Abstract: An encapsulation cover for an electronic package includes a cover body having a frontal wall provided with at least one optical element allowing light to pass through. The optical element is inserted into the encapsulation cover by overmolding into a through-passage of the frontal wall. A front face of the optical element is set back with respect to a front face of the frontal wall. The process for fabricating the encapsulation cover includes forming a stack of a sacrificial spacer on top of an optical element, with the stack placed into a cavity of a mold.

Abstract: An encapsulation cover for an electronic package is formed by a first cover body and a second cover body. The first and second cover bodies are assembled together by a bonding material. Frontal walls of the first and second cover bodies are superposed and include through-passages that facing one another and are provided with optical elements allowing light to pass through. At least one surface of the frontal walls of the first and second cover bodies includes void containing the bonding material.

Abstract: A microchip has a rear face attached to a front mounting face of a support plate. An encapsulation cover for the microchip is mounted to the support plate. The encapsulation cover includes a front wall, a peripheral wall extending from the front wall and an inside partition extending from the front wall and between opposite sides of the peripheral wall. The inside partition passes locally above the microchip to delimit two cavities. A bonding material is interposed between encapsulation cover and the support plate and microchip. An end part of the inside partition of the cover, adjacent to the front face of the microchip, include an accumulation and containment recess that is configured to at least partly receive the bonding material.

Abstract: Disclosed herein is an electronic device including a substrate having a conductive area formed thereon. A first molding level is stacked on the substrate. A die is formed on the substrate and within the first molding level. A second molding level is stacked on the first molding level. At least one passive component is within the second molding level. A conductive structure extends between the second molding level and the substrate and electrically couples the at least one passive component to the conductive area.

Abstract: An electronic device includes a first support platelet and a second support platelet that is disposed opposite and at a distance from the first support platelet. At least one first electronic chip is mounted on the first support platelet on a side facing the second support platelet. A second electronic chip is mounted on the second support platelet on a side facing the first support platelet. A heat sink that includes at least one interposition plate is interposed between the first and second electronic chips.

Abstract: A substrate board includes an electrical connection network on a face thereof. An integrated-circuit chip is mounted to the face of the substrate board in electrical contact with the electrical connection network. A local reinforcing or balancing layer made of a non-metallic material is mounted to the face of the substrate board in at least one local zone free of the face which is free of metal portions of the electrical connection network.

Abstract: An electronic system includes a first electronic device (with a first integrated-circuit chip) and a second electronic device (with a second integrated-circuit chip). The second electronic device is stacked above the first electronic device on a same side as the first integrated-circuit chip. Electrical connection elements located around the first integrated-circuit chip electrically connected to the second electronic device to the first electronic device. A metal plate configured for heat capture and transfer extends between the first and second electronic devices. The metal plate includes through-passages aligned to permit the electrical connection elements to pass at a distance.

Abstract: An electronic component package includes a support and heat conductor. The heat conductor has a protuberance and the support has a socket arranged to be able to receive the protuberance so that the movement of heat conductor relative to the support during the assembly process is reduced.

Abstract: An electronic system includes a first electronic device (with a first integrated-circuit chip) and a second electronic device (with a second integrated-circuit chip). The second electronic device is stacked above the first electronic device on a same side as the first integrated-circuit chip. Electrical connection elements located around the first integrated-circuit chip electrically connected to the second electronic device to the first electronic device. A metal plate configured for heat capture and transfer extends between the first and second electronic devices. The metal plate includes through-passages aligned to permit the electrical connection elements to pass at a distance.

Abstract: A substrate board includes an electrical connection network on a face thereof. An integrated-circuit chip is mounted to the face of the substrate board in electrical contact with the electrical connection network. A local reinforcing or balancing layer made of a non-metallic material is mounted to the face of the substrate board in at least one local zone free of the face which is free of metal portions of the electrical connection network.

Abstract: A semiconductor package includes a block for encapsulating a microchip and its electrical connection wires. The encapsulating block has at least one front recess disposed on top of the microchip. A thermally conducting filling material fills the front recess so as to form a thermal via. A radiating structure is attached over the encapsulating block and in thermal communication with the thermal via.

Abstract: Sterile products contained in a container (10) are transferred into a sterile isolator (12) by connecting the container onto a lock (28) fitted on the outside of the isolator (12) and equipped with a pulsed light sterilization device (28). The connection between the lock (28) and the isolator (12) is made by a sealed double door transfer device. The throwaway container is equipped with a plug type closer (16), cutout from the inside of the isolator (12) after sterilizing the volume (40) inside the lock (28) and opening the double door (24, 38).

Abstract: A tight transfer device (10) between two sterile volumes (12, 14), of the double door or port type (22, 26), is equipped with a decontamination system (44) using ultraviolet, pulsed ultraviolet or pulsed light radiation, of the facing points of the gaskets (30, 36) ensuring the necessary sealing action. This decontamination system (44) is integrated into one (20) of the flanges of the transfer device. It comprises a collar (46) made from a material able to diffuse radiation, as well as optical fibers (48), whereof one end is mounted on said collar. The other end of the optical fibers (48) is connected to a radiation source. When the source is used, the radiation, routed by fibers (48) over the entire periphery of the collar (46), diffuse into the same towards the points of the gaskets (30, 36) to be decontaminated.