KR20160034640A - Method and device for readjusting image, and non-temporary computer-readable medium storing instructions for executing the same method - Google Patents

Abstract

The present invention relates to a method and an apparatus for readjusting an image, and a nontemporary machine-readable storing medium recorded with a program for executing the method. The method generates a more natural result by dividing the image into a plurality of part areas and naturally readjusting some by extending or reducing the same in a reediting step of extending or reducing an image.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an image re-arrangement method, an image re-arrangement apparatus, and a non-transitory machine-readable storage medium storing instructions for executing the method,

The present invention relates to a non-volatile machine-readable storage medium having recorded thereon a method, an apparatus and an instruction for executing the method, by which an image can be divided into a plurality of sub-regions and a portion can be stretched or shrunk to naturally readjust.

Conventional images are analogue images such as pictures and photographs. However, digital images such as computers, tablet PCs, and smartphones have been popularized and developed, and digital images that can be created, edited, .

Digital images are easier to create in digital devices, which can further reduce the cost and time required to create images, and output can also be done in digital devices, making it easier to distribute the generated digital images. It is also economically significant in that it is easy to re-edit the created digital image in a digital electronic device to obtain a new digital image.

Such re-editing of digital images can be done through professional programs such as Digital 'Illustrator' or 'Photoshop'. These specialized programs can produce outstanding results and are therefore widely used in design and image photography.

However, professional programs for re-editing of digital images require professional knowledge, which means that a lot of training is needed to use them, which means that not everyone can use them universally.

Due to these problems, there are many applications that can easily edit digital images in the smartphone application market. Applications that can edit existing images can easily edit images without expert knowledge There are advantages.

However, there is a disadvantage that when the image is enlarged or reduced in the process of editing the image, the result becomes unnatural, and if the number is increased excessively, the image may be damaged.

The main object of the present invention is to provide an image re-adjustment method and apparatus capable of preventing generation of a more natural result and destruction of a result in a re-editing process of expanding or reducing a digital image, And to provide a machine-readable storage medium.

In addition, it is an object of the present invention to provide an image re-adjustment method and apparatus capable of easily and re-editing an image without expert knowledge in a re-editing process of expanding or reducing a digital image, and a non-transitory machine readable storage medium storing a program for executing the method To be provided.

According to an aspect of the present invention, there is provided a method of re-adjusting an image displayed on a display of an electronic device, the method comprising the steps of: loading an original image; converting the original image into a first converted image in bitmap format An image conversion step of storing the first converted image in a memory of the electronic device and outputting it to a display of the electronic device; displaying at least one baseline on the display; Dividing the first partial image group into a plurality of partial images and storing a first partial image group composed of the plurality of partial images in the memory; Stretching or contracting by a predetermined ratio to form at least one or more variable portions An image variable step of displaying on the display a second partial image group consisting of at least one or more of the variable partial images and at least one or more partial images that are not stretched or contracted among the first partial image group, And combining the two partial image groups to generate one first variable image and displaying the first variable image on the display.

Also, the original image may be a stored image already stored in the electronic device, or may be a captured image captured by a camera provided in the electronic device.

The image conversion step may further include determining whether the resolution of the original image exceeds the resolution of the display or is lower than a predetermined resolution before converting the original image into the first converted image, If the original image is determined to be greater than or equal to the resolution of the display, the original image may be reduced or enlarged to within the range of the resolution of the display and converted to the first converted image.

Here, the image converting step may include a file type determining step of determining the original image as the first converted image, when the original image is in the bitmap format, before converting the original image into the first converted image .

In this case, the image segmentation step may display the reference line so as to be parallel to the horizontal direction of the first transformed image, change the position of the reference line according to an input of a user using the electronic device, Can be displayed.

The image segmenting step may display the plurality of reference lines spaced apart from each other when the plurality of reference lines exist, and change the display order of the plurality of reference lines according to the input of the user.

The plurality of reference lines may be an upper reference line and a lower reference line dividing the first transformed image into three partial images or further include N central reference lines between the upper reference line and the lower reference line, Can be divided into N + 3 partial images.

Wherein the image segmentation step displays the first partial image group on the display such that the partial image located at the bottom of the first partial image group is positioned below the position at which the first transformed image was displayed Can be displayed.

In this case, the image modifying step may include at least one or more partial images between the upper reference line and the lower reference line based on the partial image positioned below the lower reference line of the first partial image group, And generate at least one or more of the variable partial images.

Further, the degree of extension or contraction of the partial image may be determined according to the input of the user.

When the first transformed image is a human subject, the image segmenting step displays the upper baseline on the shoulder of the image of the person displayed on the first transformed image, and the lower baseline on the ankle And displaying the intermediate reference line on the pelvis region, dividing the first transformed image into four partial images with reference to the upper reference line, the lower reference line, and the intermediate reference line, One partial image group may be stored in the memory.

The image modifying step may include expanding or contracting the partial image between the upper reference line and the intermediate reference line and the partial image between the intermediate reference line and the lower reference line up and down at a predetermined ratio, And displaying a second partial image group composed of the two variable partial images and the partial image positioned below the lower baseline and the partial image positioned above the upper reference line among the first partial image group on the display can do.

In this case, the image modifying step may extend or contract the partial image between the intermediate reference line and the lower reference line at a greater rate than the partial image between the upper reference line and the lower reference line.

The image combining step may combine the four partial images constituting the second partial image group to generate the first variable image and display the first variable image on the display.

The image variable step may include a pixel detection step of detecting the number of vertical pixels of the first partial image group, a step of setting a maximum variable pixel amount in which the number of vertical pixels of some partial images in the first partial image group can be varied A step of standardizing an input value range of a user using the electronic device, a step of normalizing an input value range of the user using the electronic device, A variable pixel amount calculation step of applying the calculated variable pixel amount to the partial partial image so as to increase or decrease the number of vertical pixels of the partial partial image so as to generate at least one variable partial image A variable pixel amount applying step of generating at least one variable partial image The first can be a second partial image of the group consisting of 1 part of the image at least one of the partial images that do not stretch or shrinkage of the group comprising an output step of displaying on said display.

The maximum variable pixel amount setting step may calculate the maximum variable pixel amount by multiplying the number of vertical pixels of the first partial image by a predetermined ratio.

The image variable step may include a pixel detection step of detecting the number of vertical pixels of the partial image of the partial image of the first partial image group, a step of detecting a maximum variable pixel amount that sets the maximum variable pixel number An input value range normalization step of normalizing an input value range of a user using the electronic device, a variable pixel amount variable in which the number of vertical pixels of the partial image is variable is set by the user within the maximum variable pixel amount A variable pixel amount calculation step of calculating a variable pixel amount based on the inputted input value and applying the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image to generate at least one variable partial image A variable pixel amount application step of applying a variable pixel amount to at least one of the variable partial images, The group may be a second part of a group of images consisting of one image portion of at least one of the partial images that do not stretch or shrinkage of the group comprising an output step of displaying on said display.

In this case, the maximum variable pixel amount setting step may calculate the maximum variable pixel amount by multiplying the number of vertical pixels of the partial partial image by a predetermined ratio.

The variable pixel amount calculating step may calculate a variable pixel amount in which the number of vertical pixels of the partial partial image is varied by multiplying the maximum variable pixel amount by the input value input by the user.

The first variable image may be N-th order readjusted through the image segmentation step, the image variable step and the image synthesis step to become an (N + 1) th first variable image.

Here, the image synthesizing step may combine the second partial image group according to a user's input using the electronic device to generate the first variable image.

In this case, the image compositing step may include loading the original image and converting the original image into a bitmap image to generate a second transformed image, and transforming the second transformed image into the same transformed first modified image as the first transformed image And a second variable image is generated and stored in the electronic device.

The image storing step may include storing the second variable image in the electronic device by converting the second variable image into a file format that is the same as the original image or is not the same as the second variable image, Device.

The apparatus includes a display and a storage medium. The apparatus includes a loading unit for loading an original image, a conversion unit for converting the original image into a first converted image in a bitmap format, A display unit for displaying at least one reference line on the display and dividing the first converted image into a plurality of partial images with reference to the reference line, A partial image storage unit configured to store a partial image of the first partial image group in a predetermined ratio in a longitudinal direction of the partial image to store at least one variable partial image And at least one of the variable partial images A variable portion displaying on the display a second partial image group composed of at least one or more partial images of the first partial image group that have not been stretched or contracted, And displaying the first variable image on the display.

Here, the storage medium may store an image, and the image may be loaded by the loading unit to be the original image.

In this case, the image processing apparatus may further include a camera for photographing a subject to generate a photographed image, wherein the photographed image is stored in the storage medium and can be loaded by the loading section to become the original image.

Also, the converting unit may reduce or reduce the original image in the range of the resolution of the display, before the original image is converted into the first converted image, if the resolution of the original image exceeds the resolution of the display or below the predetermined resolution. And may further include a resolution determining unit.

The converting unit may further include a file type determining unit that determines the original image as the first converted image when the original image is in the bitmap format before converting the original image into the first converted image have.

Herein, the dividing unit may display the reference line so as to be parallel to the horizontal direction of the first transformed image, and may change the position of the reference line according to the input of the user, and may display the first transformed image.

In this case, when there are a plurality of the reference lines, the dividing unit may display the plurality of reference lines so as to be spaced apart from each other, and change the order according to the input of the user.

The plurality of reference lines may be an upper reference line and a lower reference line that divide the first transformed image into three partial images or further include N central reference lines between the upper reference line and the lower reference line, Can be divided into N + 3 partial images.

The division unit displays the first partial image group on the display so that the partial image positioned at the lowermost one of the first partial image groups is positioned below the position at which the first transformed image was displayed .

Here, the variable unit may extend or contract at least one or more of the partial images between the upper reference line and the lower reference line based on the partial image positioned below the lower reference line among the first partial image groups And may generate at least one or more of the variable partial images.

In this case, the degree of extension or contraction of the partial image may be determined according to a user's input.

The variable portion may include a pixel detection unit for detecting the number of vertical pixels of the first partial image group, a maximum variable pixel setting unit for setting a maximum variable pixel amount, An input value range normalizing unit for normalizing an input value range of a user using the electronic device, a variable pixel amount variable unit for changing the number of vertical pixels of the partial image to be input by the user in the maximum variable pixel amount, A variable pixel amount calculation unit for determining the number of vertical pixels of the partial image based on the inputted input value, and applying the calculated variable pixel amount to the partial image to increase or decrease the number of vertical pixels of the partial image, A variable pixel amount application unit, at least one variable portion image, And an output unit for displaying on the display a second partial image group composed of at least one or more of the partial images that are not stretched or contracted among the groups.

The variable unit includes a pixel detection unit for detecting the number of vertical pixels of a partial image of the first partial image group, a maximum variable pixel amount setting unit for setting a maximum variable pixel amount, An input value range normalization unit for normalizing an input value range of a user using the electronic device, a variable pixel amount variable unit for changing the number of vertical pixels of the partial image to a value input by the user within the maximum variable pixel amount, A variable pixel amount calculating unit for calculating a variable pixel amount based on the calculated variable pixel amount, and a variable pixel amount calculating unit for applying the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image, Amount application portion, at least one of the variable partial image and the first partial image It is possible to an output unit to display a second portion of the image group on the display consists of at least one of the partial image that is not stretched or contracted group.

 Here, the combining unit may combine the second partial image group according to an input of a user using the apparatus to generate the first variable image.

In this case, the compositing unit may load the original image and convert the original image into a bitmap image to generate a second transformed image, and convert the second transformed image into a first transformed image at a rate the same as that of the first transformed image And generating a second variable image and storing the second variable image in the storage medium.

When the second variable image is stored in the storage medium, the storage unit may convert the second variable image into a file format that is the same as the original image or is not the same as the second variable image, Can be stored.

And provide a non-volatile machine-readable storage medium having recorded thereon instructions for executing a method of resizing an image displayed on a display of the electronic device.

According to an embodiment of the present invention, there is provided a method of reconstructing an image of a human being, the method comprising: dividing the image into a plurality of partial images, It is possible to readjust the image by stretching or contracting a partial image except for the partial image so that the key is naturally increased or decreased according to the intention of the user without distortion.

In addition, when the image is stretched or shrunk, the maximum elongation and the maximum shrinkage amount can be set to prevent the image from being excessively stretched or contracted.

And, without professional knowledge, it is easy and easy to stretch or shrink the image and readjust it.

Figure 1 shows a flow diagram of an image reordering method according to an embodiment of the present invention.
Figure 2 illustrates the transformation of an original image in accordance with an embodiment of the present invention.
FIG. 3 illustrates size adjustment of an original image according to an embodiment of the present invention.
Fig. 4 shows a segmentation of a first transformed image according to one embodiment of the present invention.
Figure 5 shows a first transformed image divided into three or four by an indication of a baseline according to an embodiment of the invention.
6 illustrates generation of a second partial image group according to an embodiment of the present invention.
Figure 7 shows the generation of a second partial image group according to an embodiment of the invention in the output state of the display.
FIG. 8 illustrates generation of a second partial image group generated by stretching or contraction by adjusting an amount of extension or contraction according to a user's input in an image variable step according to an exemplary embodiment of the present invention.
FIG. 9 illustrates the generation of a second partial image group by detecting the number of vertical pixels of a first partial image group and setting a maximum variable amount according to an embodiment of the present invention.
FIG. 10 shows the generation of a second partial image group by detecting the number of vertical pixels of a partial partial image of a first partial image group according to an embodiment of the present invention and setting a maximum variable amount.
11 illustrates movement of a reference point according to the generation of a second partial image group according to an embodiment of the present invention.
12 illustrates generation of a first variable image according to an embodiment of the present invention.
13 shows a flowchart illustrating the generation of an N + 1 < th > order first variable image according to an embodiment of the present invention.
FIG. 14 shows a flowchart of an image synthesizing step including an image storing step according to an embodiment of the present invention.
15 shows a configuration of an image rebalancing apparatus according to an embodiment of the present invention.

While the present invention has been described with reference to exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the invention. It should be understood, however, that the invention is not to be limited to the specific embodiments, but includes all changes, equivalents, and alternatives falling within the spirit and scope of the invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS In the following description of the present invention, detailed description of related arts will be omitted when it is determined that the gist of the present invention may be unnecessarily blurred. In addition, numbers used in the description process of the present invention (e.g., first second, etc.) may be identifier signals for distinguishing one component from another.

Hereinafter, a copyright management system according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

Figure 1 shows a flow diagram of an image reordering method according to an embodiment of the present invention.

Referring to FIG. 1, an image resampling method 1000 includes an image loading step S100, an image conversion step S200, an image dividing step S300, an image variable step S400, and an image combining step S500 . However, an image reshaping method 1000 having the components shown in FIG. 1 or fewer components may be implemented.

In addition, the image re-sizing method 1000 may be implemented in electronic devices such as smart phones, computers, and tablet PCs. However, the present invention is not limited to the above-mentioned electronic device, and any device capable of outputting an image and realizing the image re-adjustment method and realigning the image can be used.

First, referring to the image loading step S100, the image loading step S100 may load an original image in the electronic device. In the image re-adjustment method 1000 according to the present invention, the " loading "is a method of transferring necessary data from the auxiliary storage device or the input device to the main storage device, The original image is defined as being called so that the image re-adjustment method can be performed.

Here, the original image loaded on the electronic device may be an image previously stored in the electronic device or an image generated by a camera provided in the electronic device.

Subsequently, the loaded original image may be converted into a first converted image in a bitmap format, stored in a memory, and output to a display (S200).

Figure 2 illustrates the transformation of an original image in accordance with an embodiment of the present invention.

The image conversion step S200 may convert the loaded original image 10 into a first converted image 20 of bitmap format. Also, the first converted image 20 can be stored in a memory provided in the electronic device and displayed on the display 2 of the electronic device. Referring to FIG. 2, the original image 10 is converted into a first converted image 20 and displayed in the display area of the display 2. In the image re-adjustment method 1000 according to the present invention, the memory is an internal memory device provided in the electronic device and is directly controlled by the electronic device. In the image re-adjustment method 1000 according to the present invention, All records can be saved.

Here, the display 2 may output all kinds of digital images including the original image 10 and the first converted image 20 output from the electronic device. In the image reshaping method 1000 according to an exemplary embodiment of the present invention, the display 2 may be implemented as a touch panel or a touch screen that can be selected simultaneously with an output function. For example, when the display unit 2 and the sensor for sensing the touch operation input by the user have a mutual layer structure, the display 2 may be used as an input device in addition to the output device. In the image re-adjustment method according to the present invention, the display (2) has a function of concurrently outputting and inputting.

Also, the image conversion step S200 may determine the resolution of the original image 10 before converting the original image 10 into the first converted image 20, and determine the size of the original image 10 (S205).

FIG. 3 illustrates size adjustment of an original image according to an embodiment of the present invention.

Referring to FIG. 3, the image conversion step S200 may convert the resolution of the original image 10 to a resolution of the display 2 before converting the original image 10 to the first converted image 20. [ (S205) of determining whether the original image (10) is greater than or equal to the resolution of the display (2) When the image 20 is not normally output in the display area of the display 2, the size of the original image 10 is reduced within the resolution range of the display 2, So that the display 2 can be normally output. When the resolution of the original image 10 is less than a predetermined resolution or when the first converted image 20 in which the original image 10 has been converted is not normal in the display 2, May be enlarged within the resolution range of the display 2 to enable the first converted image 20 to be recognized as normal on the display 2. [

In addition, the image conversion step S200 may further include a file type determination step S206 before converting the original image 10 into the first converted image 20. For example, the file type determination step S206 determines the file format of the original image 10 and determines to use the original image 10 as the first converted image 20 in the bitmap format , And if the file format of the original image 10 is not a bitmap format, it may be determined to convert the original image 10 into a bitmap format.

Next, the first transformed image 20 may be divided into a plurality of partial images along the reference line (S300).

Fig. 4 shows a segmentation of a first transformed image according to one embodiment of the present invention.

Referring to FIG. 4, the image segmentation step S300 may display at least one reference line f1 to f3 on the display 2 on which the first transformed image 20 is output, The first converted image 20 is divided into a plurality of partial images i1 to i4 on the basis of the reference lines f1 to f3 by touching and selecting the reference line determination indication 120 displayed on the display 2 , And the plurality of partial images (i1 to i4) may constitute a first partial image group (30).

The reference lines f1 to f3 may be displayed on the display 2 including a reference line adjustment indication 110 in part. The reference lines f1 to f3 are displayed so as to be parallel to the horizontal direction of the first transformed image 20 output to the display 2. The plurality of reference lines f1 to f3 are displayed apart from each other, And may be displayed by changing the position according to a user's input using the electronic device. 4A and 4B, the user drags the reference line adjustment indication 110 included in each of the plurality of reference lines f1 to f3, The positions of the plurality of reference lines f1 to f3 can be determined.

For example, if the first transformed image 20 includes a human image as shown in FIG. 4 (b), the user places the reference line f1 on the neck, which is the boundary between the head and the chest, (f2) may be disposed on the pelvis, which is the boundary between the chest and the lower body, and the reference line (f3) may be disposed on the ankle, which is the boundary between the leg and the foot.

Accordingly, in the image segmentation step, the first transformed image 20 is divided into four partial images, i.e., the partial image i1 representing the head, with reference to the reference lines f1, f2, and f3 as shown in FIG. A partial image i2 representing an upper body, a partial image i3 representing a leg, and a partial image i4 representing a foot. In the image variable step, only the partial image i2 for displaying the upper body and the partial image i3 for displaying the leg are stretched or contracted, so that the effect that the height of the person who is the subject becomes natural can be obtained. This will be described later.

Also, the plurality of reference lines f1 to f3 can be displayed by changing the order thereof by the user's input. For example, the plurality of the reference lines f1 to f3 can be divided into an upper reference line f1, an intermediate reference line f2 and an lower reference line f3, and the upper reference line f1, the middle reference line f2, The lower reference line f3 displayed at the lowermost end of the lower reference line f3 may be formed by dragging the reference line adjustment indication 110 included in the lower reference line f3 toward the upper side of the display 2, The upper reference line f1 positioned at the uppermost position of the upper reference line f1.

Here, in the image segmenting step S300, the first partial image group 30 may be stored in the memory and displayed on the display 2. [

The plurality of partial images i1 to i4 constituting the first partial image group 30 may be output to the display 2 respectively, It can be recognized that they are displayed as if they are combined. Referring to FIG. 4, the image segmenting step S300 includes dividing the first transformed image 20 to generate the plurality of partial images i1 to i4 to construct the first partial image group 30 , The first partial image group 30 may be stored in the memory (FIG. 4C), and the first partial image group 30 may be displayed on the display area of the display 2 as if the first partial image group 30 were combined (Fig. 4 (d)). However, the first partial image group 30 displayed on the display 2 is displayed with each of the plurality of partial images i1 to i4 constituting the first partial image group 30, The one partial image group 30 may be recognized as a combined one without recognizing that it is composed of the plurality of partial images i1 to i4 that are divided. This may be considering the convenience of the user and the ease of editing.

In addition, the image segmenting step S300 may display the first partial image group 30 on the display 2 so that the first transformed image 20 is positioned below the displayed position have. Referring to FIGS. 4 (b) to 4 (d), when the user touches the baseline confirmation display 120 displayed on the display 2, the first transformed image 20 is divided The lower end of the partial image i4 located at the lowermost one of the first partial image groups 30 is the partial image group 30 with the first converted image 20 displayed on the display 2 (Fig. 4 (d)) than the position that has been displayed on the screen (Fig.

As such, the first partial image group 30 is displayed on the display 2 further below the position at which the first transformed image 20 is displayed, so that the first partial image group 30 is more As a result, the space in which the partial image is stretched can be ensured.

4 (b) and 4 (d), the lowermost end of the first converted image 20 displayed on the display 2 corresponds to the lowermost end of the display area 2 and g1 And the uppermost end may be located at an interval of g2 from the uppermost end of the display area of the display 2. [ Here, if the user clicks the base line confirmation display 120 and the first converted image 20 is divided and the first partial image group 30 is displayed on the display 2, The group 30 may be displayed by moving the distance down by a distance g than the first transformed image 20 was displayed on the display 2. [ Therefore, the lowermost end of the first partial image group 30 may be spaced apart from the lowermost end of the display area 2 by g1-g, The first partial image group 30 may be positioned at an interval of g1 + g from the uppermost end of the display area of the display 2, and the lowermost end of the first partial image group 30 may be fixed at a position shifted from the display 2. [

Thus, since the first partial image group 30 can secure more free space of distance g from the display 2 than the first converted image 20, S400) is displayed on the display (2) when the first partial image group (30) is extended or contracted, the first partial image group (30) It can be contracted and displayed. A detailed description thereof will be given later.

The image segmentation step S300 may display two or four reference lines f1 to f3 on the display 2 to divide the first transformed image 20 into three or five reference lines f1 to f3, The partial image group 30 can be constructed.

Figure 5 shows a first transformed image divided into three or four by an indication of a baseline according to an embodiment of the invention.

5A, the image segmenting step S300 displays the upper reference line f1 and the lower reference line f3 on the display 2 on which the first transformed image 20 is outputted The first transformed image 20 is divided into three and a first partial image group (i'1) composed of a first partial image i'1, a second partial image i'2 and a third partial image i'3 30). 5A, if the first transformed image 20 is a human, the upper reference line f1 may be located at the neck between the head and the upper body, and the lower reference line f3 (I'1) comprises an image of a head part of a person, and the second partial image (i'2) is a part of a human's ankle And the third partial image (i'3) may include an image of a human ankle portion.

5B, two intermediate reference lines f2 are provided between the upper reference line f1 and the lower reference line f3, The transformed image 20 is divided into five parts and the first partial image i'1, the second partial image i'2, the third partial image i'3, the fourth partial image i'4, It is possible to generate a first partial image group 30 composed of a fifth partial image i'5. In one example, if the first converted image 20 is a person, as shown in Fig. 5 (c) The upper reference line f1 may be located at the neck between the head and the upper body and one of the two intermediate reference lines f2 may be located at the lower pelvis region of the upper body and the lower body, And the lower reference line f4 may be located at the ankle region which is the boundary between the lower body and the foot. Accordingly, the first partial image i "1 ) Includes an image of the head portion of a person, a second partial image i "2 comprises an image of a human upper body portion, and a third partial image i" 3 includes an image of a human thigh portion , And the fourth partial image (i '' 4) may include an image of a calf portion of a person, and the fifth partial image (i '' 5) may include an image of a human ankle portion.

Here, the number of the reference lines f1 to f3 displayed on the display 2 is not limited to two to four as described above, and may be further included if necessary. For example, the image segmentation step S300 may generate N first reference image lines 30 on the display 2 to divide the first transformed image 20 into N + 1 pieces can do.

Next, the image variable step S400 may extend or retract a part of the first partial image group 30.

Hereinafter, the generation of the second partial image group in which a part of the first partial image group 30 is extended or contracted can be examined with reference to FIGS.

6 illustrates generation of a second partial image group according to an embodiment of the present invention.

6, the first partial image group 30 may be composed of the plurality of partial images i1 to i4, and the image variable step S400 may include the first partial image group 30, (S2, s3) by stretching or contracting the height of some partial images (i2, i3) by a predetermined ratio in the longitudinal direction of the first transformed image (20) to generate at least one or more variable partial images A second partial image group 35 consisting of variable partial images s2 and s3 and at least one or more partial images i1 and i4 of the first partial image group 30 which have not been stretched or contracted, Can be displayed.

For example, as shown in Fig. 6 (a), the first transformed image 20 including an image of a person is displayed on the basis of the three reference lines f1 to f3, when the first partial image group 30 is divided into the partial image i1, the partial image i2 representing the upper body, the partial image i3 representing the leg, and the partial image i4 representing the foot, The image variable step S400 may generate the variable partial images s3 and s4 by extending or contracting the partial image i2 representing the upper body and the partial image i3 representing the leg at a predetermined ratio , And the variable portion image (s3, s4) can constitute the second partial image group (35) together with the unvaried remaining partial image (i1, i4).

6 (a) and 6 (b), a partial image (i2) representing the upper body having the vertical length value of h2 and a partial image (i2) representing the lower side having the vertical length value of h3 i3 can generate a variable partial image s2 extending up and down by the length of p1 and p2 respectively and having a vertical length value of h2 + p1 and a variable partial image s3 having the vertical length value of h3 + p2 , The generated variable partial images s2 and s3 constitute the second partial image group 35 together with the unmodified partial images i1 and i4 of the first partial image group 30, 2). ≪ / RTI >

6 (a) and 6 (c), a partial image (i2) indicating the upper body having the vertical length value of h2 and a partial image The image i3 is contracted up and down by the length of p1 and p2, respectively, to obtain a variable partial image s'2 having a vertical length value of h2-p1 and a variable partial image s'3 having a vertical length value of h3- ), And the generated variable partial images (s'2, s'3) may be generated with the unmodified partial images (i1, i4) of the first partial image group (30) A group 35 may be formed and displayed on the display 2. [

In the image variable step S400, the first partial image group 30 whose lower portion is fixed on the display 2 is extended or contracted in the up-down direction on the basis of the fixed point in accordance with the input of the user And display the generated second partial image group (35) on the display (2).

Figure 7 shows the generation of a second partial image group according to an embodiment of the invention in the output state of the display.

6 and 7, the user drags the variable adjustment display 135 displayed on the display 2 in the vertical direction of the display 2 to display a part of the first partial image 30 The image (i2, i3) can be stretched or contracted. The variable adjustment indicator 135 moves up and down on the variable bar 130 positioned in the vertical direction on the display 2 according to the drag of the user and the ratio of the upward and downward movement of the variable adjustment indicator 135 , Some of the partial images (i2, i3) of the first partial image group (30) may be stretched or contracted depending on the size of the image.

For example, the user may drag the variable adjustment indicator 135 displayed on the display 2 towards the upper side of the display 2 to see some partial images i2, (Fig. 7 (b)) on the display 2, and the variable adjustment display 135 can be displayed on the display 2 The second partial image group 35 (Fig. 6 (c)) generated by contracting the partial images i2, i3 of the first partial image group 30 by dragging in the lower direction of the display 2, Can be displayed on the display 2 (Fig. 7 (c)).

In the image variable step S400, the first partial image group 30 is displayed as if the lower part of the first partial image group 30 fixed on the display 2 is fixed and the upper part is stretched or contracted in the vertical direction (I2 and i3) of the first partial image group 30 are stretched or contracted in the vertical direction, instead of the first partial image group 30 having the upper portion stretched or contracted to be varied In the display 2, the upper portion of the first partial image group 30 may be extended or contracted in the vertical direction in consideration of the convenience of the user and easiness of editing.

Accordingly, when the image variable step S400 is performed to generate the second partial image group 35 by extending or contracting a part of the first partial image group 30, The display 2 stores the variable partial images s2 and s3 by stretching or contracting the partial images i2 and i3 up and down to generate variable partial images s2 and s3, And a partial image i2 and i3 located between the partial image i4 located at the lowermost one of the first partial image groups 30 and the partial image i1 located at the uppermost one are fixed The first partial image group 30 can naturally be extended or contracted in the vertical direction of the display 2 as the variable partial images s2 and s3 are changed.

As an example, when the subject of the first conversion image is a person, the partial image i1 is the image of the face part, the partial image i2 is the image of the upper body part, and the partial image i3 is the image of the lower body part And the partial images i1 and i4 of the face part and the foot part are not elongated or contracted and only the partial images i2 and i3 indicating the upper body and the lower body are extended, Or shrinking to become the variable part images s2 and s3, the partial image i4 of the foot part is fixed, the upper part and the lower part are fixed to the variable adjustment indication 135 of the user without fixing the foot part, The image of a person who is a subject is displayed on the display 2 without distortion of the face portion and is naturally increased or decreased according to the intention of the user 2). ≪ / RTI >

The image variable step S400 may adjust the amount of extension or contraction of a part of the first partial image group 30 according to the input of the user.

FIG. 8 illustrates generation of a second partial image group generated by stretching or contraction by adjusting an amount of extension or contraction according to a user's input in an image variable step according to an exemplary embodiment of the present invention.

8, the first partial image group 30 (FIG. 8 (a)) displayed on the display 2 can be expanded or contracted by the user by dragging the variable adjustment indicator 130, The elongation amount or the shrinkage amount is determined according to the amount of elongation or contraction. 8A to 8D, the user drags the variable adjustment display 130 displayed on the display 2 in an upward direction to move a part of the first partial image group 30 The second partial image group 35 can be generated as the second partial image group 35 is extended and the more the amount of dragging upward is, the more extended the second partial image group 35 is. 8 (a) and 8 (e), the user drags the variable adjustment indicator 130 downward to retract a portion of the first partial image group 30, To generate an image group 35. FIG. In this case, the amount of shrinkage may be determined according to the amount by which the user drags the variable adjustment indicator 130 downward, as in the case of extending a portion of the first partial image group 30. [

Specifically, the image variable step S400 includes a pixel detection step S410, a maximum variable pixel amount setting step S420, an input value range normalization step S430, a variable pixel amount calculation step S440, A step S450 and an output step S460.

9 illustrates the generation of a second partial image group by detecting the number of vertical pixels of a first partial image group and setting a maximum variable pixel amount according to an embodiment of the present invention.

Referring to FIGS. 1 and 9, the pixel detection step S410 may include detecting the number of vertical pixels z1, i2, i3, and i4 of the plurality of partial images i1, i2, i3, and i4 constituting the first partial image group 30, z2, z3, z4) of the first partial image group 30 are detected and the sum of them is obtained. As an example, when the first transformed image 20 includes a human image, the first partial image group 30 includes an image i1 of the face portion, an image i2 of the upper body portion, (i3) of the face part, and the image (i4) of the foot part, and the length (i1) of the image part (i1) of the face part, the image (i2) (Z) of the first partial image group 30 by grasping the sum of the number of pixels z1, z2, z3, and z4.

Next, the maximum variable pixel amount setting step S420 sets the maximum variable pixel amount Z2, z3 of the partial images i2, i3 of the first partial image group 30 to the maximum variable pixel amount z2, (m) may be set to a predetermined ratio of the number of vertical pixels (z) of the first partial image group (30). That is, the maximum variable pixel amount m can be calculated by multiplying the number z of vertical pixels of the first partial image group 30 detected in the pixel detection step S410 by a predetermined ratio.

As an example, if the first transformed image 20 is a human and the first partial image group 30 is an image i1 of the facial part, an image i2 of the upper part, an image i3 of the lower part, (Z) of the first partial image group 30 is 1000 pixels, and if the preset predetermined ratio is 10%, the maximum variable pixel amount setting step S420 ) May be calculated by multiplying 1000 pixels, which is the number of vertical pixels (z) of the first partial image group 30, by 10%, which is a predetermined ratio set in advance, to 100 pixels, which is the maximum variable pixel amount (m).

The calculated maximum variable pixel amount m may correspond to a maximum number of pixels in which the image i2 of the upper body part and the image i3 of the lower body part may vertically increase. For example, when the image i2 of the upper body part and the vertical pixel of the image i3 of the lower body part are 200 pixels and the maximum variable pixel amount m is 100 pixels as described above, the image of the upper body part (i2) and the vertical pixel of the image (i3) of the lower body part can be increased up to 300 pixels.

Next, the input value range normalization step (S430) may standardize a range of input values of a user using the electronic device.

The input value of the user may be input by dragging the variable adjustment indicator 135 displayed on the display 2 up and down on the variable bar 130. The variable adjustment indicator 135 may be input to the variable bar 130 ) May be the range of the input value. For example, when the input value range is 0 to 10, the numerical values in the input value range represent positive sign (+) except for 0, and positive sign (+) in the input value range. The numerical value can increase the number of vertical pixels (z2, z3) of the partial images (i2, i3). If a certain number is subtracted from the input value range to include a minus sign (-), any one value except for 0 in the input value is the number of vertical pixels (z2 (i2), i2 , z3) can be increased or decreased. That is, if 2 is subtracted from the input value range of 0 to 10, the input value range is -2 to 8. When the variable adjustment indicator 135 moves to the lowermost position on the variable bar 130, May be -2 and the input value may be 8 when moved to the top. Thus, when the input value indicates a positive sign (+) within the input value range, the number of vertical pixels (z2, z3) of the partial images i2, i3 may increase, (Z2, z3) of the partial images (i2, i3) may decrease when the input value is 0, and when the input value is 0, the partial images (i2, i3 may be a state in which the number of vertical pixels (z2, z3) does not increase or decrease.

The input value range can be standardized. As an example, when the input value range is -2 to 8, the input value range may be divided by 8, which is the maximum value of the input value range, to calculate a standardized input value range of -0.25 to 1.

Wherein the normalized input value detected within the standardized input value range is multiplied by the maximum variable pixel amount m to obtain a variable value where the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases The pixel amount can be calculated. As an example, when the maximum variable pixel amount m is 100 pixels and the standardized input value range is -0.25 to 1, the number of vertical pixels z2, z3 of the partial images i2, i3 increases The range of the variable pixel amount may be 100 to -25 pixels, and the value obtained by multiplying the standardized input value determined by dragging the variable adjustment indicator 135 by the user and the maximum variable pixel amount m And may be the variable pixel amount. The detailed description will be given in the following variable-pixel-amount calculating step S440.

The variable pixel amount calculation step S440 may calculate a variable pixel amount in which the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases according to the standardized input value of the user . For example, if the maximum variable pixel amount m is 100 pixels and the standardized input value range is -0.25 to 1, and the user drags the variable adjustment indicator 135 upward, 0.9, a value 90 obtained by multiplying the maximum variable pixel amount m by the standardized input value 0.9 is a number of pixels in which the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases Can be calculated. Also, when the user drags the variable adjustment indicator 135 downward and the standardized input value becomes -0.1, the maximum variable pixel amount m is multiplied by the normalized input value -0.1. 10 can be calculated as the number of pixels in which the number of vertical pixels (z2, z3) of the partial images (i2, i3) decreases.

The variable pixel amount applying step S450 then applies the variable pixel amount calculated in the variable pixel amount calculating step S440 to the partial partial images i2 and i3 to calculate the partial partial images i2, (s2, s3) by increasing or decreasing the number of vertical pixels (z2, z3) of the variable partial images (i2, i3). When the variable pixel amount calculated in the variable pixel amount calculation step S440 is 90 pixels, the variable pixel amount application step S450 may calculate the number of vertical pixels z2 and i3 of the partial images i2 and i3, z3) by 90 pixels. Here, the number of vertical pixels (z2, z3) of the partial images (i2, i3) may be increased or decreased at different ratios according to a predetermined ratio in the variable pixel amount. As an example, the number of vertical pixels (z2) of the partial image (i2) and the number of vertical pixels (z3) of the partial image (i3) may increase by a ratio of 30%: 70% The vertical pixel number z2 of the partial image i2 is increased by 27 pixels to generate the variable partial image s2 and the vertical pixel number z3 of the partial image i3 is 63 pixels To generate the variable partial image s3.

Subsequently, the outputting step S460 is performed in such a manner that at least one of the variable partial images s2 and s3 generated in the variable pixel amount applying step S450 and at least one of the variable partial images s2 and s3, And display a second group of partial images consisting of one or more of the partial images (i1, i4) on the display. As an example, if the number of vertical pixels of the first partial image group 30 is 1000 pixels and the number of vertical pixels (z2, z3) of the partial images i2, i3 is increased by 90 pixels, the variable partial images s2 and s3 together with the unmodified partial images i1 and i4 of the first partial image group 30 are used to generate the second partial image group 35 And can be displayed on the display 2. At this time, the second partial image group 35 may have a vertical pixel number of 1090 pixels by increasing the number of vertical pixels by 90 pixels from the first partial image group 30. [

The image variable step S400 detects the entire number z of the vertical pixels of the first partial image 30 in the pixel detection step S410 and the maximum variable pixel amount setting step S420, (I2, i3) by setting a maximum variable pixel amount (m) at a predetermined ratio in the number of vertical pixels (z) of one partial image group (30) In another embodiment of the image variable step S400 according to the present invention, the pixel detection step S410 detects only the number of vertical pixels z2 and z3 of the partial partial images i2 and i3 varying, The variable pixel amount setting step S420 may set the maximum increase amount m or the maximum reduction amount at a predetermined ratio from the sum of the number of vertical pixels z2 and z3 of the partial images i2 and i3, The increase or decrease amount of the number of vertical pixels (z2, z3) of the partial images (i2, i3) You can quickly calculate Innovation and can increase the accuracy.

FIG. 10 illustrates the generation of a second partial image group by detecting the number of vertical pixels of a partial partial image of the first partial image group according to an embodiment of the present invention and setting the maximum variable pixel amount.

Referring to FIGS. 1 and 10, the pixel detection step S410 may include detecting the number of vertical pixels (z2) of the partial partial image (i2) of the first partial image group (30) (Z2, z3) of the partial partial images (i2, i3) varying among the first partial image groups (30) can be obtained by detecting each of the vertical pixel numbers (z3) As an example, when the first transformed image 20 includes a human image, the first partial image group 30 includes an image i1 of the face portion, an image i2 of the upper body portion, (i3) and the image of the foot portion (i4), and the sum of the vertical pixel number (z2, z3) of the image (i2) of the upper body portion and the image (i3) of the lower body portion, The number of vertical pixels z of the images i2 and i3 can be grasped.

Next, the maximum variable pixel amount setting step S420 sets the maximum variable pixel amount m at which the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases, , i3) of the vertical pixels (z). That is, the maximum variable pixel amount m can be calculated by multiplying the number (z) of vertical pixels of the partial partial images (i2, i3) detected in the pixel detection step (S410) by a predetermined ratio.

As an example, if the first transformed image 20 is a human and the first partial image group 30 is an image i1 of the facial part, an image i2 of the upper part, an image i3 of the lower part, (I4), and when the number of vertical pixels (z) of the partial images (i2, i3) is 500 pixels and the preset predetermined ratio is 10%, the maximum variable pixel amount setting step S420 ) May calculate 50 pixels, which is the maximum variable pixel amount (m), by multiplying 500 pixels, which is the number of vertical pixels (z) of the partial images (i2, i3), by 10%, which is a predetermined ratio set in advance.

The calculated maximum variable pixel amount m may correspond to a maximum number of pixels in which the image i2 of the upper body part and the image i3 of the lower body part may vertically increase. For example, when the image i2 of the upper body part and the vertical pixel of the image i3 of the lower body part are 500 pixels and the maximum variable pixel amount m is 50 pixels as described above, the upper body part image i2) and the vertical pixel of the lower body part image (i3) can increase up to 550 pixels.

Next, the input value range normalization step (S430) may standardize the input value range of the user using the electronic device. The input value of the user may be displayed on the display (2) A range in which the variable adjustment indicator 135 can be dragged up and down of the variable bar 130 is within a range of the input value . For example, when the input value range is 0 to 10, the numerical values in the input value range represent positive sign (+) except for 0, and positive sign (+) in the input value range. The numerical value can increase the number of vertical pixels (z2, z3) of the partial images (i2, i3). If a certain number is subtracted from the input value range to include a minus sign (-), any one value except for 0 in the input value is the number of vertical pixels (z2 (i2), i2 , z3) can be increased or decreased. That is, if 2 is subtracted from the input value range of 0 to 10, the input value range is -2 to 8. When the variable adjustment indicator 135 moves to the lowermost position on the variable bar 130, May be -2 and the input value may be 8 when moved to the top. Thus, when the input value indicates a positive sign (+) within the input value range, the number of vertical pixels (z2, z3) of the partial images i2, i3 may increase, (Z2, z3) of the partial images (i2, i3) may decrease when the input value is 0, and when the input value is 0, the partial images (i2, i3 may be a state in which the number of vertical pixels (z2, z3) does not increase or decrease.

The input value range can be normalized by converting the numerical value. For example, when the input value range is -2 to 8, the input value range may be divided by the maximum value 8 of the input value range to calculate -0.25 to 1, which is a standardized input value range. The standardized input value detected within a range of input values obtained by multiplying the variable pixel amount m by the vertical pixel number z2 and z3 of the partial images i2 and i3 multiplied by the maximum variable pixel amount m Can be calculated. As an example, when the maximum variable pixel amount m is 50 pixels and the standardized input value range is -0.25 to 1, the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases The range of the variable pixel amount may be from 50 to -12.5 pixels. If the user multiplies the standardized input determined by dragging the variable adjustment indicator 135 by the maximum variable pixel amount m, It may be a normalized value of the input value of the user. The detailed description will be given in the following variable-pixel-amount calculating step S440.

The variable pixel amount calculation step S440 may calculate a variable pixel amount in which the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases according to the standardized input value of the user . For example, when the maximum variable pixel amount m is 50 pixels and the standardized input value range is -0.25 to 1, the user drags the variable adjustment indicator 135 upward, 0.9, a value 45 obtained by multiplying the maximum variable pixel amount m by the standardized input value 0.9 is used as the number of pixels in which the vertical pixel number z2, z3 of the partial image i2, i3 increases Can be calculated. Also, when the user drags the variable adjustment indicator 135 downward and the standardized input value becomes -0.1, the maximum variable pixel amount m is multiplied by the normalized input value -0.1. 5 can be calculated by the number of pixels in which the number of vertical pixels (z2, z3) of the partial images (i2, i3) decreases.

The variable pixel amount applying step S450 then applies the variable pixel amount calculated in the variable pixel amount calculating step S440 to the partial partial images i2 and i3 to calculate the partial partial images i2, (s2, s3) by increasing or decreasing the number of vertical pixels (z2, z3) of the variable partial images (i2, i3). For example, when the variable pixel amount calculated in the variable pixel amount calculation step S440 is 45 pixels, the variable pixel amount application step S450 may calculate the number of vertical pixels z2 and i3 of the partial images i2 and i3, z3) by 45 pixels. Here, the number of vertical pixels (z2, z3) of the partial images (i2, i3) may be increased or decreased at different ratios according to a predetermined ratio in the variable pixel amount. As an example, the number of vertical pixels (z2) of the partial image (i2) and the number of vertical pixels (z3) of the partial image (i3) may increase by a ratio of 30%: 70% The vertical pixel number z2 of the partial image i2 is increased by 13.5 pixels to generate the variable partial image s2 and the vertical pixel number z3 of the partial image i3 is 31.5 pixels To generate the variable partial image s3.

Subsequently, the outputting step S460 is performed in such a manner that at least one of the variable partial images s2 and s3 generated in the variable pixel amount applying step S450 and at least one of the variable partial images s2 and s3, And display a second group of partial images consisting of one or more of the partial images (i1, i4) on the display. As an example, the number of vertical pixels (z) of the partial partial images (i2, i3) is 500 pixels and the number of vertical pixels (z2, z3) of the partial partial images (i2, i3) When the variable partial images s2 and s3 are generated, the variable partial images s2 and s3 are combined with the unmodified partial images i1 and i4 of the first partial image group 30, (35) and displayed on the display (2). At this time, the second partial image group 35 may have the number of pixels increased by 45 pixels than the first partial image group 30 by the number of vertical pixels.

The above-described image variable step S400 is performed when the partial image i2, i3 of the first partial image group 30 is varied to generate the second partial image group 30, By setting the amount m to be a limit, it is possible to prevent it from being excessively stretched or shrunk.

In the above, embodiments of the image variable step S400 according to the embodiment of the present invention have been described. The present invention is applicable to an image in which a subject is displayed, but when the subject of the image is a person, since the body ratio of a human body generally has a longer lower body than the upper body, the partial image i2 represents a human upper body, If the partial image i3 is an image representing a lower body of a person, the image variable step S400 may include a step of displaying the partial image i3 representing the lower body of the person as a larger image i2 representing the upper body of the person The ratio can be varied. Therefore, it is possible to obtain the effect that the height of a human being as a subject naturally increases or decreases by varying at a rate similar to a body proportion of a general person.

In one embodiment of the present invention, the first partial image group 30 outputted to the display 2 can be set as a reference point of any one of the first partial image groups 30, When a portion of the image group 30 is stretched or contracted and the second partial image group 35 is displayed on the display 2 so that one point of the first partial image group 30 has moved upward or downward , The reference point may also be set as a reference point by moving a point corresponding to the movement of the first partial image group 30 and displaying one point displayed on the second partial image group 35.

11 illustrates movement of a reference point according to the generation of a second partial image group according to an embodiment of the present invention.

11, a first partial image group 30 having a vertical height of h outputted to the display 2 can be set as a reference point at a left upper end, and the reference point is displayed on the display 2 (0, 0). Therefore, the lower left end of the first partial image group 30 has coordinates (0, h). If the first partial image group 30 is extended upward by a distance of p in the image variable step S400 to generate the second partial image group 35, the reference point is also shifted upward by a distance of p 0, -p), and the lower left coordinates of the first partial image group 30 are fixed when the plurality of partial images 30 are varied, so that the coordinate values of (0, h) . Here, when the p value, which is a value obtained by moving the first partial image group 30 in the second partial image group 35, is added, the reference point of the second partial image group 35 becomes (0, 0) The coordinate value on the lower left can be (0,0 + h + p).

The aforementioned reference point change does not apply to the first partial image group 30 stored in the memory and can be applied only to the first partial image group 30 displayed on the display 2. [ When the second partial image group 35 is displayed due to elongation or contraction of a part of the first partial image group 30 on the display 2, the reference point change is changed as described above, The other partial images i2, i3, and i4 disposed on the partial image i4 in a state in which the partial image i4 disposed at the lowermost end of the partial image group 30 are fixed are stretched or contracted in the longitudinal direction thereof It is possible to provide an effect that an image of a person, which is a subject, is naturally displayed such that the height thereof becomes larger or smaller.

Next, the second partial image group 35 may combine to form one image (S500).

12 illustrates generation of a first variable image according to an embodiment of the present invention.

In the image synthesis step S500, when the user touches the confirmation mark 140 displayed on the display 2, the second partial image group 35 is combined to generate one first variable image 40 And display it on the display 2.

12, when the user touches the check mark 140 displayed on the display 2, the image combining step S500 combines the second partial image group 35 to generate the first variable image (40) on the display (2), displaying the first variable image (40) on the display (2) and displaying the first variable image on the display (2) The plurality of reference lines f1 to f3 that have been displayed can be displayed.

The plurality of reference lines f1 to f3 displayed on the display 2 on which the first variable image 40 is displayed may further divide the first variable image 40. [

Also, the first variable image 40 may be stretched or contracted again.

13 shows a flowchart illustrating the generation of an N + 1 < th > order first variable image according to an embodiment of the present invention.

Referring to FIG. 13, the first variable image 40 is obtained by N-th order repetition of the image segmentation step S300, the image variable step S400, and the image synthesis step S500, It can be an image.

Herein, the first variable image 40 is generated in the image synthesis step S500, and the image synthesis step S500 further includes an image storage step S550.

FIG. 14 shows a flowchart of an image synthesizing step including an image storing step according to an embodiment of the present invention.

The image synthesis step S500 may include combining the second partial image group 35 to generate a first variable image 40 and then converting the original image 20 into a bitmap image, And generates a transformed image 21 by applying a variable rate to the second transformed image 21 from the first transformed image 20 until the first variable transformed image 40 is generated, And the image storing step S550 of creating and storing the two variable images 41 in the electronic device.

The image storage step (S550) may load the original image (10) from the electronic device and convert the original image (10) into bitmap format to generate a second converted image (21). The second variable image 41 may be obtained by varying the second converted image 21 by applying the same variable rate from the first converted image 20 until the first variable image 40 is generated, Lt; / RTI >

Referring to FIG. 14, the image storing step S550 includes dividing the second transformed image 21 at the same ratio as that of the first transformed image 20 in the image dividing step S300, And generates the second transformed image 31 and transforms the divided second transformed image 31 at the same rate as that of the first partial image group 30 in the image variable step S400 Generate a portion of the second modified image 36 and combine the segmented and partially modified second converted image 36 to generate and store the second variable image 41 in the electronic device.

In addition, when the second variable image 41 is stored in the storage device, the image storing step S550 may convert the second variable image 41 into the same file format as the original image 10, have. For example, if the file format of the original image 10 is not a bitmap format, the image storage step S550 may load the original image 10 and convert the original image 10 into a bitmap format, Lt; / RTI > Since the second transformed image 21 generates the second variable image 41 through the image storing step S550, the second variable image 41 may also be in a bitmap format. Accordingly, the image storing step S550 may generate the final image 50 in which the second variable image 41 is converted into the same file format as the original image 10, and store the final image 50 in the electronic device.

In addition, the image storing step S550 may store the final image 50 in which the second variable image 41 is converted into a file format that is not the same as the original image 10, in the electronic device.

The method for reshaping image 1000 according to the present invention has been described above. The image reordering method according to the embodiment of the present invention described above can be executed by an application installed in the electronic device (which may include a program included in a platform or an operating system basically installed in the terminal) May be executed by an application (i.e., a program) installed directly on the terminal via an application providing server such as an application store server, an application, or a web server associated with the service. In this regard, an image re-sizing method 1000 according to an embodiment of the present invention described above may be recorded in a non-volatile machine-readable storage medium having stored thereon instructions for executing the image re-sizing method 1000. [

Hereinafter, an image rebalancing apparatus capable of implementing the image re-adjustment method 1000 according to the present invention will be described.

The image rebalancing apparatus according to the present invention can be described with reference to FIGS. 1 to 14, which are referred to in the description of the image rebalancing method 1000 according to the present invention.

The image rebalancing apparatus may comprise a display 2 and a storage medium.

The display 2 can output any kind of digital image and can be a liquid crystal display (LCD), a thin film transistor-liquid crystal display (TFT LCD), an organic light An OLED, and a flexible display.

Further, the display 2 according to the present embodiment may be implemented as a touch panel or a touch screen which can display and simultaneously display information and / or images. For example, when the display 2 and the sensor for sensing the touch operation form a mutual layer structure, the display 2 may be used as an input device in addition to the output device. In the image re-adjustment method according to the present invention, the display (2) has a function of concurrently outputting and inputting.

The storage medium may be at least one of a hard disk, a CD-ROM, a removable disk, a DVD, and an external hard disk, and may store various data including the digital image.

15 shows a configuration of an image rebalancing apparatus according to an embodiment of the present invention.

The image re-arrangement apparatus 2000 may include a loading unit 100, a transform unit 200, a dividing unit 300, a variable unit 400, and a combining unit 500.

The storage medium stores an image, and the image may be loaded by the loading unit 100 to become the original image 10. [

The image re-arrangement apparatus 2000 may further include a camera (not shown) that photographs an object to generate a captured image, and the captured image is stored in the storage medium and is loaded by the loading unit 100 And can be the original image 10.

The conversion unit 200 may convert the loaded original image 10 into a first converted image 20 of bitmap format. In addition, the first transformed image 20 may be stored in a memory provided in the image re-sizing apparatus 2000 and displayed on the display 2.

The conversion unit 200 may convert the original image 10 into a first converted image 20 before converting the original image 10 into a first converted image 20, (20) which is transformed from the original image (10) so that the original image (10) exceeds the resolution of the display (2), and the resolution conversion unit The first transformed image 20 is displayed on the display 2 by reducing the size of the original image 10 within the resolution range of the display 2 when it is not possible to output normally in the display area of the display 2, The output can be made normally. When the resolution of the original image 10 is less than a predetermined resolution or when the first converted image 20 in which the original image 10 has been converted is not normal in the display 2, 10 may be enlarged within the resolution range of the display 2 to enable the first converted image 20 to be recognized as normal on the display 2. [

The converting unit 200 determines the file format of the original image 10 before converting the original image 10 into the first converted image 20 and outputs the original image 10 (10) to a bitmap format if the file format of the original image (10) is not a bitmap format 206).

Next, the first transformed image 20 may be divided into a plurality of images through the division unit 300. [

The dividing unit 300 may display at least one reference line f1 to f3 on the display 2 on which the first transformed image 20 is output, The first converted image 20 may be divided into a plurality of partial images i1 to i4 based on the reference lines f1 to f3 when the selected reference line determination indication 120 is touched and selected, The partial images i1 to i4 may constitute the first partial image group 30. [

In addition, the reference lines f1 to f3 may be displayed on the display 2 including a reference line adjustment indication 110 in part. The reference lines f1 to f3 are displayed so as to be parallel to the horizontal direction of the first transformed image 20 output to the display 2. The plurality of reference lines f1 to f3 are displayed apart from each other, And may be displayed by changing the position according to a user's input using the electronic device. The user drags the reference line adjustment indication 110 included in each of the plurality of reference lines f1 to f3 to determine the position of the plurality of reference lines f1 to f3 at a desired position on the first transformed image 20 You can decide.

The plurality of reference lines f1 to f3 can be displayed by changing the order by the user's input. For example, the plurality of the reference lines f1 to f3 can be divided into an upper reference line f1, an intermediate reference line f2 and an lower reference line f3, and the upper reference line f1, the middle reference line f2, The lower reference line f3 displayed at the lowermost end of the lower reference line f3 may be formed by dragging the reference line adjustment indication 110 included in the lower reference line f3 toward the upper side of the display 2, The upper reference line f1 positioned at the uppermost position of the upper reference line f1.

Here, in the division unit 300, the first partial image group 30 may be stored in the memory and displayed on the display 2. [

The plurality of partial images i1 to i4 constituting the first partial image group 30 may be output to the display 2 respectively, It can be recognized that they are displayed as if they are combined. The division unit 300 divides the first transformed image 20 to generate the plurality of partial images i1 to i4 to form the first partial image group 30, (30) can be stored in the memory, and the display area of the display (2) can be displayed as if the first partial image group (30) were combined. However, the first partial image group 30 displayed on the display 2 is displayed with each of the plurality of partial images i1 to i4 constituting the first partial image group 30, The one partial image group 30 may be recognized as a combined one without recognizing that it is composed of the plurality of partial images i1 to i4 that are divided. This may be considering the convenience of the user and the ease of editing.

The division unit 300 may also display the first partial image group 30 on the display 2 so that the first transformed image 20 is located below the displayed position . When the user touches the baseline confirmation indication 120 displayed on the display 2, the first transformed image 20 is divided into a first partial image group 30, and the first partial image group 30 The lower end of the partial image i4 located at the lowermost end of the first transformed image 30 may be fixed and moved below a predetermined distance g from the position at which the first transformed image 20 was displayed on the display 2. [

As such, the first partial image group 30 is displayed on the display 2 further below the position at which the first transformed image 20 is displayed, so that the first partial image group 30 is more As a result, the space in which the partial image is stretched can be ensured.

For example, the lowermost end of the first transformed image 20 displayed on the display 2 is located at a distance of g1 from the lowermost end of the display 2, And may be located at an interval of g2 from the uppermost end of the display area. Here, if the user clicks the base line confirmation display 120 and the first converted image 20 is divided and the first partial image group 30 is displayed on the display 2, The group 30 may be displayed by moving the distance down by a distance g than the first transformed image 20 was displayed on the display 2. [ Therefore, the lowermost end of the first partial image group 30 may be spaced apart from the lowermost end of the display area 2 by g1-g, The first partial image group 30 may be positioned at an interval of g1 + g from the uppermost end of the display area of the display 2, and the lowermost end of the first partial image group 30 may be fixed at a position shifted from the display 2. [

Therefore, since the first partial image group 30 can secure more space than the first transformed image 20 by a distance of g from the display 2 display area, the variable portion 400 When the first partial image group 30 is displayed on the display 2, the first partial image group 30 is stretched or contracted in the upward direction with respect to the lowermost end of the fixed first partial image group 30, Can be displayed. A detailed description thereof will be given later.

The division unit 300 displays two or four reference lines f1 to f3 on the display 2 to divide the first converted image 20 into three or five, An image group 30 can be constructed.

The dividing unit 300 displays the upper reference line f1 and the lower reference line f3 on the display 2 on which the first transformed image 20 is outputted to transform the first transformed image 20 into 3 (I'1), a second partial image (i'2), and a third partial image (i'3).

The first transformed image 20 output to the display 2 is further divided into five parts by two intermediate reference lines f2 between the upper reference line f1 and the lower reference line f3 (I "1), a second partial image (i '2), a third partial image (i'3), a fourth partial image (i'4) and a fifth partial image (i'5) The first partial image group 30 can be generated.

Here, the number of the reference lines f1 to f3 displayed on the display 2 is not limited to two to four as described above, and may be further included if necessary. For example, the division unit 300 may display N reference lines on the display 2 to generate the first partial image group 30 obtained by dividing the first transformed image 20 into N + 1 .

Next, the variable portion 400 may extend or contract a part of the first partial image group 30.

The first partial image group 30 may be composed of the plurality of partial images i1 to i4 and the variable unit 400 may include a partial partial image i2 and i3 of the first partial image group 30 (S2, s3) by stretching or contracting the height of the first transformed image (20) in the longitudinal direction of the first transformed image (20) by a predetermined ratio to form at least one or more variable partial images ) And a second partial image group (35) composed of at least one or more partial images (i1, i4) of the first partial image group (30) that have not been stretched or contracted can be displayed on the display (2).

The variable unit 400 may generate the first partial image group 30 whose lower portion is fixed on the display 2 according to the input of the user by vertically extending or contracting the upper portion of the first partial image group 30 based on the fixed point And display the second partial image group 35 on the display 2.

The user may drag the variable adjustment indicator 135 displayed on the display 2 in the up and down direction of the display 2 to stretch some partial images i2 and i3 of the first partial image group 30 It can shrink. The variable adjustment indicator 135 moves up and down on the variable bar 130 positioned in the vertical direction on the display 2 according to the drag of the user and the ratio of the upward and downward movement of the variable adjustment indicator 135 , Some of the partial images (i2, i3) of the first partial image group (30) may be stretched or contracted depending on the size of the image.

For example, the user may drag the variable adjustment indicator 135 displayed on the display 2 towards the upper side of the display 2 to see some partial images i2, i3 may be displayed on the display 2 and the variable adjustment indicator 135 may be dragged in the lower direction of the display 2 to display the first partial image group 35, The second partial image group 35 generated by contracting some partial images i2 and i3 of the partial image group 30 can be displayed on the display 2. [

In the variable portion 400, the first partial image group 30 is fixed in a manner such that the lower portion of the first partial image group 30 fixed on the display 2 is fixed and the upper portion is stretched or contracted in the vertical direction However, the first partial image group 30 does not have a top portion that is elongated or contracted to be varied, but some partial images i2 and i3 of the first partial image group 30 are stretched or contracted up and down In the display 2, the upper portion of the first partial image group 30 may be expanded or contracted in the vertical direction in consideration of the convenience of the user and easiness of editing.

Therefore, when the variable portion 400 generates the second partial image group 35 by stretching or contracting a part of the first partial image group 30, The display 2 stores the variable partial images s2 and s3 by expanding or contracting the partial images i2 and i3 up and down to generate variable partial images s2 and s3, And the partial images i2 and i3 located between the partial image i4 located at the lowermost one of the first partial image groups 30 and the partial image i1 located at the uppermost one are fixed, The first partial image group 30 can naturally be extended or contracted in the vertical direction of the display 2 as the partial images s2 and s3 are changed.

The variable unit 400 may adjust the amount of extension or contraction of a portion of the first partial image group 30 according to the input of the user.

The first partial image group 30 displayed on the display 2 can be extended or contracted by the user by dragging the variable adjustment indication 130 and the amount of extension or contraction is determined according to the amount of dragging, . The user drags the variable adjustment indicator 130 displayed in the display 2 upward to generate a second partial image group 35 by extending some of the first partial image groups 30, The more the amount of dragging to the upper side is, the more the second partial image group 35 that is elongated can be generated. Also shown is that the user drags the variable adjustment indicator 130 downward to retract a portion of the first partial image group 30 to generate the second partial image group 35. In this case, the amount of shrinkage may be determined according to the amount by which the user drags the variable adjustment indicator 130 downward, as in the case of extending a portion of the first partial image group 30. [

Specifically, the variable unit 400 includes a pixel detection unit 410, a maximum variable pixel amount setting unit 420, an input value range normalization unit 430, a variable pixel amount calculation unit 440, a variable pixel amount application unit 450 and an output unit 460.

The pixel detection unit 410 detects the number of vertical pixels z1, z2, z3, and z4 of each of the plurality of partial images i1, i2, i3, and i4 constituting the first partial image group 30, The number z of vertical pixels of the first partial image group 30 can be obtained.

Next, the maximum variable pixel amount setting unit 420 sets the maximum variable pixel amount (z2, z3) of the partial image (i2, i3) of the first partial image group 30 to the maximum variable pixel amount (m) may be set to a predetermined ratio of the number of vertical pixels (z) of the first partial image group (30). That is, the maximum variable pixel amount m may be calculated by multiplying the number z of vertical pixels of the first partial image group 30 detected by the pixel detection unit 410 by a predetermined ratio.

The input value range normalization unit 430 may standardize the value of the input value range of the user using the electronic device by converting the value. The input value of the user may be input by dragging the variable adjustment indicator 135 displayed on the display 2 up and down on the variable bar 130. The variable adjustment indicator 135 may be input to the variable bar 130, A range that can be dragged up and down of the input unit 130 may be a range of the input value, and the input value range may be fuzzy converted by converting a numerical value. The normalized input value detected within the standardized input value range is multiplied by the maximum variable pixel amount m to increase or decrease the number of vertical pixels z2 and z3 of the partial images i2 and i3 It is possible to calculate the variable pixel amount.

Then, the variable-pixel-amount calculating unit 440 calculates a variable pixel amount in which the number of vertical pixels (z2, z3) of the partial partial images (i2, i3) increases or decreases according to the standardized input value of the user .

The variable pixel amount applying unit 450 then applies the variable pixel amount calculated by the variable pixel amount calculating unit 440 to the partial partial images i2 and i3 to calculate the partial partial images i2 and i3, (s2, s3) by increasing or decreasing the number of vertical pixels (z2, z3) of the variable partial images (i2, i3).

The output unit 460 outputs at least one of the variable partial images s2 and s3 generated by the variable pixel amount application unit 450 and at least one of the first partial image group 30 and the second partial image group 30, And display a second group of partial images consisting of one or more of the partial images (i1, i4) on the display.

The variable unit 400 detects the entire number z of the vertical pixels of the first partial image 30 in the pixel detecting unit 410 and the maximum variable pixel amount setting unit 420, It is possible to set the maximum variable pixel amount m at a predetermined ratio in the vertical pixel number z of the image group 30 to stretch or contract the variable partial images i2 and i3, The pixel detecting unit 410 detects only the number of vertical pixels z2 and z3 of the variable partial images i2 and i3 and outputs the maximum variable pixel amount setting (420) sets the maximum variable pixel amount (m) at a predetermined ratio from the sum of the number of vertical pixels (z2, z3) of the partial partial images (i2, i3) i3) can be calculated more quickly, and the accuracy of the vertical pixel number (z2, z3) Can.

Therefore, another embodiment of the variable portion 400 of the present invention can be seen.

The pixel detection unit 410 detects the number of vertical pixels z2 of the partial partial image i2 and the number of vertical pixels z3 of the partial partial image i3 among the first partial image group 30 (Z2, z3) of the partial partial images (i2, i3) which are variable among the first partial image group (30) by obtaining the sum of the partial pixels (i2, i3).

Next, the maximum variable pixel amount setting unit 420 sets the maximum variable pixel amount m in which the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases, , i3) of the vertical pixels (z). That is, the maximum variable pixel amount m may be calculated by multiplying the number of vertical pixels z of the partial partial images i2, i3 detected by the pixel detection unit S410 by a predetermined ratio.

The input value range normalization unit 430 may standardize the value of the input value range of the user using the electronic device by converting the value. The input value of the user may be input by dragging the variable adjustment indicator 135 displayed on the display 2 up and down on the variable bar 130. The variable adjustment indicator 135 may be input to the variable bar 130, The range that can be dragged up and down of the input unit 130 may be a range of the input value. Also, the input value range can be standardized by converting a numerical value. Wherein the normalized input value detected within the standardized input value range is multiplied by the maximum variable pixel amount m to obtain a variable value where the number of vertical pixels z2 and z3 of the partial images i2 and i3 increases or decreases The variable pixel amount calculating unit 440 may calculate the number of vertical pixels z2 and z3 of the partial images i2 and i3 according to the standardized input value of the user It is possible to calculate a decreasing variable pixel amount.

The variable pixel amount applying unit 450 then applies the variable pixel amount calculated by the variable pixel amount calculating unit 440 to the partial partial images i2 and i3 to calculate the partial partial images i2 and i3, (s2, s3) by increasing or decreasing the number of vertical pixels (z2, z3) of the variable partial images (i2, i3).

The output unit 460 outputs at least one of the variable partial images s2 and s3 generated by the variable pixel amount application unit 450 and at least one of the first partial image group 30 and the second partial image group 30, And display a second group of partial images consisting of one or more of the partial images (i1, i4) on the display.

The variable portion 400 may be configured such that when a portion of the first partial image group 30 is varied to generate the second partial image group 35, It is possible to limit the amount of pixels to prevent over-stretching or shrinking.

The embodiments of the variable part 400 according to an embodiment of the present invention have been described above. The present invention is applicable to an image in which a subject is displayed, but when the subject of the image is a person, since the body ratio of a human body generally has a longer lower body than the upper body, the partial image i2 represents a human upper body, If the partial image i3 is an image representing a lower body of a person, the variable portion 400) may divide the partial image i3 representing the lower body of the person into a larger proportion of the partial image i2 representing the upper body of the person Can be varied. Therefore, it is possible to obtain the same effect as that of a person who is a subject, by varying the ratio in proportion to the body percentage of the general person. In an embodiment of the present invention, The first partial image group 30 may set one of the first partial image groups 30 as a reference point and some of the first partial image groups 30 are stretched or contracted to form the second partial image group 35 When a point of the first partial image group 30 moves upward or downward as indicated on the display 2, the reference point also moves as much as the first partial image group 30 moves, Any point displayed on the partial image group 35 can be set as a reference point.

The first partial image group 30 having the vertical height of h outputted to the display 2 can be set as a reference point at the upper left corner, Coordinate value. Therefore, the lower left end of the first partial image group 30 has coordinates (0, h). When the first partial image group 30 is extended upward by a distance of p in the variable portion 400 to generate the second partial image group 35, the reference point is also shifted upward by a distance of p (0 , p), and the lower left coordinates of the first partial image group 30 are fixed when the plurality of partial images 30 are varied, so that the coordinate values of (0, h) are not changed . Here, when the p value, which is a value obtained by moving the first partial image group 30 in the second partial image group 35, is added, the reference point of the second partial image group 35 becomes (0, 0) The coordinate value on the lower left can be (0,0 + h + p).

The aforementioned reference point change does not apply to the first partial image group 30 stored in the memory and can be applied only to the first partial image group 30 displayed on the display 2. [ The reference point change is performed when a portion of the first partial image group 30 on the display 2 expands or contracts to display the second partial image group 35, The reference point positioned at one of the top ends of the first partial image group is displayed as it is extended or contracted as it moves up and down. Thus, the image of the person as the subject can be displayed naturally as the height increases or decreases .

Next, the combining unit 500 may combine the second partial image groups 35 into one.

When the user touches the confirmation mark 140 displayed on the display 2, the combining unit 500 combines the second partial image group 35 to generate one first variable image 40 And can be displayed on the display (2).

The combining unit 500 combines the second partial image group 35 to generate the first variable image 40 when the user touches the check mark 140 displayed on the display 2, The first variable image 40 is displayed on the display 2 and the first variable image 40 is displayed on the display 2 on which the plurality of reference lines f1 To f3) can be displayed.

The plurality of reference lines f1 to f3 displayed on the display 2 on which the first variable image 40 is displayed may further divide the first variable image 40. [

In the above, the first variable image 40 is generated in the combining unit 500. Hereinafter, the combining unit 500 including the storage unit 550 may be considered.

The synthesizer 500 synthesizes the second partial image group 35 to generate a first variable image 40 and at the same time loads the original image 20 and converts the original image 20 into a bitmap image, (20) to the first transformed image (20) by applying the same variable rate from the first transformed image (20) to the generation of the first variable image (40) The storage unit 550 may generate the variable image 41 and store the variable image 41 in the electronic device.

The storage unit 550 may load the original image 10 from the electronic device and convert the original image 10 into a bitmap format to generate a second converted image 21. The second variable image 41 may be obtained by varying the second converted image 21 by applying the same variable rate from the first converted image 20 until the first variable image 40 is generated, Lt; / RTI >

Here, the storage unit 550 divides the second transformed image 21 in the same ratio as that of the first transformed image 20 in the divided unit 300, and outputs the divided second transformed image 31 ), And the divided second transformed image 31 is varied in the variable portion 400 at the same rate as that of the first partial image group 30, (36), and combining the segmented and partially modified second transformed image (36) to generate and store the second variable image (41) in the electronic device.

When storing the second variable image 41 in the storage device, the storage unit 550 may convert the second variable image 41 into the same file format as the original image 10 and store the same . For example, when the file format of the original image 10 is not a bitmap format, the storage unit 550 loads the original image 10, converts the original image 10 into a bitmap format, Can be generated. Since the second transformed image 21 generates the second variable image 41 via the storage unit 550, the second variable image 41 may also be in a bitmap format. Accordingly, the storage unit 550 may generate a final image 50 in which the second variable image 41 is converted into the same file format as the original image 10, and store the final image 50 in the storage medium.

In addition, the storage unit 550 may store the final image 50, which is obtained by converting the second variable image 41 into a file format that is not the same as the original image 10, in the storage medium.

The foregoing description is merely illustrative of the technical idea of the present invention, and various changes and modifications may be made by those skilled in the art without departing from the essential characteristics of the present invention.

Therefore, the embodiments disclosed in the present invention are intended to illustrate rather than limit the scope of the present invention, and the scope of the technical idea of the present invention is not limited by these embodiments.

The scope of protection of the present invention should be construed according to the following claims, and all technical ideas within the scope of equivalents should be construed as falling within the scope of the present invention.

10: original image 20: first conversion image
30: First partial image group 35: Second partial image group
40: first variable image 50: final image

Claims (40)

A method of re-adjusting an image displayed on a display of an electronic device,
A loading step of loading an original image;
An image conversion step of converting the original image into a first converted image in a bitmap format, storing the first converted image in a memory of the electronic device, and outputting the first converted image to a display of the electronic device;
Displaying at least one baseline on the display, dividing the first transformed image into a plurality of partial images with reference to the baseline, storing a first partial image group composed of the plurality of partial images in the memory An image segmentation step;
Generating at least one or more variable partial images by stretching or contracting some of the partial images of the first partial image group in a longitudinal direction of the partial images by a predetermined ratio to form at least one variable partial image, An image variable step of displaying on the display a second partial image group consisting of at least one or more of the partial images that have not been stretched or contracted among the groups;
Combining the second partial image groups to generate a first variable image, and displaying the first variable image on the display; Wherein the image reconstruction method comprises: The method according to claim 1,
Wherein the original image is a stored image already stored in the electronic device or an image taken by a camera provided in the electronic device. The method according to claim 1,
Wherein the image conversion step further comprises the step of determining whether the resolution of the original image exceeds the resolution of the display or below a predetermined resolution before converting the original image into the first converted image, When the resolution of the original image is determined to be greater than or equal to the resolution of the display, the original image is reduced or enlarged to a range within the resolution of the display and converted to the first converted image. The method according to claim 1,
The image conversion step further includes a file type determination step of determining the original image as the first converted image when the original image is in the bitmap format before converting the original image into the first converted image Wherein the image reconstruction method comprises: The method according to claim 1,
Wherein the image segmenting step displays the reference line so as to be parallel to the horizontal direction of the first transformed image and changes the position of the reference line according to a user's input using the electronic device to display on the first transformed image Wherein the image reconstruction method comprises the steps of: 6. The method of claim 5,
Wherein the image segmenting step displays the plurality of reference lines spaced apart from each other when the plurality of reference lines are present, and changes the display order of the plurality of reference lines according to an input of the user. The method according to claim 6,
Wherein the plurality of reference lines are an upper reference line and a lower reference line that divide the first transformed image into three partial images or further include N central reference lines between the upper reference line and the lower reference line to convert the first transformed image into N And dividing the image into three partial images. 8. The method of claim 7,
Wherein the image segmentation step displays the first partial image group on the display such that the partial image located at the bottom of the first partial image group is positioned below the position at which the first transformed image was displayed Wherein the image reconstruction method comprises the steps of: 9. The method according to claim 7 or 8,
Wherein the image modifying step extends or contracts at least one or more partial images between the upper reference line and the lower reference line based on the partial image positioned below the lower reference line among the first partial image groups in the vertical direction And generating one or more of the variable partial images. 10. The method of claim 9,
Wherein the degree of extension or contraction of the partial image is determined according to the input of the user. 11. The method of claim 10,
When the first converted image is a person as a subject,
Wherein the image segmentation step displays the upper reference line on the shoulder portion of the image of the person displayed on the first transformed image, displays the lower reference line on the ankle region, displays the intermediate reference line on the pelvis region, Divides the first transformed image into four partial images with reference to the baseline, the lower baseline, and the intermediate baseline, and stores the first partial image group composed of the four partial images in the memory Recalibration method. 12. The method of claim 11,
Wherein the image variable step stretches or contracts the partial image between the upper reference line and the intermediate reference line and the partial image between the intermediate reference line and the lower reference line up and down at a predetermined ratio, And displaying a second partial image group composed of the two variable partial images and the partial image positioned below the lower baseline and the partial image positioned above the upper baseline of the first partial image group on the display Characterized in that the image is readjusted. 13. The method of claim 12,
Wherein the image modifying step stretches or contracts the partial image between the intermediate reference line and the lower reference line at a greater rate than the partial image between the upper reference line and the lower reference line. 14. The method of claim 13,
Wherein the image combining step combines the four partial images constituting the second partial image group to generate the first variable image and displays the first variable image on the display. The method according to claim 1,
Wherein the image variable step comprises:
A pixel detecting step of detecting the number of vertical pixels of the first partial image group;
A maximum variable pixel amount setting step of setting a maximum variable pixel amount in which the number of vertical pixels of a partial image of the first partial image group can be varied;
An input value range standardization step of standardizing an input value range of a user using the electronic device;
A variable pixel amount calculating step of determining a variable pixel amount in which the number of vertical pixels of the partial image is variable according to an input value input by the user within the maximum variable pixel amount;
Applying the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image to generate at least one variable partial image;
And an output step of displaying on the display a second partial image group composed of at least one or more of the variable partial images and at least one or more partial images that have not been stretched or contracted among the first partial image group Recalibration method. 16. The method of claim 15,
Wherein the maximum variable pixel amount setting step calculates the maximum variable pixel amount by multiplying the number of vertical pixels of the first partial image by a predetermined ratio set in advance. The method according to claim 1,
Wherein the image variable step comprises:
A pixel detecting step of detecting a number of vertical pixels of a partial partial image of the first partial image group;
A maximum variable pixel amount setting step of setting a maximum variable pixel amount by which the number of vertical pixels of the partial image can be varied;
An input value range standardization step of standardizing an input value range of a user using the electronic device;
A variable pixel amount calculating step of determining a variable pixel amount in which the number of vertical pixels of the partial image is variable according to an input value input by the user within the maximum variable pixel amount;
Applying the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image to generate at least one variable partial image;
And an output step of displaying on the display a second partial image group composed of at least one or more of the variable partial images and at least one or more partial images that have not been stretched or contracted among the first partial image group Recalibration method. The method of claim 17,
Wherein the maximum variable pixel amount setting step calculates the maximum variable pixel amount by multiplying the number of vertical pixels of the partial partial image by a predetermined ratio. 18. The method according to claim 15 or 17,
Wherein the variable pixel amount calculating step calculates a variable pixel amount by which the number of vertical pixels of the partial partial image is varied by multiplying the maximum variable pixel amount by the input value input by the user. The method according to claim 1,
Wherein the first variable image is N-ary re-adjusted through the image segmentation step, the image variable step and the image synthesis step to become an N + 1-th first variable image. The method according to claim 1,
Wherein the image combining step combines the second partial image group according to an input of a user using the electronic device to generate the first variable image. 22. The method of claim 21,
Wherein the image compositing step comprises the steps of: loading the original image and converting the original image into a bitmap image to generate a second transformed image; and transforming the second transformed image into a variable image having the same ratio as that of the first transformed image Further comprising: an image storing step of generating a second variable image and storing the second variable image in the electronic device. 23. The method of claim 22,
Wherein the image storing step converts the second variable image into a file format that is the same as the original image or is not the same as the second variable image when the second variable image is stored in the electronic device, And storing the image data. An apparatus for resizing an image comprising a display and a storage medium,
A loading unit for loading an original image;
A converting unit converting the original image into a first converted image in a bitmap format, storing the first converted image in a memory of the apparatus and outputting the converted image to the display;
Displaying at least one baseline on the display, dividing the first transformed image into a plurality of partial images with reference to the baseline, storing a first partial image group composed of the plurality of partial images in the memory Minute division;
Generating at least one or more variable partial images by stretching or contracting some of the partial images of the first partial image group in a longitudinal direction of the partial images by a predetermined ratio to form at least one variable partial image, A variable portion displaying on the display a second partial image group composed of at least one or more partial images that are not stretched or contracted among the groups;
And combining the second partial image groups to generate a first variable image and displaying the first variable image on the display. 25. The method of claim 24,
Wherein the storage medium stores an image, and the image is loaded by the loading unit to become the original image. 25. The method of claim 24,
Further comprising a camera for photographing a subject to generate a photographed image, wherein the photographed image is stored in the storage medium and loaded by the loading section to become the original image. 25. The method of claim 24,
Wherein the converting unit reduces or enlarges the original image in a range within the resolution of the display when the resolution of the original image exceeds the resolution of the display or below the predetermined resolution before converting the original image into the first converted image Further comprising a resolution discrimination unit. 25. The method of claim 24,
The converting unit may further include a file type determining unit that determines the original image as the first converted image when the original image is in the bitmap format before converting the original image into the first converted image. Image remanufacturing device. 25. The method of claim 24,
Wherein the dividing unit displays the reference line such that the reference line is parallel to the horizontal direction of the first transformed image and changes the position of the reference line according to the input of the user and displays the same on the first transformed image. . 30. The method of claim 29,
Wherein the dividing unit displays the plurality of reference lines spaced apart from each other when the plurality of reference lines exist, and changes the order of the reference lines according to an input of the user. 31. The method of claim 30,
Wherein the plurality of reference lines are an upper reference line and a lower reference line that divide the first transformed image into three partial images or further include N central reference lines between the upper reference line and the lower reference line to convert the first transformed image into N And divides the image into three partial images. 32. The method of claim 31,
Wherein the dividing unit displays the first partial image group on the display so that the partial image positioned at the lowermost one of the first partial image groups is positioned below the position at which the first transformed image was displayed The image reconstruction device. 33. The method according to claim 31 or 32,
Wherein the variable portion extends or contracts at least one or more of the partial images between the upper reference line and the lower reference line based on the partial image positioned below the lower reference line of the first partial image group, And generates the variable portion image. 34. The method of claim 33,
Wherein the degree of extension or contraction of the partial image is determined according to a user's input. 25. The method of claim 24,
The variable-
A pixel detector for detecting the number of vertical pixels of the first partial image group;
A maximum variable pixel amount setting unit for setting a maximum variable pixel amount by which the number of vertical pixels of a partial image of the first partial image group can be varied;
An input value range normalization unit for standardizing an input value range of a user using the electronic device;
A variable pixel amount calculating unit for determining a variable pixel amount in which the number of vertical pixels of the partial image is variable according to an input value input by the user within the maximum variable pixel amount;
A variable pixel amount applying unit that applies the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image to generate at least one variable partial image;
And an output unit for displaying on the display a second partial image group composed of at least one of the variable partial image and at least one or more of the partial images not stretched or contracted out of the first partial image group. Reconditioning device. 25. The method of claim 24,
The variable-
A pixel detector for detecting the number of vertical pixels of a partial image of the first partial image group;
A maximum variable pixel amount setting unit for setting a maximum variable pixel amount by which the number of vertical pixels of the partial image may be varied;
An input value range normalization unit for standardizing an input value range of a user using the electronic device;
A variable pixel amount calculating unit for determining a variable pixel amount in which the number of vertical pixels of the partial image is variable according to an input value input by the user within the maximum variable pixel amount;
A variable pixel amount applying unit that applies the calculated variable pixel amount to the partial partial image to increase or decrease the number of vertical pixels of the partial partial image to generate at least one variable partial image;
And an output unit for displaying on the display a second partial image group composed of at least one of the variable partial image and at least one or more of the partial images not stretched or contracted out of the first partial image group. Reconditioning device. 25. The method of claim 24,
Wherein the combining unit combines the second partial image group according to an input of a user using the apparatus to generate the first variable image. 39. The method of claim 37,
Wherein the combining unit converts the first transformed image into a bitmap image by loading the original image to generate a second transformed image, and transforms the second transformed image into a second transformed image by varying the ratio of the first variable transformed image in the first transformed image, Further comprising: a storage unit configured to generate a first variable image and to store the variable image in the storage medium. 39. The method of claim 38,
Wherein the storage unit converts the second variable image into a file format that is the same as the original image or is not the same as the second variable image and stores the converted file in the storage medium when the second variable image is stored in the storage medium The image reconstruction apparatus comprising: 24. A non-transitory machine-readable storage medium having recorded thereon instructions for executing the method of any one of claims 1 to 23.

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