Abstract:
The present disclosure provides, in accordance with some illustrative embodiments, a capacitor structure comprising an active region formed in a semiconductor substrate, a MOSFET device comprising source and drain regions formed in the active region and a gate electrode formed above the active region, and a first electrode and a second electrode formed in a metallization layer above the MOSFET device, wherein the first electrode is electrically connected with the source and drain regions via respective source and drain contacts and the second electrode is electrically connected with the gate electrode via a gate contact.
Abstract:
A semiconductor die is provided with an optical transmitter configured to transmit an optical signal to another die and an optical receiver configured to receive an optical signal from another die. Furthermore, a method of forming a semiconductor device is provided including forming a first semiconductor die with the steps of providing a semiconductor substrate, forming a transistor device at least partially over the semiconductor substrate, forming an optical receiver one of at least partially over and at least partially in the semiconductor substrate, forming a metallization layer over the transistor device, and forming an optical transmitter one of at least partially over the metallization layer and at least partially in the metallization layer.
Abstract:
A method of controlling temperature in a semiconductor device that includes a stacked device configuration is disclosed. The method includes providing a Peltier element having a metal-based heat sink formed above a first substrate of the stacked device configuration and a metal-based heat source formed above a second substrate of the stacked device configuration, and establishing a current flow through the Peltier element when the semiconductor device is in a specified operating phase.
Abstract:
A method for fabricating an integrated circuit includes providing a semiconductor substrate with a pad layer overlying the semiconductor substrate and a photoresist layer overlying the pad layer, exposing the photoresist layer to a split laser beam to form a plurality of parallel linear void regions in the photoresist layer, and etching the pad layer and the semiconductor substrate beneath the plurality of parallel linear void regions to form a plurality of extended parallel linear void regions. The method further includes depositing a first dielectric material over the semiconductor substrate, patterning a photoresist material over the semiconductor substrate to cover a portion of the semiconductor substrate, and etching portions of the pad layer, the first dielectric material, and the semiconductor substrate. Still further, the method includes depositing a second dielectric material into the second void regions.
Abstract:
A method of controlling temperature in a semiconductor device that includes a stacked device configuration is disclosed. The method includes providing a Peltier element having a metal-based heat sink formed above a first substrate of the stacked device configuration and a metal-based heat source formed above a second substrate of the stacked device configuration, and establishing a current flow through the Peltier element when the semiconductor device is in a specified operating phase.
Abstract:
Storage transistors for flash memory areas in semiconductor devices may be provided on the basis of a self-aligned charge storage region. To this end, a floating spacer element may be provided in some illustrative embodiments, while, in other cases, the charge storage region may be efficiently embedded in the electrode material in a self-aligned manner during a replacement gate approach. Consequently, enhanced bit density may be achieved, since additional sophisticated lithography processes for patterning the charge storage region may no longer be required.
Abstract:
In illustrative embodiments disclosed herein, a logic element may be provided on the basis of a non-volatile storage mechanism, such as ferroelectric transistor elements, wherein the functional behavior may be adjusted or programmed on the basis of a shift of threshold voltages. To this end, a P-type transistor element and an N-type transistor element may be connected in parallel, while a ferroelectric material may be used so as to establish a first polarization state resulting in a first functional behavior and a second polarization state resulting in a second different functional behavior. For example, the logic element may enable a switching between P-type transistor behavior and N-type transistor behavior depending on the polarization state.
Abstract:
A method includes forming a first material stack above a first transistor region, a second transistor region, and a dummy gate region of a semiconductor structure, the first material stack including a high-k material layer and a workfunction adjustment metal layer. The first material stack is patterned to remove a first portion of the first material stack from above the dummy gate region while leaving second portions of the first material stack above the first and second transistor regions. A gate electrode stack is formed above the first and second transistor regions and above the dummy gate region, and the gate electrode stack and the remaining second portions of the first material stack are patterned to form a first gate structure above the first transistor region, a second gate structure above the second transistor region, and a dummy gate structure above the dummy gate region.
Abstract:
A method of manufacturing a semiconductor device is provided which includes providing a semiconductor layer having a first area and a second area separated from the first area by an isolation structure, forming a protection layer on the isolation structure, forming at least partly a memory device in and on the first area, removing the protection layer, and forming a field effect transistor (FET) in and over the second area after the removal of the protection layer.
Abstract:
The present disclosure relates to a semiconductor structure comprising a resistor, at least part of the resistor forming a meandering shape in a vertical direction with respect to a substrate of the semiconductor structure. The disclosure further relates to a semiconductor manufacturing process comprising a step for realizing at least one first fin, and a step for realizing a resistor comprising a meandering shape in a vertical direction based on the at least one first fin.