TWI688335B - Smart poultry eggs monitoring system, smart poultry eggs monitoring device and method thereof - Google Patents

Abstract

A smart poultry eggs monitoring system, a smart poultry eggs monitoring device and a method thereof are proposed. The smart poultry eggs monitoring device is configured to monitor at least one goose to produce an egg. The smart poultry eggs monitoring device includes a seat, a first plate, a second plate, a cage body, at least one tag, a reading unit, a sensor and a processor. The first plate includes a flat plate region and disposed on the seat. The flat plate region includes a bearing surface and a mounting surface. The second plate has a grid shape. The second plate is disposed on the seat and detachably connected to the first plate. The cage body is disposed on the seat. An egg laying space is formed by the cage body and the first plate. The bearing surface is faced toward the cage body. The at least one tag is disposed on the at least one goose. The reading unit includes an antenna disposed on the mounting surface. The reading unit reads the at least one tag located in the egg laying space via the antenna to generate a goose identifying message. The sensor is disposed on the cage body and faced toward the second plate. The sensor senses the egg located on the second plate to generate an egg message. The processor is disposed on the cage body and signally connected to the reading unit and the sensor. The processor receives the goose identifying message and the egg message, and then calculates the goose identifying message and the egg message to obtain an egg laying status corresponding to the at least one goose.

Description

Intelligent poultry and egg production monitoring system, intelligent poultry and egg production monitoring equipment And its method

The invention relates to a poultry and egg production monitoring system, a poultry and egg production monitoring device and a method thereof, in particular to a smart poultry and egg production monitoring system, a smart poultry and egg production monitoring device and a method thereof.

In recent years, the industrial breeding of poultry and eggs has developed rapidly, but there is still a gap compared with foreign advanced breeding enterprises. In addition to relying on feeding methods and feed optimization technology, large-scale breeding needs to be increased. Consciousness and technology of livestock breeding.

For example, goose is a seasonal breeding animal regulated by natural light, which is stimulated by light and has reproductive and non-reproductive periods. Taiwan's natural environment is affected by sunshine and temperature. The laying period of goose is from October to May of the following year. The period from January to March is the peak period, and the rest period is from June to September each year. Due to the relationship of the production period, domestic gosling production is concentrated between January and June, resulting in a serious imbalance in production and sales, resulting in a large seasonal price difference between the gosling and meat goose markets. Improving the technology of the production of goslings for the white roman goose in the environment-controlled goose house The technique can effectively induce the laying geese to breed and regulate the laying period of the young geese. The average number of laying eggs in the non-laying period is 40-65. In addition, whether geese are high-yielding or oligogamous (including non-productive) has a bearing on production costs. For example, oligo-goose is relatively costly breeding costs, if the egg production efficiency is not good, farmers will have an assessment of whether they continue to raise Consideration of benefits, such as elimination. Conversely, if it is a high-yield goose, the farmer can also evaluate its survival and breeding value. However, today's aquaculture technology mostly depends on the producer's production technology and experience judgment, so there is subjective judgment and a high degree of error, so it may form a counter-elimination, and even affect production income and aquaculture effectiveness.

It can be seen that the current market lacks a smart livestock egg production monitoring system, a smart poultry egg production monitoring device and a method that can accurately and effectively determine the high-yield and oligo-produced livestock, so related companies are looking for Its solution.

Therefore, the object of the present invention is to provide a smart livestock and egg production monitoring system, a smart livestock and egg production monitoring device, and a method thereof, which can be equipped with a reading unit under a special first bottom plate to record the presence of wireless radio frequency The egg production situation of the labeled livestock and livestock, together with the assistance of the camera, can effectively determine whether it is a high-yield or low-yield livestock.

According to one embodiment of the structural aspect of the present invention, a smart poultry egg production monitoring device is provided, which is used for monitoring at least one poultry production egg. The smart poultry egg production monitoring device includes a stand, a first bottom plate, a second bottom plate, a cage, at least one wireless radio frequency tag, a reading unit, and a sensor to And processor. The first bottom plate includes a flat plate area and is disposed on the stand. The flat plate area includes a bearing surface and an installation surface. The second bottom plate is in the form of a grid, and the second bottom plate is disposed on the bracket and detachably connected to the first bottom plate. The cage body is arranged on the frame base, the cage body and the first bottom plate form an egg laying space, and the bearing surface faces the cage body. In addition, at least one wireless radio frequency tag is disposed on at least one livestock. The reading unit includes a reading antenna. The reading antenna is disposed on the installation surface. The reading unit reads at least one wireless radio frequency tag located in the egg-laying space through the reading antenna to generate livestock identity information. The sensor is disposed in the cage and faces the second bottom plate, and the sensor senses the egg located on the second bottom plate to generate poultry egg body information. The processor is installed in the cage and the signal is connected to the reading unit and the sensor. The processor receives and calculates the information of the identity of the livestock and the information of the egg of the livestock, so as to obtain the egg production situation corresponding to at least one livestock.

In this way, the intelligent livestock egg production monitoring device of the present invention utilizes a special first bottom plate equipped with a reading unit to record the egg production of livestock with wireless radio frequency tags, and at the same time with the assistance of the camera, it can be effective Judgment that it is a high-yield livestock or a low-yield livestock

Other embodiments of the foregoing embodiments are as follows: the flat plate area may be in the shape of a flat plate and located in the center of the first bottom plate, and the first bottom plate further includes a grid area, and the grid area is in a grid shape and is located around the flat plate area. The grid area contains a plurality of arc-shaped tube strips, which are arranged in parallel and spaced apart from each other. In addition, the first bottom plate may have a concave-convex first connection end, the second bottom plate may have a concave-convex second connection end, and the first connection end and the two connection ends are fitted and connected to each other.

Other embodiments of the foregoing embodiments are as follows: The second bottom plate may include a plurality of arc-shaped tube strips, and the arc-shaped tube strips are arranged in parallel and spaced apart from each other. In addition, the aforementioned stand may include two bottom bases and a two-legged set, wherein the two bottom bases correspond to each other to form a track, and the first bottom plate and the second bottom plate are both disposed on the track. The bipod group is connected to the two bottom bases respectively. The second bottom plate is inclined at an angle with respect to a horizontal plane, and the angle is greater than 0 degrees and less than or equal to 15 degrees. Furthermore, the aforementioned sensor may be a camera.

Other embodiments of the foregoing embodiments are as follows: The foregoing intelligent livestock egg production monitoring device may further include a blocking member, and the blocking member is disposed inside the cage. The cage body includes the livestock import and export and egg export. The livestock import and export and egg export are located on the two sides of the cage, the egg outlet and the sensor are located on the same side of the cage, and the blocking member is close to the egg outlet and blocks the livestock Egg outlet displacement. In addition, the aforementioned intelligent livestock egg production monitoring device may further include a reader and a pipeline, and the pipeline is connected between the reader and the reading antenna. The cage body includes an upper cover plate and at least one side plate. The at least one side plate is connected between the upper cover plate and the frame base. The reading unit is arranged on the upper cover plate, and the pipeline is connected to the reader along the first bottom plate, the frame base, the side plate and the upper cover plate by the reading antenna.

According to another embodiment of the structural aspect of the present invention, a smart poultry egg production monitoring system is provided for monitoring at least one poultry production egg, and the smart poultry egg production monitoring system includes a plurality of smart poultry production eggs A monitoring device, at least one radio frequency tag, a reading unit and a processor. The intelligent livestock and egg production monitoring devices are arranged in sequence with each other, and each intelligent livestock and egg production monitoring device includes a stand, a first bottom plate, a second bottom plate, a cage, and a sensor. The first bottom plate includes a flat plate area and is disposed on the stand, the flat plate area includes Bearing surface and installation surface. The second bottom plate is in the form of a grid, and the second bottom plate is disposed on the bracket and detachably connected to the first bottom plate. The cage body is arranged on the frame base, the cage body and the first bottom plate form an egg laying space, and the bearing surface faces the cage body. The sensor is disposed on the cage and faces the second bottom plate. At least one wireless radio frequency tag is disposed on at least one livestock. The reading unit includes a plurality of reading antennas, which are respectively arranged on a plurality of installation surfaces of the intelligent livestock egg production monitoring device, and the reading unit reads at least one of the egg laying spaces through one of the reading antennas The radio frequency tag generates a poultry identity information. The processor is arranged in the cage of one of the intelligent livestock and egg production monitoring devices, and the signal connects the reading unit and the plurality of sensors of the intelligent livestock and egg production monitoring device. One of the sensors senses the eggs located on one of the second bottom plates to generate poultry egg body information. The processor receives and calculates poultry identity information and poultry egg body information to obtain the egg production situation corresponding to at least one poultry animal .

In this way, the intelligent poultry and egg production monitoring system of the present invention uses a single reading unit and a single processor to connect multiple intelligent poultry and egg production monitoring devices, which can effectively reduce costs.

According to one embodiment of the method aspect of the present invention, a smart poultry egg production monitoring method is provided, which can be applied to the aforementioned smart poultry egg production monitoring device and includes a setting step, a reading step, a sensing step, and a processing step. Wherein, the setting step is to set at least one wireless radio frequency tag, reading unit, sensor and processor on at least one animal, the mounting surface of the first bottom plate, one side of the cage body and above the cage body. The reading step is to drive the reading unit to read at least one wireless radio frequency tag located in the egg-laying space through the reading antenna to generate livestock identity information. The sensing step is to drive the sensor to sense the second The eggs of the bottom plate produce the information of poultry eggs. The processing step is to drive the processor to receive and calculate the poultry identity information and the poultry egg body information, so as to obtain the egg production situation corresponding to at least one poultry.

In this way, the smart poultry egg production monitoring method of the present invention uses the reading step and the sensing step to record the egg production of the livestock with wireless radio frequency tags, which can effectively determine whether it is a high-yield livestock or oligogenesis Livestock.

100、100a‧‧‧Intelligent livestock and egg production monitoring device

110‧‧‧Livestock

120‧‧‧ Egg

200, 200a‧‧‧stand

500‧‧‧radio frequency tag

600‧‧‧Reading unit

610‧‧‧Reading antenna

620‧‧‧ Reader

630‧‧‧ pipeline

210‧‧‧Bottom base

220‧‧‧Tripod set

212‧‧‧ Orbit

230‧‧‧ Egg laying area

300a‧‧‧First floor

300b‧‧‧Second floor

302a‧‧‧First connection

302b‧‧‧Second connector

310a‧‧‧Flat area

312a‧‧‧bearing surface

314a‧‧‧Installation surface

320a‧‧‧Grid area

322a, 310b‧‧‧Circular pipe

400, 400a‧‧‧Cage

410‧‧‧ egg laying space

420‧‧‧Front bumper

430‧‧‧Side board

432‧‧‧Inner board

434‧‧‧Outside plate

440、440a‧‧‧Upper cover

442‧‧‧First cover

444‧‧‧Second cover

450‧‧‧Livestock import and export

460‧‧‧ egg export

470‧‧‧block

700a, 700b‧‧‧sensor

800‧‧‧ processor

900‧‧‧Smart poultry egg production monitoring system

1000‧‧‧Smart poultry egg production monitoring method

S2‧‧‧Setting steps

S4‧‧‧Reading steps

S6‧‧‧sensing procedure

S8‧‧‧Processing steps

θ 1‧‧‧ First angle

θ 2‧‧‧ Second angle

H‧‧‧horizontal

Figure 1 is a schematic perspective view of a smart livestock and egg production monitoring device according to a first embodiment of the present invention; Figure 2 is a first perspective perspective schematic view of the smart livestock and egg production monitoring device of Figure 1; 3 is a perspective perspective view of the smart livestock and egg production monitoring device of FIG. 1 from a second perspective; FIG. 4 is a first perspective exploded view of the smart livestock and egg production monitoring device of FIG. 1; Figure 2 is a second perspective exploded view of the smart livestock and egg production monitoring device of Figure 1; Figure 6 is a schematic side view of the smart livestock and egg production monitoring device of Figure 1; Figure 7 is a drawing Fig. 1 is a schematic diagram of the arc-shaped pipe strip of the second bottom plate; Fig. 8 is a diagram showing the intelligent poultry and egg production monitoring system of the second embodiment of the present invention The general three-dimensional schematic diagram; and FIG. 9 is a schematic flow diagram showing the intelligent poultry egg production monitoring method of the third embodiment of the present invention.

Hereinafter, a plurality of embodiments of the present invention will be described with reference to the drawings. For clarity, many practical details will be explained in the following description. However, it should be understood that these practical details should not be used to limit the present invention. That is to say, in some embodiments of the present invention, these practical details are unnecessary. In addition, for the sake of simplifying the drawings, some conventionally used structures and elements will be shown in a simple schematic manner in the drawings; and repeated elements may be indicated by the same number.

In addition, when an element (or unit or module, etc.) is "connected" to another element, it may mean that the element is directly connected to another element, or it may mean that an element is indirectly connected to another element , Meaning that there are other elements between the element and another element. However, when it is explicitly stated that a certain element is "directly connected" to another element, it means that no other element is interposed between the element and the other element. The first, second, and third terms are only used to describe different elements, and there is no restriction on the element itself. Therefore, the first element can also be renamed as the second element. In addition, the combination of components/units/modules in this article is not a well-known, conventional, or conventional combination in this field, and whether the combination of components/units/modules themselves is known cannot be used to determine whether the combination relationship is easily affected by the technical field. It is usually done easily by those with knowledge.

Please also refer to FIGS. 1-7, wherein FIG. 1 is a perspective schematic view of a smart livestock and egg production monitoring device 100 according to the first embodiment of the present invention; FIG. 2 is a smart livestock and animal production of FIG. 1 First perspective stereoscopic perspective view of the egg monitoring device 100; Figure 3 is a second perspective perspective perspective view of the smart poultry egg production monitoring device 100 of Figure 1; Figure 4 is a perspective view of the smart poultry of Figure 1 The first perspective exploded view of the livestock egg monitoring device 100; the fifth perspective is a second perspective exploded view of the smart poultry egg production monitoring device 100 of Figure 1; the sixth perspective is the smart bird of Figure 1 A schematic side view of the livestock egg monitoring device 100; and FIG. 7 is a schematic diagram showing the arc-shaped pipe strip 310b of the second bottom plate 300b of FIG. As shown in the figure, the intelligent poultry egg production monitoring device 100 is used to monitor the production of eggs 120 by poultry 110. The poultry 110 in this embodiment is a goose. The smart poultry egg production monitoring device 100 includes a stand 200, a first bottom plate 300a, a second bottom plate 300b, a cage 400, a radio frequency tag 500, a reading unit 600, sensors 700a, 700b, and a processor 800.

The stand 200 includes two bottom bases 210 and a two-legged set 220, wherein the two bottom bases 210 correspond to each other to form a rail 212, and the first bottom plate 300a and the second bottom plate 300b are both disposed on the rail 212. The bipod group 220 is connected to the two bottom bases 210 respectively. In this embodiment, the bottom base 210 is L-shaped, and each tripod group 220 includes three tripods. In addition, each bottom base 210 includes a first base and a second base. The first base corresponds to the first bottom plate 300a, and the second base corresponds to the second bottom plate 300b. The first base and the first bottom plate 300a are inclined at a first angle θ 1 relative to the horizontal plane H, and the second base and the second bottom plate 300b are inclined at a second angle θ 2 relative to the horizontal plane H. First corner Both the degree θ 1 and the second angle θ 2 are greater than 0 degrees and less than or equal to 15 degrees, and the first angle θ 1 is less than the second angle θ 2.

The first bottom plate 300a is disposed on the stand 200 and includes a flat plate area 310a and a grid area 320a, wherein the flat plate area 310a includes a bearing surface 312a and a mounting surface 314a, and the flat plate area 310a is flat and located in the center of the first bottom plate 300a. The grid area 320a is grid-shaped and is located around the flat plate area 310a. The grid area 320a includes a plurality of arc-shaped tube strips 322a, and the arc-shaped tube strips 322a are arranged in parallel and spaced apart from each other. Furthermore, the first bottom plate 300a has a concave-convex first connecting end 302a, and the first connecting end 302a is connected to the second bottom plate 300b.

The second bottom plate 300b is in a grid shape, and the second bottom plate 300b is disposed on the holder 200 and detachably connected to the first bottom plate 300a. In detail, the second bottom plate 300b includes a plurality of arc-shaped tube strips 310b, and the arc-shaped tube strips 310b are arranged parallel to each other at intervals. The second bottom plate 300b has a concave-convex second connecting end 302b, and the second connecting end 302b and the first connecting end 302a are fitted and connected to each other. In this embodiment, the dimensions of the first bottom plate 300a and the second bottom plate 300b are 40 cm in width, 50 cm in length, and 6 cm in thickness.

The cage 400 is disposed on the rack 200. The cage 400 and the first bottom plate 300 a form an egg-laying space 410, and the bearing surface 312 a of the flat plate area 310 a faces the cage 400. The cage 400 includes a front baffle 420, two side plates 430, an upper cover plate 440, a livestock import and export 450 and an egg outlet 460, wherein the front baffle 420 is connected to the two side plates 430, the lower part of the front baffle 420 is connected to the two side plates 430 Between the egg outlet 460. The two side plates 430 are connected between the upper cover plate 440 and the frame 200. Each side plate 430 includes an inner plate portion 432 and an outer plate portion 434. The inner plate portion 432 is connected to the outer plate portion 434 and forms a wiring accommodating space with the outer plate portion 434. The upper cover 440 includes a first cover 442 and a second cover 444. The first cover 442 is connected to the second cover 444, the front baffle 420, and the two side plates 430, and is formed between the second cover 444 and the two side plates 430 Livestock import and export 450. In other words, the livestock export 450 and the egg export 460 are located on both sides of the cage 400, respectively. The poultry import and export 450 system allows the poultry 110 to enter and exit, and the egg export 460 system allows the egg 120 to roll out. It is also worth mentioning that the intelligent livestock egg production monitoring device 100 may include a blocking member 470, which is disposed inside the cage 400. The blocking member 470 blocks displacement of the livestock 110 toward the egg outlet 460, and the blocking member 470 is close to the egg outlet 460. That is, the blocking member 470 is disposed between the two inner side plate portions 432 of the two side plates 430, and the distance between the blocking member 470 and the second bottom plate 300b is less than the height of the livestock 110 and greater than the length of the egg 120.

A radio frequency tag 500 (RFID Tag) is installed on the livestock 110. Taking the goose as an example, the wireless radio frequency tag 500 is attached to the goose's feet for easy identification and monitoring.

The reading unit 600 is provided on the upper cover 440. The reading unit 600 includes a reading antenna 610, a reader 620 (RFID Reader) and a pipeline 630, wherein the pipeline 630 is connected between the reader 620 and the reading antenna 610. The reading antenna 610 is disposed on the mounting surface 314a. The reading unit 600 reads the wireless radio frequency tag 500 located in the egg-laying space 410 through the reading antenna 610 to generate a poultry identity information. The pipeline 630 is connected to the reader 620 by the reading antenna 610 along the first bottom plate 300a, the stand 200, the side plate 430 and the upper cover 440, that is, the pipeline 630 is located in the wiring accommodation space of the side plate 430, which is both beautiful and safe , Can avoid the problem of bare wiring of conventional technology.

The sensor 700a is disposed on the cage 400 and faces the second bottom plate 300b. The sensor 700a senses the egg 120 located on the second bottom plate 300b to generate poultry and egg information. The sensor 700b is also disposed in the cage 400 and faces the first bottom plate 300a, and the sensor 700b senses the livestock 110 on the first bottom plate 300a. The sensor 700a and the egg outlet 460 are located on the same side of the cage 400. The sensors 700a and 700b in this embodiment are cameras, while in other embodiments, the sensors 700a and 700b may be infrared sensors and are not limited to the above disclosure.

The processor 800 is disposed in the cage 400 and the signal is connected to the reading unit 600 and the sensors 700a and 700b. The processor 800 receives and calculates the information of the identity of the livestock and the information of the egg of the livestock, so as to obtain the egg production status of the corresponding livestock 110 The egg laying situation includes the number of eggs and the time of laying. In this way, the intelligent livestock egg production monitoring device 100 of the present invention uses a special first bottom plate 300a to install a reading unit 600 for recording the egg production of the livestock 110 with a wireless radio frequency tag 500, while matching the sense With the aid of the detectors 700a and 700b, it can effectively judge whether it is a high-yield livestock or a low-yield livestock, thereby increasing the production efficiency and income.

Please refer to FIGS. 1 to 8 together, wherein FIG. 8 is a perspective schematic view of a smart poultry egg production monitoring system 900 according to a second embodiment of the present invention. The smart poultry egg production monitoring system 900 is used to monitor the poultry 110 to produce eggs 120 and includes a plurality of smart poultry egg production monitoring devices 100a, a wireless radio frequency tag 500, a reading unit and a processor 800.

With reference to FIG. 2, in the embodiment of FIG. 8, the radio frequency tag 500 and the processor 800 are the same as the radio frequency tag 500 in FIG. 2 The structure is the same as that of the processor 800, and will not be described again. In particular, the smart poultry egg production monitoring system 900 of FIG. 8 further includes a plurality of smart poultry egg production monitoring devices 100a and reading units arranged in sequence with each other, wherein each smart poultry egg production monitoring device 100a includes a rack The base 200a, the first bottom plate 300a, the second bottom plate 300b, the cage 400a and the sensor 700a. The stand 200a includes two bottom bases 210, a bipod group 220 and an egg-holding area 230, wherein the two bottom bases 210 and the bipod group 220 are respectively connected to the two bottom bases 210 and 210 of the stand 200 of FIG. The structure of the bipod group 220 is the same. The egg placement area 230 is connected to two bottom bases 210, which are used to place eggs 120 rolled off the second bottom plate 300b. In other embodiments, the egg placement area may include an egg placement rack and an egg placement net. The egg placement net is made of a soft material, and the egg 120 will roll down into the egg placement net. Furthermore, the structures of the first base plate 300a, the second base plate 300b, and the sensor 700a are the same as those of the first base plate 300a, the second base plate 300b, and the sensor 700a of FIG. 2, respectively. The cage 400a includes a front baffle 420, two side plates, an upper cover plate 440a, a livestock import and export 450 and an egg export 460, of which the front baffle 420, two side panels, livestock import and export 450 and egg export 460 are all The structure of the baffle plate 420, the two side plates 430, the livestock import and export 450 and the egg outlet 460 are the same in the figure, and the difference between the upper cover plate 440a and the upper cover plate 440 in FIG. 2 is that the upper cover plate 440a is not connected to the sensor 700a. The sensor 700a is disposed on the front baffle 420. In other embodiments, the upper cover plate may be a flat plate, which is not limited to the above disclosure. In addition, the reading unit includes a plurality of reading antennas (not shown in the figure), a reader 620 and a plurality of pipelines (not shown in the figure), wherein the plurality of reading antennas are respectively provided on the plurality of smart livestock A plurality of installation surfaces (not shown in the figure) of the egg production monitoring device 100a, and a plurality of pipelines are respectively provided on a plurality of intelligent birds In the plurality of side plates of the livestock egg monitoring device 100a. The plurality of reading antennas are respectively connected to the same reader 620 through a plurality of pipeline signals. The reading unit reads the wireless radio frequency tag 500 located in the egg-laying space through one of the reading antennas to generate a poultry identity information. In other words, the number of reading antennas, pipelines, and smart poultry egg production monitoring devices 100a are the same. In this way, the intelligent poultry egg production monitoring system 900 of the present invention is connected side by side through a plurality of cages 400a to form a cage group, and only a reader 620 and a processor 800 can monitor multiple cages 400a, so Can greatly reduce the overall system cost.

Please refer to FIGS. 1-7 and 9 together, wherein FIG. 9 is a schematic flowchart of a method 1000 for intelligent egg production monitoring of a third embodiment of the present invention. The intelligent livestock and egg production monitoring method 1000 can be applied to the aforementioned intelligent livestock and egg production monitoring device 100 and includes a setting step S2, a reading step S4, a sensing step S6, and a processing step S8.

The setting step S2 is to set the radio frequency tag 500, the reading unit 600, the sensors 700a, 700b and the processor 800 on the mounting surface 314a of the livestock 110, the first bottom plate 300a, one side of the cage 400 and the cage respectively Above 400. The reading step S4 drives the reading unit 600 to read the wireless radio frequency tag 500 located in the egg-laying space 410 through the reading antenna 610 to generate livestock identity information. The sensing step S6 drives the sensor 700a to sense the egg 120 located on the second bottom plate 300b to generate poultry egg body information. The processing step S8 is that the driving processor 800 receives and calculates the poultry identity information and the poultry egg body information, so as to obtain the egg production situation corresponding to the poultry 110. In this way, the intelligent poultry egg production monitoring method 1000 of the present invention utilizes the combination of sensing through the reading step S4 Step S6 is used to record the egg production status of the livestock 110 with the wireless radio frequency tag 500, which can effectively determine whether it is a high-yield or low-yield livestock.

As can be seen from the above embodiments, the present invention has the following advantages: First, the intelligent livestock egg production monitoring device uses a special first bottom plate to install a reading unit to record the egg production of livestock with wireless radio frequency tags At the same time, with the assistance of the camera, it can effectively determine whether it is a high-yield or low-yield livestock, thereby increasing production efficiency and revenue. Second, the intelligent poultry and egg production monitoring system uses a single reading unit and a single processor to connect multiple intelligent poultry and egg production monitoring devices, which can significantly reduce production costs. Third, the smart poultry egg production monitoring method uses the reading step and the sensing step to record the egg production of the livestock with wireless radio frequency tags, which can effectively determine whether it is a high-yield or oligo-lived animal. Fourth, the pipeline is hidden in the wiring accommodating space of the side panel, which is both beautiful and safe, and can avoid the problem of bare wiring of the conventional technology.

Although the present invention has been disclosed as above in an embodiment, it is not intended to limit the present invention. Anyone who is familiar with this art can make various modifications and retouching without departing from the spirit and scope of the present invention, so the protection of the present invention The scope shall be as defined in the appended patent application scope.

100‧‧‧Intelligent livestock and egg production monitoring device

200‧‧‧Bracket

210‧‧‧Bottom base

220‧‧‧Tripod set

300a‧‧‧First floor

300b‧‧‧Second floor

302a‧‧‧First connection

302b‧‧‧Second connector

310a‧‧‧Flat area

312a‧‧‧bearing surface

320a‧‧‧Grid area

322a, 310b‧‧‧Circular pipe

400‧‧‧Cage

410‧‧‧ egg laying space

420‧‧‧Front bumper

432‧‧‧Inner board

440‧‧‧Upper cover

442‧‧‧First cover

444‧‧‧Second cover

450‧‧‧Livestock import and export

460‧‧‧ egg export

470‧‧‧block

620‧‧‧ Reader

630‧‧‧ pipeline

700a, 700b‧‧‧sensor

800‧‧‧ processor

Claims (10)

A smart poultry egg production monitoring device for monitoring at least one poultry production egg, the smart poultry egg production monitoring device includes: a stand; a first bottom plate, which includes a flat plate area and is arranged on the stand, The flat plate area includes a bearing surface and an installation surface; a second bottom plate is in a grid shape, the second bottom plate is disposed on the frame and is detachably connected with the first bottom plate; a cage is disposed on the A stand, the cage body and the first bottom plate form an egg-laying space, and the bearing surface faces the cage body; at least one radio frequency tag is disposed on the at least one livestock; a reading unit includes a reading antenna The reading antenna is arranged on the installation surface, and the reading unit reads the at least one wireless radio frequency tag located in the egg laying space through the reading antenna to generate a poultry identity information; a sensor is arranged on The cage body faces the second bottom plate, the sensor senses the egg located on the second bottom plate to generate a poultry egg body information; and a processor is provided in the cage body and the signal is connected to the reading unit With the sensor, the processor receives and calculates the livestock identity information and the livestock egg body information, so as to obtain the egg production status corresponding to one of the at least one livestock. The intelligent livestock egg production monitoring device as described in item 1 of the patent application scope, wherein the flat area is flat and located in the center of the first bottom plate, and the first bottom plate further includes: a grid area, which is a grid The grid area includes a plurality of arc-shaped tube strips, and the arc-shaped tube strips are arranged in parallel and spaced apart from each other. The smart livestock and egg production monitoring device as described in item 1 of the patent application scope, wherein the first bottom plate has a first connecting end in a concave-convex shape, and the second bottom plate has a second connecting end in a concave-convex shape, the The first connection end and the second connection end are fitted and connected to each other. The intelligent livestock egg production monitoring device as described in item 1 of the patent application scope, wherein the second bottom plate comprises a plurality of arc-shaped tube strips, and the arc-shaped tube strips are arranged parallel to each other at intervals. The smart livestock and egg production monitoring device as described in item 1 of the patent application scope, wherein the stand includes: two bottom bases corresponding to each other to form a track, and the first bottom plate and the second bottom plate are both disposed on the Rails; and two tripod sets, respectively connected to the two bottom bases; Wherein, the second bottom plate is inclined at an angle with respect to a horizontal plane, and the angle is greater than 0 degrees and less than or equal to 15 degrees. The smart poultry and egg production monitoring device as described in item 1 of the patent scope, wherein the sensor is a camera. The smart livestock and egg production monitoring device as described in item 1 of the scope of the patent application further includes: a stopper arranged inside the cage; wherein the cage contains an import and export of poultry and an export of eggs, the The poultry import and export and the egg outlet are located on both sides of the cage respectively, the egg outlet and the sensor are located on the same side of the cage, and the blocking member is close to the egg outlet and blocks the poultry towards the egg outlet Displacement. The smart livestock and egg production monitoring device as described in item 1 of the patent scope, wherein the reading unit further comprises: a reader; and a pipeline connected between the reader and the reading antenna; wherein , The cage includes an upper cover plate and at least one side plate, the at least one side plate is connected between the upper cover plate and the stand, the reading unit is disposed on the upper cover plate, the pipeline is along the reading antenna The first bottom plate, the stand, the side plate and the upper cover plate are connected to the reader. A smart poultry egg production monitoring system for monitoring at least one poultry production egg, the smart poultry egg production monitoring system includes: a plurality of smart poultry egg production monitoring devices, arranged in sequence with each other, and each of the smart poultry production The egg production monitoring device includes: a stand; a first bottom plate, including a flat plate area and disposed on the stand, the flat plate area includes a bearing surface and an installation surface; a second bottom plate, in a grid shape, the The second bottom plate is disposed on the frame and is detachably connected with the first bottom plate; a cage is disposed on the frame, the cage and the first bottom plate form an egg-laying space, and the bearing surface faces the cage Body; and a sensor disposed on the cage and facing the second bottom plate; at least one wireless radio frequency tag disposed on the at least one animal; a reading unit including a plurality of reading antennas, the reading antennas The plurality of installation surfaces are respectively provided on the intelligent livestock egg production monitoring devices, and the reading unit reads the at least one wireless radio frequency tag located in the egg production space through one of the reading antennas to generate a livestock identity Information; and a processor provided in the cage of one of the intelligent livestock egg production monitoring devices and the signal connects the reading unit to the plurality of sensors of the intelligent livestock egg production monitoring devices; wherein, wherein The sensor senses the egg located on one of the second base plates to generate a poultry egg body information, and the processor receives and operates the poultry The identity information and the egg information of the livestock are used to obtain the egg production situation corresponding to at least one of the livestock. A smart poultry egg production monitoring method applied to a smart poultry egg production monitoring device as described in item 1 of the patent scope includes the following steps: a setting step, which is to respectively set the at least one radio frequency tag and the reading The unit, the sensor and the processor are on the at least one animal, the mounting surface of the first bottom plate, one side of the cage and above the cage; a reading step is to drive the reading The unit reads the at least one radio frequency tag located in the egg-laying space through the reading antenna to generate the identity information of the livestock; a sensing step is to drive the sensor to sense the egg located on the second bottom plate Generating the poultry egg body information; and a processing step that drives the processor to receive and calculate the poultry identity information and the poultry egg body information to obtain the egg production situation corresponding to at least one poultry animal.

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