Office Action 3: Notice of Allowance (2025-06-24)

CLAIMS:
LISTING OF THE CLAIMS

Atty. Docket No.: HAM-033714 US CON

Claims 1-196 (Canceled)2195

Claim 197 (Previously Presented) A method for producing a load bearing data and/or energy cable (20, 120, 220, 320, 420), comprising the steps of:
a) providing a first strength member (14);
b) providing a conductor that is capable of data signal and/or electrical energy transmission and is capable of elongation;
c) forming an elongatable internally located conductive structure by:(i) coupling said conductor to said first strength member (14) while ensuring that the conductor remains able to elongate;
(ii) coupling the combination of the conductor and the first strength member (14) to thermoplastic material that is capable of reaching a molten phase and deforming during subsequent heating;
d) braiding a strength-members jacket layer (52) of polymeric material so as to enclose the elongatable internally-located conductive structure while ensuring that the conductor remains elongatable during the steps of surrounding the elongatable internally-located conductive structure with the strength-member jacket layer (52) so that the conductor retains its ability to elongate during further desired processing steps and does not break upon stretching under heat and tension of the strength-member jacket layer (52), wherein the first strength member (14) and strength-member layer (52) are selected and formed so that said first strength member (14) has less breaking strength than the strength member jacket layer (52); and
e) stretching under heat the strength-member jacket layer (52) and the elongatable internally-located conductive structure followed by cooling both the elongatable internally-located conductive structure as well as the strength member jacket layer (52), while maintaining a tension needed to retain the elongated load bearing data and/or energy cable at a determined amount of

elongation from its initial length, thereby permanently lengthening the load bearing data and/or energy cable a predetermined amount while simultaneously not breaking or causing to become brittle the conductor.

Claim 198 (Previously Presented) The method of claim 197 further comprising an additional step of selecting to form the first strength member (14) with a different mass of material in comparison with a mass of material selected for forming the braided strength member jacket layer (52).

Claim 199 (Previously Presented) The method of claim 198 further comprising an additional step of selecting for the material mass of the first strength member (14) a material mass that is lesser than the material mass of the braided strength member jacket layer (52).

Claim 200 (Previously Presented) The method of claim 199 where the step of coupling the combination of the conductor and the first strength member (14) to the layer of thermoplastic material further comprises enclosing the combination of the conductor that is coupled to the first strength member (14) within the layer of thermoplastic material.

Claim 201 (Previously Presented) The method of claim 199 further comprising selecting to form the conductor at the moment it is being coupled to the first strength member (14).

Claim 202 (Previously Presented) The method of claim 201 further comprising an additional step of selecting to form the conductor by braiding the conductor about the first strength member (14).

Claim 203 (Previously Presented) The method of claim 202 further comprising an additional step of selecting a braid angle when forming the braided conductor that is more obtuse in comparison to a braid angle selected for the initial formation with a braiding machine of the strength-member jacket layer (52).

Claim 204 (Previously Presented) The method of claim 200 further comprising extruding and/or pultruding the layer of thermoplastic material about the combination of the conductor coupled to the first strength member (14) prior to forming the strength-member jacket layer (52).

Claim 205 (Previously Presented) The method of claim 199 further comprising additional steps of forming a shielding layer (36) of electrically conductive material around the layer of thermoplastic material prior to forming the strength-member jacket layer (52).

Claim 206 (Previously Presented) The method of claim 205 further comprising selecting to form another layer of thermoplastic material about the shielding layer (36) of electrically conductive material, prior to forming the strength-member jacket layer (52).

Claim 207 (Previously Presented) The method of claim 206 further comprising forming about the another layer of thermoplastic material a sheath of tightly braided fibers and/or filaments having a higher softening point than the softening point of the another layer of thermoplastic material, prior to forming the strength-member jacket layer (52).

Claim 208 (Previously Presented) The method of claim 207 further comprising additional steps of selecting to situate between the another layer of thermoplastic material and the sheath of tightly braided fibers and/or filaments from a minimum of at least one fiber optic conductor (22) to several fiber optic conductors prior to forming the strength- member jacket layer (52) by wrapping from at least one to several fiber optic conductors in spiral form about the another layer of thermoplastic material in such a fashion so as to ensure sufficient slack in the at least one fiber optic conductor (22) so that it does not break during the stretching of the strength member jacket layer (52).

Claim 209 (Previously Presented) The method of claim 208 further comprising steps of selecting to situate additional thermoplastic material so as to fill in at least some of spaces (97, 98) existing between the another layer of thermoplastic material; the sheath of tightly braided fibers and/or filaments; and the at least one fiber optic conductor (22).

Claim 210 (Previously Presented) The method of claim 199 wherein, at least prior to the step of permanently elongating the strength member jacket layer (52), the method further comprises an additional step of selecting to form the at least a first strength member (14) with a potential for constructional elongation at 10\* C. that is different in comparison to a potential for constructional elongation at C.\* of the conductor.

Claim 211 (Previously Presented) The method of claim 199 further comprising an additional step of selecting to form the first strength member (14) so that it requires more tension to elongate it beyond two percent stretch in comparison to a tension required to elongate the conductor the same certain amount.

Claim 212 (Previously Presented) The method of claim 205 further comprising selecting to employ the shielding layer (36) formed of electrically conductive material as another conductor, including so as to form a conductive loop employing the shielding layer (36) and the conductor.

Claim 213 (Previously Presented) The method of claim 205 further comprising additional steps of selecting to situate from at least one to several fiber optic conductors between at least the strength-member jacket layer (52) and the shielding layer (36).

Claim 214 (Previously Presented) The method of claim 208 further comprising selecting to employ the shielding layer as the output loop of a first conductive loop while employing the conductor as the input loop of the first conductive loop, while employing at least one fiber optic conductor as another input.

Claim 215 (Previously Presented) The method of claim 199 further comprising an additional step of selecting for the first strength member (14) a strength member having a breaking strength that is between two hundred fifty grams to sixteen hundred kilograms while selecting a breaking strength for the strength member jacket layer (52) that is at least four thousand kilograms up to four million kilograms.

Claim 216 (Previously Presented) The method of claim 199 further comprising an additional step of selecting to form the first strength member (14) with a different diameter and/or width in comparison with a diameter and/or width selected for forming the braided strength member jacket layer (52).

Claim 217 (Previously Presented) The method of claim 216 further comprising an additional step of selecting for the diameter and/or width of the first strength member (14) a diameter and/or width that is lesser than the diameter and/or width of the braided strength member jacket layer (52).

Claim 218 (Previously Presented) The method of claim 217 wherein, at least prior to the step of permanently elongating the strength member jacket layer (52), the method further comprises an additional step of selecting to form the strength member jacket layer (52) with an ability to elongate at temperatures lesser than 500 C. that is different in comparison to an ability to elongate of the first strength member (14) at temperatures lesser than 50\*C.

Claim 219 (Previously Presented) The method of claim 217 further comprising an additional step of selecting for the first strength member (14) a strength member having a breaking strength that is between seventy thousand to twenty times lesser than the breaking strength of the strength member jacket layer (52).

Claim 220 (Previously Presented) The method of claim 217 further comprising an additional step of selecting to stretch the strength member jacket layer (52) to an extent that causes the first strength member (14) to experience failure.

Claim 221 (Previously Presented) The method of claim 217 further comprising an additional step of selecting to stretch the strength member jacket layer (52) to an extent that causes the first strength member (14) to break.

OFFICE ACTION:
DETAILED ACTION
This Office action is responsive to Applicant’s response submitted 04 June 2025.
Notice of Pre-AIA  or AIA  Status
The present application, filed on or after March 16, 2013, is being examined under the first inventor to file provisions of the AIA .
Terminal Disclaimer
The terminal disclaimer filed on 04 June 2025 disclaiming the terminal portion of any patent granted on this application which would extend beyond the expiration date of U.S. Patent 11,525,212 and U.S. Patent 8,731,353 and U.S. Patent 9,110,189 and U.S. Patent 9,704,617 has been reviewed and is accepted.  The terminal disclaimer has been recorded.
Examiner’s Statement of Reasons for Allowance
The following is an examiner’s statement of reasons for allowance:
Claims 197-221 are allowed for the reason set forth in the previous Office action mailed 23 December 2024.
Therefore, claims 197-221 are allowed.
Any comments considered necessary by applicant must be submitted no later than the payment of the issue fee and, to avoid processing delays, should preferably accompany the issue fee.  Such submissions should be clearly labeled “Comments on Statement of Reasons for Allowance.”
Conclusion

APPLICANT REBUTTAL: REMARKSReconsideration of all pending claims is respectfully requested in view of the following remarks.I. Allowable Subject Matter The Applicant thanks the Examiner for indicating that claims 197-221 are allowed.II. Nonstatutory Double Patentinq Rejections Claims 197-221 stand rejected on the ground of nonstatutory double patenting as being unpatentable over claims 1-25, respectively, of U.S. Patent No. 11,525,212 ("the '212 patent").At least claim 197 stands rejected on the ground of nonstatutory double patenting as being unpatentable over at least claims 1-3, 7-9, and 13 together of U.S. Patent No.8,731,353 ("the '353 patent").At least claim 197 stands rejected on the ground of nonstatutory double patenting as being unpatentable over at least claims 1-3, 6-8, and 12 together of U.S. Patent No.9,110,189 ("the '189 patent").At least claim 197 stands rejected on the ground of nonstatutory double patenting as being unpatentable over at least claims 1-3, 6, 8, 13, and 15 together of U.S. Patent No.9,704,617 ("the '617 patent").Applicants submit herewith properly executed Terminal Disclaimers over the '212, '353, '189, and '617 patents.Accordingly, withdrawal of the non-statutory double patenting is respectfully requested.III. Conclusion In view of the foregoing, reconsideration and allowance of this application are believed to be in order, and such actions are hereby solicited. If any points remain in issue which the Examiner feels may be best resolved through a personal or telephone interview, the Examiner is kindly requested to contact the undersigned at the telephone number listed below.The USPTO is directed and authorized to charge all required fees, except for the Issue Fee and the Publication Fee, to Deposit Account No. 20-0090. Please also credit any overpayments to this Deposit Account.Respectfully submitted, /Richard S. Wesorick/ Richard S. Wesorick Reg. No. 40,871 Customer No. 26,294 TAROLLI, SUNDHEIM, COVELL & TUMMINO L.L.P.950 Main Avenue, Suite 710, Cleveland, Ohio 44113 Phone:(216) 621-2234 1 Fax: (216) 621-4072 RSW/MRB/jm


CITED REFERENCE SUMMARIES: Ref US11525212: Claims:
1. A method for producing a headline sonar cable (20, 120, 220, 320, 420), comprising the steps of:
a) providing a first strength member (14);
b) providing a conductor that is capable of data signal and/or electrical energy transmission and is capable of elongation;
c) forming an elongatable internally located conductive structure by:
(I) coupling said conductor to said first strength member (14) while ensuring that the conductor remains able to elongate;
(ii) coupling the combination of the conductor and the first strength member (14) to thermoplastic material that is capable of reaching a molten phase and deforming during subsequent heating;

d) braiding a strength-members jacket layer (52) of polymeric material so as to enclose the elongatable internally-located conductive structure while ensuring that the conductor remains elongatable during the steps of surrounding the elongatable internally-located conductive structure with the strength-member jacket layer (52) so that the conductor retains its ability to elongate during further desired processing steps and does not break upon stretching under heat and tension of the strength-member jacket layer (52) surrounding the elongatable internally-located conductive structure, wherein the first strength member (14) and strength-member layer (52) are selected and formed so that said first strength member (14) has less breaking strength than the strength member jacket layer (52); and
e) stretching under heat the strength-member jacket layer (52) and the elongatable internally-located conductive structure followed by cooling both the elongatable internally-located conductive structure as well as the strength member jacket layer (52), while maintaining a tension needed to retain the elongated headline sonar cable at a determined amount of elongation from initial length, thereby permanently lengthening the headline sonar cable a predetermined amount while simultaneously not breaking or causing to become brittle the conductor.
2. The method of claim 1 further comprising an additional step of selecting to form the first strength member (14) with a different mass of material in comparison with a mass of material selected for forming the braided strength member jacket layer (52).
3. The method of claim 2 further comprising an additional step of selecting for the material mass of the first strength member (14) a material mass that is lesser than the material mass of the braided strength member jacket layer (52).
4. The method of claim 3 where the step of coupling the combination of the conductor and the first strength member (14) to the layer of thermoplastic material further comprises enclosing the combination of the conductor that is coupled to the first strength member (14) within the layer of thermoplastic material.
5. The method of claim 4 further comprising extruding and/or pultruding the layer of thermoplastic material about the combination of the conductor coupled to the first strength member (14) prior to forming the strength-member jacket layer (52).
6. The method of claim 3 further comprising selecting to form the conductor at the moment it is being coupled to the first strength member (14).
7. The method of claim 6 further comprising an additional step of selecting to form the conductor by braiding the conductor about the first strength member (14).
8. The method of claim 7 further comprising an additional step of selecting a braid angle when forming the braided conductor that is more obtuse in comparison to a braid angle selected for the initial formation with a braiding machine of the strength-member jacket layer (52).
9. The method of claim 3 further comprising additional steps of forming a shielding layer (36) of electrically conductive material around the layer of thermoplastic material prior to forming the strength-member jacket layer (52).
10. The method of claim 9, further comprising selecting to form another layer of thermoplastic material about the shielding layer (36) of electrically conductive material, prior to forming the strength-member jacket layer (52).
11. The method of claim 10 further comprising forming about the another layer of thermoplastic material a sheath of tightly braided fibers and/or filaments having a higher softening point than the softening point of the another layer of thermoplastic material, prior to forming the strength-member jacket layer (52).
12. The method of claim 11 further comprising additional steps of selecting to situate between the another layer of thermoplastic material and the sheath of tightly braided fibers and/or filaments from a minimum of at least one fiber optic conductor (22) to several fiber optic conductors prior to forming the strength-member jacket layer (52) by wrapping from at least one to several fiber optic conductors in spiral form about the another layer of thermoplastic material in such a fashion so as to ensure sufficient slack in the at least one fiber optic conductor (22) so that it does not break during the stretching of the strength member jacket layer (52).
13. The method of claim 12 further comprising steps of selecting to situate additional thermoplastic material so as to fill in at least some of void spaces (97, 98) existing between the another layer of thermoplastic material; the sheath of tightly braided fibers and/or filaments; and the at least one fiber optic conductor (22).
14. The method of claim 12 further comprising selecting to employ the shielding layer as the output loop of a first conductive loop while employing the conductor as the input loop of the first conductive loop, while employing at least one fiber optic conductor as another input.
15. The method of claim 9 further comprising selecting to employ the shielding layer (36) formed at electrically conductive material as another conductor, including so as to form a conductive loop employing the shielding layer (36) and the conductor.
16. The method of claim 9 further comprising additional steps of selecting to situate from at least one to several fiber optic conductors between at least the strength-member jacket layer (52) and the shielding layer (36).
17. The method of claim 3 wherein, at least prior to the step of permanently elongating the strength member jacket layer (52) the method further comprises an additional step of selecting to form the at least a first strength member (14) with a potential for constructional elongation at 10 C. that is different in comparison to a potential for constructional elongation at 10 C. of the conductor.
18. The method of claim 3 further comprising an additional step of selecting to form the first strength member (14) so that it requires more tension to elongate it beyond percent stretch in comparison to a tension required to elongate the conductor the same certain amount.
19. The method of claim 3 further comprising an additional step of selecting for the first strength member (14) a strength member having a breaking strength that is between two hundred fifty grams to sixteen hundred kilograms while selecting a breaking strength for the strength member jacket layer (52) that is at least four thousand kilograms up to four million kilograms.
20. The method of claim 3 further comprising an additional step of selecting to form the first strength member (14) with a different diameter and/or width in comparison with a diameter and/or width selected for forming the braided strength member jacket layer (52).
21. The method of claim 20 further comprising an additional step of selecting for the diameter and/or width of the first strength member (14) a diameter and/or width that is lesser than the diameter and/or width of the braided strength member jacket layer (52).
22. The method of claim 21 wherein, at least prior to the step of permanently elongating the strength member jacket layer (52), the method further comprises an additional step of selecting to form the strength member jacket layer (52) with an ability to elongate at temperatures lesser than 50 C. that is different in comparison to an ability to elongate of the first strength member (14) at temperatures lesser than 50 C.
23. The method of claim 21 further comprising an additional step of selecting for the first strength member (14) a strength member having a breaking strength that is between seventy thousand to twenty times lesser than the breaking strength of the strength member jacket layer (52).
24. The method of claim 21 further comprising an additional step of selecting to stretch the strength member jacket layer (52) to an extent that causes the first strength member (14) to experience failure.
25. The method of claim 21 further comprising an additional step of selecting to stretch the strength member jacket layer (52) to an extent that causes the first strength member (14) to break.
Ref US8731353: Claims:
1. A method for producing a headline sonar cable (20, 120) having a high breaking-strength and lighter weight in water than a conventional headline sonar cable having a strength member formed exclusively of steel wire, the method for producing the headline sonar cable (20, 120) comprising steps of:
a. providing a conductor (22, 122) that is formed so as to be capable of undergoing permanent elongation and that also is adapted for at least data signal transmission;
b. forming a strength-member jacket layer (52) of polymeric material around at least a portion of the conductor (22, 122) while simultaneously ensuring that the at least a portion of the conductor (22, 122) remains elongatable when enclosed within the strength-member jacket layer (52); and
c. stretching the strength-member jacket layer (52) so as to permanently elongate both the strength member jacket layer (52) and the at least a portion of the conductor (22, 122) while simultaneously not breaking the at least a portion of the conductor.
2. The method of claim 1 further comprising an additional step of enclosing the at least a portion of the conductor within at least a layer of a deformable material, the layer of deformable material situated between the conductor and at least portions of the strength member.
3. The method of claim 2 further comprising an additional step of selecting for the deformable material a thermoplastic material.
4. The method of any one of claim 2 further comprising an additional step of selecting for the deformable material a material capable of tolerating temperatures that at least include temperatures between 100 degrees Centigrade and 124 degrees Centigrade.
5. The method of claim 2 further comprising additional steps of selecting for the deformable material a material capable of tolerating temperatures that at least include a temperature range that is between 100 degrees Centigrade and 124 degrees Centigrade and that also experiences a phase change at such temperature range.
6. The method of any one of claims 1 to 3 further comprising additional steps of forming the conductor is such a fashion, and selecting an amount of permanent elongation to stretch both the strength-member jacket layer as well as the at least a portion of the conductor in such a fashion that the at least a portion of the conductor is able to not break for at least six calendar months from a date of first use of the produced headline sonar cable.
7. The method of any one of claims 1 to 3 further comprising additional steps of heating the strength-member jacket layer (52) to a temperature that enables permanently elongating the strength-member jacket layer (52) while stretching the strength-member jacket layer (52).
8. The method of claim 7 further comprising additional steps of cooling at least the strength-member jacket layer (52) while maintaining tension on the strength-member jacket layer (52).
9. The method of claim 1 wherein the step of providing the elongatable conductor (22) further comprises the additional steps of assembling an elongatable internally-located conductive structure (34) provided for the headline sonar cable (20) by wrapping the conductor (22) around a rod (24) that permanently deforms during the subsequent stretching of the strength-member jacket layer (52) surrounding the elongatable internally-located conductive structure (34) thereby lengthening the elongatable internally located conductive structure while not breaking the conductor (22).
10. The method of claim 9 wherein the step of providing the elongatable internally-located conductive structure (34) further comprises the step of enclosing the conductor (22) and the rod (24) within a sheath layer (32) of material that has a higher softening temperature than that of the rod (24).
11. The method of claim 9 wherein twisting the conductor (22) excessively in a direction corresponding to a lay direction of the conductor (22) ensures slack in the conductor (22).
12. The, method of claim 9 wherein forming the conductor (22) with a spiral shape ensures slack in the conductor (22).
13. The method of claim 9 comprising further steps of:
c. before braiding the strength-member jacket layer (52) around the elongatable internally-located conductive structure (34), enclosing the elongatable internally-located conductive structure (34) within a tight layer of impervious material which softens at a higher temperature than that at which the deformable rod (24) softens for retaining material of the rod (24) within the layer of impervious material;
d. after braiding the strength-member jacket layer (52) around the elongatable internally-located conductive structure (34), heating the headline sonar cable (20) to a temperature at which material of the deformable rod (24) softens;
e. stretching of the strength-member jacket layer (52) sufficiently to elongate the headline sonar cable (20) and to thereby:
i. deform the rod (24) responsive to a reduction in cross-sectional area of the strength-member jacket layer (52); and
ii permanently lengthen the strength-member jacket layer (52); and

f. while maintaining tension on the strength-member jacket layer (52), cooling the headline sonar cable (20) until the material of the deformable rod (24) solidifies.
14. The method of claim 1 wherein the step of providing the elongatable, conductor (22, 122) further comprises the steps of assembling an elongatable internally-located conductive structure (134) by enclosing an unstretched elongatable braided conductor (122) that is capable of data signal transmission within a non-conductive braided sheath (124).
15. The method of claim 14 wherein the step of providing the elongatable internally-located conductive structure (134) further comprises the step of enclosing the braided conductor (122) enclosed within the braided sheath (124) within an extruded layer (132) of polymeric material.
16. The method of claim 15 wherein the step of enclosing the braided conductor (122) enclosed within the braided sheath (124) within an extruded layer (132) of polymeric material further comprised a step of forming the extruded layer (132) from cellular polyethylene.
17. The method of claim 1 comprising a further step of braiding a shielding layer (36) of electrically conductive material around the elongatable conductor (22, 122), the braided shielding layer (36) being capable of elongating while remaining unimpaired.
18. The method of claim 17 further comprising a step of enclosing the elongatable conductor (22, 122) and the shielding layer (36) within a barrier layer (42) of insulating material.
19. The method of claim 18 wherein the step of providing the barrier layer (42) of insulating material enclosing the elongatable conductor (22, 122) and the shielding layer (36) comprises a further step of including cellular polyethylene in the barrier layer (42).
20. A headline sonar cable (20, 120) capable of transmitting at least data signals, the headline sonar cable having a strength member and having a conductor, the headline sonar cable having a high breaking-strength and lighter weight in water than a conventional headline sonar cable having a strength member formed exclusively of steel wire, the headline sonar cable produced by a method, the method for producing the headline sonar cable (20, 120) comprising steps of:
a. providing a conductor (22, 122) that is formed so as to be capable of undergoing permanent elongation and that also is adapted for at least data signal transmission;
b. forming a strength-member jacket layer (52) of polymeric material around at least a portion of the conductor (22, 122) while simultaneously ensuring that the at least a portion of the conductor (22, 122) remains elongatable when enclosed within the strength-member jacket layer (52); and
c. stretching the strength-member jacket layer (52) so as to permanently elongate both the strength member jacket layer (52) and the at least a portion, of the conductor (22, 122) while simultaneously not breaking the at least a portion of the conductor.
21. The headline sonar cable (20, 120) produced by the method of claim 20 wherein the method further comprises coupling the conductor (22, 122) with a deformable rod (24) and selecting for the deformable rod (24) a material that is a thermoplastic material.
22. The headline sonar cable (20, 120) produced by the method of claim 20 wherein the method further comprises an additional step of enclosing the at least a portion of the conductor within at least a layer of a deformable material, the layer of deformable material situated between the conductor and at least portions of the strength member.
23. The headline sonar cable (20, 12) produced by the method of claim 22 further comprising further steps of:
c. before braiding the strength-member jacket layer (52) around the at least a portion of the conductor (22, 122), enclosing the conductor (22, 122) within a tight layer of impervious material which softens at a higher temperature than that at which the deformable material situated between the conductor and at least portions of the strength member softens, for retaining material of the deformable material within the layer of impervious material;
d. after braiding the strength-member jacket layer (52) around the conductor (20, 120), heating the headline sonar cable (20) to a temperature at which material of the deformable material softens; e. stretching of the strength-member jacket layer (52) sufficiently to elongate the headline sonar cable (20) and to thereby: i. deform the deformable material responsive to a reduction in cross-sectional area of the strength-member jacket layer (52); and ii permanently lengthen the strength-member jacket layer (52); and
f. while maintaining tension on the strength-member jacket layer (52), cooling the headline sonar cable (20) until the material of the deformable material solidifies.
24. The headline sonar cable produced by the method of claim 23 wherein the step of providing the elongatable conductor (22, 122) further comprises the steps of assembling an elongatable internally-located conductive structure (134) by enclosing an unstretched elongatable braided conductor (122) that is capable of data signal transmission within a non-conductive sheath (124).
25. The headline sonar cable produced by the method of claim 24 wherein the step of providing the elongatable internally-located conductive structure (134) further comprises the step of enclosing the braided conductor (122) enclosed within the sheath (124) within an extruded layer (132) of polymeric material.
Ref US9110189: Claims:
1. A method for producing a towing warp (20, 120) having a high breaking-strength and lighter weight in water than a conventional towing warp having a strength member formed exclusively of steel wire, the method for producing the towing warp (20, 120) comprising steps of:
a. providing a conductor (22, 122) that is formed so as to be capable of undergoing permanent elongation and that also is adapted for at least electrical energy and/or current transmission;
b. forming a strength-member jacket l
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