KR100871428B1 - Cockroach trap being able to control temperature or humidity - Google Patents

Abstract

A cockroach trap capable of controlling temperature or humidity that actively attracts a cockroach in consideration of the cockroach's habit is disclosed. The cockroach trap is provided with a capture case including the entrance and the entrance of the cockroach and a sensor for detecting the humidity and temperature inside the capture case, the inside of the trap to maintain the temperature or humidity of the capture case to a predetermined reference A water supply for supplying water for supply, a heater for raising the temperature, and a microprocessor for controlling the heater and the water supply. Therefore, the cockroach trap capable of controlling the temperature or humidity has the advantage that the cockroach can be easily attracted by continuously maintaining the temperature or humidity preferred by the cockroach.

Cockroach trap, temperature control, humidity control

Description

Cockroach trap with temperature or humidity control {COCKROACH TRAP BEING ABLE TO CONTROL TEMPERATURE OR HUMIDITY}

1 is a perspective view showing a conventional cockroach trap.

2 is a perspective view of a cockroach trap capable of controlling the humidity according to the first embodiment of the present invention.

FIG. 3 is a cross-sectional view taken along the line I-I of FIG. 2.

4 is a cross-sectional view showing a cockroach trap that can control the humidity according to a modified embodiment of the first embodiment of the present invention.

5 is a cross-sectional view showing a cross section of a cockroach trap capable of controlling the temperature according to the second embodiment of the present invention.

6 is a flowchart illustrating the operation of a cockroach trap capable of controlling the temperature according to the second embodiment.

7 is a cross-sectional view showing a cockroach trap that can control the temperature according to a modified embodiment of the second embodiment of the present invention.

8 is a flow chart showing the operation of the cockroach trap capable of controlling the temperature according to a modified embodiment of the second embodiment of the present invention.

9 is a cross-sectional view showing a cross section of a cockroach trap that can control the temperature or humidity according to a third embodiment of the present invention.

10 is a flowchart illustrating the operation of a cockroach trap that can control the temperature and humidity according to a third embodiment of the present invention.

<Explanation of symbols for main parts of the drawings>

100: capture case 120: first microprocessor

130: water supply unit 140: internal humidity sensor

145: external humidity sensor 150: entrance

160: Sticky 170: Insecticide

175: attractant 220: second microprocessor

230: heater 240: internal temperature sensor

320: third microprocessor 331: first heating wire

332: second heating wire

The present invention relates to a cockroach trap, and more particularly, at least one sensor for sensing the humidity and temperature inside the capture case and the capture case having one or more entrances and exits that the cockroach prefers a high temperature and high humidity environment. Including a water supply to increase the humidity, a heater to increase the temperature, and a microprocessor capable of controlling the water supply and the heater, it is possible to control the temperature or humidity to attract the cockroach with the cockroach preferred temperature and humidity conditions It's about cockroach traps.

As the economy develops, living standards are gradually improving, and pests that have been overlooked in the past are now becoming a vigilant point for everyone. However, due to industrialization or industrialization, a large amount of waste is generated, and accordingly, pests are increasing.

Although a number of mechanisms and methods for controlling such pests have been developed, there are not many methods and controls designed according to the characteristics of the pests to be controlled from the development stage. First, it will be apparent that the characteristics of the pests to be controlled will be examined, and accordingly, the application of them to the design of the control mechanism and method will be effective for the effective control.

Therefore, in the present specification, the behavior of cockroaches will be described first, and then introduced into the design and utilization of cockroach traps.

The cockroach appeared on the earth 350 million years ago (paleozoic coal age) and has been differentiated into many species by adapting to the environment.To date, about 4,000 species are known around the world. There are seven kinds in Korea, and four of them intrude.

The general habits of these cockroaches are as follows.

First of all, cockroaches are nocturnal pests and usually hide invisible places such as under floorboards, sinks, behind refrigerators, and inside water purifiers, especially niches. That is, the cockroach has negative daylight having an avoidance habit against light.

In addition, cockroaches are omnivorous and are known to transmit germs and diseases because they eat paper, leather, wires, hair, spit, callus, filth, or animal carcasses while eating and eating.

In addition, because of its good fertility, it can grow up to 100,000 animals a year, and its lack of its own digestive enzymes is a food bug that eats excreta to ingest digestive enzymes through the excretion of colleagues and other animals. .

It is also a tropical insect, so I like warm places.

A brief review of cockroaches known to inhabit Korea includes German wheels, American wheels, alien wheels, and Japanese wheels. Here, it is known that the size of the American wheel is the largest, approximately 4 centimeters, and that the German wheel is the smallest, 1-1.5 centimeters.

And, if you look at each habit as it is known, first of all, the German wheels inhabit most of the country, like the high temperature and dry environment, inhabit the houses and buildings, the place where water is easy to get, and has the most population It is known to fly more than 80 percent of domestic cockroaches.

Next, the American wheels like the hot and humid environment, can fly, but rarely fly, and in the south of our country live outside the building or sewer, and also in the septic tank, but mostly in the building, especially septic tank. It is known.

Next, Japanese wheels prefer low temperature and high humidity, and it is common to live in a house or garden on a semi-universal basis. It is about 3 centimeters in size, and inhabits relatively low temperature areas in the north of central Korea.

Muck wheels are known to live mainly in suburbs of Daejeon due to their relatively high temperature and high humidity.

Overall, cockroaches have no problem inhabiting once they meet the conditions of food, temperature, humidity and shading.

Therefore, it is useful to provide a attracting means to satisfy the above conditions, and thus to design the cockroach trap to capture and kill the cockroach.

In the present specification, the cockroach is a generic term for pests that prefer conditions of a certain temperature and humidity among walking pests that harm humans and livestock. These pests eat up food and textiles, causing considerable damage to life, and also excretion carry harmful pathogens to the human body. In recent years, such pests are increasing due to the polluted environment, the pest removal is a big problem. Therefore, homes, businesses or communities are trying to get rid of pests in various ways.

Conventionally, there are a number of mechanisms for removing cockroaches, but the most commonly used among them are as follows.

To get rid of cockroaches in a typical home, people put them in a dish or sealed box of medicine and place them in a place or aisle where a lot of cockroaches gather, or place a cockroach trap on a path such as a cockroach. Attractors are also used to attract cockroaches. Alternatively, sprays may be sprayed directly onto pests such as cockroaches, or saturated in the air to inhal or kill the pests.

A method of capturing the cockroaches by sticking a sticky box in a generally closed box among the above-described methods is the most commonly used. Here, the conventional cockroach trap will be described as follows.

1 is a perspective view briefly showing a conventional cockroach trap.

As shown therein, the cockroach trap 10 generally includes a body portion 11 constituting a space for capturing the cockroach, a cover portion 12 covering the body portion 11, and a sticky substance for capturing the cockroach. 13 and a plurality of entrances and exits 14 provided to enter and exit the cockroach.

Looking briefly at the operation of the conventional cockroach trap 10, first, the cockroach attracted to the cockroach trap 10 is bonded and captured in the sticky (13).

However, the conventional cockroach trap has the following problems.

First, the conventional cockroach trap has a problem that does not actively provide a preferred environment according to the behavior of the cockroach.

Second, there is a problem that the cockroach does not maintain the preferred temperature continuously.

Third, there is a problem that the cockroach does not maintain the preferred humidity continuously.

Fourth, there is a problem that the continuous attraction of cockroach is not easy.

Fifth, there is a risk of a safety accident, such as a fire, even if the heat is supplied through the heater to maintain a certain temperature or more.

One object of the present invention for solving the above problems is to provide a cockroach trap that can be actively provided with a preferred environment according to the habit of the cockroach.

Another object of the present invention is to provide a cockroach trap that can continuously maintain the temperature preferred by the cockroach.

Still another object of the present invention is to provide a cockroach trap that can continuously maintain the preferred humidity of the cockroach.

Still another object of the present invention is to provide a cockroach trap that can continuously attract cockroaches having a preferred environment for cockroaches.

Still another object of the present invention is to provide a cockroach trap that can provide heat through a heater while preventing a risk of a safety accident such as a fire.

According to a preferred embodiment of the present invention for achieving the above object of the present invention, the cockroach trap capable of controlling the humidity of the capture case including the entrance and the entrance of the cockroach, the inside sensing the first humidity in the capture case And a humidity sensor, a water supply unit for supplying water to supply moisture into the capture case, and a first microprocessor capable of controlling the water supply unit, wherein the humidity of the capture case is provided to maintain a predetermined constant humidity. .

Here, the capture case is preferably formed so as to be different from the humidity of the outside and the inside, it is more preferable to drive the water supply when the first humidity detected by the internal humidity sensor is less than the predetermined humidity. .

In addition, the cockroach trap controllable to the above figure further includes an external humidity sensor for sensing a second humidity outside the capture case.

In this case, the first microprocessor compares the first humidity and the second humidity of the humidity sensors, and when the interval between the first humidity and the second humidity is equal to or less than a predetermined interval, the water supply unit receives moisture. It is desirable to control to provide.

In addition, the water supply unit is provided in the form of spraying moisture, or the capture case further includes a water tank for receiving water, the water supply may be provided in the form of supplying water to the water tank.

The cockroach trap capable of controlling the humidity may further include an attractant for attracting the cockroach, and the attractant is preferably dissolved in water supplied by the water supply unit.

The cockroach trap controllable to the humidity preferably further includes a sticky having a capture adhesive surface coated with an adhesive to adhere the cockroach to one side, and further comprises a pesticide that the cockroach kills through ingestion. desirable.

According to a preferred embodiment of the present invention for achieving the above object of the present invention, the cockroach trap capable of controlling the temperature of the capture case including the entrance and the entrance of the cockroach, the temperature sensing the first temperature inside the capture case And a sensor, a heater for supplying heat to the capture case, and a second microprocessor capable of controlling the heater, such that the temperature of the capture case is maintained at a predetermined constant temperature.

Here, the capture case is preferably formed so that the temperature of the outside and the inside can be different, and the preset temperature is preferably 27 degrees Celsius or more and 45 degrees or less.

In addition, the heater may be controlled to supply heat at predetermined time intervals, wherein the heater is preferably controlled to supply heat from 10 pm to 8 am.

The second microprocessor may control the heater to supply heat when the first temperature sensed by the internal temperature sensor is equal to or less than a preset temperature.

In addition, the cockroach trap capable of controlling the temperature may further include an external temperature sensor for sensing a second temperature outside the capture case. The second microprocessor may compare the first temperature and the second temperature, and drive the heater when the interval between the first temperature and the second temperature is equal to or less than a predetermined interval.

Here, the heater is preferably formed in the form of a heating wire, provided on the lower surface of the capture case.

According to a preferred embodiment of the present invention for achieving the above object of the present invention, the cockroach trap that can control the temperature and humidity of the capture case including the entrance and exit the cockroach, detects the first humidity inside the capture case An internal humidity sensor, an internal temperature sensor for detecting a first temperature inside the capture case, a water supply unit supplying water to supply moisture to the capture case, a heater to supply heat to the capture case, and the water supply unit And a third microprocessor capable of controlling the heater, and maintaining the temperature and humidity inside the capture case in a preset reference range.

The capture case is preferably formed to be different from the temperature and humidity of the outside and the inside, the water supply is more preferably provided in the form of a water tank for storing water.

Here, the heater is provided in the form of a heating wire, including a first heating wire for supplying heat to the whole of the capture case that can be operated separately and the second heating wire for supplying heat to the water supply, the third microprocessor When the first temperature detected by the internal temperature sensor is less than a predetermined temperature to drive the first heating wire, the third microprocessor is the first humidity detected by the internal humidity sensor is less than a predetermined humidity It is preferable to drive the second heating wire.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, but the present invention is not limited or limited by the embodiments. For reference, in the following description, elements that can be treated identically in terms of configuration and function are almost the same and can be specified by the same reference numerals.

My Example 1

The cockroach trap capable of controlling humidity according to the first embodiment of the present invention will be described with reference to FIGS. 2 to 3 as follows. FIG. 2 is a perspective view of a cockroach trap capable of controlling humidity according to a first embodiment of the present invention, and FIG. 3 is a cross-sectional view taken along the line I-I of FIG. 2. For reference, for convenience of description, a cockroach trap capable of controlling temperature or humidity may be abbreviated as a 'cockroach trap'. However, the cockroach trap 20 according to the first embodiment describes a cockroach trap capable of controlling humidity, and the cockroach trap 30 according to the second embodiment of the present invention includes a cockroach trap capable of controlling temperature, Cockroach trap 40 according to the third embodiment (see Fig. 9) will be described a cockroach trap that can control the temperature or humidity.

As shown therein, the cockroach trap 20 includes a capture case 100 including an access unit 150, a water supply unit 130, an internal humidity sensor 140, and a first microprocessor 120. .

The capture case 100 is formed to be sealed to prevent the ventilation of the moisture except for the entrance portion 150 so that the humidity of the outside and the inside can be different.

The entrance portion 150 is formed in the shape of a relatively wide gap in the transverse direction, relatively narrow in the longitudinal direction, in consideration of the above-described behavior of the cockroach, the height of the centimeter and the cockroach preferred It is formed to be relatively wider than the height so that the cockroach can enter and exit. In the present embodiment, the height is presented as 1 centimeter, but the present invention is not limited thereto or limited thereto. For example, the height of the doorway may be 0.8 centimeter or more, depending on the type of cockroach to be caught in advance. It can also be formed by adjusting to less than 2 centimeters.

 In addition, an angle formed between the bottom surface of the capture case 100 and the ground which forms the bottom surface of the access part 150 is generally an angle recognized as an obstacle on the front of the cockroach when the cockroach moves, that is, about 90 degrees. It is preferably provided at an angle of less than degrees, more preferably more preferably provided at an angle of 30 degrees or less.

The internal humidity sensor 140 is provided as a humidity sensor for measuring the humidity inside the capture case, it is disposed on the upper side in the capture case 100. The internal humidity sensor 140 may be disposed on the opposite side of the water supply unit 130 inside the capture case 100 to accurately measure internal humidity.

The water supply unit 130 is provided in the form of a sprayer for vaporizing and spraying water, is installed on the inner side of the capture case 100 to supply water to increase the humidity inside the capture case 100 Do it. In the present embodiment, the water supply unit 130 is presented in the form of a nebulizer, but is not limited or limited thereto. For example, the water supply unit 130 may be provided in the form of a valve for flowing water little by little.

The first microprocessor 120 is provided to control the water supply unit 130, and when the humidity inside the capture case 100 sensed by the internal humidity sensor 140 is less than or equal to a predetermined humidity, By driving the water supply unit 130 is provided to increase the humidity inside the capture case (100).

4 is a cross-sectional view showing a cockroach trap that can control the humidity according to a modified embodiment of the first embodiment of the present invention. For reference, the same reference numerals refer to the same components as in the first embodiment, and a separate description thereof will be omitted.

As shown in this, the cockroach trap 25 is the capture case 100 including the entry and exit 150, the water supply unit 130, the internal humidity sensor 140, the external humidity sensor 145, the sticky 160 ), An attractant 175, an insecticide 170, and a first microprocessor 120.

The external humidity sensor 145 is provided as a humidity sensor to detect the humidity outside the capture case 100. For convenience of description, the humidity inside the capture case 100 is referred to as a first humidity, and the humidity outside the capture case 100 is referred to as a second humidity.

The first microprocessor 120 is provided to compare the first humidity and the second humidity, and when the interval between the first humidity and the second humidity is equal to or less than a predetermined interval, the water supply unit 130 is moist. Control the water supply unit 130 to provide.

The water supply unit 130 includes a water tank 135 for storing water. The water tank 135 is installed inside the capture case 100, is provided to increase the humidity in the capture case 100 by evaporating the water, and the water supply unit 130 is provided in the water tank 135. It is provided to supply water.

In this case, the water of the water supply unit 130 is limited to a predetermined amount so that water in the water tank 135 does not overflow into the capture case 100, or a water level sensor (not shown) is provided in the water tank 135. Thus, when the water level of the water tank 135 is above a certain height, the water supply unit 130 may be configured to be inoperative.

The sticky 160 is provided to capture the cockroach lured into the capture case 100 by having a capture adhesive surface coated with an adhesive to adhere the cockroach on one surface. Here, the capture adhesive surface provided on one surface of the sticky 160 is installed to be coplanar with the bottom surface of the capture case 100 in order to efficiently capture the cockroach.

The insecticide 170 is provided to ingest and kill the cockroach, and includes at least one or more insecticides of inorganic insecticides, organophosphates, organochlorine agents and natural insecticides commonly used to kill the attracted cockroaches. It is not limited or restricted.

The attractant 175 is provided by dissolving in water stored in the water tank 135. The cockroach has the effect of attracting the drinkable water itself, but in order to attract the cockroach more efficiently, generally known attractants such as sugar, feces of the cockroach and pheromones are provided.

My 2 Example

Referring to the cockroach trap according to a second embodiment of the present invention. 5 is a cross-sectional view showing a cross section of a cockroach trap according to a second embodiment of the present invention. In addition, the description of the same or similar configuration as the first embodiment of the present invention will be omitted and described as necessary.

As shown therein, the cockroach trap 30 includes a capture case 200 including an entry part 250, a heater 230, an internal temperature sensor 240, and a second microprocessor 220.

The capture case 200 is formed by combining paper and styropol, which is a heat dissipation material, so as to change the temperature of the outside and the inside. In this embodiment, the material of the capture case 200 is presented as a combination of styropol and paper, but is not limited or limited thereto. For example, it is also possible to form the plastic within the limit that the cockroach avoids. .

The heater 230 is provided in the form of a heating wire on the lower surface of the capture case 200 to supply heat to the capture case 200 to raise the temperature inside the capture case 200.

The internal temperature sensor 240 is provided on an inner lower side of the capture case 200 to detect the internal temperature of the capture case 200. The internal temperature sensor 240 is provided not to be in direct contact with the heater 230, and is provided to properly detect the internal temperature of the capture case 200.

Here, the second micro processor 220 is provided to control the heater 230 according to the temperature inside the capture case 200 detected by the internal temperature sensor 240, the capture case 200 It is provided to maintain the internal temperature at 27 degrees Celsius or more and 45 degrees or less. Here, according to the type of cockroach, it is also possible to determine the preferred temperature in advance to adjust the temperature range.

Here, look at the operation of the cockroach trap that can control the temperature according to the second embodiment of the present invention. 6 is a flowchart showing the operation of the cockroach trap according to the second embodiment.

As shown therein, first, the temperature T ₁ inside the capture case 200 is sensed (S11).

Next, the internal temperature (T ₁ ) and the fire temperature (T _F ) is compared (S12).

Here, when the internal temperature (T ₁ ) is higher than the fire temperature (T _F ) in the step (S12) generates a fire alarm (S14), and checks whether the heater 230 is in operation (S15).

When the heater 230 is in operation in step S15, the heater 230 is stopped in operation S16, and the operation of the cockroach trap 20 is completed, and the heater 230 is not in operation. Complete the operation of the cockroach trap 20 as it is.

If the following, the internal temperature (T ₁₎ at the step S12 is not higher than a fire temperature (T _F) is compared with the internal temperature (T ₁₎ and a top temperature (T _H) (S13). Here, when the internal temperature T ₁ is higher than the upper temperature T _H , an overheat alarm is generated (S17) and the process proceeds to step S15.

Next, when the internal temperature T ₁ is not higher than the upper temperature T _H in step S13, the internal temperature T ₁ is compared with the lower temperature T _L (S18). Here, when the internal temperature (T ₁ ) is less than the lower temperature (T _L ), it is checked whether the heater 230 is operating (S19). In step S19, when the heater 230 is in operation, returns to step S11, and when the heater 9230 is not in operation, operates the heater 230 (S20), and then returns to step S11. do.

Next, in the step S18, if the internal temperature (T ₁ ) is lower than the lower temperature (T _L ), check whether the heater 230 is in operation (S21), if the heater 230 is in operation The operation of the heater 230 is stopped (S22), the process returns to the step S11, and if the heater 230 is not in operation, the process immediately returns to the step S11.

As a result, the operation of the cockroach trap 30 is completed, and maintains the temperature inside the capture case 200 to a predetermined temperature, that is, lower temperature T _L or more than upper temperature T _H or less. Here, the lower temperature T _L is set to 25 degrees to 27 degrees as described above, and the upper temperature T _H is set to 35 degrees to 45 degrees so that the cockroach trap 30 is preferred by the cockroach as desired by the user. By controlling the temperature to have the effect that can attract the cockroach to the capture case 200.

In the cockroach trap 20 presented in the first embodiment of the present invention, the internal humidity sensor 140 (see FIG. 3) and the first microprocessor 120 (see FIG. 3) are operated to provide the Except for generating the fire alarm or the superheat alarm in the operation of the cockroach trap (S12, S14 and S17), replacing the temperature and the heater with the humidity and the water supply 130 (see FIG. 3), respectively Similarly to the second embodiment, the humidity inside the cockroach trap 20 is controlled.

7 is a cross-sectional view showing a cockroach trap according to a modified embodiment of the second embodiment of the present invention.

As shown here, the cockroach trap 35 is the cockroach trap 35 is the capture case 200, the heater 230, the internal temperature sensor 240, an external temperature sensor (250) including the entrance 250 245, sticky 160, pesticide 170, and second microprocessor 220.

The external temperature sensor 245 is provided as a temperature sensor to detect the temperature outside the capture case 200. For convenience of description, a temperature inside the capture case 200 is referred to as a first temperature and a temperature outside the capture case 200 is referred to as a second temperature.

The second microprocessor 220 is provided to compare the first temperature and the second temperature, and when the interval between the first temperature and the second temperature is less than or equal to a preset interval, operate the heater 230. The heater 230 is controlled to supply heat into the capture case 200.

Since the sticky 160 and the insecticide 170 have the same structure as described above in the description of the modified embodiment of the first embodiment will be omitted.

8 is a flow chart showing the operation of the cockroach trap according to a modified embodiment of the second embodiment of the present invention.

As shown in FIG. 1, first, the first and second temperatures T ₁ and T ₂ are detected in the capture case 200 (S31).

Next, the first temperature (T ₁ ) and the second temperature (T ₂ ) is compared (S32).

Next, in the step S32, if the first temperature (T ₁ ) is less than or equal to the second temperature (T ₂ ) and whether the heater 230 is in operation (S34), the heater 230 is When not in operation, the heater 230 is operated (S35) and returns to step S31, and when the heater 230 is in operation, returns to step S31 as it is.

Next, in the step S32, and the first temperature (T ₁₎ it is less the the second temperature (T ₂₎ when the second temperature is greater than (T ₂₎ is in the first temperature (T ₁₎ value It compares with the predetermined temperature interval (T ₀ ) (S33). If the value obtained by subtracting the second temperature T ₂ from the first temperature T ₁ is less than or equal to a preset temperature interval T ₀ , the process proceeds to step S34. Check whether the operation (S36).

Next, in step S36, when the heater 230 is in operation, the heater 230 is stopped (S37) and returns to step S31, and if the heater 230 is not in operation, the S31 as it is. Return to step

Thus, the operation of the cockroach trap 35 is completed, and as described above with reference to FIG. 8, once the cockroach trap 35 is actually operated once in the flow chart in general, unusual matters such as fire, failure or inspection If this does not occur, an endless loop is repeated so that the first temperature T ₁ inside the cockroach trap 35 is maintained higher by a predetermined interval T ₀ than the second temperature T ₂ outside. Is controlled.

That is, the cockroach detects the first temperature (T ₁ ) of the cockroach trap 35 is relatively higher than the second temperature (T ₂ ) of the outside, the cockroach traps the cockroach trap in favor of a high temperature environment There is an effect that it is attracted to (35).

In a similar manner, the operation of the cockroach trap 30 according to the second embodiment also repeats the infinite loop like the operation of the cockroach trap 35.

My 3 Example

Referring to the cockroach trap according to a third embodiment of the present invention. 9 is a cross-sectional view showing a cross section of a cockroach trap according to a third embodiment of the present invention.

As shown in the drawing, the cockroach trap 40 includes a capture case 300 including an entrance 350, a third microprocessor 320, a heater 330, a water supply 335, and an internal temperature sensor. 340 and an internal humidity sensor 343.

The capture case 300 is formed to be different from the temperature or humidity of the outside and the inside. In general, it is provided using a foamed polystyrene (expanded polystyrene, styrofoam) commonly used as a heat insulating material, and in order to change the humidity, except for the access portion 350 is provided to be sealed.

The water supply unit 335 is provided to supply water in the form of a tank similarly to the cockroach trap 25 according to a modified embodiment of the first embodiment. Detailed description thereof has been described above in the description of the modified embodiment of the first embodiment and will be omitted.

The heater 330 includes a first heating wire 331 and a second heating wire 332. The first heating wire 331 is provided on the lower surface of the capture case 300 in the form of a heating wire, and supplies heat to the capture case 300 to increase the temperature inside the capture case 300. do.

In addition, the second heating wire 332 is provided in the form of a heating wire on the lower surface of the water supply unit 335, the water stored in the water supply unit 335 the second heating wire 332 is operated to supply heat When the vaporization is provided to increase the humidity inside the capture case 200.

Here, look at the operation of the cockroach trap 40 as follows. 10 is a flowchart illustrating the operation of a cockroach trap according to a third embodiment of the present invention.

As shown in the figure, first, the internal humidity H ₁ and the internal temperature T _{1 of} the capture case 300 are sensed (S41).

Next, the internal temperature (T ₁ ) and the fire temperature (T _F ) is compared (S42).

Here, when the internal temperature (T ₁ ) is higher than the fire temperature (T _F ) in the step (S12), it is checked whether the heater 330 is in operation (S43). When the heater 330 is in operation, the heater 330 is stopped (S44), and a fire alarm is generated. When the heater 330 is not in operation, a fire alarm is generated as it is (S45).

When a fire alarm occurs, the cockroach trap 40 may include a light emitting diode (LED, not shown) or a speaker (not shown) to generate a fire alarm with light or sound.

Next, in the step S42, when the internal temperature (T ₁ ) is less than the fire temperature (T _F ) and compared with the internal temperature (T ₁ ) and the top temperature (T _H ) (S46), the internal temperature (T _{When 1} ) is higher than the upper temperature T _H , it is checked whether the first heating wire 331 is in operation (S47).

If the first heating wire 331 is in operation in step S47, the first heating wire 331 is stopped (S48), and the process returns to step S41, and if not, the process returns to step S41. .

Next, in step S46, if the internal temperature (T ₁ ) is less than the top temperature (T _H ), it is checked whether the first heating wire 331 is in operation (S49).

Next, in step S49, when the first heating wire 331 is in operation, the internal humidity H ₁ and the upper humidity H _H are compared with each other (S52).

Here, in step S49, when the first heating wire 331 is not in operation, the internal temperature T ₁ is compared with the lower temperature T _L (S50), and the internal temperature T ₁ is lower. If the temperature is equal to or greater than T _L , the process returns to step S41, and if less, the process proceeds to step S52.

Next, in the step S52, when the internal humidity (H ₁ ) is greater than the upper humidity (H _H ), it is checked whether the second heating wire 332 is in operation (S56).

Here, in the step S52, when the internal humidity (H ₁ ) is less than the top humidity (H _H ) or less compared with the internal humidity (H ₁ ) and the lower humidity (H _L ) (S53), the internal humidity ( If H ₁ ) is lower than the lower humidity (H _L ), the process proceeds to step S56, and if it is less than one, check whether the second heating wire 332 is in operation (S54), and the second heating wire 332 is in operation. If not, the second heating wire 332 is operated (S55), and the process returns to step S41, and if it is in operation, the process returns to step S41.

In the step S56, when the second heating wire 332 is in operation, the second heating wire 332 is stopped (S57) and returns to step S41, and if not, the step returns to step S41.

Thus, the operation of the cockroach trap 40 is completed. At this time, similar to the operation of the second embodiment of the present invention, the temperature inside the capture case 300 is maintained at a predetermined temperature, that is, lower temperature (T _L ) or higher than upper temperature (T _H ), and similarly By maintaining the humidity inside the capture case 300 to a predetermined humidity, that is, lower humidity (H _L ) or higher than the upper humidity (H _H ), the cockroach trap 40 is preferred by the cockroach as desired by the user By controlling the temperature or humidity there is an effect that can easily attract the cockroach into the capture case 200.

As described above, according to the present invention, it is possible to actively control the temperature and humidity of the cockroach trap in consideration of the habit of preferring a high temperature, high humidity environment of the cockroach behavior.

In addition, by controlling using a temperature sensor, a heater, and a microprocessor to maintain a preset temperature range, there is an advantage that can continuously maintain the temperature preferred by the cockroach.

In addition, by controlling using a humidity sensor, a water supply unit and a microprocessor to maintain a predetermined humidity range, there is an advantage that the cockroach can maintain the preferred humidity continuously.

In addition, by keeping the inside of the capture case at a certain temperature or humidity, and blocking the outside, and forming the entrance portion in the shape of the cockroach preferred, the cockroach has a preferred environment, there is an effect that can continuously attract cockroaches. .

In addition, when the capture case is heated above a predetermined temperature, there is an effect that can prevent the risk of a safety accident by generating a heating alarm and a fire alarm according to the temperature range detected by the temperature sensor to ventilate the surroundings.

In addition, it is possible to determine the type of cockroach trapped according to the temperature range of the cockroach trap, there is an effect that can be helpful in the design and application of a better cockroach trap by understanding the behavior of the cockroach.

As described above, although described with reference to the preferred embodiment of the present invention, those skilled in the art various modifications and variations of the present invention without departing from the spirit and scope of the invention described in the claims below I can understand that you can.

Claims (27)

A capture case including an entrance portion through which the cockroach enters and exits; An internal humidity sensor for sensing a first humidity inside the capture case; A water supply unit supplying water to supply moisture to the capture case; And A first microprocessor capable of controlling the water supply; And a cockroach trap capable of controlling the humidity to maintain a predetermined constant humidity of the capture case. The method of claim 1, The capture case is a cockroach trap capable of controlling the humidity, characterized in that formed to be different from the outside and the inside humidity. The method of claim 2, When the first humidity detected by the internal humidity sensor is less than the predetermined humidity, the cockroach trap is capable of controlling the humidity, characterized in that for driving the water supply. The method of claim 2, The cockroach trap is capable of controlling the temperature or humidity of the cockroach trap can control the humidity further comprises an external humidity sensor for sensing the second humidity outside the capture case. The method of claim 4, wherein The first microprocessor compares the first humidity and the second humidity of the humidity sensors, and controls the water supply unit to provide moisture when the interval between the first humidity and the second humidity is equal to or less than a predetermined interval. Cockroach trap that can control the humidity, characterized in that. The method of claim 1, Cockroach trap capable of controlling the humidity, characterized in that the water supply unit is provided in the form of spraying moisture. The method of claim 1, The capture case is a cockroach trap capable of controlling the humidity, characterized in that it further comprises a tank for receiving water. The method of claim 7, wherein The water supply part is a cockroach trap capable of controlling the humidity, characterized in that it is provided in the form of supplying water to the tank. The method of claim 1, The cockroach trap capable of controlling the temperature or humidity of the cockroach trap of the humidity control, characterized in that it further comprises a attractant to attract the cockroach. The method of claim 9, The attractant is a cockroach trap that can control the humidity, characterized in that dissolved in the water supplied by the water supply. The method of claim 1, The cockroach trap controllable to the temperature or humidity of the cockroach trap controllable humidity, characterized in that it further comprises a sticky having a capture adhesive surface is coated with an adhesive to adhere the cockroach on one surface. The method of claim 1, The cockroach trap that can control the temperature or humidity of the cockroach trap can control the humidity, characterized in that it further comprises a pesticide killing the cockroach through ingestion. A capture case including an entrance portion through which the cockroach enters and exits; A temperature sensor detecting a first temperature inside the capture case; A heater for supplying heat to the capture case; And A second microprocessor capable of controlling the heater; And a cockroach trap capable of controlling the temperature of the capture case to maintain a predetermined temperature. The method of claim 13, The capture case is a cockroach trap capable of controlling the temperature, characterized in that formed so as to vary the temperature of the outside and the inside. The method of claim 13, The preset temperature is cockroach trap capable of controlling the temperature, characterized in that more than 27 degrees Celsius 45 degrees. The method of claim 13, The heater is cockroach trap capable of controlling the temperature, characterized in that controlled to supply heat at a predetermined time interval. The method of claim 13, The heater is cockroach trap capable of controlling the temperature, characterized in that the heat is controlled to supply heat from 10 pm to 8 am. The method of claim 13, And the second microprocessor controls the heater to supply heat when the first temperature sensed by the internal temperature sensor is less than or equal to a preset temperature. The method of claim 13, The cockroach trap that can control the temperature or humidity of the cockroach trap is capable of controlling the temperature, characterized in that it further comprises an external temperature sensor for sensing the second temperature outside the capture case. The method of claim 19, The second microprocessor compares the first temperature and the second temperature, and when the interval between the first temperature and the second temperature is equal to or less than a predetermined interval, controlling the temperature, characterized in that for driving the heater. Possible cockroach traps. The method of claim 13, The heater is formed in the form of a heating wire, the cockroach trap capable of controlling the temperature, characterized in that provided on the lower surface of the capture case. A capture case including an entrance portion through which the cockroach enters and exits; An internal humidity sensor for sensing a first humidity inside the capture case; An internal temperature sensor configured to sense a first temperature inside the capture case; A water supply unit supplying water to supply moisture to the capture case; A heater for supplying heat to the capture case; And A third micro processor capable of controlling the water supply unit and the heater; And a cockroach trap capable of controlling temperature and humidity to maintain a temperature or humidity within the capture case in a predetermined reference range. The method of claim 22, The capture case is a cockroach trap capable of controlling the temperature and humidity, characterized in that formed so as to vary the temperature or humidity of the outside and the inside. The method of claim 22, The water supply unit is a cockroach trap capable of controlling the temperature and humidity, characterized in that provided in the form of a water tank for storing water. The method of claim 24, The heater is provided in the form of a heating wire, the control of temperature and humidity, characterized in that it comprises a first heating wire for supplying heat to the entire operation of the capture case and the second heating wire for supplying heat to the water supply unit Possible cockroach traps. The method of claim 25, And the third microprocessor drives the first heating wire when the first temperature detected by the internal temperature sensor is lower than or equal to a preset temperature. The method of claim 25, And the third microprocessor drives the second heating wire when the first humidity detected by the internal humidity sensor is less than or equal to a predetermined humidity.

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