KR20240068321A - Insect trap and launch device - Google Patents

Abstract

The present invention includes a storage unit formed in a tubular shape with the inside penetrating to store bugs collected therein; an attractor coupled to one side of the storage unit to attract insects into the storage unit; and a switching unit coupled to the other side of the storage unit to selectively switch between a capture mode for trapping bugs in the storage unit and a reproduction mode for firing bugs captured in the storage unit from the storage unit. and an operating unit that is detachably coupled to the switching unit and operates in response to switching the capturing mode or the reproduction mode of the switching unit.

Description

Insect trap and launch device

The present invention relates to an insect trap and launch device, and more specifically, to enable simultaneous trapping of insects and reproduction of a block cage by conveniently and selectively switching between a capture mode that captures insects and a reproduction mode that launches the collected insects from the storage unit. It is about an insect trap and launch device.

Self-driving car technology is a technology that can automatically drive to a pre-designated destination by recognizing the surrounding situation and vehicle status without the driver's intention.

With the development of automobile technology, the development and distribution of self-driving cars that can operate on their own without driver intervention are progressing rapidly.

Specifically, autonomous driving technology can consist of environmental recognition, judgment and route generation, and vehicle control stages. Among these, environmental awareness detects information for autonomous driving by recognizing the road, weather environment, etc. while driving using various sensors.

In this way, self-driving cars recognize the situation through the operation of various environmental sensors and devices, and operate the driver for driving based on this. However, if the input information coming through the environmental recognition sensor (camera, lidar, radar, etc.) contains an error or the environmental recognition sensor does not operate, an error occurs in situation recognition, which can lead to an accident that causes serious damage. It can lead to

Self-driving cars detect surrounding objects through signal processing from environmental sensors such as cameras, radars, and lidar, and drive by controlling the steering angle or speed based on this. .

However, even if these devices operate normally, if the detection function of the environmental recognition sensor is deteriorated, they may fail to recognize objects and cause accidents, and social problems such as loss of life due to such traffic accidents and anxiety about the safety of self-driving cars are raised. occurs.

In particular, the environmental recognition sensor of an autonomous vehicle is a key element of safe driving, and it protects against blockage (vision-obstructing substances) such as direct water droplets, snow, rain, insects, dust, and bird droppings, such as road and weather conditions. This may cause a decrease in safety.

Moreover, level 4 autonomous vehicles, which are fully autonomous vehicles without a driver, quickly restore the performance of the environmental recognition sensor to normal in the event of an error in the environmental recognition sensor due to a block cage attached to the environmental recognition sensor, thereby ensuring safe driving. The development of a performance assurance device that can support this is required.

In addition, in order to secure the performance of the environmental recognition sensor, the block cage (field obstruction) is removed (or the block cage (field of view) is removed to maintain the condition sufficient to perform the original function of the environmental recognition sensor). The performance of the block cage performance assurance device itself, which was developed to ensure that interfering substances (obstructive substances) remain, must also be evaluated so that the reliability of consumers of autonomous vehicles can be improved, and the reliability of self-driving vehicles can be improved, and the Traffic accidents can be minimized.

Therefore, it is necessary to accurately perform evaluation tests on various block cage performance assurance devices to check the safety and performance of the block cage performance assurance device itself.

The evaluation results of such block cage performance evaluation devices have a direct impact on the safety of self-driving cars, and the safety of self-driving cars is directly related to human life, so it can be said to be the factor that has the greatest impact on the completeness of self-driving cars. You can.

In addition, since the evaluation results of the block cage performance evaluation device are reflected in the design of the autonomous vehicle and the development of the autonomous vehicle is carried out, the evaluation of the block cage performance evaluation device can lead to various types of accurate and safe performance evaluation. The results will ultimately have a direct impact on the degree of acceleration of the commercialization of self-driving cars and the technological development of self-driving cars.

In addition, even in the case of a general car operated by a driver, if blockage (visibility-obstructing substances) occurs in elements that can obstruct the driver's field of vision, such as lights or windows, it becomes a factor that impedes safe driving. It can also be applied in the same way as self-driving cars.

especially. In the case of insects, among various block cages (visibility-obstructing substances) such as water droplets, snow, rain, insects, dust, bird excrement, etc., insects such as mayflies fly and move, and are then detected by lights, windows, or environmental recognition sensors (radar, etc.). , camera, etc.).

When an insect collides in this way, the insect explodes, causing a block cage (block cage) to be attached to a light, window, or environmental recognition sensor (radar, lidar, camera, etc.) due to strong adhesive ingredients such as the insect's blood and oil components. Blockage (substance that obstructs vision) is formed.

In the case of bugs, unlike other block cages, it targets live bugs, so you must actually collect live bugs.

In addition, a block cage can be recreated by collecting live insects and then causing them to fly and collide while the car is actually driving.

In this way, block cages (vision-obstructing substances) targeting insects must be used to capture live insects and reproduce the block cage through the firing of insects, so that light or environmental recognition sensors (radar, lidar) contaminated by insects can be detected. , cameras, etc.), an evaluation test of the block cage performance evaluation device can be performed.

However, in the conventional case, there is only equipment for simple collection of insects for the purpose of insecticide, and equipment for reproducing a block cage for testing on insects has not been developed, so it is impossible to reproduce a block cage for insects. There was an unavoidable problem.

Republic of Korea Patent Registration No. 10-1711519

The present invention is to solve the above problems, and the purpose of the present invention is to reproduce the block cage for flying insects, collect moving insects in order to perform an evaluation test, and place the captured insects in a specific area. By carrying out the entire process of recreating the block cage by firing it to guide the experimenter, it not only ensures the convenience of the experimenter and allows rapid capture and reproduction tests, but also prepares for various environments by capturing various insects and reproducing the block cage. Test conditions can be reproduced. It can be moved by attaching and detaching the bug capture launcher, allowing it to capture a variety of bugs by exposing it to a variety of environments without location restrictions, minimizing the cost of reproducing the block cage and identifying the cause of the form in which bugs are obstructing vision. Furthermore, the aim is to provide an insect trap and launch device that can prevent automobile accidents.

The problems of the present invention are not limited to the problems mentioned above, and other problems not mentioned will be clearly understood by those skilled in the art from the description below.

In order to achieve the purpose of the present invention, the insect trapping and launching device according to the present invention is formed in a tube shape with the inside penetrating, and has a storage part for storing the insects collected therein: to attract the insects into the storage part. An attractor coupled to one side of the storage unit; and a switching unit coupled to the other side of the storage unit to selectively switch between a capture mode for trapping bugs in the storage unit and a reproduction mode for firing bugs captured in the storage unit from the storage unit. and an operating unit detachably coupled to the switching unit and operating in response to switching the collection mode or the reproduction mode of the switching unit.

In order to achieve the object of the present invention, the switching unit of the insect trap and launch device according to an embodiment of the present invention includes: a first switching unit coupled to the other side of the storage unit; and a second switching part inserted into and coupled to the first switching part, wherein the first switching part includes a body part formed in a tubular shape to communicate with the inside of the storage part. each having a first step portion formed to be stepped in an axial direction on a portion of the other side of the body portion and a second step portion to be stepped to be longer in an axial direction than the first step portion, and extending in a radial direction of the body portion. A plurality of first coupling parts arranged to be spaced apart at a predetermined angle with respect to the axial center; and a penetrating portion formed through a portion of the body portion so that the operating portion is detachable.

In order to achieve the object of the present invention, the second switching portion of the insect trap and launch device according to an embodiment of the present invention is formed in a tubular shape to communicate with the inside of the storage portion, and is rotatably coupled to the body portion. wealth; and each is formed to extend radially on a portion of the other side of the body portion, and is positioned at a predetermined angle relative to the axial center along the radial direction of the body portion to be positioned corresponding to a portion where each of the plurality of first coupling portions is formed. It includes a plurality of second coupling portions spaced apart from each other, wherein the switching portion is switched to a collection mode when the second coupling portion is disposed on the first step according to the rotation direction and rotation angle of the body portion, and When the second coupling portion is disposed on the second step portion, the display mode may be switched to the reproduction mode.

In order to achieve the object of the present invention, the second switching portion of the insect trap and launch device according to an embodiment of the present invention is located on the inside of the body portion to radially correspond to the plurality of second coupling portions to form a plurality of channel portions. A partition formed in part to extend radially along the axial direction for a predetermined length based on the axial center; and a penetrating portion formed around the other side of the body portion to be spaced apart at a predetermined angle with respect to the axial center to selectively correspond to the penetrating portion according to the rotation direction and rotation angle of the body portion in order to flow the air supplied from the operating portion. and a plurality of inlet holes, wherein the plurality of inlet holes are formed to communicate with each of the plurality of channel portions, so that air flowing in through the plurality of inlet holes is connected to the partition portion adjacent to the plurality of inlet holes. A plurality of plurality of guide portions flow toward the lower portion of the storage portion along guide portions that are radially spaced apart from a portion of the body portion and each extend along the axial direction and a guide portion that is formed to be tapered in the axial direction along the inner peripheral surface of the body portion at one end of the guide portion. A negative pressure can be formed in the channel portion of.

In order to achieve the purpose of the present invention, the storage part of the insect trap and launch device according to an embodiment of the present invention includes a base part; a partition portion disposed inside the base portion to divide and partition the interior of the base portion to form a plurality of chamber portions corresponding to the plurality of channel portions; a plate portion coupled to one side of the base portion to prevent bugs trapped in the plurality of chamber portions from escaping from the chamber portion; and a communication portion formed through a portion of the base portion so that insects captured in the chamber portion divided by the partition portion are launched to the outside of the chamber portion.

In order to achieve the object of the present invention, the attracting part of the insect trapping and launching device according to an embodiment of the present invention includes a receiving part detachably coupled to one side of the base part; and a light source unit disposed in the receiving unit and capable of changing color in order to attract insects to the plurality of chamber units, wherein the plate unit is formed of a transparent material to transmit light from the light source unit, and one side of the partition unit is provided with the plate unit. As the part of the other side is inserted and coupled to the partition, the partition rotates in conjunction with the partition that is interlocked according to the rotation direction and rotation angle of the body portion, but is fixed and does not move in a straight line in the axial direction. You can.

In order to achieve the object of the present invention, the insect trapping and launching device according to an embodiment of the present invention is such that when the switching unit is switched to the collecting mode, the second coupling unit is disposed on the first step unit, so that the partition unit and the partition unit Air supplied through one of the inflow holes, which are arranged to be spaced apart from each other in the axial direction and selected according to the rotation direction and angle of the body, flows through a gap spaced apart from each other in the axial direction of the partition and the plurality of channel parts. flows to all channels to form a negative pressure in all of the plurality of channel parts to trap insects while preventing the insects attracted to the plurality of chamber parts from escaping to the outside, and when the switching unit is switched to the reproduction mode, the second coupling unit As the second step is disposed, the partition part moves axially to be adjacent to the partition part, and the partition part and the partition part are placed in contact with each other, so that the one inflow selected according to the rotation direction and rotation angle of the body part The air supplied through the hole flows only through one channel portion and chamber portion communicating with the selected inlet hole, so that only insects trapped in the corresponding chamber portion can be fired through the flowing air.

The bug capture and launch device according to the present invention does not simply collect bugs for the purpose of killing insects as in the past, but performs evaluation tests by reproducing a block cage with flying bugs for testing purposes. The process of recreating a block cage can be converted to suit your needs by capturing all bugs in multiple moving chamber parts and firing them to guide only the bugs captured in a specific chamber part to a specific area. In addition, since the block cage can be reproduced repeatedly the number of times corresponding to the number of chamber parts, the block cage can be reproduced quickly and accurately, minimizing the time for block cage reproduction and improving the convenience of the tester.

In addition, the insect trap and launch device according to the present invention changes the light source of the light source part of the attractor part, and in addition, only the insect trap and launch device can be detached from the block cage reproduction device, so the insect trap and launch device can be conveniently carried and moved, so that it can be conveniently carried and moved to various places without location restrictions. It has the effect of being able to reproduce various test conditions for block cages for various environments by capturing various bugs by exposing them to the environment and reproducing the various bugs collected in the block cage.

In addition, the insect trapping and launching device according to the present invention can conveniently switch between the capture mode and the reproduction mode, and only the insect trapping and launching device can be conveniently carried and exposed to the collection location, making it possible to reproduce the block cage for various insects. At the same time, it has the effect of minimizing the cost of block cage reproduction.

Moreover, the bug capture and launch device according to the present invention captures various types of bugs and can reproduce various block cages by launching the collected bugs. As a result of the block cage reproduction of various bugs, the bugs can be released in some form to the driver of the car, the light, etc. Alternatively, it has the effect of ultimately preventing car safety accidents by checking the cause of the obstruction to the field of view of the environmental recognition sensor.

In addition, the insect trap and launch device according to the present invention efficiently guides only insects captured in a specific chamber part to the bug spray port, just as bugs collide and create a block cage while driving an actual car, and as many as the number of chamber parts. Block cage reproduction can be performed repeatedly over a period of time. By accurately and repeatedly reproducing a block cage targeting bugs, you can not only check in what form the bugs collide and form a block cage depending on the speed of the car, but also determine the shape of the block cage based on the speed of the car. The adhesion time of insects is recorded during insect collisions, and through repeated reproduction, what pressure and how much time should be required in each situation can be used to remove the block cage targeting the insect and secure the environmental awareness sensor or the driver's field of view. It has the effect of being able to obtain an accurate indicator of whether something can be done.

Figure 1 shows a perspective view of an insect trap and launch device according to an embodiment of the present invention.
Figure 2 shows an exploded view of an insect trap and launch device according to an embodiment of the present invention.
Figure 3 shows the switching unit and the partition unit combined in the trapping mode state of the insect trapping and launching device according to an embodiment of the present invention.
Figure 4 shows the partition unit coupled to the second switching unit in the trapping mode state of the insect trapping and launching device according to an embodiment of the present invention.
Figure 5 shows a cross-sectional view of portion DD of Figure 4.
Figure 6 is a diagram for explaining the state of the trapping mode of the insect trapping and launching device according to an embodiment of the present invention.
Figure 7 shows the switching unit and the partition unit combined in the reproduction mode state of the insect trap and launch device according to an embodiment of the present invention.
Figure 8 shows the partition unit coupled to the second switching unit in the reproduction mode state of the insect trap and launch device according to an embodiment of the present invention.
Figure 9 shows a cross-sectional view of portion EE of Figure 8.
Figure 10 is a diagram for explaining the state of the reproduction mode of the insect trap and launch device according to an embodiment of the present invention.
Figure 11 shows a perspective view of a block cage reproduction device equipped with an insect trap and launch device according to an embodiment of the present invention.
Figure 12 shows a block cage reproduction device with the insect trap and launch device installed and the support portion removed according to an embodiment of the present invention.

Hereinafter, an insect trap and launch device according to an embodiment of the present invention will be described in detail with reference to drawings. The embodiments introduced below are provided as examples so that the idea of the present invention can be sufficiently conveyed to those skilled in the art. Accordingly, the present invention is not limited to the embodiments described below and may be embodied in other forms. Also, in the drawings, the size and thickness of the device may be exaggerated for convenience. Like reference numerals refer to like elements throughout the specification.

The advantages and features of the present invention and methods for achieving them will become clear by referring to the embodiments described in detail below along with the accompanying drawings. However, the present invention is not limited to the embodiments disclosed below and may be implemented in various different forms. The present embodiments are merely provided to ensure that the disclosure of the present invention is complete and to be understood by those skilled in the art in the technical field to which the present invention pertains. It is provided to fully inform those who have the scope of the invention, and the present invention is only defined by the scope of the claims. Like reference numerals refer to like elements throughout the specification.

Accordingly, in some embodiments, well-known process steps, well-known structures, and well-known techniques are not specifically described in order to avoid ambiguous interpretation of the present invention.

The terminology used herein is for describing embodiments and is not intended to limit the invention. As used herein, singular forms also include plural forms unless specifically stated otherwise in the context. As used in the specification, comprises and/or comprising means the presence or addition of one or more other components, steps, operations and/or elements other than the mentioned elements, steps, operations and/or elements. It is used in a non-excluding sense. And, “and/or” includes each and every combination of one or more of the mentioned items.

Additionally, embodiments described in this specification will be described with reference to cross-sectional views and/or schematic diagrams that are ideal illustrations of the present invention. Accordingly, the form of the illustration may be modified depending on manufacturing technology and/or tolerance.

Accordingly, embodiments of the present invention are not limited to the specific form shown, but also include changes in form produced according to the manufacturing process. Additionally, in each drawing shown in the present invention, each component may be shown somewhat enlarged or reduced in consideration of convenience of explanation. Like reference numerals refer to like elements throughout the specification.

Hereinafter, the present invention will be described with reference to the drawings for explaining embodiments of the present invention.

Figure 1 shows a perspective view of an insect trap and launch device according to an embodiment of the present invention. Figure 2 shows an exploded view of an insect trap and launch device according to an embodiment of the present invention.

Figure 3 shows the switching unit and the partition unit combined in the trapping mode state of the insect trapping and launching device according to an embodiment of the present invention. Figure 4 shows the partition unit coupled to the second switching unit in the trapping mode state of the insect trapping and launching device according to an embodiment of the present invention.

Figure 5 shows a cross-sectional view taken along line D-D of Figure 4. Figure 6 is a diagram for explaining the state of the trapping mode of the insect trapping and launching device according to an embodiment of the present invention.

Figure 7 shows the switching unit and the partition unit combined in the reproduction mode state of the insect trap and launch device according to an embodiment of the present invention. Figure 8 shows the partition unit coupled to the second conversion unit in the reproduction mode state of the insect trap and launch device according to an embodiment of the present invention.

Figure 9 shows a cross-sectional view taken along line E-E of Figure 8. Figure 10 is a diagram for explaining the state of the reproduction mode of the insect trap and launch device according to an embodiment of the present invention.

Figure 11 shows a perspective view of a block cage reproduction device equipped with an insect trap and launch device according to an embodiment of the present invention. Figure 12 shows a block cage reproduction device with the insect trap and launch device installed and the support portion removed according to an embodiment of the present invention.

The definitions of terms used below are as follows. “Horizontal direction” means the X-axis direction in Figure 11, “vertical direction” means the direction perpendicular to the It refers to the height direction in the same member while being perpendicular to the axial direction, that is, the Z-axis direction in FIG. 11.

In addition, the axial center (A) refers to the base portion of the circular tube shape, the body portion, and the center (A) of the tube located inside the body portion, and the axial direction (C-C) refers to the center (A) that passes through the axial center (A). It refers to the axis of the pipe, and the radial direction (R) refers to the direction in which it expands radially or contracts in the axial direction.

Referring to FIGS. 1 to 12, an insect trap and launch device 1000 according to an embodiment of the present invention will be described.

Referring to FIG. 11, the insect trapping and launching device according to an embodiment of the present invention can be placed in the vertical direction (Y-axis direction) in a detachable manner on the upper part of the support part 2000 of the block cage reproduction device 1. ..

As shown in Figures 1 to 10, the insect trapping and launching device 1000 according to an embodiment of the present invention includes a storage part 1100, an attracting part 1200, a switching part 1300, and an operating part 1400. Includes.

The bug capture and launch device (1000) according to an embodiment of the present invention, which is a component device of the block cage reproduction device (1), is a device or a general device for reproducing a block cage for performing an environmental recognition sensor performance test for an autonomous vehicle. This is a device for reproducing block cages that obstruct the driver's view, such as car lights or windows. In particular, it relates to a device that targets insects among various block cages.

Autonomous driving refers to a technology that recognizes the situation through the operation of various environmental sensors and devices, operates the actuator for driving based on this, and automatically drives to a specified destination without or with minimal driver intervention.

Therefore, unlike regular vehicles, self-driving cars must replace the driver and the technology to operate the self-driving car must have its own performance to the point where it can replace the driver.

In addition, due to the nature of vehicles being exposed to various environments, the performance of the technology itself must be continuously maintained so that autonomous vehicles can drive autonomously on behalf of the driver regardless of the environment.

In particular, in the case of environmental awareness sensors that recognize the surrounding environment of autonomous vehicles that replace the driver's senses, the performance of the environmental awareness sensors themselves must be secured and maintained in any environment to prevent traffic accidents and reduce loss of life due to traffic accidents. It can be minimized and social problems such as lowering anxiety about the safety of self-driving cars can be resolved.

In addition, even in the case of a general car operated by a driver, if blockage (visibility-obstructing substances) occurs in elements that can obstruct the driver's field of vision, such as lights or windows, it becomes a factor that impedes safe driving. It can also be applied in the same way as self-driving cars.

The insect trap and launch device 1000 according to an embodiment of the present invention is a performance assurance device that cleans environmental recognition sensors (or lights, windows, etc.) exposed to various environments and contaminated by block cages (visibility-obstructing substances). This is about a device that reproduces the block cage needed to evaluate the performance of removing blockage (obstructing visibility).

An environmental awareness sensor refers to a cognitive sensor installed in an autonomous vehicle to recognize the surrounding environment, and includes, for example, cameras, radars, and riders.

A performance assurance device refers to a device that continuously maintains the performance of environmental sensors (or lights, windows, etc.) mounted on an autonomous vehicle, and includes fluid spraying methods, wiping methods, electrical methods, 2 It can be done in a variety of ways, such as a complex method that combines more than two methods.

Blockage (visibility-obstructing substances) refers to contaminants that can occur when self-driving cars are exposed to the environment, such as water droplets, snow, rain, traces of water droplets, insects, dust, bird excrement, water stains, etc. .

That is, the insect trapping and launching device 1000 according to an embodiment of the present invention is a block cage (blockage, visibility-obstructing material) attached to an environmental recognition sensor (or light, window, etc.) of an autonomous vehicle without driver operation. It prevents errors in the operation of the environment recognition sensor (or light, window, etc.) from occurring due to the environment sensor (or light, window, etc.) or, if an operation error occurs, quickly restores the performance of the environment recognition sensor (or light, window, etc.) to normal to ensure safe driving. This is a device for reproducing block cages, especially block cages for bugs, in order to evaluate the performance of performance assurance devices that can be supported.

The storage part 1100 of the insect trapping and launching device 1000 according to an embodiment of the present invention is formed in a tube shape with an inner side penetrating, and can store the insects B captured inside the tube shape.

The storage unit 1100 may specifically include a base unit 1110, a chamber unit 1120, a partition unit 1130, a plate unit 1140, and a communication unit 1150.

The base portion 1110 is formed in a tubular shape with the inside penetrating, providing a space for storing the bugs (B) collected therein.

The chamber portion 1120 is formed in plural pieces as it is divided by the partition portion 1130, and is formed in a portion corresponding to the channel portion 1323, communicates with the channel portion 1323, and moves through the channel portion 1323. Insects (B) are partitioned and stored in each chamber portion (1120).

The partition portion 1130 is disposed inside the base portion 1110 to form a plurality of chamber portions 1120 corresponding to the plurality of channel portions 1323 and divides the interior of the base portion 1110.

That is, the interior of the base unit 1110 is divided into a plurality of chamber units 1120 by the partition unit 1130, and the collected bugs B are stored separately in each chamber unit 1120.

In the drawing, it is shown that three chamber units 1120 are formed by the partition unit 1130. It is not limited to this, and the shape of the partition part is changed to suit the conditions of the experiment, such as the type and number of block cages and/or the size of the base part 1110 for the bug (B) to be reproduced, and the shape of the changed partition part is changed. Depending on the size, the number of chamber parts may vary.

Additionally, one side of the partition unit 1130 is fixedly coupled to the plate unit 1140, and a portion of the other side is inserted and coupled to the partition unit 1324 of the second switching unit 1320.

Accordingly, the partition unit 1130 rotates in conjunction with the partition unit 1324 in accordance with the rotation direction and rotation angle of the body unit 1321, but is fixedly disposed without moving linearly in the axial direction (C-C).

Specifically, in the case of the reproduction mode, the second coupling part 1322 rotates in conjunction with the rotation of the body portion 1321, and as a result, the second coupling part 1322 is the second coupling part of the first coupling part 1312. When located at the step portion 1314, the second coupling portion 1322 is moved in a direction adjacent to the attraction portion by the distance that the second step portion is stepped in the axial direction compared to the first step portion.

In this state, a part of the other side of the partition unit 1130 is inserted and coupled to the partition unit 1324 of the second switching unit 1320, so the partition unit 1130 is a partition unit that rotates in conjunction with the rotation of the body unit 1321. being rotated together through (1324). The space between the partition 1130 and the partition 1324 is closed without any gap.

Through this, the air introduced by the operating unit 1400 flows in through one specific inlet hole in communication with the penetration part, and becomes a reproduction mode in which only insects in a specific chamber part in communication with the specific inlet hole can be launched.

Meanwhile, in the case of the collection mode, the second coupling portion 1322 rotates in conjunction with the rotation of the body portion 1321, and as a result, the second coupling portion 1322 is the first coupling portion of the first coupling portion 1312. When located at the step portion 1313, the second coupling portion 1322 is moved away from the attraction portion by the distance that the second step portion is stepped in the axial direction.

In this state, a part of the other side of the partition unit 1130 is inserted and coupled to the partition unit 1324 of the second switching unit 1320, so the partition unit 1130 is a partition unit that rotates in conjunction with the rotation of the body unit 1321. They are rotated together through (1324).

However, since one side of the partition portion 1130 is fixedly coupled to the plate portion 1140, it does not move with the axial movement of the second step portion and remains fixed, and as a result, the partition portion and the partition portion are arranged to be spaced apart from each other in the axial direction. In between, a gap (W) through which air can flow is formed.

Through this, the air introduced by the operating unit 1400 flows through one specific inlet hole in communication with the penetrating part, but flows through the gap W where the compartment and partition are spaced apart from each other in the axial direction to a plurality of chamber parts. As it flows in, it enters a collection mode that captures bugs in all chamber parts.

As such, the bug capture and launch device according to the present invention does not simply collect bugs for the purpose of killing insects as in the past, but has a plurality of chambers that move so that evaluation tests can be performed by reproducing a block cage for flying and moving bugs. The process of recreating a block cage is carried out by capturing all bugs in all parts and firing them to guide only the bugs captured in a specific chamber part to a specific area. Not only is this process converted to suit the needs, but it is also carried out in accordance with the number of chamber parts. Since the block cage can be reproduced repeatedly, the block cage can be reproduced quickly and accurately, minimizing the time for block cage reproduction and improving the convenience of the experimenter.

The plate portion 1140 is coupled to one side of the base portion 1110 to prevent the bugs B captured in the plurality of chamber portions 1120 from leaving the chamber portion 1120.

The plate portion 1140 may be formed of a transparent material to transmit light from the light source portion 1220 of the attraction portion 1200.

The communication part 1150 is formed through a part of the base part 1110 so that the insects (B) captured in the chamber part 1120 divided by the partition part 1130 are fired to the outside of the chamber part 1120. .

That is, as the switching unit 1300 switches, each chamber unit 1120 divided by the partition unit 1130 rotates, and through the rotation of the chamber unit 1120, the communication unit 1150 and a specific One chamber part 1120 is in communication.

For example, when the chamber unit 1120 consists of three chamber units 1120 as shown in the drawing, the partition unit 1130 rotates through the switching of the conversion unit 1300, that is, the rotation of the conversion unit, and the chamber unit 1130 rotates through the rotation of the partition unit. The part 1120 can also be rotated so that the chamber part can sequentially communicate with the communication part 1150 three times.

Through this, the bugs collected in each of the three chamber parts can be fired three times, allowing the block cage to be reproduced three times.

In this way, the bug collection and launch device according to the present invention efficiently guides only the bugs collected in a specific chamber to the bug spray port, just as bugs collide while driving an actual car and a block cage is created, and sends out as many bugs as the number of chambers. Block cage reproduction can be repeated over and over again. By accurately and repeatedly reproducing a block cage targeting bugs, not only can you see what form the bugs collide with to form a block cage depending on the speed of the car, but you can also check the shape of the block cage depending on the speed of the car. In the event of an insect collision, the adhesion time of the insect is recorded, and through repeated reproduction, what pressure and how much time should be required in each situation can be used to remove the block cage targeting the insect to secure the environmental awareness sensor or the driver's field of view. There is an effect of obtaining an accurate indicator of the presence of

The attractor 1200 of the insect trap and launch device 1000 according to an embodiment of the present invention is coupled to one side of the storage unit 1100 to attract the bugs B into the storage unit 1100.

The attraction unit 1200 may include a receiving unit 1210 and a light source unit 1220.

The receiving portion 1210 is detachably coupled to one side of the base portion 1110 of the storage portion 1100.

The light source unit 1220 is disposed in the receiving unit 1210 and is capable of changing color in order to attract bugs B to the plurality of chamber units 1120.

Since the wavelength of the light source unit 1220 can be changed to capture insects caught by the corresponding wavelength, various types of insects can be captured through the color-changing light source unit.

In addition, wavelengths that do not attract insects can also be identified.

In this way, the insect trapping and launching device according to the present invention changes the light source of the light source part of the decoy part, and in addition, only the insect trapping and launching device can be attached and detached from the block cage reproduction device, so that the insect trapping and launching device can be conveniently carried and moved in various environments without location restrictions. It is possible to reproduce various test conditions for block cages for various environments by capturing various bugs by exposing them to and reproducing the block cage for various collected bugs.

The switching unit 1300 of the bug capture and launch device 1000 according to an embodiment of the present invention has a collection mode for collecting bugs (B) in the storage unit 1100 and a collection mode for collecting bugs in the storage unit 1100. It is coupled to the other side of the storage unit 1100 to selectively switch the reproduction mode emitted from 1100.

in other words. Through the operation of the switching unit 1300, a collection mode for collecting bugs (B) in all of the plurality of chamber units 1120 in one equipment and bugs collected in a specific chamber unit 1120 are sequentially selected. All reproduction modes for repeatedly reproducing the block cage by firing can be implemented.

Specifically, the switching unit 1300 may include a first switching unit 1310 and a second switching unit 1320.

The first switching unit 1310 is coupled to the other side of the storage unit 1100.

The first switching part 1310 may include a body part 1311, a first coupling part 1312, and a penetrating part 1315.

The body portion 1311 is formed in a tubular shape to communicate with the inside of the storage portion.

The first coupling portion 1312 is comprised of a plurality of first coupling portions 1312 and is selectively coupled to the plurality of second coupling portions of the second switching unit.

The plurality of first coupling portions 1311 are arranged to be spaced apart at a predetermined angle relative to the axial center A along the radial direction R of the body portion 1311 as a whole.

Additionally, each first coupling portion 1312 may include a first step portion 1313 and a second step portion 1314.

The first step portion 1313 is formed to be stepped in a portion of the circumference of the other side of the body portion 131 in the axial direction (C-C).

That is, when the second coupling portion of the second switching portion 1320 is located in the first step portion 1313, the second switching portion 1320 is attracted by the stepped length in the axial direction of the first step portion 1313. It moves in the axial direction (C-C) adjacent to the unit 1200.

The second step portion 1314 is formed to be stepped longer in the axial direction (C-C) than the first step portion 1313.

That is, when the second coupling portion of the second switching portion 1320 is located in the second step portion 1314, the second step portion 1314 is located in the axially stepped length of the first step portion 1313. As the stepped length in the axial direction is added, the second switching unit 1320 moves further in the axial direction (C-C) adjacent to the attraction unit 1200.

The penetrating portion 1315 is formed through a portion of the body portion 1311, and the operating portion 1400 is detachable from the penetrating beam so that air can flow in through the operating portion.

The second switching unit 1320 is inserted and coupled to the first switching unit 1310.

Specifically, the second switching part 1320 includes a body part 1321, a second coupling part 1322, a channel part 1323, a partition part 1324, an inlet hole 1325, an induction part 1326, and a guide part. May include (1327).

The body portion 1321 is formed in a tubular shape to communicate with the interior of the storage portion 1100, and is rotatably coupled to the body portion 1311.

That is, the body portion 1321 is formed in a tubular shape to communicate with a plurality of chamber portions divided by the partition portion 1130 disposed inside the base portion 1110.

The second coupling portion 1322 may be formed in plural numbers corresponding to the number of first coupling portions 1312.

Specifically, the plurality of second coupling portions 1322 are positioned relative to the axial center (A) along the radial direction (R) of the body portion (1321) to correspond to the portion where each of the first coupling portions (1312) is formed. are arranged to be spaced apart at a predetermined angle.

For example, if three first coupling parts 1312 are arranged along the radial direction (R, that is, the circumferential direction of the body part) of the body part 1311 as shown in the drawing, a corresponding number of second coupling parts 1312 are placed at corresponding positions. Three coupling portions 1322 are also disposed.

Additionally, each second coupling portion is formed to extend in the radial direction (R) on a portion of the circumference of the other side of the body portion 1321.

That is, the second coupling portion is formed on a portion of the other side of the body portion to extend radially so as to protrude beyond the body portion, and is formed to be caught by the first step portion or the second step portion of the first coupling portion.

The channel portion 1323 is formed in plural pieces as it is divided by the partition portion 1324, and is formed in a portion corresponding to the chamber portion 1120 and communicates with the chamber portion 1120 to remove insects through the channel portion 1323. When (B) flows in and is collected, the collected bugs are partitioned and stored in each chamber portion 1120.

The partition portion 1324 has an axial center (A) at a portion of the inner portion of the body portion 1321 to correspond to the plurality of second coupling portions 1322 in the radial direction (R) to form a plurality of channel portions 1323. It is formed to extend radially along the axial direction (C-C) for a predetermined length based on .

That is, the partition portion 1324 is a second coupling portion 1322 so that it can be accurately divided when coupled to the first step or the second step according to the rotation direction and rotation angle of the plurality of second coupling portions 1322. It is formed radially with a corresponding part in the radial direction (R).

For example, as shown in the drawing, three second coupling portions are formed radially from the axial center A to correspond radially to the portion where the three second coupling portions are located.

In addition, the three radially formed portions are extended in the axial direction for a predetermined length to form three radially formed portions, and a partition portion composed of three radially portions is coupled to the extended portions.

There are a plurality of inlet holes 1325, and the plurality of inlet holes 1325 are formed entirely around the other side of the body portion 1321 to be spaced apart from each other at a predetermined angle with respect to the axial center A.

Through this, when the body portion 1321 is rotated to switch the switching portion, even if the second coupling portion is selectively located at the first step or otherwise depending on the rotation direction and rotation angle of the body portion 1321, 2 Even when the coupling portion is located at the second step portion, one of the plurality of inlet holes selected according to the rotation direction and rotation angle of the body portion 1321 may be positioned to correspond to the through portion 1315.

In this way, when one of the inlet holes selected according to the rotation direction and rotation angle of the body portion 1321 is positioned to correspond to the penetration portion 1315, the air supplied from the operating unit 1400 attached to the penetration portion 1315 is It can flow into the inside of the channel portion 1323 through the selected inlet hole 1325.

The plurality of inlet holes 1325 of the insect trap and launch device 1000 according to an embodiment of the present invention are formed to communicate with the plurality of channel portions 1323, respectively.

In the reproduction mode, air flowing in through a specific inlet hole may flow into one chamber portion through a channel portion communicating with the specific inlet hole.

However, even in the collection mode, air flows in through one specific inlet hole connected to the penetrating part, but air flows through the gap (W) where the partition part and the partition part are spaced apart from each other in the axial direction and flows into the plurality of chamber parts through the plurality of channel parts. It can be...

In particular, when in the collection mode, the air flowing in through the plurality of inlet holes 1325 is radially (R) directed to a portion of the partition portion 1324 and the body portion 1321 so as to be adjacent to the plurality of inlet holes 1325. A guide portion 1326 that is spaced apart from each other and extends along the axial direction (C-C) and a guide portion 1327 that is tapered in the axial direction (C-C) along the inner peripheral surface of the body portion 1321 at one end of the guide portion 1326. While flowing to the lower part of the storage unit 1100, negative pressure may be formed in the plurality of channel units 1323.

In detail, the air flowing in through the inlet hole 1325 naturally flows in the axial direction (C-C) adjacent to the attraction part 1200 by the guide part 1325, and flows along the tapered surface of the guide part 1327. As a result, a negative pressure is formed inside the chamber due to the pressure difference.

Through this, an air curtain is formed in the channel portion so that insects trapped in the chamber cannot escape even when the cap portion 1500 is removed and the switching portion 1300 is opened to trap insects.

Accordingly, the collection of bugs is carried out efficiently to minimize the collection time, and the convenience of the experimenter is maximized by maximizing the amount of bugs collected. Furthermore, the number of repetitions of block cage reproduction is increased and the block cage is reproduced through an appropriate insect strategy. The accuracy of block cage reproduction can be improved.

The cap part 1500 is detachably installed on the switching part 1300, and in the collection mode, the cap part 1500 is detached to open the switching part so that insects are captured by being attracted by the attracting part.

Meanwhile, in the reproduction mode, the cap part is attached to the switching part and closes the switching part to prevent insects from escaping through the trapped inlet hole.

In addition, although not necessarily limited to this, the method of switching between the collection mode and the reproduction mode with the cap attached to the switching unit may include coupling the cap to the switching unit so that the switching unit can also be rotated when the cap unit is rotated. Alternatively, the cap unit may be connected to the switching unit. In the attached state, the second coupling portion 1322 protruding outside the cap portion can be rotated to switch.

Hereinafter, the capture mode and reproduction mode of the insect collection and launch device 1000 according to an embodiment of the present invention will be described.

The switching unit 1300 of the bug trap and launch device 1000 according to an embodiment of the present invention has the second coupling unit 1322 connected to the first step unit 1313 according to the rotation direction and rotation angle of the body unit 1321. When placed in, it switches to the collection mode, and when the second coupling part 1322 is placed in the second step 1314, it switches to the reproduction mode.

That is, when the switching unit 1300 is switched to the collection mode, the second coupling unit 1322 is disposed on the first step 1313, so that the partition unit 1324 and the partition unit 1130 move in the axial direction (C-C). Air supplied through one inlet hole 1325, which is arranged to be spaced apart from each other and selected according to the rotation direction and rotation angle of the body portion 1321, moves in the axial direction (C-C) of the partition portion 1324 and the partition portion 1130. flows to all of the plurality of channel parts 1323 through the gaps (W) spaced apart from each other, forming negative pressure in all of the plurality of channel parts 1323, so that insects attracted to the plurality of chamber parts 1323 escape to the outside. Efficiently captures insects while preventing insects from forming.

In addition, when the switching unit 1300 is switched to the reproduction mode, the second coupling unit 1322 is disposed on the second step unit 1314 so that the partition unit 1324 is adjacent to the partition unit 1130 in the axial direction ( Moving to C-C), the partition portion 1324 and the partition portion 1130 are placed in contact with each other, and the air supplied through one inlet hole 1325 selected according to the rotation direction and angle of the body portion 1321 is selected. Insects are launched through air that flows only through the channel portion 1323 and the chamber portion 1120 in communication with the inlet hole 1325, and only the insects trapped in the chamber portion 1120 are flown.

In this way, the bug collection and launch device according to the present invention captures various types of bugs and fires the collected bugs to reproduce various block cages. As a result of the block cage reproduction of various bugs, the bugs are released in some form to the driver of the car, the light, etc. Alternatively, you can ultimately prevent car accidents by checking the cause of the obstruction to the view of the environment recognition sensor.

In addition, the insect trapping and launching device according to the present invention can conveniently switch between the capture mode and the reproduction mode, and only the insect trapping and launching device can be conveniently carried and exposed to the collection location, making it possible to reproduce the block cage for various insects. At the same time, the cost of block cage reproduction can be minimized.

The operating unit 1400 of the insect trapping and launching device 1000 according to an embodiment of the present invention is detachably coupled to the switching unit 1300 and operates in response to the conversion of the switching unit 1300 into a capture mode or reproduction mode. .

That is, the operating unit 1400 is detachably coupled to the penetrating part 1315 of the first switching unit 1310 and supplies air through the inlet hole 1325 located in the penetrating part.

Although it is not necessarily limited to this. The operating unit 1400 may be a blower that supplies air. The wind pressure can be adjusted through a motor, so in the collection mode, it creates a negative pressure inside the chamber and operates at an appropriate wind pressure to prevent the trapped bugs from escaping, and in the reproduction mode, the bugs cannot escape. It is operated by wind pressure that can be moved from the storage unit 1100 to the launch unit 4100, allowing the block cage to be reproduced with launched bugs.

In addition, the storage part, attraction part, switching part, operation part, and/or cap part of the insect trap and launch device according to another preferred embodiment of the present invention include a waterproof coating layer, and this waterproof coating layer is made using a waterproof coating composition. is formed Additionally, as another example, shrink film or vacuum film may be used. At this time, PP, PE, etc. are used as materials for shrink film and vacuum film.

The waterproof coating composition includes a silane compound represented by the following formula (1); bookbinder; inorganic particles; Contains surfactants and dispersants.

[Formula 1]

The binder is selected from the group consisting of acrylic binders, urethane binders, silicone binders, and mixtures thereof, and more specifically, silicone binders. More specifically, polyhydrosiloxane may be used as the binder, but is not limited to the above examples.

The surfactant is a betaine-based surfactant, and more specifically, alkylbetaine-based, amidebetaine-based, sulfobetaine-based, hydroxysulfobetaine-based, amidosulfobetaine-based, phosphobetaine-based and imidazolinium betaine-based. It may be selected from the group consisting of, but is not limited to the above examples.

The dispersant may be a known ingredient employed in the art as a dispersant for carbon-based filler. More specifically, polyester-based dispersant, polyphenylene ether-based dispersant, polyolefin-based dispersant, acrylonitrile-butadiene-styrene copolymer dispersant, polyarylate-based dispersant, polyamide-based dispersant, polyamidoimide-based dispersant, polyaryl sulfone-based dispersant. Dispersant, polyetherimide-based dispersant, polyethersulfone-based dispersant, polyphenylene sulfide-based dispersant, polyimide-based dispersant; Polyether ketone-based dispersant, polybenzoxazole-based dispersant, polyoxadiazole-based dispersant, polybenzothiazole-based dispersant, polybenzimidazole-based dispersant, polypyridine-based dispersant, polytriazole-based dispersant, polypyrrolidine-based dispersant, polydibenzofuran It may be selected from the group consisting of dispersants based on polysulfone, polyurea-based dispersants, polyurethane-based dispersants, polyphosphazene-based dispersants, and mixtures thereof, but is not limited to the above examples.

The inorganic particles are selected from the group consisting of titanium sol, alumina sol, silica sol, and mixtures thereof. Preferably, a mixture of alumina sol and silica sol can be used, but is not limited to the above example.

More specifically, the coating composition includes a binder, and 30 to 50 parts by weight of a silane compound represented by the following formula (1), based on 100 parts by weight of the binder; 5 to 10 parts by weight of inorganic particles; It may contain 10 to 20 parts by weight of surfactant and 10 to 15 parts by weight of dispersant. When used within the above range, a waterproofing effect appears due to the mixing effect between the components of the coating composition, and when used below or exceeding the range, a problem may occur in which the waterproofing effect is impaired.

The waterproof coating composition can be used to form a waterproof coating layer using a spray coating method, and other known methods other than the spray coating method can be used to form a waterproof coating layer using the waterproof coating composition.

Accordingly, when the insect trap and launch device is left outdoors, that is, exposed outdoors where bugs are, in order to capture bugs through the bug trap and launch device, the storage part of the insect trap and launch device, which is always exposed to liquids such as raindrops and water, is attracted. By maximizing the waterproofness of the unit, transition unit, operating unit, and/or cap unit, water sprayed through the spray unit is prevented from entering each part or equipment and causing equipment failure or damage, thereby reducing maintenance costs and time. , it can improve the convenience and safety of workers and managers, increase lifespan, and maximize stability and reliability.

With reference to FIGS. 11 and 12 , a block cage reproduction device 1 for reproducing a block cage through collected insects, including an insect collection and launch device 1000 according to an embodiment of the present invention, will be described.

The block cage reproduction device (1) includes an insect collection and launch device (1000), a support unit (2000), an insect collision device (3000), a guidance device (4000), and a control unit (5000).

The support unit 2000 of the block cage reproduction device 1 is for installing some or all of the insect collision device 3000, the guidance device 4000, and the control unit 5000.

The lower part of the support part 2000 is provided with a support plate 2100 and a support pin 2200 coupled to the support plate to adjust the height in a vertical direction.

The vertical height of some or all of the insect collision device (3000), guidance device (4000), and control unit (5000) arranged at the top can be adjusted through the support pin, thereby improving the convenience of test work.

Meanwhile, referring to FIG. 11, the block cage reproduction device 1 has an insect trap and launch device 1000 disposed vertically on the upper part of the support part 2000. The insect collision device 3000 is arranged to be perpendicular to the insect collection and launch device 1000 in the horizontal direction (X-axis direction), and the guidance device 4000 is arranged to be perpendicular to the insect collision device 3000 in the vertical direction (Z-axis direction). Each device is arranged compactly on the support unit 2000 to face each other.

Through this arrangement, the block cage reproduction device (1) not only promotes the compactness and miniaturization of the block cage reproduction device to facilitate movement and portability of the block cage reproduction device, but also reduces the limitations of the installation space of the block cage reproduction device. can overcome.

The insect collision device 3000 of the block cage reproduction device 1 is provided with a specimen portion 3400, and the insects (B) captured in the insect collection and launch device 100 are launched and collide with the specimen portion 3400 to block It is arranged at right angles to the insect trap and launch device 1000 in the horizontal direction (X-axis direction) on the upper part of the support part 2000 to reproduce the cage.

Specifically, the insect collision device 3000 includes a motor unit 3100, a shaft unit 3200, a rotating unit 3300, and a specimen unit 3400.

The motor unit 3100 is installed in the support unit 2000 in the horizontal direction (X-axis direction) and provides power to rotate the shaft unit.

The motor unit 3100 can be turned on/off by control of the control unit 5000, and the operating speed can be controlled.

The speed of the motor unit 3100 can be set to the maximum speed of the motor unit 3100 and the distance from the central axis (Y-Y) to the specimen unit 3400 to reproduce the same speed as the actual vehicle driving speed.

For example, the motor part utilizes a BLDC motor capable of high-speed rotation for a long time and operates at a maximum of 5800 rpm. In reality, it can be designed based on a maximum of 4,000 rpm considering stability, and the distance from the center of the motor to the center of the specimen can be set to 0.1 m. .

In addition, the motor unit 3100 can be automatically controlled using an encoder to maintain various speeds suitable for various reproduction conditions that can reproduce vehicle speeds up to 150 km/h.

The shaft unit 3200 is rotatably coupled to the motor unit 3100 and transmits the rotational force of the motor unit 3100 to rotate the rotary unit 3300.

The rotating unit 3300 is installed on the shaft unit 3200 to be rotatable in conjunction with the shaft unit 3200, and rotates the specimen unit 3400 to reproduce a situation as if an actual vehicle were driving.

The specimen portion 3400 is detachably coupled to one or both ends of the rotating portion.

The specimen unit 3400 rotates in conjunction with the rotation of the rotating unit 3300, and is launched from the insect collection launcher 1000 and guided to the ballet nozzle 4130 to collide with the gathered insects to reproduce the block cage. .

One side of the guidance device 4000 of the block cage reproduction device 1 is in communication with the insect collection and launch device 1000 in the horizontal direction (X-axis direction) and faces the insect collision device 3000 in the vertical direction (Z-axis direction). It is placed on the support unit 2000 to guide the bug B launched from the bug collection and launch device 1000 to the bug collision device 3000.

Specifically, the guidance device 4000 may include a launching unit 4100 and an opening/closing unit 4200.

One side of the launch unit 4100 is detachably coupled to the insect trap and launch device 1000.

In other words, the launching unit 4100 may have the insect trapping and launching device 1000 attached to one side, and when attached, the inside of the launching unit 4100 is connected to the storage part 1100 of the insect collecting and launching device 1000. It can be communicated with the chamber part 1120 of the insect trapping and launching device 100 through the part 1150.

Therefore, among the plurality of chamber units 1120, the chamber unit 1120 selected by switching the reproduction mode of the switching unit 1300 is communicated with the launch unit 4100 by the communication unit 1150 and is captured in the selected chamber unit 1120. The bug (B) can be launched.

Additionally, the launch unit 4100 may include a guard unit 4110, a partition wall unit 4120, and an insect spray port 4130.

The guard part 4110 has a space inside and extends in a tubular shape, and is connected to the insect trapping and launching device 100 through the communication part 1150 formed through the storage part 1100 of the insect collecting and launching device 1000. It may be in communication with the chamber portion 1120.

That is, in the reproduction mode in which a bug (B) is fired from the bug collection and launch device (1000), the bug (B) launched from the chamber part (1120) passes through the communication part (1150) and the internal space of the guard part (4110). It moves.

The partition wall portion 4120 is formed to cover the other side of the guard portion 4110.

Accordingly, the air supplied from the operating part 1400 of the insect trapping and launching device 1000 flows along the guard part 4110 and is switched by the partition wall part 4120 in the direction where the insect nozzle 4130 is located. It flows out through the insect nozzle (4130).

The insect spray port 4130 is formed open on the lower side of the guard portion 4110 so as to be adjacent to the partition wall portion 4120.

The bug spray port (4130) is a part where bugs (B) must be positioned to reproduce the block cage, and the bugs (B) are blown by air supplied from the operating part 1400 of the bug collection and launch device 1000. It is guided to move to the injection port 4130.

The opening/closing unit 4200 is disposed in the launch unit 4100 adjacent to the insect trap and launch device 1000.

Specifically, the opening and closing part 4200 is closed in the trapping mode in which bugs (B) are captured in the insect trapping and launching device 1000, thereby closing the launching part 4100 so as not to communicate with the insect catching and launching device 1000.

Meanwhile, the opening and closing part 4200 is opened in the reproduction mode in which the bug (B) is launched from the bug collecting and launching device 1000, thereby opening the launching part 4100 to communicate with the insect collecting and launching device 1000.

Although it is not necessarily limited to this. The opening/closing unit 4200 may be made of a ball valve or the like.

The process in which the bug (B) moves by the block cage reproduction device (1) is explained.

The launch unit 4100 is connected to the chamber part of the insect trap and launch device 100 through the communication part 1150 formed through the storage part 1100 of the insect trap and launch device 1000 with the opening and closing part 4200 open. 1120).

In this state, the bug (B) launched from the insect trapping and launching device (1000) passes through the opening and closing part (4200) by the air supplied from the operating part (1400) of the insect collecting and launching device (1000) and passes through the guard part. While moving along (4110), the movement is blocked by the partition wall (4120) and as the insects (B) return, they are induced to move to the insect spray port without spreading elsewhere.

In addition, the process of reproducing the block cage by moving the bug (B) using the block cage reproducing device (1) will be explained.

As the motor unit 3100 of the block cage reproduction device 1 rotates under the control of the control unit 5000, the rotation unit 3300 rotates at the same angular speed as the motor unit 3100.

In addition, when the rotating part 3300 rotates, the specimen part 3400 coupled to one or both ends of the rotating part 3300 rotates in conjunction, so the specimen part 3400 repeats the bug spray hole 4130 at a predetermined speed ( It passes and turns at the speed at which the actual vehicle travels.

As the specimen unit 3400 repeatedly passes through the bug spray port 4130 and rotates at a predetermined speed, the bug B guided by the bug spray port 4130 collides with the specimen unit 3400 to reproduce the block cage.

The control unit (5000) of the block cage reproduction device (1) is an insect trap and launch device (1000). Controls the operation and operating sequence of the insect collision device (3000) and guidance device (4000).

Specifically, in the capture mode, the control unit 5000 closes the opening/closing portion 4200 and operates the insect trapping and launching device 1000 so that insects are captured in the insect trapping and launching device 1000.

That is, the control unit 5000 closes the opening and closing part 4200 to prevent the launching part 4100 from communicating with the insect collection and launching device 1000, so that the insects (B) collected in the chamber part 1120 are released from the insect nozzle 4130. ) prevent it from moving to .

Additionally, the control unit 5000 operates the insect trapping and launching device 1000 so that insects are captured in the insect trapping and launching device 1000.

In other words, the operating unit 1400 is operated with air at a speed that traps insects, so that negative pressure is formed in all of the plurality of chamber parts, thereby efficiently trapping insects in the chamber parts.

Meanwhile, the control unit 5000 opens the opening/closing portion 4200 in the reproduction mode and operates the insect trapping and launching device 1000 so that the bugs (B) are attracted to the insect nozzle 4130. At the same time, the insect collision device 3000 is operated by automatically adjusting the rotational speed of the motor unit 3100 to implement the driving speed of the car to be tested in real time.

That is, the control unit 5000 opens the opening and closing part 4200 to communicate with the launching part 4100 and the insect collection and launching device 1000, so that the insects (B) collected in the chamber part 1120 enter the insect nozzle 4130. Allow it to be moved to .

In addition, the control unit 5000 operates the operating unit 1400 with air at a speed to launch the insect so that the insect B is attracted to the insect nozzle 4130 in the insect trap and launch device 1000, thereby drawing the insect into the insect nozzle 4130. ) Operate the insect trap and launch device (1000) to guide it.

At the same time, the control unit 5000 automatically adjusts the rotation speed of the motor unit 3100 to implement the vehicle driving speed to be tested in real time by the insect collision device 3000.

Although the detailed description of the present invention described above has been described with reference to preferred embodiments of the present invention, those skilled in the art or those skilled in the art will understand the present invention as described in the patent claims to be described later. It will be understood that various modifications and changes can be made to the present invention without departing from the spirit and technical scope. Therefore, the technical scope of the present invention should not be limited to what is described in the detailed description of the specification, but should be defined by the scope of the claims.

1000: Bug collection launcher,
1100: storage unit,
1200: Induction section,
1300: transition section,
1400: operating unit

Claims (7)

A storage unit formed in a tube shape with a penetrating inner surface to store insects collected therein;
an attractor coupled to one side of the storage unit to attract insects into the storage unit; and
a switching unit coupled to the other side of the storage unit to selectively switch between a capture mode in which bugs are captured in the storage unit and a reproduction mode in which bugs captured in the storage unit are fired from the storage unit; and
An operating unit that is detachably coupled to the switching unit and operates in response to switching the capturing mode or the reproduction mode of the switching unit.
According to paragraph 1,
The switching unit,
a first switching unit coupled to the other side of the storage unit; and
It includes a second switching unit inserted and coupled to the first switching unit,
The first conversion unit,
a body portion formed in a tubular shape to communicate with the interior of the storage portion;
each having a first step portion formed to be stepped in an axial direction on a portion of the other side of the body portion, and a second step portion to be stepped to be longer in an axial direction than the first step portion, and extending in a radial direction of the body portion. A plurality of first coupling parts arranged to be spaced apart at a predetermined angle with respect to the axial center; and
An insect trap and launch device comprising a penetrating portion formed through a portion of the body portion so that the operating portion is detachable.
According to paragraph 2,
The second conversion unit,
a body portion formed in a tubular shape to communicate with the interior of the storage portion and rotatably coupled to the body portion; and
Each is formed to extend in the radial direction on a portion of the other side of the body, and is spaced apart at a predetermined angle with respect to the axial center along the radial direction of the body so as to be positioned corresponding to the portion where each of the plurality of first coupling parts is formed. It includes a plurality of second coupling portions arranged to be
The switching unit is switched to a collection mode when the second coupling part is disposed on the first step according to the rotation direction and rotation angle of the body portion, and is reproduced when the second coupling portion is disposed on the second step. An insect trap and launch device characterized by being converted into a mode.
According to paragraph 3,
The second conversion unit,
a partition formed to extend radially along the axial direction by a predetermined length from a portion of the inner portion of the body portion to correspond radially to the plurality of second coupling portions to form a plurality of channel portions; and
In order to flow the air supplied from the operating unit, a plurality of penetrating portions are formed to be spaced apart at a predetermined angle with respect to the axial center around the other side of the body portion to selectively correspond to the penetrating portion according to the rotation direction and rotation angle of the body portion. Including an inlet hole of,
As the plurality of inlet holes are formed to communicate with each of the plurality of channel parts, the air flowing in through the plurality of inlet holes is spaced radially apart from the partition part and a portion of the body part so as to be adjacent to the plurality of inlet holes. And flows to the lower part of the storage unit along the guide part that extends along the axial direction and the guide part that is formed to taper in the axial direction at one end of the guide part along the inner peripheral surface of the body part, forming negative pressure in the plurality of channel parts. An insect trap and launch device characterized in that.
According to paragraph 4,
The storage unit,
base part;
a partition portion disposed inside the base portion to divide and partition the interior of the base portion to form a plurality of chamber portions corresponding to the plurality of channel portions;
a plate portion coupled to one side of the base portion to prevent bugs trapped in the plurality of chamber portions from escaping from the chamber portion; and
A communication part formed through a portion of the base part so that the insects captured in the chamber part divided by the partition part are launched to the outside of the chamber part.
According to clause 5,
The attractor,
A receiving portion detachably coupled to one side of the base portion; and
A light source unit disposed in the receiving unit and capable of changing color to attract insects to the plurality of chamber units,
The plate portion is formed of a transparent material to transmit light from the light source unit,
As one side of the partition part is fixedly coupled to the plate part and a part of the other side is inserted and coupled to the partition part, the partition part rotates in conjunction with the partition part that is linked according to the rotation direction and rotation angle of the body part, but in the axial direction. is a bee collection and launch device characterized in that it is fixedly arranged without moving in a straight line.
According to clause 6,
When the switching unit is switched to the collection mode, as the second coupling part is disposed on the first step, the dividing unit and the partition are arranged to be spaced apart from each other in the axial direction, and one selected according to the rotation direction and rotation angle of the body unit. The air supplied through the inlet hole flows to all of the plurality of channel parts through gaps spaced apart from each other in the axial direction of the partition part and the partition part, forming negative pressure in all of the plurality of channel parts to the plurality of chamber parts. Captures bugs while preventing the attracted bugs from escaping to the outside.
When the switching unit is switched to the reproduction mode, as the second coupling unit is disposed on the second step, the partition unit moves axially to be adjacent to the partition unit, and the partition unit and the partition unit are placed in contact with each other. The air supplied through the inlet hole selected according to the rotation direction and angle of the body flows only to one channel part and chamber part in communication with the selected inlet hole, so that only the insects captured in the corresponding chamber part flow. An insect capture and launch device characterized by firing through.

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