Termite detection device based on photoelectric induction technology

Abstract

The utility model provides a termite detection device based on photoelectric induction technology, which is characterized in that a detection box body is internally provided with a termite bridge and a termite bridge cover plate, the termite bridge and the termite bridge cover plate are spliced to form a detection chamber, the bottom surface of the termite bridge is provided with a plurality of through holes, the termite bridge cover plate is made of transparent material, and a termite guide assembly is internally provided with a plurality of guide channels; the photoelectric detection assembly comprises a light source lamp set and a photoelectric sensor, the light source lamp set and the photoelectric sensor are both arranged on the same side of the ant bridge cover plate, and the light source output end of the light source lamp set is connected with the photoelectric sensor. Light source receiving ends of the photoelectric sensor and the photoelectric sensor face the same side face of the termite bridge cover plate, the photoelectric sensor receives light rays output by the light source lamp set and reflected by the termite bridge cover plate, and the photoelectric detection assembly calculates termite activity intensity data based on the light reflection performance of the termite bridge cover plate. According to the termite detection device, the termite detection function can be achieved based on the light reflection principle and the photoelectric induction technology.

Description

TECHNICAL FIELD

[0001] The utility model belongs to biological detection technical field especially relates to a termite detection device based on photoelectricity response technology. BACKGROUND

[0002] In order to keep own moisture and suitable activity temperature, termite will make covering own activity area's covering by using soil, wood chip even termite corpse etc., mainly covering its moving path and feeding area, covering is also called mud covering, so mud covering is an important feature of distinguishing termite activity. Under prior art, conventional termite detection method includes artificial patrol, finds the sign of termite activity by artificial mode, but the efficiency is low, and it is difficult to realize termite early warning in advance, in addition, still can through termite sound detection, gas detection and thermal imaging detection etc. Method, but the detection equipment of above-mentioned method is expensive, and for the sound interference, gas interference and other biological interference conditions in detection environment, it is higher to require, leads to detection precision to be poor. CONTENT OF UTILITY MODEL

[0003] The utility model provides a termite detection device based on photoelectricity response technology to solve the technical problem that conventional termite detection device cannot efficiently and accurately realize termite detection and quantity estimation under prior art.

[0004] To solve the above problems, the technical scheme of the utility model is as follows: a termite detection device based on photoelectricity response technology, comprising:

[0005] A detection box body is provided with an ant bridge and an ant bridge cover plate inside, the ant bridge and the ant bridge cover plate are spliced in the inside to form a detection chamber, the bottom surface of the ant bridge is provided with a plurality of through holes for the termite to enter or leave the detection chamber, the ant bridge cover plate is in sealing connection with the ant bridge, and the ant bridge cover plate is made of transparent material;

[0006] A termite guide assembly is arranged along the length direction of the termite detection device and is used for attracting termites to eat by being buried in the area to be detected, a plurality of guide channels are arranged inside the termite guide assembly, and the top openings of the plurality of guide channels are in communication with the plurality of through holes in the bottom surface of the ant bridge in sequence;

[0007] A photoelectric detection assembly includes a light source lamp group and a photoelectric sensor, the light source lamp group and the photoelectric sensor are arranged on the same side of the ant bridge cover plate, and the light source output end of the light source lamp group and the light source receiving end of the photoelectric sensor are both faced to the same side surface of the ant bridge cover plate, the photoelectric detection assembly is configured to receive the light output by the light source lamp group and the light reflected by the ant bridge cover plate, and the photoelectric detection assembly calculates termite activity intensity data based on the light reflection performance of the ant bridge cover plate.

[0008] Preferably, the term "termite guiding assembly" refers to a plurality of bait rods and a plurality of guiding rods, wherein the bait rods are arranged around the guiding rods, and the bait rods and the guiding rods are arranged in the same direction and side by side.

[0009] Preferably, the guiding rods are internally provided with the guiding channels arranged coaxially with the guiding rods and only one end penetrating the top end of the guiding rods.

[0010] Preferably, the bait rods and the guiding rods are made of pine or eucalyptus wood.

[0011] Preferably, the top surface of the detection box, the ant bridge cover plate and the bottom surface of the ant bridge are coaxially and parallelly arranged in sequence, the photoelectric sensor is arranged at the center of the top surface of the detection box, and the light source lamp group is arranged on the top surface of the detection box and arranged in a ring shape with the photoelectric sensor as the center.

[0012] Preferably, a light shielding plate perpendicular to the top surface of the detection box is arranged between the photoelectric sensor and the light source lamp group, and the light shielding plate is used to shield the light source propagating horizontally around the photoelectric sensor.

[0013] Preferably, the inner walls of the detection box and the ant bridge are coated with a black non-reflective coating.

[0014] Preferably, the termite detection device based on photoelectric induction technology further comprises a main control box, and the main control box is internally provided with a main control module and a communication module of the photoelectric detection assembly, the main control module is used to control the light source output intensity of the light source lamp group, receive the electrical signal output by the photoelectric sensor based on the light intensity, and analyze the termite situation.

[0015] The communication module is wirelessly connected with a cloud server, and is used to output the termite situation data to the cloud server.

[0016] Preferably, the main control box is further provided with an independent power supply, and the independent power supply is used to continuously supply power to the photoelectric detection assembly.

[0017] Preferably, the termite detection device based on photoelectric induction technology further comprises a shell, the shell is sleeved outside the detection box and the termite guiding assembly, and a plurality of holes for the termites to enter and exit are formed in the horizontal circumferential direction of the termite guiding assembly.

[0018] Preferably, the height of the detection chamber is 1-10mm.

[0019] This utility model, by adopting the above technical solution, has the following advantages and positive effects compared with the prior art: This utility model provides a termite detection device based on photoelectric sensing technology. The termite detection device includes a detection box, a termite guiding component, and a photoelectric detection component. The detection box has a detection chamber inside. When termites are attracted into the detection chamber by the termite guiding component, they will form a mud blanket on the inner wall of the detection chamber. The greater the activity intensity of the termites, the thicker the mud blanket inside the detection chamber, and the shorter the formation time. The photoelectric detection component includes a light source and a photoelectric sensor. The light source and the photoelectric sensor are respectively set on the same side of the termite bridge cover. The light output by the light source is reflected by the termite bridge cover and can be received by the photoelectric sensor. When there is termite activity in the detection chamber, a light-colored mud blanket will form on the surface of the termite bridge cover. At this time, the reflectivity of the termite bridge cover changes. By detecting the reflectivity of the termite bridge cover by the photoelectric detection component, it is possible to indirectly determine whether there is termite activity inside the detection chamber and to estimate the number of termites in the area to be tested. Therefore, this utility model can realize the automated detection function of termite activity intensity, and based on photoelectric sensing technology, it has less requirement for the applicable environment of the termite detection device, has higher detection accuracy, and helps to realize the early warning function of termites. Attached Figure Description

[0020] Figure 1 This utility model provides a schematic diagram of the external structure of a termite detection device based on photoelectric sensing technology;

[0021] Figure 2 This utility model provides an exploded view of the internal structure of a termite detection device based on photoelectric sensing technology.

[0022] Figure 3 This utility model provides a cross-sectional structural diagram of a termite detection device based on photoelectric sensing technology;

[0023] Figure 4 This utility model provides a schematic diagram of the photoelectric detection circuit.

[0024] Explanation of reference numerals in the attached drawings: 1: Detection box; 2: Ant bridge; 3: Ant bridge cover; 4: Through hole; 5: Guide channel; 6: Bait rod; 7: Guide rod; 8: Light source assembly; 9: Photoelectric sensor; 10: Main control box; 11: Housing; 12: Hole; 13: Detection chamber; 14: Light shield. Detailed Implementation

[0025] The termite detection device based on photoelectric sensing technology proposed in this utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. The advantages and features of this utility model will become clearer from the following description and claims.

[0026] SeeFigures 1-4 The embodiment provides a termite detection device based on photoelectric sensing technology, which is used for realizing an automatic detection function of termite activity intensity, and a main body structure comprises a detection box body 1, a termite guiding assembly and a photoelectric detection assembly.

[0027] Referring to Figures 1-3 The detection box body 1 is internally provided with an ant bridge 2 and an ant bridge cover plate 3. The ant bridge 2 is a structure design specially used for attracting termites to move in a designated area. In the embodiment, the ant bridge 2 and the ant bridge cover plate 3 can be spliced, and a detection chamber 13 is formed in the whole structure after splicing. A plurality of through holes 4 are arranged on the bottom surface of the ant bridge 2 and used for allowing termites to enter or leave the detection chamber 13. The ant bridge cover plate 3 is in sealing connection with the ant bridge 2, that is, the detection chamber 13 is a relatively closed structure, and the termites can only enter the inside of the detection chamber 13 through the plurality of through holes 4.

[0028] In addition, the ant bridge cover plate 3 is made of transparent material.

[0029] The termite guiding assembly is arranged along the length direction of the termite detection device and is used for being buried in a to-be-detected area to attract termites to eat. A plurality of guiding channels 5 are arranged in the termite guiding assembly, and the top openings of the guiding channels 5 are in communication with the plurality of through holes 4 on the bottom surface of the ant bridge 2 in sequence. In the embodiment, when the termite guiding assembly is buried in the to-be-detected area, the termites are attracted to eat. When the termites enter the guiding channels 5 to eat, the termites further enter the inside of the detection chamber 13 along the guiding channels 5 and reenter different guiding channels 5 from different through holes 4 in the inside of the detection chamber 13. Based on the living habit of the termites, the termites make a covering object covering the activity area by using soil, wood chips or even termite corpses in order to maintain the moisture and suitable activity temperature of the termites. The covering object is also called a mud covering and mainly covers the moving path and the feeding area of the termites. Therefore, in the embodiment, if there are termites in the to-be-detected area, the termites are attracted to enter the inside of the detection chamber 13 by the termite guiding assembly, and the mud covering is inevitably formed on the inner wall of the detection chamber 13 and the surface of the ant bridge cover plate 3.

[0030] The photoelectric detection assembly comprises a light source lamp set 8 and a photoelectric sensor 9. The light source lamp set 8 can output light sources, and the photoelectric sensor 9 can receive the light sources and convert the received light signals into electrical signals for output. In the embodiment, the light source lamp set 8 and the photoelectric sensor 9 are arranged on the same side of the ant bridge cover plate 3, and the light source output end of the light source lamp set 8 and the light source receiving end of the photoelectric sensor 9 both face the same side surface of the ant bridge cover plate 3. That is, in the embodiment, when the light source lamp set 8 outputs light sources, the light first irradiates the ant bridge cover plate 3. If there is no termite activity in the detection chamber 13, since the ant bridge cover plate 3 is made of transparent material, the light will transmit through the ant bridge cover plate 3, and the reflected light received by the photoelectric sensor 9 is weak. On the contrary, if there is termite activity in the detection chamber 13, there must be a mud bank on the bottom surface of the ant bridge cover plate 3, and the thickness and formation speed of the mud bank are proportional to the termite activity intensity. At this time, the light first irradiates the ant bridge cover plate 3, and the light is reflected due to the blocking effect of the mud bank. The reflected light received by the photoelectric sensor 9 is strong. Therefore, the photoelectric detection assembly can indirectly judge the thickness and formation speed of the mud bank based on the reflection performance of the ant bridge cover plate 3, so as to judge whether there is termite activity in the to-be-detected area, and estimate the number of termites in the to-be-detected area according to experience.

[0031] In summary, the embodiment provides a termite detection device based on photoelectric induction technology. By using the characteristics that termites will form mud banks during their activities, the principle of light reflection, and photoelectric induction technology, the automatic detection function of termite activity intensity is realized. The photoelectric induction technology has less requirement for the application environment of the termite detection device and has high detection precision, which is helpful to realize the early warning function of termites. In the embodiment, since the light source lamp set 8 and the photoelectric sensor 9 are arranged on the same side of the ant bridge cover plate 3, the internal structure of the termite detection device is more compact in the length extension direction, so that the termite detection device can be applied to narrow to-be-detected areas.

[0032] Next, the specific structure and function of the termite detection device based on photoelectric induction technology provided in the embodiment will be further described in detail.

[0033] Preferably, in the embodiment, the termite guiding assembly comprises a plurality of bait rods 6 and a plurality of guide rods 7. The bait rods 6 are arranged outside the guide rods 7, and the bait rods 6 and the guide rods 7 are arranged in the same direction and side by side, for attracting termites to eat.

[0034] The guide rod 7 is internally provided with a guide channel 5 which is coaxially arranged with the guide rod 7 and only penetrates one end of the top end of the guide rod 7. That is, in the guide rod 7, the guide channel 5 with a bottom not connected is arranged, one end of the guide channel 5 extends to the middle of the guide rod 7, and the other end of the guide channel 5 extends to penetrate the top end of the guide rod 7 to form an opening at the top end of the guide rod 7. The opening at the top end of the guide rod 7 is in communication with the through hole 4 on the bottom surface of the ant bridge 2.

[0035] In the present embodiment, when the termite guiding assembly attracts termites, the termites will first gnaw the peripheral bait rod 6, and then gnaw the internal guiding rod 7. When the termites gnaw through the guiding rod 7 into the guiding channel 5, they will enter the inside of the detection chamber 13 along the extension direction of the guiding channel 5, and further re-enter the inside of the different guiding rods 7 from the different through holes 4 into the guiding channel 5.

[0036] Through the arrangement of the guiding channel 5, the termites can move along the predetermined route, which is helpful for the subsequent formation of the mud and the smooth development of the monitoring work. Compared with the open termite trapping method, the termite guiding assembly provided in the present embodiment utilizes the relatively closed guiding channel 5 and detection chamber 13, which reduces the influence of external environmental factors (such as weather changes, interference of other animals, etc.) on the behavior of termites and the formation of mud, and ensures the stability and reliability of data detection.

[0037] Specifically, in the present embodiment, the bait rod 6 and the guiding rod 7 are made of pine or eucalyptus wood, which is preferred by termites, thereby improving the attractiveness to termite gnawing. In the present embodiment, since termites mainly gnaw wood as a food source, the mud formed by them is mostly light-colored, and the light-colored mud has better light reflection performance and is more likely to form a light reflection difference on the surface of the transparent ant bridge cover plate 3.

[0038] Preferably, in the present embodiment, the top surface of the detection box 1, the ant bridge cover plate 3 and the bottom surface of the ant bridge 2 are coaxially and parallelly arranged in sequence, the photoelectric sensor 9 is arranged at the center of the top surface of the detection box 1, and the light source lamp group 8 is arranged on the top surface of the detection box 1 and arranged in a ring shape around the photoelectric sensor 9.

[0039] In the present embodiment, the photoelectric sensor 9 and the light source lamp group 8 are in the same plane, and the photoelectric detection assembly, the ant bridge cover plate 3 and the bottom surface of the ant bridge 2 are in parallel relationship with each other. The ring-shaped arrangement of the light source lamp group 8 can provide uniform light irradiation on the ant bridge cover plate 3, and ensure that the light reflected from the ant bridge cover plate 3 from all angles can be received by the photoelectric sensor 9. Even if the mud is unevenly distributed or locally thick, the photoelectric sensor 9 can also effectively capture the change of the reflected light, and further more accurately evaluate the formation degree of the mud and the activity intensity of the termites.

[0040] Preferably, a light shielding plate 14 perpendicular to the top surface of the detection box 1 is arranged between the photoelectric sensor 9 and the light source lamp group 8. The light shielding plate 14 is used to shield the horizontal light source around the photoelectric sensor 9. The light shielding plate 14 can effectively block the horizontal irradiation light from the light source lamp group 8 and the stray light in the surrounding environment from directly entering the photoelectric sensor 9, which helps to reduce unnecessary light interference and ensures that the light signal received by the photoelectric sensor 9 is mainly the light reflected from the transparent cover plate, thereby improving the accuracy and reliability of the detection.

[0041] Preferably, in the present embodiment, the inner wall of the detection box 1, the inner wall of the ant bridge 2 and the light isolation plate 14 are all coated with a black non-reflective coating. The black non-reflective coating can maximize the absorption of light and not produce light reflection, which helps to reduce unnecessary interference reflection from the inner wall of the detection box 1 and the inner wall of the ant bridge 2 itself, and ensures that the photoelectric sensor 9 can only receive the target light reflected back by the ant bridge cover plate 3. And by eliminating or minimizing the influence of non-target light sources, the accuracy of the photoelectric detection assembly in evaluating the degree of soil formation and termite activity can be significantly improved, that is, the black non-reflective coating helps to create a low-reflective background environment, so that any slight change in light reflection of the ant bridge cover plate 3 can be clearly captured by the photoelectric sensor 9.

[0042] Preferably, in the present embodiment, the photoelectric detection assembly is also provided with a main control module and a communication module, and the termite detection device further comprises a main control box 10, and the main control module and the communication module of the photoelectric detection assembly are arranged inside the main control box 10. The main control module is used to control the light source output intensity of the light source lamp group 8, receive the electrical signal output by the photoelectric sensor 9, and analyze the termite situation. The communication module is wirelessly connected with the cloud server, and is used to output the termite situation data to the cloud server to realize the data uploading function.

[0043] In an embodiment, referring to Figure 4 The main control module is provided with a photoelectric detection circuit, and the photoelectric sensor 9 is a photosensitive resistor Rn which can adjust its resistance value based on the received light intensity. The resistance value of the photosensitive resistor Rn changes with the light intensity, that is, the stronger the light, the smaller the resistance, and the weaker the light, the greater the resistance. In the photoelectric detection circuit, a fixed resistor R0 is also arranged. The photosensitive resistor Rn and the fixed resistor R0 are arranged in series, and the common connection point of the photosensitive resistor Rn and the fixed resistor R0 is the output end of the photoelectric detection circuit. The output end of the photoelectric detection circuit is provided with an analog-to-digital converter ADC to convert the analog voltage signal into a digital signal for output.

[0044] Specifically, when there is no soil formation in the transparent ant bridge cover plate 3, the color step curve of the ant bridge cover plate 3 will be obviously different from that when the transparent ant bridge cover plate 3 is completely covered with soil formation, resulting in a large difference in the reflection effect. According to the reflection intensity calculation formula, it can be theoretically verified that the reflection intensity received by the photoelectric sensor 9, and the reflection intensity calculation formula is:

[0045]

[0046] Wherein, Lr is the light intensity reflected by the ant bridge cover plate 3, Li is the light intensity output by the light source lamp group 8, Rc is the average reflectivity of the soil formation in the ant bridge cover plate 3, s is the actual coverage area of the soil formation, and S is the total area of the ant bridge cover plate 3.

[0047] In the embodiment, when no soil is present in the detection chamber 13, the light can completely penetrate the ant bridge cover plate 3 and be absorbed by the inner wall of the detection box body 1 and the inner wall of the ant bridge 2. At this time, the light-sensitive resistor Rn receives the lowest brightness of reflected light, the resistance value of the light-sensitive resistor Rn is the maximum value Rmax, and the detection electrical signal Vn is read as the maximum value Vmax. When the detection chamber 13 is completely covered by soil, the light can be completely reflected by the soil in the ant bridge cover plate 3. At this time, the light-sensitive resistor Rn receives the highest brightness of reflected light, the resistance value of the light-sensitive resistor Rn is the minimum value Rmin, and the detection electrical signal Vn is read as the minimum value Vmin. Therefore, in the embodiment, the value range of the detection electrical signal Vn is [Vmin, Vmax].

[0048] Through a large number of experiments, a threshold electrical signal Vx can be preset in advance. When the detection electrical signal Vn is less than the threshold electrical signal Vx, it is proved that soil is present in the detection chamber 13, and it is determined that there is termite activity in the detection chamber 13. When the detection electrical signal Vn is greater than the threshold electrical signal Vx, it is determined that there is no termite activity in the detection chamber 13.

[0049]

[0050] In addition, according to the change amplitude of the detection electrical signal Vn in a unit of time, the number of termites present in the to-be-detected area can be further estimated.

[0051] Preferably, in the embodiment, the main control box body 10 further comprises a separate power supply. The separate power supply is used to continuously supply power to the photoelectric detection assembly. The separate power supply ensures that the photoelectric detection assembly can not be limited by external power supply, realizes continuous and uninterrupted monitoring of termite activity, and realizes the early warning function of termite activity.

[0052] In another embodiment, if long-time monitoring function is required for the to-be-detected area, the operation mode of the photoelectric detection assembly can also be set to intermittent automatic start and stop to reduce power consumption.

[0053] Preferably, in the embodiment, the termite detection device further comprises a shell 11. The shell 11 is sleeved outside the detection box body 1 and the termite guiding assembly. The shell 11 is provided with a plurality of holes 12 for termites to enter and exit in the horizontal circumferential direction of the termite guiding assembly. The shell 11 can be used to protect the detection box body 1 and the termite guiding assembly from being damaged and contaminated during storage, transportation and deployment, and in daily work, so as to ensure that the detection box body 1 and the termite guiding assembly can operate stably for a long time. The size of the holes 12 in the shell 11 is matched with the size of the termites, which can effectively guide the termites to enter the termite guiding assembly from a specific position, and prevent other non-target organisms or larger objects from entering, thereby improving the detection accuracy.

[0054] Preferably, in the embodiment, the height of the detection chamber 13 is set to 1-10 mm, the detection chamber 13 with the height in the range of 1-10 mm can ensure that the target termites can smoothly enter the inside of the detection chamber 13 and freely move, while the entry of larger organisms or non-target objects is limited, the accuracy of detection is improved, and the detection chamber 13 with the limited height but the large area in the horizontal direction is more easy to make the termites form the mud coat on the surface of the ant bridge cover plate 3, and the sensitivity of detection is improved.

[0055] The embodiments of the utility model are described in detail above in combination with the drawings, but the utility model is not limited to the above-mentioned embodiments. Even if various changes are made to the utility model, provided that the changes belong to the range of the utility model claims and equivalent technologies, they still fall within the protection scope of the utility model.

Claims

1. A termite detection device based on photoelectric sensing technology, characterized in that, The application relates to a white ant detection device. The device comprises a detection box body, an ant bridge and an ant bridge cover plate, the ant bridge and the ant bridge cover plate are spliced in the detection box body to form a detection chamber, the bottom surface of the ant bridge is provided with a plurality of through holes for the white ants to enter or leave the detection chamber, the ant bridge cover plate is in sealed connection with the ant bridge, and the ant bridge cover plate is made of transparent material. The device further comprises a white ant guiding assembly which is arranged along the length direction of the white ant detection device and is used for being buried in a to-be-detected area to attract the white ants to bite, the white ant guiding assembly is internally provided with a plurality of guiding channels, the top openings of the guiding channels are sequentially communicated with the through holes in the bottom surface of the ant bridge. The device further comprises a photoelectric detection assembly which comprises a light source lamp group and a photoelectric sensor, the light source lamp group and the photoelectric sensor are arranged on the same side of the ant bridge cover plate, the light source output end of the light source lamp group and the light source receiving end of the photoelectric sensor are both faced to the same side of the ant bridge cover plate, the photoelectric sensor receives the light output by the light source lamp group and the light reflected by the ant bridge cover plate, and the photoelectric detection assembly calculates white ant activity intensity data based on the light reflection performance of the ant bridge cover plate.

2. The termite detection device based on photoelectric sensing technology according to claim 1, wherein, The white ant guiding assembly comprises a plurality of bait rods and a plurality of guiding rods, the bait rods are arranged outside the guiding rods, and the bait rods and the guiding rods are arranged in the same direction and side by side. The guiding rod is internally provided with the guiding channel which is coaxially arranged with the guiding rod and only penetrates through the top end of the guiding rod.

3. The termite detection device based on photoelectric sensing technology according to claim 2, wherein, The bait rods and the guiding rods are made of pine or eucalyptus wood.

4. The termite detection device based on photoelectric sensing technology according to claim 1, wherein, The top surface of the detection box body, the bottom surface of the ant bridge cover plate and the bottom surface of the ant bridge are coaxially and parallelly arranged in sequence, the photoelectric sensor is arranged at the center of the top surface of the detection box body, and the light source lamp group is arranged on the top surface of the detection box body and is annularly arranged with the photoelectric sensor as the center.

5. The termite detection apparatus based on photoelectric sensing technology according to claim 4, wherein, A light shielding plate which is perpendicular to the top surface of the detection box body is arranged between the photoelectric sensor and the light source lamp group, and the light shielding plate is used for shielding the light source which is horizontally propagated around the photoelectric sensor.

6. The termite detection apparatus based on photoelectric sensing technology according to claim 5, wherein, Black non-reflective coating is coated on the inner wall of the detection box body, the inner wall of the ant bridge and the light shielding plate.

7. The termite detection apparatus based on photoelectric sensing technology according to claim 1, wherein, The device further comprises a main control box body which is internally provided with a main control module and a communication module of the photoelectric detection assembly, the main control module is used for controlling the light source output intensity of the light source lamp group, receiving the electric signal output by the photoelectric sensor based on the light intensity and analyzing the termite condition, and the communication module is wirelessly connected with a cloud server and is used for outputting the termite condition data to the cloud server. An independent power supply is further arranged in the main control box body, and the independent power supply is used for continuously supplying power for the photoelectric detection assembly.

8. The termite detection apparatus based on photoelectric sensing technology according to claim 7, wherein, The device further comprises a shell which is sleeved outside the detection box body and the white ant guiding assembly, and a plurality of holes for the white ants to enter and exit are formed in the horizontal circumferential direction of the white ant guiding assembly.

9. The termite detection apparatus based on photoelectric sensing technology according to claim 1, wherein, The height of the detection chamber is 1-10 mm.

10. The termite detection apparatus based on photoelectric sensing technology according to claim 1, wherein, ​

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