摘要:
In a method for producing a thyristor, first and second connection regions are formed on or above a substrate; the first connection region is doped with dopant atoms of a first conductivity type and the second connection region is doped with dopant atoms of a second conductivity type; first and second body regions are formed between the connection regions, wherein the first body region is formed between the first connection region and second body region, and the second body region is formed between the first body region and second connection region; the first body region is doped with dopant atoms of the second conductivity type and the second body region is doped with dopant atoms of the first conductivity type, wherein the dopant atoms are in each case introduced into the respective body region using a Vt implantation method; a gate region is formed on or above the body regions.
摘要:
In a method for producing a thyristor, first and second connection regions are formed on or above a substrate; the first connection region is doped with dopant atoms of a first conductivity type and the second connection region is doped with dopant atoms of a second conductivity type; first and second body regions are formed between the connection regions, wherein the first body region is formed between the first connection region and second body region, and the second body region is formed between the first body region and second connection region; the first body region is doped with dopant atoms of the second conductivity type and the second body region is doped with dopant atoms of the first conductivity type, wherein the dopant atoms are in each case introduced into the respective body region using a Vt implantation method; a gate region is formed on or above the body regions.
摘要:
In a method for producing an electronic component, a first doped connection region and a second doped connection region are formed on or above a substrate; a body region is formed between the first doped connection region and the second doped connection region; at least two gate regions separate from one another are formed on or above the body region; at least one partial region of the body region is doped by means of introducing dopant atoms, wherein the dopant atoms are introduced into the at least one partial region of the body region through at least one intermediate region formed between the at least two separate gate regions.
摘要:
According to one embodiment of the present invention, an ESD protection element for use in an electrical circuit is provided, including a plurality of diodes which are connected in series with one another and which are formed in a contiguous active area, wherein the ESD protection element has a fin structure.
摘要:
An integrated circuit arrangement includes a Shockley diode or a thyristor. An inner region of the diode or of the thyristor is completely or partially shielded during the implantation of a p-type well. This gives rise to a Shockley diode or a thyristor having improved electrical properties, in particular with regard to the use as an ESD protection element.
摘要:
A circuit arrangement including a capacitor in an n-type well is disclosed. A specific polarization of the capacitor ensures that a depletion zone arises in the well and the capacitor has a high ESD strength. An optionally present auxiliary doping layer ensures a high area capacitance of the capacitor despite high ESD strength.
摘要:
A gate controlled fin resistance element for use as an electrostatic discharge (ESD) protection element in an electrical circuit has a fin structure having a first connection region, a second connection region and a channel region formed between the first and second connection regions. Furthermore, the fin resistance element has a gate region formed at least over a part of the surface of the channel region. The gate region is electrically coupled to a gate control device, which gate control device controls an electrical potential applied to the gate region in such a way that the gate controlled fin resistance element has a high electrical resistance during a first operating state of the electrical circuit and a lower electrical resistance during a second operating state, which is characterized by the occurrence of an ESD event.
摘要:
A MOS transistor includes a drain zone, a source zone, and a gate electrode. Doping atoms of the first conductivity type are implanted in the region of the drain zone and the source zone by at least two further implantation steps such that a pn junction between the drain zone and a substrate region is vertically shifted and a voltage ratio of the MOS transistor between a lateral breakdown voltage and a vertical breakdown voltage can be set.
摘要:
A gate controlled fin resistance element for use as an electrostatic discharge (ESD) protection element in an electrical circuit has a fin structure having a first connection region, a second connection region and a channel region formed between the first and second connection regions. Furthermore, the fin resistance element has a gate region formed at least over a part of the surface of the channel region. The gate region is electrically coupled to a gate control device, which gate control device controls an electrical potential applied to the gate region in such a way that the gate controlled fin resistance element has a high electrical resistance during a first operating state of the electrical circuit and a lower electrical resistance during a second operating state, which is characterized by the occurrence of an ESD event.
摘要:
The present invention creates an operating method for a semiconductor component having a substrate; having a conductive polysilicon strip which is applied to the substrate; having a first and a second electrical contact which are connected to the conductive polysilicon strip such that this forms an electrical resistance in between them; with the semiconductor component being operated reversibly in a current/voltage range in which it has a first differential resistance (Rdiff1) up to a current limit value (It) corresponding to an upper voltage limit value (Vt) and, at current values greater than this, has a second differential resistance (Rdiff2), which is less than the first differential resistance (Rdiff1).