KR101343381B1 - Measuring instrument including package pin information function using providing augmented reality, measurement method using measuring instrument - Google Patents

Abstract

The present invention relates to a measuring instrument including a package pin information function using augmented reality, a measurement method using the measuring instrument. According to the embodiment of the present invention, the measurement method of the measuring instrument using a package pin information function using augmented reality includes a first step of recognizing a first pin; a second step of recognizing a pin interval, a third step of recognizing a pin position; and a forth step of outputting a package image. [Reference numerals] (AA) Start; (BB) Cancel button; (CC) Check button; (DD) End; (S1) Mounting an imaging device on a measuring instrument; (S10) Recognizing a pin position and a pin interval in an enlarged image based on a chip dimension data in the position information of a first pin which is a recognized identifier and a database; (S11) Selecting a proving pin; (S12) Recognizing the position of the proving pin in a package relative to a prove node through real-time processing about the images; (S13) Outputting a proving pin function to an overlap outputting unit by using the position of the proving pin; (S14) Whether or not a predetermined time or greater relative to a capture command is inputted by a camera operating unit?; (S15) Outputting a package pin description to the overlap outputting unit; (S16) Whether or not a predetermined time or less relative to the capture command is inputted by the camera operation unit?; (S17) Storing the enlarged images as wallpaper and outputting it as translucent wallpaper by applying a translucent effect; (S18) Outputting and performing the proving relative to the proving pin by overlapping real-time images filming by a camera and the translucent wallpaper; (S19) Whether or not a predetermined time or less relative to the capture command is inputted by the camera operation unit?; (S2) Recognizing the imaging device as Plug&Play; (S20) Unlocking the overlap relative to the real-time images about the translucent wallpaper; (S3) Driving the camera for outputting the images; (S4) Outputting the enlarged image relative to the package according to zoom-in opeartion; (S5) Whether or not the capture command is inputted by the camera operation unit?; (S6) Recognizing the first pin as a part number of the package and the identifier through the image processing relative to the enlarged images after the enlarged images are outputted; (S7) Outputting the first pin as the part number and the identifier of the recognized package, and a check text relative to the outputting; (S8) Whether or not the check button/cancel button is inputted?; (S9) Outputting a position resetting text

Description

MEASURING INSTRUMENT INCLUDING PACKAGE PIN INFORMATION FUNCTION USING PROVIDING AUGMENTED REALITY, MEASUREMENT METHOD USING MEASURING INSTRUMENT}

The present invention relates to a measurement technology, and more specifically, to augmented reality for providing pin information on a package in real time while increasing the accuracy of probing through an enlarged enlarged image of a pin of a package that a user probes. The present invention relates to a measuring instrument having a package pin information providing function and a measuring method thereof.

Test instruments, such as oscilloscopes, logic analyzers, and spectrum analyzers, measure results through probes or cable connectors on the device under test (DUT). .

With the recent development of portable devices, as the miniaturization of products has accelerated, the components that make up products have also been miniaturized, and the size of pins or measuring points of the package, which is the DUT to be measured, is also reduced. have. In addition, as the number of transmission bits of data buses used in recent years has increased, the number of component device pins has also increased, and the pitch between pins has become smaller.

As a result, more effort is required for accurate probing, and these points make it easier for an engineer to use the instrument to select and measure the pins that need to be measured among many pins or measuring points. It is not a situation.

In addition, in the case of a DUT that is a chip or device with many pins to be measured (for example, a central processing unit in which the device to be measured has a 64-bit I / O interface) CPU)), if the point you need to measure is data pin 14 (hereinafter referred to as Data 14), the user should enter the data sheet to see how many data pins are among the 100 or more pins of the CPU. You have to check it manually, find the location of the pin on the actual device, make the correct contact with the pin, and observe the measurement result.

However, for CPUs with more than 100 pins, as in the example above, pins to be measured again in the data sheet should be measured by measuring Data 14 and then measuring other pins or changing the instrument's setting parameters. There is a problem in that you must manually check the number of the job or change the setting of the instrument and probe the corresponding point again to observe the measurement result reflecting the changed setting.

Accordingly, in the technical field, there is a demand for technology development to improve the accuracy of probing and to easily search for pins of a package to be measured by a user, thereby improving user convenience for measurement.

[Related Technical Literature]

1. Horizontal axis scale calibration method for oscilloscope and oscilloscope (Patent Application No. 10-1993-0012625)

2. The method of implementing persistence effect of analog oscilloscope (Patent Application No. 10-2001-0033354)

The present invention is to solve the above problems, by providing a user interface screen that can see the measurement point of the DUT to be measured and the measurement results of the instrument on one screen, the user only through the screen of the instrument measuring point of the DUT To provide a measuring instrument and a measuring method thereof having a package pin information providing function using augmented reality to enable measuring.

In addition, the present invention is to recognize the DUT in the instrument to retrieve the pin assignment information of the DUT from the database and to output it together with the user interface screen of the measurement point of the DUT, so that the user can easily measure the target pin of the DUT To provide a measuring instrument and a measuring method thereof having a package pin information providing function using the augmented reality.

In addition, the present invention provides a measuring instrument and a measuring method thereof with a package pin information providing function using augmented reality to increase the accuracy of the probing through an enlarged enlarged image of the pin of the package to the user at the same time to improve user convenience It is to provide.

In addition, the present invention is to provide a measuring instrument and a measuring method thereof having a function to provide the package pin information using augmented reality to increase the learning effect in practice by informing the function of the retrieved package pin.

However, the objects of the present invention are not limited to the above-mentioned objects, and other objects not mentioned can be clearly understood by those skilled in the art from the following description.

In order to achieve the above object, a measuring method of a measuring instrument having a package pin information providing function using augmented reality according to an embodiment of the present invention, a probe having an imaging device; A measuring instrument body connected to the imaging device and the probe through a connector and an interface, respectively; In the control method of the measuring instrument having a package pin information providing function comprising: The measuring unit is controlled to output a magnified image of the package by the camera of the imaging device to the image output unit, and then for the enlarged image A first step of recognizing a first pin that is an identifier (PN) and an identifier of the package through image processing; Wherein the measuring instrument, the position of the first pin and the first pin in the enlarged image based on the position information of the first pin through the chip dimension data (Chip Dimension Data) extracted from the database through the identification number (PN) information A second step of recognizing the pin spacing between the remaining pins except for; The measuring device receives, from the probe, probe pin position information, which is position information on a pin to be probed by the probe rod of the probe, according to selection and contact of the probe pin to be measured on the package by the user. And a third pin that recognizes a relative pin position on the package P with respect to the probe pin through real-time image processing of the enlarged image using the probe pin position information and the position information of the first pin. step; And a pin description stored in the database by a function of the pin on the package corresponding to the extracted pin number by extracting the pin number for the probing pin from the relative pin position using the chip dimension data. 4) extracting from the information and outputting the information to the overlap output unit together with the package image previously stored in the database; And a control unit.

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The measuring instrument and its measuring method having a package pin information providing function using augmented reality according to an embodiment of the present invention, the user can easily search for the pin of the package to be measured by the user to improve the user convenience for the measurement to provide.

In addition, the measuring instrument and a measuring method thereof having a package pin information providing function using augmented reality according to another embodiment of the present invention, through the enlarged enlarged image of the pin of the package to the user at the same time to improve user convenience It provides the effect of increasing the accuracy of probing.

In addition, the measuring instrument having a package pin information providing function using augmented reality according to another embodiment of the present invention and a measuring method thereof may provide a learning effect by informing each function of a pin found on a package. .

1 is a view showing a measuring instrument body having a package pin information providing function using augmented reality according to an embodiment of the present invention.
2 is a view showing a state in which a probe including an imaging device is connected to a main body of a measuring instrument having a package pin information providing function using augmented reality according to an exemplary embodiment of the present invention.
3 is a view showing a user interface screen output to the overlap output unit in the measuring instrument having a package pin information providing function using augmented reality according to an embodiment of the present invention.
4 is a diagram showing an application example of an imaging device according to another embodiment of the present invention;
FIG. 5 is a block diagram illustrating an internal configuration of a probe having a main body of a measuring instrument having a package pin information providing function using an augmented reality and an image pickup device connected thereto.
6 is a flowchart illustrating a measuring method of a measuring instrument with a package pin information providing function using augmented reality according to an embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In the following description of the present invention, detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In the present specification, when any one element 'transmits' data or signals to another element, the element can transmit the data or signal directly to the other element, and through at least one other element Data or signal can be transmitted to another component.

1 is a view showing a measuring instrument main body 100 having a package pin information providing function using augmented reality according to an embodiment of the present invention. 2 is a view illustrating a state in which a probe 200 including an imaging device 270 is connected to the measuring instrument main body 100 having a package pin information providing function using augmented reality according to an exemplary embodiment of the present invention. 3 is a view showing a user interface screen output to the overlap output unit 121 using augmented reality in the measuring instrument main body 100 having a package pin information providing function using augmented reality according to an embodiment of the present invention. 4 is a view showing another application example of the use state of the imaging device 270 and the probe 200 according to another embodiment of the present invention.

1 to 4, the measuring instrument 100 includes a measuring instrument housing 101, a two-stage output unit 110, a measurement signal output unit 120, an image output unit 130, a connector port 140, and an input / output unit. An interface port (I / O interface port: 150), a measuring instrument control unit 170 and a measuring instrument control unit 180 (see FIG. 5).

The measuring instrument box 101 is formed of a rectangular parallelepiped or a polyhedron, and outputs a measurement signal and a photographed image of the package P to the user through a two-stage output unit 110 on an external surface.

The second stage output unit 110 includes a measurement signal output unit 120 and an image output unit 130. As shown in FIG. 1, the measurement signal output unit 120 outputs a measurement signal at the time of probing the package P, and an overlap output to be described later for accurate probing as a preliminary step of outputting the measurement signal. The unit 121 and the image output unit 130 are used.

The overlap output unit 121 overlaps one side of the measurement signal output unit 120 and outputs an image signal. For this purpose, the measurement signal output unit 120 includes brightness, saturation, and color such as CRT, LCD, PDP, and LED. This display can be implemented as a display, and the output is overlapped on the upper left of the measurement signal output unit 120, it is apparent that the position can be modified anywhere in the measurement signal output unit 120 by those skilled in the art.

The overload output unit 121 outputs the function of the pin on the package P together with the package P image pre-stored in the database 190 (see FIG. 5), and the database together with the pre-stored package P image. The package pin description (PIN DESCRIPTION) previously stored in the 190 is output to the overlap output unit 121 as shown in FIG. The package pin description may be information included in chip dimension data, which will be described later.

In addition, the database 190 may be formed inside the instrument body 100, but it is apparent to those skilled in the art that the database 190 may be transformed into a data server connected to the instrument body 100 through a communication network (not shown). In this case, the package P image and the package pin description stored in the data server may be transmitted to the measuring instrument body 100 through a communication network at the request of the measuring instrument body 100.

The connector port 140 is an input / output terminal for receiving a measurement signal probed by the probe rod 210 of the probe 200 from the connector 260 of the probe 200.

The input / output interface 150 is a terminal for receiving data and control signals, such as an image captured by the imaging device 270 coupled to the probe 200, from the input / output interface 290 of the probe 200.

The measurement instrument operator 170 is terminals for setting and manipulating the measurement signal output to the measurement signal output unit 120, and includes a key commonly used in an oscilloscope, which is an example of a measurement instrument, and thus a detailed description thereof will be omitted. .

Through this configuration, the measuring instrument controller 180 receives the measurement signal probed by the probe rod 210 of the probe 200 from the connector 260 of the probe 200 through the connector port 140 to measure the measurement signal. Control to output to the output unit 120.

In addition, the instrument controller 180 transmits data and / or signals, such as an image captured by the imaging device 270 coupled to the probe 200, from the input / output interface 290 of the probe 200 to the input / output interface 150. By receiving through the control to generate data to output to the overlap output unit 121 and / or the image output unit 130.

The probe 200 includes a probe rod 210, a probe tip 220, a marker band 230, a ground lead 240, a grip 250, and a connector 260. And an imaging device 270 and an imaging controller 280 (see FIG. 5).

Among these, the imaging device 270 includes a mounting hole 271, a cutting hole 273, an LED light 274, a camera 275, a camera operator 276, and an imaging device housing 277.

The mounting hole 271 is a hole through which the probe rod 210 passes when the image pickup device 270 is coupled with the probe rod 210. On the other hand, the mounting hole 271 in the image pickup unit 277 is provided with the same or larger one hole is symmetrical with the perforated surface to allow the grip portion 250 to pass through.

The cut-out hole 273 is formed by cutting a predetermined length from the lower end side of the side of the imaging device box 277 to prevent the ground lead 240 from being caught by the imaging device box 277 when the imaging device 270 is coupled. do.

The LED light 274 is provided by two illuminations of the first LED light 274 (a) and the second LED light 274 (b) on the same horizontal surface as the mounting hole 271 formed in the image capturing apparatus box 277. Is formed. Meanwhile, a camera 275 is formed between the first LED light 274 (a) and the second LED light 274 (b), and two cameras are formed as one example, one or two or more. Although deformable, two are preferable in view of the spatial dispersion constraint and the luminance.

The camera 275 is formed between the first LED light 274 (a) and the second LED light 274 (b) and transmits the captured image to the measuring instrument 100 through the input / output interface 290 (see FIG. 5). By transmitting the formed input and output interface 150, the instrument controller 180 receives.

The camera operator 276 is formed to include a jog shuttle 276a including a center button c, confirmation buttons ok and 276b and cancel buttons x and 276c, and a center button of the jog shuttle 276a. When c) is pressed, the connection terminal control module 281 (see FIG. 5) of the image capturing controller 280 to be described later is recognized as a capture button input for controlling the camera 275. Meanwhile, when the center button c of the jog shuttle 276a is lowered, the center button c is recognized as a zoom-in input for controlling the camera 275, and the center button c is upward. When raised, it is recognized as a zoom-out input for controlling the camera 275.

The imaging controller 280 includes a connection terminal control module 281 and an auto focusing module 282, which will be omitted in FIG. In the present specification, a module may mean a functional and structural combination of hardware for performing the technical idea of the present invention and software for driving the hardware. For example, the module may mean a logical unit of a predetermined code and a hardware resource for executing the predetermined code, and it does not necessarily mean a physically connected code or a kind of hardware. Can be easily deduced to the average expert in the field of < / RTI >

On the other hand, the imaging device 270 may be used as a method using a fixing device such as the tripod 300 of FIG.

In the case where the imaging device 270 is fixed to the fixing device such as the tripod 300 through the tripod hole 310, it is for measuring while moving the probe 200 while the DUT is fixed. If the purpose is, both methods have different effects for the purpose of fixing the imaging device 270 to the above-described probe 200 to improve precision. Therefore, it can be selectively applied to the tripod fixed type or probe fixed type as needed (see Fig. 4). Here, the fixing stand 400 is formed in a shape similar to the probe 200 and is used to couple with the tripod 300 instead of the probe 200.

5 is a block diagram illustrating an internal configuration of a probe body 100 having an instrument body 100 having a package pin information providing function using augmented reality and an imaging device 270 connected thereto according to an embodiment of the present invention. . 1 to 5, the measuring instrument body 100 will be described below in detail with respect to the measuring instrument controller 180, and the probe 200 will be centered on the imaging controller 280.

The recognition module 181 of the meter controller 180 recognizes whether the input / output interface 290 of the imaging device 270 is mounted or detached from the input / output interface 150.

According to the recognition, the recognition module 181 recognizes the image pickup device 270 in a plug & play manner through the input / output interface 150. Here, the input / output interface 150 may be a USB port.

The output module 182 outputs the image output unit 130 of the second output unit 110 to the captured image captured by the camera 275 of the imaging device 270 according to the recognition by the recognition module 181. To perform.

Thereafter, the output module 182 has a capture button through a push on the center button c by the user on the jog shuffle 276a of the camera control unit 276 of the imaging device 270. If input by the user, the control unit outputs the enlarged image photographed by the camera 275 to the image output unit 130 and then the package P through image processing of the enlarged image. Recognizes the first pin, which is the Part Number (PN) of FIG.

The output module 182 is a "confirmation text" indicating "output for identification number (PN)" and "output for first pin" of the recognized package (P), and the output of identification number (PN) and first pin. "To output to the image output unit 130. Here, the "output for the identification number (PN)" and the "output for the first pin" may be output by marking the corresponding portions in fluorescent to red color, an example of the "confirmation text" is the identification number and the first This can be the phrase pin recognition complete.

Thereafter, the output module 182 waits for input by the user to the confirmation button (ok, 276b) or the cancel button (x, 276c) on the camera control unit 276 of the image capturing apparatus 270 and confirms the confirmation button 276b. When the input is completed, the input / output interface 150 is controlled to receive identification number (PN) information, position information of the first pin of the package P, and a recognition command from the input / output interface 290 of the imaging device 270. do.

The output module 182 receives the chip dimension data extracted from the database 190 and the position information of the received first pin through the identification number (PN) information of the instrument 100 according to the recognition command. Based on the enlarged image, the position of the first pin and the pin spacing between the remaining pins except the first pin are recognized. Here, the output module 180 may output a completion message for pin spacing recognition to the image output unit 130 or / and the overlap output unit 121 to be recognized by the user.

In addition, the chip dimension data includes an identification number (PN), spacing information between pins, and the like, for each of a plurality of packages that are commercially available or will be commercially available.

On the other hand, the database 190 also stores a package pin description (PIN DESCRIPTION) indicating the functional information of each pin in each of a plurality of packages to be commercialized or to be described later.

Thereafter, the output module 182 selects a probe pin desired for measurement through the probe 200 on the package key P by the user, and then positions the pin to be probed by the probe rod 210. The input / output interface 150 is controlled to receive the probe pin position information, which is information, from the input / output interface 290 of the probe 200.

Accordingly, the output module 182 uses the probe pin position information and the position information of the first pin to perform the probe pin 210 on the probe pin 210 through the real-time image processing on the enlarged image. Note the relative pin position on the package P.

The output module 182 extracts the pin number for the probing pin using the chip dimension data extracted from the database 190 as a corresponding pin position on the package P corresponding to the extracted pin number. The function of the pin is controlled to output to the overlap output unit 121 together with the package (P) image previously stored in the database 190.

Here, the extraction module 182 is a function of the pin on the package (P) against the extracted pin number is the function of each pin for the corresponding package (P) of the plurality of commercialized or commercially available packages stored in the database 190 It can be extracted using the information.

The output module 182 completes the input of the capture button over the preset time by the user on the camera control unit 276 to receive the first input completion signal from the input / output interface 290 of the imaging device 270. When received through the input / output interface 150, the package pin description for the package (P) stored in the database 190, along with the package (P) image pre-stored in the database 190, withdraws Output to the overlap output unit 121 as shown in 3.

Accordingly, the user may view a package pin description (PIN DESCRIPTION) of the package P with the overlap output unit 121 while viewing the current real-time shot image with the image output unit 130.

The overlap module 183 does not complete input of the capture button to the jog shuttle 276a over the preset time by the user on the camera operator 276, so that the input / output interface 290 of the imaging device 270 is not completed. When the first input failure signal is received through the input / output interface 150, the enlarged image is stored as a background image in the database 190, and then a translucent effect on the enlarged image is applied to the image output unit 130. Control the output.

Subsequently, the overlap module 183 overlaps the real-time photographed image captured by the camera 275 of the image capturing apparatus 270 in real time with the enlarged image to which the translucent effect is applied. Output to the output unit 130. Along with the corresponding output, the user may probe the probe pin using the probe 200 to view the measurement signal output through the measurement signal output unit 120 of the meter 100.

As described above, the overlap module 183 overlaps the real-time photographed image captured by the camera 275 of the imaging device 270 in real time with the enlarged image to be described later to match the outline, and then releases the overlap screen.

Next, when the input / output interface 290 of the imaging controller 280 is mounted to the input / output interface 150 of the measuring controller 180, the input / output interface connected to the measuring controller 180 may be used. Through 150, data and signal transmission and reception are performed with the instrument control beam 180.

In addition, the connection terminal control module 281 also controls the camera operator 276, the LED light 274, and the camera 275.

When the input / output interface 290 is mounted on the input / output interface 150, the connection terminal control module 281 may output an image output unit 130 of the second output unit 110 for the captured image captured by the imaging device 270. The camera 275 is driven to perform output to

At the same time, the connection terminal control module 281 may control to turn on the illumination of the LED light 274 formed of two lights formed at both ends of the camera 275.

The autofocusing module 282 performs a process of generating a captured image focused by the package P to measure the focus of the camera 275 according to the autofocus function. As an example, the autofocusing module 282 may apply an autofocusing function to a pin of a package P to be probed.

In more detail, the autofocusing module 282 generates the focused captured image by focusing the package P to measure the focus of the camera 275 according to the autofocus function according to the captured image output. .

The auto focusing module 282 generates a reduced image that is maximum zoomed out (reduced) the captured image as much as possible to output the full screen of the focused package P to the image output unit 130, and then input / output interface 290. ) And the output module 182 of the instrument control unit 180 through the input / output interface 150 to output the reduced image to the image output unit 130 through the output module 182.

6 is a flowchart illustrating a measuring method of a measuring instrument having a package pin information providing function using augmented reality according to an exemplary embodiment of the present invention. 1 to 6, the input / output interface 290 of the imaging device 270 attached to the probe 200 is mounted to the input / output interface 150 of the measuring instrument 100 (S1).

Accordingly, the measuring instrument 100 recognizes the image pickup device 270 in a plug and play manner through the input / output interface 150 (S2).

The measuring apparatus 100 drives the camera 275 to perform an output to the image output unit 130 of the two-stage output unit 110 for the captured image captured by the imaging device 270 (S3). Simultaneously with step S3, the imaging device 270 may turn on the illumination of the LED light 274 formed by the two illuminations formed at both ends of the camera 275.

After step S3, the imaging device 270 controls the autofocusing module 282 to generate a captured image focused by the package P to measure the focus of the camera 275 according to the autofocus function. Perform (S4). For example, the autofocusing module 282 may apply an autofocusing function to a pin of a package P to be probed.

Subsequently, the measuring instrument 100 determines whether a capture button is input through a push on the center button c of the jog shuttle 276a by the user on the camera control unit 276 of the image capturing apparatus 270. (S5).

When the capture button is input as a result of the determination in step S5, the measuring apparatus 100 controls to output the enlarged image captured by the camera 275 of the imaging device 270 to the image output unit 130, and then enlarges the image. Image processing of the image recognizes a part number (PN) of the package P and a first pin that is an identifier (S6).

After the step S6, the instrument 100 performs the " output for identification number PN " and " output for first pin " and identification number PN and the first of the package P according to step S6. The "confirmation text" indicating the output of the 1 pin is output to the image output unit 130 (S7). Here, the "output for the identification number (PN)" and the "output for the first pin" may be output by marking the corresponding portions in fluorescent to red color, an example of the "confirmation text" is the identification number and the first This can be the phrase pin recognition complete.

After the step S7, the image pickup device 270 determines whether the user inputs the confirmation buttons ok and 276b or the cancel button x and 276c on the camera operator 276 (S8).

When the cancel button 276c input is completed according to the determination of step S8, the imaging apparatus 270 repeatedly performs steps S6 to S8 until the confirmation button 276b is input.

On the other hand, when the input of the confirmation button 276b is completed according to the determination of step S8, the imaging device 270 sends the identification number PN information to the measuring instrument 100, the position information of the first pin of the package P, Then, by transmitting the recognition command, based on the identification number (PN) information by the measuring instrument 100 based on the chip dimension data (Chip Dimension Data), the location information of the first pin (P6) extracted from the database 190 (S6) In the enlarged image in, the position of the first pin and the pin spacing between the remaining pins except the first pin are recognized (S10). Here, the measuring device 100 may output a completion message for pin spacing recognition to the image output unit 130 or / and the overlap output unit 121 to be recognized by the user.

Subsequently, the user performs the selection of the probing pins to be measured through the probe 200 on the package key P, and thus the probing pin location information, which is the location information on the pin to be probed by the probe rod 210, is selected. To transmit to the measuring instrument 100 (S11).

Accordingly, the measuring instrument 100 desires to be probed by the probe rod 210 through real-time image processing on the enlarged image using the corresponding probe pin position information and the position information of the first pin in step S10. The relative pin position on the package P with respect to the probing pin is recognized (S12).

After step S12, the instrument 100 extracts the pin number for the probe pin using the chip dimension data extracted from the database 190 as a relative pin position according to step S12. The function of the pin on the package P corresponding to the pin number is output to the overlap output unit 121 together with the image of the package P previously stored in the database 190 (S13).

After the step S13, the image capturing apparatus 270 determines whether the user pushes the capture button of the jog shuttle 276a on the camera control unit 276 for more than a predetermined time (step S13). S14).

When the input of the capture button for more than the preset time is completed according to the determination of step S14, when the image pickup device 270 transmits the first input completion signal to the measuring device 100, the output module of the measuring device 100. 182 outputs a package pin description (PIN DESCRIPTION) to the overlap output unit 121 as shown in FIG. 4 together with the package P image previously stored in the database 190 (S13).

On the other hand, when the input of the capture button for more than the predetermined time is not completed according to the determination of step S14, when the imaging device 270 transmits the first input failure signal to the measuring instrument 100, the measuring instrument 100 The overlap module 183 stores the enlarged image in step S6 as a background screen in the database 190 and then outputs the image to the image output unit 130 by applying a translucent effect on the enlarged image (S17). .

After the step S17, the overlap module 183 of the measuring device 100 enlarges the real-time photographed image captured by the camera 275 of the imaging device 270 in real time and the translucent effect in step S17. By overlapping the images, if the outlines of the overlapped screens match, the images are output to the image output unit 130. Along with the corresponding output, the user may perform the probing on the probing pin using the probe 200 to view the measurement signal output through the measurement signal output unit 120 of the measuring instrument 100 (S18).

As described above, the reason why the overlapped screen and the real-time shot image are output is for the purpose of probing the probe pin desired for subsequent probe while maintaining the sameness with respect to the enlarged image provided in step S6.

After the operation S18, the imaging apparatus 200 determines whether the user pushes the capture button of the jog shuttle 276a on the camera operator 276 for more than a preset time (S19). ). It is assumed that the preset time in step S19 is the same as the preset time in step S14.

When the input of the capture button over the preset time is completed according to the determination of step S19, the overlap module 183 of the measuring apparatus 100 releases the overlap of the real-time shot image and the enlarged image whose outline is matched. By doing so, the probing for the probing pin is completed (S20).

The present invention can also be embodied as computer-readable codes on a computer-readable recording medium. A computer-readable recording medium includes all kinds of recording apparatuses in which data that can be read by a computer system is stored.

Examples of the computer-readable recording medium include a ROM, a RAM, a CD-ROM, a magnetic tape, a floppy disk, an optical data storage device and the like, and also implemented in the form of a carrier wave (for example, transmission over the Internet) .

The computer readable recording medium may also be distributed over a networked computer system so that computer readable code can be stored and executed in a distributed manner. And functional programs, codes, and code segments for implementing the present invention can be easily inferred by programmers skilled in the art to which the present invention pertains.

As described above, preferred embodiments of the present invention have been disclosed in the present specification and drawings, and although specific terms have been used, they have been used only in a general sense to easily describe the technical contents of the present invention and to facilitate understanding of the invention , And are not intended to limit the scope of the present invention. It will be apparent to those skilled in the art that other modifications based on the technical idea of the present invention can be carried out in addition to the embodiments disclosed herein.

100: instrument 101: instrument enclosure
110: two-stage output unit 120: measurement signal output unit
130: video output unit 140: connector port
150: input and output interface 170: instrument control unit
180: instrument control unit 181: recognition module
182: output module 183: overlap module
200: Probe 210: Probe Rod
220: Probe Tip 230: Marker Band
240: ground lead 250: grip
260: connector 270: imaging device
271: mounting hole 273: cutting hole
274: LED light 275: camera
276: camera control unit 276a: jog shuttle
276b: OK button 276c: Cancel button
280: imaging control unit 281: connection terminal control module
282: auto focusing module 300: tripod

Claims (10)

A probe having an imaging device; A measuring instrument body connected to the imaging device and the probe through a connector and an interface, respectively; In the control method of the measuring instrument having a package pin information providing function comprising:
After the measuring unit controls to output the enlarged image photographing the package to the image output unit by the camera of the imaging device, the identification number PN and the identifier (PN) of the package through image processing of the enlarged image ( A first step of recognizing a first pin which is an Identifier;
Wherein the measuring instrument, the position of the first pin and the first pin in the enlarged image based on the position information of the first pin through the chip dimension data (Chip Dimension Data) extracted from the database through the identification number (PN) information A second step of recognizing the pin spacing between the remaining pins except for;
The measuring device receives, from the probe, probe pin position information, which is position information on a pin to be probed by the probe rod of the probe, according to selection and contact of the probe pin to be measured on the package by the user. And a third pin that recognizes a relative pin position on the package P with respect to the probe pin through real-time image processing of the enlarged image using the probe pin position information and the position information of the first pin. step; And
The pin description stored in the database is a function of the pin on the package corresponding to the extracted pin number by the instrument extracting the pin number for the probing pin using the relative pin position using the chip dimension data. Extracting from the information and outputting the package image to the overlap output unit together with the package image previously stored in the database; Measuring method of the measuring instrument with a package pin information providing function using augmented reality comprising a.
The method of claim 1 wherein the step is performed between the first and second steps,
Outputting, by the meter, the confirmation text indicating the output of the identification number (PN), the output of the first pin, and the output of the identification number (PN) and the first pin to the image output unit; More,
The output to the identification number (PN) and the output to the first pin, the identification number (PN) and the first pin portion by the measuring device in the magnified image output to the image output unit fluorescent color to red Marking and outputting, wherein the confirmation text, the identification number and the first pin recognition completion of the package pin information providing function using augmented reality, characterized in that the measurement method of the measuring instrument with a feature.
The method of claim 1, wherein the step is performed before the first step,
Mounting an input / output interface of the imaging device attached to the probe to an input / output interface port of the measuring instrument;
The measuring unit, recognizing the imaging device through a plug and play method through the input / output interface port;
Driving the camera to perform an output to the image output unit of a two-stage output unit with respect to the photographed image photographed by the camera; And
Controlling, by the imaging apparatus, an autofocusing module to perform focusing on the package to measure the focus of the camera according to an autofocus function to generate and output the focused enlarged image to the image output unit; Measuring method of the measuring instrument with a package pin information providing function using augmented reality characterized in that it further comprises.
The method of claim 1, wherein the step is performed after the fourth step,
When the measuring unit receives a first input completion signal from the image capturing device after the input (Push) of the capture button over the preset time by the user on the camera control unit is completed, the output module is controlled to control the device. A fifth step of outputting function information on all pins of the package P to the overlap output unit according to package pin description information along with the stored package P image; Measuring method of the measuring instrument with a package pin information providing function using augmented reality characterized in that it further comprises.
The method of claim 4, wherein the fifth step is performed,
If the measuring unit receives a first input failure signal from the image pickup device because a push for more than a predetermined time by the user for the capture button is not completed on the camera control unit, the measuring module controls the overlap module. A first output step of applying a translucent effect to the magnified image and outputting the translucent effect to the image output unit; And
The measuring unit may control the overlap module to receive a real-time shot image captured by the camera in real time, and overlap the enlarged image to which the translucent effect is applied to output the image to the image output unit when the outlines of the overlapped screens match. A second output step of locking; Including;
The second output step, characterized in that the measuring instrument, so that the user can see the measurement signal output through the measurement signal output unit of the measuring instrument when performing the probe to the probe pin using the probe. Measurement method of a measuring instrument with a package pin information providing function using augmented reality.
A probe having an imaging device; A measuring instrument body connected to the imaging device and the probe through a connector and an interface, respectively; In the measuring instrument having a package pin information providing function comprising:
The measuring instrument body,
A two-stage including a measurement signal output unit for outputting the measurement signal measured by the probe, an image output unit for outputting data by the imaging device, and an overlap output unit for overlapping one side of the measurement signal output unit to output an image signal An output unit; And
After controlling to output the enlarged image photographing the package to the image output unit by the camera of the imaging device, through the image processing for the enlarged image (PN) and the identifier (Identifier) of the package Recognizing the first pin, the position of the first pin in the enlarged image based on the position information of the first pin through the chip dimension data (Chip Dimension Data) extracted from the database through the identification number (PN) information An output module for recognizing a pin spacing between the remaining pins except the first pin; Instrument with a package pin information providing function using augmented reality, characterized in that it comprises a.
The method of claim 6, wherein the output module,
According to the selection and contact of the probe pin desired to be measured on the package by the user, after receiving the probe pin position information, which is the position information about the pin to be probed by the probe rod of the probe, from the probe Recognizing the relative pin position on the package (P) relative to the probe pin through the real-time image processing for the enlarged image using the probe pin position information and the position information of the first pin,
Extract the pin number for the probing pin using the chip dimension data, and extract the function of the pin on the package corresponding to the extracted pin number from the pin description information stored in the database. Measuring instrument with a package pin information providing function using augmented reality, characterized in that to output to the overlap output unit with the package image previously stored in the database.
The method of claim 6, wherein the imaging device,
When the measuring device recognizes the image pickup device as a Plug & Play method through an input / output interface port, the focusing of the package to measure the focus of the camera is performed according to an autofocus function to display the enlarged image that is focused. An auto focusing module which generates and outputs the output to the image output unit; Measuring instrument with a package pin information providing function using augmented reality, characterized in that it further comprises.
The method of claim 6, wherein the output module,
When the input of the capture button over the preset time by the user on the camera control unit is completed and the first input completion signal is received from the image pickup device, the package P image previously stored in the database is stored. And a package pin information providing function using augmented reality, which outputs functional information on all pins of the package P to the overlap output unit according to the package pin description information.
The method of claim 9, wherein the measuring instrument body,
When the first input failure signal is received from the image pickup device because the input of the capture button by the user for the capture button is not completed on the camera operator, the translucent effect on the enlarged image is applied. It outputs to the image output unit, and receives the real-time shot image being shot in real time by the camera and overlaps the magnified image to which the translucent effect is applied to output to the image output unit if the outline of the overlapped screen matches Overlap module; Further comprising:
The overlap module, the package pin information providing function using the augmented reality, characterized in that the user can see the measurement signal output through the measurement signal output unit when performing the probe to the probe using the probe Instrument with.

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