The present application is a National Phase entry of International Application No. PCT/JP2013/067511, filed Jun. 26, 2013, which claims priority of Japanese Application No. 2012-144769, filed Jun. 27, 2012.
The present invention relates to a vessel such as a passenger vessel, a ferry, a RO-RO ship (Roll-on/Roll-off Ship), a PCC (Pure Car carrier) and a PCTC (Pure Car/Truck Carrier) as an automobile carrier.
For example, in a conventional passenger vessel, in general, a compartment having multilayered decks is provided in a hull, and a ramp way configured to connect between the decks each layer is provided in each compartment. In this case, residence compartments are formed in an upper layer of the hull, and vehicle compartments are formed in a lower layer, and a driver drives a car to enter the deck in the vessel from a quay wall via a shore ramp way, and moves the car to the deck of the lower layer via the ramp way to park at a specified position.
In addition, in such a passenger vessel, apart from the residence compartments and the vehicle compartments, a plurality of rooms such as an engine room and a shaft room are divided in the vessel. In this case, as international rules for vessels, the requirements of damage stability are defined and are also reflected in the Japanese domestic law. In the rules, as requirements of the vessel side damage, securement of residual restoring force after damage, and a hull inclination angle and the like are defined.
In addition, there is a compartment structure of the conventional vessel as described in Patent Literature 1 below. In an automobile carrier described in Patent Literature 1, a watertight deck of a lowest layer forming a void space in a bottom of the vessel is provided with a remotely openable seawater introducing means. Thus, when a vessel side outer plate of the vessel or the like is damaged and seawater enters the vessel, by opening the seawater introducing means provided in the watertight deck of the lowest layer, the seawater entered the vessel is introduced into the void space, the void space is allowed to function as a seawater ballast tank, and thus, it is possible to recover the restoring force of the vessel.
Patent Literature 1: Japanese Laid-open Patent Publication No. 2008-201308Summary
In the international rules of the above-described conventional vessel, as the vessel side damage, damage assumption length, width, and height at the time of damage are determined by the number of passengers, a length, a width, and a draft of the vessel, and the vessel side damage becomes a damage requirement of two compartments across the bulkhead, when a compartment (for example, an engine room, an auxiliary machinery room, a shaft room or the like) in which an flooding volume becomes large at the time of damage is damaged. For that reason, the flooding volume at the time of damage of the vessel becomes excessive, and GoM (transverse metacentric height) as an item of restoration performance of regulatory requirements becomes larger. In this case, since there are restrictions on a vessel form design, restrictions on a superstructure, and restrictions on compartment arrangement, a degree of freedom of arrangement is limited.
The present invention has been made to solve the above-described problems, and an object thereof is to provide a vessel that is capable of suppressing entry of water into the plurality of rooms in case of damage.
According to an aspect of the present invention, a vessel includes: a hull that includes side walls of a port side and a starboard side, a bottom, and a plurality of decks including a freeboard deck; a bulkhead that is provided inside the hull to divide interior of the hull into a plurality of rooms in a longitudinal direction of the hull; and a flood control watertight compartment that is disposed inside at least one of the plurality of rooms, divides a space from a deck below the freeboard deck or the bottom to the freeboard deck, and is in contact with the side walls and the bulkhead.
With this structure, even if the vicinity of the bulkhead on the side wall is damaged, since flooding is stopped at the flood control watertight compartment, the possibility of flooding across the plurality of rooms is reduced, and it is possible to suppress flooding to the plurality of rooms in case of damage. Furthermore, the vessel may suppress the size reduction of the plurality of rooms that is performed to reduce the flooding volume during flooding, thereby relieving the compartment restriction on the layout design to expand the degree of freedom of design.
Advantageously, in the vessel, the flood control watertight compartment has a left flood control watertight compartment that is in contact with the side wall of the port side and the bulkhead, and a right flood control watertight compartment that is in contact with the side wall of the starboard side and the bulkhead.
With this structure, since the flood control watertight compartments are each provided on both right and left sides of the hull, it is possible to improve the flood control performance. Further, by inducing the water flooded to the flood control watertight compartment that is not damaged, it is possible to suppress the influence of flooding.
Advantageously, in the vessel, the flood control watertight compartment is each provided between the bulkhead and the side wall of the port side, and between the bulkhead and the side wall of the starboard side.
With this structure, by sharing the flood control watertight compartments by the front and back rooms in the longitudinal direction of the hull divided by the bulkhead, it is possible to achieve the simplification and the cost reduction of the structure.
Advantageously, in the vessel, the flood control watertight compartment is each provided on each room side that is disposed back and forth in the longitudinal direction of the hull with the bulkhead interposed therebetween.
With this structure, by providing the flood control watertight compartments front and back of the bulkhead in the longitudinal direction of the hull, it is possible to further improve the flood control performance.
Advantageously, in the vessel, the flood control watertight compartment has a smaller volume compared to the plurality of rooms, and a dimension in a lateral direction of the hull, which extends to the inside of the hull from the side wall of the port side or the side wall of the starboard side, is greater than one-tenth of a width of the hull at a load water line.
With this structure, the dimension of the flood control watertight compartment can be set to be greater than the magnitude of the assumed damage, and it is possible to sufficiently secure the flood control performance by the flood control watertight compartment.
Advantageously, in the vessel, the hull is provided with a longitudinal bulkhead along the side walls of the port side and the starboard side, on the inner side of each of the side walls of the port side and the starboard side on a bow side, and the flood control watertight compartment is provided on each the side walls of the port side and the starboard side that have no longitudinal bulkhead on the inner side of the hull.
With this structure, a space of a stern side with no longitudinal bulkhead is secured. Furthermore, even on the stern side with no longitudinal bulkhead, the vessel is able to sufficiently secure the flood control performance by the flood control watertight compartment.
Advantageously, in the vessel, the flood control watertight compartment is raised to be higher than the freeboard deck.
When the flood control watertight compartment is flooded and the height of the flooded water reaches the height of a freeboard deck, there is a possibility that the top of the freeboard deck is flooded, and flooding expands to other compartments to reduce stability of the hull. With the above-described structure, since the upper surface of the flood control watertight compartment is raised to be higher than the freeboard deck, the flooded water is prevented from reaching the freeboard deck by the side wall of the inboard side of the flood control watertight compartment, and it is possible to suppress the possibility of a decrease in stability of the hull.
Advantageously, in the vessel, a duct is disposed above the flood control watertight compartment.
With this structure, even if the flood control watertight compartment is provided, it is possible to secure a mounting amount of the freeboard deck.
Advantageously, in the vessel, the flood control watertight compartment has a smaller volume compared to the plurality of rooms, and a dimension of the flood control watertight compartment in the longitudinal direction of the hull is set to be greater than a larger length obtained by comparing 3/100 of the longer length with 3 m when comparing a total length of the deck that limits a flooding range in a height direction, or a length between a front end and a rear end of a projected length of the hull below a load water line.
With this structure, the dimension of the flood control watertight compartment may be set to be greater than the magnitude of the assumed damage, it is possible to sufficiently secure the flood control performance by the flood control watertight compartment. In addition, the deck configured to limit the flooding range in the height direction means any lower deck between the lowest deck (the deck of the top layer when there is no deck that exceeds the height) and the deck as the upper limit of the range that can enter the reserve buoyancy, in the decks that exceed the height obtained by adding 12.5 m to the draft of the load water line.
Advantageously, in the vessel, a valve is provided in a pipe that injects liquid to the flood control watertight compartment, and the valve is disposed outside the flood control watertight compartment.
With this structure, the valve is less likely to be damaged. Therefore, the vessel is able to reduce the possibility that flooding expands to other compartments through the damaged pipe, by closing the valve.
According to the vessel of the present invention, it is possible to suppress flooding into the plurality of rooms in case of damage.
Aspects (embodiments) for carrying out the present invention will now be described in detail with reference to the drawings. The present invention is not limited by the contents to be described in the following embodiments. In addition, the components to be described below include those capable of being easily assumed by those skilled in the art, and those that are substantially the same. Furthermore, the components to be described below can be combined as appropriate.
A vessel 1 illustrated in
In a bow side starboard of the hull 10, a retractable bow broadside ramp way 61 for allowing roll-on or roll-off of the vehicle is provided, and in a stern side starboard, a retractable stern ramp way 62 of the stern side is provided. Moreover, a freeboard deck 13 is a boarding deck that is provided with the stern ramp way 62 of the stern side or the bow broadside ramp way 61. A lower space is formed below the freeboard deck 13, and a main engine room (engine room) 42, in which a propulsion engine is disposed, is provided on the stern side of the lower space. In the hull 10, multilayered-decks 12, 14, 15, 16, and 17 are provided above and below the freeboard deck 13. A deck 11 is a double bottom upper deck as a double bottom between the freeboard deck 13 and the bottom 10B. Hereinafter, the deck 11 will be referred to as the double bottom upper deck 11.
Furthermore, between the freeboard deck 13 and the deck 14, at least one inboard ramp 64 or 65 is provided through which a large vehicle also passes. At least one inboard ramp may be provided between the deck 14 and the deck 15. Moreover, as illustrated in
Between the deck 12 and the freeboard deck 13, at least one inboard ramp 63 is provided through which the vehicle can pass. The vehicle-mounting compartment is also formed on the deck 12 below the freeboard deck 13, and longitudinal bulkheads 21a and 21b are provided on the bow side of the hull 10 so as to surround the vehicle-mounting compartment on the deck 12.
Between the side wall 20a of the port side and the longitudinal bulkhead 21a, and between the side wall 20b of the starboard side and the longitudinal bulkhead 21b, multiple watertight compartments 51a, 52a, 53a, 54a, 55a, 56a, 57a, 51b, 52b, 53b, 54b, 55b, 56b, and 57b are formed. The multiple watertight compartments 51a, 52a, 53a, 54a, 55a, 56a, 57a, 51b, 52b, 53b, 54b, 55b, 56b, and 57b can be used as a void space, a fuel tank, a ballast tank, an engine room, a warehouse or a cargo.
As a residence area, decks 15, 16 and 17 are provided, and a plurality of residence compartments are formed. In this case, in order to avoid noise from the propulsion engine, the residence compartments are formed on the bow side directly above the room 42 (main engine room) as an installation position of the propulsion engine. Moreover, the stern side of the residence compartment (above the deck 15) is used as a promenade space.
Furthermore, the hull 10 has left and right side walls 20a and 20b, and a bottom 10B, and a plurality of rooms 41, 42, and 43 are provided in the space between the freeboard deck 13 and the bottom 10B, and in a space behind the disposition position of the deck 12. The room 41 is generator room. The room 42 is the main engine room. The room 43 is a shaft room. The space surrounded by the double bottom upper deck 11, the bottom 10B, and the left and right side walls 20a and 20b is available as a void space, a fuel tank, a ballast tank or an empty space. For example, as illustrated in
As illustrated in
Moreover, the hull 10 is provided with left flood control watertight compartments 31a and 32a that are in contact with the side wall 20a of the port side and the bulkhead 23, and right flood control watertight compartments 31b and 32b that are in contact with the side wall 20b of the starboard side and the bulkhead 23. In addition, the hull 10 is provided with a left flood control watertight compartment 33a that is in contact with the side wall 20a of the port side and the bulkhead 24, and a right flood control watertight compartment 33b that is in contact with the side wall 20b of the starboard side and the bulkhead 24. In addition, the hull 10 is provided with a left flood control watertight compartment 34a that is in contact with the side wall 20a of the port side and the bulkhead 24, and a right flood control watertight compartment 34b that is in contact with the side wall 20b of the starboard side and the bulkhead 24. The flood control watertight compartments 31a, 32a, 33a, and 34a and the flood control watertight compartments 31b, 32b, 33b, and 34b are symmetrically disposed in the port and the starboard (linear-symmetrical arrangement in the widthwise direction of the hull 10 to the center CL illustrated in
Similarly, the flood control watertight compartments 33a and 33b illustrated in
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartments 31a and 32a are flooded, but it is possible to suppress flooding to the room 42 (main engine room) and the room 41 (generator room). In addition, since the flood control watertight compartments 31a and 32a smaller than the room 42 (main engine room) and the room 41 (generator room) are flooded, it is possible to suppress flooding to the room 42 (main engine room) and the room 41 (generator room). In addition, when the flood control watertight compartments 31a and 32a (31b and 32b) are used as a liquid tank, such as a freshwater tank, a ballast tank, and a fuel tank, the valve 45 of each liquid tank is provided outside the flood control watertight compartments 31a and 32a (31b and 32b). The valve 45 is provided in the pipe that injects liquid to the flood control watertight compartments 31a and 32a (31b and 32b). Moreover, for example, even if the vicinity of the bulkhead 23 in the side wall 20a of the port side is damaged and the flood control watertight compartments 31a and 32a are damaged and flooded, the valve 45 is less likely to be damaged. Consequently, by closing the valve 45, it is possible to reduce the possibility that flooding expands to another compartment through the damaged pipe. In addition, the valve 45 may be a valve that is able to remotely control opening and closing by a control unit 2 to be described below.
As described above, the vessel 1 is equipped with the hull 10 that has the left and right side walls 20a and 20b, the bottom 10B, and the plurality of decks including the freeboard deck 13; the plurality of rooms 41 and 42 divided back and forth in the longitudinal direction of the hull 10 by the bulkhead 23 inside the hull 10; and the flood control watertight compartments 31a, 31b, 32a, and 32b that are disposed inside the plurality of rooms 41 and 42, divide a space from the bottom 10B to the freeboard deck 13, and are in contact with the side wall 20a or the side wall 20b and the bulkhead 23. Moreover, the flood control watertight compartments 32a and 32b are disposed inside the room 42. The flood control watertight compartments 31a and 31b are disposed inside the room 41.
As a result, even if the vicinity of the bulkhead 23 in the side walls 20a and 20b is damaged, since the flood control watertight compartments 31a, 31b, 32a, and 32b are flooded, it is possible to suppress flooding to the room (main engine room) 42 and the room 41 (generator room) as the front and back rooms in the longitudinal direction of the hull 10. Moreover, the vessel 1 is able to suppress the size reduction of the plurality of rooms 41 and 42 that is performed to reduce the flooding volume when being flooded, thereby relieving the compartment constraints on the layout design and expanding the degree of freedom in design.
In addition, in the vessel 1 of the first embodiment, as the flood control watertight compartment, the left flood control watertight compartments 31a and 32a coming into contact with the side wall 20a of the port side and the bulkhead 23, and the right, flood control watertight compartments 31b and 32b coming into contact with the side wall 20b of the starboard side and the bulkhead 23 are provided. Thus, since the flood control watertight compartments 31a, 31b, 32a, and 32b are each provided on both left and right sides of the hull 10, it is possible to improve the flood control performance.
In addition, in the vessel 1 of the first embodiment, the flood control watertight compartment. 31a, 31b, 32a, and 32b have a smaller volume compared to the room 42 (main engine room) and the room 41 (generator room) as the plurality of rooms. Furthermore, the dimension D in a direction intersecting the longitudinal direction of the hull 10 is greater than the virtual line BL that is one-tenth of the width 13 of the hull 10 on the load water line WL. As a result, it is possible to secure the sufficient flood control performance by the flood control watertight compartment.
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartments 31a and 32a are flooded, and when the height of the flooded water reaches the height of the freeboard deck 13, the stability of the hull 10 is likely to decrease. Since the upper surface 13a of the flood control watertight compartments 31a and 32a (31b and 32b) according to the first modified example is raised to be higher than the freeboard deck 13, it is possible to suppress the expansion of flooding to the upper part of the freeboard deck 13 from the flood control watertight compartments 31a and 32a (31b and 32b) and to increase the stability of the hull 10.
As described above, if each of the flood control watertight compartments 31a, 31b, 32a, and 32b is disposed so as to be disposed at a position that overlaps the duct 90, in which the pipes 91 and 92 extending to the upper part of the freeboard deck 13 from the room 42 (the main engine room) and the room 41 (generator room) are bundled, in the height direction, even if the upper surface 13a of the flood control watertight compartments 31a and 32a (31b and 32b) is raised to be higher than the freeboard deck 13, it is possible to suppress the influence on the mounting amount of cargo to be mounted to the freeboard deck 13.
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartments 31a and 32a are flooded, but it is possible to suppress flooding to the room 42 (main engine room) and the room 41 (generator room). Furthermore, by opening the watertight sliding door 87, it is possible to allow the water flooded to the flood control watertight compartments 31a and 32a (31b and 32b) to enter the adjacent void space, thereby lowering the center of gravity of the hull 10. In addition, by opening the watertight sliding door 87, for example, the water flooded to the flood control watertight compartments 31a and 32a is flooded to the undamaged flood control watertight compartments 31b and 32b of the opposite side of the vessel, and the vessel 1 is able to suppress the inclination of the hull 10 due to the influence of flooding.
The seawater inlet port 83A is a hole that is opened to a branch pipe 83a of the seawater guide pipe 83 inside the flood control watertight compartments 31a, 32a, 31b, and 32b. The seawater guide pipe 83 allows the void space 81, and each of the flood control watertight compartments 31a, 32a, 31b, and 32b to communicate with each other. Moreover, the seawater guide pipe 83 is provided with a switching valve 84 that closes the seawater inlet port 83A of the branch pipe 83a inside the flood control watertight compartments 31a, 32a, 31b, and 32b, and the valve 84 is usually in a closed state. For example, the control unit 2 is mounted on the hull 10, and the control unit 2 is able to open and close the switching valve 84 by remote control.
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartments 31a and 32a are flooded, but it is possible to suppress flooding to the room 42 (main engine room) and the room 41 (generator room). Furthermore, by opening the switching valve 84 by remote control, for example, the control unit 2 is able to allow the water flooded to the flood control watertight compartments 31a and 32a (31b and 32b) to enter the adjacent void spaces 81, thereby lowering the center of gravity of the hull 10. Moreover, by opening the switching valve 84, for example, water flooded to the flood control watertight compartments 31a and 32a is flooded to the undamaged flood control watertight compartments 31b and 32b on the opposite side of the vessel, and thus, the vessel 1 is able to suppress the inclination of the hull 10 due to the influence of flooding.
The switching valve 84 may be a check valve. In addition, a seawater inlet port 83B at the upper end is positioned above the upper surface of the freeboard deck 13 to pass through one of the flood control watertight compartments 31a, 32a, 31b, and 32b, and the seawater guide pipe 83 allows the space above the freeboard deck 13 to communicate with the void space 81. Thus, the seawater guide pipe 83 is able to cause the water, which damages the side wall 20a of the port side (side wall 20b of the starboard side) and is flooded to the upper surface of the freeboard deck 13, to flow into the void space 81, and it is possible to suppress the inclination of the hull 10 due to the influence of flooding. Thus, the seawater guide pipe 83 causes the flooded water on the upper surface of the freeboard deck 13 to flow into the void space 81. For this reason, the hull 10 may lower the center of gravity and suppress the inclination of the hull 10 due to the influence of flooding.
The flood control watertight compartments 31a and 32a (31b and 32b) according to the second embodiment has the room 42 (main engine room), the room 41 (generator room), and a watertight sliding door 85 that connects each of the flood control watertight compartments 31a and 32a (31h and 32b). The watertight sliding door 85 may be a valve that is able to remotely control the opening and closing by a watertight hatch or the above-described control unit 2.
The flood control watertight compartments 31a and 32a (31b and 32b) according to the second embodiment allow entry and exit to and from the interior of the flood control watertight compartments 31a and 32a (31b and 32b), by opening and closing the watertight sliding door 85. For this reason, the flood control watertight compartments 31a and 32a (31b and 32b) can be utilized as a warehouse, a device room configured to store a roll suppression (fin and stabilizer) device, an air conditioner, and a waste processing device, and a workshop configured to store a machine tool.
The hull 10 illustrated in
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartment 32a is flooded, but it is possible to suppress flooding to the room 42 (main engine room). In addition, since the flood control watertight compartment 32a smaller than the room 42 (main engine room) is flooded, the amount of flood to the room 42 (main engine room) is reduced. In addition, when the flood control watertight compartment 32a (32b) is used as a liquid tank, such as a freshwater tank, a ballast tank, and a fuel tank, the valve 45 of each liquid tank is provided outside the flood control watertight compartment 32a (32b). The valve 45 is provided in the pipe that injects liquid to the flood control watertight compartment 32a (32b). Moreover, for example, even if the vicinity of the bulkhead 23 in the side wall 20a of the port side is damaged and the flood control watertight compartment 32a is damaged and flooded, the valve 45 is less likely to be damaged. Consequently, by closing the valve 45, it is possible to reduce the possibility that flooding expands to another compartment through the damaged pipe.
The flood control watertight compartments 30a and 30b have a smaller volume compared to one of the room 42 (main engine room) and the room. 41 (generator room). The dimensions extending to the inside of the hull 10 in the lateral direction from the left and right side walls 20a and 20b of the flood control watertight compartments 30a and 30b are greater than one-tenth of the width B of the hull 10 on the load water line WL. Furthermore, the length (dimension) of the flood control watertight compartment 30a (30b) toward the bow direction from the stern is set to be greater than the larger length obtained by comparing 3/100 of the larger length with 3 m when comparing the total length of the deck that limits the flooding range in the height direction, or the length between the front end and the rear end of the projected length of the hull 10 below the load water line WL. In this embodiment, the deck that limits the flooding range in the height direction means, in the decks that exceed the height obtained by adding 12.5 m to the draft of the load water line WL, any lower one of the lowest deck (the deck of the top layer when there is no deck that exceeds the height) and the deck as the upper limit of the range that can enter the reserve buoyancy. Thus, the dimension of the flood control watertight compartments 30a and 30b can also be set to be greater than the magnitude of the assumed damage that is defined in Article 44 of vessel compartment regulations. As a result, it is possible to secure the sufficient flood control performance by the flood control watertight compartment 30a (30b).
When the side wall 20a of the port side located in the vicinity of the bulkhead 23 is damaged from the outside of the hull 10, the flood control watertight compartment 30a is flooded, but it is possible to reduce the possibility that the room 42 (main engine room) or the room 41 (generator room) is flooded. In addition, since the flood control watertight compartment 32a smaller than one of the room 42 (main engine room) and the room. 41 (generator room) is flooded, the amount of flood to the room 42 (main engine room) or the room 41 (generator room) is reduced. In addition, when the flood control watertight compartment 30a (30b) is used as a liquid tank, such as a freshwater tank, a ballast tank, and a fuel tank, the valve 45 of each liquid tank may be provided outside the flood control watertight compartment 30a (30b). The valve 45 is provided in the pipe that injects liquid to the flood control watertight compartment 30a (30b). Moreover, for example, even if the vicinity of the bulkhead 23 in the side wall 20a of the port side is damaged and the flood control watertight compartment. 30a is damaged and flooded, the valve 45 is less likely to be damaged. Consequently, by closing the valve 45, it is possible to reduce the possibility that flooding expands to another compartment through the damaged pipe.
The hull 10 is provided with left flood control watertight compartments 31a, 31aa, 32a, and 32aa that are in contact with the side wall 20a of the port side and the bulkhead 23, and right flood control watertight compartments 31b, 31bb, 32b, and 32bb that are in contact with the side wall 20b of the starboard side and the bulkhead 23. A partition wall 28 divides the flood control watertight compartments 31a and 32a, and the flood control watertight compartments 31aa and 32aa in the lateral direction of the hull 10. In the lateral direction of the hull 10, a partition wall 29 divides the flood control watertight compartments 31a and 32a and the flood control watertight compartments 31aa and 32aa in the lateral direction of the hull 10. In addition, the flood control watertight compartment 32a (32b) is adjacent to the flood control watertight compartment 32aa (32bb) in the lateral direction of the hull 10, and the flood control watertight compartment 32a (32b) is in contact with the side wall 20a (20b) to be in contact with the room 42 (main engine room) side of the bulkhead 23. Similarly, the flood control watertight compartment 31a (31b) is adjacent to the flood control watertight compartment. 31aa (31bb) in the lateral direction of the hull 10, and the flood control watertight compartment 31a (31b) is in contact with the side wall 20a (20b) to be in contact with the room 41 (generator room) side of the bulkhead 23.
As illustrated in
By opening and closing the watertight sliding door 85, entry and exit to and from the interior of the flood control watertight compartments 31aa and 32aa (31bb and 32bb) are allowed. For this reason, the flood control watertight compartments 31aa and 32aa (31bb and 32bb) can be utilized as a warehouse, a device room configured to store a roll suppression (fin and stabilizer) device, an air conditioner, and a waste processing device, and a workshop configured to store a machine tool.
Number | Date | Country | Kind |
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2012-144769 | Jun 2012 | JP | national |
Filing Document | Filing Date | Country | Kind |
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PCT/JP2013/067511 | 6/26/2013 | WO | 00 |
Publishing Document | Publishing Date | Country | Kind |
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WO2014/003055 | 1/3/2014 | WO | A |
Number | Name | Date | Kind |
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5477797 | Stuart | Dec 1995 | A |
5582124 | Sikora | Dec 1996 | A |
Number | Date | Country |
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S50-111892 | Sep 1975 | JP |
S52-143689 | Nov 1977 | JP |
2001-001981 | Jan 2001 | JP |
2003-137168 | May 2003 | JP |
2008-201308 | Sep 2008 | JP |
2012-131242 | Jul 2012 | JP |
Entry |
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Written Opinion mailed Oct. 1, 2013, corresponding to International application No. PCT/JP213/067511. |
International Search Report issued on Oct. 1, 2013 in International Application No. PCT/JP2013/067511. |
Decision to Grant a Patent mailed Dec. 1, 2015, corresponding to Japanese Patent Application No. 2014-160878. |
Number | Date | Country | |
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20150122166 A1 | May 2015 | US |