WATER WALKING STAGE SYSTEM

TECHNICAL FIELD

The present disclosure relates to a water walking stage system, and more particularly, to a water walking stage system that provides a water play facility that can be used by adults as well as disabled people and young people and ensures safety.

BACKGROUND ART

Sports users can enjoy in the ocean or river are mostly swimming, riding a small boat, or using water equipment such as a jet boat.

Since the conventional marine facilities provided in this way are mostly for adults, most of the facilities are rarely usable for children, the elderly, and the disabled.

In particular, facilities that are not easy for users to use depending on the weather or surrounding environment, such as the coast, are not easy to use even for a strong adult male.

There are no water play facilities that can be easily used by the disabled or children among the coastal facilities. Accordingly, there is an urgent need for facilities that the disabled and children can use with confidence.

DISCLOSURE
Technical Problem

Therefore, the present disclosure has been made in view of the above problems, and one object of the present disclosure is to enable safe use of water play facilities such as the beach, riverside, and lakeside facilities.

In particular, it is an object of the present disclosure to provide a beach water play facility and a fresh water-based water play facility that can be used not only by adults but also by the disabled and young people.

It is another object of the present disclosure to provide a safe and useful water play facility that allows users who enjoy water play to enjoy water play in water on the shore or in river, as well as walking along the beach.

Technical Solution

In accordance with one aspect of the present disclosure, a water walking stage system may include opposite side floating bodies, each having a structure filled with gas or a foam resin material to float on a water surface and including a safe connector mounted inside thereof; a walking stage connected under the opposite side floating bodies to form a footrest and submerged in water below the water surface; rails arranged to connect opposite sides of the walking stage to the opposite side floating bodies; and a fixing rod installed on the ground and connected to the safety connector mounted inside the opposite side floating bodies to fix positions of the opposite side floating bodies, wherein the opposite side floating bodies, the walking stage and the rails may constitute one module unit by an integrated assembly structure.

In one embodiment of the present disclosure, the floating bodies are provided with a handle part on one side, wherein one of the floating bodies, the walking stage or the rails may be provided with a structural safety detection member, and a main controller is connected to the structural safety detection member.

In one embodiment of the present disclosure, the rails may include a variable structure having a length changed in a vertical direction to change a submerge depth in the water of the walking stage mounted to a lower portion of the rails. In this case, each of the rails constituting the one module unit may include a first connector arranged to connect one side of the walking stage to one side of the floating body and provided with a variable structure capable of changing a connection length; a second connector arranged to connect an opposite side of the walking stage to an opposite side of the floating body and provided with a variable structure capable of changing a connection length; and an additional connector disposed between the first connector and the second connector and arranged to connect the walking stage to the floating body.

In addition, by changing the connection lengths of the first connector, the second connector and the additional connector, the rails constituting the one module unit and an adjacent module unit may implement a horizontally leveled walking stage, an inclined walking stage, or a walking stage having a curved surface.

In one embodiment of the present disclosure, the safety connector may be connected to the fixing rod by a variable wire that has a variable length or is separable.

In one embodiment of the present disclosure, the opposite side floating bodies, the walking stage, and the rails constitute an integrated one module structure, and two or more module structures may be coupled to each other by a coupling structure to constitute one system.

In this case, the coupling structure may be one or more coupling structures selected from a group consisting of a coupling structure including a electromagnet, a coupling structure including a clasp and a ring, a coupling structure including a protrusion and a groove, and a coupling structure including a snap button.

In addition, the coupling structure may operate to decouple the module structures when an emergency occurs.

In one embodiment of the present disclosure, the floating bodies may be formed of a foamed resin material or a buoyancy member having a hollow portion to contain a gas, and a safe connector 13 is provided as an inner material inside the floating bodies, The floating bodies may include handle parts 12 and 12′ on one side, and the rails on the opposite sides may be formed of a mesh body or a porous plate body.

In addition, one of the floating bodies, the walking stage or the rails may be provided with a structural safety detection member to detect damage to the floating bodies, the rails, or the walking stage. A main controller may be connected to the structural safety detection member to determine the states of the floating bodies, the rails, or the walking stage. The main controller may include a safety check signal processing block connected to the structural safety detection member to receive a detection signal; an emergency notification signal processing block configured to transmit an emergency signal to an emergency lighting or speaker; an input/output signal processing block configured to process input/output signals; and a main control unit configured to control the safety check signal processing block, the emergency notification signal processing block, and the input/output signal processing block.

In another aspect of the present disclosure, provided herein is a method for controlling the water walking stage system (A) provided in the water walking stage system (A). The method includes the following steps.

1) a system operation preparation step S01 of installing a water walking stage system including the floating bodies, the walking stage, and the rails in water, and prepare a system operation by installing the structural safety detection member on one side of the water walking stage system and connecting the same to the main controller;

2) a sensor signal reception step S02 of operating the water walking stage system (A), and receiving a signal transmitted from the structural safety detection member via the safety check signal processing block;

3) a sensor signal determination step S03 of determining whether the signal transmitted from the structural safety detection member is a normal signal by determining the signal received from the safety check signal processing block;

4) an emergency signal transmission step S04 of, when the signal determined by the sensor signal determination step S03 is determined to be an emergency signal, transmitting the emergency signal to the emergency notification signal processing block to notify an emergency through the emergency lighting and the speaker.

Advantageous Effects

The present invention configured as described above may enable safe use of water play facilities such as the beach, riverside, and lakeside facilities.

In particular, a beach water play facility and a fresh water-based water play facility that can be used not only by adults but also by the disabled and young people may be provided.

Further, a safe and useful water play facility that allows users to enjoy water play in water on the shore or in river, as well as walking along the beach.

DESCRIPTION OF DRAWINGS

FIG. 1 is a schematic installation view illustrating a water walking stage system according to the present disclosure.

FIG. 2 is a perspective view of the water walking stage system according to the present disclosure.

FIGS. 3 and 4 are schematic plan views of the water walking stage system according to the present disclosure installed in place.

FIG. 5 is a cross-sectional view of a portion of the water walking stage system according to the present disclosure.

FIG. 6 is a side view illustrating a portion of rails configured in one module unit of the water walking stage system according to the present disclosure.

FIG. 7 is a cross-sectional view illustrating rails and a walking stage of the water walking stage system according to the present disclosure.

FIG. 8 is a cross-sectional view illustrating a hand part and a walking stage of the water walking stage system according to the present disclosure.

FIG. 9 is a plan view illustrating an embodiment of a square bracket shape of the water walking stage system according to the present disclosure.

FIG. 10 is a plan view illustrating an embodiment of a semi-elliptical shape of the water walking stage system according to the present disclosure.

FIG. 11 is a plan view illustrating an embodiment of a semicircular shape of the water walking stage system according to the present disclosure.

FIG. 12 is a plan view illustrating an embodiment of a rectangular shape of the water walking stage system according to the present disclosure.

FIG. 13 is a plan view illustrating an embodiment of an oval shape of the water walking stage system according to the present disclosure.

FIG. 14 is a plan view illustrating an embodiment of a circular shape of the water walking stage system according to the present disclosure.

FIG. 15 is a plan view illustrating a module unit of the water walking stage system according to the present disclosure.

FIG. 16 is a control block diagram of the water walking stage system according to the present disclosure.

FIG. 17 is a control flowchart of the water walking stage system according to the present disclosure.

BEST MODE

Hereinafter, preferred embodiments of the present disclosure will be described in detail with reference to the drawings. The terms or words used in the present specification and claims should not be construed as being limited to conventional or dictionary meanings, but should be interpreted as meanings and concepts consistent with the technical idea of the present disclosure.

Throughout this specification, stating that a member is disposed “on” another member includes not only a case where the member is in contact with the other member but also a case where another member is present between the two members. Throughout this specification, when a part “includes” a component, it means that the part may further include other components, rather than excluding the other components, unless otherwise stated.

Hereinafter, the present disclosure will be described in detail with reference to the accompanying drawings.

FIG. 1 is a schematic installation view illustrating a water walking stage system according to the present disclosure. FIG. 2 is a perspective view of the water walking stage system according to the present disclosure. FIGS. 3 and 4 are schematic plan views of the water walking stage system according to the present disclosure installed in place, which schematically illustrate the water walking stage system as a whole. FIG. 5 is a cross-sectional view of a portion of the water walking stage system according to the present disclosure.

FIG. 6 is a side view illustrating a portion of rails configured in one module unit of the water walking stage system according to the present disclosure, and FIGS. 7 and 8 are cross-sectional views showing rails and a portion of a walking stage.

FIG. 9 is a plan view illustrating an embodiment of a square bracket shape of the water walking stage system according to the present disclosure. FIG. 10 is a plan view illustrating an embodiment of a semi-elliptical shape of the water walking stage system according to the present disclosure. FIG. 11 is a plan view illustrating an embodiment of a semicircular shape of the water walking stage system according to the present disclosure. FIG. 12 is a plan view illustrating an embodiment of a rectangular shape of the water walking stage system according to the present disclosure. FIG. 13 is a plan view illustrating an embodiment of an oval shape of the water walking stage system according to the present disclosure. FIG. 14 is a plan view illustrating an embodiment of a circular shape of the water walking stage system according to the present disclosure. The figures show exemplary views of various types of the water walking stage system.

FIG. 15 is a plan view illustrating a module unit of the water walking stage system according to the present disclosure.

FIG. 16 is a control block diagram of the water walking stage system according to the present disclosure, and FIG. 17 is a control flowchart of the water walking stage system according to the present disclosure. The figures illustrate the operation related configuration of the water walking stage system.

As shown in FIGS. 1 to 17, a water walking stage system A according to the present disclosure includes opposite side floating bodies 10 and 10′ configured to float on a water surface 2, a walking stage 20 connected under the opposite side floating bodies 10 and 10′ to form a footrest, and rails 30 and 30′ arranged to connect both sides of the walking stage 20 to the opposite side floating bodies 10 and 10′.

Therefore, the water walking stage system A may be installed partially submerged in the water near the sea beach, riverside or lakeside. In addition, when an anchor is provided, the system can be installed away from the shore, and can be installed even in a calm lake. Accordingly, the walking stage 20 is supported by the floating bodies 10 and 10′ floating on the water surface and is thus positioned so as to be submerged under the water surface.

In addition, the water walking stage system A including the walking stage 20, the floating bodies 10 and 10′, and the rails 30 and 30′ is at least several meters on each side, and therefor can be installed as a compact facility on the riverside or lakeside. In addition, when the length of the system on each side is several tens of meters, the system may be installed on one side of a large lake, a large river, or the like, or may be installed on the shore of a small beach. Furthermore, when the system comes in a large size as to have a side length ranging from 100 m to several hundred meters, it may be installed on the shore of a large beach.

In particular, when the system comes in a large size and is installed on a large beach or the like, the walking stage 20, the floating bodies 10 and 10′ and the rails 30 and 30′ may be formed of a stronger material so as to better withstand the waves and support wheelchairs, electric wheelchairs, or carts as well as users. Also, a monitoring system may be configured and coastal facilities such as anchors may be installed for safety. Of course, for the safety of users, life-saving facilities and lifeguards may be deployed in various places, and a structure for providing safety related information may be installed as well.

Accordingly, the walking stage 20 is arranged to be submerged below the water surface at a depth of about 1 m. Any submerge depth is acceptable as long as the depth allows an adult to walk safely. In addition, when the system is designed for children, it may be installed at a shallower depth than a system for adults, and therefore the depth may be within about 50 cm.

The walking stage 20 may be formed in the shape of a fine net mesh or a rod-shaped assembly in which circular, oval or rectangular rods with a small gap are connected in a parallel. The walking stage 20 may allow water to freely pass through the gaps therein, and may thus be maintained in a stable shape.

In addition, the walking stage 20 may be formed as a plate body on the floor. When formed as a plate body in this way, the walking stage 20 submerged in water may allow users to easily walk on the upper surface thereof. Furthermore, a wheelchair, an electric wheelchair, or a cart may move on the plate-shaped walking stage 20. In this case, the wheelchairs, electric wheelchairs, carts, or the like are preferably configured to have corrosion resistance to seawater or moisture. Therefore, each plate body of the plate-shaped walking stage 20 will have a length of about 1 to 5 m and a width of about 20 cm to several meters on both sides. While the walking stage is illustrated as having a rectangular shape, embodiments are not limited thereto. It is natural that the stage can be configured in more diverse ways due to the variety of materials while being formed to have other lengths, widths, thicknesses, and structurally stable shapes. Also, regarding the shape, the stage may be formed not only in a rectangular shape but also in various other shapes, such as an arc shape, an elliptical arc shape, a triangular shape, a polygonal shape, and a shape that can be associated with various characters according to the installation stability and material.

In some cases, as shown in FIG. 15, the opposite side floating bodies 10 and 10′, the walking stage 20, and the rails 30 and 30′ may be integrated into one module unit M according to an assembly structure. In this case, the water walking stage system A may be configured in various shapes as described above, using the module units of various structures ((a), (b), (c), and (d)).

In this regard, the opposite side floating bodies 10 and 10′, the walking stage, and the rails may constitute one integrated module structure, and two or more module structures may be coupled to each other by a coupling structure to complete one system.

The coupling structure for coupling the above-mentioned two or more module structures to each other may be one or more coupling structures selected from a group consisting of a coupling structure including a electromagnet, a coupling structure including a clasp and a ring, a coupling structure including a protrusion and a groove, and a coupling structure including a snap button. The coupling structure for the module structures may be applied in a complex way to more stably maintain the coupling.

In some cases, the coupling structure according to the present embodiment may operate to decouple the module structures when an emergency occurs.

When the walking stage 20 is formed in the shape of a plate body, it may be formed as a single-layer plate body as shown in FIGS. 7 and 8, or may be formed in a plurality of layers as shown in FIG. 6. When the stage is formed in a single layer, individual plate bodies may be fixedly installed on multiple columns 31 of the rails 30 and 30′, and may be connected to each other by connecting means such as a rope or a wire. When the stage is formed in a plurality of layers, the plate body of an upper layer and the plate body of a lower layer may be arranged to be misaligned with each other and fixed to the individual columns 31. The plate bodies are misaligned such that the opposite side edges are fixed to the individual columns. The walking stage 20 may be formed as plate bodies according to various other embodiments, and is not limited by the above examples.

In addition, the floating bodies 10 and 10′ of the water walking stage system A according to the present disclosure may be formed of a foamed resin material or a buoyancy member having a hollow portion to contain a gas, as shown in FIGS. 2 to 8.

Therefore, the walking stage 20 and the rails 30 are maintained at a certain depth in the water by the buoyancy of the opposite side floating bodies 10 and 10′ so as not to sink in the water.

Accordingly, when the floating bodies 10 and 10′ includes a hollow portion to contain gas and a case, a moisture sensor w to detect moisture may be provided inside thereof. The moisture sensor w is configured to detect moisture when the case is damaged or cracked by an external force, and moisture infiltrates into the hollow portion. To configure the moisture sensor w, a general moisture sensor may be employed. That is, infiltration of moisture may be detected based on the electrical current and optical characteristics measured by the moisture sensor w in the event of absence of moisture and in the event of presence of moisture.

The floating bodies 10 and 10′ may be arranged to surround the entire water walking stage system A according to the present disclosure as shown in the figures and stably connected to prevent the structure of the entire water walking stage system A from being deformed.

To this end, a safe connector 13 is provided as an inner material inside the floating bodies 10 and 10′. The safe connector 13 may be configured as a reinforcing bar, a metal bar, an alloy bar, or the like. Alternatively, it may be configured as a wire in the form of a twisted pair made by twisting multiple metal wires. The safe connector 13 may be configured with multiple wires. In addition, as in FIG. 2, the safe connector 13 may be fixed to a fixing rod 4 installed on the ground 3. Therefore, the water walking stage system A of the present disclosure fixed to the fixing rod 4 in addition to the anchor may remain stable even in the event of waves, high tide, low tide, and the like.

Also, as shown in FIGS. 2 and 4, the cross-section of the floating body 10 and 10′ may be formed in a circular shape, a rectangular shape, an oval shape, or a polygonal shape of a uniform thickness over the entire length of the safe connector 13. Also, as shown in FIG. 3, the floating bodies may be formed by connecting multiple individual bodies formed to surround the safe connector 13 by forming small-sized outer bodies. In particular, when the floating bodies include multiple individual bodies surrounding the safe connector 13, they may be configured to be easily separated from and coupled to each other. Thus, the walking stage 20 and the rails 30 and 30′ as well as the floating bodies 10 and 10′ are configured to be detachable, the water walking stage system A according to the present disclosure may be installed on the water surface when it is needed, and may be disassembled and stored when it is not in use. Thereby, convenience in use may be ensured.

Furthermore, when the water walking stage system A is formed in a rectangular shape, a triangular shape, or a polygonal shape as a whole as shown in FIG. 3, the floating bodies 10 and 10′, the walking stage 20, and the rails 30 and 30′ may be configured as individual members. In this case, the system may be assembled to install the individual members, and may be disassembled to store and move the individual members. Thereby, convenience in use may be provided.

In addition, as shown in FIGS. 5, 7 and 8, the floating bodies 10 and 10′ may include handle parts 12 and 12′ on one side. Accordingly, the user may easily walk in water, holding the handle parts 12 and 12′. Thus, the user's head, upper body, arms, and the like are positioned above the water surface 2, and the lower body, legs, and the like are positioned in water. Accordingly, the users may be allowed to walk on the walking stage 20 positioned in water, while holding the handle parts 12 and 12′ on the water surface.

In addition, the rails 30 and 30′ on the opposite sides may be formed of a mesh body or a porous plate body. The mesh body or porous body may be configured to allow water to easily flow therethrough by waves, high tides, low tides, or river flows.

The rails 30 and 30′ are provided with multiple columns 31. The walking stage 20 is supported on the opposite side floating bodies 10 and 10′ by the multiple columns 31. In addition, by connecting an offshore installation such as an anchor to the floating bodies 10 and 10′ by the columns 31 of the rail 30 and 30′, the entire structure of the water walking stage system A is stably maintained by the fixing force according to the connection.

When the water walking stage system A becomes heavy due to the loads of the floating bodies 10 and 10′, the walking stage 20 and the rails 30 and 30′, buoyant members may be added and installed at corresponding places. The buoyant members may be formed by a foam member such as polystyrene, or may be formed as a kind of tube in which air or other gases may be contained.

Furthermore, in the water walking stage system A according to the present disclosure, a safety zone 15 for safety personnel may be installed at multiple places as shown in FIG. 4. The safety zone 15 may be fixed to the floating bodies 10 and 10′, and may be configured as a foam member or a tube.

The water walking stage system A according to the present disclosure configured as described above may be formed in various shapes as shown in FIGS. 9 to 14.

That is, as shown in FIGS. 9 to 11, the system may be formed in a polygonal shape such as a rectangle, a semi-elliptical shape, and a semi-circular shape. Alternatively, the system may be formed in a closed polygonal shape such as a closed rectangle, a closed elliptical shape, or a closed circular shape, as in FIGS. 12 to 14. In this way, the system may be performed in various shapes.

Accordingly, when the system is formed in a shape open to one side as shown in FIGS. 9 to 11, an entrance through which a user can enter and exit may be formed on the open side of the system. When the system is formed in a closed shape as shown in FIGS. 12 to 14, an entrance 16 may be formed on one side.

The water walking stage system A according to the present disclosure may be fixedly installed on the shore, riverside, or the like. In this case, the entrance is configured to be in contact with the ground 3, and the other parts are disposed on the water surface or in water. As described above, when the user walks along the walking stage 20 while holding the handle parts 12 and 12′, the user's body is gradually submerged in the water.

In addition, once users complete boarding the water walking stage system A, the system may be safely lifted and moved and fixed at a location several meters, tens of meters, or hundreds of meters away from the shore, such that the users can enjoy underwater activities at sea.

To this end, a connection part (not shown) for lifting may be installed on one side of the water walking stage system A. A propulsion part 22 may be installed on the opposite sides of the system as shown in FIG. 12 and may be operated by a main controller 40 formed on one side.

In addition, the water walking stage system A according to the present disclosure configured as described above may be provided with a level area 25 formed inside thereof, as shown in FIGS. 4 and 5. In the level area 25, the user may be allowed to swim and play in water.

Also, the level area 25 is provided with a level plate 254 at the bottom thereof. Thus, even when the water walking stage system A according to the present disclosure is installed in a deep place where it is difficult for the user to safely swim, the user can swim safely in water about the level plate 254. The level area 25 may include a first level area 251 for adults where the depth is about 1 m, and a second level area 252 for children where the depth is about 50 cm.

In addition, a buoyant member 253 may be further configured on one side of the level plate 254 in order to support the load of many users. The buoyant member 253 may be formed of a foam material, and may be formed in the form of a tube containing gas. Furthermore, in response to a change in the total load according to a change in the number of users, gas may be supplied to or removed from a buoyant member containing the gas at a corresponding place among the buoyant members 253 supporting the level plate 254 or the buoyant members supporting the walking stage 20 under the control of the main controller 40, such that the depth of the walking stage 20 and the level plate 254 remains constant. To this end, an air supply pump, an air compression tank, an air supply pipe, and a sensor may be further provided.

In some cases, as shown in FIGS. 6 to 8, the rails 30 and 30′ may include a variable structure whose length is changed in the vertical direction to change the depth at which the walking stage 20 under the rails is submerged in water.

Specifically, as shown in FIG. 6, the rail 30, 30′ constituting one module unit may include a first connector 30s, a second connector 30e, and an additional connector 30i.

The first connector 30s according to this embodiment is an element to connect one side of the walking stage 20 to one side of the floating body, and has a variable structure capable of changing the connection length.

The second connector 30e is an element to connect the opposite side of the walking stage 20 to the opposite side of the floating body, and has a variable structure capable of changing the connection length.

The additional connector 30i is disposed between the first connector and the second connector. The additional connector connects the walking stage 20 to the floating bodies 10 and 10′, and has a variable structure capable of changing the connection length.

By changing the connection lengths of the first connector 30s, the second connector 30e, and the additional connector 30i of the rails 30 and 30′ configured as above, one module unit and an adjacent module unit may implement a horizontally leveled walking stage, an inclined walking stage, or a walking stage having a curved surface.

By using this function, the structure may be appropriately changed for children, the elderly and the disabled, and various structures may be configured in a complex manner and used for leisure.

The above-mentioned main controller 40 may be provided for a safe state and emergency operation of the water walking stage system A according to the present disclosure.

As shown in FIG. 15, the main controller 40 may include a safety check signal processing block 42, an emergency notification signal processing block 43, an input/output signal processing block 44, and a main control unit 41 to control the members of the water walking stage system A.

That is, a structural safety detection member 50 may be installed on any one or more of the floating bodies 10 and 10′, the rails 30 and 30′, or the walking stage 20 to detect damages to the floating bodies 10 and 10′, the rails 30 and 30′, or the walking stage 20. The main controller 40 may be connected to the structural safety detection member 50 to determine the state of the floating bodies 10 and 10′, the rails 30 and 30′, or the walking stage 20 and perform an operation.

The structural safety detection member 50 may include a safety loop line 51 formed as a continuous line along the floating bodies 10 and 10′, the rails 30 and 30′, and the walking stage 20 in a shape to be continuously enclosed.

The safety loop line 51 may be configured as a loop sensor to enable ultrasonic transmission/reception or transmission/reception of optical signals. The transmission/reception by the loop sensor may be configured by the transmission/reception scheme for a general loop sensor. That is, when signal transmitters (not shown) on opposite sides of the safety loop line 51 each transmit a signal, and the signal is normally received by the counterparts, the line is in a normal state without damage. However, the outgoing signal is not received on the opposite side, the state is abnormal, and the main controller 40 determines the state as an abnormal state. In this case, the signal transmitters on the opposite sides receive the signal transmitted by themselves again. Then, the position of the cut part is determined by analyzing the received ultrasonic or optical signal.

In addition, point sensors d may be connected to the safety loop line 51 at intervals of tens of centimeters, several meters or several tens of meters. Therefore, when the outgoing signal is not received on the opposite side, the cut position is determined by detecting the point sensor d and identifying the position of the point sensor d detected on both sides.

Furthermore, the structural safety detection member 50 may include a moisture detection sensor w configured in the hollow portion of the floating bodies 10 and 10′ as shown in FIG. 8. The point sensor d and the safety loop line 51 may be configured to determine whether the floating bodies 10 and 10′, the walking stage 20 or the rails 30 and 30′ are damaged. In addition, the moisture sensor w determines whether there is moisture infiltrating into the floating bodies 10 and 10′ when the floating bodies 10 and 10′ is cracked or broken and the outer bodies of the floating bodies are damaged. The moisture sensor is configured to pre-determine whether the floating bodies 10 and 10′ are damaged while the safe connector 13, which firmly connects the entire structures, is not damaged.

In some cases, the safety connector 13 may be connected to the fixing rod by a variable wire that has a variable length or is separable.

In addition, an emergency button s for notifying an emergency signal may be installed at multiple places such as the handle parts 12 and 12′, the floating bodies 10 and 10′, or the safety zone 15 and the level area 25. Therefore, in the event of an emergency in which a person needs an urgent medical care, an accident occurs in water, or damage to the water walking stage system A is found while users are walking on the walking stage 20 or swimming and playing in the water in the level area 25, users can report the emergency situation by pressing the emergency button s.

As such, the structural safety detection member 50 such as the safety loop line 51, the point sensor d, the moisture detection sensor w, or the emergency button s may be configured on a single line, on may be individually configured on multiple lines. It may be separately installed on the opposite side floating bodies 10 and 10′, or may be installed on individual lines on the opposite sides of the walking stage 20. In addition, each member may be configured on an individual line.

A signal from the structural safety detection member 50 is transmitted via the safety check signal processing block 42 of the main controller 40. Accordingly, the main controller 40 may determine whether the emergency state is present by determining the signal transmitted from the safety check signal processing block 42, which is connected to the structural safety detection member 50 to receive a detection signal.

Accordingly, in the case of a normal signal, the controller waits for the next signal. However, when damage to the floating bodies 10 and 10′, the walking stage 20, or the rails 30 and 30′is detected, and thus it is determined that the state is emergency, an emergency signal is transmitted to the emergency lighting 52 or the speaker 53 through the emergency notification signal processing block 43.

In addition, the input/output signal processing block 44 for processing the input/output signal transmits the emergency signal for an emergency state to an external organization connected by an input/output terminal 441. The external organization may include a management office that manages coastal facilities, and a rescue team, the police station, a hospital, and a fire station that prepare for a water play-related accident in the water walking stage system A and on the shore.

The water walking stage system A according to the present disclosure configured as described above may be controlled according to the following steps.

1) First, a system operation preparation step S01 is performed. In the step, a water walking stage system including the floating bodies 10 and 10′, the walking stage 20, and the rails 30 and 30′ is installed in water, and the structural safety detection member 50 is installed on one side of the water walking stage system and connected to the main controller 40 to prepare the system operation. The water walking stage system A may optionally include the level area 25, the safety zone 15, the emergency lighting 52, the speaker 53, the propulsion part 22, and an air supply device. Also, it may include a search light block 45 configured to operate the search light 54 for illuminating a night facility.

In the system operation preparation step S01, initial values for the normal state of the individual sensors connected to the floating bodies 10 and 10′, the walking stage 20, the rails 30 and 30′, and other installed members are received as input and stored in a memory unit 401. Based on this initial setting data, it is determined whether there is an emergency. That is, for the safety loop line 51 of the structural safety detection member 50, whether the signals transmitted from the signal transmitters on the opposite sides are normally received by the counterparts is related to the initial setting state. Also, for the point sensor d, whether response signals are normally received from the individual sensors is related to the initial setting state. Also, for the moisture sensor w, a value measured in the absence of moisture is the initial setting data, or a measured value according to moisture is related to the initial setting data. In this regard, in the case of the sea, the measured value is based on seawater. In the case of fresh water such as a river or lake, the measured value for the water in the corresponding region is the initial setting data.

Furthermore, in the case of the emergency button s, an emergency signal is received by a pressing operation, and accordingly an initial set value is et by a non-pressed state. The other members are also installed and the states thereof before use are set as initial values. These initial setting data are stored in the memory unit 401.

2) Thus, the water walking stage system A is operated, and a sensor signal reception step S02 of receiving a signal transmitted from the structural safety detection member 50 via the safety check signal processing block 42 is performed.

3) Then, a sensor signal determination step S03 of determining whether the signal transmitted from the structural safety detection member 50 is a normal signal by determining the signal received from the safety check signal processing block 42 is performed. Thereby, it is determined whether the water walking stage system A operates normally.

4) Then, when the signal determined by the sensor signal determination step S03 is determined to be an emergency signal, an emergency signal transmission step S04 of transmitting the emergency signal to the emergency notification signal processing block 43 to notify an emergency through the emergency lighting 52 and the speaker 53 is performed. Therefore, users can safely prepare for the emergency through the emergency lighting 52 and the speaker 53, and rescue workers may appropriately cope with the emergency.

Furthermore, in this emergency state, an emergency signal is transmitted to an external organization such as a police station, a fire station, and a hospital, and a facility management office that are connected to the input/output terminal 441 under control of the main controller 40 to appropriately cope with the emergency.

Specific embodiments of the present disclosure have been described above. It is to be understood that the present disclosure is not to be limited to the specific embodiments thereof described above and that all modifications, equivalents, and alternatives falling within the spirit and scope of the present disclosure as defined by the appended claims are intended to be embraced therein.

That is, the present disclosure is not limited to the above-described specific embodiments. It will be apparent to those skilled in the art that various modifications and variations can be made in the present disclosure without departing from the spirit and scope of the disclosure. Thus, it is intended that the present disclosure cover the modifications and variations of this disclosure provided they come within the scope of the appended claims and their equivalents.

MODE FOR INVENTION

Modes for carrying out the invention have been described in the best mode.

INDUSTRIAL APPLICABILITY

The present disclosure relates to a water walking stage system, and has industrial applicability because it may ensure safe use of water play facilities on the seashore, riverside, lakeside, or the like.

WATER WALKING STAGE SYSTEM

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