CN107107610B

CN107107610B - The printing process of electronic circuit and device

Info

Publication number: CN107107610B
Application number: CN201580070465.7A
Authority: CN
Inventors: 萩坂涉; 坂田大
Original assignee: Komori Corp
Current assignee: Komori Corp
Priority date: 2014-12-24
Filing date: 2015-12-24
Publication date: 2019-04-26
Anticipated expiration: 2035-12-24
Also published as: TW201628474A; WO2016104600A1; TWI592080B; CN107107610A

Abstract

In the printed object (circuit of first time) 4 being made of flexible substrate, isolated position in the up-down direction attached a pair of of alignment mark by pretreatment process.Move video camera (210) vertically, the region comprising an alignment mark is shot in the first mark position (PM1), the region comprising another alignment mark is shot in the second mark position (PM2).From the position of one alignment mark of image detection of shooting and the position of another alignment mark, the distance between a pair of of alignment mark is found out according to their position, and according to this distance come the rotation speed of the rubber cylinder (2) when adjusting to printed object (4) printed circuit (secondary circuit).Thereby, it is possible to the flexible degree with substrate to be aligned the circuit of the first printing accurately with the position of the circuit of the second printing.

Description

The printing process of electronic circuit and device

Technical field

The present invention relates to the printing process of electronic circuit and devices, wherein turns on one side from plate cylinder to rubber cylinder Printing ink simultaneously makes to have transferred the rubber cylinder rotation of the ink, on one side to being handled in pretreatment process by being easy to stretch The printed object for the sheet that the substrate of contracting is constituted carries out the printing of electronic circuit.

Background technique

In the printing to the substrates printed electronic circuit such as film, there are following situations, that is, will print the circuit of first time Printed article be dried, coating insulating film and made it dry on the printed article, and print on the insulating film secondary Circuit.In this case, it needs accurately to carry out aligned in position with the circuit of printed first time and carry out secondary electricity The printing on road.

For this purpose, usually in the printing of the circuit of first time together with circuit print fiducial marks (alignment mark), and examine The position of the reference mark is surveyed, so that with the aligned in position of the reference mark of the detection carrying out the printing of secondary circuit.

In addition, above-mentioned background technique is not disclosed in document.In addition, not found until applicant is when application Citation related to the present invention.Therefore, undisclosed citation information.

However, substrate is the easy flexible component such as film in the case where above-mentioned electronic circuit is printed onto substrate, and And because primary drying, the flexible increase of substrate, and the degree difference stretched according to different piece are carried out by heat.Cause This, there are the following problems, that is, only by making the aligned in position of the position of rubber cylinder and the reference mark of detection, can not make The circuit of the second printing and the circuit of the first printing are accurately be overlapped.

Summary of the invention

Subject to be solved by the invention

The present invention is completed to solve such project, it is intended that provide a kind of can stretch with substrate The electronic circuit that the degree of contracting is aligned the circuit of the first printing accurately with the position of the circuit of the second printing Printing process and device.

A technical solution to solve project

In order to reach such purpose, the printing process of electronic circuit of the invention on one side rolls rubber from plate cylinder Cylinder transfer ink simultaneously makes to have transferred the rubber cylinder rotation of the ink, on one side to being handled in pretreatment process by stretching The printed object for the sheet that the substrate of contracting is constituted carries out the printing of electronic circuit, and the printing process of electronic circuit has: first count Process is taken the photograph, to including the first base of a pair for being attached to the position of printed object separated in the up-down direction in pretreatment process The region of first reference mark in fiducial mark note is shot；Second shooting process, to including a pair of first reference mark In the region of another the first reference mark shot；First reference mark position detects process, shoots work from first The position of one the first reference mark of image detection of the printed object shot in sequence；Second reference mark position detects process, The position of the image detection of printed object another the first reference mark shot from the second shooting process；First fiducial mark Apart from operational process between note, the position based on first reference mark detected in the first reference mark position detection process And the position of another the first reference mark detected in the second reference mark position detection process, find out a pair of first base The distance between fiducial mark note；And first rotation speed adjust process, according between the first reference mark in operational process The distance found out is adjusted the rotation speed of rubber cylinder when to printed object printed electronic circuit.

In addition, the printing equipment of electronic circuit of the invention, to rubber cylinder transfer ink and makes from plate cylinder on one side It has transferred the rubber cylinder rotation of the ink, has been made of the substrate to stretch to handle in pretreatment process on one side The printed object of sheet carries out the printing of electronic circuit, and the printing equipment of electronic circuit has: filming apparatus is located in advance to being included in One first be attached in science and engineering sequence in the first reference mark of a pair for the position of printed object separated in the up-down direction The region of reference mark and region comprising another the first reference mark are shot；The detection of first reference mark position Portion, from the position of one the first reference mark of image detection of the printed object shot by filming apparatus；Second reference mark position Test section is set, from the position of another the first reference mark of the image detection of the printed object shot by filming apparatus；First base Fiducial mark note between distance calculating unit, the position based on first reference mark detected by the first reference mark position test section with And the position of another the first reference mark by the detection of the second reference mark position test section, find out a pair of first reference mark The distance between；And the first rotation speed adjustment section, it is right according to by the distance that distance calculating unit is found out between the first reference mark The rotation speed of rubber cylinder when to printed object printed electronic circuit is adjusted.

Invention effect

In accordance with the invention it is possible to which expansion and contraction until consideration before printing to printed object rolls to adjust rubber The rotation speed of cylinder, so that the flexible degree with substrate independently makes the printing of electronic circuit (secondary circuit) accurately It overlaps on printed object (circuit of first time).

Detailed description of the invention

Fig. 1 is the printing equipment for showing the electronic circuit of the printing process for implementing electronic circuit of the present invention The figure of the major part of one embodiment.

Fig. 2 is that first pair that printed object is printed in pretreatment process is shown in the printing equipment of the electronic circuit Position marks the top view of the configuration of (the first alignment mark) and video camera etc..

Fig. 3 is that the second register guide for being printed on printed object simultaneously with printing is shown in the printing equipment of the electronic circuit Remember the top view of the configuration of (the second alignment mark) and video camera etc..

Fig. 4 is the block diagram of the major part of the platform print control in the printing equipment of the electronic circuit.

Fig. 5~Figure 12 is to be split the figure shown to the content of the memory in platform print control.

Figure 13 is the flow chart for illustrating the movement of platform print control.

Figure 14 is the flow chart after Figure 13.

Figure 15 is the flow chart after Figure 14.

Figure 16 is the flow chart after Figure 15.

Figure 17 is the flow chart after Figure 16.

Figure 18 is the flow chart after Figure 17.

Figure 19 is the flow chart after Figure 18.

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Figure 25 is the flow chart after Figure 24.

Figure 26 is the flow chart after Figure 25.

Figure 27 is the flow chart after Figure 26.

Figure 28 is the flow chart after Figure 26.

Figure 29 is the flow chart after Figure 28.

Figure 30 is the flow chart after Figure 29.

Figure 31 is the flow chart after Figure 29.

Figure 32 is the flow chart after Figure 31.

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Figure 37 is the flow chart after Figure 36.

Figure 38 is the flow chart after Figure 37.

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Figure 40 is the flow chart after Figure 39.

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Figure 49 is the flow chart after Figure 48.

Figure 50 is the flow chart after Figure 49.

Figure 51 is the flow chart after Figure 50.

Figure 52 is the flow chart after Figure 51.

Figure 53 is the flow chart after Figure 51.

Figure 54 is the flow chart after Figure 53.

Figure 55 is the flow chart after Figure 54.

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Figure 58 is the flow chart after Figure 57.

Figure 59 is the flow chart after Figure 58.

Figure 60 is the flow chart after Figure 58.

Figure 61 is the flow chart after Figure 60.

Figure 62 is the flow chart after Figure 61.

Figure 63 is the flow chart after Figure 61.

Figure 64 is the flow chart after Figure 63.

Figure 65 is the flow chart after Figure 64.

Figure 66 A and Figure 66 B are to illustrate that the shooting image from the first mark position of the video camera on the left side passes through pattern match Come detect the left side the first mark position the first alignment mark position process figure.

Figure 67 A and Figure 67 B are to illustrate that the shooting image from the first mark position of the video camera on the right passes through pattern match Come detect the right the first mark position the first alignment mark position process figure.

Figure 68 A and Figure 68 B are to illustrate that the shooting image from the second mark position of the video camera on the left side passes through pattern match Come detect the left side the second mark position the first alignment mark position process figure.

Figure 69 A and Figure 69 B are to illustrate that the shooting image from the second mark position of the video camera on the right passes through pattern match Come detect the right the second mark position the first alignment mark position process figure.

Figure 70 is the calculating process of the offset in the Y-direction for illustrate the first alignment mark of the first marked locations, The figure of the calculating process of expansion and contraction between the calculating process of distance between one alignment mark and the first alignment mark.

Figure 71 is to illustrate to roll when to printed object printed electronic circuit (secondary circuit) from plate cylinder to rubber The figure of the process of cylinder transfer ink.

Figure 72 be show make the rubber cylinder for having transferred ink drop to mounting table and to some direction of printed object (on The upward downstream side in lower section) mobile appearance figure.

Figure 73 is the figure for showing the state that rubber cylinder reaches the printing starting position being corrected.

Figure 74 is the figure for showing the state that rubber cylinder reaches printing end position.

Figure 75 is to show the rubber cylinder for reaching printing end position from mounting table rising and be located to plate cylinder The figure of the mobile appearance in side (upstream side in up and down direction).

Figure 76 is the state for making rubber cylinder return to the initial position (origin position) before starting to carry out movement Figure.

Figure 77 A and Figure 77 B are to illustrate that the shooting image from the first mark position of the video camera on the left side passes through pattern match Come detect the left side the first mark position the second alignment mark position process figure.

Figure 78 A and Figure 78 B are to illustrate that the shooting image from the first mark position of the video camera on the right passes through pattern match Come detect the right the first mark position the second alignment mark position process figure.

Figure 79 A and Figure 79 B are to illustrate that the shooting image from the second mark position of the video camera on the left side passes through pattern match Come detect the left side the second mark position the second alignment mark position process figure.

Figure 80 A and Figure 80 B are to illustrate that the shooting image from the second mark position of the video camera on the right passes through pattern match Come detect the right the second mark position the second alignment mark position process figure.

Figure 81 is the calculating process of the offset in the Y-direction for illustrate the second alignment mark of the first marked locations, The figure of the calculating process of expansion and contraction between the calculating process of distance between two alignment marks and the second alignment mark.

Figure 82 A and Figure 82 B are to show the position separated in the up-down direction that printed object is printed in pretreatment process The figure of the variation for the first alignment mark of a pair set.

Figure 83 be show can by CPU realize function part block diagram.

Specific embodiment

Hereinafter, based on attached drawing, the present invention is described in detail.

The printing equipment of the electronic circuit has plate printing machine (flatbed press) 100 and to the printing machine 100 The platform print control 200 of setting, printing machine 100 have plate cylinder (P) 1, rubber cylinder (B) 2 and platform (mounting Platform) 3.

In printing machine 100, plate cylinder 1 and rubber cylinder 2 are rotatively supported, in the given of mounting table 3 Location arrangements have printed object 4.It is equipped in plate cylinder 1 for 4 printed electronic circuit of printed object in mounting table 3 Printing plate.Printed object 4 is sheet of membrane, and is printed with the circuit of first time.In addition, as printed object 4, additionally it is possible to use by than Paper is easy the sheet material that flexible substrate is constituted.

In the printing machine 100, ink is transferred to rubber cylinder 2 from plate cylinder 1, has transferred the rubber cylinder of ink 2 drop to mounting table 3, and the rubber cylinder 2 for dropping to the mounting table 3 is mobile to diagram right direction while rotating, thus right Printed object 4 carries out the printing of electronic circuit (secondary circuit).

The circuit for printing first time in printed object 4 with identical printing machine 100, after printing is dry, for the first time Circuit on coating insulating film.In this state, printed object 4 is disposed in the printing machine 100 again.That is, in pretreatment work The printing of the circuit of first time, the coating of insulating film are carried out in sequence to printed object 4.

In addition, in the present embodiment, the pretreatment before carrying out the printing of secondary circuit to the printed object 4 In process, as shown in Fig. 2, the printing with the circuit of first time prints four alignment mark RM1 (first to printed object 4 simultaneously Alignment mark).

In this example embodiment, the mobile direction of rubber cylinder 2 is set as to the up and down direction (Y-direction) of printed object 4, it will be with this The orthogonal direction of up and down direction is set as the left and right directions (X-direction) of printed object 4, and the printing with the circuit of first time is simultaneously in quilt Print a pair of of alignment mark RM1 in the position separated in the up-down direction in the left side of printed article 4_L1And RM1_L2, and in printed object Print a pair of of alignment mark RM1 in the position separated in the up-down direction on 4 right side_R1And RM1_R2。

In addition, in the present embodiment, carrying out secondary circuit to the printed object 4 for the circuit for having printed first time Printing when, as shown in figure 3, printing four alignment mark RM2 in printed object 4 simultaneously with the printing of secondary circuit (the second alignment mark).In this example embodiment, with the printing of secondary circuit simultaneously in the left side of printed object 4 in upper and lower Print a pair of of alignment mark RM2 in the position separated upwards_L1And RM2_L2, and dividing in the up-down direction on the right side of printed object 4 From position print a pair of of alignment mark RM2_R1And RM2_R2。

In addition, in figs. 1 to 3, the printed object 4 for having printed the circuit of (first layer) for the first time is indicated with appended drawing reference 4A (printing the printed object 4 before secondary circuit) is indicated to have printed second (second layer) of circuit with appended drawing reference 4B Printed object 4 (having printed the printed object 4 after secondary circuit), to be distinguished to the two.

In this example embodiment, the first alignment mark RM1 is set as round, and the second alignment mark RM2 is set as × symbol, but unlimited In the label of this form.In addition, the first alignment mark RM1 will not necessarily print simultaneously with the printing of the circuit of first time, It can also carry out applying afterwards.In addition, about the second alignment mark RM1, as long as same with the printing of secondary circuit When it is additional, can also carry out applying.

In addition, the first reference mark of a pair described in the present invention is equivalent to and prints simultaneously with the printing of the circuit of first time The position of printed object 4 separated in the up-down direction the first alignment mark RM1 to (RM1_L1And RM1_L2To, RM1_R1 And RM1_R2To), a pair of second reference mark be equivalent to the printing with secondary circuit be printed on simultaneously printed object 4 Second alignment mark RM2 (RM2 of the position separated in up and down direction_L1And RM2_L2To, RM2_R1And RM2_R2To) pair.With Under, the first alignment mark RM1 is known as the first alignment mark, the second alignment mark RM2 is known as the second alignment mark.

In addition, in the printing machine 100, the opposite side of the rubber cylinder 2 for clipping printed object 4 in mounting table 3 There are two video camera 210 (210L, 210R) for position setting.The two video cameras 201 are equivalent to shooting dress described in the present invention It sets.

A pair first of first video camera 210L (hereinafter referred to as left video camera) and the printed object 4 in mounting table 3 aligns Mark RM1_L1And RM1_L2And the second alignment mark RM2_L1And RM2_L2Printing position be correspondingly configured.As described later, The upper surface of printed object 4 of the first video camera 210L in mounting table 3 is vertically moved, in the first marker bit It sets at PM1 to comprising the first alignment mark RM1_L1And the second alignment mark RM2_L1Region shot, in the second marker bit It sets at PM2 to comprising the first alignment mark RM1_L2And the second alignment mark RM2_L2Region shot.

A pair first of second video camera 210R (hereinafter referred to as right video camera) and the printed object 4 in mounting table 3 aligns Mark RM1_R1And RM1_R2And the second alignment mark RM2_R1And RM2_R2Printing position be correspondingly configured.As described later, The upper surface of printed object 4 of the second video camera 210R in mounting table 3 is vertically moved, in the first marker bit It sets at PM1 to comprising the first alignment mark RM1_R1And the second alignment mark RM2_R1Region shot, in the second marker bit It sets at PM2 to comprising the first alignment mark RM1_R2And the second alignment mark RM2_R2Region shot.

The block diagram of the major part of platform print control 200 is shown in Fig. 4.Platform print control 200 has CPU (Central Processing Unit: central processing unit) 201, ROM (Read Only Memory: read-only memory) 202, RAM (Random Access Memory: random access memory) 203, input unit 204, display 205, output dress Set (FD driver, printer etc.) 206, printing prepares to start switch 207, prints the teaching after starting switch 208, printing Switch 209, video camera 210 (left video camera 210L, right video camera 210R), video camera mobile motor 211, the mobile use of video camera Motor driver 212, video camera mobile motor rotary encoder 213, camera position detection counter 214, D/A become Parallel operation 215, the origin position detector 216 of video camera, plate cylinder driving motor 217, plate cylinder driving are driven with motor Dynamic device 218, plate cylinder driving motor rotary encoder 219, the detection of plate cylinder rotatable phase counter 220, D/A Converter 221.

It is driven in addition, having rubber cylinder driving motor 222, rubber cylinder driving motor driver 223, rubber cylinder Employ motor rotary encoder 224, rubber cylinder rotatable phase detection counter 225, D/A converter 226, rubber cylinder Up and down direction is mobile to be moved with motor 227, the mobile motor driver 228 of rubber cylinder up and down direction, rubber cylinder up and down direction Employ motor rotary encoder 229, rubber cylinder up and down direction position detection counter 230, D/A converter 231, rubber Origin position detector 232, rubber cylinder lifting in the up and down direction of roller are with cylinder 233, rubber cylinder lifting cylinder With valve 234, ink device 235, cylinder contact separator 236, memory 237, input/output interface (I/O, I/F) 238- 1~238-16.

In the platform print control 200, CPU201 obtains providing via interface 238-1~238-16 various defeated Enter information, accordings on one side access RAM203, memory 237 while and be stored in the program of ROM202 and acted.

The mobile motor of video camera is with rotary encoder 213 by the given rotation angle of each of the mobile motor 211 of video camera Clock pulses is generated, and is output to video camera mobile motor driver 212 and camera position detection counter 214. In addition, the mobile motor of video camera is with rotary encoder 213 by the given rotation angle position of each of the mobile motor 211 of video camera Generation zero pulse is set, and zero pulse is output to camera position detection counter 214.Video camera movement is made with motor 211 The upper surface of left video camera 210L and right video camera 210R while the printed object 4 in mounting table 3 is vertically moved It is dynamic.The origin position detector 216 of video camera detects when making left video camera 210L and right video camera 210R while being moved Initial position, as origin position.

Plate cylinder driving motor is with rotary encoder 219 by the given rotation of each of plate cylinder driving motor 217 Corner generates clock pulses, and is output to plate cylinder driving motor driver 218 and the detection of plate cylinder rotatable phase With counter 220.In addition, plate cylinder driving motor is with rotary encoder 219 by the every of plate cylinder driving motor 217 A given rotary angle position generates zero pulse, and zero pulse is output to plate cylinder rotatable phase detection counter 220.

Rubber cylinder driving motor is with rotary encoder 224 by the given rotation of each of rubber cylinder driving motor 222 Corner generates clock pulses, and is output to rubber cylinder driving motor driver 223 and the detection of rubber cylinder rotatable phase With counter 225.In addition, rubber cylinder driving motor is with rotary encoder 224 by the every of rubber cylinder driving motor 222 A given rotary angle position generates zero pulse, and zero pulse is output to rubber cylinder rotatable phase detection counter 225.

The mobile motor rotary encoder 229 of rubber cylinder up and down direction is by the mobile motor of rubber cylinder up and down direction Each of 227 given rotation angles generate clock pulses, and be output to rubber cylinder up and down direction it is mobile with motor driver 228 with And rubber cylinder up and down direction position detection counter 230.It is compiled with motor with rotation in addition, rubber cylinder up and down direction is mobile Code device 229 is by the mobile each given rotary angle position generation zero pulse of motor 227 of rubber cylinder up and down direction, and by zero Pulse is output to rubber cylinder up and down direction position detection counter 230.Origin position in the up and down direction of rubber cylinder Initial position when the detection of detector 232 moves rubber cylinder 2 in the up-down direction, as origin position.

The content of memory 237 is shown in Fig. 5~Figure 12 segmentation.Memory 237 is provided with memory M1~M77.? The rotation speed Vc of the memory M1 storage mobile motor of video camera.Camera position detection counter is stored in memory M2 Count value.In the current location PCM of memory M3 storage video camera_R.The first mark position PM1 is stored in memory M4. In memory M5 stored count value Y.In memory M6 stored count value X.The first of the video camera on the memory M7 storage left side Photographed data at mark position PM1.Picture on the left and right directions that memory M8 is stored with video camera (video camera of left and right) Prime number a.Pixel number b in the up and down direction that memory M9 is stored with video camera (video camera of left and right).It is deposited in memory M10 Contain the second mark position PM2.

Photographed data at first mark position PM1 of the video camera on the right of memory M11 storage.In memory M12 Store the photographed data at the second mark position PM2 of the video camera on the left side.The of video camera on the right of memory M13 storage Photographed data at two mark position PM2.In memory M14 stored count value N.In memory M15 stored count value M.It is depositing Reservoir M16 stores the pixel data of the first alignment mark.Picture on the left and right directions that memory M17 stores the first alignment mark Prime number c.Pixel number d in the up and down direction that memory M18 stores the first alignment mark.On the memory M19 storage left side (the M1x1 that locates of the first alignment mark at first mark position PM1_L, M1y1_L).The of the memory M20 storage left side (the M1x2 that locates of the first alignment mark at two mark position PM2_L, M1y2_L)。

Base position in the Y-direction that memory M21 stores the first alignment mark at the first mark position PM1 M1y1r.Offset Δ in the Y-direction of the first alignment mark at the first mark position PM1 on the memory M22 storage left side M1y1_L.Distance LM1 between first alignment mark on the memory M23 storage left side_L.First on the right of memory M24 storage (the M1x1 that locates of the first alignment mark at mark position PM1_R, M1y1_R).The second mark on the right of memory M25 storage Remember (the M1x2 that locates of the first alignment mark at the PM2 of position_R, M1y2_R).The first label on the right of memory M26 storage Offset Δ M1y1 in the Y-direction of the first alignment mark at the PM1 of position_R.The first mark position is stored in memory M27 Offset Δ Y1 (Δ M1y1) in the Y-direction of the first alignment mark at PM1.First pair on the right of memory M28 storage Distance LM1 between the label of position_R.The average value LM1 of the distance between the first alignment mark is stored in memory M29.In memory M30 Store the reference distance LM1r between the first alignment mark.

The expansion and contraction η 1 between the first alignment mark is stored in memory M31.It is opened in the printing that memory M32 is stored with benchmark Beginning position PRT_ST.In the printing starting position PRT that memory M33 storage has modified_ST'.Printing length is stored in memory M34 Spend l.In the printing length l ' that memory M35 storage has modified.In memory M36 memory print end position PRT_END.It is storing Device M37 is stored with the benchmark rotation speed VBr of rubber cylinder.The rotation speed of rubber cylinder in memory M38 memory print Spend VBp.The benchmark rotation speed VPr of plate cylinder is stored in memory M39.In memory M40 storage plate cylinder rotation The count value of phase-detection counter.

In the current rotatable phase of memory M41 storage plate cylinderPlate cylinder is stored in memory M42 Print starting positionThe printing end position of plate cylinder is stored in memory M43Rubber is stored in memory M44 The glue cylinder rotatable phase detection count value of counter.In the current rotatable phase ψ of memory M45 storage rubber cylinder_R。 In the printing starting position ψ of memory M46 storage rubber cylinder_ST.The printing stop bits of rubber cylinder is stored in memory M47 Set ψ_END.The mobile starting position ψ of rubber cylinder is stored in memory M48_MST.Rubber cylinder is stored in memory M49 Movement speed vB in up and down direction_M.The up and down direction position for completing to utilize rubber cylinder is indicated whether in memory M50 storage The modified value of the phase deviation carried out with rotatable phase.

In the count value of the up and down direction position detection counter of memory M51 storage rubber cylinder.In memory M52 Store the current up and down direction position PBM of rubber cylinder_R.In the current of the rubber cylinder that memory M53 storage has modified Up and down direction position PBM_R'.In the rotation phase for the due rubber cylinder of up and down direction-that memory M54 is stored with rubber cylinder Bit map table.The rotatable phase ψ m of due rubber cylinder is stored in memory M55.In memory M56 storage rubber cylinder Current rotational phase difference Δ ψ_R.In the current rotational phase difference Δ ψ of memory M57 storage rubber cylinder_RAbsolute value.? Memory M58 is stored with the permissible value α of the rotational phase difference of rubber cylinder.The current of rubber cylinder is stored in memory M59 Rotational phase difference-rotation speed correction value map table.In the correction value Δ V of memory M60 storage rotation speed.

In the rotation speed VBr ' for the rubber cylinder that memory M61 storage has modified.Second pair is stored in memory M62 The pixel data of position label.Pixel number e on the left and right directions that memory M63 is stored with the second alignment mark.In memory M64 is stored with the pixel number f in the up and down direction of the second alignment mark.The first mark position on the memory M65 storage left side (the M2x1 that locates of the second alignment mark at PM1_L, M2y1_L).The second mark position on the memory M66 storage left side (the M2x2 that locates of the second alignment mark at PM2_L, M2y2_L).It is stored at the first mark position PM1 in memory M67 The second alignment mark Y-direction on base position M2y1r.At the first mark position PM1 on the memory M68 storage left side The second alignment mark Y-direction on offset Δ M2y1_L.Between second alignment mark on the memory M69 storage left side Distance LM2_L.(the M2x1 that locates of the second alignment mark at the first mark position PM1 on the right of memory M70 storage_R, M2y1_R)。

(the M2x2 that locates of the second alignment mark at the second mark position PM2 on the right of memory M71 storage_R, M2y2_R).Offset in the Y-direction of the second alignment mark at the first mark position PM1 on the right of memory M72 storage ΔM2y1_R.Offset in the Y-direction that memory M73 stores the second alignment mark at the first mark position PM1 is averaged It is worth Δ M2y1.Offset Δ Y2 in the Y-direction that memory M74 stores the second alignment mark at the first mark position PM1. Distance LM2 between the second alignment mark on the right of memory M75 storage_R.Between memory M76 stores the second alignment mark The average value LM2 of distance.The expansion and contraction η 2 between the second alignment mark is stored in memory M77.

(movement of platform print control)

Then, using the flow chart of Figure 13~Figure 65 to the platform print control in the printing equipment of the electronic circuit 200 movement is illustrated.

In addition, the CPU201 of platform print control 200 is carried out to memory M as needed in movement below The write-in of the various data found out by operation carries out reading of various data etc. from memory M, still, herein in order to avoid Illustrate to become many and diverse, and according to the title of memory M, the mark marked in memory M etc. it is also clear that therefore sometimes Omit the explanation to the read-write motion of memory M.

(preparation of printing)

In the present embodiment, as initial setting, " zero " (Figure 13: step S101) is rewritten as in memory M74.That is, Offset Δ Y2 in the Y-direction of the second alignment mark at first mark position PM1 is set as Δ Y2=0.In addition, storing Device M77 is rewritten as " 1 " (step S102).That is, the expansion and contraction η 2 between the second alignment mark is set as η 2=1.Then, such as Fig. 1 institute Show, the printed object 4A for having printed the circuit of first time is arranged in mounting table 3 in pretreatment process, and printing is prepared Start switch 207 to be set as " enabling ".

(shooting of alignment mark)

When printing prepares to start ("Yes" of step S103) when switch 207 is set as " enabling ", platform print control 200 CPU201 reads in the rotation speed Vc (step S104) of the mobile motor of video camera from memory M1, via D/A converter The mobile rotation speed Vc (step that instruction and the mobile motor of video camera are rotated forward with the output of motor driver 212 of 215 pairs of video cameras Rapid S105).Video camera movement as a result, is rotated forward with motor 211 with rotation speed Vc, by position initial shown in Fig. 1 (Fig. 2) It sets as origin position, left video camera 210L and right video camera the 210R left direction in mounting table 3 are moved simultaneously.

In the moving process of the left video camera 210L and right video camera 210R, CPU201 reads in camera position detection With the count value (step S106) of counter 214, according to the count value of camera position detection counter 214 to left camera shooting The current location PCM of machine 210L and right video camera 210R_RIt carries out operation (step S107), and reads in the first mark from memory M4 Remember position PM1 (step S108), confirms the current location PCM of left video camera 210L and right video camera 210R_RWhether reach First mark position PM1 (step S109).

As the current location PCM for confirming left video camera 210L and right video camera 210R_RReach the first mark position PM1 When ("Yes" of step S109), CPU201 is mobile to video camera to export halt instruction (step S110) with motor driver 212, stops The only movement of left video camera 210L and right video camera 210R.Then, left video camera 210L and right video camera 210R is exported Shooting instruction (step S111) includes the first register guide in the printed object 4 for being arranged in mounting table 3 with left video camera 210L Remember RM1_L1Region shot, and with right video camera 210R in printed object 4 include the first alignment mark RM1_R1Area Domain is shot.

Then, CPU201 instructs (Figure 14: step S112) to the left video camera 210L transmission for sending photographed data, works as basis When transmission instruction has sent photographed data from left video camera 210L ("Yes" of step S113), by the count value in memory M5 Y is set as 1 (step S114), and the count value X in memory M6 is set as 1 (step S115), and the picture that will be determined with count value X, Y The photographed data from left video camera 210L of plain position is written to the address location (step S116) of (X, the Y) of memory M7.

Then, CPU201 adds 1 (step S117), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S118) on the left and right directions of machine, the left and right directions until in step S119 count value X being more than video camera On pixel number a until, repeat step S116~S119 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S119) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S120), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S121), until step S122 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S115~S122 acts.

The pixel of a × b from left video camera 210L at the first mark position PM1 is stored in memory M7 as a result, Photographed data.Here, that printed object 4A includes the first alignment mark RM1 as shown in Figure 66 A_L1Photographed data as a × The photographed data of the pixel of b is stored in memory M7.

In addition, being stored with the pixel data of c × d of the first alignment mark RM1 in memory M16 as shown in Figure 66 A, make For the data of pattern match.In addition, the up and down direction of video camera is set as direction identical with the up and down direction of printed object 4A, The left and right directions of video camera is set as direction identical with the left and right directions of printed object 4A.

Then, CPU201 instructs (Figure 15: step S123) to the right video camera 210R transmission for sending photographed data, works as basis When transmission instruction has sent photographed data from right video camera 210R ("Yes" of step S124), by the count value in memory M5 Y is set as 1 (step S125), and the count value X in memory M6 is set as 1 (step S126), and the picture that will be determined with count value X, Y The photographed data from right video camera 210R of plain position is written to the address location (step S127) of (X, the Y) of memory M11.

Then, CPU201 adds 1 (step S128), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S129) on the left and right directions of machine, until count value X is more than the left and right directions of video camera in step s 130 On pixel number a until, repeat step S127~S130 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S130) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S131), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S132), until step S133 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S126~S133 acts.

The pixel of a × b from right video camera 210R at the first mark position PM1 is stored in memory M11 as a result, Photographed data.Here, that printed object 4A includes the first alignment mark RM1 as shown in Figure 67 A_R1Photographed data as a × The photographed data of the pixel of b is stored in memory M11.

Then, CPU201 reads in the rotation speed Vc (Figure 16: step S134) of the mobile motor of video camera from memory M1, Toggling command and the mobile motor of video camera are exported with motor driver 212 via D/A converter 215 is mobile to video camera Rotation speed Vc (step S135).Video camera is mobile as a result, is inverted with motor 211 with rotation speed Vc, is stopped in Fig. 1 (Fig. 2) Only in the left video camera 210L of the first mark position PM1 and right video camera 210R, right direction carries out simultaneously in mounting table 3 It is mobile.

In the moving process of the left video camera 210L and right video camera 210R, CPU201 reads in camera position detection With the count value (step S136) of counter 214, according to the count value of camera position detection counter 214 to left camera shooting The current location PCM of machine 210L and right video camera 210R_RIt carries out operation (step S137), and reads in second from memory M10 Mark position PM2 (step S138) confirms the current location PCM of left video camera 210L and right video camera 210R_RWhether reach The second mark position PM2 (step S139).

As the current location PCM for confirming left video camera 210L and right video camera 210R_RReach the second mark position PM2 When ("Yes" of step S139), CPU201 exports shooting instruction (step to left video camera 210L and right video camera 210R S140), include the first alignment mark RM1 on printed object 4A with left video camera 210L_L2Region shot, and with the right side Video camera 210R includes the first alignment mark RM1 on printed object 4A_R2Region shot.

Then, CPU201 instructs (step S141) to the left video camera 210L transmission for sending photographed data, when according to the hair When instruction being sent to have sent photographed data from left video camera 210L ("Yes" of step S142), the count value Y in memory M5 is set For 1 (step S143), the count value X in memory M6 is set as 1 (Figure 17: step S144), and will be determined with count value X, Y The photographed data from left video camera 210L of location of pixels is written to the address location (step of (X, the Y) of memory M12 S145)。

Then, CPU201 adds 1 (step S146), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S147) on the left and right directions of machine, the left and right directions until in step S148 count value X being more than video camera On pixel number a until, repeat step S145~S148 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S148) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S149), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S150), until step S151 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S144~S151 acts.

The pixel of a × b from left video camera 210L at the second mark position PM2 is stored in memory M12 as a result, Photographed data.Here, that printed object 4A includes the first alignment mark RM1 as shown in Figure 68 A_L2Photographed data as a × The photographed data of the pixel of b is stored in memory M12.

Then, CPU201 instructs (step S152) to the right video camera 210R transmission for sending photographed data, when according to the hair When instruction being sent to have sent photographed data from right video camera 210R ("Yes" of step S153), the count value Y in memory M5 is set For 1 (Figure 18: step S154), the count value X in memory M6 is set as 1 (step S155), and will be determined with count value X, Y The photographed data from right video camera 210R of location of pixels is written to the address location (step of (X, the Y) of memory M13 S156)。

Then, CPU201 adds 1 (step S157), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S158) on the left and right directions of machine, the left and right directions until in step S159 count value X being more than video camera On pixel number a until, repeat step S156~S159 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S159) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S160), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S161), until step S162 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S155~S162 acts.

The pixel of a × b from right video camera 210R at the second mark position PM2 is stored in memory M13 as a result, Photographed data.Here, that printed object 4A includes the first alignment mark RM1 as shown in Figure 69 A_R2Photographed data as a × The photographed data of the pixel of b is stored in memory M13.

Then, CPU201 continues the movement of left video camera 210L and right video camera 210R, when the origin of video camera When position detector 216 senses left video camera 210L and right video camera 210R and revert to origin position (initial position) ("Yes" of step S163), it is mobile to video camera to send halt instruction (step S164) with motor driver 212, make left video camera The mobile stopping of 210L and right video camera 210R.

(utilizing the detection of the position of the first alignment mark of pattern match)

Then, the count value Y in memory M5 is set as 1 (Figure 19: step S165) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S166), the count value N in memory M14 is set as 1 (step S167), by the meter in memory M15 Numerical value M is set as 1 (step S168).

Then, the pixel data (step of the left video camera of the address location of (X+M-1, the Y+N-1) in read in memory M7 S169), the pixel data (step S170) of the first alignment mark of the address location of (M, the N) in read in memory M16, and really Recognize the pixel data and memory M16 of the left video camera of the address location of (X+M-1, the Y+N-1) in the memory M7 of the reading In (M, N) address location whether consistent (the step S171, referring to Figure 66 A) of pixel data.

Here, if the pixel data of the left video camera of the address location of (X+M-1, Y+N-1) in memory M7 with deposit The pixel data of first alignment mark of the address location of (M, N) in reservoir M16 is inconsistent ("No" of step S169), then this When the address from (X, Y) to the address of (X+c-1, Y+d-1) until the left side video camera 210L first mark position Any one pixel data in photographed data is different from the pixel data of the first alignment mark, and starts from the address of (X, Y) Range there is no the first mark position PM1 the left side the first alignment mark RM1_L1, therefore CPU201 is in memory M6 Count value X adds 1 (Figure 20: step S172), and pixel number a and storage on the left and right directions of the video camera in read in memory M8 Pixel number c (step S173, S174) on the left and right directions of the first alignment mark in device M17, falls into a trap until in step S175 Until numerical value X is more than " a-c+1 ", repeat the processing movement of step S167~S175.

In processing movement, if count value X is more than " a-c+1 " ("Yes" of step S175), the left side will exceed End on the left and right directions of the photographed data of the first mark position of video camera 210L, therefore CPU201 is in memory M5 Count value Y adds 1 (step S176), and pixel number b and memory M18 in the up and down direction of the video camera in read in memory M9 In the first alignment mark up and down direction on pixel number d (step S177, S178), until in step S179 count value Y Until more than " b-d+1 ", repeat the processing movement of step S166~S179.

In processing movement, when the left video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M7 (Figure 19: the step when pixel data of first alignment mark of the address location of pixel data and (M, N) in memory M16 is consistent The "Yes" of rapid S171), CPU201 adds 1 (Figure 21: step S181) to the count value M in memory M15, and reads from memory M17 Enter the pixel number c (step S182) on the left and right directions of the first alignment mark, until being more than first in step S183 count value M Until pixel number c on the left and right directions of alignment mark, repeat the processing movement of step S169~S183.

As the pixel number c on the left and right directions that count value M is more than the first alignment mark ("Yes" of step S183), CPU201 adds 1 (step S184) to the count value N in memory M14, and above and below memory M18 the first alignment mark of reading Pixel number d (step S185) on direction, until in the up and down direction for being more than the first alignment mark in step S186 count value N Pixel number d until, repeat step S168~S186 processing movement.

In this way, photographed data (the bat of first mark position on the left side of the CPU201 to the pixel of a × b in memory M7 Take the photograph data) carry out memory M16 in c × d the first alignment mark pixel data pattern match, when count value N is more than When pixel number d in the up and down direction of the first alignment mark ("Yes" of step S186), a × b being judged as in memory M7 Pixel photographed data the address from (X, Y) to the address of (X+c-1, Y+d-1) until range include memory M16 in C × d the first alignment mark pixel data.That is, it is determined that at the first mark position PM1 of left video camera 210L shooting Image among include the first alignment mark RM1 (RM1_L1)。

In addition, will be more than in the case where step S179 count value Y has been more than " b-d+1 " ("Yes" of step S179) The end of the up and down direction of the photographed data of the first mark position of the video camera 210L on the left side, CPU201 are judged as in left camera shooting The first alignment mark RM1 (RM1 is not included among image at first mark position PM1 of machine 210L shooting_L1), and in display 205 carry out wrong display (step S180).

Comprising the first register guide among the image being judged as at the first mark position PM1 of left video camera 210L shooting Remember RM1_L1When ("Yes" of step S186), CPU201 reads in the count value X (step S187) in memory M6 at this time, according to this The count value X of reading is to the first alignment mark RM1_L1X-direction on the M1x1 that locates_LOperation is carried out, and is written to storage Address location (step S188) in X-direction in device M19.In addition, reading in the count value Y (step in memory M5 at this time S189), according to the count value Y of the reading to the first alignment mark RM1_L1Y-direction on the M1y1 that locates_LOperation is carried out, And it is written to (the step S190, referring to Figure 66 B) of the address location in the Y-direction in memory M19.

In addition, alignment mark RM1_L1X-direction on the M1x1 that locates_LIt can be according to the left side for being provided with left video camera 210L Right direction position and count value X are found out, the M1y1 that locates in Y-direction_LIt can be according to the first mark position PM1 and count value Y It finds out.

Then, the count value Y in memory M5 is set as 1 (Figure 22: step S191) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S192), the count value N in memory M14 is set as 1 (step S193), by the meter in memory M15 Numerical value M is set as 1 (step S194).

Then, the pixel data (step of the left video camera of the address location of (X+M-1, the Y+N-1) in read in memory M12 Rapid S195), the pixel data (step S196) of the first alignment mark of the address location of (M, N) in read in memory M16, and Confirm the pixel data and memory of the left video camera of the address location of (X+M-1, the Y+N-1) in the memory M12 of the reading Whether consistent (the step S197, referring to Figure 68 A) of the pixel data of the address location of (M, N) in M16.

Here, if the pixel data of the left video camera of the address location of (X+M-1, Y+N-1) in memory M12 with deposit The pixel data of first alignment mark of the address location of (M, N) in reservoir M16 is inconsistent ("No" of step S197), then this When the address from (X, Y) to the address of (X+c-1, Y+d-1) until the left side video camera 210L second mark position Any one pixel data in photographed data is different from the pixel data of the first alignment mark, what is started from the address of (X, Y) There is no the first alignment mark RM1 on the left side of the second mark position PM2 for range_L2, therefore CPU201 is to the meter in memory M6 Numerical value X adds 1 (Figure 23: step S198), and pixel number a and memory on the left and right directions of the video camera in read in memory M8 Pixel number c (step S199, S200) on the left and right directions of the first alignment mark in M17, until counting in step s 201 Until value X is more than " a-c+1 ", the processing movement of step S193~S201 is repeated.

It is more than taking the photograph for the left side if count value X is more than " a-c+1 " ("Yes" of step S201) in processing movement End on the left and right directions of the photographed data of the second mark position of camera 210L, therefore CPU201 is to the meter in memory M5 Numerical value Y adds 1 (step S202), and in the pixel number b and memory M18 in the up and down direction of the video camera in read in memory M9 The first alignment mark up and down direction on pixel number d (step S203, S204), until super in step S205 count value Y Until crossing " b-d+1 ", repeat the processing movement of step S192~S205.

In processing movement, when the left video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M12 (Figure 22: the step when pixel data of first alignment mark of the address location of pixel data and (M, N) in memory M16 is consistent The "Yes" of rapid S197), CPU201 adds 1 (Figure 24: step S207) to the count value M in memory M15, and reads from memory M17 Enter the pixel number c (step S208) on the left and right directions of the first alignment mark, until being more than first in step S209 count value M Until pixel number c on the left and right directions of alignment mark, repeat the processing movement of step S195~S209.

As the pixel number c on the left and right directions that count value M is more than the first alignment mark ("Yes" of step S209), CPU201 adds 1 (step S210) to the count value N in memory M14, and above and below memory M18 the first alignment mark of reading Pixel number d (step S211) on direction, until in the up and down direction for being more than the first alignment mark in step S212 count value N Pixel number d until, repeat step S194~S212 processing movement.

In this way, photographed data (the bat of second mark position on the left side of the CPU201 to the pixel of a × b in memory M12 Take the photograph data) carry out memory M16 in c × d the first alignment mark pixel data pattern match, when count value N is more than When pixel number d in the up and down direction of the first alignment mark ("Yes" of step S212), a × b being judged as in memory M12 Pixel photographed data the address from (X, Y) to the address of (X+c-1, Y+d-1) until range include memory M16 in C × d the first alignment mark pixel data.That is, it is determined that at the second mark position PM2 of left video camera 210L shooting Image among include the first alignment mark RM1 (RM1_L2)。

In addition, will be more than in the case where step S205 count value Y has been more than " b-d+1 " ("Yes" of step S205) End in the up and down direction of the photographed data of the second mark position of the video camera 210L on the left side, CPU201 is judged as to be taken the photograph on a left side The first alignment mark RM1 (RM1 is not included among image at second mark position PM2 of camera 210L shooting_L2), and showing Device 205 carries out wrong display (step S206).

Comprising the first register guide among the image being judged as at the second mark position PM2 of left video camera 210L shooting Remember RM1_L2When ("Yes" of step S212), CPU201 reads in the count value X (step S213) in memory M6 at this time, according to this The count value X of reading is to the first alignment mark RM1_L2X-direction on the M1x2 that locates_LOperation is carried out, and is written to storage Address location (step S214) in X-direction in device M20.In addition, reading in the count value Y (step in memory M5 at this time S215) according to the count value Y of the reading to the first alignment mark RM1_L2Y-direction on the M1y2 that locates_LOperation is carried out, and Address location (the step S216, referring to Figure 68 B) being written in the Y-direction in memory M20.

In addition, alignment mark RM1_L2X-direction on the M1x2 that locates_LIt can be according to the left side for being provided with left video camera 210L Right direction position and count value X are found out, the M1y2 that locates in Y-direction_LIt can be according to the second mark position PM2 and count value Y It finds out.

Then, CPU201 reads in first from the first mark position PM1 from the address location in the Y-direction of memory M19 Alignment mark RM1_L1Y-direction on the M1y1 that locates_L(Figure 25: step S217), in addition, reading in first from memory M21 Base position M1y1r (step S218) in the Y-direction of the first alignment mark RM1 at mark position PM1, from the first marker bit Set the first alignment mark RM1 at PM1_L1Y-direction on the M1y1 that locates_LSubtract first at the first mark position PM1 Base position M1y1r in the Y-direction of alignment mark RM1 finds out the first alignment mark RM1 at the first mark position PM1_L1's Offset Δ M1y1 in Y-direction_L(referring to Figure 66 B), and the first alignment mark RM1 that this is found out_L1Y-direction on offset Measure Δ M1y1_LIt is written to memory M22 (step S219).

In addition, CPU201 reads in first from the first mark position PM1 from the address location in the Y-direction of memory M19 Alignment mark RM1_L1Y-direction on the M1y1 that locates_L(step S220), the address location from the Y-direction of memory M20 Read in the first alignment mark RM1 at the second mark position PM2_L2Y-direction on the M1y2 that locates_L(step S221), from The first alignment mark RM1 at first mark position PM1_L1Y-direction on the M1y1 that locates_LSubtract the second mark position The first alignment mark RM1 at PM2_L2Y-direction on the M1y2 that locates_LAnd between finding out first alignment mark on the left side away from From LM1_L(referring to Figure 70 (a)), and by the distance LM1 between first alignment mark on the left side found out_LIt is written to memory M23 (step S222).

Then, the count value Y in memory M5 is set as 1 (Figure 26: step S223) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S224), the count value N in memory M14 is set as 1 (step S225), by the meter in memory M15 Numerical value M is set as 1 (step S226).

Then, the pixel data (step of the right video camera of the address location of (X+M-1, the Y+N-1) in read in memory M11 Rapid S227), the pixel data (step S228) of the first alignment mark of the address location of (M, N) in read in memory M16, and Confirm the pixel data and memory of the right video camera of the address location of (X+M-1, the Y+N-1) in the memory M11 of the reading Whether consistent (the step S229, referring to Figure 67 A) of the pixel data of the address location of (M, N) in M16.

Here, if the pixel data of the right video camera of the address location of (X+M-1, Y+N-1) in memory M11 with deposit The pixel data of first alignment mark of the address location of (M, N) in reservoir M16 is inconsistent ("No" of step S229), then this When the address from (X, Y) to the address of (X+c-1, Y+d-1) until the right video camera 210R first mark position Any one pixel data in photographed data is different from the pixel data of the first alignment mark, what is started from the address of (X, Y) There is no the first alignment mark RM1 on the right of the first mark position PM1 for range_R1, therefore CPU201 is to the meter in memory M6 Numerical value X adds 1 (Figure 27: step S230), and pixel number a and memory on the left and right directions of the video camera in read in memory M8 Pixel number c (step S231, S232) on the left and right directions of the first alignment mark in M17, counts until in step S231 Until value X is more than " a-c+1 ", repeat the processing movement of step S225~S233.

It is more than taking the photograph for the right if count value X is more than " a-c+1 " ("Yes" of step S233) in processing movement End on the left and right directions of the photographed data of the first mark position of camera 210R, therefore CPU201 is to the meter in memory M5 Numerical value Y adds 1 (step S234), and in the pixel number b and memory M18 in the up and down direction of the video camera in read in memory M9 The first alignment mark up and down direction on pixel number d (step S235, S236), until super in step S237 count value Y Until crossing " b-d+1 ", repeat the processing movement of step S224~S237.

In processing movement, when the right video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M11 (Figure 26: the step when pixel data of first alignment mark of the address location of pixel data and (M, N) in memory M16 is consistent The "Yes" of rapid S229), CPU201 adds 1 (Figure 28: step S239) to the count value M in memory M15, and reads from memory M17 Enter the pixel number c (step S240) on the left and right directions of the first alignment mark, until being more than first in step S241 count value M Until pixel number c on the left and right directions of alignment mark, repeat the processing movement of step S227~S241.

As the pixel number c on the left and right directions that count value M is more than the first alignment mark ("Yes" of step S241), CPU201 adds 1 (step S242) to the count value N in memory M14, and above and below memory M18 the first alignment mark of reading Pixel number d (step S243) on direction, until in the up and down direction for being more than the first alignment mark in step S244 count value N Pixel number d until, repeat step S226~S244 processing movement.

In this way, photographed data (the bat of first mark position on the right of the CPU201 to the pixel of a × b in memory M11 Take the photograph data) carry out memory M16 in c × d the first alignment mark pixel data pattern match, when count value N is more than When pixel number d in the up and down direction of the first alignment mark ("Yes" of step S244), a × b being judged as in memory M11 Pixel photographed data the address from (X, Y) to the address of (X+c-1, Y+d-1) until range include memory M16 in C × d the first alignment mark pixel data.That is, it is determined that at the first mark position PM1 of right video camera 210R shooting Image among include the first alignment mark RM1 (RM1_R1)。

In addition, will be more than in the case where step S237 count value Y has been more than " b-d+1 " ("Yes" of step S237) End in the up and down direction of the photographed data of the first mark position of the video camera 210R on the right, CPU201 is judged as to be taken the photograph on the right side The first alignment mark RM1 (RM1 is not included among image at first mark position PM1 of camera 210R shooting_R1), and showing Device 205 carries out wrong display (step S238).

Comprising the first register guide among the image being judged as at the first mark position PM1 of right video camera 210R shooting Remember RM1_R1When ("Yes" of step S244), CPU201 reads in the count value X (step S245) in memory M6 at this time, according to this The count value X of reading is to the first alignment mark RM1_R1X-direction on the M1x1 that locates_ROperation is carried out, and is written to storage Address location (step S246) in X-direction in device M24.In addition, reading in the count value Y (step in memory M5 at this time S247), according to the count value Y of the reading to the first alignment mark RM1_R1Y-direction on the M1y1 that locates_ROperation is carried out, And it is written to (the step S248, referring to Figure 67 B) of the address location in the Y-direction in memory M24.

In addition, alignment mark RM1_R1X-direction on the M1x1 that locates_RIt can be according to the left side for being provided with right video camera 210R Right direction position and count value X are found out, the M1y1 that locates in Y-direction_RIt can be according to the first mark position PM1 and count value Y It finds out.

Then, the count value Y in memory M5 is set as 1 (Figure 29: step S249) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S250), the count value N in memory M14 is set as 1 (step S251), by the meter in memory M15 Numerical value M is set as 1 (step S252).

Then, the pixel data (step of the right video camera of the address location of (X+M-1, the Y+N-1) in read in memory M13 Rapid S253), the pixel data (step S254) of the first alignment mark of the address location of (M, N) in read in memory M16, and Confirm the pixel data and memory of the right video camera of the address location of (X+M-1, the Y+N-1) in the memory M13 of the reading Whether consistent (the step S255, referring to Figure 69 A) of the pixel data of the address location of (M, N) in M16.

Here, if the pixel data of the right video camera of the address location of (X+M-1, Y+N-1) in memory M13 with deposit The pixel data of first alignment mark of the address location of (M, N) in reservoir M16 is inconsistent ("No" of step S255), then this When the address from (X, Y) to the address of (X+c-1, Y+d-1) until the right video camera 210R second mark position Any one pixel data in photographed data is different from the pixel data of the first alignment mark, what is started from the address of (X, Y) There is no the first alignment mark RM1 on the right of the second mark position PM2 for range_R2, therefore CPU201 is to the meter in memory M6 Numerical value X adds 1 (Figure 30: step S256), and pixel number a and memory on the left and right directions of the video camera in read in memory M8 Pixel number c (step S257, S258) on the left and right directions of the first alignment mark in M17, counts until in step S259 Until value X is more than " a-c+1 ", repeat the processing movement of step S251~S259.

It is more than taking the photograph for the right if count value X is more than " a-c+1 " ("Yes" of step S259) in processing movement End on the left and right directions of the photographed data of the second mark position of camera 210R, therefore CPU201 is to the meter in memory M5 Numerical value Y adds 1 (step S260), and in the pixel number b and memory M18 in the up and down direction of the video camera in read in memory M9 The first alignment mark up and down direction on pixel number d (step S261, S262), until super in step S263 count value Y Until crossing " b-d+1 ", repeat the processing movement of step S250~S263.

In processing movement, when the right video camera for the address location for confirming (X+M-1, Y+N-1) in memory M13 Pixel data and memory M16 in (M, N) address location the first alignment mark pixel data it is consistent when (Figure 29: The "Yes" of step S255), CPU201 adds 1 (Figure 31: step S265) to the count value M in memory M15, and from memory M17 The pixel number c (step S266) on the left and right directions of the first alignment mark is read in, until being more than the in step S267 count value M Until pixel number c on the left and right directions of one alignment mark, repeat the processing movement of step S253~S267.

As the pixel number c on the left and right directions that count value M is more than the first alignment mark ("Yes" of step S267), CPU201 adds 1 (step S268) to the count value N in memory M14, and above and below memory M18 the first alignment mark of reading Pixel number d (step S269) on direction, until in the up and down direction for being more than the first alignment mark in step S270 count value N Pixel number d until, repeat step S252~S270 processing movement.

In this way, photographed data (the bat of second mark position on the right of the CPU201 to the pixel of a × b in memory M13 Take the photograph data) carry out memory M16 in c × d the first alignment mark pixel data pattern match, when count value N is more than When pixel number d in the up and down direction of the first alignment mark ("Yes" of step S270), a × b being judged as in memory M13 Pixel photographed data the address from (X, Y) to the address of (X+c-1, Y+d-1) until range include memory M16 in C × d the first alignment mark pixel data.That is, it is determined that at the second mark position PM2 of right video camera 210R shooting Image among include the first alignment mark RM1 (RM1_R2)。

In addition, will be more than in the case where step S263 count value Y has been more than " b-d+1 " ("Yes" of step S263) End in the up and down direction of the photographed data of the second mark position of the video camera 210R on the right, CPU201 is judged as to be taken the photograph on the right side The first alignment mark RM1 (RM1 is not included among image at second mark position PM2 of camera 210R shooting_R2), and showing Device 205 carries out wrong display (step S264).

Comprising the first register guide among the image being judged as at the second mark position PM2 of right video camera 210R shooting Remember RM1_R2When ("Yes" of step S270), CPU201 reads in the count value X (step S271) in memory M6 at this time, according to this The count value X of reading is to the first alignment mark RM1_R2X-direction on the M1x2 that locates_ROperation is carried out, and is written to storage Address location (step S272) in X-direction in device M25.In addition, reading in the count value Y (step in memory M5 at this time S273), according to the count value Y of the reading to the first alignment mark RM1_R2Y-direction on the M1y2 that locates_ROperation is carried out, And it is written to (the step S274, referring to Figure 69 B) of the address location in the Y-direction in memory M25.

In addition, alignment mark RM1_R2X-direction on the M1x2 that locates_RIt can be according to the left side for being provided with right video camera 210R Right direction position and count value X are found out, the M1y2 that locates in Y-direction_RIt can be according to the second mark position PM2 and count value Y It finds out.

Then, CPU201 reads in first from the first mark position PM1 from the address location in the Y-direction of memory M24 Alignment mark RM1_R1Y-direction on the M1y1 that locates_R(Figure 32: step S275), and the first mark is read in from memory M21 The base position M1y1r (step S276) in the Y-direction of the first alignment mark RM1 at the PM1 of position is remembered, from the first mark position The first alignment mark RM1 at PM1_R1Y-direction on the M1y1 that locates_RSubtract first pair at the first mark position PM1 Base position M1y1r in the Y-direction of position label RM1, finds out the first alignment mark RM1 at the first mark position PM1_R1Y Offset Δ M1y1 on direction_R(referring to Figure 67 B), and the first alignment mark RM1 that this is found out_R1Y-direction on offset Measure Δ M1y1_RIt is written to memory M26 (step S277).

(calculating of the offset in the Y-direction of the first alignment mark of the first marked locations)

Then, first alignment mark RM1 of the CPU201 from the first mark position PM1 that memory M22 reads in the left side_L1's Offset Δ M1y1 in Y-direction_L(step S278), by the first contraposition at the first mark position PM1 on the left side of the reading Mark RM1_L1Y-direction on offset Δ M1y1_LAt the first mark position PM1 on the right for being written to memory M26 First alignment mark RM1_R1Y-direction on offset Δ M1y1_RIt is added, and will be at the first mark position PM1 on the left side First alignment mark RM1_L1Y-direction on offset Δ M1y1_LWith the first register guide at the first mark position PM1 on the right Remember RM1_R1Y-direction on offset Δ M1y1_RAggregate value divided by 2, find out first at the first mark position PM1 of left and right Average value Δ M1y1 (Δ M1y1=(the Δ M1y1 of alignment mark RM1_L+ΔM1y1_R)/2), by the first mark of the left and right found out Remember the average value Δ M1y1 of the first alignment mark RM1 at the PM1 of position as the first alignment mark at the first mark position PM1 Offset Δ Y1 in the Y-direction of RM1 is written to memory M27 (step S279, referring to Figure 70 (a), (b), (c)).

(calculating of the distance between the first alignment mark)

In addition, CPU201 reads in first from the first mark position PM1 from the address location in the Y-direction of memory M24 Alignment mark RM1_R1Y-direction on the M1y1 that locates_R(step S280), the address location from the Y-direction of memory M25 Read in the first alignment mark RM1 at the second mark position PM2_R2Y-direction on the M1y2 that locates_R(Figure 30: step S281), the first alignment mark RM1 from the first mark position PM1_R1Y-direction on the M1y1 that locates_RSubtract the second mark Remember the first alignment mark RM1 at the PM2 of position_R2Y-direction on the M1y2 that locates_R, find out first alignment mark on the right Between distance LM1_R(referring to Figure 70 (b)), and by the distance LM1 between first alignment mark on the right found out_RIt is written to storage Device M28 (step S282).

Then, CPU201 from memory M23 read in the left side the first alignment mark between distance LM1_L(step S283), will Distance LM1 between first alignment mark on the left side of the reading_LBetween first alignment mark on the right for being written to memory M28 Distance LM1_RIt is added, and by the distance LM1 between first alignment mark on the left side_LBetween first alignment mark on the right Distance LM1_RAggregate value divided by 2, find out the average value LM1 (LM1=(LM1 of the distance between the alignment mark of left and right_L+LM1_R)/ 2), and using the average value LM1 of the distance between the alignment mark of the left and right found out as a pair of the separated in the up-down direction Distance between one alignment mark is written to memory M29 (step S284, referring to Figure 70 (a), (b), (d)).

(calculating of the expansion and contraction between the first alignment mark)

Then, CPU201 reads in the reference distance LM1r (step S285) between the first alignment mark from memory M30, will write Enter to the distance (distance between the first alignment mark of left and right between a pair of of alignment mark in the up and down direction of memory M29 Average value) LM1 is divided by the reference distance LM1r between the first alignment mark, using the division arithmetic result as dividing in the up-down direction From the first alignment mark of a pair between expansion and contraction η 1 (η 1=LM1/LM1r) be written to memory M31 (step S286, referring to figure 70(e))。

(printing)

When printing starts (Figure 34: step S287's when switch 208 is set as " enabling " after the preparation for terminating the printing "Yes"), CPU201 reads in the printing starting position PRT of benchmark from memory M32_ST(step S288).As shown in Figure 71, the benchmark Printing starting position PRT_STAs the printing starting position of the benchmark to the printed object 4A for being arranged in mounting table 3 and it is preparatory It determines.

Then, CPU201 is from the Y-direction that memory M27 reads in the first alignment mark RM1 from the first mark position PM1 Offset Δ Y1 (step S289), read in and be written to the second alignment mark at the first mark position PM1 of memory M74 Offset Δ Y2 (step S290) in the Y-direction of RM2 finds out the printing starting position for the benchmark that will be read in step S288 PRT_STWith the offset Δ Y1 and the first mark position in the Y-direction of the first alignment mark RM1 at the first mark position PM1 Offset Δ Y2 in the Y-direction of the second alignment mark RM2 at PM1 is added and the printing starting position that is corrected PRT_ST', and it is written to memory M33 (step S291).In this case, the first alignment mark at the first mark position PM1 It finds out in the step S279 (Figure 32) of offset Δ Y1 in front in the Y-direction of RM1 as Δ Y1=Δ M1y1, the first marker bit It sets in the step S101 (Figure 13) of the offset Δ Y2 in the Y-direction of the second alignment mark RM2 at PM1 in front and is set as Δ Y2 =0.Therefore, in this case, the printing starting position PRT having modified_ST' as only by the found out in step S279 first mark Remember the printing starting position PRT of the offset Δ Y1 and benchmark in the Y-direction of the first alignment mark RM1 at the PM1 of position_STIt is added And the position being corrected obtains.

Then, CPU201 reads in the printing length l (step S292) determined to printed object 4A from memory M34, from depositing Reservoir M31 reads in the expansion and contraction η 1 (step S293) between the first alignment mark, between memory M77 the second alignment mark of reading Expansion and contraction η 2 (step S294), will be between the expansion and contraction η 1 and the second alignment mark between printing length l and the first alignment mark Expansion and contraction η 2 is multiplied, and finds out the printing length l ' (l '=1 × η of l × η 2) having modified, and be written to memory M35 (step S295).In this case, it finds out in the step S286 (Figure 33) of the expansion and contraction η 1 between the first alignment mark in front as η 1= η 2=1 is set as in LM1/LM1r, the step S102 (Figure 13) of expansion and contraction η 2 in front between the second alignment mark.Therefore, at this In the case of, the printing length l ' that has modified as only by between the first alignment mark found out in step S286 expansion and contraction η 1 with The length that printing length l is multiplied and is corrected obtains.

Then, CPU201 reads in the printing starting position PRT having modified from memory M33_ST' (step S296), it will correct Printing starting position PRT_ST' be added with the printing length l ' having modified and find out printing end position PRT_END, and this is asked Printing end position PRT out_ENDIt is written to memory M36 (step S297).

In addition, CPU201 reads in the benchmark rotation speed VBr (Figure 35: step S298) of rubber cylinder from memory M37, from Memory M31 reads in the expansion and contraction η 1 (step S299) between the first alignment mark, between memory M77 the second alignment mark of reading Expansion and contraction η 2 (step S300), by the expansion and contraction η's 1 between the benchmark rotation speed VBr and the first alignment mark of rubber cylinder The reciprocal multiplication of expansion and contraction η 2 between reciprocal and the second alignment mark and the rotation speed VBp for finding out the rubber cylinder in printing (1 × 1/ η 2 of the η of VBp=VBr × 1/), and the rotation speed VBp of the rubber cylinder in the printing found out is written to memory M38 (step S301).In this case, it is found out in the step S286 (Figure 33) of the expansion and contraction η 1 between the first alignment mark in front For η 1=LM1/LM1r, η 2=1 is set as in the step S102 (Figure 13) of expansion and contraction η 2 in front between the second alignment mark.Cause This, in this case, the rotation speed VBp of the rubber cylinder in printing is as the first register guide that will be found out in step S286 The inverse of expansion and contraction η 1 between note is obtained with the benchmark rotation speed VBr of the rubber cylinder speed for being multiplied and being adjusted.

(supply to the ink of plate cylinder)

Then, CPU201 reads in the benchmark rotation speed VPr (step S302) of plate cylinder from memory M39, and should The benchmark rotation speed VPr of the plate cylinder of reading is output to plate cylinder driving motor driver via D/A converter 221 218 (step S303).Plate cylinder 1 starts to rotate as a result, with benchmark rotation speed VPr.

CPU201 is in the state of making plate cylinder 1 with benchmark rotation speed VPr rotation to the output ink of ink device 235 It supplies sign on (step S304).Ink is initially supplied to plate cylinder 1 from ink device 235 as a result,.

During supplying ink from the ink device 235 to plate cylinder 1, CPU201 is from plate cylinder rotatable phase Detection counter 220 reads in count value (step S305), according to the plate cylinder rotatable phase detection counter of the reading Current rotatable phase of 220 count value to plate cylinderIt carries out operation (step S306), and is read in from memory M42 The printing starting position of plate cylinder(step S307) confirms the current rotatable phase of plate cylinderWhether print is reached The printing starting position of plate cylinder(step S308).

Then, when the current rotatable phase of confirmation plate cylinderThe printing starting position of plate cylinder is reached When ("Yes" of step S308), CPU201 from the detection of plate cylinder rotatable phase with counter 220 read in count value (Figure 36: step Rapid S309), according to the count value of the plate cylinder rotatable phase detection of reading counter 220 to the current of plate cylinder Rotatable phaseIt carries out operation (step S310), and reads in the printing end position of plate cylinder from memory M43(step Rapid S306), confirm the current rotatable phase of plate cylinderWhether the printing end position of plate cylinder has been reached (step S312).

When the current rotatable phase of confirmation plate cylinderThe printing end position of plate cylinder is reachedWhen ("Yes" of step S312), CPU201 export halt instruction (step S313) to plate cylinder driving motor driver 218, and And ink supply halt instruction (step S314) is exported to ink device 235.As a result, in the printing start bit from plate cylinder 1 It setsTo printing end positionUntil section supply ink, the plate cylinder 1 in the state of having supplied the ink Rotation stops.

(from plate cylinder to the transfer of the ink of rubber cylinder)

Then, CPU201 reads in the benchmark rotation speed VBr (step S315) of rubber cylinder from memory M37, and should The benchmark rotation speed VBr of the rubber cylinder of reading is output to rubber cylinder driving motor driver via D/A converter 226 223 (step S316).Rubber cylinder 2 starts to rotate as a result, with the benchmark rotation speed VBr of rubber cylinder.At this point, rubber cylinder 2 do not contact with plate cylinder 1.

CPU201 is examined after rotating rubber cylinder 2 with benchmark rotation speed VBr from rubber cylinder rotatable phase It surveys and reads in count value (Figure 37: step S317) with counter 225, used and counted according to the detection of the rubber cylinder rotatable phase of the reading Current rotatable phase ψ of the count value of device 225 to rubber cylinder_RIt carries out operation (step S318), and is read in from memory M46 The printing starting position ψ of rubber cylinder_ST(step S319) confirms the current rotatable phase ψ of rubber cylinder_RWhether rubber has been reached The printing starting position ψ of glue cylinder_ST(step S320).

Then, as the current rotatable phase ψ of confirmation rubber cylinder_RThe printing starting position ψ of rubber cylinder is reached_STWhen ("Yes" of step S320), CPU201 export contact command (step S321) to cylinder contact separator 236, make rubber cylinder 2 contact with plate cylinder 1.Then, CPU201 reads in the benchmark rotation speed VPr (step of plate cylinder from memory M39 S322), and by the benchmark rotation speed VPr of the plate cylinder of the reading via D/A converter 221 it is output to plate cylinder driving With motor driver 218 (step S323).Plate cylinder 1 starts to rotate as a result, with benchmark rotation speed VPr, rolls from printing plate The ink of cylinder 1 starts to be transferred to rubber cylinder 2.

During from plate cylinder 1 to 2 transfer ink of rubber cylinder, CPU201 is detected from rubber cylinder rotatable phase and is used Counter 225 reads in count value (Figure 38: step S324), according to the rubber cylinder rotatable phase detection counter of the reading Current rotatable phase ψ of 225 count value to rubber cylinder_RIt carries out operation (step S325), and reads in rubber from memory M47 The printing end position ψ of glue cylinder_END(step S326) confirms the current rotatable phase ψ of rubber cylinder_RWhether rubber has been reached The printing end position ψ of glue cylinder_END(step S327).

Then, as the current rotatable phase ψ of confirmation rubber cylinder_RThe printing end position ψ of rubber cylinder is reached_END When ("Yes" of step S327), CPU201 to cylinder contact separator 236 export separation command (step S328), roll rubber Cylinder 2 is separated from plate cylinder 1.That is, carrying out roller disengaging.As a result, in the printing starting position ψ from rubber cylinder 2_STIt is tied to printing Beam position ψ_ENDUntil section, transfer the ink from plate cylinder 1.

(decline of rubber cylinder)

At the end of from plate cylinder 1 to the transfer of the ink of rubber cylinder 2, CPU201 is to plate cylinder driving motor Driver 218 exports halt instruction (step S329), stops the rotation of plate cylinder 1.Then, from rubber cylinder rotatable phase Detection counter 225 reads in count value (Figure 39: step S330), is used tricks according to the detection of the rubber cylinder rotatable phase of the reading Current rotatable phase ψ of the count value of number device 225 to rubber cylinder_RIt carries out operation (step S331), and is read from memory M48 Enter the mobile starting position ψ of rubber cylinder_MST(step S332) confirms the current rotatable phase ψ of rubber cylinder_RWhether reach The mobile starting position ψ of rubber cylinder_MST(step S333).

Then, as the current rotatable phase ψ of confirmation rubber cylinder_RThe mobile starting position ψ of rubber cylinder is reached_MST When ("Yes" of step S333), CPU201 to rubber cylinder lifting cylinder with valve 234 export decline instruction (step S334). Rubber cylinder lifting as a result, is worked with cylinder 233, and rubber cylinder 2 drops to mounting table 3 (referring to Figure 72).

(movement of rubber cylinder vertically)

Then, CPU201 reads in the up and down direction movement speed vB of rubber cylinder from memory M49_M(step S335), warp The up and down direction movement speed vB of instruction and rubber cylinder will be rotated forward by D/A converter 231_MIt is output to rubber cylinder upper and lower Motor driver 228 (step S336) is used to mobile.The downstream that rubber cylinder 2 is verticallyed while rotating as a result, Side, that is, in mounting table 4 there are the directions of printed object 4A with up and down direction movement speed vB_MStart to move.

Then, CPU201 is as the phase deviation for indicating to carry out using the up and down direction position of rubber cylinder and rotatable phase The value not yet completed of amendment, " 2 " are written to memory M50 (Figure 40: step S337).Then, upward in the rubber cylinder 2 In the moving process in the upward downstream side in lower section, is read in and counted with counter 230 from the up and down direction position detection of rubber cylinder It is worth (step S338), according to the up and down direction position detection of the rubber cylinder of the reading with the count value of counter 230 to rubber The current up and down direction position PBM of roller_RIt carries out operation and is simultaneously written to memory M52 (step S339), and from memory M33 reads in the printing starting position PRT having modified_ST' (step S340), determine that the rubber cylinder of operation is worked as in step S339 Preceding up and down direction position PBM_RWhether printing starting position PRT is reached_ST' (step S341).

(adjustment of the rotatable phase of rubber cylinder)

Current up and down direction position PBM until confirming rubber cylinder in step S341_RReach the print having modified Brush starting position PRT_ST' until during, CPU201 repeat step S342 (Figure 41)~S362 (Figure 42) processing movement. The adjustment of the rotatable phase of rubber cylinder is carried out in the processing of step S342~S362.The rotatable phase of the rubber cylinder Adjustment proceeds as follows.

CPU201 reads in the current up and down direction position PBM of rubber cylinder from memory M52_R(Figure 41: step S342), The offset Δ Y1 (step S343) in the Y-direction of the first alignment mark of the first marked locations is read in from memory M27, from Memory M74 reads in the offset Δ Y2 (step S344) in the Y-direction of the second alignment mark of the first marked locations, by rubber The current up and down direction position PBM of glue cylinder_RWith the offset in the Y-direction of the first alignment mark of the first marked locations Offset Δ Y2 in the Y-direction of Δ Y1 and the second alignment mark of the first marked locations is added, and finds out the rubber having modified The current up and down direction position PBM of glue cylinder_R', and by the current up and down direction of the rubber cylinder having modified found out Position PBM_R' it is written to memory M53 (step S345).

Then, become from up and down direction position-due rubber cylinder rotatable phase that memory M54 reads in rubber cylinder It uses instead table (step S346), and up and down direction position-due rubber cylinder rotation phase of the rubber cylinder using the reading Bit map table, according to the current up and down direction position PBM for the rubber cylinder having modified_R' find out due rubber cylinder Rotatable phase ψ m (step S347).

Then, CPU201 reads in count value (step S348) from rubber cylinder rotatable phase detection counter 225, and root The current rotatable phase of rubber cylinder is found out with the count value of counter 225 according to the rubber cylinder rotatable phase detection of the reading ψ_R(step S349).Then, the rotatable phase ψ m of the due rubber cylinder found out from step S347 subtracts rubber cylinder Current rotatable phase ψ_R, find out the current rotational phase difference Δ ψ of rubber cylinder_R, and the current rotation phase that this is found out Potential difference Δ ψ_RIt is written to memory M56 (step S350).

Then, CPU201 is according to the current rotational phase difference Δ ψ of the rubber cylinder found out in step S350_RFind out rubber The current rotational phase difference Δ ψ of glue cylinder_RAbsolute value (step S351), and from memory M58 read in rubber cylinder rotation The permissible value α (step S352) of phase inversion potential difference confirms the current rotational phase difference Δ ψ of rubber cylinder_RAbsolute value whether be The permissible value α or less (Figure 42: step S353) of the rotational phase difference of rubber cylinder.

Here, if the current rotational phase difference Δ ψ of rubber cylinder_RAbsolute value be not rubber cylinder rotatable phase The permissible value α or less ("No" of step S353) of difference, then CPU201 reads in the current rotation phase of rubber cylinder from memory M59 Potential difference-rotation speed correction value map table (step S354), and from memory M56 read in rubber cylinder current rotation Phase difference ψ_R(step S355), and current rotational phase difference-rotation speed correction value map table of rubber cylinder is used, According to the current rotational phase difference Δ ψ of rubber cylinder_RFind out the correction value Δ V (step S356) of rotation speed.

Then, CPU201 reads in the benchmark rotation speed VBr (step S357) of rubber cylinder from memory M37, by rubber The benchmark rotation speed VBr of roller is added with the correction value Δ V of rotation speed, finds out the rotation speed for the rubber cylinder having modified VBr ' (step S358), and the rotation speed VBr ' of the rubber cylinder having modified found out is exported via D/A converter 226 It to rubber cylinder driving motor driver 223 (step S359), returns to step S338 (Figure 40), repeats equally dynamic Make.

It can adjust the rotation speed of rubber cylinder 2, the current rotational phase difference Δ ψ of rubber cylinder as a result,_RAbsolute value It is adjusted to the permissible value α or less of the rotational phase difference of rubber cylinder.

Then, as the current rotational phase difference Δ ψ of rubber cylinder_RAbsolute value become rubber cylinder rotational phase difference Permissible value α or less when (Figure 42: the "Yes" of step S353), CPU201 from memory M37 read in rubber cylinder benchmark rotation Speed VBr (step S360), and the benchmark rotation speed VBr of the rubber cylinder of the reading is output to via D/A converter 226 Rubber cylinder driving motor driver 223 (step S361), as the up and down direction position and rotation indicated using rubber cylinder The completed value of amendment for the phase deviation that phase inversion position carries out, is written to memory M50 (step S362) for " 1 ".

Current up and down direction position PBM of the CPU201 until rubber cylinder_RReach the printing starting position having modified PRT_ST' until repeat the processing movement of step S342~S362, but rubber cylinder is current in step S353 Rotational phase difference Δ ψ_RAbsolute value be not rubber cylinder the permissible value α situation below of rotational phase difference under, do not enter The processing of step S360~S362.In this case, it remains and utilizes the upper and lower of rubber cylinder as expression in memory M50 Value that the amendment for the phase deviation that direction position and rotatable phase carry out not yet is completed and the state for being written with " 2 ".

As the current up and down direction position PBM of confirmation rubber cylinder_RReach the printing starting position PRT having modified_ST’ When (Figure 40: the "Yes" of step S341), CPU201, which is read in, is written to the value (step S363) of memory M50, and confirmation, which is written to, deposits Whether the value of reservoir M50 is " 1 " (Figure 43: step S364).Here, if the value for being written to memory M50 is " 1 " (step The "No" of S364), then it is shown wrong (step S377) in display 205, but if the value for being written to memory M50 is " 1 " ("Yes" of step S364) is then judged as inclined in the phase carried out using the up and down direction position of rubber cylinder and rotatable phase The completed state of amendment of difference.

When be judged as in using the up and down direction position of rubber cylinder and rotatable phase progress phase deviation amendment When completed state ("Yes" of step S364), CPU201 reads in the rotation speed of the rubber cylinder in printing from memory M38 It spends VBp (step S365), and the rotation speed VBp of the rubber cylinder in the printing of the reading is exported via D/A converter 226 To rubber cylinder driving motor driver 223 (step S366).Rubber cylinder 2 is as a result, with the rotation of the rubber cylinder in printing Rotary speed VBp starts rotation (referring to Figure 73).That is, rubber cylinder 2 is from the printing starting position PRT having modified_ST' rise on one side to print The rotation speed VBp of rubber cylinder in brush carry out rotation on one side vertically on downstream side it is mobile, in mounting table 3 Printed object 4A carries out the printing of circuit (secondary circuit).

Then, CPU201 reads in count value (step from the up and down direction position detection counter 230 of rubber cylinder S367), rubber cylinder is worked as according to the count value of the up and down direction position detection counter 230 of the rubber cylinder of the reading Preceding up and down direction position PBM_RIt carries out operation (step S368), and reads in printing end position PRT from memory M36_END(step Rapid S369), determine the current up and down direction position PBM of rubber cylinder_RWhether printing end position PRT is reached_END(step S370)。

As the current up and down direction position PBM of confirmation rubber cylinder_RReach printing end position PRT_ENDWhen (step The "Yes" of S370), CPU201 exports halt instruction (Figure 41: step S371) to rubber cylinder driving motor driver 223, makes The rotation of rubber cylinder 2 stops (referring to Figure 74).Then, climb command is exported to rubber cylinder lifting cylinder valve 234 (step S372) rises rubber cylinder 2 (referring to Figure 75) from mounting table 3.

Then, CPU201 reads in the up and down direction movement speed vB of rubber cylinder from memory M49_M(step S373), warp By D/A converter 231 by toggling command and the up and down direction movement speed vB of rubber cylinder_MIt is output to rubber cylinder upper and lower Motor driver 228 (step S374) is used to mobile.Rubber cylinder 2 is as a result, stopped the state of rotation towards up and down direction On upstream side, that is, the side that plate cylinder 1 is located at is with up and down direction movement speed vB_MStart to move.

By the rubber cylinder 2 vertically on upstream side movement, when in the up and down direction of rubber cylinder When origin position detector 232 becomes " enabling " ("Yes" of step S375), that is, start to move it when back to rubber cylinder 1 It is mobile to rubber cylinder up and down direction to export halt instruction with motor driver 228 when preceding initial position (origin position) (step S376).The mobile stopping of rubber cylinder 2 vertically as a result, (referring to Figure 76).

The offset Δ Y2 in the Y-direction of the second alignment mark at the first mark position PM1 is set as Δ Y2=as a result, 0, the expansion and contraction η 2 between the second alignment mark is set as η 2=1, electricity is carried out to the printed object 4A for the circuit for being printed with first time The initial quilt there are four the second alignment mark RM2 is printed in the printing on road (secondary circuit) while obtaining as shown in Figure 3 Printed article 4B.

(teaching after printing)

Operator is obtaining to print like this while after printed object 4AB of the printing there are four the second alignment mark RM2 Teaching switch 209 after brush is set as " enabling ".

When teaching switch 209 after printing is set as " enabling " (Figure 45: the "Yes" of step S377), platform printing The CPU201 of control device 200 reads in the rotation speed Vc (step S378) of the mobile motor of video camera from memory M1, and passes through The rotation speed Vc for rotating forward instruction and the mobile motor of video camera is output to the mobile electricity consumption of video camera by D/A converter 215 Machine driver 212 (step S379).Video camera movement as a result, is rotated forward with motor 211 with rotation speed Vc, and by Fig. 3 institute As origin position, left video camera 210L and right video camera 210R left direction in mounting table 3 are same for the initial position shown Shi Jinhang is mobile.

In the moving process of the left video camera 210L and right video camera 210R, CPU201 reads in camera position detection With the count value (step S380) of counter 214, according to the count value of camera position detection counter 214 to left camera shooting The current location PCM of machine 210L and right video camera 210R_RIt carries out operation (step S381), and reads in the first mark from memory M4 Remember position PM1 (step S382), confirms the current location PCM of left video camera 210L and right video camera 210R_RWhether reach First mark position PM1 (step S383).

As the current location PCM for confirming left video camera 210L and right video camera 210R_RReach the first mark position PM1 When ("Yes" of step S383), CPU201 is mobile to video camera to export halt instruction (step S384) with motor driver 212, makes The mobile stopping of left video camera 210L and right video camera 210R.Then, defeated to left video camera 210L and right video camera 210R Shooting instruction (step S385) out, with left video camera 210L on the printed object 4B for being arranged in mounting table 3 include second pair Position label RM2_R1Region shot, and with right video camera 210R on printed object 4B include the second alignment mark RM2_R1Region shot.

Then, CPU201 instructs (Figure 46: step S386) to the left video camera 210L transmission for sending photographed data, works as basis When transmission instruction has sent photographed data from left video camera 210L ("Yes" of step S387), by the count value in memory M5 Y is set as 1 (step S388), and the count value X in memory M6 is set as 1 (step S389), and the picture that will be determined with count value X, Y The photographed data from left video camera 210L of plain position is written to the address location (step S390) of (X, the Y) of memory M7.

Then, CPU201 adds 1 (step S391), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S392) on the left and right directions of machine, the left and right directions until in step S393 count value X being more than video camera On pixel number a until, repeat step S390~S393 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S393) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S394), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S395), until step S396 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S389~S396 acts.

The pixel of a × b from left video camera 210L at the first mark position PM1 is stored in memory M7 as a result, Photographed data.Here, that printed object 4B includes the second alignment mark RM2 as shown in Figure 77 A_L1Photographed data as a × The photographed data of the pixel of b is stored in memory M7.In addition, being used as pattern match in memory M62 as shown in Figure 77 A Data and the pixel data for being stored with e × f of the second alignment mark RM2.

Then, CPU201 instructs (Figure 47: step S397) to the right video camera 210R transmission for sending photographed data, works as basis When transmission instruction has sent photographed data from right video camera 210R ("Yes" of step S398), by the count value in memory M5 Y is set as 1 (step S399), and the count value X in memory M6 is set as 1 (step S400), and the picture that will be determined with count value X, Y The photographed data from right video camera 210R of plain position is written to the address location (step S401) of (X, the Y) of memory M11.

Then, CPU201 adds 1 (step S402), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S403) on the left and right directions of machine, until count value X is more than the left and right directions of video camera in step s 404 On pixel number a until, repeat step S401~S404 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S404) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S405), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S406), until pixel number b in the up and down direction that count value Y in step S 407 is more than video camera, repeat into The processing of row step S400~S407 acts.

The pixel of a × b from right video camera 210R at the first mark position PM1 is stored in memory M11 as a result, Photographed data.Here, that printed object 4B includes the second alignment mark RM2 as shown in Figure 78 A_R1Photographed data as a × The photographed data of the pixel of b is stored in memory M11.

Then, CPU201 reads in the rotation speed Vc (Figure 48: step S408) of the mobile motor of video camera from memory M1, The rotation speed Vc of toggling command and the mobile motor of video camera is output to the mobile use of video camera via D/A converter 215 Motor driver 212 (step S409).Video camera movement as a result, is inverted with motor 211 with rotation speed Vc, in Fig. 3 Stop at the left video camera 210L and right video camera 210R of the first mark position PM1 in mounting table 3 right direction simultaneously into Row movement.

In the moving process of the left video camera 210L and right video camera 210R, CPU201 reads in camera position detection With the count value (step S410) of counter 214, according to the count value of camera position detection counter 214 to left camera shooting The current location PCM of machine 210L and right video camera 210R_RIt carries out operation (step S411), and reads in second from memory M10 Mark position PM2 (step S412) confirms the current location PCM of left video camera 210L and right video camera 210R_RWhether reach The second mark position PM2 (step S413).

As the current location PCM for confirming left video camera 210L and right video camera 210R_RReach the second mark position PM2 When ("Yes" of step S413), CPU201 exports shooting instruction (step to left video camera 210L and right video camera 210R S414), include the second alignment mark RM2 on printed object 4B with left video camera 210L_L2Region shot, and with the right side Video camera 210R includes the second alignment mark RM2 on printed object 4B_R2Region shot.

Then, CPU201 instructs (step S415) to the left video camera 210L transmission for sending photographed data, when according to the hair When instruction being sent to have sent photographed data from left video camera 210L ("Yes" of step S416), the count value Y in memory M5 is set For 1 (step S417), the count value X in memory M6 is set as 1 (Figure 49: step S418), and will be determined with count value X, Y The photographed data from left video camera 210L of location of pixels is written to the address location (step of (X, the Y) of memory M12 S419)。

Then, CPU201 adds 1 (step S420), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S421) on the left and right directions of machine, the left and right directions until in step S422 count value X being more than video camera On pixel number a until, repeat step S419~S422 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S422) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S423), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S424), until step S425 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S418~S425 acts.

The pixel of a × b from left video camera 210L at the second mark position PM2 is stored in memory M12 as a result, Photographed data.Here, that printed object 4B includes the second alignment mark RM2 as shown in Figure 79 A_L2Photographed data as a × The photographed data of the pixel of b is stored in memory M12.

Then, CPU201 instructs (step S426) to the right video camera 210R transmission for sending photographed data, when according to the hair When instruction being sent to have sent photographed data from right video camera 210R ("Yes" of step S427), the count value Y in memory M5 is set For 1 (Figure 50: step S428), the count value X in memory M6 is set as 1 (step S429), and will be determined with count value X, Y The photographed data from right video camera 210R of location of pixels is written to the address location (step of (X, the Y) of memory M13 S430)。

Then, CPU201 adds 1 (step S431), and the camera shooting in read in memory M8 to the count value X in memory M6 Pixel number a (step S432) on the left and right directions of machine, the left and right directions until in step S433 count value X being more than video camera On pixel number a until, repeat step S430~S433 processing movement.

Then, right if count value X is more than the pixel number a ("Yes" of step S433) on the left and right directions of video camera Count value Y in memory M5 adds 1 (step S434), and the pixel number in the up and down direction of the video camera in read in memory M9 B (step S435), until step S436 count value Y be more than video camera up and down direction on pixel number b until, repeat into The processing of row step S429~S436 acts.

The pixel of a × b from right video camera 210R at the second mark position PM2 is stored in memory M13 as a result, Photographed data.Here, that printed object 4B includes the second alignment mark RM2 as shown in Figure 80 A_R2Photographed data as a × The photographed data of the pixel of b is stored in memory M13.

Then, CPU201 continues the movement of left video camera 210L and right video camera 210R, when the origin of video camera When position detector 216 senses left video camera 210L and right video camera 210R and revert to origin position (initial position) ("Yes" of step S437), it is mobile to video camera to send halt instruction (step S438) with motor driver 212, make left video camera The mobile stopping of 210L and right video camera 210R.

(utilizing the detection of the position of the second alignment mark of pattern match)

Then, the count value Y in memory M5 is set as 1 (Figure 51: step S439) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S440), the count value N in memory M14 is set as 1 (step S441), by the meter in memory M15 Numerical value M is set as 1 (step S442).

Then, the pixel data (step of the left video camera of the address location of (X+M-1, the Y+N-1) in read in memory M7 S443), the pixel data (step S444) of the second alignment mark of the address location of (M, the N) in read in memory M62, and really Recognize the pixel data and memory M62 of the left video camera of the address location of (X+M-1, the Y+N-1) in the memory M7 of the reading In (M, N) address location whether consistent (the step S445, referring to Figure 77 A) of pixel data.

Here, if the pixel data of the left video camera of the address location of (X+M-1, Y+N-1) in memory M7 with deposit The pixel data of second alignment mark of the address location of (M, N) in reservoir M62 is inconsistent ("No" of step S445), then this When the address from (X, Y) to the address of (X+e-1, Y+f-1) until the left side video camera 210L first mark position Any one pixel data in photographed data is different from the pixel data of the second alignment mark, what is started from the address of (X, Y) There is no the second alignment mark RM2 on the left side of the first mark position PM1 for range_L1, therefore CPU201 is to the meter in memory M6 Numerical value X adds 1 (Figure 52: step S446), and pixel number a and memory on the left and right directions of the video camera in read in memory M8 Pixel number e (step S447, S448) on the left and right directions of the second alignment mark in M63, counts until in step S449 Until value X is more than " a-e+1 ", repeat the processing movement of step S441~S449.

It will be more than the left side if count value X is more than " a-e+1 " ("Yes" of step S449) in processing movement End on the left and right directions of the photographed data of the first mark position of video camera 210L, therefore CPU201 is in memory M5 Count value Y adds 1 (step S450), and pixel number b and memory M64 in the up and down direction of the video camera in read in memory M9 In the second alignment mark up and down direction on pixel number f (step S451, S452), until in step S453 count value Y Until more than " b-f+1 ", repeat the processing movement of step S440~S453.

In processing movement, when the left video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M7 (Figure 51: the step when pixel data of second alignment mark of the address location of pixel data and (M, N) in memory M62 is consistent The "Yes" of rapid S445), CPU201 adds 1 (Figure 53: step S455) to the count value M in memory M15, and reads from memory M63 Enter the pixel number e (step S456) on the left and right directions of the second alignment mark, until being more than second in step S457 count value M Until pixel number e on the left and right directions of alignment mark, repeat the processing movement of step S443~S457.

As the pixel number e on the left and right directions that count value M is more than the second alignment mark ("Yes" of step S457), CPU201 adds 1 (step S458) to the count value N in memory M14, and above and below memory M64 the second alignment mark of reading Pixel number f (step S459) on direction, until in the up and down direction for being more than the second alignment mark in step S460 count value N Pixel number f until, repeat step S442~S460 processing movement.

In this way, photographed data (the bat of first mark position on the left side of the CPU201 to the pixel of a × b in memory M7 Take the photograph data) carry out memory M62 in e × f the second alignment mark pixel data pattern match, when count value N is more than When pixel number f in the up and down direction of the second alignment mark ("Yes" of step S460), a × b being judged as in memory M7 Pixel photographed data the address from (X, Y) to the address of (X+e-1, Y+f-1) until range include memory M62 in E × f the second alignment mark pixel data.That is, it is determined that at the first mark position PM1 of left video camera 210L shooting Image among include the second alignment mark RM2 (RM2_L1)。

In addition, will be more than in the case where step S453 count value Y has been more than " b-f+1 " ("Yes" of step S453) End in the up and down direction of the photographed data of the first mark position of the video camera 210L on the left side, CPU201 is judged as to be taken the photograph on a left side The second alignment mark RM2 (RM2 is not included among image at first mark position PM1 of camera 210L shooting_L1), and showing Device 205 carries out wrong display (step S454).

Comprising the second register guide among the image being judged as at the first mark position PM1 of left video camera 210L shooting Remember RM2_L1When ("Yes" of step S460), CPU201 reads in the count value X (step S461) in memory M6 at this time, according to this The count value X of reading is to the second alignment mark RM2_L1X-direction on the M2x1 that locates_LOperation is carried out, and is written to storage Address location (step S462) in X-direction in device M65.In addition, reading in the count value Y (step in memory M5 at this time S463), according to the count value Y of the reading to the second alignment mark RM2_L1Y-direction on the M2y1 that locates_LOperation is carried out, And it is written to (the step S464, referring to Figure 77 B) of the address location in the Y-direction in memory M65.

In addition, alignment mark RM2_L1X-direction on the M2x1 that locates_LIt can be according to the left side for being provided with left video camera 210L Right direction position and count value X are found out, the M2y1 that locates in Y-direction_LIt can be according to the first mark position PM1 and count value Y It finds out.

Then, the count value Y in memory M5 is set as 1 (Figure 54: step S465) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S466), the count value N in memory M14 is set as 1 (step S467), by the meter in memory M15 Numerical value M is set as 1 (step S468).

Then, the pixel data (step of the left video camera of the address location of (X+M-1, the Y+N-1) in read in memory M12 Rapid S469), the pixel data (step S470) of the second alignment mark of the address location of (M, N) in read in memory M62, and Confirm the pixel data and memory of the left video camera of the address location of (X+M-1, the Y+N-1) in the memory M12 of the reading Whether consistent (the step S471, referring to Figure 79 A) of the pixel data of the address location of (M, N) in M62.

Here, if the pixel data of the left video camera of the address location of (X+M-1, Y+N-1) in memory M12 with deposit The pixel data of second alignment mark of the address location of (M, N) in reservoir M62 is inconsistent ("No" of step S471), then this When the address from (X, Y) to the address of (X+e-1, Y+f-1) until the left side video camera 210L second mark position The pixel data of any of photographed data is different from the pixel data of the second alignment mark, starts from the address of (X, Y) Range there is no the second mark position PM2 the left side the second alignment mark RM2_L2, therefore CPU201 is in memory M6 Count value X adds 1 (Figure 55: step S472), and pixel number a and storage on the left and right directions of the video camera in read in memory M8 Pixel number e (step S473, S474) on the left and right directions of the second alignment mark in device M63, falls into a trap until in step S475 Until numerical value X is more than " a-e+1 ", repeat the processing movement of step S467~S475.

It will be more than the left side if count value X is more than " a-e+1 " ("Yes" of step S475) in processing movement End on the left and right directions of the photographed data of the second mark position of video camera 210L, therefore CPU201 is in memory M5 Count value Y adds 1 (step S476), and pixel number b and memory M64 in the up and down direction of the video camera in read in memory M9 In the second alignment mark up and down direction on pixel number f (step S477, S478), until in step S479 count value Y Until more than " b-f+1 ", repeat the processing movement of step S466~S479.

In processing movement, when the left video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M12 (Figure 54: the step when pixel data of second alignment mark of the address location of pixel data and (M, N) in memory M62 is consistent The "Yes" of rapid S471), CPU201 adds 1 (Figure 56: step S481) to the count value M in memory M15, and reads from memory M63 Enter the pixel number e (step S482) on the left and right directions of the second alignment mark, until being more than second in step S483 count value M Until pixel number e on the left and right directions of alignment mark, repeat the processing movement of step S469~S483.

As the pixel number e on the left and right directions that count value M is more than the second alignment mark ("Yes" of step S483), CPU201 adds 1 (step S484) to the count value N in memory M14, and above and below memory M64 the second alignment mark of reading Pixel number f (step S485) on direction, until in the up and down direction for being more than the second alignment mark in step S486 count value N Pixel number f until, repeat step S468~S486 processing movement.

In this way, photographed data (the bat of second mark position on the left side of the CPU201 to the pixel of a × b in memory M12 Take the photograph data) carry out memory M62 in e × f the second alignment mark pixel data pattern match, when count value N is more than When pixel number f in the up and down direction of the second alignment mark ("Yes" of step S486), a × b being judged as in memory M12 Pixel photographed data the address from (X, Y) to the address of (X+e-1, Y+f-1) until range include memory M62 in E × f the second alignment mark pixel data.That is, it is determined that at the second mark position PM2 of left video camera 210L shooting Image among include the second alignment mark RM2 (RM2_L2)。

In addition, will be more than in the case where step S479 count value Y has been more than " b-f+1 " ("Yes" of step S479) End in the up and down direction of the photographed data of the second mark position of the video camera 210L on the left side, CPU201 is judged as to be taken the photograph on a left side The second alignment mark RM2 (RM2 is not included among image at second mark position PM2 of camera 210L shooting_L2), and showing Device 205 carries out wrong display (step S480).

Comprising the second register guide among the image being judged as at the second mark position PM2 of left video camera 210L shooting Remember RM2_L2When ("Yes" of step S486), CPU201 reads in the count value X (step S487) in memory M6 at this time, according to this The count value X of reading is to the second alignment mark RM2_L2X-direction on the M2x2 that locates_LOperation is carried out, and is written to storage Address location (step S488) in X-direction in device M66.In addition, reading in the count value Y (step in memory M5 at this time S489), according to the count value Y of the reading to the second alignment mark RM2_L2Y-direction on the M2y2 that locates_LOperation is carried out, And it is written to (the step S490, referring to Figure 79 B) of the address location in the Y-direction in memory M66.

In addition, alignment mark RM2_L2X-direction on the M2x2 that locates_LIt can be according to the left side for being provided with left video camera 210L Right direction position and count value X are found out, the M2y2 that locates in Y-direction_LIt can be according to the second mark position PM2 and count value Y It finds out.

Then, CPU201 reads in second from the first mark position PM1 from the address location in the Y-direction of memory M65 Alignment mark RM2_L1Y-direction on the M2y1 that locates_L(Figure 57: step S491), and the first mark is read in from memory M67 The base position M2y1r (step S492) in the Y-direction of the second alignment mark RM2 at the PM1 of position is remembered, from the first mark position The second alignment mark RM2 at PM1_L1Y-direction on the M2y1 that locates_LSubtract second pair at the first mark position PM1 Base position M2y1r in the Y-direction of position label RM2, finds out the second alignment mark RM2 at the first mark position PM1_L1Y Offset Δ M2y1 on direction_L(referring to Figure 77 B), and the second alignment mark RM2 that this is found out_L1Y-direction on offset Measure Δ M2y1_LIt is written to memory M68 (step S493).

In addition, CPU201 reads in second from the first mark position PM1 from the address location in the Y-direction of memory M65 Alignment mark RM2_L1Y-direction on the M2y1 that locates_L(step S494), the address location from the Y-direction of memory M66 Read in the second alignment mark RM2 at the second mark position PM2_L2Y-direction on the M2y2 that locates_L(step S495), from The second alignment mark RM2 at first mark position PM1_L1Y-direction on the M2y1 that locates_LSubtract the second mark position The second alignment mark RM2 at PM2_L2Y-direction on the M2y2 that locates_LAnd between finding out second alignment mark on the left side away from From LM2_L(referring to Figure 81 (a)), and by the distance LM2 between second alignment mark on the left side found out_LIt is written to memory M69 (step S496).

Then, the count value Y in memory M5 is set as 1 (Figure 58: step S497) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S498), the count value N in memory M14 is set as 1 (step S499), by the meter in memory M15 Numerical value M is set as 1 (step S500).

Then, the pixel data (step of the right video camera of the address location of (X+M-1, the Y+N-1) in read in memory M11 Rapid S501), the pixel data (step S502) of the second alignment mark of the address location of (M, N) in read in memory M62, and Confirm the pixel data and memory of the right video camera of the address location of (X+M-1, the Y+N-1) in the memory M11 of the reading Whether consistent (the step S503, referring to Figure 78 A) of the pixel data of the address location of (M, N) in M62.

Here, if the pixel data of the right video camera of the address location of (X+M-1, Y+N-1) in memory M11 with deposit The pixel data of second alignment mark of the address location of (M, N) in reservoir M62 is inconsistent ("No" of step S503), then this When the address from (X, Y) to the address of (X+e-1, Y+f-1) until the right video camera 210R first mark position The pixel data of any of photographed data is different from the pixel data of the second alignment mark, starts from the address of (X, Y) Range there is no the first mark position PM1 the right the first alignment mark RM2_R1, therefore CPU201 is in memory M6 Count value X adds 1 (Figure 59: step S504), and pixel number a and storage on the left and right directions of the video camera in read in memory M8 Pixel number e (step S505, S506) on the left and right directions of the second alignment mark in device M63, until counting in step s 507 Until numerical value X is more than " a-e+1 ", repeat the processing movement of step S499~S507.

It will be more than the right if count value X is more than " a-e+1 " ("Yes" of step S507) in processing movement End on the left and right directions of the photographed data of the first mark position of video camera 210R, therefore CPU201 is in memory M5 Count value Y adds 1 (step S508), and pixel number b and memory M64 in the up and down direction of the video camera in read in memory M9 In the second alignment mark up and down direction on pixel number f (step S509, S510), until in step S511 count value Y Until more than " b-f+1 ", repeat the processing movement of step S498~S511.

In processing movement, when the right video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M11 (Figure 58: the step when pixel data of second alignment mark of the address location of pixel data and (M, N) in memory M62 is consistent The "Yes" of rapid S503), CPU201 adds 1 (Figure 60: step S513) to the count value M in memory M15, and reads from memory M63 Enter the pixel number e (step S514) on the left and right directions of the second alignment mark, until being more than second in step S515 count value M Until pixel number e on the left and right directions of alignment mark, repeat the processing movement of step S501~S515.

As the pixel number e on the left and right directions that count value M is more than the second alignment mark ("Yes" of step S515), CPU201 adds 1 (step S516) to the count value N in memory M14, and above and below memory M64 the second alignment mark of reading Pixel number f (step S517) on direction, until in the up and down direction for being more than the second alignment mark in step S518 count value N Pixel number f until, repeat step S500~S518 processing movement.

In this way, photographed data (the bat of first mark position on the right of the CPU201 to the pixel of a × b in memory M11 Take the photograph data) carry out memory M62 in e × f the second alignment mark pixel data pattern match, when count value N is more than When pixel number f in the up and down direction of the second alignment mark ("Yes" of step S518), a × b being judged as in memory M11 Pixel photographed data the address from (X, Y) to the address of (X+e-1, Y+f-1) until range include memory M62 in E × f the second alignment mark pixel data.That is, it is determined that at the first mark position PM1 of right video camera 210R shooting Image among include the second alignment mark RM2 (RM2_R1)。

In addition, will be more than in the case where step S511 count value Y has been more than " b-f+1 " ("Yes" of step S511) End in the up and down direction of the photographed data of the first mark position of the video camera 210R on the right, CPU201 is judged as to be taken the photograph on the right side The second alignment mark RM2 (RM2 is not included among image at first mark position PM1 of camera 210R shooting_R1), and showing Device 205 carries out wrong display (step S512).

Comprising the second register guide among the image being judged as at the first mark position PM1 of right video camera 210R shooting Remember RM2_R1When ("Yes" of step S518), CPU201 reads in the count value X (step S519) in memory M6 at this time, according to this The count value X of reading is to the second alignment mark RM2_R1X-direction on the M2x1 that locates_ROperation is carried out, and is written to storage Address location (step S520) in X-direction in device M70.In addition, reading in the count value Y (step in memory M5 at this time S521), according to the count value Y of the reading to the second alignment mark RM2_R1Y-direction on the M2y1 that locates_ROperation is carried out, And it is written to (the step S522, referring to Figure 78 B) of the address location in the Y-direction in memory M70.

In addition, alignment mark RM2_R1X-direction on the M2x1 that locates_RIt can be according to the left side for being provided with right video camera 210R Right direction position and count value X are found out, the M2y1 that locates in Y-direction_RIt can be according to the first mark position PM1 and count value Y It finds out.

Then, the count value Y in memory M5 is set as 1 (Figure 61: step S523) by CPU201, by the meter in memory M6 Numerical value X is set as 1 (step S524), the count value N in memory M14 is set as 1 (step S525), by the meter in memory M15 Numerical value M is set as 1 (step S526).

Then, the pixel data (step of the right video camera of the address location of (X+M-1, the Y+N-1) in read in memory M13 Rapid S527), the pixel data (step S528) of the second alignment mark of the address location of (M, N) in read in memory M62, and Confirm the pixel data and memory of the right video camera of the address location of (X+M-1, the Y+N-1) in the memory M13 of the reading Whether consistent (the step S529, referring to Figure 80 A) of the pixel data of the address location of (M, N) in M62.

Here, if the pixel data of the right video camera of the address location of (X+M-1, Y+N-1) in memory M13 with deposit The pixel data of second alignment mark of the address location of (M, N) in reservoir M62 is inconsistent ("No" of step S529), then this When the address from (X, Y) to the address of (X+e-1, Y+f-1) until the right video camera 210R second mark position The pixel data of any of photographed data is different from the pixel data of the second alignment mark, starts from the address of (X, Y) Range there is no the second mark position PM2 the right the first alignment mark RM2_R2, therefore CPU201 is in memory M6 Count value X adds 1 (Figure 62: step S530), and pixel number a and storage on the left and right directions of the video camera in read in memory M8 Pixel number e (step S531, S532) on the left and right directions of the second alignment mark in device M63, falls into a trap until in step S533 Until numerical value X is more than " a-e+1 ", repeat the processing movement of step S525~S533.

It will be more than the right if count value X is more than " a-e+1 " ("Yes" of step S533) in processing movement End on the left and right directions of the photographed data of the second mark position of video camera 210R, therefore CPU201 is in memory M5 Count value Y adds 1 (step S534), and pixel number b and memory M64 in the up and down direction of the video camera in read in memory M9 In the second alignment mark up and down direction on pixel number f (step S535, S536), until in step S537 count value Y Until more than " b-f+1 ", repeat the processing movement of step S524~S537.

In processing movement, when the right video camera of the address location of (X+M-1, Y+N-1) in confirmation memory M13 (Figure 61: the step when pixel data of second alignment mark of the address location of pixel data and (M, N) in memory M62 is consistent The "Yes" of rapid S529), CPU201 adds 1 (Figure 63: step S539) to the count value M in memory M15, and reads from memory M63 Enter the pixel number e (step S540) on the left and right directions of the second alignment mark, until being more than second in step S541 count value M Until pixel number e on the left and right directions of alignment mark, repeat the processing movement of step S527~S541.

As the pixel number e on the left and right directions that count value M is more than the second alignment mark ("Yes" of step S541), CPU201 adds 1 (step S542) to the count value N in memory M14, and above and below memory M64 the second alignment mark of reading Pixel number f (step S543) on direction, until in the up and down direction for being more than the second alignment mark in step S544 count value N Pixel number f until, repeat step S526~S544 processing movement.

In this way, photographed data (the bat of second mark position on the right of the CPU201 to the pixel of a × b in memory M13 Take the photograph data) carry out memory M62 in e × f the second alignment mark pixel data pattern match, when count value N is more than When pixel number f in the up and down direction of the second alignment mark ("Yes" of step S544), a × b being judged as in memory M13 Pixel photographed data the address from (X, Y) to the address of (X+e-1, Y+f-1) until range include memory M62 in E × f the second alignment mark pixel data.That is, it is determined that at the second mark position PM2 of right video camera 210R shooting Image among include the second alignment mark RM2 (RM2_R2)。

In addition, will be more than in the case where step S537 count value Y has been more than " b-f+1 " ("Yes" of step S537) End in the up and down direction of the photographed data of the second mark position of the video camera 210R on the right, CPU201 is judged as to be taken the photograph on the right side The second alignment mark RM2 (RM2 is not included among image at second mark position PM2 of camera 210R shooting_R2), and showing Device 205 carries out wrong display (step S538).

Comprising the second register guide among the image being judged as at the second mark position PM2 of right video camera 210R shooting Remember RM2_R2When ("Yes" of step S544), CPU201 reads in the count value X (step S545) in memory M6 at this time, according to this The count value X of reading is to the second alignment mark RM2_R2X-direction on the M2x2 that locates_ROperation is carried out, and is written to storage Address location (step S546) in X-direction in device M71.In addition, reading in the count value Y (step in memory M5 at this time S547), according to the count value Y of the reading to the second alignment mark RM2_R2Y-direction on the M2y2 that locates_ROperation is carried out, And it is written to (the step S548, referring to Figure 80 B) of the address location in the Y-direction in memory M71.

In addition, alignment mark RM2_R2X-direction on the M2x2 that locates_RIt can be according to the left side for being provided with right video camera 210R Right direction position and count value X are found out, the M2y2 that locates in Y-direction_RIt can be according to the second mark position PM2 and count value Y It finds out.

Then, CPU201 reads in second from the first mark position PM1 from the address location in the Y-direction of memory M70 Alignment mark RM2_R1Y-direction on the M2y1 that locates_R(Figure 64: step S549), and the first mark is read in from memory M67 The base position M2y1r (step S550) in the Y-direction of the second alignment mark RM2 at the PM1 of position is remembered, from the first mark position The second alignment mark RM2 at PM1_R1Y-direction on the M2y1 that locates_RSubtract second pair at the first mark position PM1 Base position M2y1r in the Y-direction of position label RM2, finds out the second alignment mark RM2 at the first mark position PM1_R1Y Offset Δ M2y1 on direction_R(referring to Figure 78 B), and the second alignment mark RM2 that this is found out_R1Y-direction on offset Measure Δ M2y1_RIt is written to memory M72 (step S551).

(calculating of the offset in the Y-direction of the second alignment mark of the first marked locations)

Then, second alignment mark RM2 of the CPU201 from the first mark position PM1 that memory M68 reads in the left side_L1's Offset Δ M2y1 in Y-direction_L(step S552), by the second contraposition at the first mark position PM1 on the left side of the reading Mark RM2_L1Y-direction on offset Δ M2y1_LAt the first mark position PM1 on the right for being written to memory M72 Second alignment mark RM2_R1Y-direction on offset Δ M2y1_RIt is added, and will be at the first mark position PM1 on the left side Second alignment mark RM2_L1Y-direction on offset Δ M2y1_LWith the second register guide at the first mark position PM1 on the right Remember RM2_R1Y-direction on offset Δ M2y1_RAggregate value divided by 2, find out second at the first mark position PM1 of left and right Average value Δ M2y1 (Δ M2y1=(the Δ M2y1 of alignment mark RM2_L+ΔM2y1_R)/2), and by the first of the left and right found out The average value Δ M2y1 of the second alignment mark RM2 at mark position PM1 is written to memory M73 (step S553).

Then, the offset in the Y-direction of the first alignment mark RM1 of the first mark position PM1 is read in from memory M27 The average value Δ M2y1 of Δ Y1 (Δ M1y1) (step S554), the second alignment mark RM2 from the first mark position PM1 are subtracted Offset Δ Y1 (Δ M1y1) in the Y-direction of the first alignment mark RM1 of first mark position PM1, finds out the first marker bit Offset Δ Y2 (Δ Y2=Δ M2y1- Δ M1y1) in the Y-direction of the second alignment mark RM2 set, and that this is found out Offset Δ Y2 in the Y-direction of second alignment mark RM2 of one mark position is written to memory M74 (step S555, reference Figure 81 (a), (b), (c)).

(calculating of the distance between the second alignment mark)

In addition, CPU201 reads in second from the first mark position PM1 from the address location in the Y-direction of memory M70 Alignment mark RM2_R1Y-direction on the M2y1 that locates_R(Figure 65: step S556), the ground from the Y-direction of memory M71 Read in the second alignment mark RM2 at the second mark position PM2 in location position_R2Y-direction on the M2y2 that locates_R(step S557), the second alignment mark RM2 from the first mark position PM1_R1Y-direction on the M2y1 that locates_RSubtract the second mark Remember the second alignment mark RM2 at the PM2 of position_R2Y-direction on the M2y2 that locates_RAnd find out second alignment mark on the right Between distance LM2_R(referring to Figure 81 (b)), and by the distance LM2 between second alignment mark on the right found out_RIt is written to storage Device M75 (step S558).

Then, CPU201 from memory M69 read in the left side the second alignment mark between distance LM2_L(step S559), and By the distance LM2 between second alignment mark on the left side of the reading_LWith second alignment mark on the right for being written to memory M75 Between distance LM2_RIt is added, and by the distance LM2 between second alignment mark on the left side_LBetween second alignment mark on the right Distance LM2_RAggregate value divided by 2, find out the average value LM2 (LM2=(LM2 of the distance between the alignment mark of left and right_L+ LM2_R)/2), and using the average value LM2 of the distance between the alignment mark of the left and right found out as a pair of the in up and down direction Distance between two alignment marks is written to memory M76 (step S560, referring to Figure 81 (a), (b), (d)).

(calculating of the expansion and contraction between the second alignment mark)

Then, CPU201 reads in the distance between the first alignment mark (between the first alignment mark of left and right from memory M29 The average value of distance) LM1 (step S561), distance (the second of left and right being written between the second alignment mark of memory M76 The average value of distance between alignment mark) LM2 divided by the distance LM1 between the first alignment mark, and by the division arithmetic result make Memory M77 is written to for the expansion and contraction η 2 (η 2=LM2/LM1) between the second alignment mark of a pair for separating in the up-down direction (step S562, referring to Figure 81 (e)).

(subsequent printings)

After teaching of operator after printing like this, (it is printed with secondary instead of printed object 4B The printed object 4 of circuit), next printed object 4A (printed object 4 for being printed with the circuit of first time) is arranged in mounting On platform 3 (referring to Fig.1, Fig. 2), and printing preparation is started into switch 207 and is set as " enabling " (step S103 (Figure 13)).

In this way, the CPU201 of platform print control 200 confirms that the printing prepares to start " enabling " (figure of switch 207 13: the "Yes" of step S103) it, is carried out similarly " shooting of alignment mark " with aforementioned, " utilizes the first register guide of pattern match The detection of the position of note ", " calculating of the offset in the Y-direction of the first alignment mark of the first marked locations ", " first pair The calculating of distance between the label of position ", " calculating of the expansion and contraction between the first alignment mark ", from being arranged in being printed in mounting table 3 Brush object 4A finds out the offset Δ Y1 (Δ M1y1) in the Y-direction of the first alignment mark RM1 at the first mark position PM1 and writes Enter the expansion and contraction η 1 (η 1=LM1/LM1r) between finding out the first alignment mark to memory M27 and is written to memory M31.

Then, after the preparation of the printing terminates, when printing starts (Figure 34: step when switch 208 is set as " enabling " The "Yes" of S287), CPU201 carries out the next printed object 4A being arranged in mounting table 3 in the same manner as aforementioned secondary The printing of circuit.In the printing of secondary circuit, the quilt from this for being written to memory M27 is not used only by CPU201 Offset Δ Y1 in the Y-direction for the first alignment mark RM1 at the first mark position PM1 that printed article 4A is found out, also uses Offset in the Y-direction of the second alignment mark RM2 from from the first mark position PM1 that last printed object 4B is found out ΔY2.In addition, be not used only be written to memory M31 from stretching between the first alignment mark that this printed object 4A is found out Shrinkage η 1 is also used from the expansion and contraction η 2 between the second alignment mark that last printed object 4B is found out.

That is, in step S291 (Figure 34), by the printing starting position PRT of benchmark_STWith at the first mark position PM1 The side Y of the second alignment mark RM2 at offset Δ Y1 and the first mark position PM1 in the Y-direction of one alignment mark RM1 Upward offset Δ Y2 is added and finds out the printing starting position PRT having modified_ST', in step S295 (Figure 34), it will print The expansion and contraction η 2 between expansion and contraction η 1 and the second alignment mark between length l and the first alignment mark is multiplied, and finds out and has modified Printing length l ' (l '=1 × η of l × η 2).In addition, in step S301 (Figure 35), by the benchmark rotation speed VBr of rubber cylinder The reciprocal multiplication of expansion and contraction η 2 between the inverse and the second alignment mark of expansion and contraction η 1 between the first alignment mark and find out The rotation speed VBp (1 × 1/ η 2 of the η of VBp=VBr × 1/) of rubber cylinder in printing, in step S345 (Figure 41), by rubber The current up and down direction position PBM of roller_RWith the offset Δ in the Y-direction of the first alignment mark of the first marked locations Offset Δ Y2 in the Y-direction of Y1 and the second alignment mark of the first marked locations is added, and finds out the rubber having modified The current up and down direction position PBM of roller_R’。

In this way, in the present embodiment, to the printed of the printing of the circuit for having carried out first time in pretreatment process Object 4A carries out the printing of secondary circuit, in the printing of secondary circuit, not only according to this printed object 4A The Y of the second alignment mark RM2 of offset Δ Y1 and last printed object 4B in the Y-direction of first alignment mark RM1 Offset Δ Y2 on direction is adjusted printing starting position, and according to the distance utilized between the first alignment mark RM1 Between LM1 the expansion and contraction η 1 before being printed to this printed object 4A found out and the second alignment mark RM2 of utilization The distance LM2 expansion and contraction η 2 in the section that last printed object 4B print that finds out, it is secondary to printing The rotation speed of rubber cylinder 2 when circuit (when printing secondary circuit) is adjusted, the circuit of the first printing and The position of the circuit of secondary printing is accurately aligned.

In addition, though moving rubber cylinder 2 in the up-down direction, but cloth can also be made The mounting table 3 for being equipped with printed object 4A moves in the up-down direction.

In addition, in the above-described embodiment, having been printed in the left and right of printed object 4A upper and lower in pretreatment process A pair the first alignment mark RM1 separated on direction, but can also be as shown in Figure 82 A, such as in the center of printed object 4A Also a pair the first alignment mark RM1 (RM1 separated in the up-down direction is printed_c1、RM1_c2), it can also be as shown in Figure 82 B, only In a pair the first alignment mark RM1 (RM1 that the central impression of printed object 4A separates in the up-down direction_c1、RM1_c2).For It is also same for being printed on the second alignment mark of a pair RM2 of printed object 4B.

As the first alignment mark of a pair RM1 only separated in the up-down direction in the central impression of printed object 4A, second When alignment mark RM2, video camera that the region comprising the first alignment mark RM1 and the second alignment mark RM2 is shot As long as there is one, the processing in platform print control 200 can also be simplified.

The CPU201 of platform print control 200 shown in Fig. 4 is acted according to the program for being stored in ROM202, from And realize various functions as described above.The summary of main function therein is illustrated.As shown in Figure 83, CPU201 is real Distance operation between existing first reference mark position test section 301, the second reference mark position test section 302, the first reference mark Portion 303, the first rotation speed adjustment section 304, third reference mark position test section 305, the 4th reference mark position test section 306, distance calculating unit 307 and the second rotation speed adjustment section 308 between the second reference mark.

First reference mark position test section 301 is from the image detection of the printed object 4A shot by video camera 210 pre- The first alignment mark of a pair RM1 of printed object 4A is attached in treatment process_L1And RM1_L2(RM1_R1And RM1_R2) in one One alignment mark RM1_L1(RM1_R1) position.The first reference mark position test section 301 for example carries out step S165~S190 The processing of (S223~S248).

The image detection of second reference mark position test section 302 from the printed object 4A shot by video camera 210 is another A first alignment mark RM1_L2(RM1_R2) position.The second reference mark position test section 302 for example carry out step S191~ The processing of S216 (S249~S274).

Distance calculating unit 303 is based on first detected by the first reference mark position test section 301 between first reference mark Alignment mark RM1_L1(RM1_R1) position and the first alignment mark for being detected by the second reference mark position test section 302 RM1_L2(RM1_R2) position, find out the first alignment mark RM1 of a pair_L1With RM1_L2(RM1_R1With RM1_R2The distance between).This Distance calculating unit 303 for example carries out the processing of step S222 (S282) between one reference mark.

First rotation speed adjustment section 304 according to by the distance that distance calculating unit 303 is found out between the first reference mark, to The rotation speed of rubber cylinder 2 when to printed object 4A printed electronic circuit is adjusted.The first rotation speed adjustment section 304 for example carry out step S301, S365~S370 processing.

Third reference mark position test section 305 from shot by video camera 210 electronic circuit printing after printed object The image detection of 4B is attached to the second alignment mark of a pair RM2 of printed object 4B in the printing with electronic circuit simultaneously_L1With RM2_L2(RM2_R1And RM2_R2) in a second alignment mark RM2_L1(RM2_R1) position.Third reference mark position detection Portion 305 for example carries out the processing of step S439~S464 (S497~S522).

The image detection of 4th reference mark position test section 306 from the printed object 4B shot by video camera 210 is another A second alignment mark RM2_L2(RM2_R2) position.4th reference mark position test section 306 for example carry out step S465~ The processing of S490 (S523~S548).

Distance calculating unit 307 is based on second detected by third reference mark position test section 305 between second reference mark Alignment mark RM2_L1(RM2_R1) and the second alignment mark RM2 for being detected by the 4th reference mark position test section 306_L2 (RM2_R2) position, find out the second alignment mark RM2 of a pair_L1With RM2_L2(RM2_R1With RM2_R2The distance between).Second base Distance calculating unit 307 for example carries out the processing of step S496 (S558) between fiducial mark note.

Second rotation speed adjustment section 308 according to by distance calculating unit 307 is found out between the second reference mark distance to The rotation speed of rubber cylinder 2 when to next printed object 4A printed electronic circuit is adjusted.Second rotation speed Adjustment section 308 for example carries out step S301, S365~S370 processing.In addition, the second rotation speed adjustment section can either only make With the second alignment mark of a pair RM2 found out by distance calculating unit 307 between the second reference mark_L1With RM2_L2(RM2_R1With RM2_R2) The distance between carry out rotation speed adjustment, be also able to use the second alignment mark RM2 of a pair_L1With RM2_L2(RM2_R1With RM2_R2) the distance between and above-mentioned the first alignment mark of a pair RM1_L1With RM1_L2(RM1_R1With RM1_R2) the distance between this two Person carries out the adjustment of rotation speed.

(summary)

In above-mentioned embodiments of the present invention, sheet of membrane has been used as printed object 4.In sheet of membrane printing the The once circuit of (first layer).The rubber cylinder for having transferred ink 2 is set to be directed at the circuit for being printed with the first time while rotating Film carry out second (second layer) circuit printing.Pretreatment process before the printing for carrying out secondary circuit In, the first alignment mark RM1 of a pair is added in the position of printed object 4 separated in the up-down direction_L1And RM1_L2(RM1_R1With RM1_R2)。

To attached the first alignment mark RM1 of a pair_L1And RM1_L2(RM1_R1And RM1_R2) printed object 4 carry out second Circuit printing.Before the printing of secondary circuit, to printed object 4 comprising in a pair of first alignment mark One the first alignment mark RM1_L1(RM1_R1) region shot, and from the image detection of the printed object of shooting 4 one One alignment mark RM1_L1(RM1_R1) position.In addition, including another in a pair of first alignment mark to printed object 4 First alignment mark RM1_L2(RM1_R2) region shot, and from the image detection of the printed object of shooting 4 another first Alignment mark RM1_L2(RM1_R2) position.Then, according to the first alignment mark RM1 of detection_L1(RM1_R1) position and first pair Position label RM1_L2(RM1_R2) position find out the first alignment mark RM1 of a pair_L1With RM1_L2(RM1_R1With RM1_R2The distance between), And according to this distance opposite printed object 4 printed electronic circuit (secondary circuit) when rubber cylinder 2 rotation speed into Row adjustment.

Like this, according to the first alignment mark RM1_L1With RM1_L2(RM1_R1With RM1_R2) the distance between find out until to quilt Printed article 4 printed before until printed object 4 expansion and contraction, printing when consider stretching for the printed object found out 4 Shrinkage is adjusted the rotation speed of rubber cylinder 2.Thereby, it is possible to the flexible degree with substrate independently to make electronic circuit The printing of (secondary circuit) accurately overlaps on printed object (circuit of first time).

In addition, in the above-described embodiment, the printing with secondary circuit is simultaneously in printed object 4 in upper and lower The position separated upwards adds the second alignment mark RM2 of a pair_L1And RM2_L2(RM2_R1And RM2_R2).In secondary circuit After printing, a second alignment mark RM2 in a pair of second alignment mark is included to printed object 4_L1(RM2_R1) area Domain is shot, and from one the second alignment mark RM2 of the image detection of the printed object of shooting 4_L1(RM2_R1) position.This Outside, another second alignment mark RM2 in a pair of second alignment mark is included to printed object 4_L2(RM2_R2) region into Row shooting, and from another second alignment mark of the image detection of the printed object of shooting 4 RM2_L2(RM2_R2) position.Then, According to the second alignment mark RM2 of detection_L1(RM2_R1) position and the second alignment mark RM2_L2(RM2_R2) position find out a pair Second alignment mark RM2_L1With RM2_L2(RM2_R1With RM2_R2The distance between), and adjusted according to this distance to next printed The rotation speed of rubber cylinder 2 when 4 printed electronic circuit of object (secondary circuit).

Like this, according to the second alignment mark RM2_L1With RM2_L2(RM2_R1With RM2_R2) the distance between find out to printed The expansion and contraction in the section that object 4 is printed considers that the expansion and contraction of the printed object found out 4 rolls rubber in subsequent printings The rotation speed of cylinder 2 is adjusted.Even if as a result, from detect the first alignment mark RM1 play printing time point until with And substrate extends in printing process, and the printing of electronic circuit (secondary circuit) can also be made accurately to overlap next quilt On printed article (circuit of first time).

In addition it is also possible to according to the first alignment mark RM1 of a pair_L1With RM1_L2(RM1_R1With RM1_R2) the distance between and one To the second alignment mark RM2_L1With RM2_L2(RM2_R1With RM2_R2) the distance between adjustment to next 4 printed electronic of printed object The rotation speed of rubber cylinder 2 when circuit.

According to the first alignment mark RM1_L1With RM1_L2(RM1_R1With RM1_R2) the distance between can find out until to printed object 4 printed before until printed object 4 expansion and contraction.In addition, according to the second alignment mark RM2_L1With RM2_L2(RM2_R1With RM2_R2) the distance between can find out the section that printed object 4 is printed printed object 4 expansion and contraction.In printing, lead to Cross and consider that the two expansion and contractions are adjusted the rotation speed of rubber cylinder 2, so as to the flexible degree with substrate without Closing ground overlaps the printing of electronic circuit (secondary circuit) accurately on next printed object (circuit of first time).

(extension of embodiment)

More than, referring to embodiment, the present invention is described, but the present invention is not limited to above-mentioned embodiments. Can within the scope of the technical idea of the present invention to structure of the invention, details carry out skilled artisans appreciate that Various changes.

Description of symbols

1: plate cylinder, 2: rubber cylinder, 3: platform (mounting table), 4 (4A, 4B): printed object, 100: printing machine is (flat Platform printing machine), 200: platform print control, 210 (210L, 210R): video camera, the PM1: the first mark position, PM2: the Two mark positions, RM1 (RM1_L1、RM1_L2、RM1_R1、RM1_R2): the first alignment mark, RM2 (RM2_L1、RM2_L2、RM2_R1、RM2_R2): Second alignment mark.

Claims

1. a kind of printing process of electronic circuit to rubber cylinder transfer ink and makes to have transferred the ink from plate cylinder on one side Rubber cylinder rotation, on one side to handle being printed for the sheet being made of flexible substrate in pretreatment process The printing of object progress electronic circuit, which is characterized in that the printing process of the electronic circuit has:

First shooting process, to including the separation in the up-down direction for being attached to the printed object in the pretreatment process Position the first reference mark of a pair in the region of first reference mark shot；

Second shooting process, claps the region comprising another the first reference mark in the pair of first reference mark It takes the photograph；

First reference mark position detects process, the image inspection of the printed object shot from the first shooting process Survey the position of one first reference mark；

Second reference mark position detects process, the image inspection of the printed object shot from the second shooting process Survey the position of another first reference mark；

Apart from operational process between first reference mark, described in being detected in first reference mark position detection process The position of one the first reference mark and described in being detected in second reference mark position detection process another the The position of one reference mark finds out the distance between the pair of first reference mark；And

First rotation speed adjusts process, right according to the distance found out in operational process between first reference mark The rotation speed of the rubber cylinder when printing from the electronic circuit to the printed object is adjusted.

2. the printing process of electronic circuit according to claim 1, which is characterized in that have:

Third shoots process, is attached to the printed object to while being included in and print the electronic circuit to the printed object The position separated in the up-down direction the second reference mark of a pair in the region of second reference mark shot；

4th shooting process, claps the region comprising another the second reference mark in the pair of second reference mark It takes the photograph；

Third reference mark position detects process, the image inspection of the printed object shot from third shooting process Survey the position of one second reference mark；

4th reference mark position detects process, the image inspection of the printed object shot from the 4th shooting process Survey the position of another second reference mark；

Apart from operational process between second reference mark, described in being detected in third reference mark position detection process The position of one the second reference mark and described in being detected in the 4th reference mark position detection process another the The position of two reference marks finds out the distance between the pair of second reference mark；And

Second rotation speed adjusts process, right according to the distance found out in operational process between second reference mark The rotation speed of the rubber cylinder when printing from the electronic circuit to next printed object is adjusted.

3. the printing process of electronic circuit according to claim 2, which is characterized in that

The second rotation speed adjustment process includes: that basis is found out in operational process between first reference mark The distance between the pair of first reference mark and described in being found out in operational process between second reference mark The distance between a pair of second reference mark, to the rubber when printing the electronic circuit to next printed object The process that the rotation speed of glue cylinder is adjusted.

4. a kind of printing equipment of electronic circuit to rubber cylinder transfer ink and makes to have transferred the ink from plate cylinder on one side Rubber cylinder rotation, on one side to handle being printed for the sheet being made of flexible substrate in pretreatment process The printing of object progress electronic circuit, which is characterized in that the printing equipment of the electronic circuit has:

Filming apparatus, to including the position separated in the up-down direction for being attached to the printed object in the pretreatment process The region for first reference mark in the first reference mark of a pair set and comprising in the pair of first reference mark The region of another the first reference mark shot；

First reference mark position test section, one described in the image detection from the printed object shot as the filming apparatus The position of a first reference mark；

Second reference mark position test section, it is another described in the image detection from the printed object shot as the filming apparatus The position of one the first reference mark；

Distance calculating unit between first reference mark, based on one detected by the first reference mark position test section The position of one reference mark and another first reference mark as described in the second reference mark position test section detection Position, find out the distance between the pair of first reference mark；And

First rotation speed adjustment section, according to by the distance that distance calculating unit is found out between first reference mark, to institute The rotation speed for stating rubber cylinder when printed object prints the electronic circuit is adjusted.

5. the printing equipment of electronic circuit according to claim 4, which is characterized in that

The filming apparatus is configured to, and is attached to the quilt to while being included in and print the electronic circuit to the printed object The region of second reference mark in the second reference mark of a pair for the position of printed article separated in the up-down direction with And the region comprising another the second reference mark in the pair of second reference mark is shot,

The printing equipment of the electronic circuit is also equipped with:

Third reference mark position test section, one described in the image detection from the printed object shot as the filming apparatus The position of a second reference mark；

4th reference mark position test section, it is another described in the image detection from the printed object shot as the filming apparatus The position of one the second reference mark；

Distance calculating unit between second reference mark, based on one detected by the third reference mark position test section The position of two reference marks and another second reference mark as described in the 4th reference mark position test section detection Position, find out the distance between the pair of second reference mark；And

Second rotation speed adjustment section, according to by the distance that distance calculating unit is found out between second reference mark, to downward The rotation speed of rubber cylinder when one printed object prints the electronic circuit is adjusted.

6. the printing equipment of electronic circuit according to claim 5, which is characterized in that

The second rotation speed adjustment section is configured to, according to as described in being found out distance calculating unit between first reference mark The distance between a pair of first reference mark and by distance calculating unit is found out between second reference mark the pair of second The distance between reference mark, to the rubber cylinder when printing the electronic circuit to next printed object Rotation speed is adjusted.