摘要:
The present invention provides a semiconductor device capable of improving subthreshold characteristics of a PMOS transistor that is included in a thinned base layer and bonded to another substrate, a production method of such a semiconductor device, and a display device. The semiconductor device of the present invention is a semiconductor device, including: a substrate; and a device part bonded to the substrate, the device part including a base layer and a PMOS transistor, the PMOS transistor including a first electrical conduction path and a first gate electrode, the first electrical conduction path being provided inside the base layer on a side where the first gate electrode is disposed.
摘要:
To prevent bubbles from occurring along a transfer interface, the present method includes the steps of: forming a peeled layer 10 in a transferred member 6 by implanting a peeled-layer forming substance into the transferred member 6; forming a planar surface in the transferred member 6 by planarizing a surface of the transferred member 6; forming a composite including the transferred member 6 and a glass substrate 2 by directly combining the transferred member 6 via the planar surface with a surface of the glass substrate 2; and peeling a part of the transferred member 6 from the composite along the peeled layer 10 serving as an interface by heat-treating the composite.
摘要:
To prevent bubbles from occurring along a transfer interface, the present method includes the steps of: forming a peeled layer 10 in a transferred member 6 by implanting a peeled-layer forming substance into the transferred member 6; forming a planar surface in the transferred member 6 by planarizing a surface of the transferred member 6; forming a composite including the transferred member 6 and a glass substrate 2 by directly combining the transferred member 6 via the planar surface with a surface of the glass substrate 2; and peeling a part of the transferred member 6 from the composite along the peeled layer 10 serving as an interface by heat-treating the composite.
摘要:
An active matrix substrate includes a glass substrate, a driver portion formed on the glass substrate in a protruding state, a stepped portion formed along a surface of the driver portion and a surface of the glass substrate, an insulating reentrant-angle compensating film formed on a surface of the stepped portion, for compensating for at least a part of a reentrant-angle shape of the stepped portion, and a wiring layer formed along a surface of the reentrant-angle compensating film and connected to the driver portion.
摘要:
An active matrix substrate includes a glass substrate, a driver portion formed on the glass substrate in a protruding state, a stepped portion formed along a surface of the driver portion and a surface of the glass substrate, an insulating reentrant-angle compensating film formed on a surface of the stepped portion, for compensating for at least a part of a reentrant-angle shape of the stepped portion, and a wiring layer formed along a surface of the reentrant-angle compensating film and connected to the driver portion.
摘要:
A method for fabricating a semiconductor device according to the present invention is a method for fabricating a semiconductor device including a substrate layer including a plurality of first regions each having an active region and a plurality of second regions each being provided between adjacent ones of the first region. The fabrication method includes an isolation insulation film formation step of forming an isolation insulation film in each of the second regions so that a surface of the isolation insulation film becomes at the same height as that of a surface of a gate oxide film covering the active region, a peeling layer formation step of forming a peeling layer by ion-implanting hydrogen into the substrate layer after the isolation insulation film formation step, and a separation step of separating part of the substrate layer along the peeling layer.
摘要:
In fabricating a semiconductor device, an element forming surface formation step of forming a plurality of element forming surfaces of different heights on a semiconductor layer to have different levels, a semiconductor element formation step of forming a plurality of semiconductor elements and, one in each of a corresponding number of regions of the semiconductor layer, each region including an associated one of the plurality of element forming surfaces, a level-difference compensation insulating film formation step of forming a level-difference compensation insulating film on the semiconductor layer to cover the semiconductor elements and have a surface with different levels along the element forming surfaces, a release layer formation step of forming a release layer in the semiconductor layer by ion-implanting a peeling material through the level-difference compensation insulating film into the semiconductor layer, and a separation step of separating part of the semiconductor layer along the release layer are performed.
摘要:
The present invention provides a semiconductor substrate, which comprises a singlecrystalline Si substrate which includes an active layer having a channel region, a source region, and a drain region, the singlecrystalline Si substrate including at least a part of a device structure not containing a well-structure or a channel stop region; a gate insulating film formed on the singlecrystalline Si substrate; a gate electrode formed on the gate insulating film; a LOCOS oxide film whose thickness is more than a thickness of the gate insulating film, the LOCOS oxide film being formed on the singlecrystalline Si substrate by surrounding the active layer; and an insulating film formed over the gate electrode and the LOCOS oxide film. On this account, on fabricating the semiconductor device having a high-performance integration system by forming the non-singlecrystalline Si semiconductor element and the singlecrystalline Si semiconductor element on the large insulating substrate, the process for making the singlecrystalline Si is simplified. Further, the foregoing arrangement provides a semiconductor substrate and a fabrication method thereof, which ensures device isolation of the minute singlecrystalline Si semiconductor element without highly-accurate photolithography, when the singlecrystalline Si semiconductor element is transferred onto the large insulating substrate.
摘要:
The present invention provides a semiconductor substrate, which comprises a singlecrystalline Si substrate which includes an active layer having a channel region, a source region, and a drain region, the singlecrystalline Si substrate including at least a part of a device structure not containing a well-structure or a channel stop region; a gate insulating film formed on the singlecrystalline Si substrate; a gate electrode formed on the gate insulating film; a LOCOS oxide film whose thickness is more than a thickness of the gate insulating film, the LOCOS oxide film being formed on the singlecrystalline Si substrate by surrounding the active layer; and an insulating film formed over the gate electrode and the LOCOS oxide film. On this account, on fabricating the semiconductor device having a high-performance integration system by forming the non-singlecrystalline Si semiconductor element and the singlecrystalline Si semiconductor element on the large insulating substrate, the process for making the singlecrystalline Si is simplified. Further, the foregoing arrangement provides a semiconductor substrate and a fabrication method thereof, which ensures device isolation of the minute singlecrystalline Si semiconductor element without highly-accurate photolithography, when the singlecrystalline Si semiconductor element is transferred onto the large insulating substrate.
摘要:
This invention provides a semiconductor device having a semiconductor element that has low-resistance and a stable contact connection, even when the wiring is connected from the side of the single-crystal silicon layer on which the impurity concentration is lower. This invention provides a semiconductor device comprising, on a substrate, a semiconductor device having a single-crystal semiconductor film and a wiring connected to the single-crystal semiconductor film, and in the single-crystal semiconductor film, an impurity concentration on one surface side is different from an impurity concentration on another surface side, the wiring being connected to the surface side on which the impurity concentration is lower, the resistivity of a region of the single-crystal semiconductor film to which the wiring is connected being no less than 1 μΩcm and no more than 0.01 Ωcm.