JPS63274594A - Continuous sticker - Google Patents

Abstract

(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to an apparatus for continuously pasting photographs, printed matter, etc. onto official postcards and other cards.

[Prior Art] In recent years, so-called postcards made of photographs with images printed on their backs have become popular. However, since these postcards are made of photographic paper themselves, there is a problem in that you are limited to the writing utensils you can use when writing the address on the front, and since they are privately made, you have to affix a stamp to each postcard, which means that you have to ship them in large quantities. In some cases, the effort was tedious.

Recently, a type of postcard with a photo pasted on the back of an official postcard has been developed and is now in use.

[Problems to be solved by the invention] However, in the case of such recently developed postcards, the photo and the official postcard are attached using double-sided tape, which increases the manufacturing cost, increases the thickness, and makes the postcard more difficult to produce. This method had problems such as the need for high precision in punching out postcards to the size of postcards.

Therefore, there is a need for the development of an apparatus for continuously pasting photographs, printed matter, etc. onto postcards and other cards.

[Means for Solving the Problems] The present invention solves the above-mentioned problems and further enables photographs, printed matter, etc. to be continuously attached to official postcards or cards of various sizes and materials. It was developed for the purpose of: an unwinder that unwinds a strip with continuous cuts, a feeder that runs the strip at a constant speed, and a strip that is unwound from the unwinder. A glue applicator applies glue to one side of the strip, and the glue application side of the strip swings once in synchronization with the movement of the cut of the strip to bring the built-in card into contact with the glue coated surface of the strip. Continuous pasting characterized by comprising a swing box that continuously supplies at least one card at a time, and a pressure roller that presses the cards pulled out from the swing box onto the strip by adhesive force with the glue-applied surface of the strip. It depends on the equipment.

[Function] A strip with continuous cuts formed by photography or printing is unwound and run at a constant speed from an unwinder by a feeder, and glue is uniformly applied to one side by a glue applicator. Ru.

The swing box swings once during the movement of one cut, and the card inside is pressed against the glue-coated surface of the strip during the lowering process in synchronization with each cut, and the card swings due to the adhesive force of the glue. pulled out of the box.

The semi-adhesive card supplied from the swing box is completely pressed onto the strip by a pressing roller.

[Example] Embodiments of the present invention will be described below with reference to the drawings.

1 to 18 show an embodiment of the device of the present invention,
Inside the frame box 2, which is movable by casters L, are an unwinding section 3, a glue application section 4, a dummy card supply section 5,
A card supply section 6, a crimping section 7, a slitter section 8, and a winding section 9 are provided in this order on the downstream side.

The unwinding unit 3 includes an uncoiler 13 that unwinds a coil 12 formed by winding a photographic strip 11 into a roll, for example, in which imaging cuts IO are continuously arranged (printed) at equal intervals, while applying a constant braking force; It consists of a tension roller 14 for adjusting the tension of the photographic belt 11.

The photographic strip 11 unwound from the chain unwinding section 3 with the pasting surface facing downward is sent to the glue application section 4 via guide rollers 15.1B and 17.

In the glue applicator 4, a glue tank 18 having a width at least wider than the width of the photographic belt 11 is installed below the passage of the photographic belt 11. The application roller 19 is rotatable freely or by a motor so that the application roller 19 is completely immersed.

A glue tank 20 is erected at the end of the glue tank 18 so that the outlet of the glue tank 20 faces downward, so that the level of the glue liquid in the glue tank 18 is maintained at a substantially constant level. Therefore, said guide roller L5.16. The pasting surface of the photographic strip 11, which is fed by L7 so that the pasting surface is on the lower side, is brought into contact with the application roller I9 by the guide roller 21, and glue is applied thereto. Further, a stopper is provided at the bottom of the glue twig, so that the glue liquid in the glue tank 18 can be collected into a glue tank 20' arranged below the glue tank 18. Photo strip 11 with glue applied
are passed through the dryer 100 to be air-dried or hot-air dried.

Furthermore, guide rollers 22 and 23 are provided so that the glue-applied surface of the photographic strip 11 faces upward, and the photographic strip 11 is passed through the dummy card supply section 5 and the card supply section B in sequence.

The dummy card supply section 5 and the card supply section 6 have the same configuration, and the dummy card supply section 5 supplies a dummy card 24 for blocking the glue-coated surface of an unnecessary imaging cut in the photographic strip 11. The card supply section 6 supplies cards 25 such as official postcards to the glue-applied surface of other effective imaging cuts.

The details of the card supply section 6 are as shown in FIGS. 2 to 6, and bearings 28 and 29 are provided at required positions on the main panel 26 and sub-panel 27 of the frame box 2 so as to be located on the same axis. A crankshaft 30.31 is rotatably supported by each bearing 28.29, and the crank pins 32, 33 of the crankshaft 30.31 are connected to the same shaft at the bottom of each side plate of the swing box 34 that accommodates a plurality of cards 25. It is inserted into bearings 35 and 36 provided on the axis. A timing pulley 37 is fixed to the end of the crankshaft 30 that protrudes outside the main panel 2B, and the main panel 26
The timing pulley 40 is attached to the output shaft 39 of a pulse motor 38 fixed to the outside of the motor 38, and can be rotated via a belt 4I. Pins 42 and 43 are respectively fixed to the upper center of each side plate of the swing box 34, and the respective bins 42 and 43 are connected to each of the panels 2B.

Slide bearing 46.4 that slides vertically along the thrust shaft 44.45 installed vertically inside 27
7, and the rotation of the pulse motor 38 causes the crankshaft 30. ill rotates, bearings 35, 36
As a result of the circular movement and the vertical movement of each pin 42 and 43, the swing box 34 is rotated as shown in FIG.
It is made to swing one cycle for each imaging cut IO. In addition,
The swing box 34 is open at the top and bottom, and the card 25 is inserted from the top and the claws 4 at the four corners of the bottom are opened.
It is supported by 8.

Below the swing box 34, the pin 42
An idle roller 49 is rotatably provided on the main panel 26 at a required position on the downstream side in the traveling direction of the photo belt 11 in a direction perpendicular to the line connecting the bearings 28 and 28.
The guide roller 50 is arranged so that the photo belt 11 on the entry side and the exit side is formed with the required angles θ1 and θ2, respectively, with the lower end surface of the swing box 34 when the card 25 is pressed onto the idle roller 49. .51.

The dummy card supply unit 5 has the same configuration as the card supply unit 6, so the explanation will be omitted. However, the guide roller 51 includes a guide roller on the card supply unit 6 person side and a guide roller on the output side of the dummy card supply unit 5. Also serves as. Here, the idle roller 82 may also serve as the guide roller 51.

The pressure bonding section 7 consists of at least two upper and lower rollers 52, 53, 54, in this embodiment two upper rollers and one lower roller. It is pressed into contact with a cylinder, etc. The lower drive roller 54 is rotationally driven by a pulse motor 55 to feed the photographic belt 11 at a constant speed.

The slitter section 8 cuts the photographic strip 11 on which the cards, etc. are crimped, to the same width as the card 25 or dummy card 24, or with the card 25, etc., by sandwiching the width of the card 25, etc. A pair of rotary blades 56 and 57 are provided on the left and right sides with the same width as the card 25 or narrower than it.

The winding section 9 is for winding up the photographic strip 11 whose both ends have been cut by the slitter section 8. The winding diameter is detected by a roll diameter detector 62, and the winding speed is kept approximately constant.

Next, regarding a circuit that aligns and continuously supplies the card 25 or dummy card 24 for each imaging cut 10 of the photographic strip 11, for example, a circuit of the size of a government postcard (148 s x 100 m) is used.
Taking the card m) as an example, explanation will be given with reference to FIGS. 8 to 15.

Cut marks such as punch marks and other synchronization marks 6 between each imaging cut 10 of the length 14811- of the photo band 11
3, and a skip mark 65 that does not transmit infrared rays is formed approximately at the center of the unnecessary imaging cut 64, so that the dummy card 24 can be attached to the unnecessary imaging cut B4.

A synchronization mark sensor 66 optically detects the synchronization mark 63 on the entry side of the card supply section B and the dummy card supply section 5.
．． 76■ of swing box 34 where 67 is pasted
l are provided in front of each other, and the synchronization mark signals detected by the synchronization mark sensors 88 and 87 are sent to the latch B9.

An origin plate 70 such as a metal plate is fixed to the main panel 26 side of the crankshaft 30, and the crankshaft 3 is fixed to the origin plate 70.
A hole is provided so as to be located on the same axis as the crank pin 32 of No. 0 to serve as an origin mark 71.

The pulse motor 55 for driving the photo belt 11 has a diameter of 150.
It is driven by a 0 pps pulse oscillator 72 for one rotation (3 rotations/second) at 500 pulses, and if the gear ratio is 1:3, the drive roller 54 is driven at one rotation/1500 pulses per second. The diameter is designed so that one rotation of the drive roller 54 is equal to the sum of the length of the imaging cut 10, 148 mm, and the cutting margin 11-, that is, 149 cm. Therefore, the diameter of the drive roller 54 is 47.451-.

Further, a pulse motor 3 for driving the swing box 34
8 is about 50 by the pulse oscillator 73 of about 1500 pps.
Drives 1 rotation (3 rotations/second) with 0 pulses, gear ratio 1:
3, so the swing box 34 rotates 1 revolution per second on average.
Driven with 1500 pulses.

The position at which the card 25 is attached to the imaging cut IO of the photo strip 11 is adjusted so that the rotating card 25 contacts the photo strip 111 and applies a pressing force to the following page by θ to 20 degrees before the bottom dead center of the swing box 34 ( In this embodiment, the idle roller 49 is positioned at an angle of 15°, and the idle roller 49 is positioned below this position. That is, when the swing box 34 and the origin mark 71 are at the position 15@ before the bottom dead center, if the rear end of the card 25 in the swing box 34 and the rear end of the imaging cut 10 of the photo strip 11 match, the misalignment will be corrected. You will get a card with no photo pasted on it.

Since the synchronization mark sensor 8B is located at the rear end upstream side 76a+m of the card 25 in the swing box 34 at the pasting position, after the synchronization mark 63 of the photo belt 11 traveling at a constant speed passes the synchronization mark sensor 66, 76÷(148
+ 1) Reach the application position after X 1500 pulses - 765 pulses.

Therefore, after the synchronization mark sensor 6B detects the synchronization mark 63, the origin mark 71 moves 765 pulses (equivalent to 183,6") further (i.e., 18.6 degrees before the top dead center) from the position 15 degrees before the bottom dead center. If you are located at , you can expect complete synchronization.

For example, 100 pulses (approximately 6
．． An origin mark sensor 74 is provided at a position of 7'') to detect the origin mark 71 and send the origin mark detection signal to the pulse counter 75.

The pulse counter 75 counts the pulses from the pulse oscillator 72 sent to the pulse motor 55 for driving the photo belt 11, and is reset to 0 by the input of the origin mark 71 detection signal from the origin mark sensor 74. A new count starts.

Therefore, if the synchronization mark detection signal is input from the synchronization mark sensor 6B to the latch 69 when the pulse counter 75 counts 1400 pulses after the origin mark sensor 74 detects the origin mark 71, the synchronization will be complete. . However, in reality, there may be a slight deviation due to the unequal length of the imaging cut IO, so the count number of the pulse counter 75 when the synchronization mark detection signal is input is around the reference count number of 140θ pulses, and is less than 1400 pulses. In the case of , the imaging cut IO is set slightly earlier than the standard, indicating that the swing box 34 is relatively delayed, and if it is larger than 1400 pulses, the imaging cut IO is set slightly later than the standard. This indicates that the swing box 34 is relatively fast.

The arithmetic unit 76 subtracts the count number when the synchronization mark signal is input from the reference count number. Error A
p is set as the capital in the deviation counter 77, and after the pulse oscillator 73 oscillates the number of pulses (665+Ap) at the corrected frequency, the pulse frequency returns to 1500 pps.

The swing box 68 of the dummy card supply section 5 also has a synchronization circuit similar to the swing box 34 of the card supply section 6, and furthermore, a skip mark sensor 79 is provided upstream of the synchronization mark sensor 67.
9 detects the skip mark B5 of the unnecessary imaging cut 64, the swing box 68 is rotated and the dummy card 24 is supplied. The 64 unnecessary imaging cuts to which the dummy card 24 is attached are
Since the card 25 cannot be stuck, the swing box 34 of the card supply unit 6 simply rotates idly and no card 25 is supplied.

In the figure, 80.81 is a guide roller, 82 is an idle roller, 83 is a start switch, 84 is a stop switch, 85.88 is a start/stop management logic, and 87
．． 88 is a pulse motor driver, and 89 is a sheet number counter.

A coil (2) in which the photographic strip 11 is wound into a roll is attached to the uncoiler I3, and the photographic strip 11 is pulled out with the glue-applied side facing down, and the guide roller 15, tension roller 14,
Pass through the guide rollers 1B and 17.21 one after another, and then
The lower surface of the photo strip 11 is brought into contact with the applicator roller 19, and then passed through the guide rollers 22 and 23 so that the glue-applied surface is facing upward, and then passed through the dummy card supply section 5 and the card supply section 6 in sequence, and is further crimped. After passing through the section 7 and the slitter section 8 in order and winding it around the winding section 9, the drive roller 54 of the pressure bonding section 7 can be rotated by a pulse motor 55. In the photograph band 11, synchronization marks 63 such as bunch marks are provided in advance between the imaging cuts 10, and infrared opaque skip marks 65 are provided in the unnecessary imaging cuts 64.

The card 25 is in the swing box 34 of the card supply section B.
An official postcard is inserted and supported by the claws 48. or,
The dummy card 24 is similarly inserted into the swing box 68 of the dummy card supply section 5 and supported by the claws 48.

The swinging period of each swing box 34.88 is adjusted to a position synchronized with the imaging cut IO of the photographic strip 11.

When the start switch 83 is turned on, each pulse oscillator 7 is activated by each start/stop management logic 85 and 88.
3.72 oscillation is started, and the pulse oscillator 72 generates 1
The pulse motor 55 is driven at a constant speed of 500 pps, and the drive roller 54 of the crimping section 7 rotates once per second, and the photo belt 1
1 is fed at a constant speed of 149 mm per second, and the lower surface of the photographic strip 11 is coated with glue by an applicator roller 19 in the glue applicator 4.
is sent to the dummy card supply section 5 and the card supply section 6.

The swing box 34 of the card supply unit 6 rotates once per second in the vertical and longitudinal directions via a crankshaft 30.11 by a pulse motor 38 driven by the pulse oscillator 73 at approximately 1500 pps.
Basically in synchronization with 0, move card 25 15'' before bottom dead center.
The swing box 34 is pressed against the glue-applied surface of the imaging cup 10 so as to be pressed against the handle roller 49 at the position .
After passing the bottom dead center, the card 25 bends due to the adhesive force of the glue, detaches from the claw 48, is pulled out from the swing box 34, remains positioned at each imaging cut IO, and is then placed in the crimp section 7. After the entire surface is completely crimped by the rollers 52 and 53 and the drive roller 54, the slitter section 8 cuts off the excess edges of the cards 25 such as official postcards and the photo strip 11, and the product strip 6I is formed into a winding machine. B.O.
It is wound up.

At this time, since there may be a slight error in the length of each imaging cut 10 on the photographic band 11, when the origin mark sensor 74 detects the origin mark 71, the count number of the pulse counter 75 is reset to 0. Start counting again. Since the origin mark sensor 74 is at a position 100 pulses in the rotational direction from the expected position of the synchronization mark, the position of 1400 pulses, which is the reference count number, from the position of the origin mark sensor 74 becomes the expected synchronization mark position, and the synchronization mark detection signal is input. It should be done. However, imaging cut 1
If 0 is a little short, the synchronization mark sensor 66 detects the synchronization mark 63 before counting 1400 pulses, the synchronization mark signal is input to the latch 69, and the count number when the synchronization mark signal is input is stored. If the imaging cut 10 is a little long, the synchronization mark signal is input after exceeding 1400 pulses, and the count number at the time of input is stored.

In the calculator 76, the count number when the synchronization mark is input is subtracted from the reference count number 1400 pulses, and the difference Δp between the counts is stored in the deviation counter 77. Then, in the acceleration/deceleration calculator 78, [([i85+Δp)/68
5x 150G] The correction pulse frequency is calculated using the pps formula, and when Ap is positive (when the imaging cut lO is short), the pulse motor 38 for driving the swing box 34 is accelerated, and when Ap is negative Case (imaging cut 1
0 is long), the pulse motor 38 is decelerated and the distance 81 from the position of the origin mark sensor 74 to the pasting point is
The card 25 is accelerated or decelerated between 35 Hals based on the corrected pulse frequency, and the feeding of the card 25 and the feeding of the photographic strip 11 are completely synchronized for each imaging cut 10.

After passing the pasting position, the pulse motor 3B of the swing box 34 is driven back to the original 1500 pp8, and the swing box 34 returns to its normal speed.

In the dummy card supply section 6, as shown in FIGS. 16 to 18, when the skip mark sensor 79 consisting of an infrared light emitting diode 90 and a phototransistor 91 detects the skip mark 65, the dummy card supply section 6 detects a skip mark 65 in the same manner as in the card supply section 6. The dummy card 24 is supplied in synchronization with the unnecessary imaging cut 64 portion marked with the skip mark B5.

Even if the card supply unit B supplies the card 25 to the unnecessary imaging cut 64 portion to which the dummy card 24 is attached,
Since the glue-applied surface is already covered with the dummy card 24, the swing box 34 simply spins idly without being able to adhere.

In the above embodiments, the cards 25 include government postcards, privately made postcards, cut paper, plastic cards, metal plates, etc., and any material can be used as long as it is flexible and can maintain a flat surface. . dummy card 24
An inexpensive one can be used, and cut paper of poor quality will suffice.

In addition to the photo strip 11, the strip can be continuously formed by printing, handwriting, etc., and the material may be a synthetic resin sheet, paper, metal foil, rubber sheet, etc., and may be transparent or opaque. It can be applied regardless of the situation. In the case of an opaque strip, skip marks may be detected using a reflective skip mark sensor.

The size of the card 25 and the cut may be any size other than the size of a government postcard.

Depending on the glue you use, you may not need to use a glue dryer.

The dummy card supply unit 5 does not need to be provided if the unnecessary imaging cuts 64 are removed and connected in advance, or if the cards 25 can be attached without removing them, and only one swing box 34 is required. Alternatively, if two swing boxes 34 are provided (the cards 25 may be loaded into the dummy card supply section 5), the cards 25 can be supplied alternately, improving the production speed. In addition, the dummy card supply unit 5 can store privately made postcards and the like can be used as dummy cards for government postcards stored in the card supply unit 6, or the dummy card supply unit can be used for all cuts of the strip by switching operation. 5
You may also supply privately made postcards.

Further, the swinging speed of the swing box 34.8g is adjusted by the pulse oscillator 73 at a speed of 1500 g in the aforementioned speed adjustment section when the speed of the swing box is relatively slow.
The pulse motor 3B may be driven for a necessary time with a constant pulse frequency higher than pps to catch up the delay, and when the speed of the swing box is relatively fast,
Synchronization may be achieved by driving and delaying the pulse motor 38 for the required time with a constant pulse frequency of less than 500 pps.

Other examples of the swinging mechanism of the swing box 34.88 are shown in FIGS. 19 and 20. The flywheel 9 is attached to the output shaft 93 of the motor 92 fixed to the main panel.
4 and pulley 101 are fixed, an eccentric pin 95 is attached to the flywheel 94, and a link plate 97 is fixed to the swing box 34 by the eccentric pin 95.
A link 99 is connected to the other vertex of the triangle of the link plate 97, which is pivotally supported by a support shaft 98 fixed to the main panel. Furthermore, a pulley 1 is installed on the outside of the main panel of the shaft 102 supported on the main panel.
0 (fixed) and the flywheel 10 inside the shaft 102.
4 is attached, and an eccentric bin 105 is attached to the flywheel 104 in the same manner as described above, and the link plate 107 fixed to the swing box 34 with the pin 10B is swung by the eccentric bin 105.
A link 109 pivoted by a support shaft 108 fixed to the main panel is connected to the other vertex of the triangle, and the pulleys 101 and 103 are connected by a belt 110 to enable synchronous driving. When the motor 92 is rotated, the eccentric bins 95, 10 fixed to the flywheel 94, 104
5 moves in a circular motion, and the link plate 97 is swung. lO7
As a result, the swing box 34, which is supported by the support shafts 98 and 108 so as to be fixed in the horizontal direction and movable in the vertical direction, moves periodically as shown in the trajectory.

In addition to the pulse motor 55, a servo motor or a synchronous motor can be used to feed the strip, and to swing the swing box 34, a servo motor or the like can be used in addition to the pulse motor 38.

Furthermore, if the width of the strip and the width of the card match, the slitter section 8 may be omitted, and if the product strip is sequentially cut at the synchronization mark 63 on the downstream side of the crimping section 7, the winding section 9
can also be omitted.

[Effects of the Invention] As described above, according to the continuous pasting device of the present invention, the strip on which the imaging cut etc. have been formed is unwound from the unwinding machine, and the strip that has been fed at a constant speed by the feeder is coated with the glue applicator. Glue is applied, the cards in the swing box are brought into contact with the glue-applied surface for each cut, and the cards pulled out by the adhesive force of the glue are crimped and fixed by a pressure roller, so that the cards can be continuously applied to each cut of the strip. The pasting work can be carried out continuously, greatly improving work efficiency. Since it is pasted with glue, the product card becomes thinner and less expensive.

Furthermore, it is easy to synchronize each cut of the strip with the card.
The defective product rate is significantly reduced.

Therefore, it is possible to affix cuts to official postcards with ease and accuracy, thereby saving the effort of affixing stamps.

Furthermore, since the selection range of materials, sizes, etc. of cards and strips is extremely wide, it is applicable not only to postcards but also to various fields.

[Brief explanation of the drawing]

Fig. 1 is an overall explanatory diagram of an embodiment of the device of the present invention, Fig. 2 is a view taken along the direction arrows - - - in Fig. 1, and Fig. 3 is a - - - in Fig. 2.
A view in the direction of arrows, FIG. 4 is a view in the direction of IV-IV in FIG. 2,
Figure 5 is a view taken in the V-■ direction of Figure 2, Figure 6 is a view taken in the Vl-V1 direction of Figure 3, and Figure 7 is a view of the bottom of the swing box and slide bearing shown in Figure 2. FIG. 8 is an explanatory diagram of the photo belt in FIG. 1, FIG. 9 is an explanatory diagram showing the positional relationship between the card supply section and the dummy card supply section in FIG. 1, and FIG. A photographic band of the device shown in and a schematic explanatory diagram of the drive system of the swing box,
Fig. 11 is a detailed diagram of the origin mark sensor in Fig. 1O, Fig. 12 is an explanatory diagram of the origin mark in Fig. 11, and Fig. 13 is the positional relationship between the attachment position of the swing box and the origin mark locus in Fig. 1O. 14 is a block diagram of the synchronization circuit for the swing box and photo belt shown in FIG. 1, FIG. 15 is a timing chart of the synchronization circuit shown in FIG. 9 is a detailed view of the skip mark sensor shown in FIG. 9, FIG. 17 is a view from the dragon-■ direction in FIG. 16, and FIG. 18 is a timing chart when the dummy card supply section shown in FIG. FIG. 19 is an explanatory diagram of another example of the swing mechanism shown in FIG. 6, and FIG. 20 is a diagram showing the locus of the swing box by the other swing mechanism shown in FIG. 19. 2 is a frame box, 3 is an unwinding part, 4 is a glue application part,
5 is a dummy card supply section, 6 is a card supply section, 7 is a crimping section, 8 is a slitter section, 9 is a winding section, IO is an imaging cut,
11 is a photo belt, 13 is an uncoiler, 18 is a glue tank, 9 is an application roller, 24 is a dummy card, 25 is a card, 30
．． 31 is the crankshaft, 34.68 is the swing box,
38 is a pulse motor, 44.45 is a thrust shaft, 48.
47 is a slide bearing, 48 is a pawl, 49 is an idle roller, 54 is a drive roller, 55 is a pulse motor,
60 is a winding machine, 6I is a product band, 63 is a synchronization mark, 64
is an unnecessary imaging cut, 65 is a skip mark, 86.67
is a synchronization mark sensor, 71 is an origin mark, 72.73 is a pulse oscillator, 74 is an origin mark sensor, 75 is a pulse counter, 7B is a calculator, 77 is a deviation counter, 78 is an acceleration/deceleration calculator, 79 is a skip mark sensor shows.

Claims (1)

[Claims] 1) An unwinding machine that unwinds a strip in which cuts are continuously formed, a feeder that runs the strip at a constant speed, and applying glue to one side of the strip unwound from the unwinding machine. The glue applicator and the glue application side of the strip swing one cycle in synchronization with the movement of the cut of the strip, bringing the built-in cards into contact with the glue application surface of the strip and continuously feeding them one by one. 1. A continuous pasting device comprising: a swing box; and a pressure roller that presses a card pulled out from the swing box onto the strip by adhesive force with the glue-applied surface of the strip.