Abstract: A vertical conduction electronic power device includes a body delimited by a first and a second surface and having an epitaxial layer of semiconductor material, and a substrate. The epitaxial layer is delimited by the first surface of the body and the substrate is delimited by the second surface of the body. The epitaxial layer houses at least a first and a second conduction region having a first type of doping and a plurality of insulated-gate regions, which extend within the epitaxial layer. The substrate has at least one silicide region, which extends starting from the second surface of the body towards the epitaxial layer.

Abstract: A supercapacitor including: a shell; a chamber in the shell; a first electrode and a second electrode on respective walls of the chamber; and a separator arranged between the first electrode and the second electrode through the chamber. The separator includes a first perforated membrane and a second perforated membrane, which is movable with respect to the first membrane between a first position, in which the first membrane and the second membrane are separate and a second position, in which the first membrane and the second membrane are in contact and coupled for rendering the separator impermeable.

Abstract: An integrated circuit chip attachment in a microstructure device is accomplished through the use of an adhesive-based material in which graphene flakes are incorporated. This results in superior thermal conductivity. The spatial orientation of the graphene flakes is controlled, for example by adhering polar molecules to the graphene flakes and exposing the flakes to an external force field, so that the graphene flakes have desired orientations under the integrated circuit chip, alongside of the integrated circuit chip and above the integrated circuit chip.

Abstract: A supercapacitor including: a shell; a chamber in the shell; a first electrode and a second electrode on respective walls of the chamber; and a separator arranged between the first electrode and the second electrode through the chamber. The separator includes a first perforated membrane and a second perforated membrane, which is movable with respect to the first membrane between a first position, in which the first membrane and the second membrane are separate and a second position, in which the first membrane and the second membrane are in contact and coupled for rendering the separator impermeable.

Abstract: An integrated circuit chip attachment in a microstructure device is accomplished through the use of an adhesive-based material in which graphene flakes are incorporated. This results in superior thermal conductivity. The spatial orientation of the graphene flakes is controlled, for example by adhering polar molecules to the graphene flakes and exposing the flakes to an external force field, so that the graphene flakes have desired orientations under the integrated circuit chip, alongside of the integrated circuit chip and above the integrated circuit chip.

Abstract: An integrated circuit chip attachment in a microstructure device is accomplished through the use of an adhesive-based material in which graphene flakes are incorporated. This results in superior thermal conductivity. The spatial orientation of the graphene flakes is controlled, for example by adhering polar molecules to the graphene flakes and exposing the flakes to an external force field, so that the graphene flakes have desired orientations under the integrated circuit chip, alongside of the integrated circuit chip and above the integrated circuit chip.

Abstract: A microfluidic device for nucleic acid analysis includes a monolithic semiconductor body (13), a microfluidic circuit (10), at least partially accommodated in the monolithic semiconductor body (13), and a micropump (11). The microfluidic circuit (10) includes a sample preparation channel (18) formed on the monolithic semiconductor body (13) and at least one microfluidic channel (20, 22) buried in the monolithic semiconductor body (13). The micropump (11), includes a plurality of sealed chambers (40) provided with respective openable sealing elements (41) and having a first pressure therein that is different from a second pressure in the microfluidic circuit (10). In addition, the micropump (11) and the microfluidic circuit (10) are configured so that opening the openable sealing elements (41) provides fluidic coupling between the respective chambers (40) and the microfluidic circuit (10). The openable sealing elements (41) are integrated in the monolithic semiconductor body (13).

Abstract: A microfluidic device for nucleic acid analysis includes a monolithic semiconductor body (13), a microfluidic circuit (10), at least partially accommodated in the monolithic semiconductor body (13), and a micropump (11). The microfluidic circuit (10) includes a sample preparation channel (18) formed on the monolithic semiconductor body (13) and at least one microfluidic channel (20, 22) buried in the monolithic semiconductor body (13). The micropump (11), includes a plurality of sealed chambers (40) provided with respective openable sealing elements (41) and having a first pressure therein that is different from a second pressure in the microfluidic circuit (10). In addition, the micropump (11) and the microfluidic circuit (10) are configured so that opening the openable sealing elements (41) provides fluidic coupling between the respective chambers (40) and the microfluidic circuit (10). The openable sealing elements (41) are integrated in the monolithic semiconductor body (13).