transducer that provides a voltage signal [mV]. Below are the results of a calibration measurement for the transducer: U [mV]p [kPa] 16 93 2 13 170 24 247 35 303 43 Your task: a) Based on the calibration measurement results, form a linear model U = K p+a for the pressure p to voltage U relationship of the pressure transducer. U = P+ Create a straight-line model in units [kPa] and [mV] b) Determine the transducer nonlinearity (in millivolts) when the transducer pressure is 27 kPa and the output signal is 193 mV. Nonlinearity is mV c) Find nonlinearity at 27 kPa as a percentage of span % of output span.
Introductory Circuit Analysis (13th Edition)
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![........ Pressure transducer is a device that converts an input (pressure p) into an electrical output signal (voltage U). The
pressure drop [kPa] across a valve in a water pumping system was measured with a pressure transducer that provides a voltage
signal [mV].
Below are the results of a calibration measurement for the transducer:
U [mV]p [kPa]
16 2
93
13
170 24
247 35
303 43
Your task:
a) Based on the calibration measurement results, form a linear model U = K p+a for the pressure p to voltage U relationship
of the pressure transducer.
U =
•P+
Create a straight-line model in units [kPa] and [mV]
b) Determine the transducer nonlinearity (in millivolts) when the transducer pressure is 27 kPa and the output signal is 193 mV.
Nonlinearity is
mV
c) Find nonlinearity at 27 kPa as a percentage of span
% of output span.
Task 3:](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F03b55663-b578-4a7f-a1ac-acd4888ca633%2F8e7c33d3-c1a5-4c85-8c7a-ec86dd0ef407%2Fl09rr_processed.jpeg&w=3840&q=75)
Transcribed Image Text:........ Pressure transducer is a device that converts an input (pressure p) into an electrical output signal (voltage U). The
pressure drop [kPa] across a valve in a water pumping system was measured with a pressure transducer that provides a voltage
signal [mV].
Below are the results of a calibration measurement for the transducer:
U [mV]p [kPa]
16 2
93
13
170 24
247 35
303 43
Your task:
a) Based on the calibration measurement results, form a linear model U = K p+a for the pressure p to voltage U relationship
of the pressure transducer.
U =
•P+
Create a straight-line model in units [kPa] and [mV]
b) Determine the transducer nonlinearity (in millivolts) when the transducer pressure is 27 kPa and the output signal is 193 mV.
Nonlinearity is
mV
c) Find nonlinearity at 27 kPa as a percentage of span
% of output span.
Task 3:
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