摘要:
In one embodiment, a first transistor is configured to switch ON to discharge accumulated charges on an interconnect line during a metallization process. This advantageously protects a second transistor, which is coupled to the interconnect line, from charge buildup. The gate of the first transistor may be coupled to the interconnect line by way of a coupling capacitor. The gate of the first transistor may remain floating during the metallization process, and subsequently coupled to ground at a topmost metal level. The metallization process may be physical vapor deposition, for example.
摘要:
A molecular device is provided. The molecular device comprises a junction formed by a pair of crossed electrodes where a first electrode is crossed by a second electrode at a non-zero angle and at least one connector species including at least one switchable moiety and connecting the pair of crossed electrode in the junction. The junction has a functional dimension ranging in size from microns to nanometers. The molecular device further includes a buffer layer comprising nanocrystals interposed between the connector species and the second electrode.
摘要:
A method of fabricating a semiconductor device includes depositing a dielectric film and subjecting the dielectric film to a wet oxidation in a rapid thermal process chamber. The technique can be used, for example, in the formation of various elements in an integrated circuit, including gate dielectric films as well as capacitive elements. The tight temperature control provided by the RTP process allows the wet oxidation to be performed quickly so that the oxidizing species does not diffuse significantly through the dielectric film and diffuse into an underlying layer. In the case of capacitive elements, the technique also can help reduce the leakage current of the dielectric film without significantly reducing its capacitance.
摘要:
A method for fabricating a semiconductor device includes the steps of depositing an amorphous silicon layer on a substrate, and forming an oxidation film on a surface of the amorphous silicon layer by treating the surface of the amorphous silicon layer with an oxidation gas. The forming step occurs before crystallization of the amorphous silicon layer.
摘要:
A shielding structure (10) and method of formation. The shielding structure (10) has a substrate (12). A first dielectric layer (14) overlies the substrate (12). A conductive layer (16) is formed overlying the dielectric layer (14), is patterned, and is etched to form electrically isolated conductive regions from conductive layer (16). The electrically isolated conductive regions have sidewalls and the etching of conductive layer (16) exposes portions of dielectric layer (14). The exposed portions of dielectric layer (14) are etched to form trenched portions of dielectric layer (14). A second dielectric layer (18) is formed overlying the electrically isolated conductive regions, including the sidewalls, and overlying the trenched portions to create recessed regions that separate the electrically isolated conductive regions. A shielding conductive layer (20) is formed overlying dielectric layer (18) and at least partially fills the recessed regions to shield the electrically isolated conductive regions from each another.
摘要:
The present invention discloses a light-receiving element, and method for making same, for a charge storage light sensor having a first semiconductor later of a first conductive type with an element isolation region disposed thereon. The element isolation regions are formed to produce tilted edges embedded within the first semiconductor layer and to also produce an embedded region of a second conductive type. The embedded region is effective to collect the photoelectric current resulting from light exposure to the first semiconductor layer regions upon the application of a reverse bias potential to the embedded region.
摘要:
A shielding structure (10) and method of formation. The shielding structure (10) has a substrate (12). A first dielectric layer (14) overlies the substrate (12). A conductive layer (16) is formed overlying the dielectric layer (14), is patterned, and is etched to form electrically isolated conductive regions from conductive layer (16). The electrically isolated conductive regions have sidewalls and the etching of conductive layer (16) exposes portions of dielectric layer (14). The exposed portions of dielectric layer (14) are etched to form trenched portions of dielectric layer (14). A second dielectric layer (18) is formed overlying the electrically isolated conductive regions, including the sidewalls, and overlying the trenched portions to create recessed regions that separate the electrically isolated conductive regions. A shielding conductive layer (20) is formed overlying dielectric layer (18) and at least partially fills the recessed regions to shield the electrically isolated conductive regions from each another.
摘要:
In a method of forming an integrated circuit array having a capacitance formed by a pn-junction and separated from other components by a pn-junction, semiconductor areas are provided which connect that zone of the two semiconductor zones forming the pn-junction of the capacitance that extends deeper into the semiconductor element than the other of the two semiconductor zones forming the pn-junction of the capacitance electrically to that zone of the two semiconductor zones forming the separating pn-junction that faces away from the capacitance.
摘要:
An integrated circuit and process for making it wherein a decoupling capacitor is provided beneath devices in the surface of the integrated circuit by the formation of a first epitaxial layer between an N substrate having a P zone diffused therein and an N device-containing epitaxial layer. A P channel diffusion to the P zone formed in the substrate will serve as a damping resistor in combination with the coupling capacitor. The process for forming such a decoupling capacitor in an integrated circuit comprises, inter alia, diffusing P impurities into the substrate to form a large junction which will subsequently function as a decoupling capacitor. A first intrinsic, P or N epitaxial layer is then grown on the semiconductor substrate. Subsequently, an N epitaxial layer is grown on the first epitaxial layer. A P channel is then driven through the N epitaxial layer and the first epitaxial layer to contact the P diffused zone which serves as the decoupling capacitor. This P channel diffusion will serve as a damping resistor in combination with the decoupling capacitor. Device diffusion, i.e., transistors, resistors, etc., will take place into the N epitaxial layer, and during growth of the epitaxial layers the P zone will significantly outdiffuse into the first epitaxial layer. Appropriate channels, isolations and contacts are also provided.
摘要:
A PROCESS FOR MAKING SEMICONDUCTOR BODIES, SAID BODIES HAVING POWER CONNECTIONS AND DECOUPLING MEANS INTERNAL THERETO, SAID CONNECTIONS CONPRISING DIFFUSED LOW RESISTANCE SEMICONDUCTOR REGIONS, WHEREIN SAID PROCESS COMPRISES THE STEPS OF FORMING THE LOW RESISTANCE REGIONS AND THE DECOUPLING MEANS BY A SERIES OF DIFFUSIONS INCLUDING CONTROLLED OUT-DIFFUSIONS.