阅读说明：本技术 一种玻璃加工机及其工作方法 (Glass processing machine and working method thereof ) 是由 袁圳伟 左选兰 杨良易 于 2021-08-09 设计创作，主要内容包括：本发明提供了一种玻璃加工机及其工作方法,该玻璃加工机包括加工平台、多个Y向牵引组件、多个90度转向组件和电主轴组件；加工平台用于承载玻璃；多个Y向牵引组件并排排列于加工平台上；多个90度转向组件分别与相邻的Y向牵引组件连接；电主轴组件与多个Y向牵引组件连接,电主轴组件用于在多个Y向牵引组件的牵引下沿Y向运动,以加工玻璃。本发明的玻璃加工机通过多个90度转向组件把多个Y向牵引组件的旋转运动串联起来,形成同步运动,以确保玻璃加工机长时间运行的稳定性。(The invention provides a glass processing machine and a working method thereof, wherein the glass processing machine comprises a processing platform, a plurality of Y-direction traction assemblies, a plurality of 90-degree steering assemblies and an electric main shaft assembly; the processing platform is used for bearing glass; the plurality of Y-direction traction assemblies are arranged on the processing platform side by side; the 90-degree steering assemblies are respectively connected with the adjacent Y-direction traction assemblies; the electric spindle assembly is connected with the plurality of Y-direction traction assemblies and is used for moving along the Y direction under the traction of the plurality of Y-direction traction assemblies so as to process glass. The glass processing machine of the invention connects the rotary motion of a plurality of Y-direction traction assemblies in series through a plurality of 90-degree steering assemblies to form synchronous motion so as to ensure the stability of the glass processing machine in long-time operation.)

1. A glass processing machine, comprising:

the processing platform is used for bearing glass;

the Y-direction traction assemblies are arranged on the processing platform side by side;

the 90-degree steering assemblies are respectively connected with the adjacent Y-direction traction assemblies;

and the electric spindle assembly is connected with the plurality of Y-direction traction assemblies and is used for moving along the Y direction under the traction of the plurality of Y-direction traction assemblies so as to process the glass.

2. The glass processing machine of claim 1, wherein the Y-direction draw assembly comprises a Y-direction motor, a Y-direction slide rail, a Y-direction lead screw, and a Y-direction slide block, the Y-direction motor and the Y-direction slide rail are disposed on the processing platform, the Y-direction lead screw is connected to an output end of the Y-direction motor, the Y-direction slide block is in threaded connection with the Y-direction lead screw and is in sliding connection with the Y-direction slide rail, and the electric spindle assembly is connected to the Y-direction slide block.

3. The glass processing machine of claim 1, wherein the 90 degree steering assembly comprises a 90 degree steering gear and connecting shafts, the 90 degree steering gear being connected to the Y-draw assembly, the connecting shafts respectively connecting adjacent ones of the 90 degree steering gears.

4. The glass processing machine of claim 1, further comprising an X-draw assembly coupled perpendicularly to the Y-draw assembly; the X is to drawing the subassembly and including X support, X to motor, X to slide rail, X to lead screw and X to the slider, the X support with a plurality of Y are to drawing the subassembly and connecting, X to the motor with X is to the slide rail setting on the X support, X to the lead screw with X is to the output connection of motor, X to the slider with X is to lead screw threaded connection, and with X is to slide rail sliding connection, electric main shaft assembly with X is to the slider connection, electric main shaft assembly is used for X is to the drawing of slider down along X to the motion to glass processing.

5. The glass processing machine of claim 4, wherein the X-direction drawing assembly further comprises a rotating pin and an adjusting screw, the rotating pin sequentially penetrates through the X-support and the Y-direction drawing assembly from one end, and the adjusting screw penetrates through the Y-direction drawing assembly from the other end and is in threaded connection with the X-support; when the adjusting screw pulls the X support, the X support rotates relative to the Y-direction traction assembly by taking the rotating pin as a rotating shaft.

6. The glass processing machine of claim 1, wherein the electric spindle assembly comprises an electric spindle 1 and an electric spindle 2, the electric spindle 1 and the electric spindle 2 are respectively connected with the Y-direction traction assembly, and the rotation speed of the first electric spindle is greater than that of the second electric spindle.

7. The glass processing machine of claim 1, wherein the motorized spindle assembly includes a Z-mount, a Z-motor, Z-slides, a Z-lead screw, a Z-slide, and a work motor, the Z-mount is coupled to the plurality of Y-draw assemblies, the Z-motor and the Z-slides are disposed on the Z-mount, the Z-lead screw is coupled to an output of the Z-motor, the Z-slide is threadably coupled to the Z-lead screw and slidably coupled to the Z-slides, the work motor is coupled to the Z-slide, and the work motor is configured to move in the Z-direction under the draw of the Z-slide to process glass.

8. The glass processing machine of claim 1, further comprising a tool magazine assembly coupled to the processing platform; the tool magazine component comprises a tool magazine seat, a push-pull air cylinder and a mask, the tool magazine seat is connected with the machining platform, the tool magazine seat is used for bearing a tool, the push-pull air cylinder is arranged on the tool magazine seat, the mask is connected with the output end of the push-pull air cylinder, and the tool magazine seat is covered with the mask.

9. The glass processing machine of claim 1, further comprising a water purification tank positioned below the outlet opening of the processing platform, the water purification tank configured to purify the cooling fluid of the processing platform.

10. A method of operating a glass processing machine as claimed in any of claims 1 to 9, comprising:

the processing platform bears and fixes the glass;

the plurality of Y-direction traction assemblies are started simultaneously, the electric spindle assembly is pushed to move to the position, needing to be processed, of the glass along the Y direction, and the plurality of 90-degree steering assemblies rotate simultaneously;

the electric spindle assembly processes the glass.

Technical Field

The invention relates to the technical field of glass processing machines, in particular to a glass processing machine and a working method thereof.

Background

The traditional glass edge grinding machine has small processing overall dimension, and adopts a gantry structure which moves during working. When the gantry machine tool with the structure is used when the overall size of the glass is large, the overall size of the machine tool becomes large, the floor area of the machine tool is large, and therefore land use cost of manufacturers and customers is increased. In addition, after the external dimension of the machine tool is increased, a plurality of guide mechanisms are required to be used for driving at the same time, and if the plurality of guide mechanisms cannot move synchronously, the stability of the glass edge grinding machine is reduced.

Disclosure of Invention

Based on the above, the invention provides a glass processing machine and a working method thereof, aiming at improving the stability of the glass processing machine.

According to a first aspect of the present invention, there is provided a glass processing machine comprising a processing platform, a plurality of Y-draw assemblies, a plurality of 90-degree steering assemblies, and an electric spindle assembly; the processing platform is used for bearing glass; the plurality of Y-direction traction assemblies are arranged on the processing platform side by side; the 90-degree steering assemblies are respectively connected with the adjacent Y-direction traction assemblies; the electric spindle assembly is connected with the plurality of Y-direction traction assemblies and is used for moving along the Y direction under the traction of the plurality of Y-direction traction assemblies so as to process glass.

Optionally, the Y-direction traction assembly includes a Y-direction motor, a Y-direction slide rail, a Y-direction lead screw and a Y-direction slider, the Y-direction motor and the Y-direction slide rail are disposed on the machining platform, the Y-direction lead screw is connected to an output end of the Y-direction motor, the Y-direction slider is in threaded connection with the Y-direction lead screw and is slidably connected to the Y-direction slide rail, and the electric spindle assembly is connected to the Y-direction slider.

Optionally, the 90-degree steering assembly comprises a 90-degree steering device and connecting shafts, the 90-degree steering device is connected with the Y-direction traction assembly, and the connecting shafts are respectively connected with the adjacent 90-degree steering devices.

Optionally, the glass processing machine further comprises an X-direction drawing assembly vertically connected to the Y-direction drawing assembly; the X-direction traction assembly comprises an X support, an X-direction motor, an X-direction sliding rail, an X-direction lead screw and an X-direction sliding block, the X support is connected with the plurality of Y-direction traction assemblies, the X-direction motor and the X-direction sliding rail are arranged on the X support, the X-direction lead screw is connected with the output end of the X-direction motor, the X-direction sliding block is in threaded connection with the X-direction lead screw and is in sliding connection with the X-direction sliding rail, the electric spindle assembly is connected with the X-direction sliding block, and the electric spindle assembly is used for moving along the X-direction under the traction of the X-direction sliding block to process glass.

Optionally, the X-direction traction assembly further comprises a rotating pin and an adjusting screw, the rotating pin sequentially penetrates through the X-support and the Y-direction traction assembly from one end, and the adjusting screw penetrates through the Y-direction traction assembly from the other end and is in threaded connection with the X-support; when the adjusting screw pulls the X support, the X support rotates relative to the Y-direction traction assembly by taking the rotating pin as a rotating shaft.

Optionally, the electric spindle assembly comprises an electric spindle 1 and an electric spindle 2, the electric spindle 1 and the electric spindle 2 are respectively connected with the Y-direction traction assembly, and the rotation speed of the electric spindle 1 is greater than that of the electric spindle 2.

Optionally, the electric spindle assembly comprises a Z support, a Z-direction motor, a Z-direction slide rail, a Z-direction lead screw, a Z-direction slider and a working motor, the Z support is connected with the plurality of Y-direction traction assemblies, the Z-direction motor and the Z-direction slide rail are arranged on the Z support, the Z-direction lead screw is connected with an output end of the Z-direction motor, the Z-direction slider is in threaded connection with the Z-direction lead screw and is in sliding connection with the Z-direction slide rail, the working motor is connected with the Z-direction slider, and the working motor is used for moving along the Z direction under the traction of the Z-direction slider so as to process glass.

Optionally, the glass processing machine further comprises a tool magazine assembly coupled to the processing platform; the tool magazine component comprises a tool magazine seat, a push-pull air cylinder and a mask, the tool magazine seat is connected with the processing platform, the tool magazine seat is used for bearing a tool, the push-pull air cylinder is arranged on the tool magazine seat, the mask is connected with the output end of the push-pull air cylinder, and the tool magazine seat is covered with the mask.

Optionally, the glass processing machine further comprises a clean water reservoir located below the outlet hole of the processing platform for cleaning the cooling liquid of the processing platform.

According to a second aspect of the invention, there is provided a method of operating a glass processing machine, the method comprising: the processing platform bears and fixes the glass; the plurality of Y-direction traction assemblies are started simultaneously, the electric spindle assembly is pushed to move to the position, needing to be processed, of the glass along the Y direction, and the plurality of 90-degree steering assemblies rotate simultaneously; the electric spindle assembly processes the glass.

In the present invention, a glass processing machine is provided that includes a processing platform, a plurality of Y-draw assemblies, a plurality of 90-degree steering assemblies, and an electric spindle assembly. The processing platform is used for bearing glass, the glass can be a glass sheet or heterosexual glass, and the glass can be fixed on the processing platform in an adsorption mode or can be fixed on the processing platform through a fixing buckle; the plurality of Y-direction traction assemblies are arranged on the processing platform side by side, and each Y-direction traction assembly is provided with an independent power source so as to ensure that each Y-direction traction assembly can independently and synchronously run and reduce running errors; the 90-degree steering assemblies are respectively connected with the adjacent Y-direction traction assemblies, and are used for transmitting the motion states of the adjacent Y-direction traction assemblies, so that the plurality of Y-direction traction assemblies can move synchronously in a mechanical mode; the electric spindle assembly is connected with the plurality of Y-direction traction assemblies and is used for moving along the Y direction under the traction of the plurality of Y-direction traction assemblies so as to process glass.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings needed to be used in the description of the embodiments are briefly introduced below, and it is obvious that the drawings in the following description are some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings based on these drawings without creative efforts.

FIG. 1 is a schematic view of a first perspective configuration of a glass processing machine according to the present invention;

FIG. 2 is a schematic view of a second perspective configuration of a glass processing machine according to the present invention;

FIG. 3 is a schematic cross-sectional view of a glass processing machine provided by the present invention;

FIG. 4 is an enlarged, fragmentary view of region A of FIG. 1 in accordance with the present invention;

FIG. 5 is an enlarged partial schematic view of region B of FIG. 2 in accordance with the present invention;

FIG. 6 is a schematic structural view of a tool magazine assembly provided by the present invention;

FIG. 7 is a schematic structural diagram of a clean water basin provided by the invention;

FIG. 8 is a flow chart of the operation of the glass processing machine of the present invention.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are some, not all, embodiments of the present invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

It is also to be understood that the terminology used in the description of the invention herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. As used in the specification of the present invention and the appended claims, the singular forms "a," "an," and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise.

It should be further understood that the term "and/or" as used in this specification and the appended claims refers to and includes any and all possible combinations of one or more of the associated listed items.

Referring to fig. 1 to 3, fig. 1 is a first perspective structural view of a glass processing machine 100 according to the present invention, fig. 2 is a second perspective structural view of the glass processing machine 100 according to the present invention, and fig. 3 is a cross-sectional view of the glass processing machine 100 according to the present invention.

The present invention provides a glass processing machine 100 comprising a processing platform 10, a plurality of Y-draw assemblies 20, a plurality of 90-degree steering assemblies 30, and an electric spindle assembly 40. The processing platform 10 is used for bearing glass, the glass can be a glass sheet or heterosexual glass, and the glass can be fixed on the processing platform 10 in an adsorption mode or fixed on the processing platform 10 through a fixing buckle; a plurality of Y-direction traction assemblies 20 are arranged side by side on the processing platform 10, the number of the Y-direction traction assemblies 20 shown in the figure is two, but the remaining number of the Y-direction traction assemblies 20 are also in the protective periphery, each Y-direction traction assembly 20 has an independent power source, so as to ensure that each Y-direction traction assembly 20 can independently and synchronously operate, and reduce the operation error; the 90-degree steering assemblies 30 are respectively connected with the adjacent Y-direction traction assemblies 20, and the 90-degree steering assemblies 30 are used for transmitting the motion states of the adjacent Y-direction traction assemblies 20 and mechanically ensuring that the plurality of Y-direction traction assemblies 20 can move synchronously; the electric spindle assembly 40 is connected with a plurality of Y-directional drawing assemblies 20, and the electric spindle assembly 40 is used for moving along the Y direction under the drawing of the plurality of Y-directional drawing assemblies 20 so as to process the glass.

In order to further understand the technical solutions mentioned above, the following description will be made in terms of specific implementation procedures, but the present application is not limited thereto. 1. Fixing the glass on the processing platform 10; 2. the plurality of Y-direction traction assemblies 20 are started simultaneously, the electric main shaft assembly 40 is pushed to move to the position where the glass needs to be processed along the Y direction, and the plurality of 90-degree steering assemblies 30 rotate simultaneously; 3. the electric spindle assembly 40 processes the glass.

The structure and operation of the glass processing machine 100 will be explained in detail below. In the following embodiments, reference is made to the X, Y and Z directions, wherein the X, Y and Z directions are similar coordinate systems X/Y/Z perpendicular to each other.

The processing platform 10 comprises a base 12 and a processing table 14, wherein the processing table 14 is arranged on the base 12, the base 12 is a basic frame and is also used for bearing components such as a Y-direction traction assembly 20, a 90-degree steering assembly 30, an electric spindle assembly 40 and the like, and the processing table 14 is in a flat state and is used for bearing glass.

The Y-direction traction assembly 20 comprises a Y-direction motor 22, a Y-direction slide rail 24, a Y-direction lead screw 26 and a Y-direction slider 28, the Y-direction motor 22 and the Y-direction slide rail 24 are arranged on the machining platform 10, the Y-direction lead screw 26 is connected with the output end of the Y-direction motor 22, the Y-direction slider 28 is in threaded connection with the Y-direction lead screw 26 and is in sliding connection with the Y-direction slide rail 24, and the electric spindle assembly 40 is connected with the Y-direction slider 28. The Y-direction motor 22 drives the Y-direction screw rod 26 to rotate, the Y-direction screw rod 26 pushes the Y-direction slide block 28 to move forward or backward under the guidance of the Y-direction slide rail 24, and the Y-direction slide block 28 drives the electric main shaft assembly 40 to move along the Y direction. Of course, the Y-direction traction assembly 20 can also use an air cylinder as a power source to push the Y-direction slider 28 to move, but the Y-direction motor 22 and the Y-direction lead screw 26 are matched with each other as a power source to have large thrust and higher movement precision, and can be parked at any position.

The 90-degree steering assembly 30 includes a 90-degree steering gear 32 and a connecting shaft 34, the 90-degree steering gear 32 is connected with the Y-direction traction assembly 20, and the connecting shaft 34 is respectively connected with adjacent 90-degree steering gears. A 90 degree diverter may translate a rotation in one direction into a rotation perpendicular to that direction. The 90-degree steering gear is composed of a plurality of conical wheels which are perpendicular to each other, and the conical wheels are meshed with each other for transmission, so that the transmission direction is changed. Of course, the 90-degree steering assembly 30 may further include a steering coupling 36, and the steering coupling 36 is connected to the 90-degree steering gear and the connecting shaft 34 respectively, so as to ensure the smoothness of the transmission.

The glass processing machine 100 further includes an X-draw assembly 50 coupled to the Y-draw assembly 20, the X-draw assembly 50 configured to move the electric spindle assembly 40 in an X-direction, the X-direction and the Y-direction being perpendicular to each other, thereby widening a range of movement of the electric spindle assembly 40 such that the electric spindle assembly 40 can move freely in a horizontal plane.

The X-direction traction assembly 50 comprises an X support 51, an X-direction motor 52, an X-direction slide rail 53, an X-direction screw rod 54 and an X-direction slide block 55, the X support 51 is connected with a plurality of Y-direction traction assemblies 20, the X-direction motor 52 and the X-direction slide rail 53 are arranged on the X support 51, the X-direction slide rail 53 is perpendicular to the Y-direction slide rail 24, the X-direction screw rod 54 is connected with the output end of the X-direction motor 52, the X-direction slide block 55 is in threaded connection with the X-direction screw rod 54 and is in sliding connection with the X-direction slide rail 53, the electric spindle assembly 40 is connected with the X-direction slide block 55, and the electric spindle assembly 40 is used for moving along the X direction under the traction of the X-direction slide block 55 so as to process glass. The X-direction motor 52 drives the X-direction screw rod 54 to rotate, the X-direction screw rod 54 pushes the X-direction slide block 55 to move forward or backward under the guidance of the X-direction slide rail 53, and the X-direction slide block 55 drives the electric main shaft assembly 40 to move along the X direction. Of course, the X-direction traction assembly 50 may also use an air cylinder as a power source to push the X-direction slider 55 to move, but the X-direction motor 52 and the X-direction lead screw 54 are matched with each other as a power source to have large thrust and higher movement precision, and can be parked at any position. The X-direction adjustment function of the X-direction traction assembly 50 can ensure that the working motor 48 actively moves in the X direction to process glass of different widths, and of course, the glass can be driven to move in the X direction by adjusting the processing platform 10 itself.

Referring to fig. 1 to 5, fig. 4 is a partially enlarged schematic view of a region a in fig. 1 according to the present invention, and fig. 5 is a partially enlarged schematic view of a region B in fig. 2 according to the present invention.

In order to ensure that the pulling direction of the X-direction pulling assembly 50 is perpendicular to the pulling direction of the Y-direction pulling assembly 20, the present invention also introduces a mechanism for position adjustment. Specifically, the X-direction traction assembly 50 further includes a rotation pin 56 and an adjustment screw 57, the rotation pin 56 sequentially penetrates through the X-bracket 51 and the Y-direction traction assembly 20 from one end, and the X-bracket 51 can rotate relative to the Y-direction traction assembly 20 with the rotation pin 56 as a rotation axis, so as to adjust the X-bracket 51 to be perpendicular to the Y-direction traction assembly 20. Specifically, the adjustment mode is that the adjustment screw 57 is threaded to the X bracket 51 from the other end of the adjustment screw 57 penetrating the Y-direction traction assembly 20, the adjustment screw 57 is rotated, the adjustment screw 57 pulls the X bracket 51, and when the adjustment screw 57 pulls the X bracket 51, the X bracket 51 rotates relative to the Y-direction traction assembly 20 with the rotation pin 56 as a rotation axis. Of course, the manner of pulling the X bracket 51 may be a direct push-pull manner, and the above embodiment may reduce the force used by the user by using a threaded rotation push-pull manner, and the precision of the push-pull is higher.

With continued reference to fig. 1-3, the electric spindle assembly 40 includes an electric spindle 1; 41 and the electric spindle 2; 43, the electric spindle 1; 41 and the electric spindle 2; 3 are respectively connected with a Y-direction traction assembly 20 and an electric spindle 1; 41 is higher than the electric spindle 2; 43, e.g. electric spindle 1; 41 can be 60000rpm, the clamped cutter is a small grinding head and is suitable for processing fragile thin glass, and the electric spindle 2; 43 can be 30000rpm, and the clamped cutter is a large grinding head and is suitable for processing thick glass with high hardness. An electric spindle 1; 41 and the electric spindle 2; 43 cooperate to precisely machine various types of glass.

An electric spindle 1; 41 and the electric spindle 2; 43, the specific structure is the same as or different from each other, and the following description does not refer to the electric spindle 1; 41 or the electric spindle 2; 43. the electric spindle assembly 40 includes a Z bracket 42, a Z motor 44, Z slide rails, a Z lead screw, a Z slider 46 and a work motor 48, the Z bracket 42 is connected to a plurality of Y traction assemblies 20, although in other embodiments the Z bracket 42 may be connected to an X traction assembly 50. The Z-direction motor 44 and the Z-direction slide rail are arranged on the Z support 42, the Z-direction screw rod is connected with the output end of the Z-direction motor 44, the Z-direction sliding block 46 is in threaded connection with the Z-direction screw rod and is in sliding connection with the Z-direction slide rail, the working motor 48 is connected with the Z-direction sliding block 46, the working motor 48 carries a cutter, and the working motor 48 is used for moving along the Z direction under the traction of the Z-direction sliding block 46 so as to machine glass. Of course, the Z-direction traction assembly can also use an air cylinder as a power source to push the Z-direction slider 46 to move, but the Z-direction motor 44 and the Z-direction screw rod are matched with each other as a power source, so that the thrust is large, the movement precision is higher, and any position can be parked. The Z adjustment function of the Z-direction traction assembly ensures that the work motor 48 actively moves in the Z direction to machine different depth marks on the glass, although the glass can be moved in the Z direction by adjustment of the machining platform 10 itself.

Referring to fig. 1 and 6, fig. 6 is a schematic structural diagram of a tool magazine assembly 60 according to the present invention.

The glass processing machine 100 further comprises a tool magazine assembly 60 connected to the processing platform 10, wherein various types of processing tools are placed in the tool magazine assembly 60, the electric spindle assembly 40 can move towards the tool magazine assembly 60 under the driving of the Y-direction traction assembly 20, the X-direction traction assembly 50 and the Z-direction motor 44 to clamp the tools from the tool magazine assembly 60, and the electric spindle assembly 40 can also move towards the tool magazine assembly 60 under the driving of the Y-direction traction assembly 20 and clamp the tools from the tool magazine assembly 60 under the lifting action of the processing platform 10. The tool magazine assembly 60 comprises a tool magazine base 62, a push-pull air cylinder 64 and a mask 66, the tool magazine base 62 is connected with the machining platform 10, the tool magazine base 62 is used for bearing tools, the push-pull air cylinder 64 is arranged on the tool magazine base 62, the mask 66 is connected with the output end of the push-pull air cylinder 64, and the tool magazine base 62 is covered. When the face guard 66 covers the tool magazine base 62, the tool and the push-pull cylinder 64 are covered in the face guard 66, so that the push-pull cylinder 64 and the tool are protected in the whole process, the push-pull cylinder 64 and the tool are kept clean, and the service lives of the push-pull cylinder 64 and the tool are prolonged.

Referring to fig. 1 and 7, fig. 7 is a schematic structural view of a clean water tank 70 according to the present invention.

Can spray the coolant liquid to the glass department of processing constantly at glass processing's in-process, one plays the effect of cooling, and another is to wash away the glass residue, and the coolant liquid flows from the apopore of processing platform 10. The glass processing machine 100 further comprises a clean water reservoir 70, wherein the clean water reservoir 70 is positioned below the water outlet hole of the processing platform 10, the cooling liquid is collected in the clean water reservoir 70, and the clean water reservoir 70 is used for purifying the cooling liquid of the processing platform 10.

Specifically, clean water basin 70 is including holding shell 72, first filter screen 74 and second filter screen 76, it has the cavity of depositing the coolant liquid to hold shell 72, first filter screen 74 and second filter screen 76 mutually perpendicular, first filter screen 74 is perpendicular with the direction of gravity, second filter screen 76 is parallel with the direction of gravity, the hole diameter of considering of first filter screen 74 is greater than the hole diameter of considering of second filter screen 76, first filter screen 74 is used for filtering large granule waste residue, second filter screen 76 is used for filtering the tiny particle waste residue, just can obtain the reutilization after first filter screen 74 and the filtration of second filter screen 76 in proper order.

Referring to fig. 8, fig. 8 is a flowchart illustrating a glass processing machine 100 according to the present invention.

The M101 processing platform 10 carries and holds the glass.

M102A plurality of Y-direction drawing assemblies 20 are started simultaneously, the electric main shaft assembly 40 is pushed to move to the position where the glass needs to be processed along the Y direction, and a plurality of 90-degree steering assemblies 30 are rotated simultaneously.

M103 the electric spindle assembly 40 processes the glass.

The processing method of the glass processing machine 100100 can be run with the glass processing machine 100100 of any of the above embodiments to process a particular product.

While the invention has been described with reference to specific embodiments, it will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims. Therefore, the protection scope of the present invention shall be subject to the protection scope of the claims.