TWI826231B - Container with monitoring device as well as monitoring method thereof - Google Patents

Abstract

A container with a monitoring device as well as a monitoring method thereof are disclosed, for solving the problem that the existing monitoring device can only perform object monitoring within a local area. The container includes a container body and a processing unit. The container body has an accommodation space and an upward opening communicating with the accommodation space, an object to be monitored is placed in the accommodation space, a sidewall of the container body is provided with an adjustment unit including a vertical position adjustment assembly and a horizontal position adjustment assembly, and a plurality of camera units are disposed on the adjustment unit so that a vertical position in a vertical direction and a horizontal position in a horizontal direction of the camera units can be adjusted accordingly. The processing unit is signally connected to an electronic device and the plurality of camera units so that each camera unit are controlled to capture at least an image of the object at a standard shooting distance and within a standard shooting range. After that, the processing unit splices the images captured by the plurality of camera units to form a panoramic image and then recognizes a monitoring information of the object; subsequently, the monitoring information of the object is output via the electronic device. Thereby, it is possible to monitor the object in a comprehensive area effectively.

Description

Container with monitoring device and monitoring method thereof

The invention relates to a container with a monitoring device and a monitoring method thereof. In particular, a plurality of camera units can be adjusted in height and horizontal directions through an adjustment unit, so that the plurality of camera units and an object to be measured reach a standard shooting distance and a standard shooting range. Afterwards, the processing unit controls each camera unit to capture images and then stitch them into a panoramic image to identify the monitoring information of the object to be measured.

The quality of aquatic organism breeding is affected by the aquatic environment or the living conditions of the organisms. Usually it is difficult for us to keep an eye on the current status of underwater organisms next to the breeding tank 24 hours a day. Therefore, how to achieve effective monitoring of underwater organisms in real time? Including health, growth rate, activity or quantity, etc., are the most important keys to the breeding process.

Therefore, the People's Republic of China Patent Announcement No. CN106719250B proposes a device for monitoring underwater organisms, including a support rod, a telescopic crossbar, a lifting rope and a shooting unit. The support rod is inserted into the ground and fixed, and the telescopic One end of the telescopic crossbar and the lifting rope are respectively connected to the support rod at the same time, and the other end of the telescopic crossbar is provided with a pulley. The lifting rope extends along the telescopic crossbar and abuts against the pulley. The shooting unit is installed at the fishing end, whereby when the support rod is inserted on the ground or at the bottom of the water, the shooting unit can expand and contract through the telescopic crossbar to adjust the horizontal position, and at the same time, the shooting unit can adjust the horizontal position through the lifting rope. The height position of the shooting unit achieves the effect of underwater biological monitoring of local areas in the water.

However, although this invention can adjust the height and horizontal position, it is inserted at the water's edge or underwater through a support rod, and is photographed by only one shooting unit. As a result, it can only monitor a local area under the water, making it impossible to effectively observe. The lack of a comprehensive picture of aquatic life.

Therefore, in order to effectively and comprehensively monitor aquatic organisms, the inventor proposes a container with a monitoring device and containing at least one object to be measured, including: a container body with a receiving space and an upward opening, and the upward opening is connected to the The accommodation spaces are connected, and the object to be measured is located in the accommodation space; an adjustment unit is provided on a side wall of the container body, the adjustment unit includes a height position adjustment component and a horizontal position adjustment component, the height position The adjustment component is disposed on the horizontal position adjustment component, or the horizontal position adjustment component is disposed on the height position adjustment component; a plurality of camera units are disposed on the adjustment unit, and the plurality of camera units can face a height through the height position adjustment component The height position of the plurality of camera units is adjusted in a direction to maintain a standard shooting distance between the plurality of camera units and the object to be measured. The horizontal position of the plurality of camera units can be adjusted in a horizontal direction through the horizontal position adjustment component, so that the plurality of camera units are in contact with the object to be measured. The object to be measured maintains a standard shooting range; a processing unit is connected with the signal to the adjustment unit, the plurality of camera units and an electronic device; the processing unit controls each camera unit to move toward the object to be measured at the standard shooting distance and the standard shooting range After the object takes at least one image, the above images are then spliced to form a panoramic image, thereby identifying the monitoring information of the object to be tested in the container body, and then output by the electronic device, and the processing unit further connects the signal to a cloud The processor, the processing unit stores the monitoring information to the cloud processor, and generates a monitoring information form in the cloud processor, which is then output by the electronic device. The electronic device is a mobile phone and/or tablet, and is stored in the container. The body is further equipped with an incubation basket.

Wherein, the processing unit is further electrically connected to a power supply unit, and the height position adjustment component is a first linear slide rail disposed on two opposite side walls of the container body, and each first linear slide rail is electrically connected to the power supply unit. Unit, each first linear slide rail includes a first rail member and a first slide base, the first slide base is slidably connected to the first rail member, whereby the processing unit controls the first slide member The seat adjusts its height position relative to the first rail member toward the height direction.

Furthermore, each first rail member is further provided with a limiting plate, and the first rail member is detachably hung on two opposite edges of the container body through the limiting plate for limiting.

Wherein, the horizontal position adjustment component is electrically connected to the power supply unit. The horizontal position adjustment component is a second linear slide rail including a second rail member and a plurality of second slide seats. The opposite ends of the second rail member are respectively fixed. On the two first sliding seats, the plurality of second sliding seats are slidably connected to the second rail member, and each camera unit is provided on each second sliding seat, whereby the processing unit controls the plurality of second sliding seats. The sliding seat adjusts its horizontal position relative to the second rail member toward the horizontal direction.

Wherein, the horizontal position adjustment component is electrically connected to the power supply unit. The horizontal position adjustment component includes a telescopic rod and a plurality of fixing parts. The plurality of fixing parts are fixed on the telescopic rod. The opposite ends of the telescopic rod can respectively The two first sliding seats are slidingly connected. The telescopic rod has an outer rod and an inner rod. The inner rod is located in the outer rod and extends in or out relative to the outer rod. Each camera unit is arranged on each As for the fixing member, the processing unit controls the telescopic rod to expand and contract in the horizontal direction, thereby adjusting the horizontal positions of the plurality of camera units.

Further, the processing unit signal is connected to an operating unit. The operating unit receives an operating command and generates an operating signal and sends it to the processing unit. After receiving the operating signal, the processing unit controls the adjusting unit to perform driving or the camera unit to shoot.

Each camera unit includes a lens module, a receiving box and a cover. The receiving box has a receiving area and a downward opening. The downward opening is connected to the receiving area. The lens module The group is arranged in the accommodating box and is located in the accommodating area, and the accommodating box is provided with a first connecting portion adjacent to the downward opening, and the cover faces the accommodating box. A second connection part is provided, the second connection part corresponds to the first connection part, and the cover body is provided with a through hole, the through hole penetrates the cover body, and the through hole corresponds to a lens component of the lens module. When the first connecting part is connected to the second connecting part and the cover is closed on the accommodating box, the lens component will pass through the through hole and extend out of the cover.

Wherein, the first connecting part is provided with at least one inserting groove, and the second connecting part is provided with at least one inserting block, and the inserting block is detachably embedded in the corresponding inserting groove, so that the cover body covers the Container box.

Further, each storage box has an exterior, and the exterior is pivoted with a pivot buckle, and the pivot buckle has an unlocking position and a buckling position, whereby when the pivot buckle is in the unlocking position, the cover body The accommodating box is movablely separated, or when the cover body closes the accommodating box, the pivot buckle pivots relative to the accommodating box and is in the buckling position.

The inventor also proposed a method for performing monitoring using the above-mentioned container with a monitoring device. The steps include: arranging the adjustment unit on the container body; operating the height position adjustment assembly to make the plurality of camera units move toward the container through the height position adjustment assembly. Change the height position in the height direction, thereby adjusting a distance between the plurality of camera units and the object to be measured, so that the plurality of camera units and the object to be measured maintain the standard shooting distance; operate the horizontal position adjustment component to make the The plurality of camera units change the horizontal position toward the horizontal direction through the horizontal position adjustment component, thereby adjusting a shooting range of the plurality of camera units when photographing the object to be measured, so that the plurality of camera units and the object to be measured maintain the same orientation. Standard shooting range; the processing unit controls each camera unit to shoot at least one image toward the object to be measured Then, the above images are spliced by the processing unit to form a panoramic image; the processing unit identifies the monitoring information of the object to be measured through the panoramic image, and then outputs it from the electronic device.

According to the above technical characteristics, the following effects can be achieved:

1. Through the height position adjustment component and the horizontal position adjustment component of the adjustment unit, the plurality of camera units installed in the adjustment unit can effectively change the distance from the object to be measured and the shooting range, so as to achieve the standard shooting distance and standard shooting range, and then use The processing unit splices the images captured by each camera unit to form a panoramic image, thereby effectively and accurately identifying the monitoring information of the object under test for the operator to observe and understand.

2. The operator can input operating instructions through the operating unit to generate operating signals, so that the processing unit receives the operating signals and controls the height position adjustment component and the horizontal position adjustment component to change the required height or horizontal position, thus facilitating operation. .

3. The first rail of the height position adjustment component is provided with a limiting plate so that the adjustment unit can be hung on the edge of the container body.

4. The camera unit includes a housing box, a cover and a lens module. The housing box and cover effectively protect the lens module from being invaded by dust or damaged by external forces, because the lens components in the lens module come from the through hole. It protrudes outside the cover, so it will not be blocked by anything. This effectively extends the service life of the lens module and enables simultaneous shooting.

5. Through the inlay groove of the container box and the inlay block of the cover body, the cover body will not move arbitrarily after closing the container box, and achieve the effect of fixed position, and through the pivot provided on the container box The buckle effectively allows the lid to be firmly buckled after closing the storage box, so that the lid does not easily detach from the storage box.

6. The processing unit stores the monitoring information to the cloud processor and then creates a monitoring information form, which effectively allows the monitoring information to be backed up and then output to the electronic device in the form of a form, making it convenient for the operator to view and browse.

7. The electronic device is a mobile phone and/or tablet, which facilitates reading or storing image data or quantitative information in the cloud processor, and provides the operator with access to the information at any time.

8. By installing an incubation basket in the container body, it is possible to effectively monitor both large and small objects to be tested at the same time, ensuring the safety of small objects to be tested.

1: Container body

11: Accommodation space

12:Open upward

13: side wall

14: Edge

2:Adjustment unit

21:Height position adjustment component

211:First linear slide

2111:First rail piece

2111A: Limiting plate

2112:First slide

22: Horizontal position adjustment component

221: Second rail

222:Second slide

223:Telescopic rod

2231:Outer rod

2232:Inner rod

224: Fixtures

3:Camera unit

31: Storage box

311: Containment area

312:Open downward

313: First connection part

3131: Groove

314: Pivot button

32: Cover

321: Second connection part

3211: Inlay block

322:Through hole

33: Lens module

331: Lens parts

4: Processing unit

5: Operating unit

51:Power supply port

52:Power switch

53:Control button

54:Indicator light

7: Electronic devices

8: Breeding Basket

C: Cloud processor

E: Suspension parts

D: horizontal direction

F0: Panoramic image

F1, F2, F3: Image

H, H1, H2: height direction

M: Monitoring information

R: liquid

S: object to be tested

S1: Large object under test

S2: Small object under test

T:bolt

W1, W2: Width

[The first figure] is a three-dimensional appearance view of the adjustment unit according to the embodiment of the present invention.

[The second figure] is a perspective view of a container with a monitoring device according to an embodiment of the present invention.

[The third picture] is the view before the second picture.

[The fourth figure] is an exploded three-dimensional view of the camera unit according to the embodiment of the present invention.

[The fifth picture] is the first three-dimensional combination of the fourth picture, showing that the pivot button is in the unlocking position.

The sixth picture is the second three-dimensional combination of the fourth picture, showing that the pivot buckle is in the closed position.

[Figure 7] is a functional block diagram of a container with a monitoring device according to an embodiment of the present invention.

[Figure 8] is a diagram of the use state of the container with a monitoring device according to the embodiment of the present invention. The object to be measured is far away from the upward opening, and the adjustment unit lowers the height position.

[Figure 9] is Figure 2 of the use state of the container with the monitoring device according to the embodiment of the present invention. The object to be measured is close to the upward opening, and the height of the adjustment unit is lifted.

[Figure 10] is a schematic diagram showing a total of three images generated after each of the three camera units captures one image according to the embodiment of the present invention.

[Figure 11] is a schematic diagram of the processing unit according to the embodiment of the present invention splicing the three images in Figure 11 into a panoramic image.

[Figure 12] is a front view of an incubation basket installed in a container with a monitoring device according to an embodiment of the present invention.

[Figure 13] is a three-dimensional appearance view of a container with a monitoring device according to another embodiment of the present invention.

[Figure 14] is a diagram of the use state of a container with a monitoring device according to another embodiment of the present invention. It shows that the adjusted adjustment unit conforms to the width of the wider container body.

[Figure 15] is Figure 2 of a container with a monitoring device in use according to another embodiment of the present invention, illustrating that the adjusted adjustment unit conforms to the narrower width of the container body.

Based on the above technical features, the main functions of the container with a monitoring device and the monitoring method of the present invention will be clearly demonstrated in the following embodiments.

Referring to the first to third figures, the container with a monitoring device of the present invention includes a container body 1, an adjustment unit 2, a plurality of camera units 3 and a processing unit 4, wherein the container body 1 has a container Space 11 and an upward opening 12. The upward opening 12 is connected with the accommodation space 11. The adjustment unit 2 is provided on a side wall 13 of the container body 1. The adjustment unit 2 includes a height position adjustment component 21 and a horizontal position. Position adjustment component 22. The height position adjustment component 21 is disposed on the horizontal position adjustment component 22. Alternatively, the horizontal position adjustment component 22 is disposed on the height position adjustment component 21. In this embodiment, the horizontal position adjustment component 22 is used. The height adjustment component 21 is provided as an example for description, but is not limited to this. The plurality of camera units 3 are arranged on the adjustment unit 2, and the plurality of camera units 3 can adjust the height position toward a height direction H through the height position adjustment component 21. The horizontal position adjustment component 22 can adjust the horizontal position in a horizontal direction D, where the movement in the horizontal direction D is a linear movement. The processing unit 4 is provided on the adjustment unit 2, and the processing unit 4 is connected to the adjustment unit 2 and the plurality of signals. Camera unit 3.

Specifically, the processing unit 4 is electrically connected to a power supply unit, and the height position adjustment component 21 is a first linear slide rail 211 disposed on two opposite side walls 13 of the container body 1. Each first line The linear slide rails 211 are electrically connected to the power supply unit. Each first linear slide rail 211 includes a first rail member 2111 and a first slide base 2112. The first slide base 2112 is slidably connected to the first rail. 2111 , the processing unit 4 is disposed on one of the first sliding seats 2112 , and the processing unit 4 can control the first sliding seat 2112 to adjust the height position relative to the first rail member 2111 toward the height direction H. In addition, each first rail member 2111 is further provided with a limiting butt plate 2111A. The first rail member 2111 is detachably hung on the two opposite edges 14 of the container body 1 through the limiting butt plate 2111A, thereby making it convenient to The adjustment unit 2 is allowed to be hung on the edge 14 of the container body 1 .

The horizontal position adjustment component 22 is also electrically connected to the power supply unit, and the horizontal position adjustment component 22 is a second linear slide rail including a second rail member 221 and a plurality of second slide seats 222. The second rail member 221 The opposite ends are respectively fixed on the two first slide seats 2112. The plurality of second slide seats 222 are respectively slidably connected to the second rail members 221, and each camera unit 3 is provided on each second slide seat. 222, whereby the processing unit 4 can control the plurality of second slide seats 222 to adjust the horizontal position relative to the second rail member 221 toward the horizontal direction D.

Not only that, the processing unit 4 is further connected with an operating unit 5 via signals. The operating unit 5 includes a power supply port 51 , a power switch 52 , a control button 53 and an indicator light 54 . The power supply unit is charged with power through the power supply port 51, and is electrically connected to the processing unit 4 through the power switch 52, whereby the power switch 52 determines whether to pass a current to the processing unit 4 to control the startup of the monitoring device. or close. In this embodiment, after the monitoring device is turned on, by clicking the control button 53, the camera unit 3 can be controlled to start shooting; if the control button 53 is long pressed, the monitoring device will be controlled to restart. During this period, the operator will know the current status of the monitoring device from the prompts of the indicator light 54 . For example, when the indicator light 54 flashes slowly, it indicates that the monitoring device is initializing; when the indicator light 54 flashes quickly, it indicates that the monitoring device is operating; when the indicator light 54 lights up for a long time and no longer flashes, it indicates that the monitoring device has It is ready and waiting for the operator to issue the next instruction; when the indicator light 54 no longer lights up but goes out for a long time, it means that the monitoring device has been shut down and stopped operating. The operating unit 5 is disposed on the processing unit 4 to facilitate the operator to control the monitoring device through the operating unit 5. Therefore, the present invention has the effect of facilitating operation.

Please refer to the fourth to sixth figures. Each camera unit 3 includes a receiving box 31, a cover 32 and a lens module 33. The receiving box 31 has a receiving area 311 and a downward direction. Opening 312, the downward opening 312 is connected with the accommodating area 311, and the accommodating box 31 is provided with a first connecting part 313 adjacent to the downward opening 312, and the first connecting part 313 is provided with at least one embedded The groove 3131 is provided with four inlay grooves 3131 in this embodiment, but is not limited to this. The cover 32 is provided with a second connecting portion 321 facing the receiving box 31. The second connecting portion 321 is provided with at least one insert block 3211. In this embodiment, four insert blocks 3211 are provided, but it is not limited to this. The insert blocks 3211 can be detachably embedded in the insert groove 3131 correspondingly, so that the cover 32 When the accommodating box 31 is closed, the position can be fixed and will not move arbitrarily. The cover 32 is provided with a through hole 322, and the through hole 322 penetrates the cover 32. The lens module 33 is arranged in the accommodating box 31 and is located in the accommodating area 311, and the through hole 322 corresponds to one of the lens components 331 of the lens module 33. When the inlay block 3211 is inserted into the inlay groove 3131 and the cover 32 covers the accommodating box 31, the lens component 331 will pass through the through hole 322. The hole 322 protrudes from the cover 32. At this time, since the outside of each accommodation box 31 is further provided with a pivot buckle 314, the pivot buckle 314 can pivot relative to the accommodation box 31 and has an unlocking position. and a buckling position, so when the pivot buckle 314 is in the above-mentioned unlocking position, the cover 32 can be separated from the containing box 31 at this time, or when the cover 32 closes the containing box When the box 31 is placed, the pivot buckle 314 can pivot relative to the accommodating box 31 and be located in the above-mentioned buckling position, effectively allowing the lid 32 to be firmly buckled after closing the accommodating box 31, so that the lid 32 cannot be easily detached. Accommodation box 31.

Through the accommodating box 31 and cover 32 of the camera unit 3, the lens module 33 is effectively protected from dust or damage due to external impact. It can even make the lens module 33 waterproof and can be used when necessary. Take the opportunity to enter the water to reduce light interference. Since the lens component 331 in the lens module 33 protrudes from the cover 32 through the through hole 322, the lens component 331 will not be blocked by any obstruction, thereby effectively extending the service life of the lens module 33. Shooting can be done simultaneously.

Please refer to the seventh and eighth figures. The processing unit 4 is further connected to an electronic device 7 via a signal. The electronic device 7 is a mobile phone and/or a tablet. The electronic device 7 facilitates the operator to view the container body in real time. 1, and the distance and range of shooting can be changed by remotely operating the adjustment unit 2 through the electronic device 7.

The container body 1 contains a plurality of objects S to be tested. The objects S to be tested are, for example, but not limited to, one or any combination of fish, shrimp, crab, and clam. This embodiment takes fish as an example for illustration. But it is not limited to this. The plurality of objects S to be tested are located in the accommodation space 11, and the objects S to be tested are far away from the upward opening 12. At this time, if you want to know one of the health, growth rate, activity and quantity of the plurality of objects S to be tested or Any combination of information needs to be monitored by using the container with the monitoring device of the present invention.

First, a mains socket and the power supply port 51 can be connected through a conductive wire (not shown in the figure), and then the power switch 52 can be turned on. At the same time, the angle of view captured by the camera unit 3 can be viewed remotely from the electronic device 7, and then the angle captured by the camera unit 3 can be remotely viewed through the electronic device 7. The device 7 controls the adjustment unit 2 to lower the height position toward the height direction H1, thereby adjusting a distance between the plurality of camera units 3 and the object S to be measured, so that the plurality of camera units 3 and the object S to be measured maintain a standard shooting distance and synchronize The control adjustment unit 2 changes the horizontal position toward the horizontal direction D, by This adjusts a shooting range of the plurality of camera units 3 to capture the object S to be tested, so that the plurality of camera units 3 and the object S to be measured maintain a standard shooting range.

When the camera unit 3 reaches the standard shooting distance and the standard shooting range, by pressing the control button 53, the processing unit 4 can control each camera unit 3 to shoot at least one image F1, F2, F3 toward the object S to be measured (such as (10th picture), the processing unit 4 will splice the above-mentioned images F1, F2, F3 to form a panoramic image F0 (as shown in the 11th picture), and then transfer the above-mentioned panoramic image F0 to a cloud processor C, as described The cloud processor C signal is connected to the processor 4, and the cloud processor C uses the panoramic image F0 to identify the monitoring information M of the object to be measured S. The operator can understand the current execution status of the monitoring device through the indicator light 54. The cloud processor C will store the quantity information M, and store the results captured by the camera unit 3 uploaded by the processor 4 to perform cloud hosting, and the cloud processor C will generate a monitoring information form that is output by the electronic device 7 and can be read by the electronic device 7 Get the data in the cloud processor C and provide the operator with easy access and review. With this, the operator can not only control the camera unit 3 to shoot and control the adjustment unit 2 to change the height or horizontal position, so that the cloud processor C can effectively and accurately identify the monitoring information M of the object to be tested S, but also effectively enable the monitoring information M to be backed up. Then, it is output to the electronic device 7 in the form of a form, so that the operator can more easily understand the information measured on the object S to be tested.

Please refer to the seventh and ninth figures. Before operation, you can also connect the mains socket and the power supply port 51 through the conductive wire, and then turn on the power switch 52 to start the monitoring device. Since the conductive wire is plugged into The power supply port 51 is a conventional power supply method. To keep the diagram simple and clearly visible, the above-mentioned conductive wire is not shown in the figure.

Since the object S to be tested is close to the upward opening 12 in the container body 1, if you want to know one or any combination of the health, growth rate, activity and quantity of the objects S to be tested, then It is necessary to view and control the adjustment unit 2 through the electronic device 7 to raise the height toward the height direction H2. position, thereby adjusting the distance between the plurality of camera units 3 and the object to be measured S, so that the plurality of camera units 3 and the object to be measured S maintain the standard shooting distance, and the adjustment unit 2 is synchronously manipulated to change the horizontal position toward the horizontal direction D, Thereby, the imaging range of the plurality of imaging units 3 for photographing the object S is adjusted, so that the plurality of imaging units 3 and the object S maintain the standard imaging range.

When the camera unit 3 reaches the standard shooting distance and the standard shooting range, by pressing the control button 53, the processing unit 4 can control each camera unit 3 to shoot at least one image F1, F2, F3 toward the object S to be measured (such as (10th picture), and then the processing unit 4 splices the above-mentioned images F1, F2, F3 to form a panoramic image F0 (as shown in the 11th picture), and then the processing unit 4 will transfer the above-mentioned panoramic image F0 to the cloud processor C, identify the monitoring information M of the object to be tested S with the panoramic image F0 through the cloud processor C. The cloud processor C will store the quantity information M, and store the results captured by the camera unit 3 uploaded by the processor 4 to execute the cloud Hosting, and the cloud processor C will generate the aforementioned monitoring information form, which will be output by the electronic device 7. The operator can read the data stored in the cloud processor C through the electronic device 7 to facilitate real-time access or view of the information of the object to be measured S. . During this period, the process from identification and calculation to obtaining the result only takes less than 5 seconds, and the operator can know the current execution status of the monitoring device through the indicator light 54 . Through the container with the monitoring device and the monitoring method of the present invention, the number of the plurality of objects to be measured S located in the container body 1 can be calculated instantly, which facilitates farmers to monitor or buy and sell the objects to be tested, so that the present invention can Achieve fast and efficient breeding management at lower costs.

In addition, please refer to the twelfth figure, the container body 1 is further equipped with an incubation basket 8, the incubation basket 8 has a mesh structure, and the incubation basket 8 is provided with a hanging member E, and the incubating basket 8 passes through the hanging member E is hung on the edge 14 of the container body 1. The liquid R in the container body 1 can communicate with an incubation space of the incubation basket 8. At the same time, it can avoid the large-scale test object S1 in the container body 1 from interfering with the incubation space in the incubation basket 8. Mixed breeding of small objects S2 under test, and the small objects S2 under test are located in the standard shooting range of the plurality of camera units 3 Within the range, it can effectively ensure the safety of the small object S2 under the condition that the large object S1 and the small object S2 can be monitored at the same time.

Please refer to Figure 13. Another embodiment of the present invention is that the horizontal position adjustment component 22 has a telescopic structure. In another embodiment, the horizontal position adjustment component 22 includes a telescopic rod 223. And a plurality of fixing members 224. In this embodiment, the number of the fixing members 224 is two and they are fixed on the telescopic rod 223 through a plurality of bolts T. Then the two camera units 3 are respectively arranged on the two fixing members 224. The opposite ends of the telescopic rod 223 are slidably connected to two first sliding seats 2112, whereby not only the first sliding seat 2112 can slide relative to the first rail 2111, but the telescopic rod 223 can also slide relative to the first sliding seat. 2112 Slide and adjust the height position toward the height direction H. Among them, the telescopic rod 223 has an outer rod 2231 and an inner rod 2232. One of the camera units 3 is fixed on the outer rod 2231, and the other camera unit 3 is fixed on the inner rod 2232. The inner rod 2232 is located on the outer rod 2231. and the inner rod 2232 can relatively extend into or extend out of the outer rod 2231, whereby the telescopic rod 223 can perform length adjustment of elongation or shortening in the horizontal direction D, and change the horizontal position of the camera unit 3, so that the adjustment The unit 2 can be installed on the container body 1 to perform monitoring tasks.

Referring to Figure 14, when the width W1 of any container body 1 is relatively wide, the inner rod 2232 of the telescopic rod 223 is first extended relative to the outer rod 2231, so that the telescopic rod 223 is in the horizontal direction D. The adjustment unit 2 can be extended to change the length, so that the adjustment unit 2 can conform to the width W1 of the container body 1 and be placed on the container body 1. Then, the height direction H can be adjusted relative to the first sliding seat 2112 through the telescopic rod 223. Either adjust the first sliding seat 2112 relative to the first rail 2111 in the height direction H, or simultaneously change the height positions of the telescopic rod 223 and the first sliding seat 2112 relative to the first rail 2111 in the height direction H, so that the camera can Unit 3 can achieve the aforementioned standard shooting distance and the aforementioned standard shooting range.

Please refer to Figure 15 to reveal that if the width W2 of the container body 1 to be used is narrow, the inner rod 2232 of the telescopic rod 223 needs to be relatively extended into the outer rod 2231, so that the telescopic rod 223 is in The length in the horizontal direction D is shortened, so that the adjustment unit 2 can conform to the width W2 of the container body 1 and be placed on the container body 1. By changing the distance in the horizontal direction D and the height direction H, the camera unit 3 can achieve the aforementioned The standard shooting distance and the aforementioned standard shooting range are used to perform accurate, fast and low-cost monitoring of the aforementioned object S to be measured.

Based on the description of the above embodiments, the operation, use and effects of the present invention can be fully understood. However, the above embodiments are only preferred embodiments of the present invention and should not be used to limit the implementation of the present invention. The scope, that is, simple equivalent changes and modifications based on the patent scope of the present invention and the description of the invention, are all within the scope of the present invention.

1: Container body

11: Accommodation space

12:Open upward

13: side wall

14: Edge

211:First linear slide

2111:First rail piece

2111A: Limiting plate

2112:First slide

22: Horizontal position adjustment component

221: Second rail

222:Second slide

3:Camera unit

4: Processing unit

5: Operating unit

51:Power supply port

52:Power switch

53:Control button

54:Indicator light

Claims (9)

A container with a monitoring device and containing at least one object to be measured, including: a container body with a receiving space and an upward opening, the upward opening is connected to the receiving space, and the object to be measured is located in the receiving space In the space; an adjustment unit is provided on a side wall of the container body. The adjustment unit includes a height position adjustment component and a horizontal position adjustment component. The height position adjustment component is disposed on the horizontal position adjustment component, or the horizontal position adjustment component. A position adjustment component is disposed on the height position adjustment component; a plurality of camera units are disposed on the adjustment unit, and the plurality of camera units can adjust the height position in a height direction through the height position adjustment component, so that the plurality of camera units are in contact with the described The object to be measured maintains a standard shooting distance, and the plurality of camera units can adjust the horizontal position in a horizontal direction through the horizontal position adjustment component, so that the plurality of camera units and the object to be measured maintain a standard shooting range; a processing unit, a signal The adjustment unit, the plurality of camera units and an electronic device are connected. The processing unit controls each camera unit to shoot at least one image toward the object to be measured at the standard shooting distance and the standard shooting range, and then stitches the above images to form A panoramic image is used to identify the monitoring information of the object to be measured in the container body, and then output by the electronic device. The processing unit further connects the signal to a cloud processor, and the processing unit stores the monitoring information to the cloud. processor, and generate a monitoring information form in the cloud processor, and then output it from the electronic device. The electronic device is a mobile phone and/or a tablet, and an incubation basket is further installed on the container body. The container with a monitoring device as claimed in claim 1, wherein the processing unit is further electrically connected to a power supply unit, and the height position adjustment component is two first linear slide rails provided on two opposite side walls of the container body, Each first linear slide rail is electrically connected to the power supply unit, and each first linear slide rail The rail includes a first rail member and a first sliding seat. The first sliding seat is slidably connected to the first rail member, whereby the processing unit controls the orientation of the first sliding seat relative to the first rail member. This height direction adjusts the height position. The container with a monitoring device as claimed in claim 2, wherein each first rail member is further provided with a limiting butt plate, and the first rail member is detachably hung through the limiting butt plate. The two opposite edges of the container body are limited. The container with a monitoring device as claimed in claim 2, wherein the horizontal position adjustment component is electrically connected to the power supply unit, the horizontal position adjustment component is a second linear slide rail, and the second linear slide rail includes a second A rail member and a plurality of second slide seats. The opposite ends of the second rail member are respectively fixed to the two first slide seats. The plurality of second slide seats are respectively slidably connected to the second rail member, and each camera The unit is disposed on each second sliding seat, whereby the processing unit controls the plurality of second sliding seats to adjust the horizontal position relative to the second rail member toward the horizontal direction. The container with a monitoring device as described in claim 2, wherein the horizontal position adjustment component is electrically connected to the power supply unit, the horizontal position adjustment component includes a telescopic rod and a plurality of fixing parts, and the plurality of fixing parts are fixed on the A telescopic rod whose opposite ends are slidably connected to the two first sliding seats respectively. The telescopic rod has an outer rod and an inner rod. The inner rod is located in the outer rod and is opposite to the outer rod. The rod extends in or out, and each camera unit is installed on any of the fixing members. The processing unit controls the telescopic rod to expand and contract in the horizontal direction, thereby adjusting the horizontal positions of the plurality of camera units. The container with a monitoring device as described in claim 1, wherein the processing unit is further connected to an operating unit via a signal, and the operating unit receives an operating command and then generates an operating signal and sends it to The processing unit, after receiving the operation signal, controls the adjustment unit to perform driving or the camera unit to perform shooting. The container with a monitoring device as claimed in claim 1, wherein each camera unit includes a lens module, a storage box and a cover, the storage box has a storage area and a downward opening, the opening facing downwards The lower opening is connected with the accommodating area, the lens module is arranged in the accommodating box and is located in the accommodating area, and the accommodating box is provided with a first connecting part, the first connecting part is adjacent to the downward The opening is provided with at least one inlay groove on the first connecting part, and a second connecting part is provided on the cover facing the receiving box. The second connecting part corresponds to the first connecting part, and the second connecting part is The connecting portion is provided with at least one insert, and the cover is provided with a through hole that penetrates the cover. The through hole corresponds to a lens component of the lens module. When the first connecting portion is connected to the second connecting portion When the cover body is closed with the accommodating box, the insert block is detachably inserted into the insert groove, and at this time, the lens component will pass through the through hole and extend out of the cover body. The container with a monitoring device as claimed in claim 7, wherein each containing box has an exterior, and the exterior is further provided with a pivot buckle, and the pivot buckle has an unlocking position and a buckling position, whereby, When the pivot buckle is in the unlocking position, the cover body movably separates the accommodating box, or when the cover body closes the accommodating box, the pivot buckle pivots relative to the accommodating box and is located in the unlocking position. The snap position. A method for performing monitoring using a container with a monitoring device as described in any one of claims 1 to 8, the steps include: arranging the adjustment unit on the container body; operating the height position adjustment component to allow the plurality of camera units to pass through The height position adjustment component changes the height position toward the height direction, thereby adjusting a distance between the plurality of camera units and the object to be measured, so that the plurality of camera units and the object to be measured maintain the standard shooting distance; The horizontal position adjustment component is operated to cause the plurality of camera units to change the horizontal position toward the horizontal direction through the horizontal position adjustment component, thereby adjusting a shooting range of the plurality of camera units when photographing the object to be measured, so that the plurality of camera units Maintain the standard shooting range with the object to be measured; the processing unit controls each camera unit to shoot at least one image toward the object to be measured, and then splices the above images through the processing unit to form a panoramic image; the processing The unit identifies the monitoring information of the object under test through the panoramic image, and then outputs it from the electronic device.

Images