Abstract: The present invention relates to the field of electronic devices, in particular implantable electronic devices, e.g. for bio-medical applications, and more particularly, to hermetically packaged electronic devices for bio-medical in vivo applications and packaging methods for such electronic devices.

Abstract: An integrated electronic component for broadband biasing that includes a monolithic substrate, a capacitor structure arranged in a trench network that extends into the substrate, and a continuous track of an electrically conducting material arranged in a crater that is formed in the substrate. The continuous track has one or several turns that have decreasing turn sections, and that are supported by a slanted peripheral wall of the crater for forming an inductor.

Abstract: An integrated electronic component for broadband biasing that includes a monolithic substrate, a capacitor structure arranged in a trench network that extends into the substrate, and a continuous track of an electrically conducting material arranged in a crater that is formed in the substrate. The continuous track has one or several turns that have decreasing turn sections, and that are supported by a slanted peripheral wall of the crater for forming an inductor.

Abstract: A 3D-capacitor structure that is based on a trench network etched from a top face of a substrate to form an array of separated pillars. The 3D-capacitor structure includes a double capacitor layer stack that extends continuously on top faces of the pillars at the substrate top face, on trench sidewalls and also on a trench bottom. The trench network is modified locally for contacting a second electrode of the double capacitor layer stack while ensuring that no unwanted short-circuit may occur between the second electrode and a third electrode of the double capacitor layer stack. The 3D-capacitor structure provides an improved trade-off between high capacitor density and certainty of no unwanted short-circuit.

Abstract: A 3D-capacitor structure that is based on a trench network etched from a top face of a substrate to form an array of separated pillars. The 3D-capacitor structure includes a double capacitor layer stack that extends continuously on top faces of the pillars at the substrate top face, on trench sidewalls and also on a trench bottom. The trench network is modified locally for contacting a second electrode of the double capacitor layer stack while ensuring that no unwanted short-circuit may occur between the second electrode and a third electrode of the double capacitor layer stack. The 3D-capacitor structure provides an improved trade-off between high capacitor density and certainty of no unwanted short-circuit.

Abstract: The invention relates to a capacitor structure (2) comprising a silicon substrate (4) with first and second sides (6, 8), a double double Metal Insulator Metal trench capacitor (10) including a basis electrode (12), an insulator layer (16, 20), a second and a third conductive layers (18, 22); and comprising a second pad (26) and a fourth pad (30) coupled to the basis electrode (12), a first pad (24) and a third pad (28) coupled together, the first pad (24) being located on the same substrate side than the second pad (26), the third pad (28) being located on the same substrate side than the fourth pad (30), the third pad (28) being coupled to the second conductive layer (18), said second conductive layer (18) being flush with or protruding from the opposite second side (8).

Abstract: The invention relates to a capacitor structure (2) comprising a silicon substrate (4) with first and second sides (6, 8), a double double Metal Insulator Metal trench capacitor (10) including a basis electrode (12), an insulator layer (16, 20), a second and a third conductive layers (18, 22); and comprising a second pad (26) and a fourth pad (30) coupled to the basis electrode (12), a first pad (24) and a third pad (28) coupled together, the first pad (24) being located on the same substrate side than the second pad (26), the third pad (28) being located on the same substrate side than the fourth pad (30), the third pad (28) being coupled to the second conductive layer (18), said second conductive layer (18) being flush with or protruding from the opposite second side (8).

Abstract: The invention relates to an interposer device comprising a doped silicon substrate (1) having an epitaxial layer (24) on a first side and two through vias (11, 12) extending from the first side to a second side opposite to the first side of the doped silicon substrate. Each through via comprises a volume of doped silicon substrate delimited by a surrounding trench (7) extending from the first to the second side of the doped silicon substrate such that said surrounding trench is arranged so as to electrically isolate the doped silicon substrate surrounded by said trench. First and second conductive layers (121, 122) are laid respectively on first and second sides of the first through via so as to be electrically connected together and third and fourth conductive layers (112, 11) are laid respectively on surfaces of the second through via so as to be electrically connected together.

Abstract: An interposer device The invention relates to an interposer device comprising a doped silicon substrate (1) having an epitaxial layer (24) on a first side and two through vias (11, 12) extending from the first side to a second side opposite to the first side of the doped silicon substrate. Each through via comprises a volume of doped silicon substrate delimited by a surrounding trench (7) extending from the first to the second side of the doped silicon substrate such that said surrounding trench is arranged so as to electrically isolate the doped silicon substrate surrounded by said trench. First and second conductive layers (121, 122) are laid respectively on first and second sides of the first through via so as to be electrically connected together and third and fourth conductive layers (112, 11) are laid respectively on surfaces of the second through via so as to be electrically connected together.