JP4954608B2 - Method for moving object to be imaged and processing apparatus using this method - Google Patents

Description

The present invention relates to a processing apparatus using the moving method and this method of object to be imaged, more specifically, when performing a predetermined process on the target object, on a display screen a captured image of an object such as a workpiece displaying, to a processing apparatus using the moving method and this method of object to be imaged which can be moved and operated an object by moving operating the captured image on the display screen.

  When a predetermined process is performed on an object to be processed such as a semiconductor wafer, various processing apparatuses are used depending on the purpose. Various processing devices, for example, display a captured image of an object such as an object to be processed on a display screen such as a CRT or FDP, monitor the object via the captured image on the display screen, or capture an image on the display screen. The object is moved by operating.

  For example, Patent Document 1 relates to a spectroscopic measurement apparatus capable of performing spectroscopic measurement according to the pattern size of a sample to be measured by moving the window and changing the size of the window when the window is designated by a mouse operation in the display screen. The technology is described.

  Further, in Patent Document 2, when the movement instruction icon at the intersection of the XY axes on the video window is moved by clicking or dragging with the mouse, the stage moves according to the moving direction and the moving distance. A technique relating to an image measuring apparatus that simplifies the moving operation and improves the efficiency of measurement work is described.

  In Patent Document 3, when a measurement point indicating unit is used to specify two points so as to cross a portion to be measured on the display screen, a measurement screen in which only the two points are scanned is obtained. A technique related to a scanning probe microscope that can measure with high resolution and high accuracy without changing the scale is described.

  Further, in Patent Document 4, when a drag operation is performed with the mouse on the monitor screen of the surveillance camera, the imaging direction of the surveillance camera is controlled based on the moving direction and distance of the mouse pointer, and the imaging direction and magnification of the surveillance camera are controlled. A technology relating to a remote monitoring system and a control terminal device that can improve the operability for controlling the device is described.

JP 09-178563 A JP-A-10-197223 JP 08-211079 JP 2001-268556 A

  However, the technique of Patent Document 1 is a technique that can perform spectroscopic measurement according to the pattern size of a sample measured by a mouse operation in the display screen. However, the sample is moved to a desired position by moving the captured image on the display screen. It is not a technology to move. In this regard, the technique of Patent Document 3 is the same. On the other hand, the technique of Patent Document 2 can move a stage movement operation on the video window by moving an icon for moving the intersection of the XY axes on the video window by clicking or dragging the mouse. It is not possible to move any position on the video window directly to the specified target position. Clicking or dragging the movement instruction icon with the mouse so that the arbitrary position moves to the target position while viewing the display screen. I have to do it. Moreover, although the technique of patent document 4 can improve the operativity for controlling the imaging | photography direction and imaging | photography magnification of a surveillance camera, it is only a technique which controls the imaging | photography direction of a surveillance camera.

The present invention has been made to solve the above problems, an arbitrary site of the captured image of the object to be imaged, which is displayed on the display screen by the imaging means with a simple operation of Ru finger Teisu, the captured image can move the designated sites to a preset target position, thereby providing a processing apparatus using the moving method and this method of object to be imaged which can be moved relative to the imaging means and object to be imaged that It is an object.

According to a first aspect of the present invention, there is provided a moving method of an object to be picked up by designating an arbitrary plurality of parts of a picked-up image of the object picked up by an image pickup means at a predetermined magnification and displayed on a display screen. A moving method of the object to be imaged, in which the set part determined based on the plurality of arbitrary parts on the display screen is moved to a target position and the imaging unit and the object to be imaged are relatively moved, A step of designating the arbitrary portion by placing the mouse pointer on the arbitrary portion and clicking the mouse; a step of storing coordinate values on the display screen of the plurality of arbitrary designated portions; Obtaining a coordinate value of the set part based on coordinate values of a plurality of designated parts and a preset relational expression; obtaining an offset between the set part value and the target position; and A step of relatively moving the image pickup means and the object to be picked up by a distance corresponding to a target, and moving the set part to the target position on the display screen. is there.

According to a second aspect of the present invention, there is provided a moving method of an object to be picked up, which designates a plurality of parts of a picked-up image of the object picked up by an image pickup unit at a predetermined magnification and displayed on a display screen. In this way, the object to be imaged is moved by moving a set part obtained based on the plurality of arbitrary parts on the display screen to a target position and relatively moving the imaging unit and the object to be imaged. Te, the display screen a touch panel provided as a step of designating the any site by touching the arbitrary site of the captured image displayed on the touch panel, the arbitrary plurality of the display screen of the designated sites Storing each coordinate value in step, obtaining the coordinate value of the set part based on the coordinate values of the plurality of designated parts and a preset relational expression, the set part value and the eye A step of determining an offset between a position, step by distance relatively moving the imaging means and the object being picked up commensurate with the offset, moves the set-up site on the display screen to the desired position When, is characterized in that it comprises a.

According to a third aspect of the present invention, there is provided a processing apparatus according to a third aspect of the present invention, an imaging unit that images a captured object at a predetermined magnification, a display screen that displays a captured image by the imaging unit, the captured object, and the imaging unit. Moving means for driving the moving means, driving means for driving the moving means, and control means for controlling them, and under the control of the control means, the imaged image displayed on the display screen By designating any plurality of parts of the captured image of the object, the set part obtained based on the coordinate values of the plurality of parts on the display screen is moved to the target position, and the imaging means and the object to be covered are moved. a configured processor as relatively moving the imaging material, designated with the mouse for specifying an arbitrary site of the by clicking against the mouse pointer to any of a plurality of sites of the captured image The basis of the stage, and a storage means for respectively storing the coordinate values on the display screen of the plurality of arbitrary specified site by the mouse, the preset relational expression between the coordinate values indicating the plurality of arbitrary specified site Calculating means for calculating the coordinate value of the set part and calculating an offset between the set part and the target position on the display screen, and the driving means is driven based on the offset and moves. The imaging means and the object to be imaged move relatively by a distance corresponding to the offset via the means.

According to a fourth aspect of the present invention, there is provided a processing device for imaging an object to be imaged at a predetermined magnification, a display screen for displaying an image captured by the imaging means, the object to be imaged, and the imaging means. Moving means for driving the moving means, driving means for driving the moving means, and control means for controlling them, and under the control of the control means, the imaged image displayed on the display screen By designating any plurality of parts of the captured image of the object, the set part obtained based on the coordinate values of the plurality of parts on the display screen is moved to the target position, and the imaging means and the object to be covered are moved. a configured processor as relatively moving the imaging material, designated hand provided as a touch panel on the display screen to specify the arbitrary site by touching any portion of the captured image And storage means for storing the coordinate values on the display screen of the plurality of arbitrary designated parts by the touch panel, based on the coordinate values indicating the plurality of designated parts and a preset relational expression. Computing means for obtaining the coordinate value of the set part and obtaining an offset between the set part and the target position on the display screen, the driving means driving based on the offset, and the moving means The imaging means and the object to be imaged move relative to each other through a distance corresponding to the offset .

According to the onset bright, any site of the captured image of the object to be imaged, which is displayed on the display screen by the imaging means with a simple operation of Ru finger Teisu, preset target position specified site of a captured image it can be moved into, thereby providing a processing apparatus using the moving method and this method of object to be imaged which can be moved relative to the imaging means and object to be imaged.

  Hereinafter, the present invention will be described based on the embodiment shown in FIGS. In the present embodiment, the processing apparatus will be described by taking a probe apparatus as an example.

  For example, as shown in FIG. 1, the probe apparatus 10 according to the present embodiment is arranged on a movable mounting table (stage) 11 on which a wafer (not shown) as a processing object is mounted, and above the stage 11. The probe card 12, the plurality of probes 12 A of the probe card 12 and the wafer on the stage 11, and the first and second imaging means (for example, CCD) constituting the alignment mechanism 13 Cameras) 14 and 15, a display device having a display screen 16 for displaying images picked up by the first and second CCD cameras 14 and 15, and a control device 17 comprising a computer main body for controlling these components. And a plurality of wafers on the stage 11 and a plurality of probe cards 12 by the alignment mechanism 13 under the control of the control device 17. After alignment between the lobes 12A, is configured by electrical contact causes a plurality of probes 12A and the wafer to make the electrical characteristics of the wafer inspection.

  Further, as shown in FIG. 1, the probe device 10 includes an input unit 18 such as a keyboard and a mouse 19, and can input various conditions from the input unit 18 to set various inspection conditions. As described later, the image can be moved by operating the mouse pointer displayed on the display screen 16.

  As shown in FIG. 1, the stage 11 includes a drive mechanism 11A and a detector (for example, an encoder) 11B, moves in the X, Y, Z, and θ directions via the drive mechanism 11A, and moves through the encoder 11B. Is configured to detect. The drive mechanism 11A drives an XY table on which the stage 11 is arranged, for example, a drive mechanism (not shown) mainly composed of a motor and a ball screw, an elevating drive mechanism built in the stage 11, and a stage 11 And a θ drive mechanism that rotates in the direction. The encoder 11B detects the movement distances in the X and Y directions of the XY table via the number of rotations of the motor, and transmits each detection signal to the control device 17. The control device 17 controls the drive mechanism 11A based on the signal from the encoder 11B, thereby controlling the amount of movement of the stage 11 in the X and Y directions.

  The alignment mechanism 13 includes the first and second CCD cameras 14 and 15 and the alignment bridge 20 as described above. As shown in FIG. 1, the first CCD camera 14 is attached to the alignment bridge 20, and the second CCD camera 15 is attached to the side of the stage 11. Each of the first and second CCD cameras 14 and 15 enlarges the object such as the probe 12A and the wafer at a constant magnification and images a part of each, but moves the stage 11 to move the probe 12A and the wafer. When searching, the camera can be switched to a lower magnification to widen the field of view of each camera.

  The first CCD camera 14 advances from the back of the prober chamber to the probe center via the alignment bridge 20 and is positioned between the probe card 12 and the stage 11, where the stage 11 moves in the X and Y directions. In the meantime, the inspection electrode on the wafer is imaged from above at a predetermined magnification, an image signal is transmitted to the control device 17, and the captured image is displayed on the display screen 16 via the control device 17. In addition, the second CCD camera 13C has a plurality of positions from below the probe card 12 while the stage 11 moves in the X and Y directions below the probe card 12 after the alignment bridge 13A has moved backward to the back of the probe chamber. The probe 12A is imaged at a predetermined magnification, an imaging signal is transmitted to the control device 17, and the pin image P is displayed on the display screen 16 via the control device 17.

  The control device 17 includes a central processing unit 17A, a program storage unit 17B that stores various programs including a program that executes the moving method of the object to be imaged according to the present invention, and a storage unit 17C that stores various data. Image processing units 14A and 15A that perform image processing on image pickup signals from the first and second CCD cameras 14 and 15, and an image storage unit 14B that stores image signals from these image processing units 14A and 15A as image data. 15B and display control units 14C and 15C for displaying captured images on the display screen 16 based on these image signals, and the central processing unit 17A is connected between the program storage unit 17A and the storage unit 17C. To transmit and receive signals to control various components of the probe apparatus 10.

  An input unit 18 is connected to the central processing unit 17A, and various data signals input from the input unit 18 are processed and stored in the storage unit 17C. A mouse 19 is connected to the central processing unit 17A, and a mouse pointer 19A of the mouse 19 is displayed on the display screen 16 via the central processing unit 17A. In the present embodiment, the program storage unit 17C stores programs such as the first, second, and third object movement methods, and the respective object movement methods are displayed on the display screen 16 as part of the menu. Is done. Then, by operating the mouse 19, any one of the three types of programs can be selected from the menu and executed. Further, these methods may be icon display instead of menu display.

  The central processing unit 17A is connected to image storage units 14B and 15B and display control units 14C and 15C, and images captured by the first and second CCD cameras 14 and 15 are displayed on the central processing unit 17A and the display control unit. They are displayed on the display screen 16 via 14C and 15C, respectively. In addition to the current captured images by the first and second CCD cameras 14 and 15, past captured images can be stored in the image storage units 14B and 15B.

  The programs for the first, second, and third moving methods of the object to be imaged are recorded in various storage media, and can be registered and used in the storage units of various probe devices as necessary. Moreover, these programs can be downloaded to various probe apparatuses by a communication medium. In the present embodiment, the control device 17 individually executes three types of moving object moving method programs stored in the program storage unit 17B, and is displayed on the display screen 16 as described below. The stage 11 can be moved relative to the first CCD camera 14 or the probe card 12 by operating a part of the captured image with the mouse pointer 19A.

First Object Moving Method A first object moving method will be described with reference to FIGS. First, the mouse 19 is operated to select a program representing the moving method of the first object to be picked from the menu on the display screen 16. On the display screen 16, for example, a captured image of the probe card imaged by the second CCD camera 15 is displayed as shown in FIG. In FIG. 2A, for convenience, one probe among a plurality of probe pins of the probe card 12 is displayed as a pin image P, but actually a plurality of pin images are displayed. Therefore, when the mouse 19 is operated to specify the pin image P, which is a part of the captured image, with the mouse pointer 19A of the mouse 19, and the mouse 19 is clicked, the pin image P is crossed as shown in FIG. Move to mark C. In other words, the stage 11 is moved by this operation so that the probe corresponding to the pin image P is positioned at the center of the second CCD camera 15.

  That is, as shown in FIG. 2A, when the mouse 19 is operated and the pin image P is designated by the mouse pointer 19A and the mouse 19 is clicked (step S1), the control device 17 changes the pixel coordinates of the pin image P. Store in the storage unit 17C (step S2). Subsequently, the control device 17 calculates an offset (x, y) between the pixel coordinates of the pin image P and the center coordinates of the second CCD camera 15 in the central processing unit 17A (step S3). The control device 17 acquires the pixel size (μm) of the magnification currently used from the storage unit 17C to the central processing unit 17A (step S4), and then the pixel of the magnification currently used in the central processing unit 17A. Based on the size, calculation is performed to convert the offset from pixel coordinates to stage coordinates (actual dimensions) μm (step S5). Subsequently, the control device 17 obtains the current stage coordinates (position coordinates (a) in the figure) from the storage unit 17C (step S6), and adds a micrometer-converted offset to the stage coordinates in the central processing unit 17A. After that (step S7), when the drive mechanism 11A is driven via the central processing unit 17A and the stage 11 is moved to the stage coordinate position to which the offset is added (step S8), as shown in FIG. The pin image P moves to a cross mark C indicating the center of the second CCD camera 15. As a result, the stage coordinates of the stage 11 after the movement shown in FIG. 5B are stored in the storage unit 17C and stored.

  Further, when the inspection electrode of the wafer corresponding to the pin image P is detected using the first CCD camera 14, the first CCD camera is switched from the second CCD camera 15 to the first CCD camera 14. After the picked-up image 14 is displayed on the display screen 16, the mouse 19 can be operated in the same manner as described above to move the inspection electrode targeted for the wafer to the center of the first CCD camera 14, The stage coordinates are stored in the storage unit 17C.

  As described above, according to the first moving method of the object to be imaged, the pin image P of the display screen 16 is designated by the mouse pointer 19A, and the pin image P designated by the mouse pointer 19A is simply clicked. Can be moved to the center of the second CCD camera 15, so that the probe 12A can be detected at the center of the second CCD camera 15, and its stage coordinates can be stored in the storage unit 17C. Similarly, processing can be similarly performed on a captured image of the wafer by the first CCD camera 14, and the designated inspection electrode can be detected. Accordingly, the target probe 12A and the inspection electrode for the wafer can be detected by the first and second CCD cameras 14 and 15, respectively, and alignment of both can be performed based on the respective stage coordinates.

Second Method for Moving Imaged Object A method for moving the imaged object of the present embodiment will be described with reference to FIGS. 4 and 5. First, the mouse 19 is operated to select a program representing the second object movement method from the menu on the display screen 16. On the display screen 16, for example, two probes imaged by the second CCD camera 15 are displayed as first and second pin images P1 and P2 as shown in FIG. Therefore, after the mouse 19 is operated to designate the first pin image P1 with the mouse pointer 19A and the mouse 19 is clicked, the second pin image P2 is displayed on the mouse pointer of the mouse 19 as shown in FIG. When the mouse 19 is clicked after designating at 19A, the first and second pin images P1 and P2 move and the center of these connections moves to the cross mark C as shown in FIG. By this operation, the stage 11 moves so that the center between the first and second pin images P <b> 1 and P <b> 2 becomes the center of the second CCD camera 15.

  That is, as shown in FIG. 4A, when the mouse 19 is operated and the first pin image P1 is designated by the mouse pointer 19A and the mouse 19 is clicked (step S11), the control device 17 makes the first pin image. The pixel coordinate 1 of P1 is stored in the storage unit 17C (step S12). Next, when the mouse 19 is operated and the second pointer image P1 is designated by the mouse pointer 19A and the mouse 19 is clicked (step S13) as shown in FIG. The pixel coordinate 2 of P2 is stored in the storage unit 17C (step S14). Subsequently, the control device 17 calculates the midpoint coordinates of the pixel coordinates 1 of the first pin image P1 and the pixel coordinates 2 of the second pin image P2 using a relational expression previously defined in the central processing unit 17A. After that (step S15), the control device 17 calculates an offset (x, y) between the midpoint coordinates and the center coordinates of the second CCD camera 15 in the central processing unit 17A (step S16).

  Further, the control device 17 acquires the pixel size (μm) of the magnification currently used from the storage unit 17C to the central processing unit 17A (step S17), and then the magnification currently used in the central processing unit 17A. Based on the pixel size, a calculation for converting the offset from pixel coordinates to stage coordinates by μm is executed (step S18). Subsequently, the control device 17 obtains the current stage coordinates from the storage unit 17C (step S19), adds a micrometer-converted offset to the stage coordinates in the central processing unit 17A (step S20), and then performs the central processing unit 17A. When the stage 11 is moved to the coordinate position to which the offset is added by driving the drive mechanism 11A via (step S21), the first and second pin images P1 and P2 are moved as shown in FIG. The center point moves so that the cross mark C on the display screen 16, that is, the center of the second CCD camera 15. Thus, the stage coordinates of the stage 11 after the movement shown in FIG. 4C are stored in the storage unit 17C and stored.

  When the first CCD camera 14 is used to detect the inspection electrodes on the wafer corresponding to the first and second pin images P1 and P2, the second CCD camera 15 to the first CCD camera are used. 14, the image captured by the first CCD camera 14 is displayed on the display screen 16, and then the mouse 19 is operated in the same manner as described above to set the midpoint between the two inspection electrodes targeted for the wafer. It can be moved to the center of one CCD camera 14, and its stage coordinates are stored in the storage unit 17C.

  As described above, according to the second object movement method, after the first pin image P1 on the display screen 16 is designated by the mouse pointer 19A and the mouse 19 is clicked, the second pin image P2 is moved to the mouse. The middle point between the first and second pin images P1, P2 designated by the mouse pointer 19A can be moved to the center of the second CCD camera 15 simply by designating with the pointer 19A and clicking the mouse 19. Thus, the center of the adjacent probe 12A can be detected at the center of the second CCD camera 15, and the stage coordinates can be stored in the storage unit 17C. Similarly, a wafer captured image by the first CCD camera 14 can be similarly processed, and the XY coordinate positions of the designated first and second inspection electrodes can be detected. Accordingly, by detecting the target probe 12A and the inspection electrode on the wafer two by the first and second CCD cameras 14 and 15, respectively, by using the stage coordinates of both of them, the midpoints of the two can be obtained. Can be aligned.

Third Method for Moving Imaged Object A method for moving the imaged object of the present embodiment will be described with reference to FIGS. First, the mouse 19 is operated to select a program representing the third object movement method from the menu on the display screen 16. On the display screen 16, for example, a captured image of the probe card captured by the second CCD camera 15 is displayed as shown in FIG. Therefore, after the mouse 19 is operated to specify the pin image P that is a part of the captured image with the mouse pointer 19A and the mouse 19 is clicked, the mouse 19 is operated as shown in FIG. When 19A is dragged from the pin image P in the direction of the arrow to align with the cross mark C and the click is released, the pin image P follows the mouse pointer 19A and moves to the cross mark C. In other words, the stage 11 moves so that the probe corresponding to the pin image P is positioned at the center of the second CCD camera 15 by this drag operation.

  That is, as shown in FIG. 7A, when the mouse 19 is operated and the pin image P is designated by the mouse pointer 19A and the mouse 19 is clicked (step S31), the control device 17 causes the pixel coordinates 1 of the pin image P to be displayed. Is stored in the storage unit 17C (step S32). Subsequently, the control device 17 determines whether or not the pin image P is clicked in the central processing unit 17A (step S33). If it is determined that the pin image P is not clicked, the control device 17 returns to step S31 and repeats the operations up to step S33. . If it is determined in step S33 that the mouse 19 has been clicked, it is then determined whether or not the mouse pointer 19A has moved (dragged) (step S34). If it is determined that the mouse pointer 19A has not moved, the process returns to step S33 to determine whether or not the mouse pointer 19A has been clicked again.

  If it is determined in step S34 that the mouse pointer 19A has moved, that is, if it is determined that the mouse pointer 19A has been dragged, the position after dragging, that is, the pixel coordinate 2 of the cross mark C is stored in the storage unit (step S35). An offset (x, y) between pixel coordinates 1 and pixel coordinates 2 is calculated (step S36). Next, the control device 17 acquires the pixel size (μm) of the magnification currently used from the storage unit 17C to the central processing unit 17A (step S37), and then the magnification currently used in the central processing unit 17A. Based on the pixel size, a calculation for converting the offset from pixel coordinates to stage coordinates by μm is executed (step S38). Subsequently, the control device 17 acquires the current stage coordinates from the storage unit 17C (step S39), adds the μm-converted offset to the stage coordinates in the central processing unit 17A (step S40), and then performs the central processing unit 17A. When the stage 11 is moved to the coordinate position to which the offset has been added by driving the drive mechanism 11A via step S41 (step S41), the pin image P becomes the center of the second CCD camera 15 as shown in FIG. Move to the cross mark C indicating. As a result, the stage coordinates of the stage 11 after the movement shown in FIG. 5B are stored in the storage unit 17C and stored.

  As described above, according to the third moving method of the object to be imaged, the pin image P on the display screen 16 is designated by the mouse pointer 19A, the mouse 19 is clicked, and then the mouse pointer 19A is simply dragged to the cross mark C. Thus, the pin image P designated by the mouse pointer 19A can be moved to the center of the second CCD camera 15, so that the probe 12A can be detected at the center of the second CCD camera 15, and the stage coordinates are determined. The data can be stored in the storage unit 17C. Similarly, processing can be similarly performed on a captured image of the wafer by the first CCD camera 14, and the XY coordinate position of the designated inspection electrode can be detected. Accordingly, the target probe 12A and the inspection electrode for the wafer can be detected by the first and second CCD cameras 14 and 15, respectively, and alignment of both can be performed based on the respective stage coordinates.

  In each of the above embodiments, the method of moving the pin images P, P1, P2 to the cross mark C by designating the pin images P, P1, P2 on the display screen 16 with the mouse pointer 19A has been described. Even if the target pin image or the like is not displayed on the screen 16, if an arbitrary part is designated on the display screen 16, the part is moved to the cross mark C, and the first and second parts are moved via the stage 11. The CCD cameras 14 and 15 can be moved in an arbitrary direction. In the second image moving method, the method of obtaining the midpoint between the first and second pin images P1 and P2 and moving the midpoint to the cross mark C has been described. However, the method is limited to the midpoint. Instead, a relational expression that specifies a point other than the middle point may be set, and a part other than the middle point may be moved to the target position. Further, the arbitrary part designated by the mouse pointer may be three or more. In this case, by registering a relational expression for obtaining the set part based on the three parts in the storage unit, Two methods for moving the object to be imaged can be implemented. In the above embodiments, the target position is set at the center of the display screen. However, the target position may be set at a position other than the center as necessary.

  In each of the above embodiments, the case where the captured image is operated using the mouse 19 has been described. However, when the display screen is a touch panel type, the operator can also touch a part of the captured image with his / her hand. The moving method of the object to be imaged according to each of the above embodiments can be executed.

  Furthermore, in each of the above embodiments, the probe apparatus 10 has been described as an example. However, the processing apparatus of the present invention is not limited to the probe apparatus, and a manufacturing apparatus such as a semiconductor manufacturing apparatus provided with an imaging unit such as a camera. Can also be widely applied.

  The present invention can be suitably used for a processing apparatus including an imaging unit.

It is a block diagram which shows one Embodiment of the processing apparatus of this invention. (A), (b) is a figure which shows the process of one Embodiment of the moving method of the to-be-photographed object of this invention, respectively, (a) shows the state which designated the pin image in the captured image with the mouse pointer after imaging. The front view of a display screen and (b) are the front views of a display screen which show the state where the captured image after a movement was displayed. It is a figure which shows the flowchart which implements the process shown in FIG. (A)-(c) is a figure which shows the process of one Embodiment of the to-be-photographed object moving method of this invention, respectively, (a) designated the 1st pin image in the captured image with the mouse pointer after imaging. The front view of the display screen which shows a state, (b) is the front view of the display screen which shows the state which designated the 2nd pin image in the captured image with the mouse pointer after imaging, (c) is the captured image after a movement displayed It is a front view of the display screen which shows the state performed. It is a figure which shows the flowchart which implements the process shown in FIG. (A), (b) is a figure which shows the process of further embodiment of the moving method of the to-be-photographed object of this invention, respectively, (a) shows the state which designated the pin image in the captured image with the mouse pointer after imaging. The front view of a display screen and (b) are the front views of a display screen which show the state where the captured image after a movement was displayed. It is a figure which shows the flowchart which implements the process shown in FIG.

Explanation of symbols

10 Probe device (processing device)
11 stage (mounting table)
11A Drive mechanism 11B Moving method of object to be imaged 12 Probe card (object)
12A probe 13 alignment mechanism 14 first CCD camera (first imaging means)
15 Second CCD camera (second imaging means)
16 Display screen 17 Control device (control means)
17A Central processing unit (calculation unit)
17B, 17C Storage part P, P1, P2 Pin image (designated part)

Claims (4)

It is obtained based on the plurality of parts on the display screen by designating any part of the picked-up image of the object imaged at a predetermined magnification by the image pickup means and displayed on the display screen. A moving method of an object to be imaged in which a set part is moved to a target position and the image capturing unit and the object to be imaged are relatively moved,
Designating the arbitrary part by placing the mouse pointer on the arbitrary part and clicking the mouse;
Storing each of the coordinate values on the display screen of the plurality of designated parts,
Obtaining coordinate values of the set part based on the coordinate values of the plurality of designated parts and a relational expression set in advance;
Obtaining an offset between the set part value and the target position;
A step of relatively moving the imaging means and the object to be imaged by a distance corresponding to the offset, and moving the set site to the target position on the display screen. How to move the imaged object. It is obtained based on the plurality of parts on the display screen by designating any part of the picked-up image of the object imaged at a predetermined magnification by the image pickup means and displayed on the display screen. A moving method of an object to be imaged in which a set part is moved to a target position and the image capturing unit and the object to be imaged are relatively moved ,
Providing a touch panel as the display screen and designating the arbitrary part by touching the arbitrary part of the captured image displayed on the touch panel ;
Storing each of the coordinate values on the display screen of the plurality of designated parts,
Obtaining coordinate values of the set part based on the coordinate values of the plurality of designated parts and a relational expression set in advance;
Obtaining an offset between the set part value and the target position ;
A step of relatively moving the imaging means and the object to be imaged by a distance corresponding to the offset, and moving the set part to the target position on the display screen. How to move the imaged object. An imaging unit that captures an object to be imaged at a predetermined magnification; a display screen that displays an image captured by the imaging unit; a moving unit that relatively moves the object to be imaged and the imaging unit; and Drive means for driving and control means for controlling them, and by designating any of a plurality of parts of the captured image of the imaged object displayed on the display screen under the control of the control means A processing device configured to move a set part obtained based on the coordinate values of the plurality of arbitrary parts on the display screen to a target position to move the imaging unit and the object to be imaged relatively Because
A designation unit having a mouse for designating any of the above-described parts by placing a mouse pointer on and clicking on any of the plurality of parts of the captured image;
Storage means for storing the coordinate values on the display screen of the plurality of designated portions by the mouse ;
Calculation means for obtaining a coordinate value of the set part based on a coordinate value indicating the plurality of designated parts and a preset relational expression and obtaining an offset between the set part and the target position on the display screen And having
The processing device, wherein the driving unit is driven based on the offset, and the imaging unit and the object to be imaged are moved relatively by a distance corresponding to the offset via the moving unit. An imaging means for imaging an object to be imaged at a predetermined magnification; a display screen for displaying an image captured by the imaging means; a moving means for relatively moving the object to be imaged and the imaging means; and the moving means. Drive means for driving and control means for controlling them, and by designating any of a plurality of parts of the captured image of the imaged object displayed on the display screen under the control of the control means A processing device configured to move a set part obtained based on the coordinate values of the plurality of arbitrary parts on the display screen to a target position to move the imaging unit and the object to be imaged relatively Because
Designation means provided as a touch panel on the display screen to specify the arbitrary site by touching any portion of the captured image,
Storage means for respectively storing coordinate values on the display screen of the plurality of designated portions by the touch panel;
Calculation means for obtaining a coordinate value of the set part based on a coordinate value indicating the plurality of designated parts and a preset relational expression and obtaining an offset between the set part and the target position on the display screen And having
The processing apparatus, wherein the driving means is driven based on the offset, and the imaging means and the object to be imaged are moved relatively by a distance corresponding to the offset via the moving means .

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