Abstract: A ceramic material for capacitors using multilayer technology of formula (I): Pb(1?1.5a)AaBb(Zr1?xTix)(1?c?d?e?f)CeSicO3+y·PBO wherein A is selected from the group consisting of La, Nd, Y, Eu, Gd, Tb, Dy, Ho, Er and Yb; C is selected from the group consisting of Ni and Cu; and 0<a<0.12, 0.05?x?0.3, 0?c<0.12, 0.001<e<0.12 and 0?y<1.

Abstract: A capacitor arrangement is disclosed. In an embodiment the arrangement includes a ceramic multilayer capacitor including a main body comprising ceramic layers, first electrode layers and second electrode layers arranged there between and a first external contact and a second external contact on mutually opposite side surfaces, wherein the first external contact is electrically conductively connected to the first electrode layers and the second external contact is electrically conductively connected to the second electrode layers.

Abstract: A capacitor arrangement includes at least one ceramic multilayer capacitor with a main body having ceramic layers and first and second electrode layers arranged therebetween. The capacitor also has a first external contact and a second external contact on mutually opposite side surfaces. The first external contact is electrically conductively connected to the first electrode layers and the second external contact is electrically conductively connected to the second electrode layers. A contact arrangement includes two metallic contact plates, between which the at least one ceramic multilayer capacitor is arranged. The first and second external contacts are electrically conductively connected in each case to one of the metallic contact plates.

Abstract: The invention relates to a ceramic material for capacitors. In order to achieve reduced self-heating on assembly of the material into multilayer capacitors with antiferroelectric properties and a high dielectric constant, a ceramic material of formula ?Pb(1-r)(BaxSryCaz)r?(1-1.5a-1.5b-0.5c)(XaYb)Ac(Zr1-dTid)O3 is proposed, where X and Y both represent a rare metal earth selected from the group consisting of La, Nd, Y, Eu, Gd, Tb, Dy, Ho, Er and/or Yb; where A represents a monovalent ion; x+y+z=1; x and/or y and/or z>0; 0<r<0.3; 0<d<1; 0<a<0.2; 0<b<0.2; 0<c<0.2.

Abstract: A ceramic multi-layer capacitor includes a main body, which has ceramic layers arranged along a layer stacking direction to form a stack, and first and second electrode layers arranged between the ceramic layers. The multi-layer capacitor also includes a first external contact-connection arranged on a first side surface of the main body and electrically conductively connected to the first electrode layers, and a second external contact-connection arranged on a second side surface of the main body. The second side surface is situated opposite the first side surface and is electrically conductively connected to the second electrode layers.

Abstract: An electrical component is disclosed. In an embodiment the component includes a component body and at least one connection element having a plastic body, wherein the at least one connection element is connected to the component body via a metal layer.

Abstract: A multi-layer capacitor has dielectric layers and electrode layers arranged therebetween. The multi-layer capacitor has a number of segments that are connected to one another. At least one relief region is provided between the segments. The invention furthermore provides a method for producing such a multi-layer capacitor.

Abstract: A ceramic multi-layer capacitor includes a main body, which has ceramic layers arranged along a layer stacking direction to form a stack, and first and second electrode layers arranged between the ceramic layers. The multi-layer capacitor also includes a first external contact-connection arranged on a first side surface of the main body and electrically conductively connected to the first electrode layers, and a second external contact-connection arranged on a second side surface of the main body. The second side surface is situated opposite the first side surface and is electrically conductively connected to the second electrode layers.

Abstract: A ceramic multi-layer capacitor includes a main body, which has ceramic layers arranged along a layer stacking direction to form a stack, and first and second electrode layers arranged between the ceramic layers. The multi-layer capacitor also includes a first external contact-connection arranged on a first side surface of the main body and electrically conductively connected to the first electrode layers, and a second external contact-connection arranged on a second side surface (62) of the main body (2). The second side surface is situated opposite the first side surface and is electrically conductively connected to the second electrode layers.

Abstract: An electrical device having at least one functional element that includes a ceramic body, on which a first electrical contact layer and a second electrical contact layer are applied to two opposite-lying side faces, respectively, and the functional element is arranged between a first contact strip and a second contact strip, wherein the first contact strip and the second contact strip comprise several contact pins, respectively, and wherein the first contact layer electrically contacts at least one contact pin of the first contact strip and the second contact layer electrically contacts at least one contact pin of the second contact strip.

Abstract: A ceramic multi-layer capacitor is disclosed. In an embodiment, the capacitor includes a main body having ceramic layers and first and second electrode layers arranged therebetween, wherein the ceramic layers includes a ceramic material on the basis of BaTi1-yZryO3 where 0?y?1, which has a temperature-dependent capacitance anomaly.

Abstract: The invention relates to a ceramic material for capacitors. In order to achieve reduced self-heating on assembly of the material into multilayer capacitors with antiferroelectric properties and a high dielectric constant, a ceramic material of formula [Pb(1-r)(BaxSryCaz)r](1-15a-1.5b-0.5c)(XaYb)Ac(Zr1-dTid)O3 is proposed, where X and Y both represent a rare metal earth selected from the group consisting of La, Nd, Y, Eu, Gd, Tb, Dy, Ho, Er and/or Yb; where A represents a monovalent ion; x+y+z=1; x and/or y and/or z>0; 0<r<0.3; 0<d<1; 0<a<0.2; 0<b<0.2; 0<c<0.2.

Abstract: A ceramic material for capacitors using multilayer technology of formula (I): Pb(1?1.5a)AaBb(Zr1?xTix)(1?c?d?e?f)CeSic03+y.PBO wherein A is selected from the group consisting of La, Nd, Y, Eu, Gd, Tb, Dy, Ho, Er and Yb; C is selected from the group consisting of Ni and Cu; and 0<a<0.12, 0.05?x?0.3, 0?c<0.12, 0.001<e<0.12 and 0?y<1.

Abstract: A ceramic multi-layer capacitor is disclosed. In an embodiment, the capacitor includes a main body having ceramic layers and first and second electrode layers arranged therebetween, wherein the ceramic layers includes a ceramic material on the basis of BaTi1?yZryO3 where 0?y?1, which has a temperature-dependent capacitance anomaly.

Abstract: A ceramic multilayer capacitor includes a first capacitor unit, which comprises a first material, and a second capacitor units, which comprises a second material. The first and the second capacitor unit are electrically connected in parallel. At low applied voltages, the first material has a high dielectric value and, at high applied voltages the second material has a high dielectric value.

Abstract: A ceramic material for capacitors uses multilayer technology of the general formula: Pb1?1.5a?0.5b+1.5d+e+0.5f)AaBb(Zr1?xTix)(1?c?d?e?f)LidCeFefSicO3+y.PBO wherein A is selected from the group consisting of La, Nd, Y, Eu, Gd, Tb, Dy, Ho, Er and Yb; B is selected from the group consisting of Na, K and Ag; C is selected from the group consisting of Ni, Cu, Co and Mn; and 0<a<0.12; 0.05?x?0.3; 0<b<0.12; 0?c?0.12; 0<d<0.12; 0?e?0.12; 0?f?0.12; 0?y?1, and wherein b+d+e+f>0.

Abstract: A capacitor arrangement includes at least one ceramic multilayer capacitor with a main body having ceramic layers and first and second electrode layers arranged therebetween. The capacitor also has a first external contact and a second external contact on mutually opposite side surfaces. The first external contact is electrically conductively connected to the first electrode layers and the second external contact is electrically conductively connected to the second electrode layers. A contact arrangement includes two metallic contact plates, between which the at least one ceramic multilayer capacitor is arranged. The first and second external contacts are electrically conductively connected in each case to one of the metallic contact plates.

Abstract: An electric component assembly comprising a semiconductor component (1) and a carrier is specified, wherein the carrier contains a highly thermally conductive ceramic and is connected to a varistor body. Heat from the semiconductor component can be at least partially dissipated to the carrier (3) by means of the varistor body.

Abstract: An electric component arrangement is described, comprising a semiconductor component (1) mounted on a varistor body (2). The varistor body is contact-connected to the semiconductor component for the protection thereof against electrostatic discharges and contains a composite material having as matrix a varistor ceramic and as filler a highly thermally conductive material being different from the varistor ceramic.

Abstract: A multi-layer capacitor has dielectric layers and electrode layers arranged therebetween. The multi-layer capacitor has a number of segments that are connected to one another. At least one relief region is provided between the segments. The invention furthermore provides a method for producing such a multi-layer capacitor.