JP2014200166A - Conducting wire processing device, conducting wire processing method, power storage battery, and conducting wire processing inspection device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a conducting wire processing device, a conducting wire processing method, a power storage battery, and a conducting wire processing inspection device capable of improving productivity of electric components while preventing short-circuit.SOLUTION: A conducting wire processing device includes a cutting blade 32 which cuts off a positive electrode insulation coating 15 of a positive electrode conducting wire 11 and exposes a positive electrode core wire 13 to the outside between the base end and the tip of the positive electrode conducting wire 11. The cutting blade 32 includes a blade part 33 abutting on the positive electrode insulation coating 15 so as to intersect with a first direction F when cutting off the positive electrode coating 15. The blade part 33 includes a blade surface 34 facing the tip side of the positive electrode conducting wire 11 in the first direction F when cutting off the positive electrode insulation coating 15. The blade surface 34 is inclined to the tip side of the positive electrode conducting wire 11 with respect to a virtual surface S orthogonal to the first direction F.

Description

  The present invention relates to a conductor processing apparatus, a conductor processing method, a storage battery, and a conductor processing inspection apparatus.

  Some electrical components have a lead wire extended and provided with a terminal for connecting to another electrical device at the tip. In particular, among electrical components, a storage battery such as a lithium ion battery includes a positive electrode conductor extended from the positive electrode and a negative electrode conductor extended from the negative electrode.

  By the way, a storage battery such as a lithium ion battery is connected to a positive electrode conductor or a negative electrode terminal connected to a terminal such as an ammeter or a voltmeter after aging in the manufacturing process or before shipment, and inspects the electrical characteristics of the storage battery. Sometimes. Usually, the terminals of the positive electrode conductor and the negative electrode conductor are covered with a protective tube made of an insulating material such as rubber, for example, in order to prevent short-circuiting due to contact with each other, except at the time of inspection of electrical characteristics. .

  For example, in Patent Document 1, a protective tube that insulates and protects a terminal connected to a lead wire (conductive wire) is covered with the terminal, and a tip protruding from the terminal is folded and fixed. An insulation protection method is described. According to Patent Document 1, the length of the protective tube is increased, the terminal portion is inserted and covered, and then the tip is bent, and the lead wire side is fixed with a tape or the like, thereby changing the position or removing the work. It is said that it is easy to prevent short circuit between terminals during assembly, inspection and transportation of the battery pack.

JP 2009-176777 A

  However, in the technique described in Patent Document 1, since the protective tube is fixed to the conducting wire side with a tape or the like, it is necessary to attach and detach the tape in order to remove the protective tube when inspecting electrical components. For this reason, it takes time to remove the protective tube at the time of inspection of the electrical component, and the productivity of the electrical component is reduced. Therefore, the subject remains in the point of improving the productivity of an electrical component, preventing the short circuit of conducting wire.

  Then, this invention makes it a subject to provide the conducting wire processing apparatus, the conducting wire processing method, a storage battery, and a storage battery inspection method which can improve the productivity of an electrical component, preventing a short circuit.

  In order to solve the above-described problems, a conductor processing apparatus according to the present invention is a conductor processing apparatus for processing a conductor wire extended from an electrical component, and includes an insulation coating for the conductor wire extended and set. A cutting blade that cuts and exposes the core wire of the conductive wire to the outside between the proximal end and the distal end of the conductive wire, and the cutting blade intersects a first direction in which the conductive wire extends when the insulating coating is cut. A blade portion that abuts against the insulation coating, and the blade portion includes a blade surface facing the tip side of the conductor in the first direction when the insulation coating is cut, and the blade surface is It is characterized in that it is inclined toward the tip side of the conducting wire with respect to a virtual plane orthogonal to the first direction.

  According to the present invention, the blade surface provided on the blade portion of the cutting blade is inclined toward the distal end side of the conducting wire with respect to the virtual plane orthogonal to the first direction, and therefore, between the proximal end and the distal end of the conducting wire. By simply cutting the insulating coating, the insulating coating positioned closer to the leading end of the conducting wire than the cutting blade can be moved to the leading end side of the conducting wire along the inclined surface of the blade surface. Thereby, since the core wire of the front end side of a conducting wire can be covered with insulation coating, it can prevent that a core wire is exposed from the front end side of a conducting wire. Moreover, since the core wire of the conducting wire is exposed to the outside by cutting the insulating coating between the base end and the distal end of the conducting wire, other parts come into contact with the core wire of the conducting wire by the insulating coating positioned on both sides of the exposed core wire. Can be prevented. Therefore, it can suppress that the core wire of a conducting wire contacts with other components and an electrical component short-circuits. In addition, inspection of electrical components can be performed quickly by simply bringing a measuring terminal of a meter such as a voltmeter or ammeter into contact with the core wire exposed between the proximal end and the distal end of the conducting wire. Therefore, it is possible to improve the productivity of the electrical component while preventing a short circuit of the electrical component.

  The electrical component is a storage battery including a positive electrode and a negative electrode, and the conductive wire includes a positive conductive wire extended from the positive electrode and a negative conductive wire extended from the negative electrode, Cutting the insulation coating of the positive electrode conductor at a predetermined position in the direction to expose the core wire of the positive electrode conductor to the outside, and cutting the insulation coating of the negative electrode conductor at a position different from the predetermined position in the first direction. The core wire of the negative electrode conductor is exposed to the outside.

  According to the present invention, since the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at different positions in the first direction, the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at the same position in the first direction; In comparison, the contact of the core wire of the positive electrode conductor and the core wire of the negative electrode conductor can be suppressed. Therefore, it can suppress that the positive electrode and negative electrode of a storage battery short-circuit.

  The insulating coating of the positive electrode conductor is cut so that an exposed length along the first direction of the core wire of the positive electrode conductor is shorter than a diameter of the core wire of the negative electrode conductor, and the first of the core wires of the negative electrode conductor is cut The insulating coating of the negative electrode conductor is cut so that the exposed length along the direction is shorter than the diameter of the core wire of the positive electrode conductor.

  According to the present invention, the insulation coating of the positive electrode conductor is cut so that the exposed length of the core wire of the positive electrode conductor is shorter than the diameter of the core wire of the negative electrode conductor, and the exposed length of the core wire of the negative electrode conductor is Since the insulation coating of the negative electrode conductor is cut so as to be shorter than the diameter, the core wire of the negative electrode conductor can be prevented from entering between the insulation coating of the cut positive electrode conductor, and the core wire of the positive electrode conductor has been cut It is possible to prevent the negative electrode conductor from entering between the insulating coatings. Therefore, since it can prevent that the core wire of a positive electrode conducting wire and the core wire of a negative electrode conducting wire contact, it can prevent that the positive electrode and negative electrode of a storage battery short-circuit.

  Further, the blade portion includes a tapered surface inclined toward the tip side of the conducting wire with respect to the virtual surface on the blade base side opposite to the blade edge side with respect to the blade surface, and the inclination angle of the tapered surface is The angle of inclination of the blade surface is larger.

  According to the present invention, the taper surface is inclined toward the tip end side of the conducting wire on the blade base side with respect to the blade surface, and the inclination angle of the taper surface is larger than the inclination angle of the blade surface. The insulating coating located on the leading end side of the conducting wire relative to the blade can be moved largely to the leading end side of the conducting wire along the tapered surface. Thereby, since the core wire at the front end side of the conducting wire can be reliably covered with the insulating coating, it is possible to reliably prevent the core wire from being exposed from the front end side of the conducting wire.

  In addition, an auxiliary cutting blade that interlocks with the cutting blade is provided on the base end side of the conducting wire in the first direction of the cutting blade, and the auxiliary cutting blade has the blade portion in contact with the insulating coating. After that, an auxiliary blade portion that contacts the insulating coating so as to intersect with the first direction in which the conductive wire extends is provided, and the auxiliary blade portion is configured to cut the base of the conductive wire in the first direction when the insulating coating is cut. An auxiliary blade surface facing the end side is provided, the auxiliary blade surface is inclined to the base end side of the conductor with respect to the virtual surface, and the inclination angle of the auxiliary blade surface with respect to the virtual surface is It is set to be larger than an inclination angle of the blade surface with respect to the virtual surface and less than 90 °, and the cutting blade moves to the tip side of the conducting wire when the insulating coating is cut.

  According to the present invention, the auxiliary blade surface is inclined toward the proximal end side of the conductor with respect to the virtual surface, and the inclination angle of the auxiliary blade surface with respect to the virtual surface is larger than the inclination angle of the blade surface with respect to the virtual surface and 90. Since it is set to less than 0 °, when the insulating coating is cut, the cut portion of the insulating coating can be widened by the blade surface and the auxiliary blade surface. Therefore, the insulation coating can be reliably cut. Furthermore, since the cutting blade moves to the leading end side of the conducting wire when the insulating coating is cut, the insulating coating positioned closer to the leading end side of the conducting wire than the cutting blade can be moved to the leading end side of the conducting wire. As a result, the core wire on the leading end side of the conducting wire can be reliably covered with the insulating coating, so that the core wire can be reliably prevented from being exposed from the leading end side of the conducting wire.

  Further, an auxiliary cutting blade that operates following the operation of the cutting blade is provided on the proximal end side of the conducting wire in the first direction of the cutting blade, and the auxiliary cutting blade has the blade portion that is After the insulation coating is cut, an auxiliary blade portion that comes into contact with the insulation coating so as to intersect the first direction in which the conductive wire extends is provided, and the auxiliary blade portion is disposed on the proximal end side of the conductive wire in the first direction. The auxiliary blade surface is inclined toward the base end side of the conductor with respect to the virtual surface, and the inclination angle of the auxiliary blade surface with respect to the virtual surface is It is set to be larger than an inclination angle with respect to the virtual plane and less than 90 °, and the cutting blade moves to the tip side of the conducting wire after the insulation coating is cut.

  According to the present invention, the auxiliary blade surface is inclined toward the proximal end side of the conductor with respect to the virtual surface, and the inclination angle of the auxiliary blade surface with respect to the virtual surface is larger than the inclination angle of the blade surface with respect to the virtual surface and 90. Since it is set to less than 0 °, when the insulating coating is cut, the cut portion of the insulating coating can be widened by the blade surface and the auxiliary blade surface. Therefore, the insulation coating can be reliably cut. Furthermore, since the cutting blade moves to the leading end side of the conducting wire after the insulation coating is cut, the auxiliary blade surface suppresses the movement of the insulating coating located on the proximal end side of the conducting wire from the cutting blade, and more than the cutting blade. The insulating coating located on the leading end side of the conducting wire can be moved to the leading end side of the conducting wire. As a result, the core wire on the leading end side of the conducting wire can be reliably covered with the insulating coating, so that the core wire can be reliably prevented from being exposed from the leading end side of the conducting wire.

  Further, a pressing jig is provided on the proximal end side of the conducting wire with respect to the auxiliary blade portion so as to press the insulating coating and restrict the movement of the insulating coating on the proximal end side of the conducting wire with respect to the auxiliary blade portion. The pressing jig presses the insulating coating before at least the cutting blade moves to the tip side of the conducting wire.

  According to the present invention, the pressing jig for restricting the movement of the insulating coating is provided on the proximal end side of the conducting wire from the auxiliary blade portion, and the pressing jig is at least before the cutting blade moves to the leading end side of the conducting wire. The insulation coating is pressed against the insulation coating, so that the insulation coating located on the proximal end side of the conductive wire from the cut portion of the insulation coating is prevented from moving while the insulation coating located on the distal end side of the lead wire from the cut portion of the insulation coating. Can be moved to the tip end side of the conducting wire by the cutting blade. Accordingly, it is possible to reliably cut the insulating coating to expose the core wire and to reliably cover the core wire on the distal end side of the conducting wire with the insulating coating.

  The conductive wire processing method of the present invention is a storage battery conductive wire processing method comprising a positive electrode conductor extended from a positive electrode and a negative electrode conductor extended from a negative electrode, wherein the positive electrode conductor and the negative electrode conductor are connected to each other. Conductive wire setting step for extending and setting, and positive electrode insulation coating cutting for cutting the insulation coating of the positive electrode conductor and exposing the core wire of the positive electrode conductor to the outside at a predetermined position in the first direction in which the positive electrode conductor and the negative electrode conductor extend And a negative electrode insulation coating cutting step of cutting the insulation coating of the negative electrode lead and exposing the core wire of the negative electrode lead to the outside at a position different from the predetermined position in the first direction. Yes.

  According to the present invention, the positive electrode insulation coating cutting step of cutting the insulation coating of the positive electrode lead at a predetermined position in the first direction to expose the core wire of the positive electrode lead to the outside, and the negative electrode at a position different from the predetermined position in the first direction And a negative electrode insulation coating cutting step for exposing the core wire of the negative electrode lead wire to the outside by cutting the insulation coating of the lead wire, so that the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at different positions in the first direction. be able to. Therefore, compared with the case where the core wire of a positive electrode lead wire and the core wire of a negative electrode lead wire are exposed in the same position in a 1st direction, it can suppress that the core wire of a positive electrode lead wire and the core wire of a negative electrode lead wire contact. Therefore, it can suppress that the positive electrode and negative electrode of a storage battery short-circuit.

  Further, in the positive electrode insulation coating cutting step, the insulation coating of the positive electrode conductor is cut so that an exposed length along the first direction of the core wire of the positive electrode conductor is shorter than a diameter of the core wire of the negative electrode conductor, In the negative electrode insulation coating cutting step, the insulation coating of the negative electrode conductor is cut so that the exposed length along the first direction of the core wire of the negative electrode conductor is shorter than the diameter of the core wire of the positive electrode conductor. .

  According to the present invention, in the positive electrode insulation coating cutting step, the positive electrode lead insulation coating is cut so that the exposed length of the positive electrode lead core wire is shorter than the diameter of the negative electrode lead core wire, and in the negative electrode insulation coating cutting step, Since the insulation coating of the negative electrode conductor is cut so that the exposed length of the core wire of the negative electrode conductor is shorter than the diameter of the core wire of the positive electrode conductor, the core wire of the negative electrode conductor enters between the insulation coatings of the cut positive electrode conductor. While being able to prevent, it can prevent that the core wire of a positive electrode conducting wire enters between the insulation coating of the cut | disconnected negative electrode conducting wire. Therefore, since it can prevent that the core wire of a positive electrode conducting wire and the core wire of a negative electrode conducting wire contact, it can prevent that the positive electrode and negative electrode of a storage battery short-circuit.

  The storage battery of the present invention is a storage battery including a positive electrode conductor extended from the positive electrode and a negative electrode conductor extended from the negative electrode, and the positive electrode conductor and the negative electrode conductor are extended and arranged in parallel. When the positive electrode conductor and the negative electrode conductor extend at a predetermined position in the first direction, the core wire of the positive electrode conductor is exposed to the outside, and at a position different from the predetermined position in the first direction, The core wire is exposed to the outside.

  According to the present invention, since the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at different positions in the first direction, the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at the same position in the first direction; In comparison, the contact of the core wire of the positive electrode conductor and the core wire of the negative electrode conductor can be suppressed. Therefore, a storage battery that can prevent a short circuit between the positive electrode and the negative electrode can be obtained.

  Further, the exposed length along the first direction of the core wire of the positive electrode conducting wire is shorter than the diameter of the core wire of the negative electrode conducting wire, and the exposed length along the first direction of the core wire of the negative electrode conducting wire is It is characterized by being shorter than the diameter of the core wire of a positive electrode conducting wire.

  According to the present invention, the core wire of the negative electrode conductor can be prevented from entering between the insulation coatings of the cut positive electrode conductor, and the core wire of the positive electrode conductor can enter between the insulation coatings of the cut negative electrode conductor. Can be prevented. Therefore, it is possible to obtain a storage battery that can reliably prevent a short circuit between the positive electrode and the negative electrode.

  The conducting wire processing inspection apparatus of the present invention includes the above-described conducting wire processing device, and is a conducting wire processing inspection device for inspecting a storage battery including a positive electrode and a negative electrode, and the conductive wire is extended from the positive electrode. An insulating member is provided between the cutting blade and the auxiliary cutting blade, the cutting blade, the insulating member, and the auxiliary cutting blade. Are stacked to form a cutting unit, and the cutting unit is provided in a pair corresponding to the positive electrode conductor and the negative electrode conductor, and the cutting blade and the auxiliary cutting blade of one of the cutting units After the blade cuts the insulation coating of the positive electrode conductor, it contacts the core wire of the positive electrode conductor, and the cutting blade and the auxiliary cutting blade of the other cutting unit have the cutting blade that covers the insulation coating of the negative electrode conductor. After cutting, the contact with the core wire of the negative electrode conducting wire, one pair of the pair of cutting blades and the pair of auxiliary cutting blades function as measurement terminals of the voltmeter, the pair of cutting blades and the pair of the above-mentioned One of the other pairs of auxiliary cutting blades functions as a measurement terminal of the ammeter.

  According to the present invention, since the lead wire processing apparatus is included, the productivity of the electrical component can be improved while preventing a short circuit of the electrical component. In addition, one of the pair of cutting blades and the pair of auxiliary cutting blades functions as a voltmeter measurement terminal, and the other pair of the pair of cutting blades and the pair of auxiliary cutting blades is a measurement terminal of the ammeter. Therefore, the cutting of the conductive wire and the inspection of the electrical characteristics of the storage battery can be performed simultaneously. Further, since the pair of cutting blades and the pair of auxiliary cutting blades are in contact with the core wires of the positive electrode conductor and the negative electrode conductor at a total of four points, the electrical characteristics of the storage battery can be easily and accurately inspected by the so-called four-terminal method. Therefore, productivity of the storage battery can be improved while suppressing a short circuit between the positive electrode and the negative electrode of the storage battery.

  Further, at a predetermined position in the first direction, the insulation coating of the positive electrode conductor is cut to expose the core wire of the positive electrode conductor to the outside, and at a position different from the predetermined position in the first direction, The insulating coating is cut to expose the core wire of the negative electrode conductor to the outside.

  According to the present invention, after measuring the electrical characteristics of the storage battery, the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are exposed at different positions in the first direction, so that the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire are Compared with the case where it is exposed at the same position in the first direction, it is possible to suppress contact between the core wire of the positive electrode conductor and the core wire of the negative electrode conductor. Therefore, it can suppress that the positive electrode and negative electrode of a storage battery short-circuit.

  The insulating coating of the positive electrode conductor is cut so that an exposed length along the first direction of the core wire of the positive electrode conductor is shorter than a diameter of the core wire of the negative electrode conductor, and the first of the core wires of the negative electrode conductor is cut The insulating coating of the negative electrode conductor is cut so that the exposed length along the direction is shorter than the diameter of the core wire of the positive electrode conductor.

  According to the present invention, after measuring the electrical characteristics of the storage battery, the core wire of the negative electrode conductor can be prevented from entering between the insulation coatings of the cut positive electrode conductor, and the core wire of the positive electrode conductor has been cut. It is possible to prevent the negative electrode conductor from entering between the insulating coatings. Therefore, since it can prevent that the core wire of a positive electrode conducting wire and the core wire of a negative electrode conducting wire contact, it can prevent that the positive electrode and negative electrode of a storage battery short-circuit.

  Moreover, the conducting wire processing inspection device of the present invention is a conducting wire processing inspection device including the above-described conducting wire processing device, and the operation of the cutting blade is on the proximal end side of the conducting wire in the first direction of the cutting blade. A probe pin that is linked to the cutting blade, and an insulating member is provided between the cutting blade and the probe pin, and the cutting blade, the insulating member, and the probe pin are stacked to form a cutting unit, and the cutting A pair of units is provided corresponding to the positive electrode conductor and the negative electrode conductor, and the cutting blade and the probe pin of one of the cutting units have the cutting blade cut the insulation coating of the positive electrode wire, The cutting blade and the probe pin of the other cutting unit that are in contact with the core wire of the positive electrode lead wire are connected to each other after the cutting blade cuts the insulating coating of the negative electrode lead wire. A pair of the cutting blade and the pair of probe pins that are in contact with the core wire of the negative electrode conducting wire function as a measuring terminal of the voltmeter, and the other of the pair of cutting blades and the pair of probe pins Is a feature that functions as a measuring terminal of an ammeter.

  According to the present invention, it is possible to move the insulating coating positioned closer to the leading end of the conducting wire than the cutting blade to the leading end side of the conducting wire along the inclined surface of the blade surface, and to pair the cutting blade and the pair of probes. Since the pins are in contact with the core wires of the positive electrode conductor and the negative electrode conductor at a total of four points, the electrical characteristics of the storage battery can be easily and accurately inspected by the so-called four-terminal method. Therefore, productivity of the storage battery can be improved while suppressing a short circuit between the positive electrode and the negative electrode of the storage battery.

  Further, a pressing jig is provided on the proximal end side of the conducting wire with respect to the probe pin to press the insulating coating and restrict movement of the insulating coating on the proximal end side of the conducting wire with respect to the probe pin. The pressing jig presses the insulating coating before at least the cutting blade moves to the tip side of the conducting wire.

  According to the present invention, the electrical characteristics of the storage battery can be easily and accurately controlled by the so-called four-terminal method while preventing the insulating coating located on the proximal end side of the conductive wire from moving by the pressing jig from the cut portion of the insulating coating. Can be inspected well. Therefore, the productivity of the storage battery can be improved.

  Further, the pressing jig includes a pressing groove portion formed in a V shape when viewed from the first direction, and the movement of the insulating coating is regulated by arranging the conductive wire in the pressing groove portion. It is a feature.

  According to the present invention, by arranging the conducting wire in the pressing groove portion, the pressing jig, the positive electrode conducting wire and the negative electrode conducting wire can be brought into contact with each other over a wide area. Accordingly, the electrical characteristics of the storage battery can be easily and accurately inspected by the so-called four-terminal method while reliably restricting the movement of the insulating coating. Therefore, the productivity of the storage battery can be improved.

  Further, in the conductor wire processing inspection apparatus of the present invention, the cutting blade contacts the core wire of the positive electrode conductor and the core wire of the negative electrode conductor after cutting the insulating coating of the positive electrode conductor and the insulating coating of the negative electrode conductor. It functions as a measurement terminal of the voltmeter and a measurement terminal of the ammeter.

  According to the present invention, the cutting blade contacts the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire, and functions as a measurement terminal of the voltmeter and a measurement terminal of the ammeter. It is possible to easily and accurately inspect the mechanical characteristics at low cost. Therefore, productivity of the storage battery can be improved while suppressing a short circuit between the positive electrode and the negative electrode of the storage battery.

  Moreover, the conducting wire processing apparatus of the present invention is characterized in that the blade portion is formed in a V shape when viewed from the first direction.

  According to the present invention, since the blade portion is formed in a V shape, the lead wire to be cut can be guided to the blade portion and reliably cut.

  In addition, an arc-shaped relief portion is formed in the other portion of the blade portion when viewed from the first direction, and a radius of curvature of the relief portion is set to a size corresponding to the core wire. Yes.

  According to the present invention, the blade portion can reliably cut only the insulating coating and can prevent the core wire from being cut.

  Moreover, the thickness of the said part is characterized by being thinner than the diameter of the said core wire.

  According to the present invention, since the exposed length of the core wire after the insulation coating is cut is shorter than the diameter of the core wire, it is possible to prevent the core wires of other conductive wires from entering. Therefore, since it can prevent that core wires contact, an electrical component can prevent a short circuit.

  In addition, an auxiliary cutting blade that contacts the insulating coating so as to intersect the first direction from the opposite side of the cutting blade across the conductor is provided, and the auxiliary cutting blade has the same shape as the cutting blade It is characterized by being formed.

  According to the present invention, since the cutting blade and the auxiliary cutting blade are each formed in a V shape, the insulating coating can be cut with the conductive wire securely sandwiched between the cutting blade and the auxiliary cutting blade. Moreover, since it has the same shape as the cutting blade and the auxiliary cutting blade, it can be formed at low cost.

  Further, the cutting blade and the auxiliary cutting blade are formed so as to be rotatable around the conducting wire after contacting the insulating coating.

  According to the present invention, the insulating coating can be reliably cut by rotating around the conducting wire after the cutting blade and the auxiliary cutting blade contact the insulating coating.

  Further, a rotary blade unit having a rotation center axis in a direction orthogonal to the first direction is provided, and a plurality of the cutting blades are provided on an outer peripheral surface of the rotary blade unit.

  According to the present invention, the insulating coating can be cut while aligning while rotating the rotary blade unit.

  In addition, the conductor wire processing inspection apparatus of the present invention includes a pair of the rotary blade units on both sides of the conductor, the pair of rotary blade units are interlocked with each other, and one of the rotary blade units is measured by a voltmeter. The other rotary blade unit functions as a terminal of the ammeter.

  According to the present invention, the electrical characteristics of the storage battery can be easily and accurately inspected at a low cost by the so-called four-terminal method using the cutting blade of the rotary blade unit. Therefore, it is possible to improve the productivity of the electrical component while suppressing a short circuit between the positive electrode and the negative electrode of the electrical component.

  According to the present invention, the blade surface provided on the blade portion of the cutting blade is inclined toward the distal end side of the conducting wire with respect to the virtual plane orthogonal to the first direction, and therefore, between the proximal end and the distal end of the conducting wire. By simply cutting the insulating coating, the insulating coating positioned closer to the leading end of the conducting wire than the cutting blade can be moved to the leading end side of the conducting wire along the inclined surface of the blade surface. Thereby, since the core wire of the front end side of a conducting wire can be covered with insulation coating, it can prevent that a core wire is exposed from the front end side of a conducting wire. Moreover, since the core wire of the conducting wire is exposed to the outside by cutting the insulating coating between the base end and the distal end of the conducting wire, other parts come into contact with the core wire of the conducting wire by the insulating coating positioned on both sides of the exposed core wire. Can be prevented. Therefore, it can suppress that the core wire of a conducting wire contacts with other components and an electrical component short-circuits. In addition, inspection of electrical components can be performed quickly by simply bringing a measuring terminal of a meter such as a voltmeter or ammeter into contact with the core wire exposed between the proximal end and the distal end of the conducting wire. Therefore, it is possible to improve the productivity of the electrical component while preventing a short circuit of the electrical component.

It is a top view of the storage battery which concerns on this embodiment. It is an enlarged view of the exposed part of a positive electrode core wire and a negative electrode core wire. It is a schematic block diagram of the conducting wire processing apparatus which concerns on 1st embodiment. FIG. 4 is a view taken in the direction of arrow B in FIG. 3. It is a flowchart of each process in a conducting wire processing method. It is explanatory drawing of a positive electrode insulation coating cutting process. It is a schematic block diagram of the conducting wire processing apparatus which concerns on the modification of 1st embodiment. It is a schematic block diagram of the conducting wire processing apparatus which concerns on 2nd embodiment. It is a schematic block diagram of the conducting wire processing apparatus which concerns on the 1st modification of 2nd embodiment. It is a schematic block diagram of the conducting wire processing apparatus which concerns on the 2nd modification of 2nd embodiment. It is a schematic block diagram of the test | inspection circuit for test | inspecting the electrical property of a storage battery. It is a schematic block diagram of the conducting wire processing inspection apparatus which concerns on 3rd embodiment. It is a schematic block diagram of the conducting wire processing inspection apparatus which concerns on the 1st modification of 3rd embodiment. It is a schematic block diagram of the conducting wire processing inspection apparatus which concerns on the 2nd modification of 3rd embodiment. It is C arrow line view in FIG. It is a perspective view of the cutting blade of the conducting wire processing apparatus which concerns on 4th embodiment. It is explanatory drawing of the conducting wire processing apparatus which concerns on 4th embodiment. It is explanatory drawing of the conducting wire processing apparatus which concerns on 4th embodiment. It is a front view of the cutting blade which concerns on the modification of 4th embodiment. It is a side view of the conducting wire processing inspection apparatus which concerns on 5th embodiment. It is a perspective view of the cutting blade of the conducting wire processing inspection apparatus which concerns on the modification of 5th embodiment. It is explanatory drawing of the lead wire processing apparatus which concerns on another Example.

Embodiments of the present invention will be described below with reference to the drawings.
Below, after explaining the storage battery which concerns on embodiment first, the lead wire processing apparatus, the lead wire processing method, and the lead wire processing inspection apparatus containing a lead wire processing apparatus are demonstrated.

(Storage battery)
FIG. 1 is a plan view of a storage battery 1 according to the present embodiment. In addition, in each figure after FIG. 1, in order to make each member a recognizable size, the scale of each member is appropriately changed. In FIG. 1, the thickness of the conducting wire 3 is exaggerated for easy understanding.
As shown in FIG. 1, the storage battery 1 of the present embodiment includes a battery part 2 formed in a rectangular parallelepiped shape and a conductive wire 3 extending from one end face 2 a in the longitudinal direction of the storage battery 1. . Hereinafter, the direction in which the conductive wire 3 extends in the normal direction of the one end surface 2a of the battery unit 2 is referred to as a first direction F. Further, the battery part 2 side in the first direction F of the conducting wire 3 is referred to as a base end side, and the side opposite to the battery part 2 is referred to as a distal end side.
The battery unit 2 is a secondary battery such as a known lithium ion battery, for example, and includes a positive electrode, a negative electrode, and an electrolyte (all not shown) inside.

  The conducting wire 3 is connected to the positive electrode of the battery unit 2 and extended in the first direction F, the negative conducting wire 21 connected to the negative electrode of the battery unit 2 and extended in the first direction F, including. 1 shows a state in which the positive electrode conductor 11 and the negative electrode conductor 21 are linearly extended along the first direction F and arranged in parallel.

Each of the positive electrode conductors 11 corresponds to a positive electrode core wire 13 (corresponding to “core wire of positive electrode conductor” in the claims) and a positive electrode insulation coating 15 covering the positive electrode core wire 13 (“insulation coating of positive electrode conductor” in the claims). Equivalent to.). The positive electrode core wire 13 is a wire formed of a metal material having high conductivity such as copper. The positive electrode insulation coating 15 is formed of a soft resin material having electrical insulation.
Similarly to the positive electrode lead wire 11, the negative electrode lead wire 21 corresponds to a negative electrode core wire 23 (corresponding to “core wire of negative electrode lead wire” in the claims) and a negative electrode insulation coating 25 covering the negative electrode core wire 23 (“insulation coating of negative electrode lead wire” in claims). Is equivalent to.). Since the configuration of the negative electrode conductor 21 is the same as that of the positive electrode conductor 11, a detailed description thereof is omitted.

The positive electrode core wire 13 of the positive electrode lead wire 11 is exposed to the outside by cutting the positive electrode insulation coating 15 between the base end and the tip end in the first direction F. More specifically, at the position of the distance D1 from the one side end surface 2a of the battery unit 2, the positive electrode insulating coating 15 is cut to be divided into a base end side covering portion 15a and a tip end side covering portion 15b, and the base end The positive electrode core wire 13 is exposed to the outside from between the side covering portion 15a and the distal end side covering portion 15b.
Further, the negative electrode core wire 23 of the negative electrode lead wire 21 is between the base end and the tip end in the first direction F, and the negative electrode insulation coating 25 is cut at a position different from the exposed position of the positive electrode core wire 13 of the positive electrode lead wire 11. Exposed to the outside. More specifically, the negative electrode core wire 23 is formed such that the negative electrode insulating coating 25 is cut from the one end surface 2a of the battery unit 2 at a distance D2 that is longer than the distance D1, so that the base end side coating portion 25a and the distal end are covered. The negative electrode core wire 23 is exposed to the outside from between the proximal end side covering portion 25a and the distal end side covering portion 25b.
Thus, since the positive electrode core wire 13 and the negative electrode core wire 23 are exposed at different positions in the first direction F, compared to the case where the positive electrode core wire 13 and the negative electrode core wire 23 are exposed at the same position in the first direction F, It can suppress that the positive electrode core wire 13 and the negative electrode core wire 23 contact. Therefore, it is possible to prevent the positive electrode and the negative electrode of the storage battery 1 from being short-circuited via the positive electrode core wire 13 and the negative electrode core wire 23.
Note that the cutting of the positive electrode insulating coating 15 and the negative electrode insulating coating 25 is realized by a conductive wire processing device or a conductive wire processing inspection device described later.

FIG. 2 is an enlarged view of exposed portions of the positive electrode core wire 13 and the negative electrode core wire 23.
Here, as shown in FIG. 2, the diameter of the positive electrode lead wire 11 (corresponding to the diameter of the positive electrode insulation coating 15) is H1, the diameter of the positive electrode core wire 13 is K1, and the positive electrode core wire 13 is exposed along the first direction F. The length is L1, the diameter of the negative electrode conductor 21 (corresponding to the diameter of the negative electrode insulation coating 25) is H2, the diameter of the negative electrode core 23 is K2, and the exposed length of the negative electrode core 23 along the first direction F is L2. When the positive electrode core wire 13 and the negative electrode core wire 23 are
H2>K2> L1 (1)
And H1>K1> L2 (2)
It is formed to satisfy. That is, as shown in the formula (1), the exposed length L1 along the first direction F of the positive electrode core wire 13 is shorter than the diameter K2 of the negative electrode core wire 23, and as shown in the formula (2), the negative electrode The exposed length L2 along the first direction F of the core wire 23 is shorter than the diameter K1 of the positive electrode core wire 13.
By satisfying the formulas (1) and (2), the negative electrode core wire 23 can be prevented from entering between the proximal end side covering portion 15a and the distal end side covering portion 15b in the cut positive electrode insulating coating 15. The positive electrode core wire can be prevented from entering between the proximal end side covering portion 25a and the distal end side covering portion 25b in the cut negative electrode insulating coating 25. Therefore, it is possible to reliably prevent the positive electrode and the negative electrode of the storage battery 1 from being short-circuited via the positive electrode core wire 13 and the negative electrode core wire 23. In the present embodiment, the exposed length of the positive electrode core wire 13 is equal to L1 and the exposed length L2 of the negative electrode core wire 23, and the diameter K1 of the positive electrode core wire 13 and the diameter K2 of the negative electrode core wire 23 are equal. The diameter H1 of the positive electrode lead 11 and the diameter H2 of the negative electrode lead 21 are equal.

(First embodiment, conducting wire processing apparatus)
Then, the lead wire processing apparatus 30 of the positive electrode lead 11 and the negative electrode lead 21 which concern on 1st embodiment about the storage battery 1 mentioned above is demonstrated.
FIG. 3 is a schematic configuration diagram of the conducting wire processing apparatus 30 according to the first embodiment, and illustrates a state where the conducting wire 3 (the positive electrode conducting wire 11 in FIG. 3) is set. Here, the first direction in FIG. 3 coincides with the horizontal direction, the left side is the proximal end side of the conducting wire 3 in the first direction F, and the right side in FIG. On the side. Further, the vertical direction in FIG. 3 coincides with the vertical vertical direction. In addition, since the state which set the negative electrode conducting wire 21 (refer FIG. 2) is the same as the state which set the positive electrode conducting wire 11, illustration is abbreviate | omitted in FIG.

As shown in FIG. 3, the lead wire processing apparatus 30 includes a set jig 31 for setting the positive electrode lead wire 11 and the negative electrode lead wire 21 (see FIG. 1), and positive electrode insulation of the positive electrode lead wire 11 set on the set jig 31. A cutting blade 32 for cutting the coating 15 and the negative electrode insulating coating 25 (see FIG. 1) of the negative electrode conductor 21.
The setting jig 31 has a mounting surface 31a facing vertically upward. The mounting surface 31a is provided with a regulating member (not shown) for extending the conducting wire 3 in a straight line, for example. Thereby, the positive electrode conducting wire 11 and the negative electrode conducting wire 21 are arranged in parallel in a state of being linearly extended along the first direction F (see FIG. 1).

The cutting blade 32 that cuts the positive electrode insulation coating 15 of the positive electrode conducting wire 11 is formed of a metal material such as iron, copper, aluminum, or stainless steel, for example, and is, for example, an actuator (not shown) on one side end surface 2a ( It can move along the vertical vertical direction at a distance D1 from (see FIG. 1). The cutting blade 32 includes a blade portion 33 that contacts the positive electrode insulating coating 15 so as to intersect the first direction F when the positive electrode insulating coating 15 is cut.
The blade portion 33 includes a blade surface 34 that faces the distal end side (right side in FIG. 3) of the positive electrode conducting wire 11 in the first direction F when the positive electrode insulating coating 15 is cut. When the virtual surface orthogonal to the first direction F is defined as S, the blade surface 34 is inclined with respect to the virtual surface S by the angle θ1 toward the distal end side of the positive electrode conducting wire 11. The inclination angle θ1 of the blade surface 34 with respect to the virtual surface S is set to about 20 °, for example.
The inclination of the blade surface 34 is preferably 70% to 100% of the thickness of the cutting blade 32. For example, when the inclination is 70% with respect to the thickness of the cutting blade 32, 30% of the thickness of the cutting blade 32 is in contact with the positive electrode conductor 11 (conductor 3). Moreover, when the inclination is 100% with respect to the thickness of the cutting blade 32, the cutting blade 32 and the positive electrode conducting wire 11 (conducting wire 3) are in contact with each other as a continuous line in the vertical vertical direction. Further, the inclination of the blade surface 34 is more preferably 85 to 100% of the thickness of the cutting blade 32.
Moreover, inclination-angle (theta) 1 is 1-60 degrees, More preferably, it is 20-30 degrees.

4 is a view taken in the direction of arrow B in FIG.
As shown in FIG. 4, an arcuate portion 34 a is formed on the blade surface 34. The arc-shaped portion 34a is formed by a region corresponding to the positive electrode conducting wire 11 in the blade edge 33a of the blade portion 33 being recessed in a semicircular arc shape toward the blade base 33b side. The radius of the arc-shaped portion 34 a is equal to or greater than the radius of the positive electrode core wire 13 and is smaller than the radius of the positive electrode insulating coating 15. Thereby, since the blade part 33 can bite into the positive electrode insulation coating 15 after the arc-shaped part 34a contact | abuts to the positive electrode conducting wire 11, the positive electrode insulation coating 15 can be cut | disconnected from the perpendicular upper direction.

  The cutting blade for cutting the negative electrode insulation coating 25 (see FIG. 1) is capable of cutting the negative electrode insulation coating 25 at a distance D2 (see FIG. 1) from the one end surface 2a (see FIG. 1) of the battery unit 2. Except for the arrangement, the cutting blade 32 is the same as the cutting blade 32 for cutting the positive electrode insulation coating 15 described above. Therefore, a detailed description of the cutting blade for cutting the negative electrode insulation coating 25 is omitted.

Then, the conducting wire processing method which processes the conducting wire 3 (refer FIG. 1) of the storage battery 1 using the conducting wire processing apparatus 30 comprised as mentioned above is demonstrated. In addition, please refer to FIGS. 1-4 for each code | symbol in description of the following conducting wire processing methods.
FIG. 5 is a flowchart of each step in the wire processing method.
As shown in FIG. 5, the lead wire processing method includes a lead wire setting step S <b> 11 for setting the lead wire 3 of the storage battery 1 on the setting jig 31, a positive electrode insulation coating cutting step S <b> 13 for cutting the positive electrode insulation coating 15, and a negative electrode insulation coating 25. Negative electrode insulation coating cutting step S15.
In the conductive wire processing method, first, a conductive wire setting step S11 is performed. In the lead wire setting step S11, the positive electrode lead wire 11 and the negative electrode lead wire 21 are linearly extended and arranged side by side so as to be parallel to each other and placed on the placement surface 31a of the setting jig 31.

FIG. 6 is an explanatory diagram of the positive electrode insulation coating cutting step S13.
Subsequently, as shown in FIG. 6, in the positive electrode insulation coating cutting step S <b> 13, the cutting blade 32 is moved vertically downward at a distance D <b> 1 from the one end surface 2 a (see FIG. 1) of the battery unit 2 to positive electrode insulation. The coating 15 is cut to expose the positive electrode core wire 13 to the outside. At this time, the positive electrode core wire 13 is exposed to the outside so that the expression (1) is satisfied, that is, the exposed length L1 along the first direction F of the positive electrode core wire 13 is shorter than the diameter K2 of the negative electrode core wire 23. (See FIG. 2).
Here, the blade surface 34 of the cutting blade 32 is inclined toward the distal end side of the positive electrode conducting wire 11 with respect to the virtual surface S orthogonal to the first direction F. Therefore, when the positive electrode insulation coating 15 is cut between the proximal end and the distal end of the positive electrode conducting wire 11, the distal end side covering portion 15 b positioned closer to the distal end side of the positive electrode conducting wire 11 than the cutting blade 32 is formed on the inclined surface of the blade surface 34. It moves to the front end side of the positive electrode conducting wire 11 so as to follow. Thereby, since the front end surface of the front end side covering portion 15 b is disposed outside the front end surface 13 a of the positive electrode core wire 13, the positive electrode core wire 13 is not exposed from the front end of the positive electrode conducting wire 11.

Subsequently, in the negative electrode insulation coating cutting step S15, the cutting blade 32 is moved vertically downward at the position of the distance D2 from the one side end surface 2a of the battery unit 2 to cut the negative electrode insulation coating 25, and the negative electrode core wire 23 is set to the outside. Expose. At this time, the negative electrode core wire 23 is exposed to the outside so that the expression (2) is satisfied, that is, the exposed length L2 along the first direction F of the negative electrode core wire 23 is shorter than the diameter K1 of the positive electrode core wire 13 ( (See FIG. 2). Since the negative electrode insulation coating cutting step S15 is the same as the positive electrode insulation coating cutting step S13 except for the cutting position of the negative electrode insulation coating 25, the description thereof is omitted.
In this embodiment, the negative electrode insulation coating cutting step S15 is performed after the positive electrode insulation coating cutting step S13. However, the positive electrode insulation coating cutting step S13 and the negative electrode insulation coating cutting step S15 may be performed simultaneously, You may perform positive electrode insulation coating cutting process S13 after negative electrode insulation coating cutting process S15.

(effect)
According to the first embodiment, the blade surface 34 provided on the blade portion 33 of the cutting blade 32 is inclined toward the distal end side of the positive electrode conductor 11 with respect to the virtual surface S orthogonal to the first direction F. By simply cutting the positive electrode insulation coating 15 between the base end and the distal end of the positive electrode lead wire 11, the tip side covering portion 15 b positioned on the tip end side of the positive electrode lead wire 11 with respect to the cutting blade 32 is formed on the inclined surface of the blade surface 34. It can be made to move to the front end side of the positive electrode lead wire 11 along. Thereby, since the positive electrode core wire 13 can be covered with the positive electrode insulation coating 15 on the front end side of the positive electrode lead wire 11, it is possible to prevent the positive electrode core wire 13 from being exposed from the front end side of the positive electrode lead wire 11. Moreover, since the positive electrode core wire 13 is exposed to the outside by cutting the positive electrode insulation coating 15 between the base end and the tip of the positive electrode lead wire 11, the base end side covering portions 15a located on both sides of the exposed positive electrode core wire 13 and It is possible to prevent other components from coming into contact with the positive electrode core wire 13 by the front end side covering portion 15b. Therefore, it can suppress that the positive electrode core wire 13 contacts other components, and the storage battery 1 is short-circuited. Moreover, the test | inspection of the storage battery 1 can be quickly performed only by contact | abutting the measurement terminal of meters, such as a voltmeter and an ammeter, to the positive electrode core wire 13 exposed between the base end and front-end | tip of the positive electrode conducting wire 11. FIG. Therefore, productivity of the storage battery 1 can be improved while preventing a short circuit of the storage battery 1.
In addition, while conducting the conductor processing apparatus 30 which concerns on 1st embodiment similarly to the process of the negative electrode conducting wire 21, it can have the same effect.

  Further, since the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21 are exposed at different positions in the first direction F, the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21 are the first. Compared with the case where it is exposed at the same position in the direction F, it is possible to suppress contact between the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21. Therefore, it is possible to suppress a short circuit between the positive electrode and the negative electrode of the storage battery 1.

  Further, the positive electrode insulation coating 15 is cut so that the exposed length L1 of the positive electrode core wire 13 is shorter than the diameter K2 of the negative electrode core wire 23, and the exposed length L2 of the negative electrode core wire 23 becomes shorter than the diameter K1 of the positive electrode core wire 13. Since the negative electrode insulation coating 25 is cut as described above, the negative electrode core wire 23 can be prevented from entering between the base end side coating portion 15a and the distal end side coating portion 15b in the cut positive electrode insulation coating 15 and the positive electrode core wire 13 can be prevented. Can be prevented from entering between the base end side covering portion 25a and the tip end side covering portion 25b in the cut negative electrode insulating coating 25. Therefore, since it can prevent that the positive electrode core wire 13 and the negative electrode core wire 23 contact, it can prevent that the positive electrode and negative electrode of the storage battery 1 short-circuit.

(Modification of the first embodiment)
FIG. 7 is a schematic configuration diagram of a conducting wire processing apparatus 30 according to a modification of the first embodiment.
Then, the conducting wire processing apparatus 30 which concerns on the modification of 1st embodiment is demonstrated.
In the wire processing device 30 of the first embodiment, the blade portion 33 of the cutting blade 32 includes a blade surface 34 that is inclined with respect to the virtual surface S by an angle θ1 on the distal end side of the positive electrode conductive wire 11 (see FIG. 3). .
On the other hand, as shown in FIG. 7, in the wire processing apparatus 30 according to the modification of the first embodiment, the blade portion 33 of the cutting blade 32 has an angle θ <b> 1 toward the front end side of the wire 3 with respect to the virtual plane S. It differs from 1st embodiment by the point provided with the blade surface 34 which only inclined and the taper surface 36 formed in the blade base 33b side above the blade surface 34. FIG. In addition, below, description is abbreviate | omitted about the component similar to 1st embodiment, and only a different part is demonstrated.

  The tapered surface 36 formed on the blade portion 33 is provided so as to be inclined with respect to the virtual surface S by an angle θ2 on the distal end side of the conducting wire 3 (the positive conducting wire 11 is shown in FIG. 7). The inclination angle θ2 of the tapered surface 36 with respect to the virtual surface S is larger than the inclination angle θ1 of the blade surface 34 with respect to the virtual surface S. The inclination angle θ1 of the blade surface 34 with respect to the virtual surface S is 20 °, while the inclination angle θ2 of the tapered surface 36 with respect to the virtual surface S is set to 30 °, for example.

  According to the modification of the embodiment, the taper surface 36 that is inclined toward the distal end side of the positive electrode conducting wire 11 is provided on the blade base 33b side with respect to the blade surface 34, and the inclination angle θ2 of the taper surface 36 is greater than the inclination angle θ1 of the blade surface 34. Therefore, after cutting the positive electrode insulation coating 15, the tip side covering portion 15 b positioned on the tip side of the positive electrode conducting wire 11 with respect to the cutting blade 32 is tapered with an inclination angle θ 2 larger than the inclination angle θ 1 of the blade surface 34. Along the surface 36, the positive electrode conductor 11 can be largely moved toward the tip side. Thereby, since the positive electrode core wire 13 on the front end side of the positive electrode lead wire 11 can be reliably covered with the positive electrode insulation coating 15, it is possible to reliably prevent the front end surface 13a of the positive electrode core wire 13 from being exposed from the front end side of the positive electrode lead wire 11. . In addition, the conducting wire processing apparatus 30 according to the modification of the first embodiment can be similarly applied to the processing of the negative electrode conducting wire 21 and can exhibit the same operational effects.

(Second embodiment)
FIG. 8 is a schematic configuration diagram of the wire processing apparatus 30 according to the second embodiment.
Then, the lead wire processing apparatus 30 which concerns on 2nd embodiment is demonstrated.
The conducting wire processing apparatus 30 of the first embodiment includes a cutting blade 32 that cuts the positive insulating coating 15 of the positive conducting wire 11 and exposes the positive electrode core wire 13 to the outside between the base end and the distal end of the positive conducting wire 11. (See FIG. 3).
On the other hand, as shown in FIG. 8, the conducting wire processing apparatus 30 according to the second embodiment is arranged on the proximal end side of the conducting wire 3 (the positive conducting wire 11 is shown in FIG. 8) in the first direction F of the cutting blade 32. The second embodiment is different from the first embodiment in that an auxiliary cutting blade 42 interlocked with the cutting blade 32 is provided. In addition, below, description is abbreviate | omitted about the component similar to 1st embodiment, and only a different part is demonstrated.

  As shown in FIG. 8, the auxiliary cutting blade 42 is disposed so as to be in close contact with the cutting blade 32 on the proximal end side (left side in FIG. 8) of the positive electrode conducting wire 11 in the first direction F of the cutting blade 32. Yes. As with the cutting blade 32, the auxiliary cutting blade 42 is formed of a metal material such as iron, copper, aluminum, or stainless steel, for example, along the vertical vertical direction in conjunction with the cutting blade 32 by an actuator (not shown). Can be moved.

The auxiliary cutting blade 42 includes an auxiliary blade portion 43. The blade edge 43 a of the auxiliary blade portion 43 is disposed so as to be positioned vertically above the blade edge 33 a of the blade portion 33. Therefore, the auxiliary blade portion 43 contacts the positive electrode insulating coating 15 so as to intersect the first direction F after the cutting blade 32 contacts the positive electrode insulating coating 15.
The auxiliary blade portion 43 includes an auxiliary blade surface 44 that faces the proximal end side of the positive electrode conductor 11 in the first direction F when the positive insulating coating 15 is cut by the cutting blade 32. The auxiliary blade surface 44 is inclined with respect to the virtual surface S by an angle θ3 toward the base end side of the positive electrode conductor 11. The inclination angle θ3 of the auxiliary blade surface 44 with respect to the virtual surface S is set to be larger than the inclination angle θ1 of the blade surface 34 with respect to the virtual surface S and smaller than 90 °. The inclination angle θ3 of the auxiliary blade surface 44 with respect to the virtual surface S in the present embodiment is set to about 60 °, for example.

Specifically, the cutting blade 32 and the auxiliary cutting blade 42 operate as follows.
At the time of cutting the positive electrode insulation coating 15, first, the cutting blade 32 and the auxiliary cutting blade 42 are simultaneously moved downward simultaneously. Subsequently, the cutting blade 32 comes into contact with the positive electrode insulation coating 15 first. Subsequently, the auxiliary cutting blade 42 comes into contact with the positive electrode insulating coating 15 while the cutting blade 32 is cutting the positive electrode insulating coating 15. As a result, the base end side covering portion 15a of the positive electrode insulation coating 15 located on the base end side with respect to the cutting blade 32 moves in the first direction F in a state where the base end side covering portion 15a is in contact with the auxiliary blade surface 44 of the auxiliary cutting blade 42. Be regulated. Subsequently, the cutting blade 32 moves downward and moves to the tip side of the positive electrode lead wire 11. Thereby, the cutting blade 32 can move the front end side covering portion 15 b of the positive electrode insulating coating 15 located on the front end side of the cutting blade 32 to the front end side of the positive electrode conducting wire 11 while cutting the positive electrode insulating coating 15. .

  Note that the cutting blade and the auxiliary cutting blade for cutting the negative electrode insulation coating 25 (see FIG. 1) are each at a position of a distance D2 (see FIG. 1) from the one end face 2a (see FIG. 1) of the battery unit 2. Except for being arranged so that 25 can be cut, it is the same as the cutting blade 32 and the auxiliary cutting blade 42 for cutting the positive electrode insulation coating 15 described above. Therefore, detailed description of the cutting blade and the auxiliary cutting blade for cutting the negative electrode insulating coating 25 is omitted.

  According to the second embodiment, the auxiliary blade surface 44 is inclined toward the proximal end side of the positive electrode conducting wire 11 with respect to the virtual surface S, and the inclination angle θ3 of the auxiliary blade surface 44 with respect to the virtual surface S is that of the blade surface 34. Since the inclination angle θ1 with respect to the virtual surface S is set to be larger than 90 ° and less than 90 °, the cutting portion of the positive electrode insulation coating 15 is widened by the blade surface 34 and the auxiliary blade surface 44 when the positive electrode insulation coating 15 is cut. be able to. Therefore, the positive electrode insulation coating 15 can be reliably cut. Further, since the cutting blade 32 moves to the tip end side of the positive electrode conducting wire 11 when cutting the positive electrode insulation coating 15, the tip side covering portion 15 b of the positive electrode conducting wire 11 can be moved to the tip end side of the positive electrode conducting wire 11. As a result, the positive electrode core wire 13 can be reliably covered with the positive electrode insulation coating 15, so that the positive electrode core wire 13 can be reliably prevented from being exposed from the tip end side of the positive electrode conducting wire 11.

(First modification of the second embodiment)
FIG. 9 is a schematic configuration diagram of a conducting wire processing apparatus 30 according to a first modification of the second embodiment.
Then, the conducting wire processing apparatus 30 which concerns on the 1st modification of 2nd embodiment is demonstrated.
The wire processing apparatus 30 according to the second embodiment includes an auxiliary cutting blade 42 that interlocks with the cutting blade 32 on the base end side of the positive electrode conducting wire 11 in the first direction F of the cutting blade 32, and the cutting blade 32 is positive electrode insulated. When the coating 15 was cut, it moved to the tip side of the positive electrode lead 11 (see FIG. 8).
On the other hand, as shown in FIG. 9, the wire machining apparatus 30 according to the first modification of the second embodiment has a cutting blade 32 on the proximal end side of the positive electrode conducting wire 11 in the first direction F of the cutting blade 32. And the cutting blade 32 is different from the second embodiment in that the cutting blade 32 moves to the tip side of the positive electrode conductor 11 after the positive electrode insulation coating 15 is cut. In addition, below, description is abbreviate | omitted about the component similar to 2nd embodiment, and only a different part is demonstrated.

Specifically, the cutting blade 32 and the auxiliary cutting blade 42 operate as follows.
When cutting the positive electrode insulation coating 15, first, the cutting blade 32 moves downward. Subsequently, the auxiliary cutting blade 42 moves downward so as to follow the cutting blade 32 after the cutting blade 32 cuts the positive electrode insulation coating 15. As a result, the base end side covering portion 15a of the positive electrode insulation coating 15 located on the base end side with respect to the cutting blade 32 moves in the first direction F in a state where the base end side covering portion 15a is in contact with the auxiliary blade surface 44 of the auxiliary cutting blade 42. Be regulated. Subsequently, the cutting blade 32 slides in the horizontal direction along the first direction F toward the distal end side of the positive electrode conducting wire 11. Thereby, the cutting blade 32 can move the front end side covering portion 15 b of the positive electrode insulating coating 15 located on the front end side of the cutting blade 32 to the front end side of the positive electrode conducting wire 11 after cutting the positive electrode insulating coating 15. .

  According to the first modified example of the second embodiment, the auxiliary blade surface 44 is inclined to the proximal end side of the positive electrode conducting wire 11 with respect to the virtual surface S, and the inclination angle θ3 of the auxiliary blade surface 44 with respect to the virtual surface S. Is set to be larger than the inclination angle θ1 of the blade surface 34 with respect to the virtual surface S and less than 90 °, so that when the positive electrode insulation coating 15 is cut, the cutting position of the positive electrode insulation coating 15 is defined as the blade surface 34 and the auxiliary blade The surface 44 can be expanded. Therefore, the positive electrode insulation coating 15 can be reliably cut. Furthermore, since the cutting blade 32 moves to the distal end side of the positive electrode conducting wire 11 after cutting the positive electrode insulating coating 15, the distal blade side covering portion 15b is moved while the movement of the proximal end side covering portion 15a is suppressed by the auxiliary blade surface 44. The positive electrode conductor 11 can be moved to the tip side. As a result, the positive electrode core wire 13 can be reliably covered with the positive electrode insulation coating 15, so that the positive electrode core wire 13 can be reliably prevented from being exposed from the tip end side of the positive electrode conducting wire 11.

(Second modification of the second embodiment)
FIG. 10 is a schematic configuration diagram of a conducting wire machining apparatus 30 according to a second modification of the second embodiment.
Then, the conducting wire processing apparatus 30 which concerns on the 2nd modification of 2nd embodiment is demonstrated.
The wire processing apparatus 30 according to the second embodiment includes an auxiliary cutting blade 42 that interlocks with the cutting blade 32 on the base end side of the positive electrode conducting wire 11 in the first direction F of the cutting blade 32, and the cutting blade 32 is positive electrode insulated. When the coating 15 was cut, it moved to the tip side of the positive electrode lead 11 (see FIG. 8).
On the other hand, as shown in FIG. 10, the wire machining apparatus 30 according to the second modified example of the second embodiment includes a cutting blade 32 and an auxiliary cutting blade 42 that interlocks with the cutting blade 32, and an auxiliary blade. This is different from the second embodiment in that a pressing jig 52 is provided on the proximal end side of the positive electrode conducting wire 11 with respect to the portion 43. In addition, below, description is abbreviate | omitted about the component similar to 2nd embodiment, and only a different part is demonstrated.

  The pressing jig 52 is a member formed in a prismatic shape from a metal material such as iron, copper, aluminum, stainless steel, or a resin material. The pressing jig 52 moves downward when the positive electrode insulation coating 15 is cut, presses the positive electrode insulation coating 15, and restricts the movement of the positive electrode insulation coating 15 on the proximal end side of the positive electrode conductor 11 from the auxiliary blade portion 43. Yes. The end surface 53 of the pressing jig 52 is subjected to, for example, graining or sandblasting, and is provided with fine irregularities. Thereby, when the positive electrode insulation coating 15 is pressed by the pressing jig 52, the friction coefficient between the end surface 53 of the pressing jig 52 and the positive electrode insulation coating 15 can be increased. It can be regulated reliably.

The pressing jig 52 presses the positive electrode insulation coating 15 before the cutting blade 32 moves to the front end side of the positive electrode conducting wire 11. Specifically, the pressing jig 52, the cutting blade 32, and the auxiliary cutting blade 42 operate as follows.
At the time of cutting the positive electrode insulation coating 15, first, only the pressing jig 52 moves downward, and the end surface 53 of the pressing jig 52 contacts the positive electrode insulation coating 15. Thereby, the movement in the first direction F of the base end side covering portion 15a of the positive electrode insulating cover 15 positioned on the base end side with respect to the cutting blade 32 is restricted. Subsequently, the cutting blade 32 moves downward and moves to the tip side of the positive electrode lead wire 11. Thereby, the front end side covering portion 15 b of the positive electrode insulation coating 15 positioned on the front end side with respect to the cutting blade 32 can move to the front end side of the positive electrode conducting wire 11 with the movement of the cutting blade 32. The pressing jig 52 only needs to press the positive electrode insulation coating 15 before at least the cutting blade 32 moves to the tip side of the positive electrode conducting wire 11. Therefore, for example, the end face 53 of the pressing jig 52 may contact the positive electrode insulating coating 15 at the same time that the cutting blade 32 contacts the positive electrode insulating coating 15.

  The pressing jig that presses the negative electrode insulation coating 25 is disposed so that the negative electrode insulation coating 25 can be cut at a distance D2 (see FIG. 1) from the one end surface 2a of the battery unit 2 (see FIG. 1). The pressing jig 52 is the same as the pressing jig 52 that presses the positive electrode insulation coating 15 except that the cutting blade and the auxiliary cutting blade are disposed closer to the base end side in the first direction F. Therefore, detailed description of the pressing jig that presses the negative electrode insulation coating 25 is omitted.

  According to the second modification of the second embodiment, the pressing jig 52 that restricts the movement of the base end side covering portion 15a of the positive electrode conductor 11 is provided, and the pressing jig 52 has the cutting blade 32 having the positive electrode conductor. Since the positive electrode insulation coating 15 is pressed before moving to the distal end side of the electrode 11, the cutting edge 32 prevents the proximal end side coating portion 15a of the positive electrode insulation coating 15 from moving, and the distal end side coating portion of the positive electrode lead wire 11 by the cutting blade 32 15b can be moved to the tip side. Therefore, the positive electrode insulation coating 15 can be surely cut to expose the positive electrode core wire 13, and the positive electrode core wire 13 on the distal end side of the positive electrode conducting wire 11 can be reliably covered with the positive electrode insulation coating 15.

(Third embodiment, conducting wire processing inspection device)
Subsequently, as a third embodiment, a conductive wire processing inspection apparatus 60 including the conductive wire processing apparatus 30 according to the above-described second embodiment will be described.
The wire processing apparatus 30 of the second embodiment includes a cutting blade 32 and an auxiliary cutting blade 42 that is linked to the cutting blade 32 on the proximal end side of the positive electrode conducting wire 11 in the first direction F with respect to the cutting blade 32. It was.
On the other hand, the conducting wire processing inspection apparatus 60 according to the third embodiment of the present invention includes the conducting wire processing apparatus 30, and the cutting blade 32 and the auxiliary cutting blade 42 function as measurement terminals for the ammeter and the voltmeter, respectively. This is different from the second embodiment. In addition, below, description is abbreviate | omitted about the component similar to 2nd embodiment, and only a different part is demonstrated. Moreover, in description of the conducting wire processing test | inspection apparatus 60 which concerns on the following 3rd embodiment, first, the test | inspection circuit which test | inspects the electrical property of the storage battery 1 (refer FIG. 1) is demonstrated easily, Then, 3rd The conducting wire processing inspection apparatus 60 according to the embodiment will be described.

FIG. 11 is a schematic configuration diagram of an inspection circuit 80 for inspecting the electrical characteristics of the storage battery 1.
As shown in FIG. 11, the inspection circuit 80 inspects the electrical characteristics of the storage battery 1 by measuring the internal resistance R (internal impedance) of the storage battery 1, and includes the positive electrode conductor 11 and the negative electrode conductor of the storage battery 1. 21, the AC power supply 81 and the ammeter 82 connected in series via the measurement terminal T1 and the measurement terminal T3, and the positive electrode lead 11 and the negative electrode lead 21 of the storage battery 1 via the measurement terminal T2 and the measurement terminal T4. And a voltmeter 83 connected in parallel. The ammeter 82 and the voltmeter 83 which are the meters of the inspection circuit 80 are connected to the positive electrode conductor 11 and the negative electrode conductor 21 by a measurement connection method called a so-called four-terminal method via four measurement terminals T1 to T4. ing. The internal resistance R is measured by a voltage measured in a state where an AC amplitude is applied from the AC power supply 81. By using the four-terminal method for the conductor wire processing inspection apparatus 60 of the present invention, there is no influence of contact resistance due to conductor oxidation or the like. For example, the electricity of the storage battery 1 having a low internal resistance R, such as a lithium ion battery, etc. It is suitable for measuring the mechanical characteristics.

FIG. 12 is a schematic configuration diagram of a conducting wire processing inspection apparatus 60 according to the third embodiment. In FIG. 12, a state immediately after the cutting blade 32 cuts the positive electrode insulation coating 15 of the positive electrode lead wire 11 is illustrated. Although not shown, a pair of cutting blades 32 and auxiliary cutting blades 42 are provided corresponding to the positive electrode conducting wire 11 and the negative electrode conducting wire 21, respectively. Further, the reference numerals in parentheses in FIG. 12 correspond to reference numerals in the case where the state immediately after the cutting blade 32 cuts the negative electrode insulating coating 25 of the negative electrode conductor 21 is illustrated.
As shown in FIG. 12, the conducting wire processing inspection device 60 includes a conducting wire processing device 30 including a cutting blade 32, an auxiliary cutting blade 42, and a setting jig 31, and between the cutting blade 32 and the auxiliary cutting blade 42. Includes an insulating plate 62 (corresponding to “insulating member” in the claims) formed of a resin material having electrical insulation, for example. The cutting blade 32, the insulating plate 62, and the auxiliary cutting blade 42 are stacked to form a cutting unit 61. A pair of cutting units 61 are provided corresponding to the positive electrode conductor 11 and the negative electrode conductor 21.
As materials for forming the cutting blade 32 and the auxiliary cutting blade 42, metal materials such as gold, silver, and copper having a low electric resistance value are particularly suitable. The insulating plate 62 prevents the cutting blade 32 and the auxiliary cutting blade 42 from being short-circuited.

  An AC power supply 81 and an ammeter 82 (see FIG. 11) are electrically connected between one cutting blade 32 that cuts the positive electrode conductor 11 and the other cutting blade 32 that cuts the negative electrode conductor 21. ing. One cutting blade 32 abuts on the positive electrode core wire 13 after cutting the positive electrode insulation coating 15. The other cutting blade 32 contacts the negative electrode core wire 23 after cutting the negative electrode insulation coating 25. As a result, the AC power supply 81 and the ammeter 82 (see FIG. 11) are electrically connected in series to the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21. That is, the cutting blade 32 that cuts the positive electrode insulation coating 15 functions as the measurement terminal T1, and the cutting blade 32 that cuts the negative electrode insulation coating 25 functions as the measurement terminal T3.

  A voltmeter 83 (see FIG. 11) is electrically connected between one auxiliary cutting blade 42 arranged on the positive electrode conducting wire 11 side and the other auxiliary cutting blade 42 arranged on the negative electrode conducting wire 21 side. It is connected. The one auxiliary cutting blade 42 abuts the positive electrode core wire 13 on the proximal end side of the positive electrode conducting wire 11 with respect to the one cutting blade 32 after the one cutting blade 32 cuts the positive electrode insulation coating 15. The other auxiliary cutting blade 42 abuts the negative electrode core wire 23 on the proximal end side of the negative electrode conductor 21 with respect to the other cutting blade 32 after the other cutting blade 32 cuts the negative electrode insulating coating 25. Thus, the voltmeter 83 (see FIG. 11) is connected to the negative electrode of the positive electrode core wire 13 and the negative electrode conductor 21 on the storage battery 1 side (see FIG. 11) from the AC power supply 81 and the ammeter 82 (see FIG. 11). Electrically connected in parallel to the core wire 23. That is, one auxiliary cutting blade 42 disposed on the positive electrode conducting wire 11 functions as the measurement terminal T2, and the other auxiliary cutting blade 42 disposed on the negative electrode conducting wire 21 functions as the measurement terminal T4.

  According to the third embodiment, since the conducting wire processing device 30 is included, the productivity of the storage battery 1 can be improved while preventing a short circuit of the storage battery 1. One of the pair of cutting blades 32 and the pair of auxiliary cutting blades 42 functions as the measurement terminals T2 and T4 of the voltmeter 83, and the other of the pair of cutting blades 32 and the pair of auxiliary cutting blades 42 Since this pair functions as the measurement terminals T1 and T3 of the ammeter 82, the disconnection of the positive electrode lead 11 and the negative electrode lead 21 and the inspection of the electrical characteristics of the storage battery 1 can be performed simultaneously. Further, since the pair of cutting blades 32 and the pair of auxiliary cutting blades 42 are in contact with the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21 at a total of four points, the electrical characteristics of the storage battery 1 are obtained by a so-called four-terminal method. Can be easily and accurately inspected. Therefore, productivity of the storage battery 1 can be improved while suppressing a short circuit between the positive electrode and the negative electrode of the storage battery 1.

(First modification of the third embodiment)
Then, the conducting wire processing inspection apparatus 60 which concerns on the 1st modification of 3rd embodiment is demonstrated. In addition, below, description is abbreviate | omitted about the component similar to 3rd embodiment, and only a different part is demonstrated.
FIG. 13: is a schematic block diagram of the conducting wire processing inspection apparatus 60 which concerns on the 1st modification of 3rd embodiment. The reference numerals in parentheses in FIG. 13 correspond to the reference numerals in the case where the state immediately after the cutting blade 32 cuts the negative electrode insulating coating 25 of the negative electrode lead wire 21 as in FIG.
The wire processing inspection device 60 of the third embodiment includes the wire processing device 30 of the second embodiment, and the cutting blade 32 and the auxiliary cutting blade 42 of the second embodiment are respectively connected to the measurement terminals T1 of the ammeter and the voltmeter. It was made to function as -T4 (refer FIG. 12).
On the other hand, as shown in FIG. 13, the conducting wire processing inspection apparatus 60 according to the first modified example of the third embodiment includes the conducting wire processing apparatus 30 of the first embodiment and the auxiliary cutting blade 42 (FIG. 12). In place of (see), a probe pin 65 is provided, and the cutting blade 32 and the probe pin 65 function as measurement terminals T1 to T4 of the ammeter and the voltmeter, respectively.

The probe pin 65 is a rod-shaped member with a tip 65a having a spire shape, and is formed of a metal material such as gold, silver, or copper having a low electric resistance value. The cutting blade 32, the insulating plate 62, and the probe pin 65 are stacked to form a cutting unit 61. A pair of cutting units 61 are provided corresponding to the positive electrode conductor 11 and the negative electrode conductor 21. For example, the probe pin 65 is configured to move downward in conjunction with the downward movement of the cutting blade 32.
A voltmeter 83 (see FIG. 11) is electrically connected between one probe pin 65 disposed on the positive electrode lead 11 side and the other probe pin 65 disposed on the negative electrode lead 21 side. .

  When the cutting blade 32 cuts the positive electrode insulation coating 15, one probe pin 65 is inserted into the positive electrode insulation coating 15 on the proximal end side of the positive electrode conducting wire 11 with respect to the one cutting blade 32 and is attached to the positive electrode core wire 13. Abut. Further, when the other cutting blade 32 cuts the negative electrode insulation coating 25, the other probe pin 65 is inserted into the negative electrode insulation coating 25 on the proximal end side of the negative electrode conductor 21 with respect to the other cutting blade 32. It contacts the negative electrode core wire 23. Thus, the voltmeter 83 (see FIG. 11) is connected to the negative electrode of the positive electrode core wire 13 and the negative electrode conductor 21 on the storage battery 1 side (see FIG. 11) from the AC power supply 81 and the ammeter 82 (see FIG. 11). Electrically connected in parallel to the core wire 23. That is, one probe pin 65 arranged on the positive electrode lead 11 side functions as the measurement terminal T2, and the other probe pin 65 arranged on the negative electrode lead wire 21 side functions as the measurement terminal T4.

  The order of the downward movement of the probe pin 65 and the cutting blade 32 is not limited, but the probe pin 65 moves downward before the cutting blade 32 and is inserted into the positive electrode insulating coating 15 and the negative electrode insulating coating 25. Is preferred. In this case, the probe pin 65 cuts while restricting the movement of the base end side covering portion 15a of the positive electrode insulating coating 15 and the base end side covering portion 25a of the negative electrode insulating coating 25 located on the base end side with respect to the cutting blade 32. The positive electrode insulating coating 15 and the negative electrode insulating coating 25 can be cut by the blade 32.

  According to the first modification of the third embodiment, the tip side covering portion 15 b of the positive electrode insulating coating 15 and the tip side covering portion 25 b of the negative electrode insulating coating 25 located on the tip side of the cutting blade 32 are arranged on the blade surface 34. The pair of cutting blades 32 and the pair of probe pins 65 can be brought into contact with the positive electrode core wire 13 of the positive electrode lead wire 11 and the negative electrode core wire 23 of the negative electrode lead wire 21 at a total of four points along the inclined surface. Therefore, the electrical characteristics of the storage battery 1 can be easily and accurately inspected by the so-called four-terminal method. Therefore, productivity of the storage battery 1 can be improved while suppressing a short circuit between the positive electrode and the negative electrode of the storage battery 1.

(Second modification of the third embodiment)
Then, the conducting wire processing inspection apparatus 60 which concerns on the 2nd modification of 3rd embodiment is demonstrated. In addition, below, description is abbreviate | omitted about the component similar to 3rd embodiment, and only a different part is demonstrated.
FIG. 14 is a schematic configuration diagram of a wire processing inspection apparatus 60 according to a second modification of the third embodiment. The reference numerals in parentheses in FIG. 14 correspond to the reference numerals in the case where the state immediately after the cutting blade 32 cuts the negative electrode insulating coating 25 of the negative electrode conductor 21 as in FIGS. 12 and 13.
FIG. 15 is a view taken in the direction of arrow C in FIG.
The conducting wire processing inspection apparatus 60 according to the first modification of the third embodiment includes a cutting blade 32 and a probe pin 65 (see FIG. 13).
On the other hand, as shown in FIG. 14, the conductor wire processing inspection apparatus 60 according to the second modification of the third embodiment includes the cutting blade 32 and the probe pin 65, and the positive electrode conductor 11 ( This is different from the first modification of the third embodiment in that a pressing jig 68 is provided on the base end side of the negative electrode conducting wire 21). In addition, below, description is abbreviate | omitted about the component similar to the 1st modification of 3rd embodiment, and only a different part is demonstrated.

  The pressing jig 68 is a member formed in a rectangular plate shape from a metal material such as iron, copper, aluminum, stainless steel, or a resin material. As shown in FIG. 15, the pressing jig 68 has a V-shaped pressing groove 69 that opens downward in the direction of arrow C at a position corresponding to the positive electrode conductor 11 (negative electrode conductor 21).

  The pressing jig 68 applies the positive insulating coating 15 before the probe pin 65 is inserted into the positive insulating coating 15 and the negative insulating coating 25 and before the cutting blade 32 comes into contact with the positive conducting wire 11 and the negative conducting wire 21. Press. As a result, the pressing jig 68 causes the positive electrode insulation coating 15 and the negative electrode insulation when the probe pin 65 is inserted into the positive electrode insulation coating 15 and the negative electrode insulation coating 25 and when the positive electrode insulation coating 15 and the negative electrode insulation coating 25 are cut. The coating 25 is pressed by the inner side surfaces 69 a and 69 a of the pressing groove 69 to restrict the movement of the positive electrode insulating coating 15 and the negative electrode insulating coating 25.

  The inner surface 69a of the pressing groove 69 is subjected to, for example, graining or sandblasting, and is provided with fine irregularities. Therefore, when the positive electrode insulating coating 15 and the negative electrode insulating coating 25 are pressed by the inner side surfaces 69 a and 69 a of the pressing groove portion 69, the gap between the inner side surfaces 69 a and 69 a of the pressing groove portion 69 and the positive electrode insulating coating 15 and the negative electrode insulating coating 25 is reduced. Since the friction coefficient can be increased, the movement of the positive electrode insulating coating 15 and the negative electrode insulating coating 25 can be reliably regulated.

  According to the second modification of the third embodiment, the pressing jig 68 prevents the base end side covering portion 15a of the positive electrode insulating coating 15 and the base end side covering portion 25a of the negative electrode insulating coating 25 from moving, The electrical characteristics of the storage battery 1 can be easily and accurately inspected by the so-called four-terminal method. Therefore, the productivity of the storage battery 1 can be improved while reliably suppressing a short circuit between the positive electrode and the negative electrode of the storage battery 1.

  Further, by disposing the positive electrode conductor 11 and the negative electrode conductor 21 in the pressing groove 69, the pressing jig 68, the positive electrode conductor 11 and the negative electrode conductor 21 can be brought into contact with each other over a wide area. Thereby, the electrical characteristics of the storage battery 1 can be easily and accurately inspected by the so-called four-terminal method while reliably restricting the movement of the positive electrode conductor 11 and the negative electrode conductor 21. Therefore, the productivity of the storage battery 1 can be improved while reliably suppressing a short circuit between the positive electrode and the negative electrode of the storage battery 1.

(4th embodiment, conducting wire processing apparatus)
Then, the cutting blade 32 of the conducting wire processing apparatus 30 which concerns on 4th embodiment is demonstrated.
FIG. 16 is a perspective view of the cutting blade 32 of the wire processing apparatus 30 according to the fourth embodiment. In FIG. 16, the fixing portion of the cutting blade 32 in the wire processing apparatus 30 is illustrated by a two-dot chain line.
The shape of the cutting blade 32 is not limited to the above-described embodiments, and various changes can be made. For example, as illustrated in FIG. 16, the cutting blade 32 of the wire processing apparatus 30 according to the fourth embodiment includes a V-groove 38 that is formed in a V-shape when viewed from the first direction F, and a cutting edge 33 a of the blade 33. Have.
Further, an escape portion 39 is formed at the end of the V groove portion 38 of the blade edge 33a. The escape portion 39 is formed in an arc shape when viewed from the first direction F. The radius of curvature of the escape portion 39 is set to a size corresponding to the positive electrode core wire 13 and the negative electrode core wire 23 (both see FIG. 1), and the radius of curvature of the escape portion 39 and the radius of the positive electrode core wire 13 and the negative electrode core wire 23 are Are approximately the same size.
The blade base 33b is formed with a fixing hole 33c penetrating the cutting blade 32 in the first direction F and a U-shaped groove 33d having a bottom on the blade tip 33a side. For example, a bolt (not shown) is inserted into the fixing hole 33 c and the cutting blade 32 is fastened to a fixing portion of the wire processing apparatus 30. Further, by providing the U-shaped groove 33d, the cutting blade 32 can be moved along the extending direction of the cutting blade 32 and can be aligned when being fixed to the fixing portion of the wire processing apparatus 30.

FIG. 17 and FIG. 18 are explanatory views of the wire processing apparatus 30 according to the fourth embodiment. FIG. 17 illustrates a state immediately before the conducting wire 3 (the positive conducting wire 11 in FIG. 17) is cut. FIG. 17 is a side cross-sectional view including the central axis of the positive electrode lead wire 11. FIG. 18 is a perspective view of the wire processing apparatus 30 according to the fourth embodiment.
As shown in FIG. 17, the conducting wire processing apparatus 30 includes an auxiliary cutting blade 42. The auxiliary cutting blade 42 has the same shape as the cutting blade 32. That is, the auxiliary cutting blade 42 has a V-groove portion 48 at the blade edge 43 a and a relief portion 49 at the other end of the V-groove portion 48. As a result, the positive electrode insulation coating 15 can be cut with the conductive wire 3 interposed therebetween. A detailed description of the auxiliary cutting blade 42 is omitted.

The cutting blade 32 is disposed such that the blade surface 34 is inclined with respect to the virtual surface S toward the tip end side (right side in FIG. 17) of the positive electrode conducting wire 11. Further, the auxiliary cutting blade 42 is disposed so that the auxiliary blade surface 44 is inclined with respect to the virtual surface S toward the proximal end side (left side in FIG. 17) of the positive electrode conducting wire 11.
When cutting the positive electrode insulation coating 15 of the positive electrode lead wire 11, the cutting edge 43 a of the auxiliary cutting blade 42 abuts on the positive electrode insulation coating 15, and then the cutting edge 33 a of the cutting blade 32 abuts on the positive electrode insulation coating 15. Then, as shown in FIG. 18, the positive electrode insulation coating 15 can be cut by moving the V groove portion 38 of the cutting blade 32 and the V groove portion 48 of the auxiliary cutting blade 42 so as to be close to each other.
According to 4th embodiment, since the blade part 33 is formed in V shape, the conducting wire 3 to be cut | disconnected can be guide | induced to the blade part 33, and can be cut | disconnected reliably. Further, an arc-shaped relief portion 39 is formed at the other portion of the blade portion 33 when viewed from the first direction F, and the radius of curvature of the relief portion 39 has a size corresponding to the core wire (the positive electrode core wire 13 in the embodiment). Since it is set, the blade portion 33 can reliably cut only the insulating coating (positive insulating coating 15 in the embodiment) and can prevent the positive electrode core wire 13 from being cut.

  The lead wire processing device 30 is formed so as to be rotatable around the positive electrode lead wire 11 after the cutting blade 32 and the auxiliary cutting blade 42 come into contact with the positive electrode insulation coating 15 when cutting the positive electrode insulation coating 15 of the positive electrode lead wire 11. (See the arrow in FIG. 18). Furthermore, it is preferable to apply an appropriate tension to the positive electrode lead wire 11 such as pulling back and forth. In this case, the insulating coating can be reliably cut over the entire circumference. Moreover, the cutting condition of the positive electrode insulation coating 15 can be adjusted as desired by adjusting the contact pressure of the cutting blade 32 and the auxiliary cutting blade 42 against the positive electrode insulation coating 15. Therefore, for example, the so-called half-cut state can be achieved without completely cutting the positive electrode insulation coating 15.

FIG. 19 is a front view of a cutting blade 32 according to a modification of the fourth embodiment.
As shown in FIG. 19, the cutting blade 32 according to the modification of the fourth embodiment is formed with a stepped portion 37 at the other end of the V-groove portion 38. The step portion 37 is formed in a U-shaped region in front view from the intermediate portion in the height direction of the V groove portion 38 to the top portion of the portion, and the thickness of the portion corresponding to the step portion 37 of the portion is different. It is thinner than the part. Due to the step portion 37, the thickness of the portion is thinner than the diameter of the core wires (the positive electrode core wire 13 and the negative electrode core wire 23, see FIG. 1). Thus, the exposed lengths L1 and L2 (see FIG. 2) of the positive electrode core wire 13 and the negative electrode core wire 23 after cutting the positive electrode insulating coating 15 and the negative electrode insulating coating 25 are the thicknesses of the portions corresponding to the step portions 37 of the portions. Is equivalent. That is, according to the modification of the fourth embodiment, the exposed lengths L1 and L2 of the positive electrode core wire 13 and the negative electrode core wire 23 after cutting of the positive electrode insulating coating 15 and the negative electrode insulating coating 25 are Since the diameter is shorter than the diameter, the positive electrode core wire 13 and the negative electrode core wire 23 can be prevented from entering each other. Therefore, the positive electrode core wire 13 and the negative electrode core wire 23 can be prevented from coming into contact with each other, so that the electrical component can be prevented from being short-circuited.

(Fifth embodiment, conducting wire processing inspection device)
Subsequently, as a fifth embodiment, a conductive wire processing inspection apparatus 60 including a conductive wire processing apparatus 30 will be described.
FIG. 20 is a side view of a conducting wire inspection apparatus 60 according to the fifth embodiment.
As illustrated in FIG. 20, the conductor wire processing inspection apparatus 60 according to the fifth embodiment includes a pair of rotary blade units 35 (a first rotary blade unit 35 </ b> A and a second rotary blade) on both sides of the conductor 3 (positive electrode 11). Unit 35B). The first rotary blade unit 35A and the second rotary blade unit 35B have rotation center axes C1 and C2 in directions orthogonal to the first direction F, respectively. The first rotary blade unit 35A and the second rotary blade unit 35B have the same shape. Therefore, hereinafter, the first rotary blade unit 35A will be described, and the description of the second rotary blade unit 35B will be omitted.

  The first rotary blade unit 35A is formed by providing a plurality of cutting blades 32 on the outer peripheral surface of a main body formed in a disc shape. The cutting blade 32 is disposed so that the blade surface 34 is inclined to the tip side (right side in FIG. 17) of the positive electrode 11 with respect to the virtual plane S when the cutting edge 33 a comes into contact with the conductive wire 3 (positive electrode 11). ing. A connecting gear portion 35a is provided on the side surface of the first rotary blade unit 35A. The first rotary blade unit 35A and the second rotary blade unit 35B are meshed with each other via a connecting gear portion 35a and an intermediate gear (not shown), a belt, and the like, and can rotate in conjunction with each other. Thereby, the positive electrode insulation coating 15 can be cut while aligning while rotating the first rotary blade unit 35A and the second rotary blade unit 35B.

The first rotary blade unit 35A and the second rotary blade unit 35B cut the positive electrode insulation coating 15 by moving relative to each other so that the cutting blades 32 are close to each other with the positive electrode insulation coating 15 being sandwiched therebetween. Can do.
Here, the cutting blades 32 of the first rotary blade unit 35A and the second rotary blade unit 35B function as measurement terminals T1 and T2 (both see FIG. 11) of the ammeter 82 and the voltmeter 83, respectively. Similarly, in the negative electrode lead wire 21 (see FIG. 11), the cutting blades 32 of the first rotary blade unit 35A and the second rotary blade unit 35B are respectively connected to the measurement terminal of the voltmeter 83 and the measurement terminal T3 of the ammeter 82. It functions as T4 (both see FIG. 11). As described above, according to the fifth embodiment, the cutting blade 32 of the rotary blade unit 35 (35A, 35B) facilitates the electrical characteristics of electric components such as the storage battery 1 (see FIG. 11) by the so-called four-terminal method. Inspection can be performed accurately and at low cost. Therefore, it is possible to improve the productivity of the electrical component while suppressing a short circuit between the positive electrode and the negative electrode of the electrical component.

FIG. 21 is a perspective view of the cutting blade 32 of the wire processing inspection apparatus 60 according to a modification of the fifth embodiment.
As shown in FIG. 21, the first rotary blade unit 35A and the second rotary blade unit 35B are arranged in parallel, and the positive electrode insulation coating 15 of the positive electrode lead 11 and the negative electrode insulation coating 25 of the negative electrode lead 21 are cut simultaneously. Also good.
At this time, for example, a cutting jig 90 having a pair of placement groove portions 91 into which the positive electrode lead 11 and the negative electrode lead 21 can be inserted and arranged may be used.

A specific method for cutting the positive electrode insulation coating 15 of the positive electrode conductor 11 and the negative electrode insulation coating 25 of the negative electrode conductor 21 is as follows.
First, after the positive electrode conducting wire 11 and the negative electrode conducting wire 21 are arranged in the arrangement groove portion 91 of the cutting jig 90, the first rotary blade unit 35A and the second rotary blade unit 35B are rotated. At this time, the first rotary blade unit 35 </ b> A and the second rotary blade unit 35 </ b> B are so arranged that the blade surface 34 is inclined with respect to the virtual surface S (see FIG. 20) toward the tip side of the positive electrode lead wire 11 and the negative electrode lead wire 21. Rotate to a predetermined rotation angle.

Next, the first rotary blade unit 35A and the second rotary blade unit 35B are pushed down toward the positive electrode lead 11 and the negative electrode lead 21, respectively, and the positive electrode insulation coating 15 of the positive electrode lead 11 and the negative electrode insulation coating 25 of the negative electrode lead 21 are cut. .
Next, the cutting blades 32 of the first rotary blade unit 35A and the second rotary blade unit 35B are brought into contact with the positive electrode core wire 13 and the negative electrode core wire 23, respectively, and a measuring terminal of an ammeter 82 (not shown) or a voltmeter 83 (not shown). The current value or voltage value is measured. As described above, in the modified example of the fifth embodiment, it is possible to easily and inexpensively inspect the electrical characteristics of electrical components such as a storage battery by a so-called two-terminal method. Therefore, it is possible to improve the productivity of the electrical component while suppressing a short circuit between the positive electrode and the negative electrode of the electrical component.

  The technical scope of the present invention is not limited to the above embodiment, and various modifications can be made without departing from the spirit of the present invention.

In each embodiment and each modified example, the case where the present invention is applied to the storage battery 1 has been described. However, the application of the present invention is not limited to the storage battery 1, and can be widely applied to any electrical component having a conducting wire. it can.
Further, the shapes and materials of the cutting blade 32, the auxiliary cutting blade 42, the pressing jigs 52 and 68, the probe pin 65, and the like are not limited to the embodiments and the modifications. For example, the cutting blade 32 of the fourth embodiment may not have the escape portion 39.

Further, without providing the probe pin 65, the cutting blade 32 may function as a measurement terminal when measuring the electrical characteristics of the electrical component by the 4-terminal method. Specifically, after cutting the positive electrode insulation coating 15 of the positive electrode conductor 11 and the negative electrode insulation coating 25 of the negative electrode conductor 21, the cutting blade 32 is brought into contact with the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21. And may function as a measurement terminal of the voltmeter 83 and a measurement terminal of the ammeter 82.
Moreover, you may make the cutting blade 32 function as a measurement terminal at the time of measuring the electrical property of an electrical component by a 2 terminal method. Specifically, after cutting the positive electrode insulation coating 15 of the positive electrode conductor 11 and the negative electrode insulation coating 25 of the negative electrode conductor 21, the cutting blade 32 is brought into contact with the positive electrode core wire 13 of the positive electrode conductor 11 and the negative electrode core wire 23 of the negative electrode conductor 21. And may function as a measurement terminal of the voltmeter 83 or a measurement terminal of the ammeter 82.

  In each embodiment and each modification, the positive electrode insulation coating 15 is cut at a position at a distance D1 from the one side end face 2a of the battery part 2, and the distance from the one end face 2a of the battery part 2 is longer than the distance D1. At the position of D2, the negative electrode insulating coating 25 was cut. On the other hand, at the position of the distance D1 from the one side end surface 2a of the battery part 2, the positive electrode insulation coating 15 is cut, and at the position of the distance shorter than the distance D1 from the one side end face 2a of the battery part 2, The negative electrode insulating coating 25 may be cut. That is, at the position of the distance D1 in the first direction F, the positive electrode insulation coating 15 is cut to expose the positive electrode core wire 13 to the outside, and at the position different from the position of the distance D1 in the first direction F, the negative electrode insulation coating 25 is provided. If the negative electrode core wire 23 is exposed to the outside by cutting the wire, the effects of the present invention can be achieved.

  In each embodiment and each modification, although the case where one conductor processing apparatus 30 and one conductor processing inspection apparatus 60 are applied to one storage battery 1 is described, for a plurality of storage batteries 1 A plurality of conductor processing apparatuses 30 and a plurality of conductor processing inspection apparatuses 60 may be applied simultaneously.

  In each embodiment and each modification, when cutting the positive electrode insulation coating 15 and the negative electrode insulation coating 25 by the cutting blade 32, the cutting blade 32 is moved downward. On the other hand, for example, the positive electrode insulating coating 15 and the negative electrode insulating coating 25 may be cut while ultrasonically vibrating in the extending direction of the cutting edge 33a of the cutting blade 32. By applying ultrasonic vibration to the cutting blade 32, the frictional force between the blade surface 34 of the cutting blade 32 and the positive electrode insulating coating 15 and the negative electrode insulating coating 25 can be reduced. Can be easily cut.

  You may form the conducting wire processing apparatus 30 and the conducting wire processing inspection apparatus 60 combining each embodiment and each modification. For example, you may employ | adopt the cutting blade 32 provided with the taper surface 36 which concerns on the modification of 1st embodiment as the cutting blade 32 of the conducting wire processing apparatus 30 which concerns on 2nd embodiment.

FIG. 22 is an explanatory diagram of a conductor processing apparatus 30 according to another embodiment, and FIG. 22 (a) is an explanatory diagram before cutting the positive electrode insulation coating 15 of the positive electrode conductor 11 (conductor 3). (B) is explanatory drawing after cut | disconnecting the positive electrode insulation coating 15 of the positive electrode conducting wire 11 (conducting wire 3). In FIG. 22B, the positive electrode insulation coating 15 is shown by a two-dot chain line.
In each embodiment, although the example which has the arc-shaped part 34a in the blade surface 34 as the cutting blade 32 was given (refer FIG. 4), the blade surface shape can be changed suitably. For example, as shown in FIG. 22A, the shape of the blade surface may be a shape recessed in a funnel shape toward the blade base 33b. With the cutting blade 32 having such a shape, the positive electrode core wire 13 (core wire) is crushed and the contact area between the cutting blade 32 and the positive electrode core wire 13 (core wire) is increased as shown in FIG. Moreover, the oxide film on the surface of the positive electrode core wire 13 (core wire) is broken, and the metal of the positive electrode core wire 13 (core wire) and the cutting blade 32 are easily brought into direct contact. For this reason, the electrical characteristics can be inspected more easily and accurately.
Further, the blade surface 34 of the cutting blade 32 is inclined toward the tip end side of the positive electrode conducting wire 11 as in FIG. The inclination of the blade surface 34 is preferably 1% to 50% of the thickness of the cutting blade 32. It is more preferable that the inclination of the blade surface 34 is 5 to 30% of the thickness of the cutting blade 32 from the ease of cutting and the accuracy of electrical characteristics.
Further, the inclination angle is 20 to 80 °, and more preferably 30 to 60 °.

  Moreover, you may have the removal mechanism for making it easy to remove a core wire (for example, the positive electrode core wire 13 and the negative electrode core wire 23 in each embodiment) from the cutting blade 32 after a cutting | disconnection. This removal mechanism is interlocked with, for example, an operation in which the setting jig 31 or the like moves away from the cutting blade 32. Thereby, when it is necessary to repeatedly measure the inspection, the electrical characteristics can be inspected more easily and accurately.

Moreover, you may attach the conducting wire processing apparatus 30 and the conducting wire processing inspection apparatus 60 of this invention to an electric equipment. By attaching to the electric device, the electric connection between the electric device and the storage battery 1 can be easily ensured. At that time, the setting jig 31 may have a lock mechanism for fixing the cutting blade 32 and the core wire (for example, the positive electrode core wire 13 or the negative electrode core wire 23 in each embodiment) in contact with each other. . For example, the locking mechanism uses at least a claw-like convex portion, and a combination of the convex portion and the concave portion or a combination of the convex portion and the convex portion can be used. Furthermore, you may have the mechanism which cancels | releases the lock mechanism simultaneously.
Further, in the present invention, the positive electrode lead 11 and the negative electrode lead 21 such as the storage battery 1 are taken as an example, but the present invention can also be used for an electronic component having an insulation coating such as a thermistor.
In addition, the insulating coating is divided into a base end side covering portion and a distal end side covering portion after cutting, but the portion not in contact with the cutting blade may be connected. In this case, it is possible to further prevent the tip side covering portion from unintentionally falling off the core wire.

  In addition, it is possible to appropriately replace the components in the above-described embodiments with known components without departing from the spirit of the present invention.

DESCRIPTION OF SYMBOLS 1 ... Storage battery (electrical part) 3 ... Conductor 11 ... Positive electrode lead (conductor) 13 ... Positive electrode core wire (core wire) 15 ... Positive electrode insulation coating (insulation coating) 21 ... Negative electrode lead ( Conductor wire) 23 ... Negative electrode core wire (core wire) 25 ... Negative electrode insulation coating (insulation coating) 30 ... Conductor processing device 32 ... Cutting blade 33 ... Blade portion 34 ... Blade surface 35.・ Rotary blade unit 35A ... First rotary blade unit (rotary blade unit) 35B ... Second rotary blade unit (rotary blade unit) 36 ... Tapered surface 39 ... Escape portion 42 ... Auxiliary cutting Blade 43 ... Auxiliary blade portion 44 ... Auxiliary blade surface 52 ... Pressing jig 61 ... Cutting unit 65 ... Probe pin 68 ... Pressing jig 69 ... Pressing groove 82 ...・ Ammeter 83 ・ ・ ・ Voltmeter C1, C2 ・ ・Rotation center axis F ... First direction K1, K2 ... Core wire diameter L1, L2 ... Exposure length S ... Virtual plane S11 ... Conductor setting step S13 ... Positive electrode insulation coating cutting step S15: Negative insulation coating cutting step T1, T2, T3, T4: Measuring terminals θ1: Blade surface tilt angle θ2: Tapered surface tilt angle θ3: Auxiliary blade surface tilt angle

Claims (25)

A wire processing device for processing a conductive wire extended from an electrical component,
A cutting blade that cuts the insulation coating of the conductive wire that has been extended and set, and exposes the core wire of the conductive wire to the outside between the proximal end and the distal end of the conductive wire;
The cutting blade includes a blade portion that abuts the insulating coating so as to intersect a first direction in which the conducting wire extends when the insulating coating is cut.
The blade portion includes a blade surface facing the tip side of the conducting wire in the first direction when the insulating coating is cut;
The said blade surface is inclined to the said front end side of the said conducting wire with respect to the virtual surface orthogonal to said 1st direction, The conducting wire processing apparatus characterized by the above-mentioned. The wire processing apparatus according to claim 1,
The electrical component is a storage battery including a positive electrode and a negative electrode,
The conducting wire includes a positive conducting wire extended from the positive electrode and a negative conducting wire extended from the negative electrode,
At a predetermined position in the first direction, the insulation coating of the positive electrode lead is cut to expose the core of the positive electrode lead to the outside, and at a position different from the predetermined position in the first direction, the insulation coating of the negative electrode lead Is cut to expose the core wire of the negative electrode lead wire to the outside. It is a conducting wire processing apparatus of Claim 2, Comprising:
Cutting the insulation coating of the positive electrode conductor so that the exposed length of the core wire of the positive electrode conductor is shorter than the diameter of the core wire of the negative electrode conductor, and in the first direction of the core wire of the negative electrode conductor The conductor processing apparatus characterized by cutting the insulation coating of the said negative electrode conductor so that the exposure length which follows may become shorter than the diameter of the core wire of the said positive electrode conductor. It is a conducting wire processing apparatus of any one of Claim 1 to 3,
The blade portion includes a tapered surface that is inclined toward the tip side of the conducting wire with respect to the virtual surface on the blade base side opposite to the blade edge side of the blade surface,
The lead wire processing apparatus, wherein an inclination angle of the tapered surface is larger than an inclination angle of the blade surface. The wire processing apparatus according to claim 1,
On the base end side of the conducting wire in the first direction of the cutting blade, an auxiliary cutting blade that interlocks with the cutting blade is provided,
The auxiliary cutting blade includes an auxiliary blade portion that comes into contact with the insulating coating so as to intersect a first direction in which the conductive wire extends after the blade portion comes into contact with the insulating coating.
The auxiliary blade portion includes an auxiliary blade surface facing the proximal end side of the conducting wire in the first direction when the insulating coating is cut,
The auxiliary blade surface is inclined toward the base end side of the conducting wire with respect to the virtual surface,
The inclination angle of the auxiliary blade surface with respect to the virtual surface is set to be larger than the inclination angle of the blade surface with respect to the virtual surface and less than 90 °,
The said cutting blade moves to the said front end side of the said conducting wire at the time of the cutting | disconnection of the said insulation coating, The conducting wire processing apparatus characterized by the above-mentioned. The wire processing apparatus according to claim 1,
An auxiliary cutting blade that operates following the operation of the cutting blade is provided on the proximal end side of the conducting wire in the first direction of the cutting blade,
The auxiliary cutting blade includes an auxiliary blade portion that comes into contact with the insulating coating so as to intersect a first direction in which the conductive wire extends after the blade portion cuts the insulating coating.
The auxiliary blade portion includes an auxiliary blade surface facing the base end side of the conducting wire in the first direction,
The auxiliary blade surface is inclined toward the base end side of the conducting wire with respect to the virtual surface,
The inclination angle of the auxiliary blade surface with respect to the virtual surface is set to be larger than the inclination angle of the blade surface with respect to the virtual surface and less than 90 °,
The said cutting blade moves to the said front end side of the said conducting wire after the said insulation coating is cut | disconnected, The conducting wire processing apparatus characterized by the above-mentioned. It is a conducting-wire processing apparatus of Claim 5 or 6,
A pressing jig is provided on the proximal end side of the conducting wire from the auxiliary blade portion, pressing the insulating coating, and restricting the movement of the insulating coating on the proximal end side of the conducting wire from the auxiliary blade portion,
The wire processing apparatus, wherein the pressing jig presses the insulating coating before at least the cutting blade moves to the tip side of the wire. A storage battery lead processing method comprising: a positive electrode conductor extended from a positive electrode; and a negative electrode conductor extended from a negative electrode,
A lead wire setting step for extending and setting the positive electrode lead wire and the negative electrode lead wire;
A positive insulating coating cutting step of cutting the insulating coating of the positive conducting wire and exposing the core wire of the positive conducting wire to the outside at a predetermined position in the first direction in which the positive conducting wire and the negative conducting wire extend;
A negative electrode insulation coating cutting step of cutting the insulation coating of the negative electrode conductor to expose the core wire of the negative electrode conductor to the outside at a position different from the predetermined position in the first direction;
A conducting wire processing method characterized by comprising: It is a conducting-wire processing method of Claim 8, Comprising:
In the positive electrode insulation coating cutting step, the insulation coating of the positive electrode lead is cut so that the exposed length along the first direction of the core wire of the positive electrode lead is shorter than the diameter of the core wire of the negative electrode lead,
In the negative electrode insulation coating cutting step, the insulation coating of the negative electrode conductor is cut so that an exposed length along the first direction of the core wire of the negative electrode conductor is shorter than a diameter of the core wire of the positive electrode conductor. Conducting wire processing method. A storage battery comprising a positive electrode conductor extended from a positive electrode and a negative electrode conductor extended from a negative electrode,
When the positive electrode conductor and the negative electrode conductor are extended and arranged in parallel,
At a predetermined position in the first direction in which the positive electrode conductor and the negative electrode conductor extend, the core wire of the positive electrode conductor is exposed to the outside, and at a position different from the predetermined position in the first direction, the core wire of the negative electrode conductor is A storage battery characterized by being exposed to the outside. The storage battery according to claim 10,
The exposed length along the first direction of the core wire of the positive electrode conducting wire is shorter than the diameter of the core wire of the negative electrode conducting wire, and the exposed length along the first direction of the core wire of the negative electrode conducting wire is the positive electrode conducting wire. A storage battery characterized by being shorter than the diameter of the core wire. A lead wire processing inspection device for inspecting a storage battery comprising a positive electrode and a negative electrode, comprising the lead wire processing device according to any one of claims 5 to 7,
The conducting wire includes a positive conducting wire extended from the positive electrode and a negative conducting wire extended from the negative electrode,
An insulating member is provided between the cutting blade and the auxiliary cutting blade, and the cutting blade, the insulating member, and the auxiliary cutting blade are stacked to form a cutting unit,
The cutting unit is provided as a pair corresponding to the positive electrode conductor and the negative electrode conductor,
The cutting blade and the auxiliary cutting blade of one of the cutting units are in contact with the core wire of the positive electrode conductor after the cutting blade cuts the insulating coating of the positive electrode conductor,
The cutting blade and the auxiliary cutting blade of the other cutting unit are in contact with the core wire of the negative electrode conductor after the cutting blade cuts the insulating coating of the negative electrode conductor,
One pair of the pair of cutting blades and the pair of auxiliary cutting blades functions as a measurement terminal of a voltmeter, and the other pair of the pair of cutting blades and the pair of auxiliary cutting blades is an ammeter Conductor processing inspection device that functions as a measurement terminal. It is a conducting wire processing inspection apparatus according to claim 12,
At a predetermined position in the first direction, the insulation coating of the positive electrode lead is cut to expose the core of the positive electrode lead to the outside, and at a position different from the predetermined position in the first direction, the insulation coating of the negative electrode lead Is cut to expose the core wire of the negative electrode lead wire to the outside. It is a conducting wire processing inspection apparatus according to claim 13,
Cutting the insulation coating of the positive electrode conductor so that the exposed length of the core wire of the positive electrode conductor is shorter than the diameter of the core wire of the negative electrode conductor, and in the first direction of the core wire of the negative electrode conductor An apparatus for processing and inspecting a conductive wire, wherein the insulation coating of the negative electrode conductor is cut so that an exposed length along the core is shorter than a diameter of a core wire of the positive electrode conductor. A lead wire processing inspection device including the lead wire processing device according to claim 2,
On the base end side of the conducting wire in the first direction of the cutting blade, a probe pin that interlocks with the operation of the cutting blade is provided,
An insulating member is provided between the cutting blade and the probe pin, and the cutting blade, the insulating member, and the probe pin are stacked to form a cutting unit,
The cutting unit is provided as a pair corresponding to the positive electrode conductor and the negative electrode conductor,
The cutting blade and the probe pin of one of the cutting units contact the core wire of the positive electrode conductor after the cutting blade cuts the insulating coating of the positive electrode conductor,
The cutting blade and the probe pin of the other cutting unit contact the core wire of the negative electrode conductor after the cutting blade cuts the insulating coating of the negative electrode conductor,
One of the pair of cutting blades and the pair of probe pins functions as a voltmeter measuring terminal, and the other pair of the pair of cutting blades and the pair of probe pins is an ammeter measuring terminal. Conductor processing inspection device characterized by functioning as The lead wire processing inspection apparatus according to claim 15,
A pressing jig is provided on the proximal end side of the conducting wire from the probe pin to press the insulating coating and restrict movement of the insulating coating on the proximal end side of the conducting wire from the probe pin.
The lead wire processing inspection apparatus, wherein the pressing jig presses the insulating coating before at least the cutting blade moves to the tip side of the lead wire. The lead wire processing inspection apparatus according to claim 16,
The pressing jig includes a pressing groove formed in a V shape when viewed from the first direction,
An apparatus for conducting and inspecting a conducting wire, wherein the conducting wire is disposed in the pressing groove to restrict movement of the insulating coating. A lead wire processing inspection device including the lead wire processing device according to claim 2,
The cutting blade contacts the core wire of the positive electrode lead wire and the core wire of the negative electrode lead wire after cutting the insulating coating of the positive electrode lead wire and the insulating coating of the negative electrode lead wire, and the measuring terminal of the voltmeter and the ammeter Conductor processing inspection device that functions as a measurement terminal. The wire processing apparatus according to claim 1,
The lead wire processing apparatus, wherein the blade portion is formed in a V shape when viewed from the first direction. The wire processing apparatus according to claim 19,
An arc-shaped relief portion is formed on the other portion of the blade portion when viewed from the first direction,
The lead wire processing apparatus, wherein a radius of curvature of the escape portion is set to a size corresponding to the core wire. The wire processing apparatus according to claim 20, wherein
The lead wire machining apparatus is characterized in that the thickness of the crest is thinner than the diameter of the core wire. The lead wire processing apparatus according to any one of claims 19 to 21,
From the opposite side of the cutting blade across the conductor, an auxiliary cutting blade that contacts the insulating coating so as to intersect the first direction,
The auxiliary cutting blade is formed so as to have the same shape as the cutting blade. It is a conducting wire processing apparatus of Claim 22, Comprising:
The said cutting blade and the said auxiliary | assistant cutting blade are formed so that rotation around the said conducting wire is possible after contact | abutting to the said insulation coating. The wire processing apparatus according to claim 1,
A rotary blade unit having a rotation center axis in a direction orthogonal to the first direction;
A lead wire processing apparatus, wherein a plurality of the cutting blades are provided on an outer peripheral surface of the rotary blade unit. A lead wire processing inspection apparatus including the lead wire processing apparatus according to claim 24,
A pair of the rotary blade units are provided on both sides of the conducting wire,
The pair of rotary blade units are interlocked with each other, and one of the rotary blade units functions as a measurement terminal of a voltmeter, and the other rotary blade unit functions as a measurement terminal of an ammeter. Processing inspection device.

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