Abstract: An electronic device includes a first electronic component and a second electronic. Each electronic component includes a carrier substrate having a back side and a front side, an electronic chip including an integrated optical element, an overmolded transparent block encapsulating the electronic chip above the carrier substrate, and electrical connections between the electronic chip and electrical contacts of the carrier substrate. An overmolded grid encapsulates and holds the first and second electronic components. The grid is configured so that sides of the first and second electronic components are at least partially exposed.

Abstract: The present description concerns a package for an electronic device. The package including a plate and a lateral wall, separated by a layer made of a bonding material and at least one region made of a material configured to form in the region an opening between the inside and the outside of the package when the package is heated.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated in a transparent block. An opaque conductive layer is applied to a top surface and a side surface of the transparent block. The receiver is mounted to the opaque conductive layer at the top surface. An electrical connection is made between the receiver and the opaque conductive layer. A conductive strip is also mounted to the side surface of the transparent block and isolated from the opaque conductive layer. A further electrical connection is made between the receiver and the conductive strip.

Abstract: The present description concerns a package for an electronic device. The package including a plate and a lateral wall, separated by a layer made of a bonding material and at least one region made of a material configured to form in the region an opening between the inside and the outside of the package when the package is heated.

Abstract: An electronic device includes a first electronic component and a second electronic. Each electronic component includes a carrier substrate having a back side and a front side, an electronic chip including an integrated optical element, an overmolded transparent block encapsulating the electronic chip above the carrier substrate, and electrical connections between the electronic chip and electrical contacts of the carrier substrate. An overmolded grid encapsulates and holds the first and second electronic components. The grid is configured so that sides of the first and second electronic components are at least partially exposed.

Abstract: An electronic device includes a first electronic component and a second electronic. Each electronic component includes a carrier substrate having a back side and a front side, an electronic chip including an integrated optical element, an overmolded transparent block encapsulating the electronic chip above the carrier substrate, and electrical connections between the electronic chip and electrical contacts of the carrier substrate. An overmolded grid encapsulates and holds the first and second electronic components. The grid is configured so that sides of the first and second electronic components are at least partially exposed.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated in a transparent block. An opaque conductive layer is applied to a top surface and a side surface of the transparent block. The receiver is mounted to the opaque conductive layer at the top surface. An electrical connection is made between the receiver and the opaque conductive layer. A conductive strip is also mounted to the side surface of the transparent block and isolated from the opaque conductive layer. A further electrical connection is made between the receiver and the conductive strip.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated in a transparent block. An opaque conductive layer is applied to a top surface and a side surface of the transparent block. The receiver is mounted to the opaque conductive layer at the top surface. An electrical connection is made between the receiver and the opaque conductive layer. A conductive strip is also mounted to the side surface of the transparent block and isolated from the opaque conductive layer. A further electrical connection is made between the receiver and the conductive strip.

Abstract: An opaque dielectric carrier and confinement substrate is formed by a stack of layers laminated on each other. The stack includes a solid back layer and a front frame having a peripheral wall and an intermediate partition which delimits two cavities located on top of the solid back layer and on either side of the intermediate partition. Electronic integrated circuit (IC) chips are located inside the cavities and mounted on top of the solid back layer. Each IC chip includes an integrated optical element. Electrical connections are provided between the IC chips and back electrical contacts of the solid back layer. Transparent encapsulation blocks are molded in the cavities to embed the IC chips.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated within a first encapsulation layer, and the receiver is encapsulated within a second encapsulation layer. An opaque layer covers the first encapsulation layer (encapsulating the receiver) and covers the second encapsulation layer (encapsulating the emitter). The first and second encapsulation layers are separated by a region of opaque material. This opaque material may be provided by the opaque layer or an opaque fill.

Abstract: The present description concerns a package for an electronic device. The package including a plate and a lateral wall, separated by a layer made of a bonding material and at least one region made of a material configured to form in the region an opening between the inside and the outside of the package when the package is heated.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated within a first encapsulation layer, and the receiver is encapsulated within a second encapsulation layer. An opaque layer covers the first encapsulation layer (encapsulating the receiver) and covers the second encapsulation layer (encapsulating the emitter). The first and second encapsulation layers are separated by a region of opaque material. This opaque material may be provided by the opaque layer or an opaque fill.

Abstract: An optoelectronic device includes an emitter of light rays and a receiver of light rays. The emitter is encapsulated in a transparent block. An opaque conductive layer is applied to a top surface and a side surface of the transparent block. The receiver is mounted to the opaque conductive layer at the top surface. An electrical connection is made between the receiver and the opaque conductive layer. A conductive strip is also mounted to the side surface of the transparent block and isolated from the opaque conductive layer. A further electrical connection is made between the receiver and the conductive strip.

Abstract: An electronic device includes a first electronic component and a second electronic. Each electronic component includes a carrier substrate having a back side and a front side, an electronic chip including an integrated optical element, an overmolded transparent block encapsulating the electronic chip above the carrier substrate, and electrical connections between the electronic chip and electrical contacts of the carrier substrate. An overmolded grid encapsulates and holds the first and second electronic components. The grid is configured so that sides of the first and second electronic components are at least partially exposed.

Abstract: An opaque dielectric carrier and confinement substrate is formed by a stack of layers laminated on each other. The stack includes a solid back layer and a front frame having a peripheral wall and an intermediate partition which delimits two cavities located on top of the solid back layer and on either side of the intermediate partition. Electronic integrated circuit (IC) chips are located inside the cavities and mounted on top of the solid back layer. Each IC chip includes an integrated optical element. Electrical connections are provided between the IC chips and back electrical contacts of the solid back layer. Transparent encapsulation blocks are molded in the cavities to embed the IC chips.

Abstract: An electronic package includes an integrated circuit chip mounted to a support plate and encapsulated by an encapsulating body. The package includes at least one weakening deep perforation. The perforation is formed in either the support plate or the encapsulating body, and functions to reduce a resistance of the package to bending stresses perpendicular to the support plate.

Abstract: An electronic package includes an integrated circuit chip mounted to a support plate and encapsulated by an encapsulating body. The package includes at least one weakening deep perforation. The perforation is formed in either the support plate or the encapsulating body, and functions to reduce a resistance of the package to bending stresses perpendicular to the support plate.

Abstract: An electronic package includes a substrate wafer having front and rear faces. An emitting integrated circuit chip is mounted to the front face of the substrate wafer and includes a light radiation optical emitter. A receiving integrated circuit chip is also mounted to the front face of the substrate wafer and includes at least one light radiation optical sensor. A transparent encapsulant extends above the optical sensor and the optical emitter. An opaque encapsulant encapsulates the transparent encapsulant. The opaque encapsulant has a front window situated above the optical emitter and which is offset laterally relative to the optical sensor. The transparent encapsulant accordingly has an uncovered front face situated above the optical emitter and offset laterally relative to the optical sensor. The opaque encapsulant may include an additional front window. The receiving integrated circuit chip further includes a second optical sensor situated opposite the additional front window.

Abstract: An electronic system includes a first integrated-circuit chip and a second integrated-circuit chip. A first substrate wafer is positioned between the first and second integrated-circuit chips and configured with a first connection network to make electrical connection to the first integrated-circuit chip. A second substrate wafer, configured with a second connection network to make electrical connection to the second integrated-circuit chip, is positioned facing the first substrate wafer. The connection networks of the first and second substrate wafers are electrically connected through connection structures. A third substrate wafer, including a third connection network, is thermally in contact with the first integrated-circuit chip and electrically connected to the first connection network of the first substrate wafer through further connection structures. The further connection structure may be formed using another substrate wafer.

Abstract: An electronic system includes a first integrated-circuit chip and a second integrated-circuit chip. A first substrate wafer is positioned between the first and second integrated-circuit chips and configured with a first connection network to make electrical connection to the first integrated-circuit chip. A second substrate wafer, configured with a second connection network to make electrical connection to the second integrated-circuit chip, is positioned facing the first substrate wafer. The connection networks of the first and second substrate wafers are electrically connected through connection structures. A third substrate wafer, including a third connection network, is thermally in contact with the first integrated-circuit chip and electrically connected to the first connection network of the first substrate wafer through further connection structures. The further connection structure may be formed using another substrate wafer.