KR20000067708A - Multi head pattern sewing machine - Google Patents

Abstract

PURPOSE: A sewing machine is provided to achieve an improved productivity, reduced cost and maximized space utilization by arranging a plurality of heads into a single support frame. CONSTITUTION: A machine comprises a support frame; four pattern sewing units(201) fixed onto the support frame and which accomplish one stitch by a shuttle, a needle, upper yarn and lower yarn, a sewing unit shaft driving member(203) arranged at a lower portion of the frame and which drives each of the sewing units through a single power source, a power transmission member(203b) installed at each rear portion of the sewing units and which converts the rotational movement of the driving member into a movement for driving the rotation shaft of the sewing unit, an embroider frame installed onto the support frame where the article to be sewn is located and which moves in X-axis and Y-axis, an X-axis driving member installed in Y-axis direction of the embroider frame and which moves the frame in both X-axis and Y-axis direction, and a Y-axis driving member installed in X-axis direction of the embroider frame and which moves the frame in both X-axis and Y-axis direction.

Description

Multi head pattern sewing machine

The present invention relates to a multi-head pattern sewing machine, and in particular, by mounting a plurality of heads in one support frame, unified driving control accordingly, to improve the work process and productivity, and also to work pattern sewing and embroidery in one sewing machine One or two pattern sewing machine.

As shown in FIG. 1, a sewing machine according to the prior art is generally powered by a motor. Such a sewing machine is driven by transmitting the rotation of the motor to the shaft of the sewing machine by the pulley and the belt to rotate the sewing machine shaft.

1, the sewing machine includes a needle bar having a sewing machine 1, a spindle rotating pulley 3 formed at the rear end of the sewing machine 1, and a needle 4 installed at the front end of the sewing machine 1; (5), a work table 9 disposed below the sewing machine 1, a sewing machine driving motor 2 provided below the work table 9, and a rear end of the motor 2; It is largely composed of a drive pulley and a belt (6) for rotating the main shaft rotating pulley of the sewing machine.

First, the sewing method is to place the object to be sewn on the needle plate (9) that is the workbench, and when driving the sewing machine drive motor (2), the needle bar (5) is driven up and down while the sewing machine shaft is rotated by the drive pulley Done. When the needle bar 5 is driven up and down, the needle 4 of the needle bar 5 and the shuttle under the needle plate are organically engaged with each other, so that the upper thread and the lower thread are entangled with respect to the sewing material.

Sewing machine (1) is basically made of a principle to make a single sweat by weaving the lower thread and the upper thread by a shuttle, industrial use is to speed up the rotation and give firmness. Because ready-to-wear clothes must be manufactured for a large number of unspecified consumers, designs are produced in various ways according to fashion, season, and consumption class, and complex patterns require high quality sewing technology. In other words, sewing on curves of shoes, bags, jeans, etc., or when attaching a trademark mark requires the establishment of a high level of sewing technology and securing skilled workers, which is an essential requirement for product productivity and quality uniformity. However, with the gradual decrease in sewing skills, wage increases eventually led to the automation of sewing machines. Accordingly, pattern sewing machines were developed. The operation of the pattern sewing machines is as follows.

First, as shown in FIG. 2, the object to be sewn is placed on the lower feed plate 103 of the needle plate 104, and then the desired box is determined by operating the operation box 105. Then, when the feed plate descends the pedal 107, the upper feed plate 102 is lowered to catch the sewing object. When holding the sewing object and pressing the start pedal 108, the sewing machine spindle is driven by the driving motor according to the preset sewing data, and the needle bar linked with the sewing machine spindle is driven up and down together with the needle. At the same time, the X-axis and Y-axis feed mechanisms are also transferred in the X-axis direction and the Y-axis direction according to the sewing data to execute the desired pattern sewing.

In more detail, the X-axis and Y-axis feed mechanism, the X-axis driving motor (not shown) is installed on one side of the needle plate 104, the gear is installed at the end of the rotating shaft of the motor, the gear The timing belt is installed to be engaged with and is connected to the rear end of the timing belt and one side of the feed plate 102, thereby moving the feed plate in the X-axis direction by the rotation of the timing belt. In addition, a Y-axis drive motor (not shown in the drawing) is installed inside the main body of the sewing machine, a gear is installed at an end of the rotating shaft of the motor, and a timing belt is installed to engage the gear, and one side of the timing belt. The feed shaft 102 is fixed to the moving shaft in the Y direction parallel to the main shaft, and the feed plate 102 is connected to the front end of the moving shaft in the Y direction, thereby moving the feed plate in the Y axis direction by the rotation of the timing belt. At this time, the guide shaft extending in the X direction is provided at the front end of the moving shaft in the Y direction, so that the fixed part of the feed plate slides in the X axis direction along the guide axis and simultaneously moves in the Y axis direction.

On the other hand, the upper feed plate 102 of the pattern sewing machine is a patternable area is set in advance, the pattern is made only in the space. Such a conventional pattern sewing machine 101 can only be limited to a limited amount of work, because only one by one when sewing a large number of sewing objects during the sewing operation process can be done only one by one, and also requires a separate worker each As a result, there is a drawback of not only spending labor costs but also raising costs.

In addition, a patternable space, that is, a pattern space area of the upper feed plate 102 is set in advance, so that the pattern work is performed only in the space area, so a separate embroidery machine should be used during general embroidery work. For this reason, there is a problem in that an economic burden and a work space must be secured to purchase a separate high-priced embroidery machine during embroidery work.

In the figure, reference numeral 105 denotes an operation box, 106 denotes a private stand, 109 denotes a manual pedal, 110 denotes a power switch, and 111 denotes a control box, respectively.

Accordingly, an object of the present invention is to devise to solve the above problems, by mounting a plurality of heads in one support frame, by unifying the drive control, thereby improving the work process and productivity, and also sewing patterns And to provide a multi-doe pattern sewing machine to work embroidery in one sewing machine.

The object of the present invention is a support frame and a plurality of pattern sewing machines which are fixed to the upper portion of the support frame, by using a shuttle and a needle which is mutually driven perpendicular to the sewing object to form a sweat with the upper thread and the lower thread, and the support It is disposed in the lower part of the frame, and the sewing machine main shaft driving means for driving each sewing machine with a single power source, respectively installed on the rear end of the sewing machine, and converts the rotational movement of the sewing machine main shaft driving means to the rotary shaft driving motion in the sewing machine And a power transmission means to be installed on the upper surface of the support frame in which the sewing object is located, the embroidery frame moving in both X and Y axes, and one side of the embroidery frame in the Y axis direction. And X-axis driving means for moving the X axis direction and the Y axis direction, and one side of the embroidery frame in the X axis direction. And is provided by the Y-axis driving means for moving the embroidery frame in the Y-axis direction and simultaneously moving the embroidery frame in the X-axis direction.

The sewing machine spindle drive means is composed of a sewing machine spindle motor fixed to one side of the support frame, a timing belt connected to one side of the rotating shaft of the sewing machine spindle motor, and a connecting body connected to the other side of the timing belt to rotate the spindle.

The power transmission means, the main shaft is rotatably installed on the rear upper surface of the support frame, the worm gear box is fixed to the circumferential axis of the rear end of each sewing machine, and the worm gear box is installed in the worm gear box to change the rotational movement of the main shaft It consists of a worm gear for rotating the rotating shaft in the sewing machine.

Removably coupling a plurality of auxiliary frame consisting of the upper plate and the lower plate on the upper surface of the embroidery frame, the upper plate is rotated on one side end of the auxiliary frame is characterized in that the hinge is installed, the auxiliary portion at the front end of the auxiliary frame A pressing member for pressing and fixing the lower plate of the frame is installed, and a fixing member for fixing the upper plate is installed at one side of the auxiliary frame.

The X-axis driving means, an X-axis pulse motor mounted to one side of the support frame, a timing belt connected to the rotation axis of the X-axis pulse motor to rotate in the X-axis direction, and a bracket fixed to one side of the timing belt and A bearing block fixed to the bracket and moving in parallel with the timing belt along the rotation of the timing belt; an X-axis guide rail formed in the X-axis direction on the lower surface of the bearing block to guide the movement of the bearing block; and the bearing block. And an X-axis moving member fixed between the Y-axis side of the embroidery frame and moving the embroidery frame in the X-axis direction according to the movement of the bearing block, and installed on one side of the X-axis moving member in contact with the embroidery frame. It is composed of a bearing to be able to slide in the Y-axis direction.

The Y-axis driving means is a Y-axis pulse motor mounted to the rear side of the support frame, a plurality of timing belt connected to the rotation axis of the Y-axis pulse motor to rotate in the Y-axis direction, and fixed to one side of the timing belt A bracket, a bearing block fixed to the bracket and moving in parallel with the timing belt along the rotation of the timing belt, and a Y-axis guide rail formed in the Y-axis direction on the lower surface of the bearing block to guide the movement of the bearing block; It is installed between the bearing block and the X-axis side of the embroidery frame is composed of a bearing to move the embroidery frame in the Y-axis direction and to slide in the X-axis direction in accordance with the movement of the bearing block.

1 is a perspective view showing a general electric sewing machine.

Figure 2 is a perspective view showing a guillotine pattern sewing machine according to the prior art.

Figure 3 is a front view showing a multi-head pattern sewing machine according to the present invention.

Figure 4 is a plan view showing a multi-head pattern sewing machine according to the present invention.

Figure 5 is a side view showing a multi-head pattern sewing machine according to the present invention.

Figure 6 is a plan view showing the X, Y axis feed means of the multi-head pattern sewing machine according to the present invention.

7 is a plan view showing a power transmission means of a multi-head pattern sewing machine according to the present invention.

Figure 8 is a cross-sectional view showing a state viewed from the side of the X-axis feed means of the multi-head pattern sewing machine according to the present invention.

9 is a cross-sectional view showing a state in which the X, Y axis feed means of the multi-head pattern sewing machine according to the present invention.

10 is a cross-sectional view showing a state viewed from the side of the Y-axis feed means of the multi-head pattern sewing machine according to the present invention.

FIG. 11 is an enlarged view of a portion 'A' of FIG. 9;

12 is a plan view showing a mold plate of the multihead pattern sewing machine according to the present invention.

Figure 13 is a cross-sectional view showing a state of the mold plate of the multi-head pattern sewing machine according to the present invention from the side.

14A to 14C are plan and side cross-sectional views showing a fixing hook and a fixing protrusion of a mold plate according to the present invention.

(Explanation of symbols for the main parts of the drawing)

201; Sewing machine 203; Sewing machine spindle motor

203a; Linkage 203b; Timing belt

203c; Spindle 204; Embroidery frame

204a; Auxiliary frame 205a; X-axis pulse motor

205c; Timing belts 205c and 206f; Brackets

205f, 206d; Bearing block 206; Y-axis pulse motor

206b; Timing belt 208; Control box

Hereinafter, a multi-head pattern sewing machine according to the present invention will be described according to the embodiment shown in the accompanying drawings. This embodiment is only illustrative for the purpose of understanding and is not intended to limit the invention.

Figure 3 is a front view showing a multi-head pattern sewing machine according to the present invention, Figure 4 is a plan view showing a multi-head pattern sewing machine according to the present invention, Figure 5 is a side view showing a multi-head pattern sewing machine according to the present invention, respectively As described above, the multi-head pattern sewing machine according to the present invention is fixed to the support frame 200 and the support frame 200, and employs a shuttle and a needle that are mutually driven perpendicular to the sewing object to sweat with upper and lower threads. A plurality of pattern sewing machine 201 to form a, a private stand 209 formed to protrude on the top of the sewing machine 201, and the work switch 210 is installed on the front side of the sewing machine 201 to operate the sewing machine 210 And an emergency stop switch 211 installed at one edge of the support frame 200 to stop all operations of the multi-head pattern sewing machine in an emergency, and a lower portion of the support frame 200. A timing belt 203b disposed at one side of the sewing machine spindle motor 203, which is a sewing machine spindle drive means for driving the respective sewing machines with one power source, and a rotation shaft of the sewing machine spindle motor 203, and the timing belt. A connecting body 203a connected to the other side of the 203b and rotating the main shaft 203c (see FIG. 7) of the upper surface of the support frame, and respectively installed at the rear end of the sewing machine 201, and rotating the main shaft. A worm gear box 202, which is a power transmission means fixed to a main shaft circumference of each sewing machine rear end, to be converted into a rotating shaft driving motion in the sewing machine, is installed in the worm gear box 202, and converts the rotational motion of the main shaft into a rotating shaft in the sewing machine. The worm gear 202a (see FIG. 7) for rotating the shaft, an embroidery frame 204 installed on the upper surface of the support frame on which the sewing object is located, and moving in both X and Y axes, and the embroidery frame ( 204) is provided on one side in the Y-axis direction, the X-axis driving means for moving the embroidery frame in the X-axis direction and at the same time in the Y-axis direction, and installed on one side in the X-axis direction of the embroidery frame. Y-axis driving means for moving the embroidery frame 204 in the Y-axis direction and at the same time in the X-axis direction, and disposed on the lower side of the support frame to the pattern sewing frame and X, Y-axis driving means Control box 208 to control, and the operation box 207 is installed on top of the support frame and connected to the control box wired to input the pattern for operating the sewing machine.

The configuration of the rotating shaft of the pattern sewing machine and the rod material in which the needle is driven up and down in accordance with the rotation of the rotating shaft are the same as the conventional single head pattern sewing machine, and thus will be omitted.

Figure 6 is a plan view showing the X, Y axis transfer means of the multi-head pattern sewing machine according to the present invention, Figure 7 is a plan view showing a power transmission means of the multi-head pattern sewing machine according to the present invention, Figure 8 is a multi-head pattern according to the present invention 9 is a cross-sectional view showing a state of the X-axis feed means of the sewing machine viewed from the side, FIG. 9 is a cross-sectional view showing a state of the X, Y-axis feed means of the multi-head pattern sewing machine according to the present invention, and FIG. It is sectional drawing which shows the state which looked at the Y-axis feed means of a multi-head pattern sewing machine, and FIG. 11 is the enlarged view of the "A" part of FIG.

As shown, the X-axis driving means of the multi-head pattern sewing machine according to the present invention is connected to the X-axis pulse motor 205a and the X-axis pulse motor 205a which are mounted in one side end of the support frame in the Y-axis direction. Rotating shaft 205b extending, a gear formed at the end of the rotating shaft 205b, a timing belt 205c engaged with the gear and rotating in the X-axis direction, and rotatable at the other end of the timing belt 205c. A pulley 205d and a bracket 206f fixed to the middle side of the timing belt 205c, and a timing fixed along the rotation of the timing belt fixed to the bracket 206f. A bearing block 206d moving in parallel with the belt, a guide block 206g formed below the bearing block 206d, and a lower surface of the guide block 206g are formed in the X-axis direction to guide the movement of the bearing block. X-axis guide wheel An X-axis moving member 205i fixed between the work 205h and the Y-axis side of the bearing block 206d and the embroidery frame 204 to move the embroidery frame in the X-axis direction according to the movement of the bearing block; And a bearing 205i-2 (see FIG. 11) installed at one side of the X-axis moving member 205i in contact with the embroidery frame to enable the embroidery frame to slide in the Y-axis direction.

The bearing 205i-2 has two bearings arranged in a horizontal direction so that a part of the Y-axis side of the embroidery frame can be fitted therebetween.

The Y-axis driving means may include a Y-axis pulse motor 206a mounted at a rear center side of the support frame, a rotation shaft connected to the Y-axis pulse motor, and extending laterally, and both ends of the rotation shaft. A gear formed respectively, a timing belt 206b engaged with the gear and rotating in the Y-axis direction, a pulley 206c rotatably installed at the other end of the timing belt to rewind the timing belt, and A bracket 206f fixed to one side of the timing belt, a bearing block 206d fixed to the side of the bracket and moving in parallel with the timing belt along the rotation of the timing belt, and Y on the lower surface of the bearing block 206d. A Y-axis guide rail 206e formed in the axial direction to guide the movement of the bearing block, and installed between the bearing block and the X-axis side of the embroidery frame to move the embroidery block according to the movement of the bearing block. It is composed of a bearing (206d-1) (see Fig. 10) to move the in the Y-axis direction and to slide in the X-axis direction.

The bearing (206d-1) is characterized in that the two bearings are arranged in the vertical direction so that a part of the X-axis side of the embroidery frame can be fitted therebetween.

Figure 12 is a plan view showing a mold plate of a multi-head pattern sewing machine according to the present invention, Figure 13 is a cross-sectional view showing a state of the mold plate of a multi-head pattern sewing machine according to the present invention, Figures 14a to 14c is a 14A is a plan view showing the fixing hook, FIG. 14B is a front view showing the fixing hook, and FIG. 14C is a side cross-sectional view showing a state in which the fixing hook is coupled to the fixing protrusion. It is seen.

As shown in this, a plurality of auxiliary frame 204a consisting of a top plate and a bottom plate detachably coupled to the upper surface of the embroidery frame 204 of the pattern sewing machine, the upper plate is rotated on one side end of the auxiliary frame to move the hinge ( 204a-1).

A pressing member 204a-2 is installed at the distal end of the auxiliary frame 204a to press and fix the lower plate of the auxiliary frame, and a fixing member is installed at one side of the auxiliary frame.

The pressing member 204a-2 has a fixing part which directly presses and fixes the lower plate 204a-3 (see FIG. 14C), and is pressed by the user by being hingedly connected to the fixing part to press the fixing part based on the principle of a lever. Consists of a pressing portion, the fixing member is a fixing protrusion (204c-2) formed to protrude on one side of the lower plate, and when the upper plate (204a-4) is covered on the lower plate through the fixing projections to protrude over the upper plate It is formed of a through hole formed on one side, and a fixing hook 204c-1 attached to near the through hole of the upper plate to hold and fix the fixing protrusion protruding through the through hole.

The fixing hook 2004c-1 is formed to slide the inside of the bracket fixed to the upper plate, and the fixed hook is pushed into the fixing protrusion to fix the hook.

The operational effect of the multi-head pattern sewing machine according to the present invention configured as described above will be described.

First, referring to the rotational relationship of the main shaft of the sewing machine, the driving source for rotating the main shaft 203c of the sewing machine is the sewing machine spindle motor 203 provided at the lower end of the sewing machine support frame. When the sewing machine spindle motor 203 is driven, the timing belt 203b rotates, and when the timing belt 203b rotates, the connecting body 203a installed on one side of the main shaft rotates, so that the connecting body rotates. In this case, the main shaft 203c axially connected to the connecting member rotates.

As such, when the main shaft rotates, the worm gear 202a in the worm gear box 202 connected to the main shaft rotates. When the worm gear rotates, the rotary shaft in the sewing machine connected to the worm gear rotates. The camshaft provided at the front end rotates to drive the needle bar mounted at the lower end of the camshaft up and down. A plurality of sewing machines 201 installed on the upper portion of the support frame is simultaneously driven in this manner.

Patterning the sewing object is as follows.

First, the sewing object is spread flat on the embroidery frame 204 or the auxiliary frame 204a, and then, in the case of the embroidery frame fixedly supported by a frame clip (not shown), in the case of the auxiliary frame 204a The top and bottom plates of the auxiliary frame are overlapped and fixed. In the case of the auxiliary frame, the upper plate connected by the hinge (204a-1) in the state fixed to the embroidery frame, put the sewing object on the lower plate and close the upper plate, the pressing member (204a-2) so that the upper plate and the lower plate closely fixed Pressurized by

When the user presses the pressing part of the pressing member, the pressing part and the hinged fixing part are pressed down by the lever principle, so that the fixed shaft formed at the end of the fixing part presses and fixes the lower plate of the auxiliary frame 204a.

When the upper plate is covered while the lower plate is fixed, the fixing protrusions 204c-2 formed on the lower plate protrude out of the upper plate through the through holes of the upper plate, and the fixed fixing protrusion is installed on one side of the upper plate. The upper and lower plates are held in close contact by gripping using the hooks 204c-1.

When the above operation is completed, the operator operates the operation box 207 to select the desired pattern sewing, and then turn on the job switch to sew the pattern.

At this time, the X-axis driving means moves the embroidery frame 204 in the X-axis direction based on the X-axis sewing data. That is, when the X-axis pulse motor 205a drives the rotating shaft according to the X-axis sewing data, the rotating shaft rotates the timing belt 205c in the X-axis direction, and the timing belt is X through the bracket 205e. The embroidery frame 204 is moved by driving the shaft moving member 205i. At this time, the timing belt drives the bearing block 205f connected to the bracket, and the bearing block allows the guide block 205g on the lower surface of the bearing block to move along the guide rail 205h, so that the embroidery frame moves naturally.

Since the embroidery frame is fixed on the X-axis moving member 205i fixed to one side of the bearing block, it is possible to move the embroidery frame in the X-axis direction and at the same time move in the X-axis direction and also in the Y-axis direction. Install the bearing in the horizontal direction on the X-axis moving member.

On the other hand, the Y-axis driving means is Y-axis pulse motor 206a is driven to rotate in accordance with the Y-axis sewing data, the timing belt 206b is wound in the Y-axis direction, respectively, on the rotary shafts on both sides of the Y-axis pulse motor, the end of the pulley 206c is provided so that the timing belt rotates and is driven by the rotation of the Y-axis pulse motor. A bracket 206f is fixedly attached to a predetermined portion of the timing belt, and an embroidery frame is connected to the bracket so that the embroidery frame is moved in the Y-axis direction by the rotation of the timing belt. The embroidery frame 204 is stable and balanced because the bearing block connected to the bracket of the timing belt moves along the guide rail 206e formed in the Y-axis direction. Also, like the X-axis moving member, a bearing is installed on the upper surface of the bearing block so that the embroidery frame can move in the Y-axis direction and move in the X-axis direction.

As described above, the multi-head pattern sewing machine according to the present invention is fixed to the support frame, the upper part of the support frame, employing a shuttle and a needle which is mutually driven perpendicular to the sewing object to form a sweat with the upper thread and the lower thread Two pattern sewing machines, a lower part of the support frame, a sewing machine main shaft driving means for driving each of the sewing machines with a single power source, and a rear end of the sewing machine, respectively, to rotate the sewing machine main shaft driving means. Power transmission means for converting the rotary shaft drive movement in the sewing machine, the upper surface of the support frame in which the sewing object is located, the embroidery frame moving in both X-axis and Y-axis direction, one in the Y-axis direction of the embroidery frame An X-axis driving means installed at the side and moving the embroidery frame in the X-axis direction and moving in the Y-axis direction; It is installed on one side of the embroidery frame in the X-axis direction, consisting of the Y-axis drive means for moving the embroidery frame in the Y-axis direction and at the same time move in the X-axis direction, more than four times the amount of work of the existing pattern sewing machine In addition, if the auxiliary frame is separated from the embroidery frame according to the needs of the work, it can be converted from the general pattern work to the embroidery work of a wide area, and it is not only convenient to use, but also each embroidery machine or sewing machine required for the work Since there is no need to provide a manufacturing cost can be reduced, there is an effect of minimizing the space constraint of the sewing production line.

Claims (7)

Support frame, A plurality of pattern sewing machines which are fixed to the upper part of the support frame and form a sweat with upper and lower threads by adopting shuttles and needles which are mutually driven perpendicular to the sewing object; A sewing machine main shaft driving means which is disposed under the support frame and drives each of the sewing machines with one power source; Installed on the rear end of the sewing machine, the power transmission means for converting the rotational motion of the main shaft driving means of the sewing machine into the rotational axis driving motion in the sewing machine; It is installed on the upper surface of the support frame in which the sewing object is located, and the embroidery frame to move in both X-axis and Y-axis direction, An X-axis driving means installed at one side of the embroidery frame in the Y-axis direction to move the embroidery frame in the X-axis direction and to move in the Y-axis direction; It is provided on one side of the embroidery frame in the X-axis direction, the multi-head pattern sewing machine comprising a Y-axis drive means for moving the embroidery frame in the Y-axis direction and at the same time movable in the X-axis direction. According to claim 1, The sewing machine spindle drive means is a sewing machine spindle motor fixed to the lower side of the support frame, a timing belt one side is connected to the rotating shaft of the sewing machine spindle motor, and is connected to the other side of the timing belt to rotate the main shaft A multi-head pattern sewing machine, characterized in that consisting of a connecting body. According to claim 1, The power transmission means, the main shaft rotatably installed on the rear upper surface of the support frame, the worm gear box fixed to the circumferential axis of the rear end of each sewing machine, and the worm gear box is installed in the worm gear box A multi-head pattern sewing machine, comprising: a worm gear that rotates a rotating shaft in a sewing machine by converting an axis of rotation. The multi-head pattern of claim 1, wherein a plurality of auxiliary frames including upper and lower plates are detachably coupled to an upper surface of the embroidery frame, and a hinge is installed at one end of the auxiliary frame, the upper plate being pivoted. Sewing machine. The multi-head pattern sewing machine according to claim 4, wherein a pressing member for pressing and fixing the lower plate of the auxiliary frame is installed at the front end of the auxiliary frame, and a fixing member for fixing the top plate is installed at one side of the auxiliary frame. According to claim 1, wherein the X-axis driving means, the X-axis pulse motor mounted on one side of the support frame, a timing belt connected to the rotation axis of the X-axis pulse motor to rotate in the X-axis direction, and the timing belt A bracket fixed to one side, a bearing block fixed to the bracket and moving in parallel with the timing belt along the rotation of the timing belt, and an X axis guide formed in the X axis direction on the lower surface of the bearing block to guide the movement of the bearing block. An X-axis moving member fixed between a rail, the bearing block and the Y-axis side of the embroidery frame to move the embroidery frame in the X-axis direction according to the movement of the bearing block, and one side of the X-axis moving member in contact with the embroidery frame Is installed in the multi-head pattern sewing machine, characterized in that consisting of a bearing for sliding the embroidery frame in the Y-axis direction. According to claim 1, wherein the Y-axis drive means, a Y-axis pulse motor mounted on the rear side of the support frame, a timing belt connected to a plurality of rotation shafts of the Y-axis pulse motor to rotate in the Y-axis direction, and A bracket fixed to one side of the timing belt, a bearing block fixed to the bracket and moving in parallel with the timing belt along the rotation of the timing belt, and formed in the Y-axis direction on the lower surface of the bearing block to guide the movement of the bearing block. Y-axis guide rail and the bearing block is installed between the X-axis side of the embroidery frame to move the embroidery frame in the Y-axis direction along with the movement of the bearing block, characterized in that consisting of the sliding to the X-axis direction Multi-head pattern sewing machine.