Bypass circuit with buried isolated electrode

A method for producing a bypass circuit and comprising steps of:

• providing a first thin dielectric layer having a length dimension and a width dimension and a first surface and a second surface;
• providing an electrode layer with length and width dimensions smaller respectively than those of said first dielectric layer, the electrode layer mounted centrally on the first surface of the first dielectric layer with said electrode layer spaced from contact with any electrical conductor;
• providing a second dielectric layer on the electrode layer on the opposite side from the first dielectric layer for ruggedness, the second dielectric layer having length and width dimensions coextensive with those of said first dielectric layer so that said dielectric layers combine to describe a margin outward of the electrode layer;
• providing a resistive layer on the second dielectric layer, the resistive layer having a length dimension smaller than that of the second dielectric layer, the resistive layer mounted centrally on the second surface of the second dielectric layer;
• and
• providing two spaced apart electrical contact members in contact with the second surface of the first dielectric layer, each of the contact members being provided with a different polarity from that of the other contact member, with each of the contact members extending onto an end surface of the first and the second dielectric layers, and with each of the contact members contacting an opposite edge of the resistive layer.

A method for producing a bypass circuit and comprising steps of:

• providing a first thin dielectric layer having a length dimension and a width dimension and a first surface and a second surface;
• providing an electrode layer with length and width dimensions smaller respectively than those of said first dielectric layer, the electrode layer mounted centrally on the top surface of the first dielectric layer with said electrode layer spaced from contact with any electrical conductor;
• providing a second dielectric layer on the electrode layer on the opposite side from the first dielectric layer for ruggedness, the second dielectric layer having length and width dimensions coextensive with those of said first dielectric layer so that said dielectric layers combine to describe a margin outward of the electrode layer;
• providing a resistive layer on the second dielectric layer on the opposite side from the electrode layer, the resistive layer having a length dimension smaller than that of the second dielectric layer, and with the resistive layer mounted centrally on the second dielectric layer;
• and
• providing two trimmed spaced apart electrical contact members on the second surface of the first dielectric layer, each of said contact members being provided with a different polarity from that of said other contact member so as to provide predetermined operative characteristics to the capacitor, with each of the contact members extending onto an end surface of the first and the second dielectric layers, and with each of the contact members contacting an opposite edge of the resistive layer.

A method for producing a bypass circuit and comprising steps of:

• providing a first thin dielectric layer having a length dimension and a width dimension and a first surface and a second surface;
• providing an electrode layer with length and width dimensions smaller respectively than those of said first dielectric layer, the electrode layer mounted centrally on the top surface of the first dielectric layer with said electrode layer spaced from contact with any electrical conductor;
• providing a second dielectric layer on the electrode layer on the opposite side from the first dielectric layer for ruggedness, the second dielectric layer having length and width dimensions coextensive with those of said first dielectric layer so that said dielectric layers combine to describe a margin outward of the electrode layer;
• providing a resistive layer on the second dielectric layer on the opposite side from the electrode layer, the resistive layer having a length dimension smaller than that of the second dielectric layer, and with the resistive layer mounted centrally on the second dielectric layer;
• and
• providing two spaced apart electrical contact members on the second surface of the first dielectric layer, each of said contact members being provided with a different polarity from that of said other contact member, the contact members sized and spaced so as to provide predetermined operative characteristics to the capacitor, with each of the contact members extending onto an end surface of the first and the second dielectric layers, and with each of the contact members contacting an opposite edge of the resistive layer.