Abstract:
Various embodiments of the present disclosure are directed towards an integrated chip. The integrated chip includes a semiconductor substrate having a device substrate overlying a handle substrate and an insulator layer disposed between the device substrate and the handle substrate. A gate electrode overlies the device substrate between a drain region and a source region. A conductive via extends through the device substrate and the insulator layer to contact the handle substrate. A first isolation structure is disposed within the device substrate and comprises a first isolation segment disposed laterally between the gate electrode and the conductive via. A contact region is disposed within the device substrate between the first isolation segment and the conductive via. A conductive gate electrode directly overlies the first isolation segment and is electrically coupled to the contact region.
Abstract:
Various embodiments of the present disclosure are directed towards an integrated chip. The integrated chip includes a semiconductor substrate having a device substrate overlying a handle substrate and an insulator layer disposed between the device substrate and the handle substrate. A gate electrode overlies the device substrate between a drain region and a source region. A conductive via extends through the device substrate and the insulator layer to contact the handle substrate. A first isolation structure is disposed within the device substrate and comprises a first isolation segment disposed laterally between the gate electrode and the conductive via. A contact region is disposed within the device substrate between the first isolation segment and the conductive via. A conductive gate electrode directly overlies the first isolation segment and is electrically coupled to the contact region.
Abstract:
A high voltage semiconductor device includes: a source having a first conductivity type and a drain having the first conductivity type disposed in a substrate; a first dielectric component disposed on a surface of the substrate between the source and the drain; a drift region disposed in the substrate, wherein the drift region has the first conductivity type; a first doped region having a second conductivity type and disposed within the drift region under the dielectric component, the second conductivity type being opposite the first conductivity type; a second doped region having the second conductivity type and disposed within the drift region, wherein the second doped region at least partially surrounds one of the source and the drain; a resistor disposed directly on the dielectric component; and a gate disposed directly on the dielectric component, wherein the gate is electrically coupled to the resistor.
Abstract:
The present disclosure provides a method of manufacturing a gas sensor. The method includes the following operations: a substrate is received; a conductor layer is formed over the substrate; the conductor layer is patterned to form a conductor with a plurality of openings by an etching operation, the openings being arranged in a repeating pattern, a minimal dimension of the opening being about 4 micrometers; and a gas-sensing film is formed over the conductor.
Abstract:
Some embodiments of the present disclosure provide a gas sensor in an IOT. The gas sensor includes a substrate, a conductor disposed above the substrate, and a sensing film disposed over the conductor. The conductor has a top-view pattern including a plurality of openings, a minimal dimension of the opening being less than about 4 micrometer; and a perimeter enclosing the opening. Some embodiments of the present disclosure provide a method of manufacturing a gas sensor. The method includes receiving a substrate; forming a conductor, over the substrate; patterning the conductor to form a plurality of openings in the conductor by an etching operation, and forming a gas-sensing film over the conductor. The openings are arranged in a repeating pattern, and a minimal dimension of the opening being about 4 micrometer.
Abstract:
A semiconductor device configured to provide increased current gain comprises a semiconductor substrate having a first conductivity type. The device also comprises a first semiconductor region having a second conductivity type. The device further comprises a second semiconductor region in the first semiconductor region to having the first conductivity type. The device additionally comprises a third semiconductor region in the first semiconductor region having the second conductivity type. The device also comprises a fourth semiconductor region outside the first semiconductor region having the first conductivity type. The device further comprises a fifth semiconductor region outside the first semiconductor region adjacent the fourth semiconductor region and having the second conductivity type. The device additionally comprises a first electrode electrically connected to the third semiconductor region. The device further comprises a second electrode electrically connected to the fourth semiconductor region and to the fifth semiconductor region.
Abstract:
Various embodiments of the present disclosure are directed towards an integrated chip. The integrated chip includes a first well region, a second well region, and a third well region disposed within a semiconductor substrate. The second well region is disposed between the first and second well regions. A first source/drain region is in the first well region. A second source/drain region is in the second well region. A gate structure is on the semiconductor substrate and spaced laterally between the first and second source/drain regions. A contact region is disposed in the third well region. A conductive structure is on the semiconductor substrate and spaced laterally between the second source/drain region and the contact region.
Abstract:
A semiconductor device includes a semiconductor substrate. A first semiconductor region is over a portion of the semiconductor substrate to a first depth. A second semiconductor region is in the first semiconductor region. A third semiconductor region is in the first semiconductor region. A fourth semiconductor region is outside the first semiconductor region. A fifth semiconductor region is outside the first semiconductor region to a fifth depth, the fifth semiconductor region being adjacent the fourth semiconductor region. A sixth semiconductor region is below the fifth semiconductor region and to a sixth depth. The sixth depth is equal to the first depth. A first electrode is connected to the third semiconductor region. A second electrode is connected to the fourth and fifth semiconductor regions. The fifth semiconductor region is configured to cause an increase in a current during a cathode to anode positive bias operation between the first and second electrodes.
Abstract:
The present disclosure provides a gas sensor. The gas sensor includes a substrate, a conductor layer over the substrate, wherein the conductor layer includes a conductive pattern including a plurality of openings, the openings being arranged in a repeating pattern, an insulating layer in the plurality of openings and over a top surface of the conductive pattern, wherein the conductive pattern is embedded in the insulating layer, and a gas sensing film over a portion of the insulating layer.
Abstract:
A semiconductor device configured to provide high heat dissipation and improve breakdown voltage comprises a substrate, a buried oxide layer over the substrate, a buried n+ region in the substrate below the buried oxide layer, and an epitaxial layer over the buried oxide layer. The epitaxial layer comprises a p-well, an n-well, and a drift region between the p-well and the n-well. The semiconductor device also comprises a source contact, a first electrode electrically connecting the source contact to the p-well, and a gate over a portion of the p-well and a portion of the drift region. The semiconductor device further comprises a drain contact, and a second electrode extending from the drain contact through the n-well and through the buried oxide layer to the buried n+ region. The second electrode electrically connects the drain contact to the n-well and to the buried n+ region.