Abstract: A method and system collects and manipulates information from various sources for the purpose of determining the location of loads of material in a bulk material storage container and tracing the number and identity of bulk material sources, such as farms or processing plants, for loads located within a bulk material storage container. Such production source information is thus uniquely associated with a particular non-liquid bulk material load. Surface mapping of a surface of bulk material stored in a storage container is performed before and after material is added to the container, and are used to determine position of loads within the storage container. Embodiments of the present invention, using knowledge of the position of loads within the container, may be used for the purposes of preplanning and enhancing blended load-out batches.

Abstract: A method and system collects and manipulates information from various sources for the purpose of determining the location of loads of material in a bulk material storage container and tracing the number and identity of bulk material sources, such as farms or processing plants, for loads located within a bulk material storage container. Such production source information is thus uniquely associated with a particular non-liquid bulk material load. Surface mapping of a surface of bulk material stored in a storage container is performed before and after material is added to the container, and are used to determine position of loads within the storage container. Embodiments of the present invention, using knowledge of the position of loads within the container, may be used for the purposes of preplanning and enhancing blended load-out batches.

Abstract: Bulk material measurement packages are described including the preferred embodiment of an automated instrument package (AIP) suited to mount on the inside ceiling of a large silo. The gimbaled AIP vertical mounting bracket rotates in an approximate 360° azimuth. An instrument housing is mounted to the vertical mounting bracket, and it rotates approximately 190° in a vertical plane. The instrument housing has at least one range finding sensor such as a scanning laser to measure the top surface contours of the bulk material. The instrument housing can also contains other sensors such as air and quality instruments including temperature, humidity, spectral recognition sensor to detect grain/material type and/or flow rate, gas detectors for sniffing off-odors/spoilage/or safety problems, and live video. Optionally grain penetrating radar (GPR), time domain reflectometry (TDR), ultrasonics, and portable sensors are taught as well as alternate packaging.

Abstract: Bulk material measurement packages are described including the preferred embodiment of an automated instrument package (AIP) suited to mount on the inside ceiling of a large silo. The gimbaled AIP vertical mounting bracket rotates in an approximate 360° azimuth. An instrument housing is mounted to the vertical mounting bracket, and it rotates approximately 190° in a vertical plane. The instrument housing has at least one range finding sensor such as a scanning laser to measure the top surface contours of the bulk material. The instrument housing can also contains other sensors such as air and quality instruments including temperature, humidity, spectral recognition sensor to detect grain/material type and/or flow rate, gas detectors for sniffing off-odors/spoilage/or safety problems, and live video. Optionally grain penetrating radar (GPR), time domain reflectometry (TDR), ultrasonics, and portable sensors are taught as well as alternate packaging.