Soldering connector and method for manufacturing an electric circuit with this soldering connector

Claim 2

A soldering connector which comprises: at least one soldering jumper wherein each of said soldering jumpers further comprises a plurality of regions spaced apart from one another and along said soldering jumper wherein said regions are utilized for a soldering operation; and a common holder wherein each of said soldering jumpers is connected to said common holder through a breakpoint region which is pre-determined and further wherein said common holder and said soldering jumpers constitute a single unit of electrically conducting material and forms a cantilever and further wherein said common holder is detachable from said soldering jumpers at the said break-point regions subsequent to the completion of a common soldering operation.

Claim 3

The soldering connector of claim 1, wherein each soldering jumper is soldered at at least one of its spaced apart regions to a surface of a component which is installed on the surface of a printed circuit board and further wherein said soldering jumper is soldered at at least one of its spaced apart regions to a printed circuit board which supports said component.

Claim 4

The soldering connector of claim 2, wherein said soldering jumpers further comprise level equalizing bends which extend along transversely running perforations.

Claim 5

The soldering connector of claim 3, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 6

The soldering connector of claim 1, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 7

The soldering connector of claim 2, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 8

The soldering connector of claim 1, wherein said soldering jumpers further comprise level equalizing bends which extend along transversely running perforations.

Claim 9

The soldering connector of claim 7, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 10

A soldering connector which comprises: at least one soldering jumper wherein each of said soldering jumpers further comprises a plurality of regions spaced apart from one another and along said soldering jumper wherein said regions are utilized for a soldering operation; and a common holder wherein each of said soldering jumpers is connected to said common holder through a breakpoint region which is pre-determined and further wherein said common holder and said soldering jumpers constitute a single unit of electrically conducting material and forms a cantilever and further wherein said regions of said soldering jumpers are electrically connected to connection locations of an electrical circuit by a common soldering operation.

Claim 11

A soldering connector which comprises: at least one soldering jumper wherein each of said soldering jumpers further comprises a plurality of regions spaced apart from one another and along said soldering jumper wherein said regions are utilized for a soldering operation; and a common holder wherein each of said soldering jumpers is connected to said common holder through a breakpoint region which is pre-determined and further wherein said common holder and said soldering jumpers constitute a single unit of electrically conducting material and forms a cantilever and further wherein said regions of said soldering jumpers are electrically connected to connection locations of an electrical circuit by a common soldering operation.

Claim 12

The soldering connector of claim 9, wherein each soldering jumper is soldered at at least one of its spaced apart regions to a surface of a component which is installed on the surface of a printed circuit board and further wherein said soldering jumper is soldered at at least one of its spaced apart regions to a printed circuit board which supports said component.

Claim 13

The soldering connector of claim 9, wherein said soldering jumpers further comprise level equalizing bends which extend along transversely running perforations.

Claim 14

The soldering connector of claim 10, wherein said soldering jumpers further comprise level equalizing bends which extend along transversely running perforations.

Claim 15

The soldering connector of claim 9, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 16

The soldering connector of claim 10, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 17

The soldering connector of claim 11, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 18

The soldering connector of claim 12, wherein said soldering jumper further comprises perforations at said spaced apart regions which are soldered wherein said perforations run along said soldering jumper.

Claim 19

In a method for manufacturing an electric circuit with a substrate on which are placed a printed circuit and electrical components, wherein soldering jumpers are mounted between contact surfaces of the electrical components and/or contact surfaces of the printed circuit, the improvement comprising the steps of a) placing the printed circuit and the electrical components on the substrate, so that several contact surfaces are formed which are spaced apart from each other and are to be connected electrically to each other; b) placing a soldering connector on the substrate, such that each soldering jumper bridges at least two contact surfaces, wherein the soldering connector is composed of several soldering jumpers which include a common support and wherein the soldering jumpers and the support are constructed of an electrically conductive material and the soldering jumpers are constructed in one piece with the support and in a cantilevering manner; c) soldering the soldering jumpers to the contact surfaces; and d) removing the common support by severing predetermined breaking points provided between the support and the soldering jumpers.

Claim 20

In a method for manufacturing an electric circuit with a substrate on which are placed a printed circuit and electrical components, wherein soldering jumpers are mounted between contact surfaces of the electrical components and/or contact surfaces of the printed circuit, the improvement comprising the steps of a) placing the printed circuit and the electrical components on the substrate, so that several contact surfaces are formed which are spaced apart from each other and are to be connected electrically to each other; b) placing a soldering connector on the substrate, such that each soldering jumper bridges at least two contact surfaces, wherein the soldering connector is composed of several soldering jumpers which include a common support and wherein the soldering jumpers and the support are constructed of an electrically conductive material and the soldering jumpers are constructed in one piece with the support and in a cantilevering manner; c) soldering the soldering jumpers to the contact surfaces; and d) removing the common support by severing predetermined breaking points provided between the support and the soldering jumpers.

Claim 21

The method according to claim 17, wherein the removal of the common support is effected by tearing off.

Claim 22

The method according to claim 17, comprising applying soldering paste to the contact surfaces before the soldering connector is placed on the substrate, and carrying out the soldering step by reflow soldering.

Claim 23

The method according to claim 17, wherein the electric circuit is component part of a photoelectric position-measuring device, wherein the electrical components are photoelements, further comprising electrically connecting by means of the soldering connector contact surfaces of the photoelements which face upwardly with contact surfaces of the printed circuit.