Abstract:
The invention relates to a low capacity multilayer varistor that consists of a ceramic body (1) and two connections (2, 3) that are applied on the ceramic body (1) at a distance to each other. Said ceramic body (1) is configured as a multilayer structure produced by film techniques and preferably comprises internal electrodes (4, 5) whose ends face each other with a gap (d).
Abstract:
The invention relates to a ceramic component comprising a ceramic base body (1) having at least four contact surfaces (5) which are arranged on opposite sides, a first ceramic protective layer (15) which is situated between the same, and a second ceramic protective layer (20) which is situated on at least two other opposite surfaces of the base body (1). Said first ceramic protective layer can be sintered at higher temperatures than the contact surfaces.
Abstract:
This invention relates to a ceramic multi-layered capacitor (1) which comprises a base body (2), which has ceramic layers (3), which are arranged to form a stack in a layer stacking direction (S), and first and second electrode layers (41, 42), which are arranged between the ceramic layers (3). The multi-layered capacitor (1) further comprises a first external contact (51), which is arranged on a first lateral face (61) of the base body (2) and is connected in an electrically conductive manner to the first electrode layers (41), and a second external contact (52), which is arranged on a second lateral face (62), opposite the first lateral face (61), of the base body (2) and is connected in an electrically conductive manner to the second electrode layers (42). The base body (2) has a width B along the layer stacking direction (S), a height H perpendicular to the first lateral face (61) and a length L perpendicular to the height H and perpendicular to the layer stacking direction (S), wherein the relationship B/H >= 0.2 applies for the ratio of width B to height H.
Abstract:
Ein Bauelement umfasst einen Bauelementkörper (1) und zumindest ein Anschlusselement (2) mit einem Kunststoffkörper (23), das über eine Metallschicht (3) mit dem Bauelementkörper (1) verbunden ist.
Abstract:
A method for increasing the ESD pulse stability of an electrical component is disclosed. An electrical component is pre-aged by means of an aging pulse generated by a pulse generator. The degradation of an electrical characteristic curve of the component by ESD pulses that occur during operation of the electrical component is improved by the pre-aging.
Abstract:
A method produces a component having a ceramic base body and contact surfaces on opposite sides of the ceramic base body. The method includes forming first protective layers on the opposite sides of the ceramic base body in regions not to be covered by the contact surfaces, forming second protective layers on opposite surfaces of the ceramic base body, sintering the ceramic base body with the first and second protective layers at a first temperature, forming the contact surfaces on the ceramic base body, and sintering the contact surfaces at a temperature that is lower than the first temperature.
Abstract:
An electric component arrangement is described, comprising a semiconductor component (1) and a varistor body (2), which is contact-connected to the semiconductor component in order to protect the latter against electrostatic discharges. The semiconductor component and the varistor body are arranged on a common carrier (3) containing a highly thermally conductive ceramic.
Abstract:
An electrical component includes stacked electrode layers arranged on a foundation. The stacked electrode layers include a first type of electrode layer and a second type of electrode layer. Dielectric layers separate the stacked electrode layers to form at least one capacitor. Two pairs of external contacts are arranged such that one external contact in each pair of external contacts is located on a side of the foundation and such that connections between each pair of external contacts overlap. A first pair of the external contacts connects to the first type of electrode layer and a second pair of the external contacts connects to the second type of electrode layer. The first type of electrode layer includes a first conductive layer which connects to at least one of the first pair of external contacts and the second type of electrode layer includes a second conductive layer which connects to at least one of the second pair of external contacts.
Abstract:
An electrical component includes stacked electrode layers arranged on a foundation. The stacked electrode layers include a first type of electrode layer and a second type of electrode layer. Dielectric layers separate the stacked electrode layers to form at least one capacitor. Two pairs of external contacts are arranged such that one external contact in each pair of external contacts is located on a side of the foundation and such that connections between each pair of external contacts overlap. A first pair of the external contacts connects to the first type of electrode layer and a second pair of the external contacts connects to the second type of electrode layer. The first type of electrode layer includes a first conductive layer which connects to at least one of the first pair of external contacts and the second type of electrode layer includes a second conductive layer which connects to at least one of the second pair of external contacts.