CN111258270A - Aluminum profile machining center - Google Patents

Aluminum profile machining center Download PDF

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Publication number
CN111258270A
CN111258270A CN202010130381.0A CN202010130381A CN111258270A CN 111258270 A CN111258270 A CN 111258270A CN 202010130381 A CN202010130381 A CN 202010130381A CN 111258270 A CN111258270 A CN 111258270A
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CN
China
Prior art keywords
cutter
knife
unit
processing
heavy
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Granted
Application number
CN202010130381.0A
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Chinese (zh)
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CN111258270B (en
Inventor
王庆宏
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Guangzhou Deli Cnc Equipment Co ltd
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Guangzhou Deli Cnc Equipment Co ltd
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Priority to CN2020101032096 priority
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Publication of CN111258270A publication Critical patent/CN111258270A/en
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    • GPHYSICS
    • G05CONTROLLING; REGULATING
    • G05BCONTROL OR REGULATING SYSTEMS IN GENERAL; FUNCTIONAL ELEMENTS OF SUCH SYSTEMS; MONITORING OR TESTING ARRANGEMENTS FOR SUCH SYSTEMS OR ELEMENTS
    • G05B19/00Programme-control systems
    • G05B19/02Programme-control systems electric
    • G05B19/18Numerical control [NC], i.e. automatically operating machines, in particular machine tools, e.g. in a manufacturing environment, so as to execute positioning, movement or co-ordinated operations by means of programme data in numerical form
    • G05B19/406Numerical control [NC], i.e. automatically operating machines, in particular machine tools, e.g. in a manufacturing environment, so as to execute positioning, movement or co-ordinated operations by means of programme data in numerical form characterised by monitoring or safety
    • G05B19/4065Monitoring tool breakage, life or condition
    • GPHYSICS
    • G05CONTROLLING; REGULATING
    • G05BCONTROL OR REGULATING SYSTEMS IN GENERAL; FUNCTIONAL ELEMENTS OF SUCH SYSTEMS; MONITORING OR TESTING ARRANGEMENTS FOR SUCH SYSTEMS OR ELEMENTS
    • G05B2219/00Program-control systems
    • G05B2219/30Nc systems
    • G05B2219/37Measurements
    • G05B2219/37616Use same monitoring tools to monitor tool and workpiece

Abstract

The invention provides an aluminum profile machining center which comprises a base, a movable upright post mechanism, an automatic door, a control system and a chip removal machine, wherein the movable upright post mechanism is positioned on the base and is connected in a sliding manner, the automatic door is positioned right in front of the base and is installed in a sliding manner, and the chip removal machine is positioned below the base; the utility model discloses a portable automatic door, including removal stand mechanism, helping hand cylinder, motor, gear train output shaft, control system, mobile column mechanism installs disc type tool magazine and boosting cylinder, the boosting cylinder is in the left and right both sides of mobile column respectively install one, the dead ahead fixed mounting of base has and is used for automatically-controlled door driven rack, the motor adds the gear train and is located the automatically-controlled door, the gear of the gear train output shaft of automatically-controlled door with rack toothing, control system includes photographic unit, compares unit, cutter input unit and calls the unit.

Description

Aluminum profile machining center
Technical Field
The invention relates to the technical field of numerical control machine tools, in particular to an aluminum profile machining center.
Background
At present, in a large-stroke numerical control machining center, machining speed and machining precision are important indexes for testing one machine, the speed of a large-scale machining center on the market is generally not very high at present, and particularly, the machining centers adopting bamboo hat type and straight-line type tool magazines are subjected to factors such as volume, materials and structures, so that the machining speed of the large-scale CNC is slow, the machining precision and the machining speed of the large-scale numerical control machine are great difficulties in the field, and in the large-scale numerical control machine, a gantry type moving structure is the characteristics of the machine tool, compared with table-board movement, the size is smaller, too many places are not occupied, and the things with hard conditions cannot be changed in the aspect of improving the speed; to this end, the invention provides an aluminium profile machining center to at least partially solve the above problems.
Disclosure of Invention
In this summary, concepts in a simplified form are introduced that are further described in the detailed description section. This summary of the invention is not intended to identify key features or essential features of the claimed subject matter, nor is it intended to be used as an aid in determining the scope of the claimed subject matter.
In order to overcome the problems in the prior art, the invention provides an aluminum profile machining center which comprises a control system, wherein the control system comprises a photographing unit, a comparison unit, a cutter recording unit and a calling unit;
the device comprises a photographing unit, a processing center and a control unit, wherein the photographing unit is used for acquiring information of a to-be-processed product, photographing the to-be-processed product in the processing center to acquire size information and material information of the to-be-processed product, and calculating the preset chip falling quality of the processed product according to the size information and the material information;
the tool recording unit is used for storing information of tools and comprises material information, hardness information and machining precision information of each tool in the tool magazine; the cutter recording unit divides the cutter into a heavy cutter and a light cutter according to the cutter information; the cutter recording unit generates a heavy cutter processing matrix D1 and a light cutter processing matrix D2;
the calling unit introduces the addition which is formulated based on the size information of the to-be-processed product, the material information of the to-be-processed product, the heavy cutter processing matrix D1 and the light cutter processing matrix D2The calling unit generates a processing step matrix α (j n x y z T)xTyTzm0) In the matrix, j represents the using sequence, n represents the number of the heavy cutter, x represents the coordinate of the cutter in the x-axis direction when the cutter works, y represents the coordinate of the cutter in the y-axis direction when the cutter works, and z represents the coordinate of the cutter in the z-axis direction when the cutter works; t isxRepresenting the time, T, of machining of the tool in the x-axis directionyIndicating the time, T, of machining of the tool in the y-axis directionzRepresents the time of the tool to process in the z-axis direction, m0A predetermined chip drop mass for use with the tool;
the comparison unit is preset with a primary quality detection matrix β1(j m1) In the matrix, j represents the order of use, m1Representing a detected first real-time debris drop mass; after each heavy cutter finishes processing, the comparison unit detects the falling fragment quality, and the falling mass m of the fragments is determined in real time for the first time1And a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when first real time debris1Less than a predetermined chip drop mass m0The calling unit calls the corresponding light cutter to carry out secondary processing, the processing time of the secondary processing is a preset period, and the comparison unit generates a secondary quality detection matrix β2(jm2) In the matrix, j represents the order of use, m2Representing the second real-time debris drop quality detected by the comparison unit; mass m dropped when second real time debris2Greater than or equal to a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when second real time debris2Less than a predetermined chip drop mass m0The calling unit calls the light cutter to process a plurality of preset periods until the real-time chip falling quality is larger than or equal to the preset chip falling quality m0And when the light cutter stops machining, the calling unit calls the next heavy cutter to machine.
Further, the heavy-blade processing matrix is D1(n Y)nWnJn) The light knife processing matrix is D2(k Y)kWkJk) (ii) a In the matrix, n represents the number of heavy knife, YnDenotes the hardness grade, W, of the heavy knifenIndicates the kind of heavy knife, JnIndicating the precision grade of the heavy knife; k denotes the number of the light knife, YkDenotes hardness grade, W, of light knifekIndicates the kind of light knife, JkIndicating the precision grade of the light knife; the cutter input unit is provided with a preset precision J0Preset precision J0,JnLess than or equal to J0,JkGreater than J0
Furthermore, the aluminum profile machining center comprises a base, a movable upright post mechanism, an automatic door, the control system and a chip removal machine, wherein the movable upright post mechanism is positioned on the base and is in sliding connection, the automatic door is positioned right in front of the base and is installed in a sliding connection mode, and the chip removal machine is positioned below the base; the movable stand column mechanism is provided with a disc type tool magazine and a boosting cylinder, the boosting cylinder is arranged on the left side and the right side of the movable stand column respectively, a rack for driving the automatic door is fixedly arranged right ahead the base, the motor and the gear set are arranged in the automatic door, and a gear of a gear set output shaft of the automatic door is meshed with the rack.
Further, the comparison unit comprises a pressure sensor, the pressure sensor is arranged on the base, and the pressure sensor is used for detecting the falling quality of the debris.
Further, the comparison unit also comprises an error parameter delta m and a preset debris falling mass m0And subtracting an error parameter delta m from the total chip falling quality, wherein the error parameter delta m is determined by the installation position of the pressure sensor and the processing technology of the aluminum profile processing center.
Further, the photographing unit includes a photograph acquiring part, a photograph cutting part, and a photograph collating part; the photo collecting part comprises a camera and an auxiliary light source device; the camera is arranged on the automatic door, when the automatic door is closed, the camera starts to work, and the camera collects pictures of the to-be-processed product; the camera shooting unit further comprises a brightness sensor, the brightness sensor is arranged on the base and used for detecting real-time brightness L' near the to-be-processed product; the brightness sensor is electrically connected with the auxiliary light source equipment, the auxiliary light source equipment stores standard brightness L, and if the real-time brightness is smaller than the standard brightness L, the auxiliary light source equipment is turned on to ensure that the camera takes pictures under the premise of the standard brightness L.
Further, the photo cutting part cuts the photo to identify the position of the to-be-processed product to be cut; the photo comparison part is prestored with pictures of different materials, and compares the pictures cut out by the cutting part with the pictures prestored in sequence to identify the materials of the processed product; the preset chip drop mass is equal to the product of the material of the work and the cut-out volume of the work.
Further, when the heavy knife numbered n is in a use state, the tool magazine pushes the heavy knife or the light knife numbered n +1 into a region to be taken, when a current machining program is completed, the movable upright post mechanism moves to a coordinate position which is close to the tool magazine and is set in advance in a system, and at the moment, the knife beating manipulator of the tool magazine unloads the original knife and replaces the original knife with the heavy knife or the light knife in the region to be taken.
Further, the preset period is determined by the processing technology of the processed product, and the preset period is less than or equal to the minimum time required by the set of processing technology executed by the to-be-processed product.
Furthermore, the control system also comprises a preset processing time unit T0The working time of the cutter is preset processing time unit T0Integer multiples of; every KT0After the time, the photographing unit takes a picture again; the photo comparison part compares the size information acquired after updating with the size information before updating; if the size information before and after updating is the same, it is proved that the machining effect is not obvious, and at this time,and the shooting unit sends the acquired image information to a human-computer interaction interface on the control system so that working personnel can know the processing condition.
Compared with the prior art, the invention has the following advantages:
the invention provides an aluminum profile machining center, wherein a control system comprises a photographing unit, a comparison unit, a cutter input unit and a calling unit;
the processing method comprises the steps that a photographic unit obtains size information and material information of a to-be-processed product of a processing center by photographing the to-be-processed product, the photographic unit calculates preset chip falling quality of the to-be-processed product according to the size information and the material information, a cutter recording unit divides a cutter into a heavy cutter and a light cutter according to the cutter information, the cutter recording unit generates a heavy cutter processing matrix D1 and a light cutter processing matrix D2, a calling unit introduces a processing scheme based on the size information of the to-be-processed product, the material information of the to-be-processed product, the heavy cutter processing matrix D1 and the light cutter processing matrix D2, and the calling unit generates a processing step matrix α (j n x y z T2)xTyTzm0) The comparison unit is preset with a primary quality detection matrix β1(j m1) After each heavy cutter finishes processing, the comparison unit detects the falling fragment quality, and the falling mass m of the first real-time fragment is1And a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when first real time debris1Less than a predetermined chip drop mass m0The calling unit calls the corresponding light cutter to carry out secondary processing, and the comparison unit generates a secondary quality detection matrix β2(jm2) (ii) a Mass m dropped when second real time debris2Greater than or equal to a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when second real time debris2Less than a predetermined chip drop mass m0The calling unit calls the light cutter to process a plurality of preset periods until the light cutter is real-timeThe falling mass of the fragments is greater than or equal to the preset falling mass m of the fragments0And when the light cutter stops machining, the calling unit calls the next heavy cutter to machine.
Further, when the heavy knife numbered n is in a use state, the tool magazine pushes the heavy knife or the light knife numbered n +1 into a region to be taken, when a current machining program is completed, the movable upright post mechanism moves to a coordinate position which is close to the tool magazine and is set in advance in a system, and at the moment, the knife beating manipulator of the tool magazine unloads the original knife and replaces the original knife with the heavy knife or the light knife in the region to be taken.
Furthermore, the control system also comprises a preset processing time unit T0The working time of the cutter is preset processing time unit T0Integer multiples of; every KT0After the time, the photographing unit takes a picture again; the photo comparison part compares the size information acquired after updating with the size information before updating; and if the size information before and after updating is the same, the processing effect is proved to be unobvious, and at the moment, the image information acquired at the moment is sent to a human-computer interaction interface on the control system by the photographing unit, so that the working personnel can know the processing condition.
Drawings
In order that the advantages of the invention will be readily understood, a more particular description of the invention briefly described above will be rendered by reference to specific embodiments that are illustrated in the appended drawings. Understanding that these drawings depict only typical embodiments of the invention and are not therefore to be considered to be limiting of its scope, the invention will be described and explained with additional specificity and detail through the use of the accompanying drawings.
Fig. 1 is a schematic view of an overall structure of an embodiment of an aluminum profile machining center according to the present invention;
fig. 2 is a schematic structural diagram of a control system of the aluminum profile machining center according to the present invention.
Detailed Description
In the following description, numerous specific details are set forth in order to provide a more thorough understanding of the present invention. It will be apparent, however, to one skilled in the art, that embodiments of the invention may be practiced without one or more of these specific details. In other instances, well-known features have not been described in detail so as not to obscure the embodiments of the invention.
In the following description, a detailed structure will be presented for a thorough understanding of embodiments of the invention. It is apparent that the implementation of the embodiments of the present invention is not limited to the specific details familiar to those skilled in the art. The following detailed description of preferred embodiments of the invention, however, the invention is capable of other embodiments in addition to those detailed.
In the description of the present invention, the terms "inside", "outside", "longitudinal", "transverse", "upper", "lower", "top", "bottom", and the like indicate orientations or positional relationships based on those shown in the drawings, and are for convenience only to describe the present invention without requiring the present invention to be necessarily constructed and operated in a specific orientation, and thus, should not be construed as limiting the present invention.
Referring to fig. 1 and 2, the invention provides an aluminum profile machining center, wherein the machining center 1 is composed of a base 2, a movable upright post mechanism 3, an automatic door 4, a control system 5 and a chip removal machine 6, the movable upright post mechanism 3 is positioned on the base 2 and is in sliding connection, the automatic door 4 is positioned right in front of the base 2 and is installed in sliding connection, and the chip removal machine 6 is positioned below the base 2; the movable upright post mechanism 3 is provided with a disc type tool magazine 7 and a boosting cylinder 8, the boosting cylinder 8 is respectively provided with one on the left side and the right side of the movable upright post, a rack 9 used for driving the automatic door 4 is fixedly arranged right in front of the base 2, the motor and gear set are positioned in the automatic door 4, and a gear of a gear set output shaft of the automatic door 4 is meshed with the rack 9; this specific operation of lathe is such, after being fixed in on the mesa to the aluminium alloy material clamping, leading-in numerical control program, set up the work piece initial point and to good required cutter that uses, this moment, the coordinate position that removes numerical control program starting point can be removed to movable stand mechanism 3 and begin to process, and automatically closed can be received to automatically, it can the automatic shutdown to remove required position, the processing condition of the inside can be seen in real time to the transparent window of processing operating personnel accessible automatically, when processing finishes, automatically, door 4 receives the instruction and opens automatically, can carry out the change of material, the piece that processing came out can be collected by chip removal machine 6 is unified.
The control system comprises a photographing unit, a comparison unit, a cutter recording unit and a calling unit, wherein the photographing unit is used for acquiring information of a to-be-machined product, the photographing unit is used for photographing the to-be-machined product of a machining center to acquire dimension information and material information of the to-be-machined product, the photographing unit is used for calculating preset scrap falling quality of the to-be-machined product according to the dimension information and the material information, the cutter recording unit is used for storing information of cutters, the cutter recording unit comprises material information, hardness information and machining precision information of cutters in a cutter base, the cutters are divided into heavy cutters and light cutters according to the cutter information, the cutter recording unit generates a heavy cutter machining matrix D1 and a light cutter machining matrix D2, the calling unit is used for introducing machining schemes formulated according to the dimension information of the to-be-machined product, the material information of the to-be-machined product, the heavy cutter machining matrix D1 and the light cutter machining matrix D2, and the calling unit generates a machining step matrix αxTyTzm0) In the matrix, j represents the using sequence, n represents the number of the heavy cutter, x represents the coordinate of the cutter in the x-axis direction when the cutter works, y represents the coordinate of the cutter in the y-axis direction when the cutter works, and z represents the coordinate of the cutter in the z-axis direction when the cutter works; t isxRepresenting the time, T, of machining of the tool in the x-axis directionyIndicating the time, T, of machining of the tool in the y-axis directionzRepresents the time of the tool to process in the z-axis direction, m0A predetermined chip drop mass for use with the tool;
the comparison unit is preset with a primary quality detection matrix β1(j m1) In the matrix, j represents the order of use, m1Representing a detected first real-time debris drop mass; after each heavy cutter finishes processing, the comparison unit detects the falling fragment quality, and the falling mass m of the fragments is detected in real time for the first time1And a predetermined chip drop mass m0Are identical to each otherWhen the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when first real time debris1Less than a predetermined chip drop mass m0The calling unit calls the corresponding light cutter to carry out secondary processing, the processing time of the secondary processing is a preset period, and the comparison unit generates a secondary quality detection matrix β2(j m2) In the matrix, j represents the order of use, m2Representing the second real-time debris falling quality detected by the comparison unit; mass m dropped when second real time debris2Greater than or equal to a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when second real time debris2Less than a predetermined chip drop mass m0The calling unit calls the light cutter to process a plurality of preset periods until the real-time chip falling quality is larger than or equal to the preset chip falling quality m0And when the light cutter stops machining, the calling unit calls the next heavy cutter to machine.
Specifically, the heavy-blade processing matrix is D1(n Y)nWnJn) The light knife processing matrix is D2(k Y)kWkJk) (ii) a In the matrix, n represents the number of heavy knife, YnDenotes the hardness grade, W, of the heavy knifenIndicates the kind of heavy knife, JnIndicating the precision grade of the heavy knife; k denotes the number of the light knife, YkDenotes hardness grade, W, of light knifekIndicates the kind of light knife, JkIndicating the precision grade of the light knife; the cutter input unit is provided with a preset precision J0Preset precision J0,JnLess than or equal to J0,JkGreater than J0
Specifically, the comparison unit includes a pressure sensor disposed on the base for detecting the drop quality of the debris. The comparison unit also comprises an error parameter delta m and a preset debris falling mass m0The total falling mass of the chips is subtracted by an error parameter delta m, and the error parameter delta m is determined by the installation position of the pressure sensor and the processing technology of the aluminum profile processing centerAnd (6) determining.
Specifically, the photographing unit includes a photograph acquiring section, a photograph cutting section, and a photograph collating section; the photo collecting part comprises a camera and an auxiliary light source device; the camera is arranged on the automatic door, when the automatic door is closed, the camera starts to work, and the camera collects pictures of the to-be-processed product; the camera shooting unit also comprises a brightness sensor, the brightness sensor is arranged on the base and is used for detecting the real-time brightness L' near the to-be-processed product; the brightness sensor is electrically connected with the auxiliary light source equipment, the auxiliary light source equipment stores standard brightness L, and if the real-time brightness is smaller than the standard brightness L, the auxiliary light source equipment is turned on to ensure that the camera takes pictures on the premise of the standard brightness L.
Specifically, the photo cutting part cuts the photo to identify the position of the to-be-processed product needing to be cut; the picture comparison part is prestored with pictures of different materials, and compares the pictures cut out by the cutting part with the prestored pictures in sequence so as to identify the materials of the processed product; the predetermined chip drop mass is equal to the product of the material of the work and the cut-out volume of the work.
Specifically, when the heavy knife numbered n is in a use state, the heavy knife or the light knife numbered n +1 is pushed into the region to be taken by the knife magazine, when the current machining program is completed, the movable upright post mechanism moves to a coordinate position which is close to the knife magazine and is preset in the system, and at the moment, the original knife is unloaded by the knife beating manipulator of the knife magazine, and the heavy knife or the light knife in the region to be taken is replaced.
Specifically, the preset period is determined by the processing technology of the processed product, and the preset period is less than or equal to the minimum time required by the to-be-processed product to execute a set of processing technology.
In some embodiments of the invention, the comparison unit compares the received information of the to-be-processed product with the cutter information stored in the cutter recording unit, so as to perform priority numbering on each cutter stored in the cutter recording unit; the calling unit calls the cutters in sequence according to the priority numbers of the cutters.
Specifically, the tool selection matrix is F (a, b, c, d, e); wherein, a is position number, b is size information, c is material information, d is priority level, and e is processing technology.
Specifically, the shooting unit sets X, Y, Z three reference directions for the to-be-processed product, and a camera and an auxiliary light source device are respectively arranged in X, Y, Z three directions; photo comparison part sequentially establishes cutter selection matrix F1(X1,b1,c,d1,e);F2(Y2,b2,c,d2,e2);F3(Z3,b3,c,d3And e). The cutter input unit inputs material information, hardness information and machining precision information of each cutter; the tool recording unit comprises a tool preset matrix L, and the tool preset matrix L is L (f, g, h); wherein f represents a tool number, g represents a machinable material set of the tool obtained according to the material information and the hardness information, and h represents a machinable process set that the tool can perform.
Wherein the machinable material set g of the tool comprises a plurality of material information, g ═ { c ═ c1、c2、c3… …. }; in the set c1、c2、c3Respectively represent each processed material, namely the material of the processed surface of the cutter in the to-be-processed product. The processing technology set h which can be carried out by the cutter comprises a plurality of processing technology information, and the processing technology information comprises the maximum processing precision, the processing time and the processing mode which can be executed by the cutter; h ═ e1、e2、e3… …. }; in the set e1、e2、e3Respectively, represent different processing techniques.
In some embodiments of the invention, the article to be processed includes a tool selection matrix F1(X1,b1,c,d1,e);F2(Y2,b2,c,d2,e2);F3(Z3,b3,c,d3E); the working personnel sets the processing sequence of the processed product to be the Y direction, the X direction and the Z direction; at this time, the comparing unit sets a priority level d21, excellentFirst class d1Priority level d233. This treat cutter of processing article selects for use the matrix to include: f1(X1,b1,c,2,e);F2(Y2,b2,c,1,e2);F3(Z3,b3C, 3, e). And the comparison unit selects a corresponding cutter according to the cutter selection matrix, and assigns the value of the priority level d in the cutter selection matrix to the cutter number f in the cutter preset matrix of the cutter.
Specifically, when a certain tool presets a matrix Ln(F, g, h) and tool selection matrix Fn(an,bn,c,dnAnd e) when corresponding, presetting a matrix L for the cutternThe processing material set g in (1) comprises a tool selection matrix FnThe material information c of (a); cutter preset matrix LnThe processing technology set h in (1) comprises a cutter selection matrix FnThe processing technology e of (1); at this time, dnF in the formula, dnAnd f is the cutter number.
Specifically, each tool pocket of the tool magazine in which a tool is stored is provided with a contact switch (not shown in the figure), and the calling unit removes the priority number of the tool after the tool goes through the flow of leaving the tool pocket and returning the tool pocket once. The control system also comprises a preset processing time unit T0The working time of the cutter is preset processing time unit T0Integer multiples of; every KT0After the time, the photographing unit takes a picture again; the photo comparison part compares the size information acquired after updating with the size information before updating; and if the size information before and after updating is the same, the processing effect is proved to be unobvious, and at the moment, the image information acquired at the moment is sent to a human-computer interaction interface on the control system by the photographing unit, so that the working personnel can know the processing condition.
Unless defined otherwise, technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. Terms such as "component" and the like, when used herein, can refer to either a single part or a combination of parts. Terms such as "mounted," "disposed," and the like, as used herein, may refer to one component as being directly attached to another component or one component as being attached to another component through intervening components. Features described herein in one embodiment may be applied to another embodiment, either alone or in combination with other features, unless the feature is otherwise inapplicable or otherwise stated in the other embodiment.
The present invention has been described in terms of the above embodiments, but it should be understood that the above embodiments are for purposes of illustration and description only and are not intended to limit the invention to the scope of the described embodiments. It will be appreciated by those skilled in the art that many variations and modifications may be made to the teachings of the invention, which fall within the scope of the invention as claimed.

Claims (10)

1. The aluminum profile machining center is characterized by comprising a control system, wherein the control system comprises a photographing unit, a comparison unit, a cutter recording unit and a calling unit;
the device comprises a photographing unit, a processing center and a control unit, wherein the photographing unit is used for acquiring information of a to-be-processed product, photographing the to-be-processed product in the processing center to acquire size information and material information of the to-be-processed product, and calculating the preset chip falling quality of the processed product according to the size information and the material information;
the tool recording unit is used for storing information of tools and comprises material information, hardness information and machining precision information of each tool in the tool magazine; the cutter recording unit divides the cutter into a heavy cutter and a light cutter according to the cutter information; the cutter recording unit generates a heavy cutter processing matrix D1 and a light cutter processing matrix D2;
the calling unit imports a processing scheme which is formulated based on the size information of the to-be-processed product, the material information of the to-be-processed product, the heavy cutter processing matrix D1 and the light cutter processing matrix D2; the calling unit generates a processing step momentArray α (j n x y z T)xTyTzm0) In the matrix, j represents the using sequence, n represents the number of the heavy cutter, x represents the coordinate of the cutter in the x-axis direction when the cutter works, y represents the coordinate of the cutter in the y-axis direction when the cutter works, and z represents the coordinate of the cutter in the z-axis direction when the cutter works; t isxRepresenting the time, T, of machining of the tool in the x-axis directionyIndicating the time, T, of machining of the tool in the y-axis directionzRepresents the time of the tool to process in the z-axis direction, m0A predetermined chip drop mass for use with the tool;
the comparison unit is preset with a primary quality detection matrix β1(j m1) In the matrix, j represents the order of use, m1Representing a detected first real-time debris drop mass; after each heavy cutter finishes processing, the comparison unit detects the falling fragment quality, and the falling mass m of the fragments is determined in real time for the first time1And a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when first real time debris1Less than a predetermined chip drop mass m0The calling unit calls the corresponding light cutter to carry out secondary processing, the processing time of the secondary processing is a preset period, and the comparison unit generates a secondary quality detection matrix β2(j m2) In the matrix, j represents the order of use, m2Representing the second real-time debris drop quality detected by the comparison unit; mass m dropped when second real time debris2Greater than or equal to a predetermined chip drop mass m0When the machining is qualified, the calling unit calls the next heavy cutter to machine; mass m dropped when second real time debris2Less than a predetermined chip drop mass m0The calling unit calls the light cutter to process a plurality of preset periods until the real-time chip falling quality is larger than or equal to the preset chip falling quality m0And when the light cutter stops machining, the calling unit calls the next heavy cutter to machine.
2. The aluminum profile machining center according to claim 1, wherein the heavy-knife machining matrix is D1(n Y)nWnJn) The light knife processing matrix is D2(k Y)kWkJk) (ii) a In the matrix, n represents the number of heavy knife, YnDenotes the hardness grade, W, of the heavy knifenIndicates the kind of heavy knife, JnIndicating the precision grade of the heavy knife; k denotes the number of the light knife, YkDenotes hardness grade, W, of light knifekIndicates the kind of light knife, JkIndicating the precision grade of the light knife; the cutter input unit is provided with a preset precision J0Preset precision J0,JnLess than or equal to J0,JkGreater than J0
3. The aluminum profile machining center according to claim 1, wherein the aluminum profile machining center comprises a base, a movable upright post mechanism, an automatic door, the control system and a chip removal machine, the movable upright post mechanism is positioned on the base and connected in a sliding manner, the automatic door is positioned right in front of the base and installed in a sliding manner, and the chip removal machine is positioned below the base; the movable stand column mechanism is provided with a disc type tool magazine and a boosting cylinder, the boosting cylinder is arranged on the left side and the right side of the movable stand column respectively, a rack for driving the automatic door is fixedly arranged right ahead the base, the motor and the gear set are arranged in the automatic door, and a gear of a gear set output shaft of the automatic door is meshed with the rack.
4. The aluminum profile machining center according to claim 3, wherein the comparison unit comprises a pressure sensor, the pressure sensor is arranged on the base, and the pressure sensor is used for detecting the falling quality of the chips.
5. The aluminum profile machining center according to claim 4, wherein the comparison unit further comprises an error parameter Δ m, and the preset chip drop mass m0Equal to total mass of chips dropped minus errorAnd the error parameter delta m is determined by the installation position of the pressure sensor and the processing technology of the aluminum profile processing center.
6. The aluminum profile machining center according to claim 3, wherein the photographing unit includes a photograph collecting part, a photograph cutting part, and a photograph contrasting part; the photo collecting part comprises a camera and an auxiliary light source device; the camera is arranged on the automatic door, when the automatic door is closed, the camera starts to work, and the camera collects pictures of the to-be-processed product; the camera shooting unit further comprises a brightness sensor, the brightness sensor is arranged on the base and used for detecting real-time brightness L' near the to-be-processed product; the brightness sensor is electrically connected with the auxiliary light source equipment, the auxiliary light source equipment stores standard brightness L, and if the real-time brightness is smaller than the standard brightness L, the auxiliary light source equipment is turned on to ensure that the camera takes pictures under the premise of the standard brightness L.
7. The aluminum profile machining center according to claim 6, wherein the photo cutting section cuts the photo to identify a position where the to-be-machined product needs to be cut; the photo comparison part is prestored with pictures of different materials, and compares the pictures cut out by the cutting part with the pictures prestored in sequence to identify the materials of the processed product; the preset chip drop mass is equal to the product of the material of the work and the cut-out volume of the work.
8. The aluminum profile machining center according to claim 3, wherein when the heavy knife numbered n is in a use state, the knife magazine pushes the heavy knife numbered n +1 or the light knife into a region to be taken, when a current machining program is completed, the movable upright mechanism moves to a coordinate position which is close to the knife magazine and is set in advance in a system, and at the time, a knife striking manipulator of the knife magazine unloads an original knife and replaces the heavy knife or the light knife in the region to be taken.
9. The aluminum profile machining center according to claim 1, wherein a preset period is determined by a machining process of the machined product, and the preset period is less than or equal to a minimum time required for the to-be-machined product to perform a set of machining process.
10. The aluminum profile machining center according to claim 1, wherein the control system further comprises a preset machining time unit T0The working time of the cutter is preset processing time unit T0Integer multiples of; every KT0After the time, the photographing unit takes a picture again; the photo comparison part compares the size information acquired after updating with the size information before updating; and if the size information before and after updating is the same, the processing effect is proved to be unobvious, and at the moment, the image information acquired at the moment is sent to a human-computer interaction interface on the control system by the photographing unit, so that the working personnel can know the processing condition.
CN202010130381.0A 2020-02-20 2020-02-28 Aluminum profile machining center Active CN111258270B (en)

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CN108015595A (en) * 2017-11-20 2018-05-11 哈尔滨理工大学 A kind of numerical control machining center automatic tool changer and intelligence control system
CN108197730A (en) * 2017-12-23 2018-06-22 武汉益模科技股份有限公司 A kind of CNC machine processing flow optimization method
CN110000615A (en) * 2019-02-21 2019-07-12 宁波米诺机床有限公司 A kind of four Spindle Machining Center special planes of automatic cleared of debris

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US20030066179A1 (en) * 2001-10-03 2003-04-10 Toshiba Kikai Kabushiki Kaisha. Chip removal method and chip removal system for NC machine tools
JP2011068422A (en) * 2009-09-24 2011-04-07 Caterpillar Sarl Control method and control device of magnet working machine and magnet working machine
CN102990479A (en) * 2012-12-10 2013-03-27 山东大学 High-speed and high-efficiency machining center for large aluminum members
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