KR101250767B1 - Wireless smart road stud system and management method therefore - Google Patents

Abstract

PURPOSE: A wireless smart road stud system and a management method therefore is provided to prevent damage caused by thoughtless repetitive installations, to reduce budget, and to enable a safe and comfortable drive by informing a road user of road conditions ahead in advance. CONSTITUTION: A wireless smart road stud system and a management method therefore comprise a plurality of road studs(200), local controllers(110,120,130), and a central controller(100). A plurality of road studs is continuously installed at intervals, is grouped into a plurality of groups, and operates according to a command which is received from the central controller. The local controller transmits a control message with road stud groups through different communication channels. The central controller monitors the conditions of the road studs and local controllers and provides a control message to the road studs and local controllers. [Reference numerals] (100) Central controller; (110,120,130) Local controller;

Description

Wireless Smart Sign Bottle System and Management Method Therefor {Wireless Smart Road Stud System and Management method therefore}

The present invention relates to a wireless smart cover bottle system and a management method therefor.

Road safety facilities are installed to ensure safe and smooth communication of road traffic, and to improve road users' safety by supplementing the inadequate structure of roads.

Among them, the eye-guided facility is a facility installed to draw the eyes of the driver during the day and night by specifying the end of the road and the road line.

Eye-guided signage is a facility that induces safe and smooth vehicle driving by using the reflector to guide the driver of the change of road linearity or geometrical conditions in the straight and curved sections.

The seagull sign is a facility that allows the driver to clearly know the degree of linearity and curvature of the road in places with poor visibility, such as a steep flat curve.

The marker bottle is a facility installed on the surface of the road to clearly induce the driver's eyes at night and in bad weather. There are reflective, anti-reflective, and light-emitting types.

Most of the label bottles have been used for reflection type, and the light emitting type is currently used partly, but the reflective label bottle may be buried over time or become contaminated due to the contamination of the reflecting part. If an abnormality occurs, the effect cannot be exhibited at all, and it is left in a useless state unless such an abnormal state is directly confirmed in the field, and a problem occurs that the effect is not effective except for a fixed function set to a normal night state. In addition, due to the overlapping installation of most eye-guided facilities, the budget is wasted, and conversely, it may cause confusion.

Korean Laid-Open Patent Publication 10-2011-0055882

The present invention has been made to solve the above problems, and an object of the present invention is to provide a wireless smart cover bottle system and a management method thereof for effectively managing the cover bottles.

Wireless smart cover bottle system according to an embodiment of the present invention for achieving the above object is a plurality of cover bottles installed in succession at intervals and grouped into a plurality of groups; A regional controller for transmitting a control message through different communication channels with the marker groups: a central controller for monitoring the status of the marker bottle and the regional controller and providing a control message to all marker bottles and the regional controller; When the cover bottle receives the control message, the cover bottle operates according to a command included in the control message.

A predetermined marker bottle among the marker bottles may resend the control message.

The predetermined marker bottle is preferably located at the edge of the communication area of the area controller.

The control message may include information indicating a marker bottle for resending the control message.

The central controller may report the status information of the regional controller and report the status information of the related markers through the regional controller.

The state information of the marker bottle may include a power generation state of the solar panel, a usable remaining battery amount, a communication state, and a display state.

Each marker bottle wakes up at a predetermined cycle in a low power mode and waits for reception of the control message. If the control message is received, if the target message of the control message indicates a predetermined value, an operation according to a command of the control message is performed. can do.

The marker bottles may each have a group ID and an individual ID assigned to them.

The marker bottle has a plurality of RF channels and a communication unit for broadcasting the control message; Solar panels for generating power from sunlight; A power supply unit configured to receive and charge power from the solar panel; A control unit controlling an operation of the cover bottle; And a display unit that is turned on or blinks under the control of the controller.

The display unit may include a red light emitting device, a blue light emitting device, and a yellow light emitting device.

In addition, another embodiment of the present invention provides a management method for a wireless smart marker bottle system comprising a plurality of marker bottles, regional controllers and a central controller. The management method for the wireless smart marker bottle system includes the steps of grouping the plurality of marker bottles into a plurality of groups, the local controllers broadcasting control messages to the marker bottle groups through different communication channels, and the marker bottle. When they receive the control message, operating according to a command included in the control message.

The management method for the wireless smart cover bottle system may further include retransmitting a control message received by a predetermined cover bottle among the cover bottle groups. In this case, the management method for the wireless smart cover bottle system is that if a predetermined cover bottle among the cover bottle groups does not receive the control message from another cover bottle within a predetermined time after resending the control message, The method may further include resending by changing a destination value.

The control message may include information indicating a marker bottle for resending the control message.

The management method for the wireless smart beacon system includes the step of calculating the waiting time for each of the beacons, if the command is a command requesting the status report of the beacon, and the beacons are after their respective waiting times. The method may further include transmitting status information to the local controller.

The waiting time may be calculated differently such that the markers sequentially transmit the status information.

The management method for the wireless smart beacon system may further include the step of receiving, by the central controller, the status information of the regional controller, and receiving, by the central controller, the status information of the relevant marker bottles through the regional controller. .

The state information of the marker bottle may include a power generation state of the solar panel, a usable remaining battery amount, a communication state, and a display state.

As described above, the wireless smart beacon system according to the present invention is installed in places where road curves or geometrical conditions change in the front or in poor places such as incline plane curves, or in places where the attention of the driver is remarkably required at night and in bad weather. In the case of displaying the cover bottle system by the method according to the present invention, road users can recognize the road situation in front of them in advance to achieve safer and more comfortable driving, and prevent damage and reduce budget due to indiscriminate overlapping installation. It is effective, and above all, it can protect valuable lives and property by preventing traffic accidents in advance.

1 is a view showing the label bottles to which the present invention is applied.
2 is a view schematically showing a wireless smart cover bottle system according to an embodiment of the present invention.
3 is a view for explaining a management method for a wireless smart cover bottle system using a broadcasting method according to an embodiment of the present invention.
Figure 4 shows a block diagram showing the configuration of a label bottle according to the present invention.
5 is a flowchart illustrating an operation performed by the marker bottle of FIG. 4 in a low power mode.
6 shows a control flow when the marker bottle of FIG. 4 receives a control message.
7 is a diagram illustrating a message flow for broadcasting according to the present invention.
8 is a diagram illustrating a message flow for status reporting according to an embodiment of the present invention.

Hereinafter, with reference to the drawings will be described embodiments of the present invention in more detail.

1 is a view showing the label bottles to which the present invention is applied.

Referring to Figure 1, a plurality of beacon bottles 20 are provided at regular intervals along the road. Each marker bottle 20 is provided with a solar cell or a solar panel to receive power.

All light-emitting label bottles currently installed are also charged during the day and then turned on when dark to serve as a subsidiary vehicle. However, existing marker bottles are designed to function only in a fixed road situation, usually at night.

In the present invention, a local controller and a central controller are provided to control the plurality of marker bottles, and the driver provides a safe driving means in a variable manner according to the road situation.

For example, on the basis of the fact that turning on the guidance light when the vehicle approaches, rather than the always-on guidance light in the danger zone of the road, can be alarmed, the vehicle is in the off state and the indicator lights when the vehicle approaches. Alternatively, it can be used as a flashing method. In the case of a foggy road, the indicator can be secured by adjusting the brightness of the display bottle according to the intensity of the fog. In various ways, the driver is provided with a control to raise awareness and guide safe driving.

The present invention employs a broadcasting scheme to control the plurality of marker bottles 20. Hereinafter, the present invention will be described by taking the label bottle 20 as an example, but it will be apparent to those skilled in the art that the present invention can be applied to any fixture that is installed and controlled at regular intervals.

2 is a view schematically showing a wireless smart cover bottle system according to an embodiment of the present invention. The wireless smart cover bottle system manages cover bottles using a broadcasting scheme.

The wireless smart cover bottle system is continuously installed at intervals, and includes a plurality of cover bottles 200 grouped into a plurality of groups, local controllers 110, 120, and 130 for transmitting control messages through different communication channels with the cover bottle groups, and the cover bottle ( 200 and a central controller 100 for monitoring the status of the regional controllers 110, 120, 130 and providing control messages to all markers and regional controllers. Specifically, referring to FIG. 2, a plurality of marker bottles can be grouped and controlled in several groups. Each group includes a plurality of marker bottles. These marker groups are managed by the corresponding local controllers 110, 120, and 130. One marker bottle is included in one of a plurality of groups managed by a local controller.

Each local controller 110, 120, 130 sends a control message to manage the marker bottle. Control messages can be generated by each local controller. Alternatively, the plurality of regional controllers 110, 120, and 130 may receive a control message for controlling each marker bottle from the central controller 100. To this end, the central controller 100 may communicate with the plurality of local controllers 110, 120, and 130 using a mobile communication network, for example, a CDMA network or an LTE network.

The control message includes, for example, a command for controlling lighting, simultaneous flashing, alternating flashing, flashing speed, brightness or color of the marker bottle.

Meanwhile, the central controller 100 monitors the status information of the marker bottle and the local controller, and provides control messages to all marker bottles and the local controller. Specifically, the central controller 100 receives the information on the status periodically from the local controller (110, 120, 130). In addition, the local controller 110, 120, 130 receives the status information of the markers and reports to the central controller 100. To this end, the local controller 110, 120 or 130 may report the status information of the marker bottle from the marker bottle 200. When the central controller 100 receives the status information of the local controllers and the status information of the markers, it centralizes them. The central controller 100 maintains and manages each marker bottle using the state information. That is, information about regional controllers and markers is databased and this information can be used to manage the life of the regional controllers and markers. For example, information about local controllers and markers can be used to predict life cycle by statistics.

When the regional controllers 110, 120, and 130 also receive the status information of the marker bottle 200, it diagnoses whether the marker bottle is normal and determines whether a failure has occurred. Accordingly, it is possible to cope quickly with the failure of the marker bottles.

The status information of the marker bottle includes the solar panel's power generation status, usable remaining battery capacity, communication status, display status, and the like.

The central controller 100 may provide a control message to the regional controllers 110, 120, 130 based on the state of the regional controllers 110, 120, 130 or the state of the beacon. Local controllers 110, 120, and 130 send control messages from central controller 100 to the marker bottles.

Each regional controller 110, 120, 130 may communicate with markers belonging to its group through a plurality of channels. The plurality of channels have different frequencies. Communication between markers or between the marker and the local controller may be via one of a plurality of channels.

The local controller 110, 120 or 130 may select the best communication channel according to the communication status of the marker bottle to communicate with the marker bottle. According to another embodiment, regional controllers 110, 120, or 130 may communicate with different markers via two or more channels. In this case, the local controller 110, 120, or 130 transmits a control message to all markers belonging to the channel through the channel, respectively. In this case, the local controller 110, 120, or 130 may transmit the control message through a broadcasting method. Thus, markers belonging to one group can receive another control message and, for example, control the display in different ways than other markers.

The communication channel may be determined by the local controller 110, 120 or 130 or the central controller 100. In other words, the local controller 110, 120, or 130 or the central controller 100 may determine one of the plurality of communication channels according to a condition and determine the channel determined by the markers 200 to communicate using the corresponding communication channel. Tells. Then, the marker bottles 200 may tune to the determined channel and wait for the reception of the control message.

According to another embodiment, if the communication areas of regional controllers or beacons providing different control messages overlap, the local controllers or beacons may send control messages using different channels. In this case, there may be a marker bottle that does not receive a control message from the local controller 110, 120, or 130. Since the communication area of the regional controller 110, 120 or 130 is limited, the marker bottle outside the communication range does not receive a control message from the local controller. That is, the control message sent from the local controller 110, 120 or 130 can reach the marker bottle within a certain range.

Accordingly, the predetermined marker bottle may resend the received control message through a broadcasting method after receiving the control message from the local controller. Broadcasting is a way of sending a message to all recipients simultaneously, as is known in the art. Thus, all recipients who can receive the broadcasting channel can receive the message. Since the marker bottle is designed to consume less power, the message broadcast from the marker bottle is transmitted to a limited area. Thus, in order to deliver the control message to another beacon out of range, the predetermined beacons in the group resend the control message. For example, the local controller sends the control message for the first time, and another marker bottle receiving the control message resends the same control message. In this case, it is preferable that the marker bottle which resends the control message is located at the edge of the communication area of the local controller.

The marker bottle for resending the control message may be predetermined, and may be installed in each marker bottle in software.

Alternatively, the control message may include information indicating a marker bottle for resending the control message. In this case, the cover bottle resends the control message when it is determined that the resend cover bottle directs itself. In summary, a management method for a wireless smart beacon system includes the steps of grouping the plurality of beacons into a plurality of groups, the local controllers broadcasting control messages to the beacon groups through different communication channels; When the markers receive the control message, the markers may include operating according to a command included in the control message.

As a management method for a wireless smart cover bottle system using the broadcasting method according to the present invention, all cover bottles of a corresponding channel may receive a control message, which will be described in detail with reference to FIG. 3.

3 is a view for explaining a management method for a wireless smart cover bottle system using a broadcasting method according to an embodiment of the present invention.

Referring to FIG. 3, each marker bottle is assigned an identification value, that is, an individual ID. In Fig. 3, the identification values include ID11, ID12,... , ID1n. In addition, the marker bottle is included in at least one group managed by the local controller, as described above. The marker bottle may have a group ID indicating a group. Thus, markers belonging to one group have one group ID. It is apparent to those skilled in the art that such an identification value can be set differently according to system operation.

The control message received by each marker may be a packet type message. The control message includes destination information and a command indicating an operation performed by the marker. The destination information includes the individual ID and the group ID of the marker bottle.

In the present invention, since the control message received by each marker bottle is the same, the operation of each marker bottle is controlled using the group ID and the individual ID of the destination information. Specifically, each marker determines whether the group ID of the control message has a specific value or indicates its group, and if so, checks the local ID.

In addition, each marker bottle extracts the group ID and the individual ID of the destination information from the control message and determines whether the group ID and the individual ID are their own ID or their own ID. When the group ID and the individual ID indicate their own IDs, each marker bottle performs an operation according to the command included in the control message.

For example, the command may indicate turn-on / turn-off of the light emitting part of the cover bottle, battery remaining amount check, and the like.

In addition, the marker to perform broadcasting of the control message may be indicated by the individual ID included in the control message. For example, a marker bottle with an individual ID corresponding to a multiple of 20 of the marker bottles can broadcast a control message.

In FIG. 3, when a predetermined marker bottle among the marker bottles 211 to 21n and 221 to 22n, that is, a marker bottle assigned with ID11 and ID21, receives a control message, broadcasts a control message.

Thus, if local IDs are sequentially assigned to the beacons, the beacon broadcasts the control message at regular intervals.

In this way, the control message can be delivered to all beacons in a relay management method by broadcasting. The control message is broadcast within the restricted area, as described above. For example, the control message broadcast from marker bottle ID11 211 reaches not only the position of marker bottle ID1n 21n but also the position of marker bottle ID21 221 to perform the next broadcast.

In addition, the control message broadcast from the marker bottle ID21 221 reaches the position of the marker bottle ID2n 22n as well as the position of the marker bottle (not shown) to be broadcasted next.

In FIG. 3, the broadcasting area 30 of the control message is the area viewed from the cover bottle ID11 211 toward the cover bottle ID1n, and the control message is broadcast to the area which is actually smaller than the broadcasting area shown in FIG. Can be.

The control message broadcast by the cover bottle ID11 211 may be detected by all the cover bottles in the first area 30, and the control message broadcast by the cover bottle ID21 221 may be detected by all the signs in the second area 40. It can be detected by markers.

If the cover label ID11 or ID21 (211 or 221) that performed the broadcast does not receive the control message broadcast by another cover bottle after a predetermined time after broadcasting the control message, it may determine that the other cover bottle has failed. have. For example, a marker bottle adjacent to the marker that performs broadcasting, for example, marker bottle ID1n 21n or ID2n 22n, may determine the failure of the broadcast marker.

In addition, each marker is powered from the solar cell, is in a low power mode and periodically wakes up to receive control messages. Specifically, each marker bottle uses the power generated by the solar cell. Since the amount of power generated is small, each marker can be in a low power mode and periodically wake up to receive a control message to reduce power consumption.

Figure 4 shows a block diagram showing the configuration of a label bottle according to the present invention.

Referring to FIG. 4, the cover bottle includes a communication unit 310, a control unit 220, a solar panel or a solar cell 330, a power supply unit 340, and a display unit 350.

The communication unit 310 receives a control message broadcast from another marker bottle or broadcasts the control message again. In this case, the communication unit 310 detects or receives the control message broadcast in the RF method, or broadcasts the control message in the RF method.

The communicator 310 enters a low power mode and enters a reception standby state from the low power mode at a predetermined cycle.

The wake-up period, that is, the wake-up period in the low power mode, is made longer than the communication time according to the length of the bit string (preamble) transmitted by the local controller before each frame (control message) so that transmission and reception are not misaligned.

For example, when the length of the preamble is 4 bytes, the wakeup period may be 25 ms. The communication unit 310 wakes up 23ms after entering the low power mode and receives a control message or waits to receive a control message. After a predetermined time (2ms), the control unit 320 enters the low power mode again.

When the control unit 320 receives the control message, the controller 320 executes the control flow in response to the received control message.

The solar panel 330 generates power from sunlight and provides the power to the power source 340. The power supply unit 340 may be, for example, a battery. The power supply unit 340 charges the power provided from the solar panel 330. The power supply unit 340 provides power to the display unit 350. Although not shown, the power supply unit 340 also supplies power to other components including the communication unit 310 and the control unit 320.

The display unit 350 may include a red light emitting device, a blue light emitting device, and a yellow light emitting device. The display unit 350 may emit a color designated by the controller 320. In addition, the display unit 350 may blink rapidly or slowly according to a designated blink cycle. The display unit 350 may safely guide the driver's course by brightening the illumination when the cigar is poor due to fog or heavy rain. Hereinafter, an operation of a terminal employing a low power mode will be described with reference to FIG. 5.

5 is a flowchart illustrating an operation performed by the marker bottle of FIG. 4 in a low power mode.

Referring to FIG. 5, the marker bottle enters the low power mode in step 410 and detects whether a predetermined period has elapsed in step 420.

As mentioned above, the predetermined period may be, for example, 25 ms. The marker bottle wakes up from the low power mode in step 430 if a predetermined time has elapsed after entering the low power mode.

Subsequently, the marker bottle enters the standby state at 440. At this time, the reception waiting time is a very small time. For example, the reception wait time may be 2ms.

If the beacon did not receive the control message, the process returns to step 410 to enter the low power mode. If a control message has been received, the control flow is executed in response to the control message in step 450.

6 shows a control flow when the marker bottle of FIG. 4 receives a control message.

Referring to FIG. 6, the marker bottle first switches to a reception standby state in step 510. If the cover bottle has received the control message, in step 520 the ID of the destination information is extracted from the control message. Each marker bottle is assigned a group ID and an individual ID, and the destination information includes the group ID and the individual ID.

Each marker bottle extracts the group ID and the individual ID of the destination information. If the extracted group ID and the individual ID have a predetermined value, the process proceeds to step 550.

Each marker bottle then determines whether the group ID and individual ID extracted in step 540 indicate its group ID and individual ID. Or, each marker bottle performs an operation according to the command of the control message in step 550 if the group ID and the individual ID of the control message are the same as its group ID and the individual ID.

For example, the command may indicate turn-on / turn-off of the light emitting part of the cover bottle, battery remaining amount check, and the like.

7 is a diagram illustrating a message flow for broadcasting communication according to the present invention.

As described above, if the cover bottle that has been broadcast does not receive the control message broadcast by another cover bottle after a predetermined time after broadcasting the control message, it may be determined that the other cover bottle has failed.

Referring to FIG. 7, the first marker bottle 201 broadcasts a control message in step 610. Accordingly, the n-th marker bottle 20n-1 and the n-th marker bottle 20n received a control message. Then, the broadcast marker bottle, i.e., the first marker bottle 201, starts a timer in step 620, and determines in step 630 whether a control message has been received from another marker bottle. For example, if the n-th marker bottle 20n broadcasts a control message, the first marker bottle 201 may receive a control message broadcast by the n-th marker bottle 20n.

If the first marker bottle 201 receives the control message before the timer expires in step 650, the first marker bottle 201 proceeds to step 640 to determine that the communication state is normal. If the first beacon 201 does not receive the control message before expiration of the timer in step 650, then in step 660 the destination value of the control message, for example the destination ID, is changed and the control message is broadcast in step 670. That is, the first marker bottle 201 changes the target ID of the control message to the group ID and the individual ID of the n-1 marker bottle 20n-1, and then broadcasts the control message. Accordingly, the n-th marker 20n-1 may broadcast the control message since the destination ID of the control message refers to itself in step 680.

8 is a diagram illustrating a message flow for status reporting according to an embodiment of the present invention.

Referring to FIG. 8, the first marker bottle 201 broadcasts a control message in step 710. The control message includes a command to request the status report of the marker bottle. Accordingly, each marker that receives the control message must report its status information to a predetermined marker or corresponding local controller according to the command of the control message. In this case, if a plurality of marker bottles simultaneously transmit their own status information, the communication load may increase in the marker bottles or local controllers that report their status information. Thus, each of the marker bottles 201, 20n-1, 20n calculates the waiting time, respectively, upon receipt of a control message containing a command to request status reporting (steps 720,722). At this time, the waiting time of each marker bottle is different. Wait times are calculated differently so that markers transmit status information sequentially. For example, the waiting times are designed to be calculated in a sequentially increasing manner as the ID value of the marker bottles increases or decreases. Status information is generated by markers in the form of messages. In the status information message, the local controller is designated as the receiver, that is, the destination.

In this case, if the local controller is not located within the communication area of the marker bottle, the status information of the marker bottle may be transmitted to the regional controller by relaying another marker bottle. In other words, since the destination of the status information message is the local controller, each marker sends the received message to the local controller if the destination of the received message is the local controller. According to another embodiment, the beacon may broadcast the received message if the destination of the received message is a local controller, such that the status report message may reach the local controller.

In FIG. 8, the markers 20n-1 and 20n determine whether the waiting time calculated by themselves in the steps 730 and 732 have elapsed, and if the wait time has elapsed, the status report message is sent to the first marker bottle (step 740 and 742). 201). In this embodiment, the status report message is sent to the beacon requesting the status report, but the status report message may be sent to the local controller.

As such, since each marker sends the status report message at predetermined time intervals, the communication load does not increase.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, It will be understood by those skilled in the art that various changes in form and detail may be made therein without departing from the spirit and scope of the present invention.

310: communication unit
320: control unit
330: Solar Panel
340: power supply

Claims (18)

In the wireless smart cover bottle system,
A plurality of cover bottles installed in succession at intervals and grouped into a plurality of groups;
A local controller for transmitting a control message through a communication channel different from the marker group;
A central controller for monitoring the status of the marker bottle and the regional controller and providing control messages to all marker bottles and the regional controller,
The control message includes information indicating a cover bottle for resending the control message, the cover bottle operates according to a command included in the control message upon receiving the control message, wherein a predetermined cover bottle of the plurality of cover bottles is Wireless smart cover bottle system, characterized in that for retransmitting the control message. delete The method of claim 1, wherein
And the predetermined marker bottle is located at an edge of a communication area of the area controller. delete The method of claim 1, wherein
The central controller reports the status information of the regional controller, and the status information of the relevant markers through the regional controller report wireless smart beacon system. The method of claim 5,
The status information of the marker bottle includes a solar panel power generation status, usable remaining battery capacity, communication status and display status. The method of claim 1,
Each marker bottle wakes up at a predetermined cycle in a low power mode and waits for reception of the control message. If the control message is received, if the target message of the control message indicates a predetermined value, an operation according to a command of the control message is performed. Wireless smart cover bottle system, characterized in that. The method of claim 1,
The cover bottles each have a group ID and individual ID given to the wireless smart cover bottle system. The method of claim 1,
The marker bottle is
A communication unit having a plurality of RF channels and broadcasting the control message;
Solar panels for generating power from sunlight;
A power supply unit configured to receive and charge power from the solar panel;
A control unit controlling an operation of the cover bottle; And
Wireless smart cover bottle system characterized in that it comprises a display unit flashing under the control of the controller. 10. The method of claim 9,
The display unit includes a red light emitting device, a blue light emitting device and a yellow light emitting device, characterized in that the wireless smart cover bottle system. In the management method for a wireless smart cover bottle system comprising a plurality of cover bottles, regional controllers and a central controller,
Grouping the plurality of marker bottles into a plurality of groups;
The local controllers broadcasting control messages to the marker group via different communication channels;
When the markers receive the control message, operating according to a command included in the control message;
Retransmitting a control message received by a predetermined marker bottle among the marker bottle groups,
The control message is a management method for a wireless smart cover bottle system including information indicating a cover bottle for resending the control message. delete The method of claim 11,
If the predetermined marker bottle among the marker bottle groups does not receive the control message from another marker bottle within a predetermined time after resending the control message, changing and resending the destination value of the control message. Management Method for Smart Cover Bottle System. delete The method of claim 11,
Calculating the waiting time for each of the markers, if the command is a command for requesting a status report of the marker bottle;
And transmitting the status information to the local controller after each of the waiting periods of the markers. 16. The method of claim 15,
The waiting time is a management method for a wireless smart beacon system that is calculated differently so that the beacons sequentially transmit the status information. 16. The method of claim 15,
Receiving, by the central controller, status information of the local controller;
And receiving, by the central controller, the status information of the relevant marker bottles through the regional controller. The method of claim 11,
The state information of the cover bottle includes a power generation state of the solar panel, usable remaining battery capacity, a communication state and a display state for a wireless smart cover bottle system characterized in that the display state.

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