KR100979778B1 - Image drawing upgrade system - Google Patents

Abstract

PURPOSE: A system for upgrading an image using a reference point based on GPS information is provided to wash a glass plate of a drawing plate. CONSTITUTION: A horizontal bar(181) of a cleaning tool is inserted into first and third guide holes to linearly reciprocate. A cleaner liquid spraying device sprays cleaner liquid on a glass plate. A lifting member(162) of an extension device(160) is fixed to the horizontal bar. The lifting member can be lifted in a cylinder body(161). A spring(163) can be extended in the cylinder body. A moving member(142) of a transfer device is installed in the cylinder body.

Description

Image drawing upgrade system by reference point based on GS information {Image Drawing Upgrade System}

The present invention relates to an image drawing image upgrade system for each reference point based on GPS information.

In general, when performing numerical mapping, first photograph a pair of aerial photographs of the area. Afterwards, the aerial photographs are scanned using a high-resolution scanner to image aerial photographs, and the aerial image is corrected using a separate computer terminal. On the other hand, the details of the aerial image image correction is described in detail in Republic of Korea Patent No. 10-0924820.

However, in the case of imaging the aerial photographs through a separate fuser as described above, foreign matters are buried in the scanner, and when the aerial photographs are scanned, foreign matters are expressed in the aerial image image, which causes errors in the aerial image image. Occurred.

Accordingly, there is a demand for an image drawing image upgrade system capable of preventing errors in the aerial image.

The present invention has been invented by the above-described demands, and it is an object of the present invention to provide an image drawing image upgrade system capable of preventing errors in aerial image images.

The present invention for solving the above problems, an aerial photo igniter for generating an aerial photo model through the aerial photo; An aerial image model from a aerial photographing apparatus, comprising an image correction computer for upgrading an existing aerial photograph model according to an external input signal by a user, wherein the aerial photographing imager comprises: an aerial photographing imager; The first guide hole formed along the longitudinal direction, the second guide hole extending from the first guide hole and inclined upward, and the third guide hole extending in the horizontal direction from the second guide hole are provided on both side walls, A fuser body comprising an upwardly open scanner receptacle and a glass plate which is a transparent body disposed between the first guide hole and the third guide hole of the scanner receptacle; A scanner installed in the scanner receiving unit and disposed under the glass plate of the main body of the fuser to read and convert the aerial photographic film placed on the glass plate into a file and store the copy; A cover rotatably installed on the fuser body via a hinge to open and close the upper portion of the fuser body; A cleaner mechanism comprising a horizontal bar having both ends inserted into the first and third guide holes of the scanner accommodation part so as to be linearly reciprocated, and a soft cleaner installed under the horizontal bar to clean the glass plate; An extension device including a lifting member fixed to a horizontal bar, a cylinder body to which the lifting member is liftable, and a spring installed on the cylinder body so as to extend and contract with the lifting member; A movable member installed on the cylinder body of the expansion and contraction device, a screw rotatably installed on the main body of the fuser and screwed with the moving member, and rotatably installed on the main body of the evaporator to drive the moving member in a straight reciprocating manner. A transfer device composed of a drive motor; Cleaner for spraying the cleaner liquid onto the glass plate, having a storage tank installed in the main body of the fuser to store the cleaner liquid, nozzles provided on both sidewalls of the scanner housing, and a supply device for supplying the cleaner liquid of the storage tank to the nozzle. A liquid injector; A control unit for operating the scanner, the drive motor of the transfer device, and the supply device for the cleaner liquid injection device, for generating an aerial photograph model from the positive film copy file of the scanner and outputting the aerial photograph model to the drawing correction computer; It is characterized in that the input unit which is installed in the main body of the fuser to input the operation signal to the control unit.

According to the present invention as described above, it is provided with a structure that can clean the glass plate of the aerial photographic fuser, there is an effect that can prevent the error of the aerial image when drawing the aerial photograph.

1 is a block diagram showing the electrical connection between the components according to the invention,
Figure 2 is a view showing an aerial photonic fuser according to the present invention,
3 is a perspective view separately showing the main portion of the aerial photo fuser according to the present invention,
4 is a cross-sectional view taken along line AA of FIG.
5 is a cross-sectional view taken along line BB of FIG.
6 is a cross-sectional view taken along line CC of FIG. 4;
7 and 8 are views showing the operation of the present invention.

Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

1 is a view showing an aerial photogram according to the present invention, Figure 2 is a perspective view taken separately to the main portion of the aerial photogram according to the present invention, Figure 3 is a cross-sectional view of Figure 2 AA, Figure 4 3 is a cross-sectional view taken along line BB of FIG. 3, FIG. 5 is a cross-sectional view taken along line CC of FIG. 3, and FIG. 6 is a block diagram showing the electrical connection relationship between the components according to the present invention. The components of the upgrade system are as follows.

The image drawing image upgrade system according to the present invention includes an aerial photographic projector 100 for imaging an aerial photographic film, and an image correction computer for receiving an aerial photograph model from an aerial photographic projector 100 to upgrade the image photographed image ( 200).

The aerial photograph fuser 100 includes a fuser main body 110, a scanner 120 installed in the fuser main body 110, a cover 130 installed in the fuser main body 110, and a fuser. The conveying device 140 built into the main body 110, the sub-feeding device 150 built into the main body 110, the expansion and contraction device 160 installed on the conveying device 140, and the sub-feeding device ( 150, the sub-expanding device 170 is installed, the vacuum cleaner body 180 for cleaning the fuser main body 110, the cleaner liquid injection device (P) provided in the fuser main body 110, the fuser main body The control unit 190 is installed on the 110, and the input unit (I) is installed on the main body 110.

The main body 110 of the main body 110 is a scanner receiving portion 111 which is opened upward, a conveying apparatus accommodating portion 112 formed in parallel with the scanner accommodating portion 111, and the scanner accommodating portion 111. A sub-transfer device receiving part 113 formed to face the conveying device receiving part 112, and a fixing part 114 formed at an outer side of the rear end of the conveying device receiving part 112 and the sub-feeding device receiving part 113; And a glass plate 115 for closing the scanner accommodating portion 111.

The scanner accommodating part 111 is protruded upward on both sides, but is formed along a longitudinal direction, and side wall portions 111a are formed to face each other.

The side wall portion 111a is formed to be parallel to the first guide hole 111a1 and the first guide hole 111a1 formed along the longitudinal direction, and is fixed to the rear of the first guide hole 111a1 and upwards. The third guide hole 111a3 is formed to be spaced apart from each other, and the second guide hole 111a2 is formed to be in inclined communication with the first guide hole 111a1 and the third guide hole 111a3.

The fixing part 114 is formed on the outer side of the side wall portion 111a of the scanner accommodating part 111 and is disposed on the glass plate 115 to fix one end of the aerial photography film. At this time, the fixing part 114 is made of a soft material to prevent damage to the positive film.

The glass plate 115 is installed on the sidewall portion 111a of the scanner accommodating portion 111 and is disposed between the first guide hole 111a1 and the third guide hole 113a3 of the sidewall portion 111a. do. In this case, the glass plate 115 closes the upper portion of the scanner accommodating portion 111 and is made of a transparent material. In addition, the glass plate 115 is the first glass plate 115a which is installed in front and the second glass plate 115b which is spaced apart from the first glass plate 115a to the rear so as to form a horizontal bi-channel (R). Is made of. In the present embodiment, the glass plate 115 is partitioned into the first glass plate 115a and the second glass plate 115b so that the horizontal bi-channel R is formed, but the glass plate 115 is not partitioned. ) May be installed to be spaced apart from the tip of the scanner accommodating portion 111 by a predetermined interval to form a horizontal bi-channel (R).

The scanner 120 is installed in the scanner accommodating part 111 and is disposed below the glass plate 115 of the fuser main body 110, and is converted into a file by reading an aerial photograph of the positive film placed on the glass plate 12. Save it. Here, the scanner 120 is a conventional one used in a general fuser, detailed description thereof will be omitted.

The cover 130 is rotatably installed on the fuser main body 110 via a hinge to open and close the upper portion of the fuser main body 110.

The transfer device 140, the screw 141 is rotatably installed in the transfer device receiving portion 112 of the fuser main body 110, the moving member 142 is screwed and coupled to the screw 141 to move linearly And a drive motor 143 installed in the transfer device accommodating part 112 to drive the screw 141. At this time, the screw 141 is rotatably fixed to a pair of supports 144 which are both ends are opposed to each other in the transfer device receiving portion 112, the lower portion of the screw 141 to the moving member 142 A guide member 145 for guiding is disposed. Here, the guide member 145 is formed along the longitudinal direction, both ends are fixed to the pair of support 144, respectively.

The sub-transfer device 150 includes a screw 151 rotatably installed in the sub-transfer device accommodating part 113 of the fuser main body 110 and a moving member that is screw-coupled with the screw 151 to move linearly ( 152 and a drive motor 153 built into the sub-transfer device accommodating portion 113 to drive the screw 151. At this time, the screw 151 is rotatably fixed to a pair of supports 154 which are both ends are opposed to each other in the sub-transfer device receiving portion 113, the moving member 152 in the lower portion of the screw 151. Guide member 155 is disposed to guide the. Here, the guide member 155 is formed along the longitudinal direction, both ends are fixed to the pair of support 154, respectively.

The expansion and contraction device 160 includes a cylinder body 161 installed on the moving member 142 of the transfer device 140, an elevating member 162 installed on the cylinder body 161 so as to be liftable, and a cylinder body ( 161 is provided with a spring 163 which is built in 161 to support the elevating member 162 below.

The sub-expandable device 170 includes a cylinder body 171 installed on the moving member 152 of the sub-conveyor 150, a lifting member 172 installed on the cylinder body 171 so as to be liftable, and a cylinder. It is built in the main body 171 and has a spring (173) for supporting the lifting member 172 to be shot down.

Both ends of the vacuum cleaner 180 are fixed to the elevating member 162 of the expansion and contraction device 160, and the first guide hole 111a1, the second guide hole 111a2 of the transfer device accommodating part 112, and A horizontal bar 181 moving along the third guide hole 111a3 and a soft cleaner 182 installed under the horizontal bar 181 to wipe the upper surface of the second glass plate 115b. At this time, the cleaner 182 is preferably a surface material that can wipe the dust on the glass plate 115 of the fuser main body 110.

The cleaner liquid injector P is installed in the upper portion of the side wall 111a of the storage tank P2 and the scanner accommodating portion 111, which is installed in the main body 100 and stores the oil-soluble cleaner liquid. A nozzle (P1) for spraying the cleaner liquid to the second glass plate (115b) located in the supply unit, and a supply device for causing the cleaner liquid of the storage tank (P2) to be sprayed to the second glass plate (115b) through the nozzle (P1) ( P3).

At this time, the nozzle (P1) is installed on the upper sidewall portion 111a of the scanner receiving portion 111, a plurality of nozzles are installed along the longitudinal direction of the second glass plate (115b). In addition, it is preferable that a large number of injection holes are formed in the nozzle P1 in order to spread the cleaner liquid into fine particles.

On the other hand, the supply device (P3) may be applied to a pump for spraying the cleaner liquid at a high pressure, etc. The technical content is already known well known techniques will be omitted for the detailed description thereof.

The control unit 190 is installed in the aerial photographic fuser 100, and the scanner 120, the drive motor 143 of the transfer device 140, the drive motor 153 of the sub-transfer device 150, the cleaner The apparatus P3 of the liquid injector P is operated to generate an aerial photograph model from the positive film copy file of the scanner 120, and output the aerial photograph model to the drawing correction computer 200. Here, the generation of the aerial photograph model by the control unit 190 is a well known general technique, and a detailed description thereof will be omitted.

The input unit (I), for controlling the operation of the control unit 190, is installed in the aerial photographic fuser 100, the control unit 190 drives the scanner 120, the transfer device 140 A control signal is inputted to operate and control the motor 143, the drive motor 153 of the sub-feeder 150, and the supply device P3 of the cleaner liquid injection device P.

On the other hand, in the present embodiment, in order to move the vacuum cleaner 180 in front and rear, the transfer device 140 and the sub-transfer device 150, the expansion and contraction device 160 and the sub-expansion device 170 are each paired, Of course, the vacuum cleaner 180 may be driven only by the conveying device 140 and the stretching device 160.

The drawing correction computer 200 is a conventional one for receiving an aerial photographic model from the control unit 190 of the aerial photographing apparatus 100 and correcting the existing aerial photographing model according to an external input signal by a user. The description will be omitted.

7 and 8 are views showing the operation of the image upgrade image upgrade system according to the present invention. Referring to FIGS. 7 and 8, the operation of the present invention will be described as follows.

When foreign matters are accumulated on the upper surface of the second glass plate 115b of the main body 110, when the airborne positive film is scanned, the foreign material is scanned like an aerial photo positive film (not shown), so that the control unit 190 When creating an aerial photo model, foreign objects are displayed on the aerial photo model, which causes errors in the aerial image.

In order to prevent the aerial image error as described above, before the operator performs the scanning operation of the aerial photographic positive film, the following operation is preceded.

First, the operator inputs an operation signal of the supply device P3 of the cleaner liquid injection device P to the control unit 190 via the input unit I.

Then, the supply device P3 sprays the cleaner liquid of the storage tank P2 to the second glass plate 115b of the fuser main body 110 through the nozzle P1. At this time, the cleaner liquid is injected while spreading into fine particles.

 Subsequently, the operator inputs the operation signals of the drive motors 143 and 153 of the feeder 140 and the sub-feeder 150 to the control unit 190 via the input unit I, so that the respective drive motors ( 143, 153). Accordingly, the screws 141 and 151 of the feeder 140 and the sub-feeder 150 rotate in the forward direction, and the moving members 142 and 152 of the feeder 140 and the sub-feeder 150 are respectively screws 141 and 151. Move backward along the longitudinal direction of.

 In addition, when the moving members 142 and 152 of the transfer device 140 and the sub-transfer device 150 move backward, both ends of the horizontal horizontal bar 181 of the vacuum cleaner tool 181 are guide holes 111a1 of the scanner accommodating part 111. To the rear. At this time, when both ends of the continuously moving vacuum cleaner mechanism horizontal bar 181 abuts the inner surface of the second guide hole (111a2) of the scanner accommodating portion 111, as shown in Figure 7, the horizontal bar (181) Both ends of the) move along the second guide hole (111a2).

Subsequently, the elevating members 162 and 172 of the expansion and contraction apparatuses 160 and 170 move upwards, and the springs 163 and 173 of the expansion and expansion mechanisms 160 and 170 are tensioned.

Subsequently, when the moving members 142 and 152 of the transport device 140 and the sub transport device 150 continuously move, both ends of the horizontal horizontal bar 181 of the vacuum cleaner tool are formed in the third guide hole 111a3 of the scanner accommodating part 111. ), The horizontal bar 181 is seated on the second glass plate 115b of the fuser main body 110.

Subsequently, when the moving members 142 and 152 of the conveying device 140 and the sub conveying device 150 are continuously moved, both ends of the horizontal bar 181 of the vacuum cleaner mechanism are connected to the third guide hole 112a3 of the scanner conveying unit 111. While moving rearward along 113a3, the horizontal bar 181 of the cleaning mechanism 180 continuously moves. At this time, the cleaner 182 installed on the lower portion of the horizontal bar 181 moves backward along the longitudinal direction of the second glass plate 115b, and cleans the second glass plate 115b as shown in FIG. 8.

Then, when the horizontal bar 181 of the vacuum cleaner mechanism 180 reaches the rear end of the second glass plate 115b of the fuser main body 110, the control unit 190 is the transfer device 140 and the sub-transfer device 150 The driving motors 143 and 153 of the feeder 140 and the sub-feeder 150 are controlled to rotate in the reverse direction.

Subsequently, when the screws 141 and 151 of the transport device 140 and the sub transport device 150 rotate in the reverse direction, the moving members 142 and 152 of the transport device 140 and the sub transport device 150 move forward again. do.

At this time, while both ends of the vacuum cleaner tool horizontal bar 181 moves forward along the third guide hole 111a of the scanner receiving portion 111, the horizontal bar 181 of the vacuum cleaner tool 180 moves forward. . At this time, the cleaner 182 installed on the lower portion of the horizontal bar 181 moves forward, and wipes the second glass plate 115b.

On the other hand, when the horizontal bar 181 of the vacuum cleaner mechanism 180 moves the upper portion of the second glass plate 115b of the fuser main body 110, the springs (163, 173) of the expansion and sub-expansion device (160, 170) is a lifting member (162,172) is pulling downwards.

Therefore, when the horizontal bar 181 of the cleaner mechanism 180 moves forward to enter the second guide hole 111a2 of the scanner accommodating part 112, the springs 162 and 172 move the horizontal bar 181 downward. Pulling, thereby entering the first guide hole 111a1 while the horizontal bar 181 moves downward.

Subsequently, while the moving members 142 and 152 of the transfer device 140 and the sub transfer device 150 move forward, the vacuum cleaner 180 also moves forward, and the vacuum cleaner 180 returns to the initial state. Done.

Thus, the cleaning operation of the glass plate 115 of the fuser main body 110 by the cleaner mechanism 180 is finished.

In the present embodiment, the number of round trips of the vacuum cleaner 180 has been described as one time, but by adjusting the setting of the control unit 190, the number of round trips of the vacuum cleaner 180 may be adjusted.

Thereafter, the operator inserts the aerial photography film between the glass plate 115 and the fixing portion 114 of the fuser main body 110, seats the aerial photography film on the upper portion of the second glass plate 115b, and then covers it. Cover 130.

Subsequently, when the operator inputs the scanner 120 operation signal to the control unit 190 via the input unit I, the aerial photograph positive film is scanned, and the control unit 190 generates an aerial photograph model. . At this time, the control unit 190 transmits the generated aerial photograph model to the drawing correction computer 200.

At this time, the worker compares the existing aerial photograph model with the new aerial photograph model through the drawing correction computer 200, and upgrades the existing aerial photograph model.

On the other hand, the process of upgrading the appeal photo model through the picture correction computer 200 is a common well-known conventional technique, detailed description thereof will be omitted.

As described above, the present invention can prevent other foreign matters from overlapping the screen of the aerial photo quantum film when the aerial photo quantum film is scanned, so that an error occurs in the aerial photo model generated from the aerial photo quantum film. It can prevent. Therefore, it is possible to upgrade an accurate imagery image.

100; Aerial photography 110; The fuser body
120; Scanner 130; cover
140; Transfer device 160; Hoist
180; Vacuum cleaner 190; Control unit
I; Input unit P; Cleaner Liquid Injector
200; Calibration computer

Claims (1)

An aerial photograph plunger 100 for generating an aerial photograph model using an aerial photograph; In the video image upgrade system including an image correction computer 200 which receives an aerial photograph model from the aerial photographing apparatus 100 and upgrades an existing aerial photograph model according to an external input signal by a user.
The aerial photo fuser 100 is;
A first guide hole 111a1 formed along the longitudinal direction, a second guide hole 111a2 inclined upwardly extending from the first guide hole 111a1, and extending horizontally from the second guide hole 111a2 The formed third guide hole 111a3 is provided at both sidewalls, and is formed between the scanner accommodating part 111 opened upward and the first guide hole 111a1 and the third guide hole 111a3 of the scanner accommodating part 111. A fuser main body 110 composed of a glass plate 115 which is a transparent body disposed in the body;
The scanner 120 is installed in the scanner accommodating part 111 and is disposed below the glass plate 115 of the fuser main body 110, and reads and converts the aerial photographic positive film placed on the glass plate 115 into a file and stores it as a file. Wow;
A cover 130 rotatably installed on the fuser main body 110 via a hinge to open and close the upper portion of the fuser main body 110;
Both ends are provided with a horizontal bar 181 which is inserted into the first and third guide holes 111a1 and 111a3 of the scanner accommodating part 111 so as to be linearly reciprocated, and is installed below the horizontal bar 181 to clean the glass plate. A cleaner mechanism 180 composed of a soft cleaner 182;
The elevating member 162 fixed to the horizontal bar 181, the cylinder body 161 on which the elevating member 162 is provided for elevating, and the elevating member 162 is elastically installed on the cylinder body 161. Stretching device 160 composed of a spring 163 to interlock with;
A moving member 142 installed on the cylinder body 161 of the expansion and contraction device 160, a screw 141 rotatably installed on the fuser main body 110 and screwed to the moving member 142, and the fuser A transfer device 140 rotatably installed on the main body 110 and configured by a drive motor 143 for linearly reciprocating the moving member 142 by driving a screw 141;
The storage tank P2 installed in the main body 110 to store the cleaner liquid, the nozzles P1 provided on both sidewalls of the scanner accommodating part 111, and the cleaner liquid of the storage tank P2 are nozzles ( A cleaner liquid injector P having a supply device P3 for supplying to P1, and for injecting cleaner liquid onto the glass plate 115;
Operate and control the scanner 120, the drive motor 143 of the feeder 140, and the feeder P3 of the cleaner liquid injector P, and generate an aerial photograph model from the positive film copy file of the scanner 120. A control unit 190 for outputting an aerial photographic model to the drawing correction computer 200;
And an input unit (I) installed on the main body 110 to input an operation signal to the control unit 190.

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