KR101875114B1 - Flowerpot popular smart growth sensing module - Google Patents

Flowerpot popular smart growth sensing module Download PDF

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KR101875114B1
KR101875114B1 KR1020160020390A KR20160020390A KR101875114B1 KR 101875114 B1 KR101875114 B1 KR 101875114B1 KR 1020160020390 A KR1020160020390 A KR 1020160020390A KR 20160020390 A KR20160020390 A KR 20160020390A KR 101875114 B1 KR101875114 B1 KR 101875114B1
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sensor
plant
humidity
frame
temperature
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KR1020160020390A
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Korean (ko)
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KR20170098465A (en
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원종진
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주식회사 은진산업
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    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N33/00Investigating or analysing materials by specific methods not covered by groups G01N1/00 - G01N31/00
    • AHUMAN NECESSITIES
    • A01AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01GHORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/02Receptacles, e.g. flower-pots or boxes; Glasses for cultivating flowers
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01JMEASUREMENT OF INTENSITY, VELOCITY, SPECTRAL CONTENT, POLARISATION, PHASE OR PULSE CHARACTERISTICS OF INFRARED, VISIBLE OR ULTRAVIOLET LIGHT; COLORIMETRY; RADIATION PYROMETRY
    • G01J1/00Photometry, e.g. photographic exposure meter
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01KMEASURING TEMPERATURE; MEASURING QUANTITY OF HEAT; THERMALLY-SENSITIVE ELEMENTS NOT OTHERWISE PROVIDED FOR
    • G01K1/00Details of thermometers not specially adapted for particular types of thermometer
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N33/00Investigating or analysing materials by specific methods not covered by groups G01N1/00 - G01N31/00
    • G01N33/24Earth materials
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N33/00Investigating or analysing materials by specific methods not covered by groups G01N1/00 - G01N31/00
    • G01N33/24Earth materials
    • G01N33/246Earth materials for water content
    • GPHYSICS
    • G08SIGNALLING
    • G08BSIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B5/00Visible signalling systems, e.g. personal calling systems, remote indication of seats occupied
    • G08B5/22Visible signalling systems, e.g. personal calling systems, remote indication of seats occupied using electric transmission; using electromagnetic transmission
    • G08B5/36Visible signalling systems, e.g. personal calling systems, remote indication of seats occupied using electric transmission; using electromagnetic transmission using visible light sources

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  • Life Sciences & Earth Sciences (AREA)
  • Physics & Mathematics (AREA)
  • Chemical & Material Sciences (AREA)
  • General Physics & Mathematics (AREA)
  • Health & Medical Sciences (AREA)
  • Engineering & Computer Science (AREA)
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  • General Health & Medical Sciences (AREA)
  • Food Science & Technology (AREA)
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  • Environmental & Geological Engineering (AREA)
  • General Life Sciences & Earth Sciences (AREA)
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  • Environmental Sciences (AREA)
  • Spectroscopy & Molecular Physics (AREA)
  • Electromagnetism (AREA)
  • Cultivation Of Plants (AREA)

Abstract

The present invention is based on the fact that the price of the pollen moisture sensing module for providing information measured by an existing display screen is relatively high, so that it is burdensome to use at home, and the manager directly approaches the display screen to monitor the display screen, People who have difficulty in growing plants are hard to manage because they can not grasp elements that are insufficient for plant growth at appropriate time even if they have information such as illuminance, temperature, humidity, soil pH (pH) It is composed of main control box, sensor frame and probe frame to solve the problem that the coating sensor is damaged due to scratches when it is plugged and the life time is shortened due to an operation error due to oxidizing action. Humidity and soil pH (pH) in real time, The initial setting value allows the administrator to easily grasp the elements necessary for the plant and easily maintain the optimum environment suitable for the growth conditions of the plant. Since the internal structure is simple and mass production is possible, the production cost is low, It prevents the sensor coated by the stone or soil inside the pollen when the probe is inserted and prevents corrosion of the sensor due to acid inside the soil. And to provide a growth sensing module.

Description

[0001] FLOWERPOT POPULAR SMART GROWTH SENSING MODULE [0002]

In the present invention, when a set value, which is set according to the characteristics of a plant that feeds the elements such as roughness, temperature, humidity and soil pH (pH) necessary for plant growth, is different from a real time measurement value through the sensor, , It is possible to keep the optimum environment for plant growth by easily grasping the necessary elements, and to prevent the corrosion of sensors to improve the life span, and to reduce the production cost by simple internal structure, Type smart growth sensing module.

Generally, plants and trees planted in pots are reported to contribute to health as well as to produce indoor atmosphere comfortably. In recent years, most apartments and private homes have balconies, and there are more and more homes that use flowers and trees.

Therefore, proper temperature, adequate moisture, adequate amount of sunshine and nutrients are essential to create desirable growth conditions for plants and trees grown at home.

In contrast to the natural environment, in order to grow plants healthy, it is necessary to check the appropriate light, temperature, humidity, soil pH (pH) according to the characteristics of the plant, There is a problem that it can not adapt and shorten the life span.

In order to solve such a problem, there has been developed a sensing module for pots to measure the illuminance, temperature, humidity, and soil, which are indispensable factors for healthy growth of plants, and specifically provide information measured on a display screen. However, The structure is complicated, the manufacturing cost is increased, and it is burdened to use at home, and the manager who comes to the plant directly approaches the display screen to monitor the display screen, and the measured information can be known, It is difficult to know the optimal environment required for the growth of plants even if information such as the illuminance, temperature, humidity, soil pH (pH) there was.

In addition, the conventional sensing module detects the growth sensor exposed to the outside in the case of the sensing sensor type in the pollen due to the fine soil particles or small stones of the soil in the pollen, and the coated sensor is damaged due to scratches, And the operation of the moisture sensor module is caused by oxidation of the moisture sensor during long-term use, resulting in loss of function.

In order to solve the above problems, in the present invention, it is a simple initial setting value according to characteristics of a plant to measure and measure the illuminance and temperature of the plant, the humidity in the flowerpot and the pH of the soil in real time, It is easy to grasp easily and it is possible to maintain the optimum environment suitable for the growth conditions of the plant, and the internal structure is simple and mass production is possible, the production cost is low, and when the probe is placed in the pot soil, Provides intelligent growth sensing module for pollen that can prevent the sensor coated by friction with particles or small stones from being damaged and prevent the sensor from corrosion due to acidity in the soil, thus dramatically improving the life of the product It has its purpose.

In order to accomplish the above object, according to the present invention,

A main control box that protects the internal device in the form of a box located at the upper end of the pot temperature / humidity measurement module and provides necessary information of the plant by LED lighting,

A frame having an upright rectangular bar shape, an upper end of which is inserted into the inside of the transparent housing, a lower end plated with a moisture sensor and a pH sensor is vertically inserted from the upper surface of the probe frame, A sensor frame for measuring humidity and soil pH in the soil,

The probe frame is configured such that the lower end of the sensor portion is inserted and protected in a vertical direction on the upper surface by an upright rectangular bar shaped frame and the lower end of the probe frame is inclined obliquely in the backward direction.

As described above, in the present invention, a simple initial setting value according to the characteristics of a plant that raises and lowers the illuminance and temperature of the plant, the humidity in the flowerpot and the pH of the soil in real time, The LED indicator flashes differently to allow the administrator to easily identify the elements necessary for the plant and to easily maintain the optimum environment suitable for the growth conditions of the plant, It is possible to grow plants easily and it can be used for educational purposes because the children can see and manage the healthy growth of the plants at home and can be used for educational purposes. Since the internal structure is simple and mass production is possible, When the probe is placed on the internal soil, the friction with the fine soil particles or small pebbles of the soil Prevent damage to the sensor is coated, and a good effect can be dramatically improved the life of the product to prevent corrosion due to acid soil inside the sensor.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view showing an overall shape of a smart type growth sensing module for a pot according to the present invention;
FIG. 2 is an exploded perspective view of a main control box and a sensor frame according to the present invention,
3 is an exploded perspective view of the sensor frame and the probe frame according to the present invention,
4 is a partially enlarged view showing an enlarged view of the components of the measurement value setting control unit and the LED lighting unit of the main control box according to the present invention,
FIG. 5 shows a setting mode according to the position of a temperature setting switch, an illuminance setting switch, a pH setting switch, and a humidity setting switch of a measurement value setting control unit of the main control box according to the present invention. And a LED lighting unit including a light intensity notification LED unit, a pH acidity notification LED unit, and a humidity notification LED unit.
FIG. 6 is a perspective view showing a temperature sensor, an illuminance sensor, an acidity sensor, and a humidity sensor located in a sensor frame according to the present invention,
FIG. 7 is an exploded view of the probe frame according to the present invention, and is a partially enlarged view showing an enlarged view of the internal structure of the frame body.
FIG. 8 is a perspective view showing a state in which the front sensor protection frame of the probe frame and the plate engagement jaw of the rear sensor protection frame are caught and fixed in the first engagement groove before being inserted into the pot according to the present invention;
FIG. 9 is a perspective view illustrating a state in which the front sensor protection frame and the rear sensor protection frame of the probe frame are lowered in the lower direction after being inserted into the pot according to the present invention, 2 embodiment in which the sensor sensor and the humidity sensor are exposed to the outside by matching the sensor exposure grooves,
10 is a view showing a state in which a pot type intelligent growth sensing module is inserted into a soil in a pot to measure information on the temperature, light intensity, acidity and humidity of the pot,
FIG. 11 is a schematic view showing a main control box of the smart type growth module for pot type according to the present invention,
FIG. 12 is a schematic view showing a main control box of a smart type seedling detection module for pots according to the present invention,
13 is a circuit diagram showing components of a smart PCB control module of a sensor frame according to the present invention.

Prior to the description of the present invention, the lux described in the present invention is a unit for expressing the brightness of light, and the symbol is represented by lx. One lux (lx) is an SI unit of luminous intensity (cd) It means surface brightness of 1m when there is.

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

FIG. 1 is a perspective view showing an overall shape of a smart type seedling detection module for pots according to the present invention, which is composed of a main control box 100, a sensor frame 200, and a probe frame 300.

First, the main control box 100 according to the present invention will be described.

The main control box 100 protects the internal equipment in the form of a box located at the upper end of the pot temperature / humidity measurement module and provides necessary information of the plant by LED color lighting. As shown in FIG. 2, A transparent housing 110, a measured value setting controller 120, an LED lighting unit 130, and a circular battery 140.

The transparent housing 110 is formed into a water-iris shape having a water sprayer-shaped protrusion on the front face of a rectangular parallelepiped-shaped case and a protruding portion in the form of a knob on the rear face. The transparent housing 110 is coupled with the front case 110a and the rear case 110b .

As the LED bulb of the LED lighting unit 130 is turned on, the LED light is totally reflected, so that the manager can easily grasp the necessary information even if he / she looks from the distance.

The measurement value setting control unit 120 sets up a notification display value of an LED lighting unit selectively illuminated in accordance with a plant growth condition by horizontally arranging four up-and-down movement switches, which are protected by a switch cover, It plays a role.

Specifically, the measurement value setting control unit 120 initializes the temperature, humidity, roughness and soil acidity (pH) essential for growth in accordance with the characteristics of the plant to be planted before installing the plant growth sensing module 1, A switch 121, an illuminance setting switch 122, a soil acidity setting switch 123, and a humidity setting switch 124.

First, the temperature setting switch 121 is a switch type that can be set in three steps of rising and falling vertically to the first column with reference to the left side of the measurement value setting control unit, 121a, a middle temperature plant mode 121b, and a low temperature plant mode 121c.

Here, the high temperature plant mode 121a is set when the temperature setting switch is placed on the upper side, and is set when the plant is a plant that is active at a relatively high temperature of 20 to 30 degrees.

At this time, when the temperature is set to the high temperature plant mode 121a, the central green LED of the temperature notification LED unit 131 is turned on when the temperature measured by the temperature sensor 220 is maintained within 20 to 30 ° for 10 minutes, Is below 20 °, the red LED at the bottom of the temperature notification LED is turned on. If the temperature is maintained above 30 ° for at least 10 minutes, the upper red LED of the temperature notification LED is controlled to be turned on.

Here, the medium temperature plant mode 121b is set when the temperature setting switch is set at the center, and it is set when the plant is a plant in which the growing activity is active at a normal growth temperature of 10 to 20 °.

At this time, when the temperature is set in the medium temperature plant mode 121b, when the temperature measured in the temperature sensor 220 is maintained between 10 and 20 degrees for 10 minutes or more, the central green LED of the temperature notification LED unit 131 is turned on, If 10 ° or less is maintained for 10 minutes or more, the red LED at the bottom of the temperature notification LED will be lit. If the temperature is kept above 20 ° for more than 10 minutes, the upper red LED of the temperature notification LED will be lit up.

Here, the low temperature plant mode 121c is set when the temperature setting switch is placed at the lower end, and it is set when the plant is a plant with active growth at a relatively low temperature of 0 to 10 degrees.

In this case, when the temperature is set in the low temperature plant mode 121c, when the temperature measured in the temperature sensor 220 is maintained between 0 and 10 ° for more than 10 minutes, the central green LED of the temperature notification LED portion is turned on. If the status is maintained for more than 10 minutes, the red LED at the bottom of the temperature notification LED is turned on, and if the temperature is maintained at 10 ° or more for more than 10 minutes, the upper red LED of the temperature notification LED is controlled to be turned on.

As described above, according to the temperature required for plant growth, a suitable mode can be initially set to facilitate the management of the temperature suitable for the plant to be planted, and the optimum temperature set according to the plant can be set, I will.

Secondly, the illuminance setting switch 122 is a three-step settable type in which the left and right sides of the measured value setting control unit are raised and lowered in the vertical direction, A halftone plant mode 122b, and a shade plant mode 122c.

Herein, the sunny plant mode 122a is set when the illuminance setting switch is placed at the top, and it is set when the lightness of the growing plant is in the range of 5,000 ~ 20,000 lx and the plant activity is active.

In this case, when the illumination mode is set to the sunny plant mode 122a, if the illuminance directly illuminated to the plant measured by the illuminance sensor 230 is maintained between 5,000 and 20,000 lx, the central green LED of the illuminance LED unit is turned on, The lower red LED of the illuminance LED portion is turned on, and when the state of 20,000lx or more is maintained, the upper red LED of the illuminance LED portion is controlled to be turned on.

Herein, the half-transplant plant mode 122b is set when the illuminance setting switch is set at the center, and it is set when the growing activity is active in an illuminance range of 3,000 ~ 5,000lx depending on the light requirement of the plant being planted.

In this case, when the illumination mode is set to the half-tone plant mode 122b, when the illuminance directly illuminated to the plant measured by the illuminance sensor 230 is maintained between 3,000 and 5,000 lx, the central green LED of the illuminance LED is turned on, If the following conditions are maintained, the lower red LED of the illuminance LED is turned on, and when the state of 5,000 lx or more is maintained, the upper red LED of the illuminance LED is turned on.

Herein, the shade plant mode 122c is set when the illuminance setting switch is placed at the lower end, and is set when the light intensity of the growing plant is in the range of 1,000 to 2,000 lx.

In this case, when the illumination mode is set to the phonetic plant mode 122c, when the illuminance directly illuminated to the plant measured by the illuminance sensor 230 is maintained between 1,000 and 2,000 lx, the central green LED of the illuminance LED is turned on, If the following conditions are maintained, the lower red LED of the illuminance notification LED is turned on, and when the state of 2,000 lx or more is maintained, the upper red LED of the illuminance LED is turned on.

As described above, according to the illuminance required for plant growth, a suitable mode is initially set, and the position of the plant to be planted is changed according to the position of the sunlight or the illuminance of the artificial light is adjusted, It is possible to set the optimized setting intensity according to the plant, making it compatible with various kinds of plants.

Thirdly, the soil acidity setting switch 123 is a switch type that can be set in three stages of ascending and descending in the vertical direction to the third column based on the left side of the measurement value setting control unit. A mode 123a, a neutral plant mode 123b, and a weak alkaline plant mode 123c.

Here, the weakly acidic plant mode 123a is set when the acidity setting switch is placed at the top, and it is set when the cultivated plant is a plant that is active in a relatively weakly acidic soil at pH 5 to 6.

In this case, when the pH is set to the weak acid plant mode 123a, when the acidity of the soil measured by the acid sensor 240 is maintained between pH 5 and 6, the central green LED of the pH LED is turned on. The red LED at the lower part of the pH alert LED is turned on and the upper red LED of the pH alert LED is turned on when the pH is maintained at pH 7 or higher.

The neutral plant mode (123b) is set when the acidity setting switch is set at the center, and is set when the plant is a plant with active growth activity at a pH of 6-7, which is a neutral soil.

At this time, when the pH is set to the neutral plant mode (123b), when the acidity of the soil measured by the acid sensor 240 is maintained between pH 6 and 7, the central green LED of the pH LED is turned on. If the acidity of the soil is below pH 5 The red LED at the bottom of the pH alert LED will light up and the red LED at the top of the pH alert LED will light up if the pH is above 8.

The weak alkaline plant mode 123c is set when the acidity setting switch is placed at the bottom, and is set when the growing plant is a plant in which the growth activity is active at a pH of from 7 to 8, which is a weakly alkaline soil.

In this case, when the acidity of the soil is maintained between pH 7 and 8, the central green LED of the pH LED is turned on when the acidity measured in the pH sensor 123 is set to the weak alkaline plant mode 123c. If the acidity of the soil is below pH 6 The red LED at the bottom of the pH indicator LED is turned on and the upper red LED of the pH indicator LED is turned on when the pH is maintained at pH 9 or higher.

As described above, according to the desired acidity according to the acidity required for plant growth, an appropriate mode can be initially set, and the acidity suitable for the plant to be cultivated can be easily managed, and the optimum acidity can be set according to the plant, I will.

Fourthly, the humidity setting switch 124 is a three-step settable switch type in which the left and right sides of the measured value setting control unit are vertically raised and lowered in the fourth row. A hydroponic plant mode 124b, and an aquatic plant mode 124c.

Here, the green plant mode 124a is set when the humidity setting switch is placed at the top, and is set when the plant is a plant that is actively growing in a relatively dry environment.

In this case, if the humidity in the soil measured by the humidity sensor 250 is maintained at 30 to 50% when the greenhouse plant mode 124a is set, the central green LED of the humidity indicator LED unit is turned on. If the humidity in the soil is less than 30% , The lower red LED of the humidity warning LED is turned on, and when the condition of 50% or more is maintained, the upper red LED of the humidity warning LED is controlled to be turned on.

Here, the hygiene plant mode 124b is set when the humidity setting switch is set at the center, and is set when the plant is a plant that is actively growing in a relatively humid environment.

In this case, if the humidity in the soil measured by the humidity sensor 250 is maintained at 50 to 70%, the central green LED of the humidity notification LED portion is turned on. If the humidity in the soil is less than 50% , The red LED at the bottom of the humidity notification LED is turned on, and when the state of 70% or more is maintained, the upper red LED of the humidity notification LED is controlled to be turned on.

Here, the aquatic plant mode 124c is set when the humidity setting switch is placed at the lower end, and is set when the plant is a plant that is active in underwater environment.

At this time, when the humidity sensor 250 is set to the aquatic plant mode 124c, the central green LED of the humidity notification LED unit is turned on when the measured humidity is maintained at 100% If the sensor is not immersed in water and the humidity drops below 90%, the red LED at the bottom of the humidity notification LED will light up.

As described above, according to the humidity required for plant growth, a suitable mode can be initially set to facilitate the management of the humidity suitable for the plant to which it is planted, and the optimum setting humidity can be set according to the plant, I will.

The LED lighting unit 130 may be configured such that LEDs for indicating temperature, illuminance, acidity, and humidity are spaced apart from each other by a predetermined interval in the horizontal direction on one side of the front upper end of the transparent housing, and temperature, , And the information received from the sensor frame according to the humidity is individually turned on according to the LED lighting signal to provide information to the manager.

The temperature notification LED unit 131, the illumination notification LED unit 132, the soil acidity notification LED unit 133, and the humidity notification LED unit 134 are configured.

The temperature notification LED unit 131 includes three LEDs positioned at a first left side of the upper front side of the transparent housing and spaced at a predetermined interval in the vertical direction, And the LEDs of the three LEDs in the vertical direction are turned on.

If a temperature within the set temperature is sensed according to the initial set temperature of the temperature setting switch 121, the central green LED is turned on according to the signal received from the sensor frame 200, and when the temperature rises above the set temperature, When the temperature falls below the set temperature, the lower red LED is turned on.

Specifically, when the temperature notification LED 131 is set to the high temperature plant mode 121a according to the initial set temperature of the temperature setting switch 121, the central green LED is turned on when the measured temperature is maintained at 20 to 30 °, When the temperature rises above 30 °, the upper red LED lights up and when it falls below 20 °, the lower red LED lights up.

When the measurement temperature is set to 20 ℃, the center green LED lights up. If the measured temperature rises above 20 °, the upper red LED lights up. If the measurement temperature falls below 10 °, Red LED is on.

When set to low temperature plant mode (121c), the center green LED lights up when the measured temperature is maintained at 0 ~ 10 °, the upper red LED lights up when the measured temperature rises above 10 °, Red LED is on.

When the temperature is higher than the growth temperature, the red LED at the upper part lights up. When the temperature lower than the growth temperature is measured, the lower part So that the administrator can determine the temperature suitable for the plant.

In other words, it is easy to visually confirm whether the temperature suitable for the plant is set by turning on the green LED. When the upper red LED is lit, the ambient temperature is lowered than the proper growth temperature of the plant. If it is lit, the ambient temperature is raised to allow the administrator to easily identify and manage the temperature suitable for the plant.

The illuminance notification LED unit 132 includes three LEDs positioned at a predetermined distance in the vertical direction on the second left side of the upper front side of the transparent housing and includes a sensor frame 200 And the LEDs of the three LEDs in the vertical direction are turned on.

When the illuminance within the setting illuminance is detected according to the initial setting illuminance of the illuminance setting switch 122, the central green LED is turned on according to the signal received from the sensor frame 200, and when the illuminance rises above the set humidity, And when the temperature falls below the set humidity, the lower red LED is turned on.

Specifically, when the illuminance notification LED unit 132 is set to the sunny vegetation mode 122a according to the initial setting illuminance of the illuminance setting switch 122, the central green LED is lit when the illuminance is maintained at 5,000 to 20,000 lx, When the illuminance rises above 20,000 lx, the upper red LED lights up, while when it goes below 5,000 lx, the lower red LED lights up.

When set to half-tone plant mode (122b), the center green LED lights up when the measurement illuminance is maintained at 3,000 ~ 5,000lx, the upper red LED lights up when the measurement illuminance is above 5,000lx, Red LED is on.

When the measurement illuminance is set to the plant mode (122c), the center green LED lights up when the measurement illuminance is maintained at 1,000 to 2,000 lx, the upper red LED lights up when the measurement illuminance exceeds 2,000 lx, Red LED is on.

The green LED located at the center illuminates when the illuminance according to the initial plant growth environment is maintained, and the red LED located at the top illuminates when the illuminance higher than the growth illuminance is measured. When the illuminance lower than the grown illuminance is measured, So that the administrator can grasp the illumination suitable for the plant.

That is, it is easy to visually confirm whether the illuminance suitable for the plant is set through the illumination of the green LED, and when the upper red LED is lit, the plant is moved to the shady place by the elevation higher than the appropriate illuminance of the plant, When the red LED is lit, the plant is moved to a bright place, so that the administrator can easily grasp and manage the illumination suitable for the plant.

The acidity notification LED unit 133 includes three LEDs spaced apart from each other by a predetermined distance in the longitudinal direction of the third upper left corner of the front surface of the transparent housing. The sensor frame 200, which varies according to the initial set pH of the acidity setting switch 123, And the LEDs of the three LEDs in the vertical direction are turned on.

When the acidity within the set acidity is detected according to the initial set acidity of the acidity setting switch 123, the central green LED is turned on according to the signal received from the sensor frame 200. When the acidity is higher than the set acidity, When the temperature falls below the set point, the lower red LED is turned on.

Specifically, when the acidity notification LED unit 133 is set to the weakly acidic plant mode 123a according to the initial set acidity of the acidity setting switch 123, the central green LED is turned on when the measured acidity is maintained within the pH range of 5 to 6, The upper red LED lights up when the pH of the measurement rises above pH 7, and the lower red LED lights up when the pH falls below 4.

When set to neutral plant mode (123b), the center green LED will light up if the pH is maintained within pH 6 ~ 7, the upper red LED will light up if the pH is above pH 5, The lower red LED lights up.

When set to weak alkaline plant mode (123c), the center green LED will light up if the pH value is maintained within 7 ~ 8, the upper red LED will light up if the pH value is above 9, The lower red LED lights up.

The green LED located at the center is lit when the appropriate acidity is maintained according to the initial plant growth environment, and the red LED at the upper part is lit when the acidity is higher than the growth acidity. When the acidity is lower than the growth acidity, So that the administrator can grasp the acidity suitable for the plant.

That is, it can be visually confirmed whether the acidity suitable for the plant is set through the lighting of the green LED. When the upper red LED is lit, the alkaline fertilizer is mixed with the soil that is higher than the appropriate acidity of the plant, When the red LED lights up, the acid fertilizer is mixed in the soil, so that the administrator can easily grasp and manage the pH suitable for the plant.

The humidity indicator LED unit 134 is formed of three LEDs spaced apart from each other at a predetermined interval in the longitudinal direction on the left-hand side of the top of the transparent housing. The humidity indicator LED unit 134 includes a sensor frame The LEDs of the three LEDs in the vertical direction are turned on.

When the humidity within the set humidity is sensed according to the initial humidity set by the humidity setting switch 124, the central green LED is turned on according to the signal received from the sensor frame 200. When the humidity rose above the set humidity, And when the temperature falls below the set humidity, the lower red LED is turned on.

Specifically, when the humidity notification LED unit 134 is set to the greenhouse vegetation mode 124a according to the initial humidity set by the humidity setting switch 124, the central green LED is turned on when the measured humidity is maintained within 30 to 50% The upper red LED lights when the measured humidity is higher than 50%, and the lower red LED is turned on when the humidity drops below 30%.

When set to Humane Plant Mode (124b), the central green LED will light up if the measured humidity is within 50% to 70%, the upper red LED will light up if the measured humidity is above 70%, and down to 50% The lower red LED lights up.

If set to aquatic plant mode (124c), the central green LED will light up if the measured humidity is 100%, and the bottom red LED will light up if the measured humidity falls below 90%.

When the humidity is higher than the growth humidity, the red LED at the upper part lights up. When the humidity lower than the growth humidity is measured, the lower part So that the administrator can determine the humidity suitable for the plant.

In other words, it is easy to visually confirm whether the humidity suitable for the plant is set by turning on the green LED, and when the upper red LED is lit, it is higher than the proper humidity of the plant, thereby reducing water supply period, And manage the environment such as creating a dry environment. When the lower red LED lights up, the water supply cycle is increased, water supply is increased, and humid environment is created. Identify and manage them.

Through this, the manager of the plant does not come near, and it is possible to grasp the temperature, the illuminance, the acidity and the humidity in the soil required for the plant through the LED light from a distance and make it easy to manage the plant, Can be managed according to the growing environment, and the plant can be raised healthily.

The circular battery 140 is inserted into the rear of the transparent housing and is connected to the smart PCB control module. The circular frame 140 serves to supply power to the LED lighting unit.

Next, the sensor frame 200 according to the present invention will be described.

The sensor frame 200 is an upright rectangular bar shaped frame having one upper end inserted into the transparent housing and a lower end plated with a moisture sensor and an acidity sensor protruding from the upper surface of the probe frame, , Which is directly contacted with the soil and serves to measure the humidity and soil pH (pH) information in the soil.

5, the smart PCB control module 210, the temperature sensor 220, the illuminance sensor 230, the acidity sensor 240, and the humidity sensor 250, as shown in FIG.

The smart PCB control module 210 is located on the upper surface of the sensor frame and transmits measurement information of temperature, soil acidity, illuminance, and humidity measured by a temperature sensor, an illuminance sensor, an acidity sensor, and a humidity sensor, And provides a control signal of the LED lighting unit.

As shown in FIG. 12, the smart PCB control module 210 according to the present invention receives sensor values measured in connection with temperature, illuminance, acidity, and humidity sensors and compares the measured sensor values with the set values, The smart control unit 210b, the temperature sensor circuit unit 210c, the illuminance sensor circuit unit 210d, the acidity sensor circuit unit 210e, and the temperature sensor unit 210e. A humidity sensor circuit portion 210f, a measured value setting control circuit portion 210g, and an LED lighting circuit portion 210h.

First, the power supply unit 210a converts the input voltages V + and V- into a DC voltage of a certain level to provide power to the respective loads.

Next, the smart control unit 210b includes a power supply unit 210a, a temperature sensor circuit unit 210c, an illuminance sensor circuit unit 210d, an acidity sensor circuit unit 210e, a humidity sensor circuit unit 210f, a measured value setting control circuit unit 210g, And an LED lighting circuit unit 210h are connected to control the overall operation of each device. If the measured sensor value and the set value are compared and analyzed, if the LED is within the set range, a normal signal is output to the LED lighting unit, Value and the set value and controls the LED lighting unit to output an abnormal signal when the set range is over or below the set range.

Here, the normal signal refers to the central green LED emission signal, and the abnormal signal refers to the upper red LED emission signal and the lower red LED emission signal.

It consists of a PIC one-chip microcomputer.

That is, the power supply unit is connected to one side of the VCC terminal to receive power, and the measurement value setting control circuit unit 210g is connected to the input terminals P3.0 to P3.3 to receive the set values from the measurement value setting control circuit unit The temperature sensor circuit part 210c is connected to another input terminal P1.0 to receive the measured temperature information of the plant around the temperature sensor 220 and the illuminance sensor circuit part 210d to another input terminal P1.1, And the pH sensor 231 is connected to the pH sensor 230 and the pH sensor 210a is connected to the input terminal P1.2. And the humidity sensor circuit portion 210f is connected to another input terminal P1.3 to receive the humidity information of the soil inside the pot measured by the humidity sensor 250. The output terminals P1.4 to 1.7 The LED lighting circuit section is connected to the temperature, the illuminance, the acidity, the humidity side It is configured to compare the output control of the LED lighting signal corresponding to a result analyzed by the LED lighting circuit values and setting values.

Next, the temperature sensor circuit unit 210c transmits temperature information about the measured plant to the temperature sensor 220 to the smart controller.

Next, the illuminance sensor circuit portion 210d transmits illuminance information about the measured plant to the illuminance sensor 230 to the smart control unit.

Next, the acidity sensor circuit unit 210e transmits the acidity information of the soil inside the flowerpot measured by the acidity sensor 240 to the smart control unit.

Next, the humidity sensor circuit section 210f transmits the humidity information of the soil inside the pot measured by the humidity sensor 250 to the smart control section.

Next, the measurement value setting control circuit portion 210g is connected to the measurement value setting control circuit portion 210g, and is selectively changed to one of the high temperature plant mode, the mesophile vegetation mode, and the low temperature plant mode according to the setting of the temperature setting switch And transmits the signal. The signal is selectively changed to one of the sunny vegetation mode, the half-plant vegetation mode, and the shade plant mode according to the setting of the illuminance setting switch, and the signal is transmitted by the weak acid plant mode, neutral plant Mode and a weakly alkaline plant mode, and the signal is transmitted to a single mode of the plant plant mode, the vegetative plant mode, and the aquatic plant mode according to the setting of the humidity setting switch. do.

The LED lighting circuit unit 210h is connected to one side of the smart control unit 210b and compares and analyzes the measured values of temperature, illuminance, acidity, and humidity with the set values. The LED lighting circuit unit 210h includes a temperature notification LED unit 131 of the LED lighting unit, The LED portion 132, the acidity notification LED portion 133, and the humidity notification LED portion 134. In this case,

If the measurement value is lower than the set value, it transmits a lighting signal to the upper red LED. If the measured value is within the setting range, it transmits a lighting signal to the central green LED. If the measured value is lower, .

The temperature sensor 220 is attached to the upper end of the sensor frame and is located at one side of the inside of the transparent housing, and measures the ambient temperature around the plant and provides it to the smart PCB control module.

It measures the temperature required for plant growth.

The illuminance sensor 230 is attached to the upper end of the sensor frame and is located at one side of the inside of the transparent housing. The illuminance sensor 230 is installed in a direction in which light is projected to the plant, and measures the amount of light to provide it to the smart PCB control module.

It measures the amount of light that illuminates a plant, such as sunlight or indoor lighting, needed for plant growth.

The pH sensor 240 is plated on the lower front surface and the rear surface of the sensor frame to measure pH pH of the soil and provide it to the smart PCB control module.

It measures the soil pH (pH), which indicates the solubility of nutrients and the level of hydrogen concentration affecting plant growth among the properties of soil.

The humidity sensor 250 is plated on the lower front surface and the rear surface of the sensor frame to measure the moisture in the soil and provide it to the smart PCB control module.

It accounts for 80 to 90% of the plant's weight and measures the moisture content in the soil, a very important component of the plant.

In addition, the sensor frame 200 according to the present invention is formed by coating a Graphene oxide / polyethyleneimine (PEI) polymer film on the outer surface.

It is coated on the outer surface of the sensor frame to prevent the sensor from being oxidized from the pH of the soil, to prevent corrosion of the pH sensor and humidity sensor according to the water supply of the pollen, and to prevent scratching due to fine soil particles or small pebbles To extend the service life of the pH sensor and the humidity sensor and to minimize measurement errors.

Wherein the coating of the sensor frame 200 is a Graphene oxide / polyethylene imine (PEI) polymer film wherein the Graphene oxide comprises 2 to 10 wt% of graphite powder, 1 to 5 wt% of KMnO 4 , 85 to 97 wt% of H 2 SO 4, Was stirred in a water bath at 20 DEG C or lower at 200 to 300 rpm for 30 to 50 minutes,

500 to 600 parts by weight of distilled water and 10 to 20 parts by weight of a 30% H 2 O 2 solution were added to 100 parts by weight of the mixture, further stirred for 1 to 2 hours,

Wash the mixture with a 1:10 HCl solution (v / v%) to remove the metal ion, set aside in the centrifuge, and wash it with distilled water until the pH becomes neutral to remove the acid.

More specifically,

1 g of graphite powder, 0.5 g of KMnO 4 and 23 g of H 2 SO 4 are stirred in an ice water bath at 0 ° C at 400 rpm for one hour.

Next, 280 g of distilled water and 5 g of 30% H 2 O 2 solutioin were gradually added to the total weight of the mixture of graphite powder, KMnO 4 and H 2 SO 4, and the mixture was further stirred for 1 hour,

Centrifuge the mixture and wash with 500 mL of 1:10 HCl solution (v / v%) to remove metal ions. Then, washing with distilled water to remove the acidity, and washing until the pH becomes neutral, graphite oxide dispersed in distilled water can be obtained.

The Graphene oxide / polyethyleneimine (PEI) polymer film is prepared using electrostatic attraction between positive and negative ions.

The sensor frame 200 on which copper is deposited is immersed in a PEI solution containing cation for 5 minutes, washed with immersion in distilled water, and then air-dried.

Next, after immersing in a solution containing an anion-dispersed raphite oxide for 5 minutes, it is washed with immersion in distilled water, followed by air drying. Such a process is repeated several times as a unit process, so that the surface of the sensor frame 200 is coated with a Graphene oxide / polyethyleneimine (PEI) polymer film.

Next, the probe frame 300 according to the present invention will be described.

The probe frame 300 is an upright rectangular rod-shaped frame. The lower end of the probe unit 300 is inserted and protected in a vertical direction on the upper surface thereof, and the lower end of the probe unit 300 is inclined obliquely in the backward direction.

6, it is composed of a frame body 310, a front sensor protection frame 320, and a rear sensor protection frame 330.

The frame body 310 is formed in a rectangular frame shape so that the front end and the rear face of the lower end portion are obliquely inclined at an oblique angle so that the front end of the frame body 310 is vertically inclined. A first latching groove 313 is formed in the front and rear left and right sides of the center of the lower end of the lower end of the insertion groove and a second latching groove 314 is formed in the front and rear left and right sides of the lower end of the insertion groove And the first sensor exposure groove 312 is penetrated through one side of the lower end face in a front-to-back direction.

This serves to prevent damage to the surface of the sensor frame or breakage of the lower end of the sensor frame 200 when the sensor frame 200 is mounted on the soil 3a having a high hardness or viscosity in the pots 3.

In addition, the frame body 310 according to the present invention is formed such that the front and rear faces of the lower end meet symmetrically and obliquely and have rounded corners.

This makes it easy to dig into the soil when installing the growth sensing module in pots (3) with hard or viscous soils (3a) and to prevent damage to the roots of the plants (2) extending into the soil.

The front sensor protecting partition frame 320 is formed in the shape of a rectangular plate and has a pressing surface 321 bent in a right angle to the top surface and a second sensor exposure groove 322 penetrating in the front- And a plate engaging protrusion 323 protruding in the left and right direction of the lowermost end is formed.

As shown in FIG. 7, the front sensor protecting partition frame 320 according to the present invention is inserted perpendicularly to the front direction of the insertion groove 311 before being inserted into the flowerpot, and the plate fastening protrusion 323 is inserted into the first fastening groove And the lower end of the front sensor protection partition frame 320 is exposed to the outside in the first sensor exposure groove 312 of the frame body 310. [

This is because the surface of the sensor frame 240 of the sensor frame or the humidity sensor 250 is scratched or damaged by the friction of soil particles or small stones included in the soil when the probe frame 300 is placed on the soil 3a .

As shown in FIG. 8, the front sensor protecting partition frame 320 according to the present invention pushes the pushing support surface 321 formed at the upper end of the upper part after the insertion into the pollen, The first sensor exposure groove 312 and the second sensor exposure recess 322 are aligned so that the front face of the pH sensor 240 and the humidity sensor 250 are directly in contact with the inner surface of the soil, Keep exposed.

This is because the probe frame 300 is inserted into the soil 3a and then one side of the front sensor protection partition frame 320 for protecting the acid sensor 240 and the humidity sensor 250 is opened, And the acidity and humidity in the soil are measured.

At this time, when the front sensor protection partition frame 320 is inserted into the insertion groove of the frame body, the front sensor protection partition frame 320 is completely tightly contacted in the forward and backward directions, a minute spacing is formed in the lateral direction, And upward and downward in the vertical direction through the lateral direction.

This prevents separation distances between the first sensor exposure grooves 312 of the frame body and the second sensor exposure grooves 322 of the front sensor protection partition frame so that the front sensor protection partition frame rises and falls in the vertical direction The fine soil particles are prevented from being inserted into the front surface of the frame body and damaging the surface of the sensor frame when they are moved.

In order to detect the humidity and acidity in the pollen, the humidity sensor and the acid sensor on the soil are scratched on small stones or soil particles in the soil, and the sensor is damaged, preventing accurate measurement or shortening the life span can do.

The rear sensor protecting partition frame 330 is formed in a rectangular plate shape with a pressing surface 331 bent in a right angle to the top surface and a second sensor exposure groove 332 penetrating in the front- And a plate latching protrusion 333 protruding in a protruding shape in the left and right direction of the lowermost end is formed to be symmetrical with the front sensor protecting partition frame 320.

As shown in FIG. 7, the rear sensor protecting partition frame 330 according to the present invention is inserted perpendicularly to the rear surface direction of the insertion groove 311 before insertion into the pollen, and the plate latching jaw 333 is inserted into the first latching groove And the lower end of the rear sensor protection partition frame 320 is exposed to the outside in the first sensor exposure groove 312 of the frame body 310. [

This is because the surface of the sensor frame 240 of the sensor frame or the humidity sensor 250 is scratched or damaged by the friction of soil particles or small stones included in the soil when the probe frame 300 is placed on the soil 3a .

As shown in FIG. 8, the rear sensor protecting partition frame 330 according to the present invention is configured such that, after inserting the pollen, the pressing surface 331 formed at the upper end is pressed downward, The first sensor exposure groove 312 and the second sensor exposure groove 332 are brought into alignment with each other so that the rear surface of the pH sensor 240 and the humidity sensor 250 are directly in contact with the inner surface of the soil, Keep exposed.

This is because after one side of the rear sensor protecting partition frame 330 protecting the acid sensor 240 and the humidity sensor 250 is opened after the probe frame 300 is put into the soil 3a, So that the pH and humidity in the soil can be measured.

At this time, when the rear sensor protection partition frame 330 is inserted into the insertion groove of the frame body, it is completely in close contact with the front and rear direction, a minute spacing is formed in the lateral direction, and the plate- And upward and downward in the vertical direction through the lateral direction.

This prevents separation distances between the first sensor exposure grooves 312 of the frame body and the second sensor exposure grooves 332 of the rear sensor protection partition frame so that the rear sensor protection partition frame rises and falls in the vertical direction The fine soil particles are prevented from being inserted into the rear surface of the frame body and damaging the surface of the sensor frame when they are moved.

In order to detect the humidity and acidity in the pollen, the humidity sensor and the acid sensor on the soil are scratched on small stones or soil particles in the soil, and the sensor is damaged, preventing accurate measurement or shortening the life span can do.

Hereinafter, a specific operation process of the entry type smart seedling detection module according to the present invention will be described.

First, plants are selected for indoor use, and the growth environment suitable for the growth of plants is determined through the seller of the plants and the Internet information.

Next, the switch cover of the measurement value setting control section is opened to suit the growing environment of the plant, and a temperature setting switch, a humidity setting switch, a pH setting switch, and a humidity setting switch are set according to temperature, illuminance, acidity and humidity suitable for the plant .

At this time, the temperature setting switch can set the high temperature plant mode, the medium temperature plant mode, and the low temperature plant mode.

At this time, the illuminance setting switch can set the sunny plant mode, the half plant plant mode, and the shade plant mode.

At this time, the acidity setting switch can set the weak acid plant mode, the neutral plant mode, and the weak alkaline plant mode.

At this time, the humidity setting switch can set the green plant mode, the wet plant mode, and the aquatic plant mode.

Next, the front sensor protection frame and the rear sensor protection frame are placed on the front and rear surfaces of the insertion groove of the upper end of the frame body of the probe frame, respectively, so that the plate latching jaws are inserted into the first latching grooves.

Next, the lower end of the sensor frame is inserted into the insertion groove of the frame body so that the pH sensor and the humidity sensor come to the position of the first sensor exposure groove.

Next, the frame body of the probe frame is vertically oriented so that a part of the upper end protrudes to the outside.

Next, the pressing surfaces of the front sensor protection frame and the rear sensor protection frame are pressed downward so that the first sensor exposure groove and the second sensor exposure groove are aligned with each other, and the acid sensor and the moisture sensor are exposed to directly contact the soil .

This allows the sensor to be placed in the soil without external exposure of the sensor and to prevent damage to the sensor by opening the sensor on the inside of the soil.

Lastly, when the temperature, illumination, acidity and humidity are maintained according to the plant's initial growth setting, the central green LED lamp of the LED lighting part is turned on. When the set value is measured, the upper red LED lamp is turned on, The lower red LED lamp lights up to provide the manager with information to help create an environment suitable for plant growth.

This allows the manager to determine what elements are needed for the plant and make the environment suitable for plant growth so that it grows healthy.

100: main control box 110: transparent housing
120: Measurement value setting control unit 130: LED lighting unit
140: Circular battery 200: Sensor frame
210: Smart PCB control module 220: Temperature sensor
230: illuminance sensor 240:
250: humidity sensor 300: probe frame
310: frame body 320: front sensor protection frame
330: Rear sensor protection frame

Claims (7)

Humidity measurement module for measuring the illuminance of the light illuminating the pollen and the temperature of the ambient air and measuring the moisture content and soil acidity (pH) present in the pollen and providing the measured value,
To protect the internal equipment in the form of a box located at the upper part of the pollen temperature / humidity measurement module and to provide necessary information of the plant composed of temperature, humidity, illumination, soil pH (pH)
A transparent housing 110 formed in a rectangular parallelepiped shape having a protrusion in the form of a water spray and a protrusion in the shape of a knob on the rear, and a front case and a rear case coupled to each other,
A measurement value setting control unit 120 for setting a notification display value of the LED lighting unit selectively illuminated in accordance with the growth condition of the plant by vertically arranging four up-and-down movement switches, which are protected by a switch cover,
LEDs for displaying temperature, illuminance, acidity, and humidity are spaced apart from each other at a predetermined interval in the horizontal direction on one side of the front upper end of the transparent housing, and transmitted in the sensor frame according to temperature, illuminance, acidity, and humidity set in the measured value setting control unit 120 An LED lighting unit 130 which is individually turned on according to an LED lighting signal,
A main control box 100 comprising a sensor frame inserted through a circular battery detachment unit formed on the rear surface of the transparent housing and connected to the smart PCB control module and a circular battery 140 for supplying power to the LED lighting unit,
A frame having an upright rectangular bar shape, the upper end of which is inserted into the inside of the transparent housing, the lower end plated with the moisture sensor and the pH sensor is vertically inserted into the upper surface of the probe frame to directly contact the soil, And a sensor frame 200 for measuring soil acidity (pH) information,
And a probe frame (300) having a lower end embedded in a rear surface of the probe frame (300) by inserting and protecting the lower end of the sensor part in a vertical direction on the upper surface with an upright rectangular bar shaped frame,
The measurement value setting control unit 120
The switch is a switch type that can be set up in three steps of ascending and descending in the vertical direction to the first column with reference to the left side of the measurement value setting controller. The switch is a hot plant mode 121a, a medium temperature plant mode 121b, A temperature setting switch 121 composed of a plant mode 121c,
A settable state of three steps of rising and falling vertically in a second direction on the basis of the left side of the measured value setting control unit, and in accordance with the light requirement of the plant, from the top to the top plant mode 122a, the half plant plant mode 122b, An illuminance setting switch 122 composed of an illuminance setting switch 122c,
In the form of a switch that can be set up in three stages of ascending and descending in the vertical direction in the third row with reference to the left side of the measurement value setting control unit, depending on the soil acidity adaptability of the plant, the weak acid plant mode 123a, the neutral plant mode 123b, A soil acidity setting switch 123 composed of a weakly alkaline plant mode 123c,
A settable switch of three stages in which the fourth row ascends and descends in a vertical direction on the basis of the left side of the measurement value setting control unit, and is set to be in a green plant mode 124a, a wet vegetation mode 124b, And a humidity setting switch (124) configured by a humidity sensor (124c).
delete delete The LED lighting apparatus according to claim 1, wherein the LED lighting unit (130)
The control signal of the sensor frame 200, which varies according to the initial temperature of the temperature setting switch 121, is received in the form of three LEDs positioned at a first left side of the upper front side of the transparent housing at regular intervals in the longitudinal direction, A temperature notification LED unit 131 configured to illuminate any one of three LEDs in the direction of the arrow,
The LED control unit 120 receives the lighting control signal of the sensor frame 200 varying in accordance with the initial setting illuminance of the illuminance setting switch 122 in the form of three LEDs positioned at a second left side of the front upper side of the transparent housing at a predetermined interval in the longitudinal direction, An illuminance notification LED unit 132 configured to illuminate any one of the three LEDs in the direction of the illuminance,
The control signal of the sensor frame 200, which varies according to the initial set pH of the pH setting switch 123, is received in the form of three LEDs spaced apart at regular intervals in the vertical direction of the third upper left corner of the transparent housing, The LEDs 133 are configured to turn on any one of the three LEDs in the direction of the arrow,
A light emitting control signal of the sensor frame 200 which is variable according to the initial humidity of the humidity setting switch 124 is received by the three LEDs positioned at a predetermined distance in the vertical direction on the left side of the top of the transparent housing And a humidity indicator LED unit (134) configured to illuminate any one of three LEDs in the vertical direction.
delete delete The probe of claim 1, wherein the probe frame (300)
An insertion groove 311 is formed in the upper surface so that the front sensor protection cover, the sensor frame, and the rear sensor protection cover are vertically inserted into the upper surface, A first latching groove 313 is formed on the front and rear left and right sides of the center of the lower end of the insertion groove, a second latching groove 314 is formed on the front and rear left and right sides of the lowermost end of the insertion groove, A frame body 310 through which the first sensor exposure groove 312 penetrates in the rear direction,
A second sensor exposure groove 322 penetrating in the front and rear direction is formed on one side of the center, and the second sensor exposure groove 322 is formed in the shape of a protrusion in the lowermost left and right direction A front sensor protecting partition frame 320 on which protruding plate retaining protrusions 323 are formed,
And a second sensor exposure groove 332 penetrating in the front and rear direction is formed on one side of the center, and the second sensor exposure groove 332 is formed in a shape of a protrusion in the lowermost left and right direction And a rear sensor protecting partition frame (330) formed with protruding plate catching protrusions (333) to be symmetrical with the front sensor protecting partition frame (320).
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