Abstract: Embodiments of the present disclosure include systems and methods for determining shared exponent values for shared exponent floating point data types. A device may determine a shared global exponent value for a plurality of floating point numbers. The device may determine a sub exponent value from a plurality of candidate sub exponent values that minimizes a quantization error value determined based on a subset of the plurality of floating point numbers and a version of the subset of the plurality of floating point numbers quantized based on the shared global exponent and the sub exponent value. The determined sub exponent value is shared among the subset of the plurality of floating point numbers. The device may, based on the sub exponent value, represent the subset of the plurality of floating point numbers using a shared exponent floating point data type.

Abstract: A method of clearing a grain cleaning system of an agricultural combine is provided. The method includes the step of providing and directing a flow of high velocity air in a first direction about an inlet end of a cleaning shoe. The method further includes the step of monitoring the cleaning shoe in order to detect a change in an operational parameter of the cleaning shoe, wherein the operational parameter is one of a transient effect of a sieve of the cleaning shoe, a flow rate about and exit end of the cleaning shoe and a flow velocity about an exit end of the cleaning shoe. Further, the method includes the step of redirecting the flow of high velocity air about the inlet end of the cleaning shoe in a second direction in response to a detected change in the operational parameter.

Abstract: A method of clearing a grain cleaning system of an agricultural combine is provided. The method includes the step of providing and directing a flow of high velocity air in a first direction about an inlet end of a cleaning shoe. The method further includes the step of monitoring the cleaning shoe in order to detect a change in an operational parameter of the cleaning shoe, wherein the operational parameter is one of a transient effect of a sieve of the cleaning shoe, a flow rate about and exit end of the cleaning shoe and a flow velocity about an exit end of the cleaning shoe. Further, the method includes the step of redirecting the flow of high velocity air about the inlet end of the cleaning shoe in a second direction in response to a detected change in the operational parameter.

Abstract: A grain cleaning system of an agricultural combine directs a flow of high velocity air in a first direction about an inlet end of a cleaning shoe. The system further monitors the cleaning shoe in order to detect a change in an operational parameter of the cleaning shoe, wherein the operational parameter is one of a transient effect of a sieve of the cleaning shoe, a flow rate about and exit end of the cleaning shoe and a flow velocity about an exit end of the cleaning shoe. Further, the flow of high velocity air about the inlet end of the cleaning shoe can be redirected in a second direction in response to a detected change in the operational parameter.

Abstract: A grain cleaning system of an agricultural combine directs a flow of high velocity air in a first direction about an inlet end of a cleaning shoe. The system further monitors the cleaning shoe in order to detect a change in an operational parameter of the cleaning shoe, wherein the operational parameter is one of a transient effect of a sieve of the cleaning shoe, a flow rate about and exit end of the cleaning shoe and a flow velocity about an exit end of the cleaning shoe. Further, the flow of high velocity air about the inlet end of the cleaning shoe can be redirected in a second direction in response to a detected change in the operational parameter.