Abstract: A pasteurization system includes at least a temperature sensor, a control signal generator, and a processor structured to record a stream of temperatures as well as their associated times of recordation, and to cause the control signal generator to generate a control signal based on the recorded temperatures.

Abstract: A pasteurization system including a flow sensor connected to a pasteurization tube to determine a flow rate of the food substance, a temperature sensor connected to the pasteurization tube to determine a temperature of the food substance, and a processor. The processor receives the flow rate from the flow sensor, receives the temperature from the temperature sensor, selects either a flow rate threshold from a plurality of flow rate thresholds based on the temperature received from the temperature sensor, each flow rate threshold associated with a respective temperature or a temperature threshold from a plurality of temperature thresholds based on the flow rate received from the flow sensor, each temperature threshold associated with a respective flow rate, and compares the selected flow rate threshold or the temperature threshold to the respective flow fate or the respective temperature, and determines a position of a valve based on the comparison.

Abstract: A sensor assembly includes a replaceable sensor module and an assembly housing. The assembly housing contains an assembly housing processor and an electrical connector connected to the processor. The replaceable sensor module has an enclosure adapted to be mounted in a position to sense a process variable, a process variable transducer positioned in said enclosure so as to be exposed to the process variable, and a non-volatile memory having stored therein specific profiling data for the sensor module. The assembly housing processor has data representing a desired sensor assembly output characteristic, and is responsive to receipt of specific profiling data and to the data representing the desired sensor assembly output characteristic to calibrate the sensor assembly to provide the desired sensor assembly output characteristic when connected to the sensor module having the specified profiling data. Radial and axial seals are provided for the openings in the assembly housing.

Abstract: A sensor assembly includes a replaceable sensor module and an assembly housing. The assembly housing contains an assembly housing processor and an electrical connector connected to the processor. The replaceable sensor module has an enclosure adapted to be mounted in a position to sense a process variable, a process variable transducer positioned in said enclosure so as to be exposed to the process variable, and a non-volatile memory having stored therein specific profiling data for the sensor module. The assembly housing processor has data representing a desired sensor assembly output characteristic, and is responsive to receipt of specific profiling data and to the data representing the desired sensor assembly output characteristic to calibrate the sensor assembly to provide the desired sensor assembly output characteristic when connected to the sensor module having the specified profiling data. Radial and axial seals are provided for the openings in the assembly housing.

Abstract: A sensor assembly includes a replaceable sensor module and an assembly housing. The assembly housing contains an assembly housing processor and an electrical connector connected to the processor. The replaceable sensor module has an enclosure adapted to be mounted in a position to sense a process variable, a process variable transducer positioned in said enclosure so as to be exposed to the process variable, and a non-volatile memory having stored therein specific profiling data for the sensor module. The assembly housing processor has data representing a desired sensor assembly output characteristic, and is responsive to receipt of specific profiling data and to the data representing the desired sensor assembly output characteristic to calibrate the sensor assembly to provide the desired sensor assembly output characteristic when connected to the sensor module having the specified profiling data. Radial and axial seals are provided for the openings in the assembly housing.

Abstract: A light scattering photometer signal-enhancement systems includes an adaptive sample and subtract circuit controlled by a computer or microcontroller (MCU). The MCU controls the gain of a programmable-gain amplifier (PGA) cascade that is used to amplify the raw photometer signal. In order to maintain the DC accuracy, the DC offset contained in the raw signal from the photometer is estimated by an algorithmic within the MCU and then subtracted from the raw signal before allowing it to be amplified by the PGA cascade. In addition to DC estimation and adaptive cancellation, the MCU applies a digital filtering scheme to compensate irrelevant frequency bands in the amplified signal and offers user determined averaging functions for additional signal conditioning. Moreover, hardware filters are used to prevent signal aliasing by the analog to digital converters (ADC) and a 60 Hz notch filter suppresses general electrical noise.

Abstract: A light scattering photometer signal-enhancement systems includes an adaptive sample and subtract circuit controlled by a computer or microcontroller (MCU). The MCU controls the gain of a programmable-gain amplifier (PGA) cascade that is used to amplify the raw photometer signal. In order to maintain the DC accuracy, the DC offset contained in the raw signal from the photometer is estimated by an algorithmic within the MCU and then subtracted from the raw signal before allowing it to be amplified by the PGA cascade. In addition to DC estimation and adaptive cancellation, the MCU applies a digital filtering scheme to compensate irrelevant frequency bands in the amplified signal and offers user determined averaging functions for additional signal conditioning. Moreover, hardware filters are used to prevent signal aliasing by the analog to digital converters (ADC) and a 60 Hz notch filter suppresses general electrical noise.

Abstract: A light scattering photometer signal-enhancement systems includes an adaptive sample and subtract circuit controlled by a computer or microcontroller (MCU). The MCU controls the gain of a programmable-gain amplifier (PGA) cascade that is used to amplify the raw photometer signal. In order to maintain the DC accuracy, the DC offset contained in the raw signal from the photometer is estimated by an algorithmic within the MCU and then subtracted from the raw signal before allowing it to be amplified by the PGA cascade. In addition to DC estimation and adaptive cancellation, the MCU applies a digital filtering scheme to compensate irrelevant frequency bands in the amplified signal and offers user determined averaging functions for additional signal conditioning. Moreover, hardware filters are used to prevent signal aliasing by the analog to digital converters (ADC) and a 60 Hz notch filter suppresses general electrical noise.