Abstract: Remaining material on a material package and its location may be determined. First, image data associated with a material package may be received by a server. Next, material package data associated with the material package may be received. A Machine Learning (ML) model may then be used to determine an estimated remaining amount of material associated with the material package based upon input derived from the image data and the material package data.

Abstract: Remaining material on a material package and its location may be determined. First, image data associated with a material package may be received by a server. Next, material package data associated with the material package may be received. A Machine Learning (ML) model may then be used to determine an estimated remaining amount of material associated with the material package based upon input derived from the image data and the material package data.

Abstract: It may be determined that a material package has been used by determining that the material package has moved from a previously recorded location based upon location data corresponding to the material package and a beacon code. The location data may correspond to the material package and the beacon code being periodically reported by a beacon located proximate to the material package. Next, a weight of the material package that has been used subsequent to the material package being used may be received and, based upon the beacon code and in response to receiving the weight of the material package; the material database for a material package record may be queried. A remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material package record.

Abstract: It may be determined that a material package has been used by determining that the material package has moved from a previously recorded location based upon location data corresponding to the material package and a beacon code. The location data may correspond to the material package and the beacon code being periodically reported by a beacon located proximate to the material package. Next, a weight of the material package that has been used subsequent to the material package being used may be received and, based upon the beacon code and in response to receiving the weight of the material package; the material database for a material package record may be queried. A remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material package record.

Abstract: It may be determined that a material package has been used by determining that the material package has moved from a previously recorded location based upon location data corresponding to the material package and a beacon code. The location data may correspond to the material package and the beacon code being periodically reported by a beacon located proximate to the material package. Next, a weight of the material package that has been used subsequent to the material package being used may be received and, based upon the beacon code and in response to receiving the weight of the material package; the material database for a material package record may be queried. A remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material package record.

Abstract: Determining a remaining amount of material in a material package may be provided. First, a weight of the material package may be received in response to the ingress of the material package back into an operations area. Then, based upon a beacon code received in response to the ingress of the material package back into the operations area, a material database may be queried for a material package record. Next, a remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material database query. The material package record may then be updated in the material database with the calculated remaining amount of material corresponding to the material package.

Abstract: Vibration resistant cables containing a first conductor and a second conductor, each having a diameter d, are disclosed. The second conductor is twisted around the first conductor at a lay length between 3 feet and 6 feet to eliminate bagging of the vibration resistant cable during installation.

Abstract: A vibration resistant cable may be provided. The vibration resistant cable may comprise a first conductor and a second conductor. The first conductor and the second conductor may each have a diameter d. The second conductor may be twisted around the first conductor at a lay length determined as a function of the diameter d and may be configured to reduce relative movement of the first conductor and the second conductor that would result in bags in the vibration resistant cable.

Abstract: Vibration resistant cables containing a first conductor and a second conductor, each having a diameter d, are disclosed. The second conductor is twisted around the first conductor at a lay length between 3 feet and 6 feet to eliminate bagging of the vibration resistant cable during installation.

Abstract: It may be determined that a material package has been used by determining that the material package has moved from a previously recorded location based upon location data corresponding to the material package and a beacon code. The location data may correspond to the material package and the beacon code being periodically reported by a beacon located proximate to the material package. Next, a weight of the material package that has been used subsequent to the material package being used may be received and, based upon the beacon code and in response to receiving the weight of the material package; the material database for a material package record may be queried. A remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material package record.

Abstract: The present disclosure is generally directed towards calculating a remaining length of a cable on a cable reel. Generally, a first distance between a top edge of a first flange of the cable reel and a top portion of the cable remaining on the cable reel is received at a processor. A winding characterization indicating a configuration of the cable wound on the cable reel is also received at the processor. Dimensions of the cable reel are also received at the processor and include: a diameter of the first flange, a cable reel traverse distance, and a diameter of a drum of the cable reel. The cable reel traverse distance indicates a distance between the first and second flanges of the cable reel. The remaining length of the cable on the cable reel is calculated based on the first distance, the winding characterization, and the dimensions of the cable reel.

Abstract: A vibration resistant cable may be provided. The vibration resistant cable may comprise a first conductor and a second conductor. The first conductor and the second conductor may each have a diameter d. The second conductor may be twisted around the first conductor at a lay length determined as a function of the diameter d and may be configured to reduce relative movement of the first conductor and the second conductor that would result in bags in the vibration resistant cable.

Abstract: Vibration resistant cables containing a first conductor and a second conductor, each having a diameter d, are disclosed. The second conductor is twisted around the first conductor at a lay length between 3 feet and 6 feet to eliminate bagging of the vibration resistant cable during installation.

Abstract: Determining a remaining amount of material in a material package may be provided. First, a weight of the material package may be received in response to the ingress of the material package back into an operations area. Then, based upon a beacon code received in response to the ingress of the material package back into the operations area, a material database may be queried for a material package record. Next, a remaining amount of material corresponding to the material package may be calculated based upon the received weight and data from the material package record found from the material database query. The material package record may then be updated in the material database with the calculated remaining amount of material corresponding to the material package.

Abstract: A vibration resistant cable may be provided. The vibration resistant cable may comprise a first conductor and a second conductor. The first conductor and the second conductor may each have a diameter d. The second conductor may be twisted around the first conductor at a lay length determined as a function of the diameter d and may be configured to reduce relative movement of the first conductor and the second conductor that would result in bags in the vibration resistant cable.

Abstract: Vibration resistant cables containing a first conductor and a second conductor, each having a diameter d, are disclosed. The second conductor is twisted around the first conductor at a lay length between 3 feet and 6 feet to eliminate bagging of the vibration resistant cable during installation.

Abstract: An extrusion apparatus for extruding multiple streams of extrusion material as extruded end-products and in the coating of substrates. A flow joiner in an extrusion head combines multiple metered streams such as from a gear pump, into a uniform extrusion flow.

Abstract: A vibration resistant cable may be provided. The vibration resistant cable may comprise a first conductor and a second conductor. The first conductor and the second conductor may each have a diameter d. The second conductor may be twisted around the first conductor at a lay length determined as a function of the diameter d and may be configured to reduce relative movement of the first conductor and the second conductor that would result in bags in the vibration resistant cable.

Abstract: An electrical cable and a method for manufacturing the electrical cable are provided in which a plurality of insulated conductors have an inner protective layer extruded thereabout. A plurality of longitudinally extending ribs or fins or exterior ribbed or finned surfaces are formed outward of the inner protective layer between which exist a plurality of voids. An outer insulation layer can be formed in the same operation as the fins or ribbed surface and the inner layer or in a subsequent operation. A self-sealing elastomeric material is applied to the conductor surface or is present between the fins and between the inner protective layer and the outer insulation layer.

Abstract: An electrical cable and a method for manufacturing the electrical cable are provided in which a plurality of insulated conductors have an inner protective layer extruded thereabout. A plurality of longitudinally extending ribs or fins or exterior ribbed or finned surfaces are formed outward of the inner protective layer between which exist a plurality of voids. An outer insulation layer can be formed in the same operation as the fins or ribbed surface and the inner layer or in a subsequent operation. A self-sealing elastomeric material is applied to the conductor surface or is present between the fins and between the inner protective layer and the outer insulation layer.