Embodiments of the disclosure disclose a transistor with floating gate electrode, a manufacturing method thereof, an application method thereof and a display driving circuit. The transistor with floating gate electrode includes a substrate (1), and a floating gate electrode (3), a source electrode (4), a drain electrode (5) and a control gate electrode (6) disposed on the substrate (1). The transistor with floating gate electrode further comprises a first insulating film (7) and a polysilicon film (8) that are sequentially disposed on the substrate (1), and a channel region (2) is formed in the polysilicon film (8) at a position corresponding to the floating gate electrode (3).

A memory device has first and second memory cells in and over a substrate. A first doped region is in a first active region. A top surface of the first active region is substantially coplanar with a top surface of the first doped region. A control gate is over the first doped region and extends over a first side of the first doped region and over a second side of the first doped region. A charge storage layer is between the first control gate and the first active region including between the first select gate and the first doped region. A first select gate is over the first active region on the first side of the first doped region and adjacent to the control gate. A second select gate is over the first active region on the second side of the first doped region and adjacent to the control gate.

A method includes forming a selection gate and a control gate for a flash memory cell in a memory device region. The selection gate and the control gate are over a semiconductor substrate. A protection layer is formed to cover the selection gate and the control gate. Stacked layers are formed in a logic device region, wherein the stacked layers extend to overlap the selection gate and the control gate. The stacked layers are patterned to form a gate stack for a logic device in the logic device region. After the patterning, an etching step is performed to etch a residue of the stacked layers in a boundary region of the memory device region. After the etching step, the protection layer is removed from the memory device region. Source and drain regions are formed for each of the flash memory cell and the logic device.

Provided is a semiconductor structure including a substrate, a first gate, a second gate, a third gate and an inter-gate dielectric layer. The substrate has a first area and a second area, and the first surface of the first area is lower than the second surface of the second area. The first gate is disposed on the first surface of the first area. The second gate includes metal and is disposed on the first gate. The inter-gate dielectric layer is disposed between the first and second gates. The third gate includes metal and is disposed on the second surface of the second area. A method of foaming a semiconductor structure is further provided.

A semiconductor memory cell includes a floating body region configured to be charged to a level indicative of a state of the memory cell; a first region in electrical contact with said floating body region; a second region in electrical contact with said floating body region and spaced apart from said first region; and a gate positioned between said first and second regions. The cell may be a multi-level cell. Arrays of memory cells are disclosed for making a memory device. Methods of operating memory cells are also provided.

An apparatus comprises a nanowire having a channel region, a gate structure surrounding a lower portion of the channel region, wherein the gate structure comprises a first dielectric layer comprising a vertical portion and a horizontal portion, a first workfunction metal layer over the first dielectric layer comprising a vertical portion and a horizontal portion and a low-resistivity metal layer over the first workfunction metal layer, wherein an edge of the low-resistivity metal layer and an edge of the vertical portion of the first workfunction metal layer are separated by a dielectric region and the low-resistivity metal layer is electrically coupled to the vertical portion of the first workfunction metal layer through the horizontal portion of the first workfunction metal layer.

A method for manufacturing a semiconductor device includes forming an SGT in a semiconductor pillar on a semiconductor substrate and forming a wiring semiconductor layer so as to contact a side surface of an impurity region present in a center portion of the semiconductor pillar or a side surface of a gate conductor layer. A first alloy layer formed in a side surface of the wiring semiconductor layer is directly connected to the impurity region and the gate conductor layer and is connected to an output wiring metal layer through a contact hole formed on an upper surface of a second alloy layer formed in an upper surface and the side surface of the wiring semiconductor layer.

A semiconductor nonvolatile memory element is used to form a constant current source in a semiconductor integrated circuit device. The semiconductor nonvolatile memory element includes a control gate electrode, a floating gate electrode, source/drain terminals, a thin first gate insulating film, and a second gate insulating film that is thick enough not to be broken down even when a voltage higher than an operating voltage of the semiconductor integrated circuit device is applied thereto, the first and second gate insulating films being formed below the control gate electrode. Thus, provided is a normally on type semiconductor nonvolatile memory element in which a threshold voltage can be regulated through injection of a large amount of charge with respect to the operating voltage from a drain terminal into the floating gate electrode via the second gate insulating film, and injected carriers do not leak in an operating voltage range.

Devices and methods for forming a device are disclosed. The device includes a substrate with a device region having a length and a width direction. An isolation region surrounds the device region of which an isolation edge abuts the device region. A transistor is disposed in the device region. The transistor includes a gate disposed between first and second source/drain (S/D) regions. A silicide block is disposed on the transistor. The silicide block covers at least the isolation edge adjacent to the gate. The silicide block prevents formation of a silicide contact at least at the isolation edge adjacent to the gate.

In some examples, a fluid ejection device includes a substrate and a memory cell on the substrate, the memory cell including a first dielectric layer, a floating gate, a second dielectric layer, and a control gate. The memory cell includes a channel region between a drain region and a source region. The first dielectric layer is over the channel region and the floating gate is capacitively coupled to the channel region through the first dielectric layer. The floating gate includes a polysilicon layer, a metal layer, and a second dielectric layer between the polysilicon layer and the metal layer, where the second dielectric layer includes an opening through which the polysilicon layer is electrically connected to the metal layer.