JP2014038658A - Automatic transaction device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To prevent a cord connected to a handset of an automatic transaction device from being twisted and caught by a take-up port of a cord take-up part.SOLUTION: The automatic transaction device includes: a mounting part 120 on which a handset 130 is mounted so as to be freely detached; a cord 141 with a cross-sectional shape orthogonal to a longitudinal direction having a wide portion and a narrow portion, which is connected to the handset; a cord port 123 disposed at the mounting part, and configured such that the cord is drawn out of a housing 2 of an automatic transaction device 1 to the outside of the housing; a cord take-up part 140 configured to draw the cord drawn out of the cord port to the outside of the housing into the housing; and a twist preventing mechanism 150 disposed between the cord port and a take-up port 143 of the cord take-up part where the cord is put in and out, and configured to come into contact with one surface of the cord at a plurality of places or with two or more surfaces of the cord to prevent the cord entering the take-up port from being twisted.

Description

The present invention relates to an automatic transaction apparatus having a handset, and more particularly, to an automatic transaction apparatus to prevent the twisting is code that is connected to the handset (screw) is in catching on the code winding portion of the winding Tokuchi.

  For example, financial institutions and distribution institutions are equipped with a large number of automatic transaction apparatuses, generally referred to as “ATM”, which perform transaction processing such as deposits, withdrawals, and transfers. Many of the automatic transaction apparatuses are equipped with a handset (see, for example, Patent Document 1). For example, when the customer is unfamiliar with the operation of the automatic transaction apparatus or when the customer is a low vision person, the handset is used. It is configured to announce the operation method of the automatic transaction apparatus to the customer by voice.

  The automatic transaction apparatus has a communication unit for communicating with an external device. The handset is connected to a communication unit (or a relay unit that relays signals electrically connected to the communication unit) by a cord (see FIG. 9A). FIG. 9A is a diagram showing a configuration around a handset of a conventional automatic transaction apparatus.

  FIG. 9A shows a configuration around handset 130, including handset 130. As shown in FIG. 9A, in a conventional automatic transaction apparatus (hereinafter referred to as “ATM601”), a handset mounting unit 120 is provided on the front panel 2, and the handset mounting unit 120 can be detached while the handset 130 is removable. It is attached to. The front panel 2 is an upper cover that protects the upper side of the front surface of the ATM 601.

  The handset 130 includes a grip 131, a microphone 132, a speaker 133, and a connector 134. The grip 131 is a part that is gripped by a customer. The microphone 132 is a component to which sound is input. The speaker 133 is a component that emits sound. The connector 134 is a cord connection part to which the cord 141 is connected.

  In the handset 130, a surface on which the handset mounting unit 120 is mounted (hereinafter referred to as “mounting surface”) is a surface that comes into contact with the customer's face. The microphone 132 is provided on the mounting surface of the handset 130 at a position below the grip portion 131 (on the right side of the grip portion 131 in the example shown in FIG. 9A). The speaker 133 is provided so as to protrude from the mounting surface of the handset 130 at a position above the grip portion 131 (in the example shown in FIG. 9A, on the left side of the grip portion 131). Further, the connector 134 protrudes from the mounting surface of the handset 130 at a position further below the microphone 132. The handset 130 is sized and shaped so that the microphone 132 and speaker 133 are placed near the standard customer mouth and ears.

  When the customer uses the handset 130, the handset mounting unit 120 ensures that the customer (especially a low-sighted customer) can return the handset 130 to the handset mounting unit 120, and a staff member of the ATM 601 maintains the ATM 601. In this case, the handset 130 is formed in accordance with the size and shape of the handset 130 so that the handset 130 does not fall off the front panel 2 even when the front panel 2 is opened and closed.

  For example, in the handset mounting portion 120, the recess 121 is provided in a portion facing the speaker 133 of the handset 130, and the recess 122 is provided in a portion facing the connector 134 of the handset 130. The recess 121 is a part that functions as a speaker storage unit that stores the speaker 133 of the handset 130 therein. The concave portion 122 is a part that functions as a connector housing portion that houses the connector 134 of the handset 130 therein. The handset mounting unit 120 holds the handset firmly by the recess 121 storing the speaker 133 inside and the recess 122 storing the connector 134 inside.

  The recess 122 has an opening 123 formed on the bottom surface. The opening 123 is a space in which the cord 141 is taken in and out (passes) when the handset 130 is detached from the handset mounting unit 120 or when the handset 130 is returned (attached) to the handset mounting unit 120. It is. Hereinafter, the opening 123 is referred to as a “cord port 123” (see FIG. 9B). In addition, FIG. 9B is a figure which shows the structure of the code | cord | chord port and code | cord | chord of the conventional automatic transaction apparatus.

  FIG. 9B (a) shows the configuration of the cord port 123. As shown in FIG. 9B (a), the cord port 123 is formed in a circular shape. Further, the diameter D of the cord port 123 is larger than the width w (see FIG. 9B (b)) of the main plane to be described later of the cord 141. That is, the relationship is “D> w”. The size and shape of the cord port 123 is such that a gap is provided between the cord port 123 and the cord 141, and the corner portion or the side that obstructs the insertion and removal of the cord 141 is eliminated. This is to reduce the frictional resistance between the two and the cord port 123 so that the cord 141 can be smoothly inserted and removed.

On the other hand, FIG. 9B (b) shows the configuration of the code 141. The cord 141 has a cross-sectional shape orthogonal to the longitudinal direction having a wide portion and a narrow portion, and is connected to the handset 130. In the example shown in FIG. 9B (b), the code 141 is formed in the shape of flat. Hereinafter, the cord 141 may be referred to as a “flat cord 141”. Such a shape of the cord 141 can be efficiently wound (specifically, closely packed without a gap) in the circumferential direction of the reel 144 (see FIG. 10B) of the cord winding unit 140 described later. This is to make it possible.

In the example shown in FIG. 9B (b), the surface of the cord 141 is formed by two planes having a width value “w” and two planes having a width value “t”. The widths w and t have a relationship of “w> t”. Hereinafter, the wider plane (that is, the plane of width w ) is referred to as the “main plane” (or “wide plane”), and the narrower plane (that is, the plane of width t ) is referred to as the “sub-plane”. (Or “narrow surface”) .

  In the ATM 601, a gap is provided between the cord port 123 and the cord 141. In the ATM 601, a sealing member 124 for closing the gap is attached to the bottom surface of the recess 122 as shown in FIG. 9A in order to prevent foreign matter from entering the inside of the ATM 601 from the gap. The sealing member 124 is made of, for example, a soft material such as sponge, and a cut portion 124 a cut in a cross direction, for example, is provided in a portion overlapping the cord port 123. The sealing member 124 allows the cord 141 to pass through the cutting portion 124a when the cord 141 is put in and out of the cord port 123. As a result, the sealing member 124 prevents foreign matter from entering the ATM 601 from the gap without hindering the cord 141 from being inserted into and removed from the cord port 123.

  As shown in FIG. 9A, the ATM 601 has a cord winding unit 140 provided at a position below the handset mounting unit 120 inside the ATM 601. The cord winding unit 140 is a component that winds up the cord 141.

  The cord winding unit 140 includes a reel 144 around which the cord 141 is wound. The cord winding unit 140 has an opening (winding port) 143 a provided on an extension line in the circumferential direction of the reel 144. The cord 141 is wound around a reel 144 inside the cord winding portion 140, and is drawn out of the cord winding portion 140 from the opening 143a. The cord winding unit 140 is provided with an opening 143b. The cord 141 is also pulled out from the opening 143b.

  If there is a remaining amount wound around the reel 144, the cord 141 pulled out from the opening 143a can be further pulled out from the opening 143a by the remaining amount. Further, the cord 141 drawn from the opening 143b is drawn from the opening 143b by a predetermined length.

  Hereinafter, when distinguishing the cord 141 drawn from the opening 143a from the cord 141 drawn from the opening 143b, the cord 141 drawn from the opening 143a is referred to as “code 141a” and is drawn from the opening 143b. The code 141 is referred to as “code 141b”. The opening 143a from which the cord 141a is drawn is referred to as a “winding port 143a”.

  The distal end portion of the cord 141a is connected to the connector 134 of the handset 130. Further, the cord 141b is provided with a modular plug 142b at the tip, and the tip is relayed to a communication unit (or a communication unit not shown) via the modular plug 142b. Connected to the relay unit).

  The cord 141 a is pulled out from the inside of the cord winding unit 140 when the customer removes the handset 130 from the handset mounting unit 120 in order to use the handset 130. As a result, in this case, the cord 141a proceeds in the arrow A2 direction. In addition, the cord 141 a is pulled into the cord winding unit 140 from the outside when the customer uses the handset 130 to return (attach) the handset 130 to the handset mounting unit 120. As a result, in this case, the cord 141a proceeds in the arrow A1 direction.

  The cord winding unit 140 always pulls the cord 141a in the storing direction (that is, the direction in which the cord 141a is pulled into the cord winding unit 140 (specifically, the F direction shown in FIG. 9A)). Applying force (tension). As a result, when the customer uses the handset 130 to return the handset 130 to the handset mounting portion 120, the ATM 601 returns the cord 141a so that the cord 141a does not interfere with the housing of the connector 134 in the recess 122. In accordance with the operation, the cord 141a can be reliably pulled into the ATM 601 (that is, inside the cord port 123).

  Further, the cord winding unit 140 deviates from a straight line L2 that connects the connector 134 (strictly, the center of the base portion of the cord 141a drawn from the connector 134) and the cord port 123 (strictly, the center). It is provided at the position. Therefore, the ATM 601 needs to guide the cord 141a from the cord port 123 toward the winding port 143a. The ATM 601 has a guide shaft 651 for this purpose.

  The guide shaft 651 is a guide member that contacts the cord 141a and guides the cord 141a by bending the cord 141a from the cord port 123 toward the winding port 143a. The guide shaft 651 is formed in a cylindrical shape. The guide shaft 651 is provided at a position deviating from a straight line L1 connecting the cord port 123 (strictly, the center) and the winding port 143a (strictly, the center).

  In such an ATM 601, since an unspecified number of persons are customers and handle the handset 130, even if the customer pulls the cord 141 a with a strong force when using the handset 130, the cord 141 a is damaged (for example, extended). It is necessary to configure so that it will not be disconnected or disconnected. Therefore, the ATM 601 protects the cord 141a from the load applied to the connection portion between the cord 141a and the handset 130 by the connector 134. Further, the ATM 601 is provided with a gap between the cord port 123 and the cord 141a so that the cord 141a can be smoothly inserted and removed from the cord port 123.

  As a technique related to the cord winding unit, for example, Patent Document 2 describes a telephone in which the cord winding unit is arranged below the handset mounting unit.

JP 2002-208058 A (FIG. 2) JP-A-5-91174

However, the conventional automatic teller machine, as described below, occurs partially twisted code, the internal code winding portion beyond the case jammed and wound Tokuchi in its twisted portion wound Tokuchi when entering, when the customer is forcibly pulled out the code of the condition, twisted portion is caught in winding Tokuchi, thereby sometimes code is damaged (extend or, or disconnected), There was a problem.

  Hereinafter, this problem will be described with reference to FIG. FIG. 10 is a diagram showing the principle of the occurrence of twisting of the cord of the conventional automatic transaction apparatus. 10A shows the state of the cord 141a between the cord port 123 and the winding port 143a, and FIG. 10B shows the state of the cord 141a inside the winding port 143a. .

  In the example shown in FIG. 10B, the winding opening 143 a is formed in a rectangular shape having a horizontal width value “W” and a vertical width value “T”. The widths W and T of the winding opening 143a have a relationship of “W> w> T> t” as compared with the widths w and t of the cord 141a.

  The conventional ATM 601 has a gap between the cord port 123 and the cord 141a. Therefore, in the ATM 601, the progression of the cord 141 a may be disturbed near the cord opening 123. As a result, the ATM 601 is bent (bent) in the cord 141a between the cord port 123 and the winding port 143a (particularly around the guiding shaft 651 that is a guiding member). As shown in FIG. 10A, a twisted portion 149 sometimes occurs in the cord 141a.

  In the ATM 601, the cord winding unit 140 always applies a pulling force (tension) in the storing direction to the cord 141a. When the twisted portion 149 is generated in the cord 141a, the twisted portion 149 tries to enter the winding port 143a.

  The cord 141a is formed in a flat shape. For this reason, in the ATM 601, the cord 141 a may be bent along the extending direction, for example. Further, the cord 141a covers the periphery of the core material with an elastic member. Therefore, when the cord 141a with the cord winding portion 140 bent is pulled in the storing direction, the cord 141a tries to enter the winding opening 143a, and at that time, the bent portion becomes the winding opening 143a. Is shrunk in accordance with the width T of the sub-plane of the winding opening 143a. As a result, the bent portion of the cord 141a may be clogged with the winding opening 143a or slip through the winding opening 143a. As a result, as shown in FIG. 10B, the cord 141a may have a twisted portion 149 clogged by the winding port 143a or may enter the inside of the cord winding unit 140 beyond the winding port 143a. .

  The ATM 601 uses the handset 130 when the twisted portion 149 is clogged at the winding opening 143a or when the twisted portion 149 enters the inside of the cord winding section 140 beyond the winding opening 143a and the customer uses the handset 130. Is lifted, the twisted portion 149 that has entered the inside of the cord winding portion 140 is caught by the winding opening 143a. When the customer pulls out the cord 141a in that state forcibly, the cord 141a is damaged (extends or breaks) because a heavy load is applied.

The present invention has been made to solve the problems described above, code that is connected to the handset between the winding Tokuchi code port and codes winding portion of the mounting portion (handset mounting portion) The main object is to provide an automatic transaction apparatus that prevents twisting and catching on a winding port of a cord winding unit.

In order to achieve the above object, the present invention provides an automatic transaction apparatus having a handset, a mounting portion to which the handset is detachably mounted, a portion having a wide cross-sectional shape perpendicular to the longitudinal direction, and a narrow width. It has a shape having a portion, and, a code which is connected to the handset, is provided in the mounting portion, prior to Kiko over soil from the interior of the housing of the automatic teller machine of the housing a code port drawn to the outside, a code winding section draw logger over de before from the code port was drawn out of the housing toward the inside of the housing, provided in the code winding unit , before and winding Tokuchi that Kiko over de is Ru is out, the cord opening and provided between the winding Tokuchi, prior to one aspect of Kiko over de of or the code contact at a plurality of locations by contacting the plurality of surfaces, the winding Tokuchi Possess a twist preventing mechanism for preventing the pre-twisting Kiko over de entering, the prevention mechanism twisting the said code port and straight and the torsion prevention mechanism connecting the said winding Tokuchi of the cord winding section The connecting straight line is not on the same straight line, and the cord has a straight line from the cord port to the twist preventing mechanism, and a straight line from the twist preventing mechanism to the winding port. The direction is changed by a twisting prevention mechanism .

The automatic transaction apparatus, twist preventing mechanism is in contact with the plurality of surfaces of either or code contact with "a plurality of locations" on one face of the code. Further, in this automatic transaction apparatus, the straight line connecting the cord opening and the twist preventing mechanism and the straight line connecting the twist preventing mechanism and the winding opening of the cord winding portion are not on the same straight line. The part leading to the twist preventing mechanism is on a straight line, the part leading from the twist preventing mechanism to the winding port is on the straight line, and the direction is changed by the twist preventing mechanism. Thus, the automatic teller machine limits the deflection of the code between the prevention mechanism and the winding Tokuchi twisting to prevent twisting of Turkey over de to enter the wound Tokuchi.

Therefore, the automated transaction apparatus may be prevented from or enters the inside of the cord winding portion beyond the winding Tokuchi clogged code of twisted state by winding Tokuchi. As a result, the automatic transaction apparatus, twisting code can be prevented from being caught in the cord winding section of the winding Tokuchi, thereby, code damage (extend or, or broken) to Can be prevented.

For example, Patent Document 2 describes a telephone in which a cord winding unit is disposed below a handset mounting unit. However, in the telephone described in Patent Document 2, the cord is pulled out of the telephone in a state where the handset is attached to the telephone. For this reason, the telephone described in Patent Document 2 is bent in the cord. Such telephone described in Patent Document 2, thought that directed towards the code in the direction of the cord winding unit, and, between the cord outlet and winding Tokuchi, deflection code This makes it difficult to prevent twisting of the cord entering the winding port. Therefore, the telephone set described in Patent Document 2 may damage the cord.

According to the present invention, an automatic that code which is connected to the handset is prevented from catching on the winding Tokuchi code winding part twisted between the winding Tokuchi code port and codes winding portion of the mounting portion A transaction device can be provided.

It is a figure which shows the whole structure of the automatic transaction apparatus which concerns on Embodiment 1. FIG. It is a figure which shows the structure of the twist prevention mechanism of the automatic transaction apparatus which concerns on Embodiment 1. FIG. It is a figure which shows the structure of the handset of the automatic transaction apparatus which concerns on Embodiment 1. FIG. It is a figure which shows the structure of the code winding part of the automatic transaction apparatus which concerns on Embodiment 1. FIG. It is a figure which shows the structure of the twist prevention mechanism of the automatic transaction apparatus which concerns on Embodiment 2. FIG. It is a figure which shows the structure of the modification of the twist prevention mechanism of the automatic transaction apparatus which concerns on Embodiment 2. FIG. It is a figure which shows the structure of the twist prevention mechanism of the automatic transaction apparatus which concerns on Embodiment 3. FIG. It is a figure which shows the structure of the twist prevention mechanism of the automatic transaction apparatus which concerns on Embodiment 4. FIG. It is a figure which shows the structure around the handset of the automatic transaction apparatus which concerns on Embodiment 5. FIG. It is a figure which shows the structure of the automatic transaction apparatus which concerns on a 1st modification. It is a figure which shows the structure of the automatic transaction apparatus which concerns on a 2nd modification. It is a figure which shows the structure around the handset of the conventional automatic transaction apparatus. It is a figure which shows the structure of the code | cord | chord port and code | cord | chord of the conventional automatic transaction apparatus. It is a figure which shows the generation | occurrence | production principle of the twist of the code | cord | chord of the conventional automatic transaction apparatus.

  Hereinafter, an embodiment of the present invention (hereinafter referred to as “the present embodiment”) will be described in detail with reference to the drawings. Each figure is only schematically shown so that the present invention can be fully understood. Therefore, the present invention is not limited to the illustrated example. Moreover, in each figure, the same code | symbol is attached | subjected about the common component and the same component, and those overlapping description is abbreviate | omitted.

[Embodiment 1]
The automatic transaction apparatus (ATM1 (see FIG. 2A)) according to the first embodiment is twisted between the cord port 123 and the winding port 143a as compared with the conventional automatic transaction apparatus (ATM601 (see FIG. 9A)). The difference is that a prevention mechanism 150 is provided.

Twist preventing mechanism 150 is a mechanism for preventing twisting of Turkey over de 141a to enter the wound Tokuchi 143a.

The twist preventing mechanism 150 contacts one or more of the first main plane 146a and the second main plane 146b and the first sub-plane 147a and the second sub-plane 147b of the cord 141a shown in FIG. 2C at a plurality of positions. For example, in the first embodiment, the twist preventing mechanism 150 contacts the first main plane 146a and the second main plane 146b of the cord 141a at two locations. Thus, twist preventing mechanism 150 prevents twisting deflection limits the code 141a between the preventing mechanism 150 and the take Tokuchi 143a, twisting of Turkey over de 141a to enter the wound Tokuchi 143a .

<Configuration of automatic transaction equipment>
Hereinafter, the configuration of the automatic transaction apparatus according to the first embodiment will be described with reference to FIGS. 1, 2A, 2B, and 2C. FIG. 1 is a diagram illustrating the overall configuration of the automatic transaction apparatus according to the first embodiment. FIG. 2A is a diagram illustrating a configuration of a twist preventing mechanism of the automatic transaction apparatus according to the first embodiment. FIG. 2B is a diagram illustrating a configuration of a handset of the automatic transaction apparatus according to the first embodiment. FIG. 2C is a diagram illustrating a configuration of a code winding unit of the automatic transaction apparatus according to the first embodiment.

  As shown in FIG. 1, an automatic transaction apparatus (hereinafter referred to as “ATM”) 1 according to the first embodiment includes a front panel 2, a housing 3, a front door 4A, a rear door 4B, a customer operation unit 5, a card. It has an insertion / discharge port 6, a passbook insertion / discharge port 7, a slip insertion / discharge port 8, a biometric authentication unit 9, a bill insertion / discharge port 10, a coin insertion / discharge port 11, a handset mounting unit 120, and a handset 130.

  The front panel 2 is an upper cover that protects the upper side of the front surface of the ATM 1. The front panel 2 is rotatably attached to the casing 3 of the ATM 1 at the upper end thereof by a hinge. The front panel 2 is rotated by the attendant during maintenance of the ATM 1 so that the portion facing the waist of the attendant jumps up around the hinge. Thereby, as for ATM1, the upper part side of the front is opened at the time of maintenance.

  The housing 3 is a main body of the ATM 1 and houses various units (for example, a banknote or coin discriminating unit, a denomination safe, etc.).

  The front door 4A is a lower cover that protects the lower side of the front surface of the ATM 1. The front door 4A has a left end (or right end) attached to the casing 3 of the ATM 1 so as to be rotatable by a hinge. The front door 4A is rotated by an attendant during maintenance of the ATM 1 so that an end portion (hereinafter referred to as “free end”) on which the hinge is not provided is opened with the hinge as an axis. Thereby, as for ATM1, the lower part side of the front is opened at the time of maintenance.

  The rear door 4B is a cover that protects the rear surface of the ATM 1. The rear door 4B has a left end (or right end) attached to the casing 3 of the ATM 1 so as to be rotatable by a hinge. The rear door 4B is rotated by an attendant during maintenance of the ATM 1 so that the free end is opened around the hinge. Thereby, the rear surface of ATM1 is opened at the time of maintenance.

  The customer operation unit 5 is a component that is operated by the customer to perform transactions such as deposit, withdrawal, and transfer. The customer operation unit 5 includes a display unit for displaying various screens and an input unit for inputting various instructions and information by the customer. Here, the customer operation part 5 is demonstrated supposing the case comprised with the touch panel.

  The card insertion / discharge port 6 is an opening through which a card medium such as a cash card or a transfer card is inserted and discharged. In the ATM 1, a card reader / writer unit for reading information from a card medium is disposed in the back of the card insertion / extraction port 6.

  The passbook insertion / discharge port 7 is an opening through which the passbook is inserted and discharged. In the ATM 1, a passbook printer unit that reads information from the passbook or prints transaction information on the passbook is disposed behind the passbook insertion / extraction port 7.

  The slip insertion / discharge port 8 is an opening through which slips are inserted and discharged. In the ATM 1, a slip printer unit that reads information from a slip or prints transaction information on a slip is disposed at the back of the slip insertion outlet 8.

  The biometric authentication unit 9 is a component that obtains customer biometric information and authenticates the customer. Here, it is assumed that the biometric authentication unit 9 is configured as a finger vein authentication unit that acquires a vein pattern of a customer's finger and authenticates the customer.

The bill insertion / discharge port 10 is an opening through which bills are inserted or discharged during a transaction.
The coin insertion / discharge port 11 is an opening through which coins are inserted or discharged during a transaction.

  The handset mounting part 120 is a part where the handset 130 is mounted. As shown in FIG. 2A, the ATM 1 handset mounting portion 120 according to the first embodiment has the same configuration as the conventional ATM 601 handset mounting portion 120 (see FIG. 9A).

  That is, the handset mounting part 120 is formed according to the size and shape of the handset 130. For example, in the handset mounting portion 120, the recess 121 is provided in a portion facing the speaker 133 of the handset 130, and the recess 122 is provided in a portion facing the connector 135 of the handset 130. The recess 121 is a part that functions as a speaker storage unit that stores the speaker 133 of the handset 130 therein. In addition, the recess 122 is a part that functions as a connector housing portion that houses the connector 135 of the handset 130 therein. The handset mounting portion 120 holds the handset 130 firmly by the recess 121 storing the speaker 133 inside and the recess 122 storing the connector 135 inside.

  The recess 122 has an opening as a cord port 123 formed on the bottom surface. The cord port 123 is a space in which the cord 141 is taken in and out (passes) when the handset 130 is removed from the handset attachment unit 120 or when the handset 130 is returned (attached) to the handset attachment unit 120. It is.

The cord 141 has a cross-sectional shape orthogonal to the longitudinal direction having a wide portion and a narrow portion, and is connected to the handset 130. In the example shown in each figure, the cord 141 is wound efficiently (specifically, closely packed without a gap) in the circumferential direction of the reel 144 (see FIG. 2A) of the cord winding unit 140. In addition, it is formed in a flat shape. In the example shown in FIG. 2C, the surface of the cord 141 is formed by two main planes 146 having a width value “w” and two sub-planes 147 having a width value “t”. The widths w and t have a relationship of “w> t”. The “main plane” corresponds to the “wide plane” recited in the claims. The “sub-plane” corresponds to the “narrow plane” recited in the claims.

  Here, when distinguishing the two main planes 146, the one close to the straight line L1 (see FIG. 2A) of the two main planes 146 is referred to as a “first main plane 146a”, and the straight line L1 (see FIG. 2A). The one far from the center is called “second main plane 146b”. The “straight line L1” is a line connecting the cord port 123 (strictly, the center thereof) and the winding port 143a (strictly, the center thereof).

  Also, when distinguishing between the two sub-planes 147, the one of the two sub-planes 147 that is closer to the side surface of the housing 3 (see FIG. 1) is referred to as a “first sub-plane 147a”, and the housing 3 (FIG. 1) is called “second sub-plane 147b”.

  For such a cord 141, the cord port 123 has a diameter D (see FIG. 2A) that is considerably larger than the width w of the main plane 146 of the cord 141 (for example, about twice the width w of the main plane 146). Size) in a circular shape. Therefore, the diameter D of the cord port 123 and the width w of the main plane 146 of the cord 141 are in a relationship of “D> w”. The size and shape of the cord port 123 is such that a gap is provided between the cord port 123 and the cord 141, and the corner portion or the side that obstructs the insertion and removal of the cord 141 is eliminated. This is to reduce the frictional resistance between the two and the cord port 123 so that the cord 141 can be smoothly inserted and removed.

  In the ATM 1, a gap is provided between the cord port 123 and the cord 141. As shown in FIG. 2A, a sealing member 124 for closing the gap is attached to the bottom surface of the recess 122 in order to prevent foreign matter from entering the inside of the ATM 1 from the gap. The sealing member 124 is made of, for example, a soft material such as sponge, and a cut portion 124a (see FIG. 9B (a)) cut in a cross direction, for example, is formed in a portion overlapping the cord port 123. Is provided. The sealing member 124 allows the cord 141 to pass through the cutting portion 124a when the cord 141 is put in and out of the cord port 123. Thus, the sealing member 124 prevents foreign matter from entering the inside of the ATM 1 from the gap without hindering the cord 141 from being inserted into and removed from the cord port 123.

  The handset 130 is a component for announcing the operation method of the ATM 1 to the customer by voice. As shown in FIG. 2A, the ATM1 handset 130 according to the first embodiment has the same configuration as the conventional ATM601 handset 130 (see FIG. 9A).

  That is, the handset 130 includes a grip 131, a microphone 132, a speaker 133, and a connector 135. The grip 131 is a part that is gripped by a customer. The microphone 132 is a component to which sound is input. The speaker 133 is a component that emits sound. The connector 135 is a cord connection part to which the cord 141 is connected.

  The microphone 132 is provided at a position below the grip portion 131 (on the right side of the grip portion 131 in the example shown in FIG. 2A) on the mounting surface of the handset 130 (the surface on the side attached to the handset mounting portion 120). It has been. The speaker 133 is provided so as to protrude from the mounting surface of the handset 130 at a position above the grip portion 131 (on the left side of the grip portion 131 in the example shown in FIG. 2A). Further, the connector 135 is provided at a position further below the microphone 132 so as to protrude from the mounting surface of the handset 130. The handset 130 is sized and shaped so that the microphone 132 and speaker 133 are placed near the standard customer mouth and ears.

  As shown in FIG. 2B, the connector 135 includes a first rotating part 135a and a second rotating part 135b. As shown in FIG. 2B (a), the first rotating portion 135a rotates the connector 135 in the direction indicated by the arrow R1 (ie, in a plane formed by the axis of the grip portion 131 and the sound emission direction of the speaker 133). This is a mechanism for freely rotating in the proximity direction or the separation direction with respect to the mounting surface of the handset 130. As shown in FIG. 2B (a), the second rotating portion 135b is a mechanism for freely rotating the connector 135 in the direction of arrow R2 (that is, the direction around the axis with the extending direction of the connector 135 as an axis). is there. Note that FIG. 2B (a) shows the overall configuration of the handset 130 according to the first embodiment as viewed obliquely from above. FIG. 2B (b) shows a configuration around the connector 135 of the handset 130 according to the first embodiment, as viewed obliquely from below.

  As shown in FIG. 2A, the ATM 1 has a cord winding unit 140 provided at a position below the handset mounting unit 120 inside the ATM 1. The cord winding unit 140 is a component that winds up the cord 141.

  The cord winding unit 140 includes a reel 144 around which the cord 141 is wound. The cord winding unit 140 has a winding port 143 a provided on an extension line in the circumferential direction of the reel 144. The cord 141 is wound around a reel 144 inside the cord winding unit 140 and is drawn out of the cord winding unit 140 from a winding port 143a. The cord winding unit 140 is provided with an opening 143b. The cord 141 is also pulled out from the opening 143b.

  If there is a remaining amount wound around the reel 144, the cord 141 (the cord 141a) pulled out from the winding port 143a can be further pulled out from the winding port 143a by the remaining amount. Further, the cord 141 (the cord 141b) drawn from the opening 143b is drawn from the opening 143b by a predetermined length.

  As shown in FIG. 2C, the cord 141a is provided with a modular plug 142a at the tip, and the tip is connected to the connector 135 of the handset 130 via the modular plug 142a. Further, the cord 141b is provided with a modular plug 142b at the tip, and the tip is relayed to a communication unit (or a communication unit not shown) via the modular plug 142b. Connected to the relay unit).

  In the example shown in FIG. 2C, the winding opening 143a is formed in a rectangular shape having a horizontal width value of “W” and a vertical width value of “T”. The widths W and T of the winding opening 143a have a relationship of “W> w> T> t” as compared with the widths w and t of the cord 141a. The specific values of the widths W and T of the winding opening 143a and the widths w and t of the cord 141a are, for example, a width W of about “5.5 mm”, a width T of about “2 mm”, and a width w. Is about “4 mm” and the width t is about “1 mm”. The specific value of the diameter D (see FIG. 2A) of the cord port 123 is, for example, about “10 mm”.

  The cord 141 a is pulled out from the inside of the cord winding unit 140 when the customer removes the handset 130 from the handset mounting unit 120 in order to use the handset 130. As a result, in this case, the cord 141a proceeds in the arrow A2 direction. In addition, the cord 141 a is pulled into the cord winding unit 140 from the outside when the customer uses the handset 130 to return (attach) the handset 130 to the handset mounting unit 120. As a result, in this case, the cord 141a proceeds in the arrow A1 direction.

  The cord winding unit 140 always pulls the cord 141a in the storing direction (that is, the direction in which the cord 141a is drawn into the cord winding unit 140 (specifically, the F direction shown in FIG. 2A)). Applying force (tension). As a result, when the customer uses the handset 130 and returns the handset 130 to the handset mounting portion 120, the ATM 1 returns the cord 141a so that the cord 141a does not interfere with the housing of the connector 135 in the recess 122. In accordance with the operation, the cord 141a can be reliably pulled into the ATM 1 (that is, inside the cord port 123).

  The tension of the cord winding unit 140 is preferably set to a larger value as the cord 141a is pulled out longer. For example, when the cord 141a is slightly pulled out (for example, several centimeters) (that is, when the customer lifts the handset 130 by several centimeters), the cord winding unit 140 is 0.3 ± 0 relative to the cord 141a. It is better to apply a tension of 1 N (Newton) in the F direction. In addition, the cord winding unit 140 is configured so that the cord 141a can be removed from the cord 141a when the cord 141a is pulled out to the vicinity of the limit value (for example, several tens of centimeters) (ie, when the customer lifts the handset 130 several tens of centimeters) It is preferable to apply a tension of 1.7 ± 0.2 N (Newton) in the F direction. The cord winding unit 140 attenuates the tension as the cord 141a is pulled inside. In this way, the cord take-up unit 140 reliably pulls the cord 141a into the ATM 1 (that is, inside the cord port 123) and prevents the cord 141a from being damaged by applying an excessive load to the cord 141a. Prevent (extend or break).

  As shown in FIG. 2A, the cord winding unit 140 includes a connector 135 (strictly, the center of the base portion of the cord 141a drawn from the connector 135) and a cord port 123 (strictly, the center). Is provided at a position deviating from a straight line L2 connecting the two.

  As shown in FIG. 2A, the ATM 1 is provided with the twist preventing mechanism 150 at a position deviating from the straight line L1 between the cord port 123 and the winding port 143a.

Twist preventing mechanism 150, as described above, a mechanism for preventing twisting of Turkey over de 141a to enter the wound Tokuchi 143a. Twist preventing mechanism 150 is in contact with either one or a plurality and plurality of locations of the first principal plane 146a and a second principal plane 146b and the first sub-plane 147a and the second sub-plane 147b of the code 141a. Thus, twist preventing mechanism 150 limits the deflection of the code 141a between the preventing mechanism 150 and the take Tokuchi 143a twist.

<Configuration of twist prevention mechanism>
In the first embodiment, the twist preventing mechanism 150 includes a first guide member 151a and a second guide member 151b as shown in FIG. 2A. Each of the first guide member 151a and the second guide member 151b is provided at a position where at least a curved surface serving as a contact portion with the cord 141a is deviated from the straight line L1 between the cord port 123 and the winding port 143a. ing. Of the first guide member 151a and the second guide member 151b, the first guide member 151a is a member closer to the straight line L1, while the second guide member 151b is a member farther from the straight line L1.

  Each of the first guide member 151a and the second guide member 151b includes a curved surface curved in an arc shape. The first guide member 151a and the second guide member 151b are arranged such that their curved surfaces face each other via the cord 141a. The first guide member 151a and the second guide member 151b are spaced apart from each other so that the cord 141a is loosely inserted along the arc of the curved surface of the first guide member 151a.

  The first guide member 151a and the second guide member 151b guide the cord 141a from the cord port 123 toward the take-up port 143a by sandwiching the cord 141a between the respective curved surfaces, and also bend the cord 141a. Restrict.

  The curved surface of the second guide member 151b is formed with a larger radius of curvature than the curved surface of the first guide member 151a. Therefore, the distance between the curved surface of the first guide member 151a and the curved surface of the second guide member 151b is larger at both ends than near the center. Therefore, the first guide member 151a and the second guide member 151b can smoothly insert the cord 141a.

In such an ATM 1, the twist prevention mechanism 150 has a plurality of locations (this embodiment) including one or more of the first main plane 146a and the second main plane 146b and the first sub plane 147a and the second sub plane 147b of the cord 141a. In the first mode, contact is made at two locations of the first main plane 146a and the second main plane 146b of the cord 141a. Thus, ATM 1 prevents twisting to limit the deflection of the code 141a between the preventing mechanism 150 and the take Tokuchi 143a twisting, code 141a entering the winding Tokuchi 143a.

  Therefore, the ATM 1 can prevent the twisted cord 141a from being jammed at the winding port 143a or entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, the ATM 1 can prevent the cord 141a from being twisted and caught in the winding port 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

Note that the life of the cord 141a is shortened when a strong bending stress is applied. Therefore, it is preferable that the twist preventing mechanism 150 does not apply a strong bending stress to the cord 141a. In Embodiment 1, the twist preventing mechanism 150, the direction of the tension has been code 141a toward the preventing mechanism 150 twisting the cord opening 123 to the first direction, toward the preventing mechanism 150 twisted winding Tokuchi 143a When the direction of the cord 141a stretched in the direction is the second direction, the angle between the first direction and the second direction is an obtuse angle. Thereby, the twist preventing mechanism 150 avoids that a strong bending stress is applied to the cord 141a. Therefore, ATM1 can suppress that the lifetime of the code 141a becomes short.

  Note that the ATM 1 has components that are more important than the handset 130 (for example, a bill / coin discrimination unit, a denomination safe, a customer operation unit, etc.) around the handset 130. Therefore, the twist prevention mechanism 150 needs to have a configuration that does not become an obstacle to maintenance of a highly important component during maintenance.

  The torsion prevention mechanism 150 has a simple configuration with a small number of parts, and thus has a configuration that satisfies the requirement that it does not become an obstacle to maintenance of components having high importance during maintenance.

  As described above, according to the ATM 1 according to the first embodiment, the twisted cord 141a is clogged at the winding port 143a or enters the inside of the cord winding unit 140 beyond the winding port 143a. Can be prevented. As a result, it is possible to prevent the cord 141a from being twisted and being caught by the winding opening 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

[Embodiment 2]
Hereinafter, with reference to FIG. 3, the structure of the twist prevention mechanism (hereinafter referred to as “twist prevention mechanism 150A”) of the automatic transaction apparatus (hereinafter referred to as “ATM1A”) according to the second embodiment will be described. FIG. 3 is a diagram illustrating a configuration of a twist preventing mechanism of the automatic transaction apparatus according to the second embodiment.

  As shown in FIG. 3, the ATM 1A according to the second embodiment has a guide shaft 651 similar to the conventional ATM 601 (see FIG. 9A) instead of the twist preventing mechanism 150, as compared with the ATM 1 according to the first embodiment. , Which is different in that it has a twist preventing mechanism 150A.

  The guide shaft 651 is a guide member that contacts the cord 141a and guides the cord 141a by bending the cord 141a from the cord port 123 toward the winding port 143a. The guide shaft 651 is disposed at a position deviated from the straight line L1 between the cord port 123 and the winding port 143a so that the outer peripheral surface is in contact with the first main plane 146a of the cord 141a.

Twisting prevention mechanism 150A, similar to the torsion prevention mechanism 150 of Embodiment 1, a mechanism for preventing twisting of the code 141a. The twist preventing mechanism 150A is configured to come into contact with the first main plane 146a of the cord 141a and the guide shaft 651 at a position on the cord port 123 side and a position on the winding port 143a side.

  The twist preventing mechanism 150 </ b> A is configured by one or more twist preventing contact members arranged at one or both of the position on the winding port 143 a side and the position on the cord port 123 side with respect to the guiding shaft 651. Yes. Here, description will be made assuming that the twist preventing contact member is constituted by two twist preventing shafts (hereinafter referred to as “twist preventing shafts 152a and 152b”).

Prevention shaft 152a, 152 b twisting, at a plurality of locations including a guiding shaft 651, in contact with the first principal plane 146a of the cord 141a, limiting the deflection of Turkey over de 141a to proceed to the winding Tokuchi 143a Accordingly, to reduce the plastic deformation of the code 141a, and thus, a contact member for preventing twisting of the code 141a.

  Twist prevention shafts 152a and 152b are positioned away from straight line L1 (see FIG. 2A) between cord port 123 and winding port 143a so that the outer peripheral surface is in contact with first main plane 146a of cord 141a. Is arranged. In the example shown in FIG. 3, the twist preventing shaft 152 a is provided at a position on the cord port 123 side with respect to the guiding shaft 651, while the twist preventing shaft 152 b is provided on the guiding shaft 651. On the other hand, it is provided at a position on the winding opening 143a side.

  In such an ATM 1A twist prevention mechanism 150A, the outer peripheral surfaces of the twist prevention shafts 152a and 152b are positioned on the winding port 143a side and the cord port 123 side with respect to the guide shaft 651, and the first cord 141a The first principal plane 146a is contacted to limit the bending of the cord 141a between the twist preventing mechanism 150A and the winding port 143a. Thereby, ATM1A prevents twist of the cord 141a which approachs the winding port 143a.

  Therefore, the ATM 1A can prevent the twisted cord 141a from clogging at the winding port 143a or entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, the ATM 1A can prevent the cord 141a from being twisted and caught in the winding port 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  Further, unlike the twist prevention mechanism 150 according to the first embodiment, the twist prevention mechanism 150A according to the second embodiment is not configured to sandwich the cord 141a. Therefore, the twist preventing mechanism 150A can further avoid applying a strong bending stress to the cord 141a than the twist preventing mechanism 150 according to the first embodiment. As a result, the twist preventing mechanism 150A can further suppress the shortening of the life of the cord 141a than the twist preventing mechanism 150 according to the first embodiment.

  In addition, the twist prevention mechanism 150A has a simple configuration with a small number of parts, thereby satisfying the requirement that maintenance is not an obstacle to a highly important component during maintenance.

  As described above, according to the ATM 1A according to the second embodiment, the twist preventing mechanism 150A is provided, so that the twisted cord 141a is clogged at the winding opening 143a as in the ATM 1 according to the first embodiment. It is possible to prevent the cord from entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, it is possible to prevent the cord 141a from being twisted and being caught by the winding opening 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  And according to ATM1A, it can suppress further that the lifetime of the code | cord | chord 141a becomes short rather than ATM1 which concerns on Embodiment 1. FIG.

<Modification>
ATM1A can use a roller instead of a shaft as a guide member or a twist preventing contact member. Hereinafter, ATM1A using a roller instead of a shaft is referred to as “ATM1Aa”, and a twist preventing mechanism 150A using a roller instead of a shaft is referred to as “twist preventing mechanism 150Aa”.

  Hereinafter, the structure of the twist preventing mechanism 150Aa of the ATM 1Aa will be described with reference to FIG. FIG. 4 is a diagram illustrating a configuration of a modified example of the twist preventing mechanism of the automatic transaction apparatus according to the second embodiment.

  As shown in FIG. 4, the ATM 1Aa has a guiding roller 652 as a guiding member, and further has twist preventing rollers 154a and 154b as twist preventing contact members of the twist preventing mechanism 150Aa. . In addition, ATM1Aa may mix a shaft and a roller, and may make it comprise the induction member and the contact member for twist prevention.

  As with the guide shaft 651, the guide roller 652 has an outer peripheral surface that contacts the first main plane 146a of the cord 141a, and guides the cord 141a by bending the cord 141a from the cord port 123 toward the winding port 143a. It is a member. The guide roller 652 is formed in a cylindrical shape, and rotates around a shaft provided at the center thereof.

  The torsion prevention rollers 154a and 154b each prevent the twist of the cord 141a by restricting the bending of the cord 141a that the outer peripheral surface comes into contact with the first main plane 146a of the cord 141a and proceeds to the winding port 143a. It is a contact member. Each of the twist preventing rollers 154a and 154b is formed in a cylindrical shape, and rotates around a shaft provided at the center thereof.

  In the ATM 1Aa according to such a modification, the guide member and the twist preventing contact member are configured by rollers. Therefore, the ATM 1Aa can smoothly move the cord 141a when the customer pulls the cord 141a from the inside of the ATM 1Aa to the outside or when the cord winding unit 140 pulls the cord 141a from the outside of the ATM 1Aa to the inside. The frictional force applied to the cord 141a can be reduced. As a result, the ATM 1Aa can extend the life of the cord 141a than the ATM 1A according to the second embodiment.

[Embodiment 3]
Hereinafter, with reference to FIG. 5, the structure of the twist prevention mechanism (hereinafter referred to as “twist prevention mechanism 150B”) of the automatic transaction apparatus (hereinafter referred to as “ATM1B”) according to the second embodiment will be described. FIG. 5 is a diagram illustrating a configuration of a twist preventing mechanism of the automatic transaction apparatus according to the third embodiment. FIG. 5A shows the configuration of the twist preventing mechanism 150B of the ATM 1B according to the second embodiment as viewed from the side, and FIG. 5B shows the front direction (example shown in FIG. 5A). The configuration of the guide shaft 155 used for the twist prevention mechanism 150B is shown from the right side of FIG.

  As shown in FIG. 5A, the ATM 1B according to the third embodiment is different from the ATM 1 according to the first embodiment in that a twist preventing mechanism 150B is provided instead of the twist preventing mechanism 150.

Twist preventing mechanism 150B, similarly to the torsion prevention mechanism 150 of Embodiment 1, a mechanism for preventing twisting of the code 141a. The twist preventing mechanism 150B is configured to come into contact with the first main plane 146a, the first sub plane 147a (see FIG. 2C), and the second sub plane 147b (see FIG. 2C) of the cord 141a at three places.

Twist preventing mechanism 150B is constituted by a guided shaft 155 as preventing contact member twisting to prevent twisting of the code 141a. As shown in FIG. 5B, the guide-equipped shaft 155 includes a shaft 155a and a side guide 155b.

The shaft 155a is a portion whose outer peripheral surface is in contact with the first main plane 146a of the cord 141a. The shaft 155a is formed in a cylindrical shape.
The side guide 155b is provided so as to protrude from both sides of the shaft 155a, and is in contact with the first sub-plane 147a (see FIG. 2C) and the second sub-plane 147b (see FIG. 2C) of the cord 141a, and the main plane of the cord 141a. It is a level | step difference which restrict | limits the bending in 146 (refer FIG. 2C).

  The shaft 155 with a guide is positioned away from the straight line L1 (see FIG. 2A) between the cord port 123 and the winding port 143a so that the outer peripheral surface of the shaft 155a contacts the first main plane 146a of the cord 141a. Is arranged. The twist preventing mechanism 150B can be configured as a roller with guide (not shown) in which the outer peripheral portion of the shaft 155a rotates instead of the shaft 155 with guide.

  In such an ATM 1B twist prevention mechanism 150B, the side guide 155b of the guided shaft 155 includes a first sub-plane 147a and a second sub-plane 147b of the cord 141a between the twist prevention mechanism 150B and the winding opening 143a. In contact, the deflection in the main plane 146 (see FIG. 2C) of the cord 141a is limited. Thereby, ATM1B prevents twist of the cord 141a which approachs the winding port 143a.

  Therefore, the ATM 1B can prevent the twisted cord 141a from being blocked by the winding port 143a or entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, the ATM 1B can prevent the cord 141a from being twisted and caught in the winding port 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  Further, unlike the twist prevention mechanism 150 according to the first embodiment, the twist prevention mechanism 150B according to the third embodiment is not configured to sandwich the cord 141a. Therefore, the twist prevention mechanism 150B can further avoid applying a strong bending stress to the cord 141a than the twist prevention mechanism 150 according to the first embodiment. As a result, the twist preventing mechanism 150B can further suppress the shortening of the life of the cord 141a than the twist preventing mechanism 150 according to the first embodiment.

  In addition, the twist prevention mechanism 150B has a simple configuration with a small number of parts, thereby satisfying the requirement that maintenance is not an obstacle to a highly important component during maintenance.

  As described above, according to the ATM 1B according to the third embodiment, the twist preventing mechanism 150B is provided, so that the twisted cord 141a is clogged at the winding opening 143a as in the ATM 1 according to the first embodiment. It is possible to prevent the cord from entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, it is possible to prevent the cord 141a from being twisted and being caught by the winding opening 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

[Embodiment 4]
Hereinafter, with reference to FIG. 6, the structure of the twist prevention mechanism (hereinafter referred to as “twist prevention mechanism 150C”) of the automatic transaction apparatus (hereinafter referred to as “ATM1C”) according to the fourth embodiment will be described. FIG. 6 is a diagram illustrating a configuration of a twist preventing mechanism of the automatic transaction apparatus according to the fourth embodiment.

  As shown in FIG. 6, the ATM 1C according to the fourth embodiment is different from the ATM 1 according to the first embodiment in that a twist preventing mechanism 150C is provided instead of the twist preventing mechanism 150.

Twist preventing mechanism 150C, similar to the torsion prevention mechanism 150 according to the first embodiment, by limiting the deflection of the code 141a between the prevention mechanism 150C and winding Tokuchi 143a twist, the twist of the code 141a It is a mechanism to prevent.

  The twist preventing mechanism 150 </ b> C includes a plurality of twist preventing contact members that sandwich the cord 141 a. Here, the case where the twist preventing contact member is constituted by two twist preventing shafts (hereinafter referred to as “twist preventing shafts 156a and 156b”) will be described.

The torsion prevention shaft 156a is a contact member whose outer peripheral surface is in contact with the first main plane 146a of the cord 141a. On the other hand, the twist preventing shaft 156b is a contact member whose outer peripheral surface is in contact with the second main plane 146b of the cord 141a. Prevention shaft 156a twist corresponds to the "contact member of the first wide side" described in the claims, while preventing the shaft 156b twisting, as set forth in the appended claims, "second wide This corresponds to the “surface-side contact member”.

  The torsion prevention shafts 156a and 156b are each formed in a cylindrical shape. The torsion prevention shafts 156a and 156b are disposed at positions deviated from the straight line L1 (see FIG. 2A) between the cord port 123 and the winding port 143a, and the centers of the axes are shifted by a distance L3. ing. The distance L3 may be obtained by experiments so that the twist due to plastic deformation of the cord 141a can be eliminated.

  In such an ATM 1C twist prevention mechanism 150C, the twist prevention shafts 156a and 156b are provided between the first principal plane 146a and the second principal plane 146b and the second principal plane 146b of the cord 141a between the twist prevention mechanism 150C and the winding opening 143a. Contact at a point restricts the bending of the cord 141a. Thereby, ATM1C prevents the twist by the plastic deformation of the code | cord | chord 141a which approachs the winding port 143a.

  Therefore, the ATM 1C can prevent the twisted cord 141a from being jammed at the winding port 143a or entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, the ATM 1C can prevent the cord 141a from being twisted and caught in the winding port 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  In addition, the twist preventing mechanism 150C has a simple configuration with a small number of parts, and thereby satisfies the demand that it does not become an obstacle to maintenance of highly important components during maintenance.

  As described above, according to the ATM 1C according to the fourth embodiment, the twist preventing mechanism 150C is provided, so that the twisted cord 141a is clogged at the winding opening 143a as in the ATM 1 according to the first embodiment. It is possible to prevent the cord from entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, it is possible to prevent the cord 141a from being twisted and being caught by the winding opening 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

[Embodiment 5]
Hereinafter, with reference to FIG. 7, the structure of the twist prevention mechanism (hereinafter referred to as “twist prevention mechanism 150D”) of the automatic transaction apparatus (hereinafter referred to as “ATM1D”) according to the fifth embodiment will be described. FIG. 7 is a diagram illustrating a configuration of a twist preventing mechanism of the automatic transaction apparatus according to the fifth embodiment.

  As shown in FIG. 7, in the ATM 1D according to the fifth embodiment, the twist preventing mechanism 150D has the following configuration. That is, the twist preventing mechanism 150D is formed by protruding the connector 135 of the handset 130. Moreover, the handset mounting part 120 is provided with the recessed part 122 which accommodates the connector 135 of the handset 130 with the cord 141a inside. A cord port 123 is formed on the bottom surface of the recess 122 of the handset mounting portion 120. Furthermore, the cord winding unit 140 is disposed such that the winding port 143a faces the cord port 123.

  In the example illustrated in FIG. 7, the cord winding unit 140 is disposed so that the winding port 143 a is located at a distance L4 from the cord port 123. The winding opening 143a is preferably a straight line L2 connecting the connector 135 (strictly, the center of the base portion of the cord 141 drawn out from the connector 135) and the cord opening 123 (strictly, the center). It is good to be placed on top.

  The ATM 1D has the following advantages as compared with, for example, the telephone set described in Patent Document 2.

For example, in the telephone described in Patent Document 2, the cord is pulled out of the telephone in a state where the handset is attached to the telephone. For this reason, the telephone described in Patent Document 2 is bent in the cord. Such telephone described in Patent Document 2, thought that directed towards the code in the direction of the cord winding unit, and, between the cord outlet and winding Tokuchi, deflection code This makes it difficult to prevent twisting of the cord entering the winding port. Therefore, the telephone set described in Patent Document 2 may damage the cord.

  On the other hand, in the ATM 1D according to the fifth embodiment, the concave portion 122 of the handset mounting portion 120 houses the connector 135 of the handset 130 together with the cord 141a, so that the cord 141a is directed toward the cord winding portion 140. The cord port 123 and the winding port 143a are made to face each other by making the cord port 123 and the winding port 143a face each other. Restricted. Thereby, this ATM1D prevents the twist by the plastic deformation of the code | cord | chord 141a which approachs the winding port 143a. “Α1” is a bending angle of the cord 141a in the first main plane 146a direction with respect to the winding opening 143a (that is, an angle formed by the left end portion of the cord opening 123 with respect to the center of the winding opening 143a and the center of the cord opening 123). ) Represents the limit value. “Α2” is a deflection angle of the cord 141a in the second main plane 146b direction with respect to the winding opening 143a (that is, an angle formed by the right end portion of the cord opening 123 and the center of the cord opening 123 with respect to the center of the winding opening 143a). ) Represents the limit value.

  Therefore, the ATM 1D can prevent the twisted cord 141a from being jammed at the winding port 143a or entering the inside of the cord winding unit 140 beyond the winding port 143a. As a result, the ATM 1D can prevent the cord 141a from being twisted and caught in the winding port 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  In addition, the twist preventing mechanism 150D has a simple configuration with a small number of parts, and thereby satisfies the demand that it does not become an obstacle to maintenance of highly important components during maintenance.

  As described above, according to the ATM 1D according to the fifth embodiment, the twisted cord 141a is blocked by the winding port 143a or enters the inside of the cord winding unit 140 beyond the winding port 143a. Can be prevented. As a result, it is possible to prevent the cord 141a from being twisted and being caught by the winding opening 143a, thereby preventing the cord 141a from being damaged (elongated or disconnected).

  The present invention is not limited to the above-described embodiment, and various changes and modifications can be made without departing from the gist of the present invention.

  For example, ATM1C which concerns on 4th Embodiment can be deform | transformed like the 1st modification and 2nd modification which are demonstrated below. Here, the ATM according to the first modification is referred to as “ATM1Ca”, and the ATM1C according to the second modification is referred to as “ATM1Cb”.

(First modification)
Hereinafter, with reference to FIG. 8A, it demonstrates per structure of ATM1Ca which concerns on a 1st modification. FIG. 8A is a diagram illustrating a configuration of an automatic transaction apparatus according to a first modification.

  As shown in FIG. 8A, the ATM 1Ca according to the first modified example has a twist preventing mechanism 150C, similarly to the ATM 1C according to the fourth embodiment. In the ATM 1Ca, the cord winding unit 140 is arranged so that the winding port 143a faces the cord port 123. The twist preventing mechanism 150 </ b> C is disposed between the winding port 143 a and the cord port 123.

According to such ATM1Ca, the same effect as ATM1C according to the fourth embodiment can be obtained.
In addition, according to ATM1Ca, the twist preventing mechanism 150C is disposed between the winding port 143a and the cord port 123, so that the cord winding unit 140 is connected to the first sub-plane 147a and the second sub-plane of the cord 141a. It can be inclined and arranged along a plane (not shown) parallel to 147b. Therefore, according to ATM1Ca, the cord winding unit 140 can be efficiently arranged so that the cord winding unit 140 does not interfere with surrounding units.

(Second modification)
Hereinafter, with reference to FIG. 8B, it demonstrates per structure of ATM1Cb which concerns on a 2nd modification. FIG. 8B is a diagram illustrating a configuration of an automatic transaction apparatus according to a second modification.

  As illustrated in FIG. 8B, the ATM 1Cb according to the second modification has a twist preventing mechanism 150C, similarly to the ATM 1C according to the fourth embodiment. Furthermore, ATM1Cb has the direction change mechanism 160. FIG.

  The direction changing mechanism 160 is a mechanism for changing the inclination direction of the cord 141a so as to twist the cord 141a. The direction changing mechanism 160 is disposed between the cord port 123 and the twist preventing mechanism 150C.

Incidentally, the code winding 140, to match the inclination direction of the converted code 141a by the direction converting mechanism 160, it is disposed inclined. In the example illustrated in FIG. 8B, the cord winding unit 140 is disposed horizontally.

  Further, the twist preventing mechanism 150C is disposed to be inclined so as to coincide with the inclination direction of the winding opening 143a of the cord winding unit 140 disposed to be inclined. In the example illustrated in FIG. 8B, the twist preventing mechanism 150 </ b> C is disposed horizontally in accordance with the horizontally wound cord winding unit 140.

According to such ATM1Cb, the same effect as ATM1C which concerns on Embodiment 4 can be acquired.
Moreover, according to ATM1Cb, since the direction changing mechanism 160 is disposed between the cord port 123 and the twist preventing mechanism 150C, the cord winding portion 140 can be disposed to be inclined in the lateral direction. Therefore, according to ATM1Cb, the cord winding unit 140 can be arranged more efficiently than the ATM 1Ca according to the first modification so that the cord winding unit 140 does not interfere with surrounding units.

1,1A, 1Aa, 1B, 1C, 1Ca, 1Cb, 1D Automatic transaction equipment (ATM)
2 Front panel (top cover)
3 Case (main body)
4A Front door (lower cover)
4B Rear door 5 Customer operation part 6 Card insertion outlet 7 Passbook insertion outlet 8 Slip insertion outlet 9 Ecology authentication part (finger vein authentication part)
10 Banknote insertion / discharge port 11 Coin insertion / discharge port 120 Handset mounting part 121 Recessed part (speaker storage part)
122 recess (connector housing)
123 Opening (code opening)
124 Sealing member (sponge)
124a Cutting unit 130 Handset 131 Holding unit 132 Microphone 133 Speaker 135 Cord connection unit (connector)
135a, 135b Rotating portion 140 Cord winding portion 141 (141a, 141b) Cord 142a, 142b Modular plug 143a Opening portion (winding port)
143b Opening 146 (146a, 146b) Main plane (wide surface)
147 (147a, 147b) Sub-plane (narrow surface)
150, 150A, 150Aa, 150B, 150C Twist prevention mechanism 151a, 151b Guide member 152a, 152b Twist prevention shaft (contact member)
154a, 154b Twisting prevention roller (contact member)
155 Guided shaft 155a Shaft 155b Side guide (step)
156a, 156b Shaft prevention shaft (contact member)
160 Direction changing mechanism 161 (161a, 161b) Direction changing member (shaft)
651 Guide shaft (guide member)
652 Guide roller (guide member)
L1, L2 straight line

Claims (8)

In an automatic transaction apparatus having a handset,
A mounting portion on which the handset is detachably mounted;
Sectional shape perpendicular to the longitudinal direction has a shape having a narrow portion of the wide portion and the width of the width, and a code which is connected to the handset,
Provided in the mounting portion, and a code port before Kiko over de is withdrawn from the interior of the housing of the automatic transaction apparatus to the outside of the housing,
A code winding portion to draw toward the logger over de before from the code port was drawn out of the housing in the interior of the housing,
The code provided on the winding unit, the winding Tokuchi previous Kiko over de is Ru are out,
By contacting the plurality of surfaces of or the code contact at a plurality of locations on one surface of the provided pre Kiko over de between the winding Tokuchi said code port, enters the winding Tokuchi have a twist and prevention mechanism to prevent before twisting of Kiko over de to,
The straight line connecting the cord opening and the twist preventing mechanism and the straight line connecting the twist preventing mechanism and the winding opening of the cord winding portion are not on the same straight line,
The portion of the cord that extends from the cord opening to the twist prevention mechanism is in a straight line, and the portion from the twist prevention mechanism to the winding opening is in a straight line, and the direction is changed by the twist prevention mechanism. An automatic transaction apparatus characterized by the above. The automatic transaction apparatus according to claim 1,
The twist preventing mechanism are each provided with a curved surface which is curved in a circular arc shape, and the first guide is disposed so as to face each other of the curved surface through the front logger over de member and the second It is composed of a guide member,
The first guide member and said second guide member is disposed at a position where each of the curved surface deviates from a straight line passing through said winding Tokuchi said code port, and, before Kiko over de is the The automatic transaction apparatus, wherein the curved surfaces are spaced apart to the extent that they are loosely inserted along an arc of the curved surface on the side close to a straight line. The automatic transaction apparatus according to claim 1,
The cord has a first wide surface and a second wide surface as the wide portions facing each other on the surface, and the width that is opposed to each other and narrower than the first wide surface and the second wide surface. A first narrow surface and a second narrow surface as a narrow portion of
Furthermore, prior to contact with Kiko over de, pre Kiko over de has a guide member to induce by bending toward the winding Tokuchi from said code port,
The twist prevention mechanism is configured by one or a plurality of contact members arranged at one or both of the position on the winding port side and the position on the cord port side with respect to the guide member,
Said contact member with respect to a straight line connecting said code port and said winding Tokuchi, the wide surface of the front near the straight line Kiko over de side as the first broad surface, the straight line of the front Kiko over de when the wide surface of the second wide surface of the side and away from, together with the guide member is disposed at a position deviated from the straight line, and, together with the guide member, the first pre-Kiko over de An automatic transaction apparatus characterized by being in contact with a wide surface. The automatic transaction apparatus according to claim 1,
The cord has a first wide surface and a second wide surface as the wide portions facing each other on the surface, and the width that is opposed to each other and narrower than the first wide surface and the second wide surface. A first narrow surface and a second narrow surface as a narrow portion of
The torsion prevention mechanism is constituted by a guided contact member with a guide in contact with the first narrow face and the second narrow face of the front Kiko over de on both sides,
The contact member, the front automatic transaction apparatus characterized by a contact portion between Kiko over de is disposed at a position deviated from the straight line connecting the said winding Tokuchi said code port. The automatic transaction apparatus according to claim 1,
The cord has a first wide surface and a second wide surface as the wide portions facing each other on the surface, and the width that is opposed to each other and narrower than the first wide surface and the second wide surface. A first narrow surface and a second narrow surface as a narrow portion of
The twisting prevention mechanism, before Kiko over de the second wide surface in contact with the first wide surface in contact with the second wide surface of the first wide surface of the contact member and the front Kiko over de of Contact member, and
Contact member and the second wide surface of the contact member of the first wide side, respectively, at a position where the contact portion of the front Kiko over de deviates from a straight line passing through said winding Tokuchi said code port An automatic transaction apparatus characterized by being arranged. In the automatic transaction device according to any one of claims 3 to 5,
The contact member is an automatic teller machine, wherein the outer peripheral surface is formed by a shaft which is in contact with the front Kiko over de. In the automatic transaction device according to any one of claims 3 to 5,
The contact member is an automatic teller machine, wherein the outer peripheral surface is formed by a roller which contacts the front Kiko over de. In the automatic transaction device according to any one of claims 1 to 7,
Before the twisting prevention mechanism induced by bending the logger over de front toward the winding Tokuchi from said code port, and which is stretched towards the cord outlet of the torsion prevention mechanism from said code port If the direction of the logger over de a first direction, the direction of the front Kiko over de from code entrance of the twist prevention mechanism is stretched toward the take-Tokuchi a second direction, the first An automatic transaction apparatus, wherein an angle between a direction and the second direction is an obtuse angle.

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