JP2000289884A - Bankbook/slip printer - Google Patents

Abstract

PROBLEM TO BE SOLVED: To facilitate printing position conforming by providing a carry control means sucking a second medium up to the vicinity of a confluent part when the second medium is precedingly inserted at taking in the first and second medium in order to a processing part, in a device having a common carrying passage beyond the confluent part of the first and the second medium carrying passages. SOLUTION: At conforming printing position in a bankbook/slip printer 1 in which a blade for leading a bankbook or a slip to a common carrying passage 11 is provided on the confluent part 12 of a bank book carrying passage 3 and a slip carrying passage 10, a control part 26 at first indicates positive rotation of a slip LF motor, begins suction of the slip, and when a slip insert detecting sensor is made ON, drives the slip LF motor by a fixed quantity. When a count value becomes N times in the control part 26, the slip LF motor is stopped when a stabling time is completed after stopping. Next, when the control part 26 transmits indication of suction, a blade magnet is excited to construct the connecting route to the common carrying passage 11, and the slip LF motor is driven to further suck the slip.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a passbook voucher printer that processes a medium such as a passbook or a voucher at an arbitrary position.

[0002]

2. Description of the Related Art A passbook slip printer for processing (for example, printing) a passbook or slip used in a financial institution is formed by a medium transport mechanism as shown in FIG. In the drawing, reference numeral 2 denotes a first medium to be printed (hereinafter referred to as a passbook), and a staff manually places a side of the passbook 2 on a medium insertion guide 3a and on a passbook insertion stage 3b. Inserted. When the inserted passbook 2 is detected by the passbook insertion detection sensor SE1, the pressure roller 4 operates to pinch and press against the feed roller 5 provided opposite thereto. When the feed roller 5 is rotated while maintaining the sandwiched state, the passbook 2 is conveyed to the inside while being regulated by the lower guide 3d and the upper guide 3e on the front and back sides and one side position. The passbook transport path 3 is formed by the medium insertion guide 3a, the passbook insertion stage 3b, the lower guide 3d, the upper guide 3e, and the like.

Some passbook slip printers have been proposed in which a slip insertion stage 7 is provided above the passbook insertion stage 3b on the passbook 2 side so that a second medium (hereinafter referred to as a slip) 6 can be inserted. In addition, miniaturization of a passbook slip printer as a counter terminal of a financial institution is being attempted. The slip 6 to be inserted in the upper stage is also a pressure roller 8 like the lower stage.
Operates and is pinched by the feed roller 9 provided opposite thereto,
Can be pressed. When the feed roller 9 is rotated while maintaining this state, the slip 6 is conveyed inside while the front and back sides and one side position are regulated.

When printing is performed at a desired print position in the passbook 2, for example, a print position 2a shown in the drawing, the print position alignment mark 3c provided on the medium insertion guide 3a side and the position mark 2b provided on the passbook 2 are visually matched. . Next, by operating the pressure roller 4 and nipping the passbook 2 with the feed roller 5 and transporting the passbook 2 by a predetermined amount, printing processing can be performed at the printing position. The operation of aligning the print position alignment mark 3c with the print position of the passbook 2 is referred to as "manual operation".

In recent years, in particular, it has been desired to reduce the size of a medium without changing the amount of print information or to expand the printable range with an increase in the amount of information because of problems such as resource saving. Therefore,
As a result, the margin from the end of the medium to the printable area tends to decrease. For example, in some cases, only margins of L1 = 10 to 15 mm from the upper and lower ends (sides) of the medium are allowed.

[0006]

Such a passbook slip printer has the following problems. In the case where the passbook 2 is clamped by operating the pressure roller 4 on the inserted medium (passbook) 2, the distance (G) from the center of the feed roller 5 to the tip of the passbook 2 is at least 2 mm as shown in FIG. It is desirable to secure the above. If the overlap amount is small, a slip or the like occurs when the feed roller 5 is rotated in the direction of arrow A, so that the suction becomes impossible. Also, as described above, for example, 1
In order to print at a position of 2 mm (dimension L1), it is necessary to set the print alignment mark 3c at that position. In other words, 10 mm from the center of the feed roller 5
The print position alignment mark 3c is provided at the position of mm. Also,
Since the upper guide 3e is formed so as not to touch the mechanism such as the feed roller 5 and the tip end surface of the upper guide 3e is formed with a slope in order to improve the operability at the time of insertion, the print position alignment mark 3c can be seen. There was a problem that it was difficult.

In the passbook slip printer, the slip 6 is inserted in the upper stage. The rear end of the slip 6 hangs down from the slip insertion stage 7 due to the vertical length of the slip 6, and the print position alignment mark 3
c will be hidden. In this case, the problem can be solved by setting the passbook 2 first, but it is not satisfactory when the passbook 2 needs to be printed a plurality of times or when the discharged passbook 2 is set again. .

[0008]

Means for Solving the Problems In the first embodiment,
A first medium transport path that takes in the first medium to be inserted and transports it to the processing unit; and a second medium transport path that is provided on the upper stage side of the first medium transport path and takes in and transports the second medium that is inserted. In a passbook slip printer having a medium conveyance path, a junction of the first medium conveyance path and the second medium conveyance path, and having a common conveyance path at the end of the junction, the first medium and the second medium are sequentially arranged. When the second medium is inserted first when taking in the processing unit, a conveyance control unit that sucks the second medium up to near the junction is provided.

In the second embodiment, a first medium transport path for taking in a first medium to be inserted and transporting it to a processing section, and a second medium transport path provided on an upper side of the first medium transport path, In a passbook slip printer having a second medium transport path for taking in and transporting a medium, a medium insertion detecting means provided in the second medium transport path and one of the second media inserted in the second medium transport path. A medium insertion guide for guiding the side, and a medium width shifting means for pulling the second medium to the medium insertion guide by sandwiching the second medium inserted in the second medium conveyance path; When the detection means detects the second medium, the medium width adjustment means is controlled to stand by while holding the second medium, and the medium width adjustment means is further turned on by a signal instructing to take in the first medium. Control means for controlling and drawing to the medium insertion guide is provided.

In the third embodiment, a first medium transport path for taking in a first medium to be inserted and transporting it to a processing section, and a second medium provided on an upper side of the first medium transport path, In a passbook slip printer having a second medium transport path for taking in and transporting a medium, a medium insertion detecting means provided in the second medium transport path and one of the second media inserted in the second medium transport path. A medium insertion guide that guides the side, a medium width adjustment unit that draws the second medium inserted into the second medium conveyance path to the second medium, and a medium width adjustment unit; A high-friction portion is arranged on the outer periphery of the medium, the high-friction portion protrudes into the second medium transport path, and a width-adjusting roller capable of coming in contact with and separating from the inserted second medium; A one-way rotating clutch is interposed between the drive motor shaft to be .

In a fourth embodiment, a medium transport path for taking in a processing medium and transporting it to a processing section, a medium insertion guide for regulating the position of one side of the medium inserted into the medium transport path, In a passbook slip printer in which a medium insertion stage for regulating the back surface position of a medium inserted into a path and a medium insertion guide provided with a processing alignment mark for processing at an arbitrary position on the medium, at least the processing alignment mark is provided. It is arranged at two places, and means for validating one of them is provided.

[0012]

DESCRIPTION OF THE PREFERRED EMBODIMENTS A first embodiment of the present invention will be described. FIG. 1 is a schematic side view showing a main configuration of a passbook slip printer of the present invention, and FIG. 2 is a schematic side view showing a passbook slip printer. FIG. 3 is a control block diagram of the passbook slip printer.

Reference numeral 1 denotes a passbook slip printer, which has a configuration in which a passbook 2 as a first medium can be inserted from the lower side and a slip 6 as a second medium can be inserted from the upper side. Reference numeral 4 denotes a pressure roller, which is a first medium transport path (hereinafter referred to as a passbook transport path) 3 through holes provided in the lower guide 3d and the upper guide 3e together with the feed roller 5 disposed opposite thereto.
The bankbook 2 can be pinched and pressed. Reference numeral 8 denotes a pressure roller, which is configured to be able to protrude into a second medium transport path (hereinafter referred to as a slip transport path) 10 together with a feed roller 9 disposed opposite thereto, and is inserted along the slip insertion stage 7. The slip 6 can be pinched and pressed.

The slip transport path 10 provided at the upper stage of the passbook transport path 3 merges internally. The merging portion 12 is rotated around a shaft 13 a by a driving source (not shown) to pass the conveyed passbook 2 or slip 6 to the common conveyance path 11.
There is a blade 13 for guiding to In this embodiment, as shown in the drawing, the passbook transport path 3 is in the non-operation state.
And the common transport path 11 are connected, and are substantially on a straight line.

Reference numeral 14 denotes a passbook insertion port which is a start end of the passbook transport path 3, from which a staff manually inserts the passbook 2 to be processed. A processing alignment mark (hereinafter referred to as a print alignment mark) 3c is provided at a position visible from the passbook insertion slot 14 side. In the present embodiment, a triangular mark is provided on the medium insertion guide 3a. Is colored and displayed. Note that the position mark 2b is also printed on the passbook 2 side, and the position mark 2b to be printed in this processing operation is manually aligned with the print position alignment mark 3c.

Reference numeral 15 denotes a magnetic stripe read / write unit for processing recorded information of a magnetic stripe provided in the inserted passbook 2, and is constituted by a magnetic head 15a and the like. 1
Reference numeral 6 denotes a page / line reading sensor (PS sensor) for reading page mark information provided in the passbook 2.

Reference numeral 17 denotes a print head for printing on the passbook 2 or the slip 6 conveyed to the printing position by the rotation of the feed roller 5. Reference numeral 18 denotes a platen arranged to face the print head 17. Reference numeral 19 denotes a page break portion for turning a page when there are no more printable lines on the print page of the passbook 2.

Reference numeral 20 denotes a passbook LF motor (LF: line feed), which is a power source for rotating the feed roller 5 described above. The feed roller 5 is a feed shaft 5
Since the concentricity and the outer diameter are fixed and strictly manufactured and controlled, and the rotation amount of the passbook LF motor 20 is controlled, the conveyance amount of the nipped passbook 2 can be managed.

Reference numeral 21 denotes a slip LF motor, which is a power source for rotating the feed roller 9 described above. The feed roller 9 is fixed to a feed shaft 9a, and its concentricity and outer diameter are strictly manufactured and controlled.
By controlling the rotation amount, the transport amount of the held slip 6 can be managed. Note that the passbook LF motor 20 and the slip LF motor 21 are stepping drive motors (stepping motors), and the drive source for medium conveyance in the common conveyance path 11 is also used by the passbook LF motor 20.

Reference numeral 22 denotes a passbook clamp magnet for rotating the pressure shaft 4c rotatably supported by a frame (not shown) by a predetermined angle. The pressure shaft 4c is provided with a roller arm 4a holding the pressure roller 4 at its tip, and the pressure roller 4 is rotatably supported by the roller arm 4a by a shaft 4b.

When the passbook clamp magnet 22 is excited, the roller arm 4a rotates by a predetermined angle.
Due to this rotation, the pressure roller 4 at the tip of the roller arm 4a approaches the feed roller 5, and finally the roller arm 4a is bent to be in a pressure contact state with the feed roller 5.

Although the pressing force is generated by the deflection of the roller arm 4a, when the excitation of the passbook clamp magnet 22 is stopped, the pressure roller 4 separates from the feed roller 5 by the tension of a spring (not shown) and is moved from the upper guide 3e. Return to the top.

Reference numeral 23 denotes a slip clamp magnet which sandwiches the slip 2 between the feed roller 9 and the pressure roller 8 disposed opposite to the feed roller 9. Since the details are the same as those on the passbook side, the description is omitted. In the first embodiment, a detailed description of the magnetic stripe read / write unit 15, the page line read sensor 16, the print mechanism including the print head 17, the platen 18, and the like, and the page break unit 19 are also omitted.

Reference numeral SE1 denotes a passbook insertion detection sensor, which is an optical detector in which a light emitting diode and a light receiving transistor are arranged to face each other, and transmits the optical axis in a direction orthogonal to the passbook transport path 3. ON / OF utilizing the output fluctuation of the light receiving transistor caused by the interruption of the optical axis by the passbook 2.
An F signal can be obtained. Reference numeral SE2 denotes a slip insertion detection sensor, which is an optical detector for detecting insertion of the slip 6 as shown in the figure, and transmits the optical axis in a direction orthogonal to the slip transport path 10. ON / OF using the output fluctuation of the light receiving transistor caused by the slip 6 blocking the optical axis.
An F signal can be obtained.

Reference numeral 24 denotes a driver circuit, which is a drive circuit for the motors 20 and 21 and the magnets 22 and 23 described above. Reference numeral 25 denotes an amplifier circuit, such as a passbook insertion detection sensor SE1 or a slip insertion detection sensor SE2, which is controlled by the control unit 26 detecting each signal.
6 is programmed to transmit a driving instruction to the driver circuit 24. A storage unit 27 includes a ROM or a CD-ROM in which various operation control programs are stored, and a RAM in which operation information is temporarily stored.

Reference numeral 28 denotes a set button, which is disposed on the surface of the passbook slip printer 1. The passbook 2 is inserted, and after a manual operation, a staff member presses the "set completed" button.
A signal is emitted. Upon receiving this signal, the control unit 26 controls the driver circuit 24 to control the passbook clamp magnet 22.
Is to be excited.

Reference numeral 29 denotes a keyboard, which comprises various key switches for inputting transaction processing. Reference numeral 30 denotes a display unit configured by an LCD, a CRT, or the like.
A transaction screen, an input guidance screen, and the like can be displayed. In addition to the above-described units, a power supply unit and an interface unit that is a connection port to a higher-level device are provided, but are omitted.

<Medium Adjustment Operation 1> The operation at the time of adjustment in the passbook slip printer of the present invention will be described with reference to the operation flowchart shown in FIG. S indicates an operation step. When the clerk inputs an instruction of “manual print processing” from the keyboard unit 29, the control unit 26 activates the set button 28. Subsequently, when the passbook 2 is inserted from the passbook insertion port 14 along the medium insertion guide 3a, the passbook insertion detection sensor SE
1 detects this. When the slip 6 is inserted, the slip insertion detection sensor SE2 detects this (S
1). First, a case where the slip 6 is inserted will be described.

When the control unit 26 obtains the detection signal of the slip insertion detection sensor SE2, it excites the slip clamp magnet 23 and operates the pressure roller 8 to hold the slip 6 (S2). Even after this operation, the slip insertion detection sensor S
If E2 is maintained in the ON state (S3), the excitation of the passbook clamp magnet 22 is invalidated to enter the clamp standby state (S4). Also, the slip insertion detection sensor SE2 is
If it is in the FF state, the excitation of the slip clamp magnet 23 is stopped, the pressure roller 8 is released, and the process returns to step S1 (S5).

The control section 26 reversely rotates the slip LF motor 21 according to the control program stored in the storage section 27 (S6). Due to the reverse rotation of the feed roller 9, the slip 6 moves in the discharge direction, and the slip insertion detection sensor SE2 will be turned off soon (S7). After the slip insertion detection sensor SE2 is turned off, the reverse rotation of the slip LF motor 21 is stopped by a predetermined pulse (X1 pulse) (S
8). The slip 6 at this position is sandwiched between the pressure roller 8 and the feed roller 9 and the slip insertion detection sensor S
E2 is in the OFF state.

The control unit 26 instructs the slip LF motor 21 to rotate forward and starts sucking the slip 6 (S9). When the suction of about X1 pulse is performed, the slip insertion detection sensor SE
2 is turned on (S10). Slip insertion detection sensor SE2
Is ON, the control unit 26 controls the slip LF motor 21 to drive a predetermined amount of pulses (X2 pulses). The driving of the constant amount pulse is performed at a relatively low speed in consideration of the number of acceleration steps and the number of deceleration steps (S11). When the driving of the fixed number of pulses is completed, "1" is added to the count value in the control unit 26, and a waiting time of about Y seconds is provided as a stable time after the stop (S12). Control unit 2
Step S8, S9 if the count value is N or less.
Is repeated (S13).

In step S13, the count value becomes N
When the rotation is completed, when the stable time after the stop is over, the next slip LF motor 21 is stopped without rotating (S1).
4). By the operations in steps S11 to S13, the slip 6 is inhaled by the specified amount (X2 pulses × N times) after the slip insertion detection sensor SE2 is turned on. Since the inhalation amount can be accurately managed, if the size (L2 dimension shown in FIG. 1) from the position of the slip insertion detection sensor SE2 to the vicinity of the blade 13 is set in advance, the slip 6 always reaches the same position. Will be inhaled.

When the control unit 26 issues a suction instruction, the blade magnet (not shown) is excited to cause the common conveyance path 11 to be excited.
Is established, and the slip LF motor 21 is driven to further inhale the slip 6 (S15). This suction is a transport amount that allows acceleration of a predetermined number of acceleration steps toward the processing position (printing position or the like), and as a result, the transport is performed at a high speed. By the above operation, the rear end of the slip 6 is pulled up to the slip stage 7.

The case where the passbook insertion detection sensor SE1 detects the passbook 2 in step S1 will be described. It is impossible to insert the passbook 2 and the slip 6 at the same time, and it is practically impossible. Therefore, in this case, in any case, the slip 6 is determined to be “not inserted”.

The control unit 26 includes the passbook clamp magnet 22
Is disabled and the clamp standby state is maintained (S1).
6). When the setting of the passbook 2 is completed and the set button 28 is pressed down (S17), the control section 26 receives this signal, excites the passbook clamp magnet 22, and clamps the passbook 2 (S18). When the control unit 26 issues an inhalation instruction, the passbook LF motor 20 is driven to rotate and the passbook 2 is inhaled by a predetermined amount (S19). The print position 2a adjusted by this suction is conveyed to the platen 18 and the print processing is performed by the print head 17.

The slip 6 is inserted and the slip insertion detection sensor SE
If 2 is ON (S20), the slip clamp magnet 23 is excited to hold the slip 6 (S21). When the control unit 26 sends an inhalation instruction, the blade 13 and the slip LF motor 21 are driven to rotate to start inhaling the slip 6. When the passbook 2 is inhaled in advance, it goes without saying that the process is performed after the processing of the passbook 2 is completed.

If the set button 28 is not pressed for a predetermined time in step S17, a timeout occurs. For example, when the set button 28 is not depressed within 10 seconds after the passbook insertion detection sensor SE1 is turned ON, the display unit 30 is used to notify the attendant of whether to continue processing or cancel the processing.

As described above, when the slip 6 is inserted, the slip 6 is transported in the slip transport path 10 until the leading end of the slip 6 reaches the vicinity of the junction 12. Since the slip 6 is further raised, the printing position alignment mark 3c is not hidden even for the chit 6 having a relatively long vertical length, and the manual alignment becomes easy. Further, this slip conveyance is executed prior to the suction command for the printing process, but since it is intermittent conveyance at a fixed amount of pulses, it is different from a normal suction operation (continuous conveyance), so that it can be easily identified by the staff. As a result, it is difficult for accidental pull-out or the like to occur.

A description will be given of a second embodiment of the present invention.
FIG. 5 is a perspective view showing a configuration of a main part of the passbook slip printer, and FIG. 6 shows a concept of width adjustment provided in a slip transport path viewed from the direction of arrow BB in FIG. FIG. 7 is a control block diagram thereof. The same parts as those in the first embodiment, including the passbook slip printer, are denoted by the same reference numerals, and description thereof will be omitted, and only different parts will be described.

SE2 is the slip insertion detection sensor described above, and SE3 is a width shift detection sensor provided immediately near the slip insertion guide 7a. These sensors SE2, SE
Numeral 3 denotes an optical detector having a light emitting diode and a light receiving transistor arranged opposite to each other, and has an optical axis transmitted in a direction orthogonal to the slip transport path 10. As shown in the figure, the optical axis is provided with a small-diameter hole 33d provided in the upper guide 7a and the lower guide 7b.
The ON / OFF signal can be obtained by utilizing the output fluctuation of the light receiving transistor that has passed through the optical path 33e and is interrupted by the slip 6 by the optical axis.

Reference numeral 34 denotes a width shifting motor, and a width shifting roller 35 is fixed to one end of the rotation shaft. The width-adjusting roller 35 has a projection 35a formed of a high-friction member on a part of the outer peripheral portion. When the width-adjusting roller 35 rotates, the projection 35a projects into the slip transport path 10. This type of roller formed of a friction member is known (for example, Japanese Patent Publication No. 3-78277), and thus description thereof will be omitted. When it comes into contact with the insertion guide 7a, it is corrected and one side can be in close contact.

Reference numeral 36 denotes an idle roller which is rotatably supported by a support shaft (not shown) so that a part of the outer peripheral portion protrudes from the lower guide 7d when the width adjusting roller magnet 37 is excited. It faces the shifting roller 35. The idle roller 36 is urged upward at the time when the width adjusting roller magnet 37 is excited, but can be freely pushed down in the direction of arrow C.
These width shifting rollers 35 and idle rollers 36 are provided with escape holes 38d provided in the upper guide 7e and the lower guide 7d, respectively.
38e to project into the slip transport path 10.

Numeral 39 denotes a disk plate fixed to the rotating shaft of the width adjusting motor 34, and a part thereof has a light transmitting hole 39a.
have. The position corresponding to the light transmitting hole 39a is located at the position of the width-adjusting home position detection sensor (hereinafter referred to as the width-adjustment HP
SE4) is provided, and the light transmitting hole 39 is provided.
When the optical axis passes through a, an ON signal can be obtained. The control unit 26 manages the stop position and the rotation amount (number) of the width adjustment motor 34 based on the signal from the width adjustment HP detection sensor SE4. At the origin position, the protrusion 35a is a position that does not protrude into the slip transport path 10.

A guideline 7b is provided on the slip insertion stage 7 formed integrally with the lower guide 7d. The guide line 7b is formed of a long groove that is visible and that gives a tactile sensation when touched.

Guideline 7b and slip insertion detection sensor S
As shown in FIG. 6, the positional relationship between E2 and the width-adjusting roller 35 is determined from the direction closer to the slip insertion guide 7a.
b, slip insertion detection sensor SE2 and width adjustment roller 35
The order is as follows. Needless to say, the width adjusting rollers 35 are provided in consideration of the minimum width of the slip 6.

<Medium Adjustment Operation 2> The operation of the passbook slip printer according to the second embodiment of the present invention at the time of adjustment will be described with reference to an operation flowchart shown in FIG. In addition,
S indicates an operation step.

When the clerk inputs an instruction of “manual print processing” from the keyboard 29, the controller 26 activates the set button 28. Subsequently, when the passbook 2 is inserted from the passbook insertion port 14 along the medium insertion guide 3a, the passbook insertion detection sensor SE1 detects this. When the slip 6 is inserted, the slip insertion detection sensor SE2 detects this (S31). First, a case where the slip 6 is inserted will be described.

The attendant holds the slip 6 and inserts it from the slip insertion stage 7 toward the slip transport path 10. At this time, the clerk knows that the passbook 2 will be manually inserted (operated) as the next procedure. Therefore, the clerk inserts the passbook 2 at a predetermined distance from the slip insertion guide 7a according to a procedure that is understood in advance as the handling procedure. . Since the abutting wall surface at the time of insertion cannot be used for this insertion operation, the insertion is performed according to the guideline 7b.
May be hidden, and may be inserted obliquely. As shown in FIG. 6, the insertion at the position where the guide line 7b is hidden naturally turns on the slip insertion detection sensor SE2.
Will do.

When the control section 26 obtains the detection (ON) signal of the slip insertion detection sensor SE2, the slip clamp magnet 2
3, the pressure roller 8 is operated to clamp the slip 6 (S32). Even after this operation, if the slip insertion detection sensor SE2 maintains the ON state (S3
3), the excitation of the passbook clamp magnet 22 is invalidated to enter a clamp standby state (S34). If the slip insertion detection sensor SE2 is in the OFF state, the excitation of the slip clamp magnet 23 is stopped, the pressure roller 8 is released, and the process returns to step S31 (S35).

Next, the person in charge holds the passbook 2 and the print position alignment mark 3c and the position mark 2 corresponding to the desired print position.
b is visually matched (S36). At the time of this manual operation, for example, even if the trailing end of the slip 6 hangs down from the slip insertion stage 7, the print position alignment mark 3 c is not difficult to see because it is away from the medium insertion guide 3 a.

When the adjustment of the passbook 2 is completed and the set button 28 is pressed (S37), the control section 26 receives this signal and excites the passbook clamp magnet 22 to hold the passbook 2 (S38). When the control unit 26 sends an inhalation instruction,
The passbook LF motor 20 is driven to rotate and the passbook 2 is inhaled by a predetermined amount (S39). The passbook 2 adjusted by this suction is conveyed to the platen 18 and the print head 1
7, the printing process is performed.

Returning to the slip processing, the control unit 26 excites the width adjusting roller magnet 37. The idle roller 36 is moved up by the width adjusting roller magnet 37, and the outer peripheral portion protrudes from the lower guide 7d of the slip conveyance path 10 (S40). After a predetermined time has elapsed after the excitation of the width adjusting roller magnet 37 in step S40, the excitation of the slip clamp magnet 23 is stopped (S41).

When the ON / OFF of the width detection sensor SE3 is confirmed, the slip 6 is inserted into the slip insertion guide 7 as described above.
Since it is inserted away from “a”, “OFF” detection should be performed (S42). The control unit 26 controls the width adjustment motor 3
When a rotation command is instructed to 4, the width adjusting roller 35 rotates in the direction of arrow D shown in FIG. 6 (S43). When this rotation is performed, it is turned ON / O every one rotation from the width shift HP sensor SE4.
The FF signal is transmitted, and the control unit 26 counts this number (S44). When the width adjusting roller 35 rotates, the protrusion 35a moves toward the slip conveyance path 10 from the upper guide 7e, and the protrusion 35a presses against the surface of the slip 6, and moves the slip 6 toward the slip insertion guide 7a. Move. Therefore, when the width adjusting roller 35 is continuously rotated, the slip 6 is intermittently moved toward the slip insertion guide 7a by the protrusion 35a.

The counting by the control unit 26 is performed. If the ON signal from the width detection sensor SE3 is not obtained even if the number of times exceeds the predetermined number (N), the processing is stopped as a width deviation failure ( S45). Step S4
When the operations of 2, 43 and 44 and the width shift detection sensor SE3 are turned on (including the case where the slip is inserted along the slip insertion guide 7a), the width shift motor 34 is finally rotated by one rotation. A command is transmitted to stop at the initial position (S46).

When it is confirmed from the signal from the width-shifting HP sensor SE4 that the width-shifting motor 34 has stopped at the origin position, the slip clamp magnet 23 is excited to hold the slip 6 (S47), and then the predetermined time is reached. , The excitation of the width adjusting roller magnet 37 is stopped (S4).
8).

When the control section 26 issues an inhalation instruction, the slip LF motor 21 is driven to rotate to inhale the slip 6 by a predetermined amount (S49). The slip 6 drawn to the slip insertion guide 7a is conveyed to the platen 18 by this suction, and the printing process is performed by the print head 17.

The case where the passbook insertion detection sensor SE1 detects the passbook 2 in step S31 will be described. In addition,
It is impossible to insert the passbook 2 and the slip 6 at the same time, and it is practically impossible. Therefore, in this case, the slip 6 is determined to be “not inserted” in any case as described above.

The control unit 26 is provided with the passbook clamp magnet 22
Is disabled and the clamp standby state is maintained (S5).
0). When the setting of the passbook 2 is completed and the set button 28 is pressed (S51), the control unit 26 receives this signal, excites the passbook clamp magnet 22, and clamps the passbook 2 (S52). When the control unit 26 transmits the inhalation instruction, the passbook LF motor 20 is rotated to inhale the passbook 2 by a predetermined amount (S53). The passbook 2 adjusted by this inhalation is conveyed to the platen 18 and the print head 17 performs a printing process.

When the control section 26 obtains the detection (ON) signal of the slip insertion detection sensor SE2 (S54), the slip clamp magnet 23 is excited to operate the pressure roller 8 to hold the slip 6 (S55). After this operation, if the slip insertion detection sensor SE2 keeps the ON state (S56), the process proceeds to step S40. If the slip insertion detection sensor SE2 is in the OFF state, the excitation of the slip clamp magnet 23 is stopped, the pressure roller 8 is released, and the process returns to step S54 (S57).

As described above, since the slip 6 is inserted at a predetermined distance from the slip insertion guide 7a, even if the slip 6 has a long length, the print position alignment mark 3c is not hidden, so that the manual adjustment can be performed. It will be easier. Further, since the slip 6 moves intermittently toward the slip insertion guide 7a, it is different from a normal suction operation (especially an operation when a jam occurs), so that the slip can be easily identified to the attendant and no psychological burden is imposed. .

A third embodiment of the present invention will be described. FIG. 9 is a perspective view showing the main configuration of the passbook slip printer.
0 indicates the concept of width adjustment provided in the slip transport path as viewed from the direction of arrows EE in FIG. The same parts as those in the second embodiment are denoted by the same reference numerals, and description thereof will be omitted, and only different parts will be described. FIG. 7 is referred to for a control block diagram.

Reference numeral 40 denotes a width shifting motor, which coaxially supports a width shifting roller 41. At least the outer peripheral portion of the width shifting roller 41 is formed of a high friction member. A one-way rotating clutch 41a is interposed between the width shifting motor shaft and the width shifting roller 41. This one-way rotating clutch 4
1a, the width shifting motor 40 rotates clockwise (direction of arrow M)
When rotating, the rotational force is transmitted to the width adjusting roller 41,
When rotating to the left (in the direction of arrow H), slippage occurs. The width shifting motor 40 may be a DC motor or the like as long as it can rotate at a low speed, but will be described as a stepping motor.

This width shifting mechanism has a structure as disclosed in, for example, Japanese Utility Model Laid-Open Publication No. Sho 62-86354, in which the width shifting roller 41 is supported to be able to protrude from the slip transport path 10. The description will be made on the assumption that the driving source for performing the projecting operation is the width-adjusting roller magnet 37. Therefore, the function is different from the function described in the second embodiment.

Reference numeral 42 denotes an idle roller, and the support shaft 42
A part of the outer peripheral portion protrudes from the lower guide 7d so as to be freely rotatable by a, and is opposed to the above-mentioned width adjusting roller 41. The idle roller 42 is always urged upward, but can be freely pushed down in the direction of arrow C, and since a part of the outer peripheral surface always projects into the slip transport path 10, It has a slope (shape like a soroban ball) so as not to obstruct.

<Medium Adjustment Operation 3> The operation of the passbook slip printer according to the third embodiment of the present invention at the time of adjustment will be described with reference to an operation flowchart shown in FIG. S indicates an operation step.

When the clerk inputs an instruction for “manual print processing” from the keyboard 29, the controller 26 activates the set button 28. Subsequently, when the passbook 2 is inserted from the passbook insertion port 14 along the medium insertion guide 3a, the passbook insertion detection sensor SE1 detects this. When the slip 6 is inserted, the slip insertion detection sensor SE2 detects this (S61). First, a case where the slip 6 is inserted will be described.

The attendant holds the slip 6 in his hand and moves it from the slip insertion stage 7 along the slip insertion guide 7a to the slip transport path 10.
Slip insertion sensor SE2 turns on when inserted toward
Will do.

When the control unit 26 obtains the detection (ON) signal of the slip insertion detection sensor SE2, the control unit 26 sets the width adjustment roller magnet 3
7, the slip 6 is sandwiched between the width adjusting roller 41 and the idle roller 42 (S62). Even after this operation, if the slip insertion detection sensor SE2 is maintained in the ON state (S63), the excitation of the passbook clamp magnet 22 is invalidated to enter the clamp standby state (S64). If the slip insertion detection sensor SE2 is in the OFF state, the excitation of the width adjusting roller magnet 37 is stopped, the width adjusting roller 41 is opened, and the process returns to step S61 (S65).

Next, the attendant holds the passbook 2 and sets the print position alignment mark 3c and the position mark 2 corresponding to the desired print position.
b is visually matched (S66). At the time of this manual alignment operation, for example, the rear end of the slip 6 hangs down from the slip insertion stage 7, and the print position alignment mark 3c may be difficult to see.

At this time, the clerk puts his hand on the surface of the slip 6 and moves his hand gently to the right, and the slip 6 is pinched by the width shifting roller 41.
Due to the action of a, the width shifting roller 41 rotates leftward due to the frictional force with the slip 6, and does not become a load for moving the slip 6 rightward. It is prearranged that the shift of the slip 6 to the right by the attendant is performed until the guideline 7b is visible.

When the adjustment of the passbook 2 is completed and the set button 28 is pressed (S67), the control section 26 receives this signal and excites the passbook clamp magnet 22 to hold the passbook 2 (S68). When the control unit 26 sends an inhalation instruction,
The passbook LF motor 20 is driven to rotate and the passbook 2 is inhaled by a predetermined amount (S69). The passbook 2 adjusted by this suction is conveyed to the platen 18 and the print head 1
7, the printing process is performed.

Next, returning to the slip processing, the ON / OFF of the width shift detection sensor SE3 is confirmed (S7).
0). When the width shift detection sensor SE3 is OFF, the control unit 26 instructs the width adjustment motor 40 to issue a right rotation command. Since this rotation is in the direction of the arrow M shown in FIG. (S71). When this rotation is performed, the slip 6 is moved toward the slip insertion guide 7a. Therefore, when the width adjustment roller 41 is continuously rotated clockwise, the slip 6 moves and the width adjustment detection sensor SE3 is turned ON.

Even if the number of rotation steps exceeds the predetermined number of steps (n) by the control unit 26, if the ON signal of the width detection sensor SE3 is not obtained, the processing is stopped as a width deviation failure (S73). Steps S70, 71, 7
When the operation 2 and the width shift detection sensor SE3 are turned on,
Finally, a predetermined amount of rotation command is transmitted to the width adjustment motor 40, and the motor is stopped (S74).

When the width adjusting motor 40 is stopped, the slip clamp magnet 23 is excited to hold the slip 6 (S75), and after a predetermined time has elapsed, the excitation of the width adjusting roller magnet 37 is stopped (S76).

When the control unit 26 issues a suction instruction, the slip LF motor 21 is driven to rotate and the slip 6 is sucked by a predetermined amount (S77). The slip 6 drawn to the slip insertion guide 7a is conveyed to the platen 18 by this suction, and the printing process is performed by the print head 17.

The case where the passbook insertion detection sensor SE1 detects the passbook 2 in step S61 will be described. In addition,
It is impossible to insert the passbook 2 and the slip 6 at the same time, and it is practically impossible. Therefore, in this case, in any case, the determination that the slip 6 is “not inserted” is the same as described above.

The control unit 26 is provided with the passbook clamp magnet 22
Is disabled and the clamp standby state is maintained (S7).
8). When the adjustment of the passbook 2 is completed and the set button 28 is pressed (S79), the control unit 26 receives this signal, excites the passbook clamp magnet 22, and clamps the passbook 2 (S80). When the control unit 26 issues an inhalation instruction, the passbook LF motor 20 is driven to rotate and the passbook 2 is inhaled by a predetermined amount (S81). The passbook 2 adjusted by this inhalation is conveyed to the platen 18 and the print head 17 performs a printing process.

When the control unit 26 obtains the detection (ON) signal of the slip insertion detection sensor SE2 (S82), it excites the slip clamp magnet 23 to operate the pressure roller 8 to clamp the slip 6 (S83). If the slip insertion detection sensor SE2 is still ON after this operation (S84), the control unit 26 sets the width adjustment roller magnet 37
Is excited. Also, the slip insertion detection sensor SE2 is OF
If it is in the F state, the excitation of the slip clamp magnet 23 is stopped, the pressure roller 8 is released, and the process returns to step S82 (S85).

The width adjusting roller 41 is moved down by the width adjusting roller magnet 37 to move the upper guide 7
The slip 6 protrudes from the position e, and the slip 6 is sandwiched (S86). After a predetermined time has elapsed after the excitation of the width adjusting roller magnet 37 in step S86, the excitation of the slip clamp magnet 23 is stopped (S87). Thereafter, the process proceeds to step S70.

As described above, it is known that, when performing the manual setting, the manual operation insertion (operation) of the passbook 2 is performed as the next operation. However, the manual insertion is performed along the slip insertion guide 7a. Sometimes. In this state, the printing position alignment mark 3c is difficult to see and it is difficult to perform the alignment, but the slip 6 can be easily moved away from the slip insertion guide 7a.
Therefore, the manual operation becomes easy. Also, the slip 6 may be skewed, but the slip 6 is shifted before inhalation.

A description will be given of a fourth embodiment of the present invention.
FIG. 12 is a side view showing the main configuration of the passbook slip printer.
FIG. 13 is a perspective view showing a main part configuration, and FIG. 14 is a control block diagram thereof. The same parts as those in the above-described embodiment are denoted by the same reference numerals, and description thereof will be omitted. Only different parts will be described.

Reference numerals 50a and 50b are provided outside the medium insertion guide 3a and can generate visible light with a light source provided at a predetermined distance. 51a and 51b are medium insertion guides 3
It is a slit-shaped long hole (hereinafter, referred to as a slit) provided on the a-plane, and a direction orthogonal to the passbook insertion stage 3b is defined as a longitudinal direction. A light source 50 is provided in the slit 51a.
a, and the light source 50b corresponds to the slit 51b. For example, when the light source 50a is turned on, the visible light thereof is regarded as light leaked from the slit 51a and the passbook insertion stage 3b
The optical line 52a is formed on the upper surface.

The optical line 52a is connected to the passbook insertion stage 3b.
5 to 20 m from the surface of the medium insertion guide 3a.
The distance from the light source 50a and the slit width are taken into consideration so that the distance m is clear. Therefore, since the optical path 52a is not clearly formed in a range of about 5 mm from the surface of the medium insertion guide 3a, even if the passbook 2 has the position mark 2b, the light ray is reflected so as not to be difficult to see. In the description of the present embodiment, a space is provided between the light source 50a and the slit 51a and a slit hole is provided. However, if the slit portion is formed by a transparent member (filled with a transparent member), the amount of light due to dust, paper dust, or the like is increased. The effects such as reduction can be eliminated.

Reference numeral 53 denotes a driver circuit for driving the motors 20, 21 and the clamp magnets 22, 23 and the light sources 50a, 50b. Reference numeral 25 denotes an amplifier circuit, such as a passbook insertion detection sensor SE1 or a slip insertion detection sensor SE2, such that a drive instruction is transmitted from the control unit 54 to the driver circuit 53 when the control unit 54 detects each signal. Is programmed to Reference numeral 55 denotes a display switching control unit provided in the control unit 54, which turns on either the light source 50a or 50b when the manual adjustment process is selected, and turns off the light source based on a signal from the set button 28. It is a part that performs control such as.

<Medium Adjusting Operation 4> FIG. 15 is a flowchart showing the medium transport operation when inserting a medium in the passbook slip printer according to the fourth embodiment of the present invention.
This will be described with reference to an explanatory diagram of a display example of the display unit shown in FIG. S indicates an operation step.

When the attendant inputs a command for "hand print processing" from the keyboard 29, the control unit 54 causes the operation of the pressure roller 4 to wait, activates the set button 28, and instructs the display unit 30 on the hand position. It is displayed to input (S101). This display is shown in FIG.
For example, in the case of the first to fourth rows, the “0” key is selected (pressed) to use the slit 51a on the back side, and in the fifth and subsequent rows, the “1” key is selected and Slit 51
The b-side is illuminated to guide the operator to perform the adjustment (S10).
2).

The attendant judges from the printing line of the medium (passbook) to be printed and determines the handing position (“A” on the back side).
Is selected, the display switching control unit 55 causes the light source 50
The light source 50a is turned on by setting a flag indicating that a is turned on. When the light source 50a is turned on, the visible light forms an optical path 52a from the slit 51a on the passbook insertion stage 3b (S103). Subsequently, the passbook 2 is inserted from the passbook insertion slot 14 into the medium insertion guide 3a along one side (side) of the passbook 2, and the desired print position 2a and the optical path 52a are visually matched. Needless to say, the alignment can be easily performed because the optical path 50a is formed on the position line where printing is desired.

When the adjustment is performed, the set button 28 is pressed (S104). When the set button 28 is pressed, the control unit 54 issues an operation instruction of the passbook clamp magnet 22 to hold the passbook 2 with the pressure roller 4 (S10).
5). After instructing driving of the passbook clamp magnet 22, the control unit 54 checks a flag indicating that the light source 50a is turned on, and controls the display switching control unit 55 to turn off the light source 50a (S106).

The control unit 54 reads the transport amount (L3) stored in the storage unit 27 based on the confirmed flag information, and waits for a suction instruction (S107). After that, the bankbook LF motor 20 is driven to start the conveyance toward the print head 17 (S108).

In step S102, when the user selects the hand position (the front side is "B"), the display switching control unit 55 sets a flag indicating that the light source 50b is turned on, and turns on the light source 50b. When the light source 50b is turned on, the light forms an optical path 52b on the passbook insertion stage 3b from the slit 51b (S109). Then passbook insertion slot 1
4 to the medium insertion guide 3a along one side (side) of the passbook 2 so that the desired printing position 2a and the optical path 52b
Is adjusted visually. As described above, since the optical path 52b is formed on the position line where printing is desired and the position of the adjustment is on the insertion port side, the adjustment can be performed more easily.

When the hand is set, the set button 28 is pressed (S110). When the set button 28 is pressed, the control unit 54 issues an operation instruction of the passbook clamp magnet 22 to hold the passbook 2 with the pressure roller 4 (S11).
1). After instructing driving of the passbook clamp magnet 22, the control unit 54 checks a flag indicating that the light source 50b is turned on, and controls the display switching control unit 55 to turn off the light source 50b (S112).

The control section 54 reads the carry amount (L4) stored in the storage section 27 based on the confirmed flag information, and waits for a suction instruction. Then passbook L as above
The F motor 20 is driven to start the conveyance toward the print head 17.

As described above, since the optical path 52a or 52b can be formed on the printing surface of the passbook 2 and there is also an illumination effect, it is easy to handle. Furthermore, in a general passbook, 2
Since there are approximately four printable lines, the front side can be used for 80% or more of the print lines, which is convenient. Therefore, it is also possible to set the initial setting to the front side and to perform the switching operation only for about 20% of the print lines without performing the selection input of the adjustment position as the initial input. In addition, it goes without saying that the light source may be turned on and off and guided manually, or the light source may be a visible light laser diode to emit a beam.

Next, a modification of the fourth embodiment will be described. FIG. 17 shows a case where a second printing position alignment mark 3c 'is provided in addition to the printing position alignment mark 3c, and these alignment marks 3c and 3c' are used instead of the slits 51a and 51b described in the fourth embodiment. Are constituted by light emitting diodes. In this case, horizontal ruled lines 43 and 43 'are provided on the passbook insertion stage 3b.

FIG. 18 (a) shows the light source 50a, 50b and the slits 51a, 51b described in the fourth embodiment, which are constituted by a light transmitting member 57 instead of a space. Effective for protection of Further, when the prevention of dust adhesion and the protection of the light source are provided by other measures, a shielding plate 58 may be provided between the light sources 50a and 50b and the slits 51a and 51b as shown in FIG. The shielding plate 58 is moved in the direction of arrow K by moving means (not shown), and the light passing hole 58a and the slit 51a are moved.
Or 51b, no light source switching means is required. Further, depending on the mounting method, one light source can be used.

[0096]

The present invention described above has the following effects. When a voucher is inserted, the voucher is transported in the voucher transport path until the leading end of the voucher reaches the vicinity of the junction.Therefore, since the rear end of the voucher is lifted up from the voucher insertion stage, the voucher has a relatively long length. However, the print position alignment mark is not hidden, and the alignment is easy.

Since the slip is inserted at a predetermined distance from the slip insertion guide, even if the slip is long in length, the print position alignment mark is not hidden, and the handling becomes easy.

When the manual setting is performed, the manual may be inserted along the slip insertion guide. In this state, the print position alignment mark is difficult to see and it is difficult to perform the alignment, but the slip is easily separated from the slip insertion guide. The hand can be moved in any direction, so that the manual operation becomes easy.

An optical line can be formed on the printing surface of the passbook, and
Since there is also a lighting effect, it is easy to handle. Further, since the print position alignment mark that can be easily adjusted can be used for print lines that are 80% or more of the number of printable lines of a general passbook, the convenience is good.

[Brief description of the drawings]

FIG. 1 is a side view showing a main configuration of a passbook slip printer according to a first embodiment of the present invention.

FIG. 2 is a schematic side view showing a passbook slip printer according to the present invention.

FIG. 3 is a control block diagram of the passbook slip printer according to the first embodiment of the present invention.

FIG. 4 is an operation flowchart of the first embodiment of the present invention.

FIG. 5 is a perspective view illustrating a main configuration of a passbook slip printer according to a second embodiment of the present invention.

FIG. 6 is an explanatory diagram illustrating a concept of width shifting according to the second embodiment of this invention.

FIG. 7 is a control block diagram of a passbook slip printer according to a second embodiment of the present invention.

FIG. 8 is an operation flowchart of the second embodiment of the present invention.

FIG. 9 is a perspective view illustrating a main part configuration of a third embodiment of the present invention.

FIG. 10 is an explanatory diagram showing a concept of width shifting according to a third embodiment of the present invention.

FIG. 11 is an operation flowchart of the third embodiment of the present invention.

FIG. 12 is a side view showing a main configuration of a passbook slip printer according to a fourth embodiment of the present invention.

FIG. 13 is a perspective view showing a configuration of a main part of a fourth embodiment of the present invention.

FIG. 14 is a control block diagram of a passbook slip printer according to a fourth embodiment of the present invention.

FIG. 15 is an operation flowchart of the fourth embodiment of the present invention.

FIG. 16 is an explanatory diagram showing a display example according to the fourth embodiment of the present invention.

FIG. 17 is a perspective view showing a main part configuration of a use mode according to the fourth embodiment of the present invention.

FIG. 18 is a perspective view showing a main part configuration of a use mode according to the fourth embodiment of the present invention.

FIG. 19 is a schematic explanatory view showing a medium transport mechanism of the passbook slip printer.

FIG. 20 is an explanatory diagram illustrating a clamped state of a medium.

[Explanation of symbols]

 REFERENCE SIGNS LIST 1 passbook slip printer 2 passbook 2 a print position 3 passbook transport path 4 pressure roller 6 slip 7 slip insertion stage 10 slip transport path 11 common transport path 12 junction 20 passbook LF motor 21 slip LF motor 22 passbook clamp magnet 23 slip clamp magnet 34 , 40 Width adjustment motors 35, 41 Width adjustment rollers 50a, 50b Light sources 51a, 51b Slit SE1 Passbook insertion detection sensor SE2 Slip insertion detection sensor SE3 Width adjustment detection sensor

 ────────────────────────────────────────────────── ─── Continued on the front page (72) Inventor Hiroyuki Harada 1-7-12 Toranomon, Minato-ku, Tokyo Oki Electric Industry Co., Ltd. F term (reference) 2C058 AB12 AE02 AF53 HA04 HD08 3E040 AA06 AA07 BA16 FG01 FG04 FK04 FK05 3F049 DA12 EA23 LA07 LB05 3F101 LA07 LB05 5B055 DD03 GG10 LL02

Claims (10)

[Claims] 1. A first medium transport path for taking in a first medium to be inserted and transporting it to a processing unit, and a second medium provided at an upper stage side of the first medium transport path and inserted. In a passbook slip printer having a second medium transport path for taking in and transporting, a junction of the first medium transport path and the second medium transport path, and having a common transport path ahead of the junction, When the first medium and the second medium are sequentially taken into the processing unit, if the second medium is inserted into the second medium transport path first, the second medium is transferred to the merging unit. What is claimed is: 1. A passbook voucher printer comprising a transport control means for sucking up to the vicinity. 2. The passbook slip printer according to claim 1, wherein said suction operation is a transfer control different from a suction operation of taking in only said second medium alone and transferring it to a processing unit. 3. The passbook slip printer according to claim 2, wherein the suction operation is a transfer control by alternately repeating a certain amount of transfer and a stop of a certain time. 4. A first medium transport path for taking in a first medium to be inserted and transporting the same to a processing section, and a second medium provided at an upper stage side of the first medium transport path to capture and transport a second medium. In a passbook slip printer having a second medium transport path, a medium insertion detecting means provided in the second medium transport path, and one side of a second medium inserted in the second medium transport path is provided. A medium insertion guide for guiding; and a medium width shifting means for nipping the second medium inserted into the second medium transport path and drawing the second medium to the medium insertion guide. When the insertion detecting means detects the second medium, the medium width approaching means is controlled to stand by while sandwiching the second medium, and the medium width is determined by a signal instructing to take in the first medium. Further controlling the pulling means to draw to the medium insertion guide Passbook slip printers, characterized in that it comprises a control unit that. 5. The passbook slip printer according to claim 4, wherein said medium width shifting means includes a high friction portion provided on a part of a rotating member, and said high friction portion projects to said second medium transport path. The second inserted
A passbook slip printer comprising: a width-adjusting roller capable of being pressed against the medium; and a drive motor for rotating the width-adjustment roller, wherein the medium width-adjustment operation is performed by intermittently controlling the rotation of the drive motor. 6. A first medium transport path for taking in a first medium to be inserted and transporting it to a processing section, and provided on an upper side of the first medium transport path to capture and transport a second medium. In a passbook slip printer having a second medium transport path, a medium insertion detecting means provided in the second medium transport path, and one side of a second medium inserted in the second medium transport path is provided. A medium insertion guide for guiding; a medium width adjusting means for drawing the second medium inserted into the second medium transport path to the medium insertion guide; A friction portion, the high friction portion protrudes into the second medium transport path, and a width approaching roller capable of coming in contact with and separating from the second medium to be inserted; and supporting and rotating the width approaching roller. A drive motor; one between the drive motor shaft and the width shifting roller shaft; Passbook slip printers, characterized in that the rotary clutch is interposed. 7. The passbook slip printer according to claim 6, wherein, when the medium insertion detecting means detects the second medium, the medium inserting means controls the medium width adjusting means to insert the second medium.
A passbook slip printer for holding the medium by the width adjusting roller. 8. A medium transport path for taking in a processing medium and transporting it to a processing section, a medium insertion guide for regulating a position of one side of a medium inserted into the medium transport path, and a medium inserted into the medium transport path. A media insertion stage for regulating the position of the back side of the medium to be processed, and a passbook slip printer provided with a processing alignment mark for processing an arbitrary position on the medium in the medium insertion guide, wherein the processing alignment mark is provided in at least two places. Arranged in
A passbook slip printer, characterized by comprising means for validating any one of them. 9. The passbook slip printer according to claim 8, wherein the processing alignment mark is a light transmitting portion provided on a medium insertion guide, and irradiates visible light toward the light transmitting portion to form a mark on the medium insertion stage. Passbook voucher printer that forms an optical path in the building. 10. The passbook slip printer according to claim 8, wherein the processing position alignment mark is a light emitting element capable of emitting light individually, and is provided on the medium insertion guide, and the processing position alignment mark is aligned with an end. A passbook slip printer provided with ruled lines on the medium insertion stage.