Übersetzung für "Jump wire" in Deutsch

The support turn can thus be implemented prior to the wire jump.

The wire jump 41 is provided on at least one end of the support turn 51 .

In particular, the wire jump 41 can occur in a sub area of a turn 5 .

The danger of slipping of the wire 4 in the area of the wire jump 41 does not occur.

After the wire jump 41, the support turn 51 is wound in this gap 6 immediately thereafter.

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As noted, the support turn and the wire jump are predefinable precisely in their location and a high quality of the dimensional tolerances is made possible.

In this way, the support turn can be implemented following the wire jump, which crosses multiple turns of a winding layer implemented below the wire jump and whereby the offset of the wire parallel to the coil axis in this wire jump can be multiple wire diameters.

The implementation of a wire jump, i.e., an enlarged advance of the wire, is possible on at least one end of the support turn, the support turn supporting this wire jump and preventing slipping of the wire at the end of the wire jump.

This support turn, which is secured against lateral slipping, can thus fix the end of the wire jump facing toward the support turn in the layer.

At least this end of the wire jump is thus secured with high location precision relative to slipping and this wire jump can be wound over many coils with constant location tolerance.

Because higher lateral forces are permissible during the winding procedure, mechanically wound wire jumps of higher precision are made possible, at least one wire jump being provided on at least one end of the support turn.

Through the location fixing of the support turn, a more precise offset of the wire upon the wire jump, which is in the magnitude of multiple wire diameters, for example, three, four, five, or more, is implemented having higher mechanical reproducibility and the danger of slipping of the wire in the area of the wire jump does not occur.

Through the location fixing of the support turn 51, a more precise offset 42 of the wire in the wire jump 41 is possible, which is in the magnitude of multiple wire diameters, for example, three, four, five, or more.

As noted, the support turn 51 and the wire jump 41 can be predetermined precisely in location and a high quality of the dimensional tolerances is also achieved in the conical coil 1, because of which adjacent conical coils 1 may be situated with less intermediate space to one another.

In this wire jump 41, the wire 4 is guided over multiple, advantageously more than two, in particular more than three turns 5 of the previously wound fourth-innermost winding layer 2 .

Because high lateral forces occur in the wire 4 in a wire jump 41 of this type, the danger of slipping, i.e., lateral sliding parallel to the winding layer 2, of a wire part is particularly high immediately before and after the wire jump 41 .

In order to be able to implement a wire jump 41 with high precision and with low location tolerances and dimensional tolerances, the wire 4 must be secured against lateral slipping at both ends of the wire jump 41 .

This support turn 51 forms the support for the immediately following wire jump 41 (not shown), which is situated between one end of this support turn 51 and a second turn 5 situated in a different winding layer 2, in this case the fourth-innermost winding layer 2 .

The wire jump 41 is implemented in a coil 1 according to the invention of this embodiment between the support turn 51 in the fifth-innermost winding layer 2 to the temporarily open end 24 of the fourth-innermost winding layer 2 .

This wire jump extends over a plurality of turns 5, the support turn 51 being able to be spaced apart from the subsequently wound turn 5 by at least two, preferably at least three, in particular at least four wire diameters.

High lateral forces can occur in the wire piece in the wire jump 41 and in the two wire pieces in the area of the two ends of the wire jump 41 .

These lateral forces are absorbed in the area immediately before the wire jump 41 by the support turn 51 in the fifth winding layer 2 and are absorbed immediately after the wire jump 41 by the last turn 5, which adjoins the temporarily open end 24, of the fourth-innermost winding layer 2 .

Slipping of the wire 4 in the area of this wire jump 41 and in the area of the ends of this wire jump 41 is prevented easily and with high reliability in this way, the support turn 51 being at least regionally situated completely in this winding layer 21 .

After this wire jump 41, the fourth-innermost winding layer 2 is wound to the end in the advance direction 31, which is directed in the fourth-innermost winding layer 2 toward the cover surface 17 .

In this case, the at least one wire jump 41 can also be implemented in the area of the offset 42 of the wire 4 .

It is possible using the support turn 51 implemented in this way that a wire jump 41 is implemented at both ends of the support turn 51, a wire jump 41 being able to be wound in each case immediately before and immediately after the support turn 51 .

The wire is guided using a wire jump 41 into the gap 6 in the first winding layer 21 from the open end 24 in the first winding layer 21 .

Even though over $10 trillion is spent annually by consumers for energy needs throughout the world, there has been no quantum leap forward in energy production, similar to the jump from copper wire to fiber optics in telecommunications.