Abstract:
An inductor element is formed in a multiple layer lead structure including a lead, an insulative layer that insulates leads above and below, and a via provided in the insulative layer and connecting leads above and below wherein lead layers are multiply laminated layers, characterized in that: at least a portion of at least a pair of vertically adjacent leads are coiled leads; the coiled leads are connected in series, wherein current directions of vertically adjacent coiled leads are the same by a via provided on an end portion thereof, and form a serial inductance; and an inter-lead capacitance of the vertically adjacent coiled leads is larger than an inter-lead capacitance between other coiled leads formed in the same lead layer.
Abstract:
The present invention makes it possible to lower the on resistance of a semiconductor element without hindering the function of a diffusion prevention film in a semiconductor device having the semiconductor element that uses a wire in a wiring layer as a gate electrode and has a gate insulation film in an identical layer to the diffusion prevention film. A first wire and a gate electrode are embedded into the surface layer of an insulation layer comprising a first wiring layer. A diffusion prevention film is formed between the first wiring layer and a second wiring layer. A gate insulation film is formed by: forming a recess over the upper face of the diffusion prevention film in the region overlapping with the gate electrode and around the region; and thinning the part.
Abstract:
The present invention makes it possible to lower the on resistance of a semiconductor element without hindering the function of a diffusion prevention film in a semiconductor device having the semiconductor element that uses a wire in a wiring layer as a gate electrode and has a gate insulation film in an identical layer to the diffusion prevention film. A first wire and a gate electrode are embedded into the surface layer of an insulation layer comprising a first wiring layer. A diffusion prevention film is formed between the first wiring layer and a second wiring layer. A gate insulation film is formed by: forming a recess over the upper face of the diffusion prevention film in the region overlapping with the gate electrode and around the region; and thinning the part.
Abstract:
Disclosed is a semiconductor device provided with an active element in a multilayer interconnect layer and decreased in a chip area. A second interconnect layer is provided over a first interconnect layer. A first interlayer insulating layer is provided in the first interconnect layer. A semiconductor layer is provided in a second interconnect layer and in contact with the first interlayer insulating layer. A gate insulating film is provided over the semiconductor layer. A gate electrode is provided over the gate insulating film. At least two first vias are provided in the first interconnect layer and in contact by way of upper ends thereof with the semiconductor layer.
Abstract:
The deposition rate of a porous insulation film is increased, and the film strength of the porous insulation film is improved. Two or more organic siloxane raw materials each having a cyclic SiO structure as a main skeleton thereof, and having mutually different structures, are vaporized, and transported with a carrier gas to a reactor (chamber), and an oxidant gas including an oxygen atom is added thereto. Thus, a porous insulation film is formed by a plasma CVD (Chemical Vapor Deposition) method or a plasma polymerization method in the reactor (chamber). In the step, the ratio of the flow rate of the added oxidant gas to the flow rate of the carrier gas is more than 0 and 0.08 or less.
Abstract:
A circuit including an inverter is provided for a wiring layer.A semiconductor device is provided with a wiring layer circuit which is formed over an insulating film and includes at least one inverter element. The inverter is provided with a first transistor element and a resistance element which is connected to the first transistor via a connection node. The first transistor element is provided with a gate electrode which is embedded in an interlayer insulating film including the insulating film, a gate insulating film which is formed over the interlayer insulating film and the gate electrode, and a first semiconductor layer which is formed over the gate insulating film between a source electrode and a drain electrode. The resistance element is provided with a second semiconductor layer which functions as a resistance. The first semiconductor layer and the second semiconductor layer are formed in the same layer.
Abstract:
First, a porous insulating film 120 is formed using an organic silica raw material containing a hydrocarbon group. The hydrocarbon group contains, for example, an unsaturated carbon compound, but may contain a saturated carbon compound. The skeleton of the organic silica is, for example, cyclic organic silica. Next, the surface of the porous insulating film 120 is subjected to plasma processing by using a processing gas containing an inactive gas and a reducing gas. Subsequently, in the porous insulating film 120, a wiring trench 123 is formed and is embedded with wiring 124.
Abstract:
A semiconductor device includes a first insulating layer (interlayer insulating layer), a resistive element that is disposed over the first insulating layer (interlayer insulating layer) and at least a surface layer of which is a TaSiN layer, and an interlayer insulating layer disposed over the first insulating layer (interlayer insulating layer) and the resistive element. Multiple via plugs having ends coupled to the TaSiN layer are disposed in the interlayer insulating layer.
Abstract:
A semiconductor device containing a novel cyclosiloxane polymer showing electroconductivity or semiconductivity has a charge transport layer comprising a plasma polymer containing structural units (A) each having a transition metal as a central metal and structural units (B) each situated between structural units (A) adjacent to each other and having a cyclosiloxane skeleton. The charge transport layer is formed by plasma polymerization of an organic metal compound having the transition metal as the central metal and the cyclosiloxane compound in a reactor.