Abstract: A panel type fan-out wafer level package with embedded film type capacitors and resistors is described. The package comprises a silicon die at a bottom of the package wherein a top side and lateral sides of the silicon die are encapsulated in a molding compound, at least one redistribution layer connected to the silicon die through copper posts contacting a top side of the silicon die, at least one embedded capacitor material (ECM) sheet laminated onto the package, and at least one embedded resistor-conductor material (RCM) sheet laminated onto the package wherein the at least one redistribution layer, capacitors in the at least one ECM, and resistors in the at least one RCM are electrically interconnected.

Abstract: In some implementations, a target object identification system may train a machine learning model to identify a target object in a volume of solid waste. The target object identification system may receive, from at least one imaging device positioned in a waste processing facility, imaging data associated with a portion of a volume of solid waste. The target object identification system may identify, using the trained machine learning model and based at least in part on the imaging data, the target object, wherein the target object is disposed within the volume of solid waste. The target object identification system may provide, to a separator control assembly that controls a separator, an output associated with the target object, wherein the output is to facilitate removal of the target object from the volume of solid waste.

Abstract: A computing architecture providing for rapid analysis and control of an environment via edge computing nodes is disclosed. Input data streams may be captured via one or more data stream independent CPU threads and prepared for processing by one or more machine learning models. The machine learning models may be trained according to different use cases to facilitate a multi-faceted and comprehensive analysis of the input data. The evaluation of the input data against the machine learning models may be facilitated via independent GPU threads (e.g., one thread per model or use case) and the outputs of the models may be evaluated using control logic to produce a set of outcomes and control data. The control data may be utilized to generate one or more command messages that may provide feedback to a remote device or user regarding a state of a monitored environment or other observed condition.

Abstract: A substrate is provided having a top side and a bottom side, having redistribution layers therein, having at least one copper pillar connected to the redistribution layers on the top side and at least one copper pillar connected to the redistribution layers on the bottom side, and having at least one cavity extending partially into the bottom side of the substrate. At least one passive component is mounted onto the copper pillar on the top side and embedded in a molding compound. At least one silicon die is mounted in the cavity wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers. At least one solder ball is mounted on the at least one copper pillar on the bottom side of the substrate to provide package output.

Abstract: In some implementations, a target object identification system may train a machine learning model to identify a target object in a volume of solid waste. The target object identification system may receive, from at least one imaging device positioned in a waste processing facility, imaging data associated with a portion of a volume of solid waste. The target object identification system may identify, using the trained machine learning model and based at least in part on the imaging data, the target object, wherein the target object is disposed within the volume of solid waste. The target object identification system may provide, to a separator control assembly that controls a separator, an output associated with the target object, wherein the output is to facilitate removal of the target object from the volume of solid waste.

Abstract: A panel type fan-out wafer level package with embedded film type capacitors and resistors is described. The package comprises a silicon die at a bottom of the package wherein a top side and lateral sides of the silicon die are encapsulated in a molding compound, at least one redistribution layer connected to the silicon die through copper posts contacting a top side of the silicon die, at least one embedded capacitor material (ECM) sheet laminated onto the package, and at least one embedded resistor-conductor material (RCM) sheet laminated onto the package wherein the at least one redistribution layer, capacitors in the at least one ECM, and resistors in the at least one RCM are electrically interconnected.

Abstract: A system in package is provided comprising an embedded trace substrate having redistribution layers therein, at least one passive component mounted on one side of the embedded trace substrate and embedded in a first molding compound, at least one silicon die mounted on an opposite side of the embedded trace substrate and embedded in a second molding compound wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers, and solder balls mounted through openings in the second molding layer to the redistribution layers wherein the solder balls provide package output.

Abstract: A panel type fan-out wafer level package with embedded film type capacitors and resistors is described. The package comprises a silicon die at a bottom of the package wherein a top side and lateral sides of the silicon die are encapsulated in a molding compound, at least one redistribution layer connected to the silicon die through copper posts contacting a top side of the silicon die, at least one embedded capacitor material (ECM) sheet laminated onto the package, and at least one embedded resistor-conductor material (RCM) sheet laminated onto the package wherein the at least one redistribution layer, capacitors in the at least one ECM, and resistors in the at least one RCM are electrically interconnected.

Abstract: A substrate is provided having a top side and a bottom side, having redistribution layers therein, having at least one copper pillar connected to the redistribution layers on the top side and at least one copper pillar connected to the redistribution layers on the bottom side, and having at least one cavity extending partially into the bottom side of the substrate. At least one passive component is mounted onto the copper pillar on the top side and embedded in a molding compound. At least one silicon die is mounted in the cavity wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers. At least one solder ball is mounted on the at least one copper pillar on the bottom side of the substrate to provide package output.

Abstract: At least one redistribution layer (RDL) is provided on a silicon die. A passivation layer is deposited on the RDL. First openings having a first diameter are etched in the passivation layer where copper posts are to be formed. A seed layer is deposited over the passivation layer and within the openings. A photoresist layer is coated on the seed layer and patterned to form second openings having a second diameter over the first openings larger than the first diameter. Copper is plated on the seed layer to form copper posts filling the second openings. The silicon die is die attached to a metal substrate. A lamination layer is coated over the silicon die and the copper posts. Third openings are formed through the lamination layer to the copper posts and to metal pads on the metal substrate. Metal vias are formed in the third openings.

Abstract: A substrate is provided having a top side and a bottom side, having redistribution layers therein, having at least one copper pillar connected to the redistribution layers on the top side and at least one copper pillar connected to the redistribution layers on the bottom side, and having at least one cavity extending partially into the bottom side of the substrate. At least one passive component is mounted onto the copper pillar on the top side and embedded in a molding compound. At least one silicon die is mounted in the cavity wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers. At least one solder ball is mounted on the at least one copper pillar on the bottom side of the substrate to provide package output.

Abstract: In an example, distance determination can utilize an electronic device including an infrared sensor to detect a thermal signature of a subject at a first location and a thermal signature of the subject at a second location, a distance sensor to determine a distance of the subject at the first location from the electronic device, and a controller to determine a physical size based on the determined distance and the thermal signature of the subject at the first location, and determine a distance of the subject at a second location based on the physical size and a thermal signature of the subject at the second location.

Abstract: A substrate is provided having a top side and a bottom side, having redistribution layers therein, having at least one copper pillar connected to the redistribution layers on the top side and at least one copper pillar connected to the redistribution layers on the bottom side, and having at least one cavity extending partially into the bottom side of the substrate. At least one passive component is mounted onto the copper pillar on the top side and embedded in a molding compound. At least one silicon die is mounted in the cavity wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers. At least one solder ball is mounted on the at least one copper pillar on the bottom side of the substrate to provide package output.

Abstract: A method for forming a wafer level chip scale package begins with providing an integrated circuit wafer. Applying a dielectric material to the surface of the integrated circuit wafer. A redistribution conductive layer is formed upon the dielectric material to make contact with the input/output contacts of the integrated circuit. A polymer-based film is applied to the surface of the integrated circuit wafer and is subjected to a compression molding process. Alignment marks are placed on the edge of the integrated circuit wafer. A laser ablation process is implemented to prepare through mold via (TMV) in the cured thermoset plastic material. The solder ball or copper pillar input/output connector is placed in the through mold via (TMV). A reflow process is instigated to connect the input/output connector to the redistribution conductive layer's pad surface.

Abstract: A system in package is provided comprising an embedded trace substrate having redistribution layers therein, at least one passive component mounted on one side of the embedded trace substrate and embedded in a first molding compound, at least one silicon die mounted on an opposite side of the embedded trace substrate and embedded in a second molding compound wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers, and solder balls mounted through openings in the second molding layer to the redistribution layers wherein the solder balls provide package output.

Abstract: A system in package is provided comprising an embedded trace substrate having redistribution layers therein, at least one passive component mounted on one side of the embedded trace substrate and embedded in a first molding compound, at least one silicon die mounted on an opposite side of the embedded trace substrate and embedded in a second molding compound wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers, and solder balls mounted through openings in the second molding layer to the redistribution layers wherein the solder balls provide package output.

Abstract: A system in package is described comprising a substrate having a top side and a bottom side, having redistribution layers therein, and having a cavity extending partially into the top side of the substrate. At least one passive component is mounted on the top side of the substrate and into the cavity and embedded in a first molding compound. At least one silicon die is mounted on the bottom side of the substrate and embedded in a second molding compound wherein electrical connections are made between the at least one silicon die and the at least one passive component through the redistribution layers. Solder balls are mounted through openings in the second molding compound to the redistribution layers wherein the solder balls provide package output.

Abstract: At least one redistribution layer (RDL) is provided on a silicon die. A passivation layer is deposited on the RDL. First openings having a first diameter are etched in the passivation layer where copper posts are to be formed. A seed layer is deposited over the passivation layer and within the openings. A photoresist layer is coated on the seed layer and patterned to form second openings having a second diameter over the first openings larger than the first diameter. Copper is plated on the seed layer to form copper posts filling the second openings. The silicon die is die attached to a metal substrate. A lamination layer is coated over the silicon die and the copper posts. Third openings are formed through the lamination layer to the copper posts and to metal pads on the metal substrate. Metal vias are formed in the third openings.

Abstract: A method for forming a wafer level chip scale package begins with providing an integrated circuit wafer. Applying a dielectric material to the surface of the integrated circuit wafer. A redistribution conductive layer is formed upon the dielectric material to make contact with the input/output contacts of the integrated circuit. A polymer-based film is applied to the surface of the integrated circuit wafer and is subjected to a compression molding process. Alignment marks are placed on the edge of the integrated circuit wafer. A laser ablation process is implemented to prepare through mold via (TMV) in the cured thermoset plastic material. The solder ball or copper pillar input/output connector is placed in the through mold via (TMV). A reflow process is instigated to connect the input/output connector to the redistribution conductive layer's pad surface.

Abstract: A panel type fan-out wafer level package with embedded film type capacitors and resistors is described. The package comprises a silicon die at a bottom of the package wherein a top side and lateral sides of the silicon die are encapsulated in a molding compound, at least one redistribution layer connected to the silicon die through copper posts contacting a top side of the silicon die, at least one embedded capacitor material (ECM) sheet laminated onto the package, and at least one embedded resistor-conductor material (RCM) sheet laminated onto the package wherein the at least one redistribution layer, capacitors in the at least one ECM, and resistors in the at least one RCM are electrically interconnected.