KR102530035B1 - Container Stacking Assistance Device, Container Carrier having the same and Method of Loading/Unloading Container - Google Patents

Abstract

The present invention relates to a container carrier, which can reduce time and costs due to excessive pitting work. The container carrier comprises: a ship body which consists of a ship side plate forming a double-hull structure of an outer ship side plate and an inner ship side plate, a ship bottom plate forming a double bottom structure of an outer ship bottom plate and an inner ship bottom plate, and an upper deck; a plurality of cargo holds which are divided by a lateral partition wall forward and backward inside the ship body; lower cell guides which are installed at a certain interval on the lateral partition wall; top bridges which are provided between the plurality of cargo holds in a forward and backward direction of the upper deck, extend toward an edge of left and right sides of the upper deck, and are disposed in a plurality of rows in a longitudinal direction of the ship body; upper cell guides which are installed in the top bridges, and are integrally connected to each of the lower cell guides to form a continuous container guidance route; entry guides which are provided at an upper end of each of the upper cell guides, and guide the container when the container is loaded; and a container loading assistance device which is applied to the cargo holds to load the container at an upper part thereof. The container loading assistance device is guided by the upper cell guides to enter the guidance route, and at least a part of the device is held in the ship body to transfer the weight of the container loaded at the upper part of the container loading assistance device to the ship body.

Description

Container Stacking Assistance Device, Container Carrier having the same and Method of Loading/Unloading Container}

The present invention relates to a container loading assist device, a container carrier having the same, and a container unloading method.

Container carriers tend to gradually increase container shipping capacity, and at the same time as increasing shipping capacity, securing stability of containers shipped during operation is attracting attention as an important factor.

In such a container carrier, a container is loaded through a structure called a cell guide in a cargo hold provided in the front and rear directions inside the hull, and a hatch coaming installed at the entrance of the cargo hold on the upper deck of the hull. After loading the hatch cover on the coaming), containers are loaded in multiple stages on the hatch cover. Containers loaded on the hatch cover are lashed using various fittings to a lashing bridge located above the space between the cargo holds to prevent them from being overturned.

The hatch cover not only serves to block the inflow of foreign substances (seawater, rainfall, etc.) into the cargo hold while supporting the load of the container loaded on the upper deck, but also contributes to reinforcing the longitudinal strength of the container carrier.

However, since the hatch cover is heavy, it is not easy to produce/transport/load, and it is necessary to additionally provide a structure for installation at the entrance of the cargo hold, thereby reducing the space between neighboring cargo holds. It takes up a lot of space, so you can't load containers as much as that space.

Recently, research has been conducted on a small container carrier of an open-top concept without a hatch cover in order to solve the problem of production/transportation/mounting of the hatch cover while shipping more containers.

When the open-top concept is applied to a small container carrier, the cargo hold continues from the bottom of the cargo hold to the top of the upper deck due to the problem of damage to the lower container due to the load of loaded containers and the problem of trim & stability of the ship. Therefore, it is inevitable to limit the number of loaded containers (tiers) to a certain number (for example, 12 layers) or less, and to prevent green water from flowing into the deck of a ship in rough seas during ship operation In order to do this, there is a problem in that the side plate must be excessively increased compared to the container carrier of the same shipping scale and the strength of the hull must be reinforced.

In large container carriers, in order to prevent containers loaded on the top of the hatch cover from overturning, it is necessary to fix/dismantle the container on the top of the hatch cover to the lashing bridge with various fittings when unloading the container. As it progresses, excessive work time and safety management are required, so it is generated as a cost for container carrier operation. In addition, if excessive hull movement occurs due to bad weather during operation of a container carrier, the hatch cover moves due to the load, the fastening device of the deck or hatch cover is damaged, the fittings of the lashing bridge are broken, or the hatch cover and the hull are damaged. Due to imperfect elements of the hatch cover and the lashing system, such as the occurrence of relative displacement of the lashing system, the lashing system continuously collapses, and finally, the loaded container is damaged or lost to the sea.

The present invention was created to solve the problems of the prior art as described above, and an object of the present invention is the number (stage) of containers continuously loaded from the bottom of the cargo hold to the top of the upper deck in a large container carrier without a hatch cover. It is to provide a container loading aid that does not require a fitting operation between a loading container and a lashing bridge to increase the loading capacity and prevent the overturning of the loaded container, a container carrier having the same, and a container unloading method.

A container carrier according to one aspect of the present invention, a ship body consisting of a ship side plate forming a double hull structure with a ship side outer plate and a ship side inner plate, a bottom plate forming a double bottom structure with a ship bottom plate and a ship bottom inner plate, and an upper deck; A plurality of cargo holds partitioned in the front and rear directions by transverse bulkheads inside the hull; Lower cell guides installed at regular intervals on the transverse bulkhead; Top bridges provided between the plurality of cargo holds in the fore-and-aft direction of the upper deck, extending to left and right edges of the upper deck, and disposed in a plurality of rows in the longitudinal direction of the hull; Upper cell guides installed on the top bridge and integrally connected to each of the lower cell guides to form a guide path of a continuous container; an entry guide provided at an upper end of each of the upper cell guides and guiding the container when the container is loaded; and a container loading auxiliary device applied to the cargo hold to load the container upward, wherein the container loading auxiliary device is introduced into the guide path while being guided by the upper cell guide, and at least a part of the container loading auxiliary device is guided by the upper cell guide. The load of the container loaded above the container loading assistance device may be transferred to the hull.

Specifically, the entry guide is connected to the upper end of the upper cell guide and extends obliquely upward, has the same lower width and upper width, and includes a first entry guide member that guides the front or rear surface of the container; and a second entry guide member connected to an upper end of the upper cell guide, extending vertically upward, having an inclined upper end, and guiding one side of the container.

Specifically, one side of the second entry guide member may be connected to the first entry guide member, and the width may expand in the left and right directions toward the top.

Specifically, the second entry guide member is composed of a first guide member having a first height and a second guide member having a second height higher than the first height, the first guide member and the second guide member. The width and length of each inclined surface of each member may be the same.

Specifically, the top bridge is composed of a combination of a plurality of vertical members and a plurality of horizontal members, the plurality of horizontal members, the top horizontal member forming the top of the top bridge; and a plurality of intermediate horizontal members disposed at regular intervals between the upper horizontal member and the upper deck, and the upper cell guide may be installed higher than the upper horizontal member.

Specifically, a reinforcing member supporting the upper cell guide portion or the entry guide extending upward from the upper horizontal member is further included, and the reinforcing member extends from the rear surface of the upper cell guide toward the center of the top bridge. can be provided.

Specifically, the reinforcing member includes: a first reinforcing member whose lower surface is fixed on the upper horizontal member at the rear surface of the upper cell guide and extends to the upper end of the upper cell guide; a second reinforcing member having one side thereof connected vertically to the first reinforcing member, having a lower surface fixed on the upper horizontal member, and extending toward the center of the top bridge; a third reinforcing member having a lower surface connected to an upper surface of the second reinforcing member and an upper surface connected to a plane on one side of the first entry guide member; and a fourth reinforcing member having a lower surface connected to an upper surface of the first reinforcing member and an upper surface connected to a plane on one side of the first entry guide member.

A container loading auxiliary device according to the present invention, a container carrier having the same, and a container unloading method increase the number (tiers) of containers continuously loaded from the bottom of a cargo hold to the top of an upper deck in a large container carrier without a hatch cover. It is possible to increase the shipping capacity, and by omitting the fitting work between the loading container and the lashing bridge, it is possible to save time and cost due to excessive fitting work.

1 is a longitudinal sectional view of a container carrier according to an embodiment of the present invention.
2 is a partial cross-sectional view of a container carrier according to an embodiment of the present invention.
3 to 7 are views for explaining a container carrier and an open-type container loading aid provided thereon according to an embodiment of the present invention.
8 to 12 are views for explaining a container carrier and a closed-type container loading aid provided thereon according to an embodiment of the present invention.
13 is a three-dimensional front perspective view for explaining a container carrier according to an embodiment of the present invention.
14 is a view for explaining a hull of a container carrier according to an embodiment of the present invention.
15 is a view for explaining a support structure installed on the bottom of a cargo hold in a container carrier according to an embodiment of the present invention to support a container.
16 is a view for explaining a drainage system installed on the bottom of a cargo hold in a container carrier according to an embodiment of the present invention.
17 is a view for explaining the open-type container loading aid of the present invention.
18 is a view for explaining the closed-type container loading aid of the present invention.
19 is a view for explaining a connection structure between open-type container loading aids of the present invention.
20 is a view showing a state in which the container loading assistance device of the present invention is placed on a transport vehicle.
21 is a view showing a state in which the container loading assistance device of the present invention is placed on a container carrier.
22 to 26 are views for explaining various position adjusting members for adjusting the installation position of the container loading assist device of the present invention.
27(a) and (b) are diagrams showing structural analysis of oblique or vertical and horizontal members constituting the top bridge.
FIG. 28 is a view showing another embodiment of the top bridge of FIG. 3 obtained through the structural analysis of FIG. 27 .
FIG. 29 is a view showing another embodiment of the top bridge of FIG. 3 obtained through the structural analysis of FIG. 27 .
30 and 31 are diagrams for explaining and comparing loading stability of containers in the cell guide system of the present invention and the existing lashing system.
32 to 34 are tables for comparing and explaining the loading stability of containers in the cell guide system of the present invention and the existing lashing system.
35 is a view for explaining a container unloading method using a container loading assist device in a container carrier according to an embodiment of the present invention.
36 is a flowchart illustrating a container unloading method using a container loading assist device in a container carrier according to an embodiment of the present invention.
37 is another flow chart for explaining a container unloading method using a container loading assist device in a container carrier according to an embodiment of the present invention.
38 is a view for explaining a container carrier according to an embodiment of the present invention and a support member, an entry guide, and a reinforcing member provided therewith.
39 is a view for explaining the support member of FIG. 38;
40, 41 and 42 are views for explaining the entry guide and reinforcing member of FIG.

Objects, specific advantages and novel features of the present invention will become more apparent from the following detailed description and preferred embodiments taken in conjunction with the accompanying drawings. In adding reference numerals to components of each drawing in this specification, it should be noted that the same components have the same numbers as much as possible, even if they are displayed on different drawings. In addition, in describing the present invention, if it is determined that a detailed description of related known technologies may unnecessarily obscure the subject matter of the present invention, the detailed description will be omitted.

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

1 is a longitudinal cross-sectional view of a container carrier according to an embodiment of the present invention, FIG. 2 is a partial cross-sectional view of a container carrier according to an embodiment of the present invention, and FIGS. 3 to 7 are according to an embodiment of the present invention A view for explaining a container carrier and an open-type container loading aid provided therewith, and FIGS. 8 to 12 show a container carrier and a closed-type container loading aid provided therewith according to an embodiment of the present invention. It is a drawing for explanation, Figure 13 is a three-dimensional front perspective view for explaining a container carrier according to an embodiment of the present invention, Figure 14 is a view for explaining the hull of a container carrier according to an embodiment of the present invention 15 is a view for explaining a support structure installed on the bottom of a cargo hold in a container carrier according to an embodiment of the present invention and supporting a container, and FIG. 16 is a cargo in a container carrier according to an embodiment of the present invention. It is a view for explaining a drainage system installed on the bottom of the hold, Figure 17 is a view for explaining the open-type container loading auxiliary device of the present invention, Figure 18 is a view for explaining the closed-type container loading auxiliary device of the present invention It is a drawing for

As shown in FIGS. 1 to 18, the container carrier 1 according to an embodiment of the present invention loads containers C in multiple stages inside and outside the hull 10 and transports them from the departure point to the destination. As a container carrier of a new concept without a hatch cover, container loading aids 100 and 100a for loading and supporting the container C may be provided.

In this embodiment, the container carrier 1 is a large container ship that loads a large amount of containers C in 13 or more stages, including the amount loaded from the bottom of the cargo hold 17 to the top of the upper deck 11. may be, but is not limited thereto. In addition, the container C may include a 20ft container (hereinafter referred to as a 'small container') or a 40ft container (hereinafter referred to as a 'large container') mainly loaded on the container carrier 1. However, according to the ISO standard, not only are containers (C) of various standards used for ships other than the 20ft or 40ft mentioned above as a ship container (C), but also there are containers (C) with various specifications, so the small size mentioned below Note that container (C) or large container (C) is not used in the meaning of being limited to 20ft or 40ft.

In the above, the container loading auxiliary device 100, 100a may be an open-type container loading auxiliary device 100 as shown in FIGS. 3 to 7 and 17, and shown in FIGS. 8 to 12 and 18 As described above, it may be a closed-type container loading aid (100a). The open-type container loading assistance device 100 and the closed-type container loading assistance device 100a are somewhat similar in structural and functional aspects, so that the open-type container loading assistance device 100 is mainly described below, The different configurations and functions of the closed-type container loading aid 100a will be described with reference to FIGS. 8 to 12 and 18 .

The ship body 10 constitutes the external appearance of the container carrier ship 1. The hull 10 is surrounded by an upper deck 11, a side plate 12, and a bottom plate 13.

In such a hull 10, the ship side plate 12 has a double hull structure composed of the ship side shell plate 12a and the ship side inner plate 12b, and the ship bottom plate 13 consists of the ship bottom plate 13a and the ship bottom plate 13b. It can be formed as a double bottom structure.

A container C may be loaded inside the hull 10 . To this end, a plurality of cargo holds 17 partitioned in the front-rear direction by the transverse bulkhead 16 are provided inside the hull 10. In the cargo hold 17, lower cell guides 31 are installed at regular intervals on the side of the transverse bulkhead 16 to guide the loading of the container C inside the cargo hold 17.

In this embodiment, the cargo hold 17 has an open entrance structure, and the existing hatch cover is not installed at the entrance, but the container loading auxiliary device 100 to be described later is mounted at the entrance of the cargo hold 17 or It may be configured to be mounted at an arbitrary position inside the cargo hold 17. That is, the entrance of the cargo hold 17 may be made of a simple structure so that the container loading assistance device 100 can be mounted. When the container loading assistance device 100 is mounted inside the cargo hold 17, the upper deck forming the entrance of the cargo hold 17 allows the container loading assistance device 100 to pass through the entrance of the cargo hold 17. A groove (not shown) may be formed therein.

In addition, when the container loading assistance device 100 of the present embodiment is applied to a container carrier 1 with an existing lashing bridge or a container carrier 1 with hatch coaming at the entrance of the cargo hold 17, the entrance of the cargo hold 17 It can be mounted on the hatch coaming of the upper deck (11).

An engine room (R) may be provided at a position adjacent to the stern 15 inside the hull 10. A propulsion engine (not shown) is accommodated in the engine room R, and the propulsion engine is mechanically or electrically connected to the propeller, consuming liquefied gas as fuel to implement rotation of the propeller.

A cabin (A) is provided on the upper deck 11 of the hull 10. The cabin (A) is a living space for a crew member, and may be divided into a plurality of floors in an up-and-down direction, and a cockpit for controlling navigation may be provided on the uppermost floor.

An engine casing (I) is provided at the rear of the cabin (A) on the upper deck (11) of the hull (10). The engine casing (I) has a chimney for discharging exhaust generated from the propulsion engine to the outside, and may form a space in which an emergency generator or fire extinguishing facility is provided.

A container (C) may be loaded in a portion of the upper deck (11) of the hull (10) except for the cabin (A) and the engine casing (I). In order to load the container C, top bridges 20 spaced apart from each other by a predetermined distance in the front-back direction are provided on the upper deck 11 .

The top bridge 20 may be installed extending to the left and right edges of the upper deck 11 between the cargo holds 17, and may be arranged at regular intervals from the bow 14 to the stern 15.

Upper cell guides 32 may be installed on both sides of the top bridge 20 at regular intervals. That is, the top bridge 20 of this embodiment is not a lashing bridge to which an existing lashing system is applied, but a cell guide system to which an upper cell guide 32 is applied.

Each of the upper cell guides 32 extends from the upper end of the top bridge 20 to the upper deck 11 and is connected to each of the lower cell guides 31 installed inside the cargo hold 17 to be integrally configured. there is.

The upper cell guide 32 guides the ascending and descending of the small container C or the large container C transported by the crane CR, and the upper cell guide 32 provided on the top bridge 20 and the transverse bulkhead 16 ), the lower cell guides 31 installed in each are connected, so that continuous loading or unloading operations may be possible without additional operations such as hatch cover mounting or lashing operations when unloading the container (C). The upper cell guide 32 can support the lateral load of the small container C or large container C generated by the movement of the hull 10.

In the top bridge 20 of this embodiment, since the upper cell guides 32 are installed on both sides, the upper cell guides 32 can support and fix the container C, so that the existing lashing system (lashing rod, lashing bar) etc.) can be omitted, preventing the container (C) from falling in front and behind the container (C), which is generally loaded at tier 1 to 4 levels, and preventing the container (C) from falling, It can be configured to secure access and work space for maintenance and monitoring of control units, etc. provided in, and by directly supporting the container C on the upper deck 11 during the operation of the container carrier 1 It is possible to solve the problem that the loaded container C is damaged or lost.

In particular, when excessive hull movement occurs due to bad weather during operation, which is a problem of conventional large container carriers, the hatch cover moves due to the load, the fastening device of the deck or hatch cover is damaged, the fittings of the lashing bridge are broken, By removing incomplete elements of the hatch cover and the lashing system, such as the relative displacement of the hatch cover and the hull, the lashing system continuously collapses and finally the loaded container (C) is damaged or lost to the sea. .

In the case of the existing lashing bridge, since the lashing system is applied, a sufficient width is required for the lashing operation according to the operator environment regulations, whereas the top bridge 20 of the present embodiment minimizes the width by omitting the lashing system and applying the cell guide system. In addition, complex structures in which existing lashing bridges are installed can be formed into simple structures. As the width of the top bridge 20 can be minimized, the width of the upper deck 11 between the cargo holds 17 can be minimized compared to a conventional container carrier with a conventional lashing bridge installed, so that the same level of the container carrier 1 It is possible to secure design flexibility compared to specifications (optimization possible due to the elimination of hull length and other lashing systems) or to increase the shipping capacity of the container (C).

The top bridge 20 may be composed of a combination of a plurality of vertical members 21 and a plurality of horizontal members 22 .

Among the plurality of vertical members 21, the outer vertical members 21a disposed two by two on the upper deck 11 on the left and right sides of the hull 10 are spaced at intervals corresponding to the width of the small container C or large container C. can be placed.

Among the plurality of vertical members 21, the plurality of intermediate vertical members 21b disposed between the outer vertical members 21a are spaced at twice the width of the small container C or large container C. can be placed as

At this time, the upper cell guide 32 may be disposed between the outer vertical member 21a, the plurality of intermediate vertical members 21b, and the plurality of intermediate vertical members 21b, respectively.

Since the top bridge 20 is coupled with the upper cell guide 32 supporting the lateral load of the container C generated by the movement of the hull 10, it is preferable to form to withstand the lateral load do.

Therefore, as shown in (a) and (b) of FIG. 27, a structural analysis was performed on the oblique or vertical and horizontal members constituting the top bridge.

27 (a) shows the top bridge 20 of this embodiment composed of a combination of a plurality of vertical members 21 and a plurality of horizontal members 22, and FIG. 27 (b) shows a plurality of diagonal members 23 ) is the top bridge 20-1 of the comparative example composed of a combination of

As a result of the structural analysis, it was analyzed that the load in the oblique or vertical and horizontal directions was high, and accordingly, the top bridge 20a of another embodiment of the top bridge 20 as shown in FIG. 28 and the tower as shown in FIG. 29 A top bridge 20b of another embodiment of the bridge 20 was obtained.

The top bridge 20a of another embodiment shown in FIG. 28 has a plurality of oblique lines in order to reduce the load applied to the plurality of vertical members 21 and the plurality of horizontal members 22 constituting the top bridge 20. A member 23 is further installed.

The plurality of diagonal members 23 described above are at least one of the lower ends of each of the outer vertical members 21a and the plurality of intermediate vertical members 21b disposed two by two on the upper deck 11 on the left and right sides of the hull 10. It may be installed with an upward slope toward the center of the hull 10 from the lower end of the intermediate vertical member (21b).

In addition, the top bridge 20b of another embodiment shown in FIG. 29 reduces the load applied to the plurality of vertical members 21 and the plurality of horizontal members 22 constituting the top bridge 20, A plurality of plate members 24 are further installed.

The plurality of plate members 24 described above are between one intermediate vertical member 21b adjacent to each of the outer vertical members 21a among the plurality of intermediate vertical members 21b and among the plurality of intermediate vertical members 21b. It may be installed between each of the two intermediate vertical members (21b) disposed in the center of the hull (10).

The top bridge (20, 20a, 20b) of the present invention fundamentally reduces the loss of the container (C) due to overturning by installing the upper cell guide 32 up to the top or custom-made according to the needs of the ship owner lower or higher than the top. According to the request of the ship owner, the number of tiers can be customized to the top of the upper deck (11), and it can be manufactured as a unit block that integrates the upper and lower structures of the hull to maximize weight reduction and productivity. .

In addition, the top bridges 20, 20a, and 20b include a lashing eye, a lashing ring, which are fixing devices of the lashing system so that an existing lashing system can be additionally applied to the top in addition to the cell guide system described above. At least one of a lashing plate, a plug, and a cone may be additionally disposed to further improve the safety of the loading container C.

As shown in FIG. 14 , the container carrier 1 according to an embodiment of the present invention may further include hull extensions 50 protruding to the left and right sides of the hull 10 . The hull expansion part 50 may be composed of an extended deck 11a and an overhang shell plate 12a1.

The extended deck 11a may extend outward from the left and right edges of the upper deck 11 longer than at least a length corresponding to the width of the container C.

The overhang shell plate 12a1 may extend from the waterline DL to the edge of the extended deck 11a with a certain angle of inclination. In the overhang shell plate 12a1, the possibility of invasion of green water can be reduced by making the ship side shell plate 12a have a certain inclination outward. In the case of a container carrier (1) with a capacity of 6,500 TEU or more that loads containers (C) in 8 layers (sometimes 9 layers) inside the cargo hold (17), the possibility of actual green water invasion is low, but even considering this point, the overhang outer plate If (12a1) is applied, green water risk can be reliably controlled.

When the container carrier 1 is further included in the hull extension part 50, a different peripheral configuration will be described.

First, in the ship side plate 12 composed of the ship side inner plate 12b and the ship side shell plate 12a, the ship side plate 12a has a vertical outer plate 12a2 extending from the waterline DL to the bottom plate 13, and the waterline It may be made of an overhang shell plate (12a1) extending from (DL) to the edge of the extended deck (11a).

The top bridge 20 may be installed extending from the left and right edges of the upper deck 11 to the left and right edges of the extended deck 11a. At this time, on the expansion deck 11a between the top bridges 20 facing each other in the front and rear direction, a small container C or a large container C may be additionally loaded, and between the top bridges 20 facing each other in the front and rear direction. On the expansion decks 11a on the left and right sides of the hull 10 of the hull 10, reinforcing bulkheads 60 to be described later may be discontinuously installed along the left and right edges of the hull 10.

In addition, the top bridge 20 may extend from the left and right edges of the upper deck 11 to the left and right edges of the extended deck 11a so as to secure a space for installing a reinforcing bulkhead 60 to be described later. At this time, the reinforcing bulkhead 60 to be described later may be continuously installed along the edge of the expansion deck 11a on the left and right sides of the hull 10.

Although the container carrier 1 according to an embodiment of the present invention described above has been described as having the top bridge 20 to which the cell guide system is applied, it is not limited thereto, and some rows or one row Of course, a lashing bridge to which a lashing system is applied similarly or identically to the existing one can be installed in some sections on the left and right sides of the . That is, the container carrier 1 according to an embodiment of the present invention can have a hybrid bridge in which the top bridge 20 to which the cell guide system of the present invention is applied and the lashing bridge to which the existing lashing system is applied are mixed. make it clear

In the container carrier 1 according to an embodiment of the present invention, reinforcement installed on the left and right sides of the hull 10 to improve the bending moment caused by hogging or sagging of the hull 10. A partition wall 60 may be further included.

The reinforcing bulkhead 60 may be formed in a double hull structure similar to the side plate 12, and may be installed at the edge of the upper deck 11 on the left and right sides of the hull 10.

The reinforcing bulkhead 60 may have a width smaller than that of the side plate 12 constituting the double hull structure, and a height equal to or lower than that of the top bridge 20 .

The reinforcing bulkhead 60 may be formed in various double hull structures such as a partially open type or a closed type.

This reinforcing bulkhead 60 is based on the formula for obtaining the moment of inertia, I = Bh ³ / 12 (where 'I' is the moment of inertia, 'B' is the width, and 'h' is the height), 'h' As ' is increased, the moment of inertia increases, and being formed to be connected to the side plate 12 eventually leads to an increase in the height of the side plate 12, improving the bending moment due to hogging or sagging. It can be done.

The reinforced bulkhead 60 is installed so that the top bridge 20 extends to the left and right edges of the upper deck 11, or an extended deck 11a is further provided so that the top bridge 20 extends from the left and right edges of the upper deck 11 to the extended deck. When installed extending to the left and right edges of (11a), it is installed on the upper deck 11 on the left and right sides of the hull 10 between the top bridges 20 facing in the front-back direction, and the fire is installed along the left and right edges of the hull 10. Can be arranged consecutively. The reinforcing bulkhead 60 may be connected to the top bridge 20 .

In the reinforcement bulkhead 60, an extension deck 11a is further provided so that the top bridge 20 extends from the left and right edges of the upper deck 11 to the left and right edges of the extension deck 11a, and the space where the reinforcement bulkhead 60 is to be installed. When installed and extended to ensure this, it may be continuously installed along the edge of the extended deck 11a on the left and right sides of the hull 10. The reinforcing bulkhead 60 may be connected to the top bridge 20 .

As shown in FIG. 14 , the container carrier 1 according to an embodiment of the present invention may further include an outlet 70 . When the ship side plate 12 has a double hull structure composed of the ship side inner plate 12b and the ship side outer plate 12a, the water discharge port 70 is a double hull structure in the freeboard deck 19 so that water is drained from the dock to the outside. It may be installed by penetrating the side plate 12 to the outside.

As shown in FIG. 15, the container carrier 1 according to an embodiment of the present invention may further include a support structure 80.

The support structure 80 is disposed on the bottom surface of the cargo hold 17 to support the container C upwardly, and between the bottom surface of the cargo hold 17 and the container C of the lowermost layer, the cargo hold A flow path for the flow of foreign substances (eg, seawater, rainfall, etc.) flowing into (17) may be formed.

The support structure 80 is a foreign substance penetrating into the inlet of the cargo hold 17, for example, seawater or rainfall, when the ship bottom plate 13 has a double bottom structure consisting of the inner plate 13b and the outer plate 13a. Therefore, it may be installed on the bottom surface of the ship bottom plate 13b at regular intervals so that the container C can be supported without being submerged.

The support structure 80 is installed on the bottom of the bottom of the ship bottom plate 13b at a position corresponding to the corner casting (not shown) of the container C, or the middle part between the corner castings of the containers C loaded adjacently. It may be installed on the bottom of the bottom of the ship bottom plate 13b at a position corresponding to .

This support structure 80 may have a height of 250 mm to 350 mm from the bottom of the ship bottom plate 13b.

As shown in FIG. 16, the container carrier 1 according to an embodiment of the present invention has a drainage system installed on the bottom plate 13 to drain water penetrating into the cargo hold 17 to the outside. (90) can be installed.

When the ship bottom plate 13 has a double bottom structure consisting of the inner ship bottom plate 13b and the outer ship bottom plate 13a, the drainage system 90 is in the form of a box under the ship bottom plate 13b at the lower left and right sides of the transverse bulkhead 16. In the bilge well 91 formed of, the water entering through the drain hole 92 formed in the ship bottom plate 13b is collected, and the water collected in the bilge well 91 is drained from the pipe duct 93 ( It may be configured to be drained by a bilge pump (not shown) of the engine room (R) through (not shown).

The container carrier 1 according to an embodiment of the present invention may be provided with a container loading assistance device 100.

The container loading auxiliary device 100 is provided on the container carrier 1 without a hatch cover, and is applied to at least one cargo hold 17 to load and load a small container C or a large container C on the upper side. It may be configured to support, the upper frame 111, the lower frame 112, the support 113, the protruding member 120, the reinforcing frame 130, the first fitting member 141, the second fitting member (142). In the container loading aid 100, an upper frame 111, a lower frame 112, and a support 113 are mutually coupled to form a body 110 having a rectangular box shape as a whole.

The upper frame 111 may have a width corresponding to the width of the small container (C) or the large container (C), and may be configured in a rectangular shape having a length corresponding to the length of the large container (C).

The upper frame 111 is disposed with a width corresponding to the width of the small container C or large container C, and has a pair of first long axis frames 111a having a length corresponding to the length of the large container C. ) and a pair of first short frames 111b connecting each end of the pair of first long axis frames 111a and having a width corresponding to the width of the small container C or large container C. can be configured.

The lower frame 112 may have a rectangular shape having a width corresponding to the width of the small container C or the large container C and a length corresponding to the length of the large container C.

The lower frame 112 has a width corresponding to the width of the small container C or large container C, and a pair of second long axis frames 112a having a length corresponding to the length of the large container C. ) and a pair of second long axis frames (112a) connected to each end, and a pair of second short frame (112b) having a width corresponding to the width of the small container (C) or large container (C) can be configured.

In the above, each of the pair of second long axis frames 112a has both ends connected to the lower end of the support 113 to be described later, has a downward slope toward the inside, and is bent, so that the pair of first long axis frames ( 111a) can be configured to be level with each other.

The support 113 may be provided in the height direction on the upper frame 111 and the lower frame 112, and will be configured to connect each of the square corners of the upper frame 111 and each of the square corners of the lower frame 112. can

The protruding member 120 may be configured to protrude outward from the upper and lower frames 111 and 112 or the support 113 so as to be mounted at any position of the cargo hold 17. The protruding member 120 may be configured to protrude outward in the longitudinal direction from the lower end of each support 113 so as to be installed at the entrance of the cargo hold 17 or installed at an arbitrary position inside the cargo hold 17.

When the protruding member 120 is mounted on the upper deck 11 at the entrance of the cargo hold 17, the load of the small container C or large container C transmitted through the support 113 is transmitted to the upper deck 11. can

When the protruding member 120 is mounted at an arbitrary position inside the cargo hold 17 using the position adjusting member 40 to be described later, the upper deck 11 at the entrance of the cargo hold 17 is the protruding member 120 A groove through which the protruding member 120 passes may be formed in a portion where the is mounted. Accordingly, the protruding member 120, after passing through the groove formed in the upper deck 11, is mounted on the position adjusting member 40, which will be described later, installed at an arbitrary position of the transverse bulkhead 16 inside the cargo hold 17 and the load of the small container C or the large container C transmitted through the support 113 can be transmitted to the transverse bulkhead 16.

When the container loading assistance device 100 of the present invention is applied to an existing container carrier having a hatch coaming at the entrance of the cargo hold 17 or an existing container carrier on which a lashing bridge is installed, the protruding member 120 is a cargo hold ( 17) It can be mounted on the upper hatch coaming of the upper deck (11) at the entrance.

The reinforcing frame 130 connects the middle portion of the upper frame 111 in the longitudinal direction and the middle portion of the lower frame 112 in the longitudinal direction, and the small container loaded on the upper surface of the container loading aid 100 ( C) or the load of a large container (C) can be supported.

The reinforcing frame 130 connects the first horizontal stiffener 131 connecting the middle part of each of the pair of first long axis frames 111a and the middle part of each of the pair of second long axis frames 112a. The second horizontal stiffener 132, the first vertical stiffener 133 connecting one end of the first horizontal stiffener 131 and one end of the second horizontal stiffener 132, and the other end of the first horizontal stiffener 131 It may be composed of a second vertical stiffener (reference numeral not shown) connecting the other end of the second horizontal stiffener 132 .

The container loading aid 100 may further include a first plate 151 , a second plate 152 , and a reinforcing member 160 .

The first plate 151 is connected to either one of the pair of first long axis frames 111a, any one of the pair of second long axis frames 112a, and the support 113 connecting both ends thereof. It can be installed on one side frame formed by

The second plate 152 is connected to the other one of the pair of first long axis frames 111a, the other of the pair of second long axis frames 112a, and the support 113 connecting both ends thereof. It can be installed on the other frame formed by

The reinforcing member 160 may be installed on at least one of the outer and inner surfaces of the first plate 151 and the second plate 152 .

When the reinforcing member 160 is installed on the outer surface of each of the first plate 151 and the second plate 152, the first plate 151 and the second plate 152 are interposed between each of the first vertical An intermediate reinforcing member 161 connected to each of the pair of first long shaft frames 111a and the second long shaft frame 112a, respectively, to face each of the reinforcing member 133 and the second vertical reinforcing member, and the intermediate reinforcing member 161 ), the first and second reinforcements are disposed between the supports 113 on both sides based on the pair of second long axis frames 112a and are connected to each of the pair of first long axis frames 111a at each bent portion. It may consist of members 162 and 163.

In this embodiment, although the pair of second long shaft frames 112a have been described as having a bent shape, they may be formed in a flat shape, of course. That is, the container loading assistance device 100 of this embodiment may be manufactured in the form of a rectangular parallelepiped box.

The container loading assistance device 100 of the present invention includes the reinforcing frame 130, the first plate 151 and the second plate 152, and all or part of the reinforcing member 160, so unlike conventional similar technologies, the upper part It is also possible to secure rigidity capable of supporting the load of the container C loaded on itself.

The first fitting member 141 is provided at the top of each of the square corners of the upper frame 111, and is used for fixing when loading a large container (C) or small container (C), or when transporting by a crane (CR). It can be used for lifting.

The second fitting member 142 is provided as a pair at the top of the middle portion of the upper frame 111, and is used for fixing when loading a small container (C), or when transporting by a crane (CR), the first fitting member ( 141) and can also be used for lifting.

In the above, the first fitting member 141 may be formed at the same height at each of the square corners of the upper frame 111, and the second fitting member 142 may be formed at each of the pair of first long shaft frames 111a. It is provided at the upper end of the middle part of the first side so that the two small containers C facing each other do not contact each other even if they are tilted inward due to the buckling phenomenon caused by the load when loading two small containers C disposed in the longitudinal direction. It may be formed higher than the height of the fitting member 141 by 5 mm to 15 mm.

The container loading assistance device 100 of the present invention includes a first fitting member 141 and a second fitting member 142, so that a small container C and a large container C are placed on the upper surface unlike similar conventional technologies. It can be mixed and fixed safely.

As shown in FIG. 19 , the container loading assistance device 100 may further include a coupling member 170 connecting the main bodies 110 in parallel.

The coupling member 170 may connect two or more upper and lower frames 111 and 112 disposed adjacent to each other. The coupling member 170 includes at least two first coupling members 171 installed on each side of the upper frame 111 and at least two second coupling members installed on each side of the lower frame. (172). The first and second coupling members 171 and 172 may be hinged spacers.

The first coupling member 171 may be fixed to each of the pair of first long shaft frames 111a and rotatably connected to upper portions of the first and second reinforcing members 162 and 163, respectively.

The second coupling member 172 may be fixed to each of the pair of second long shaft frames 112a and rotatably connected to lower portions of the first and second reinforcing members 162 and 163, respectively.

In the above, the first coupling member 171 connects the upper part of the neighboring body 110 when connecting the main body 110 in parallel, and the second coupling member 172 connects the main body 110 in parallel. It is possible to connect the lower part of the neighboring main body 110 when connected to .

The first and second coupling members 171 and 172 may maintain a constant distance between the main bodies 110 connected in parallel. That is, when the container loading auxiliary apparatus 100 of the present embodiment is connected in parallel by the first and second coupling members 171 and 172, there is a gap of a certain interval between the neighboring container loading auxiliary apparatuses 100 This gap may have a gap into which the upper cell guide 32 can be inserted.

When the container loading auxiliary device 100 of the present embodiment is connected in parallel using the first and second coupling members 171 and 172, the first and second plates 151, respectively, of the container loading auxiliary devices 100 adjacent to each other. 152), and it may be difficult to fasten the first and second coupling members 171 and 172 through the gap at regular intervals, but corresponding to the first and second coupling members 171 and 172 Forming holes (not shown) in the first and second plates 151 and 152 at the location, providing a separate operating space in the upper and lower frames 111 and 112, or using a separate tool, etc. Of course you can.

When transporting the container loading aid 100 by a crane, the main body 110 is not connected in parallel and is transported alone, or the main body 110 is at least two by the first and second coupling members 170. They can be transported in a parallel connected state.

In this embodiment, it has been described that at least two or more container loading auxiliary devices 100 are connected in parallel using the first and second coupling members 170, but the container loading auxiliary device 100 is not limited thereto. It can be manufactured in a form in which two or more are connected in a plurality of directions, and at this time, a gap of a certain interval is formed between the connected container loading aids 100, such a gap is such that the upper cell guide 32 can be inserted can have intervals. That is, the container loading assistance device 100 of the present invention may cover single type and multi type.

In this embodiment, when the container loading aid 100 is of a single type, the size (width and length) of the upper frame 111 and the lower frame 112 is based on the small container C or large container C. As described, when the container loading aid 100 is multi-type, the upper frame 111 and the lower frame 112 are 1 to n times the width and length of the small container C or large container C (n is a natural number) but has a flat cross section smaller than the entrance of the cargo hold 17.

In the above, it is preferable to connect an odd number of container loading aids 100 connected in parallel to match the center of gravity when transferring them to the crane CR. That is, when the container loading auxiliary device 100 is transferred using the spreader SR attached to the crane CR, from the container loading auxiliary device 100 connected in parallel to the container loading auxiliary device 100 positioned in the middle Since the spreader (SR) is connected, it is necessary to connect an odd number of them so that the center of gravity can be easily aligned during transportation. The number of container loading aids 100 connected in parallel may vary depending on the operating load of the crane CR.

The container loading aid 100 may further include a stacking member 180 vertically connecting and/or supporting the main body 110 .

As shown in FIGS. 20 and 21, the stacking member 180 has a structure capable of switching from a first state of being placed on the transport vehicle (TR) or land (2) to a second state of being placed on the container carrier (1). can have

The stacking member 180 is provided at the lower end of each of the stacking legs 181 and the stacking legs 181 installed outside the width direction on each side of the support 113, when stacking the main body 110 in multiple stages. It may be made of a third fitting member 182 coupled to the first fitting member 141 provided on the main body 110 stacked on top.

When the main body 110 is stacked in multiple stages using the first fitting member 141 and the third fitting member 182, the stacking legs 181 are a pair of articles provided on the main body 110 placed at the bottom. 2 The fitting member 142 may be configured not to contact the lower frame 112 of the main body 110 placed thereon.

That is, when the container loading assistance device 100 is stacked up and down, the stacking legs 181 are the lower part of the container loading assistance device 100 placed on top and the bottom of the container loading assistance device 100 placed on the bottom. The upper part may be formed in such a length that it does not come into contact, which is because there is a possibility of damage due to contact friction when shaking occurs due to external environmental factors while the upper and lower container loading aids 100 are in contact. .

The stacking member 180 configured as described above has a function capable of connecting and/or supporting the container loading auxiliary device 100, and the container loading auxiliary device 100 can be safely stored when manufactured or stacked on land (2). A function to support and connect each of the container loading aids 100 stacked up and down when a plurality of containers are transported from the land (2) to the transport vehicle (TR), and some cells of the container carrier (1) ( In 18), even when a plurality of container loading aids 100 are stacked and stored, each of them may have a function of being supported and connected.

The container loading assist device 100 configured as described above may be guided by the upper cell guide 32 when moving up and down between neighboring tower bridges 20 by the crane CR.

In addition, the container loading assistance device 100, as shown in FIG. 21 during the container unloading operation or before the container loading operation, faces the outer vertical direction on the upper deck 11 on the left or right side of the hull 10 in the fore-and-aft direction. It can be stacked and stored between the members 21a, and although not shown, it can be stacked and stored between the intermediate vertical members 21b facing in the front-back direction, and two or more container loading aids 100 are placed in parallel. Of course, it can be stored by stacking between two or more vertical members 21 even in a connected state. In this way, by stacking and storing the container loading assist device 100 on the container carrier 1, there is no need for a separate stacking place on land, and the loading and unloading efficiency of the container C can be improved.

In addition, when the container loading auxiliary devices 100 are connected in parallel by the first and second coupling members 171 and 172, a gap is created between the neighboring container loading auxiliary devices 100, and the crane CR When moving up and down between neighboring top bridges 20, the upper cell guide 32 can be inserted into the gap and guided.

In the above, the left and right sides of the main body 110 are sealed with the first and second plates 151 and 152, and the open-type container loading aid 100 in which the top and bottom of the main body 110 are open has been described. The -type container loading assistance device 100a will be described.

As shown in FIGS. 8 to 12 and 18, the closed-type container loading aid 100a has the overall shape, function, and configuration of the open-type container loading aid 100 in contrast to the open-type container loading aid 100. It may be similar to the loading assist device 100, but may differ in that the watertight member 153 is further configured.

Hereinafter, the closed-type container loading aid 100a will be described, except for the watertight member 153, other configurations are the same as or similar to the open-type container loading aid 100, so the same reference numerals are used (Fig. 8 to 12 and parts not shown in FIG. 18 refer to those shown in FIGS. 3 to 7 and 17), and thus, in order to avoid duplication of description, detailed descriptions of each of the same components are omitted here. , and only the watertight member 153, which is a different component from the open-type container loading aid 100, and the parts that differ due to this will be described.

When the watertight member 153 mounts the closed-type container loading aid 100a on the upper deck 11 at the entrance of the cargo hold 17 and loads the container C thereon, the cargo hold 17 It may be configured to block water (seawater or rainfall) from entering the inside, and may include a first watertight plate 153a, a second watertight plate 153b, and a third watertight plate 153c.

The first watertight plate 153a may be installed on the upper frame formed by the pair of first long axis frames 111a and the pair of first short axis frames 111b constituting the upper frame 111, and It is possible to block water from entering the cargo hold 17 through the top of the -type container loading aid 100a.

The second watertight plate 153b may be installed on the front and rear side frames formed by the first short frame 111b of the upper frame 111, the support 113, and the protruding member 120, and is a closed-type container. Inflow of water into the cargo hold 17 through the front and rear portions of the loading assist device 100a may be blocked. The lower end of the second watertight plate 153b protrudes outward in correspondence with the shape of the protruding member 120, and is thus located on the upper deck 11 at the entrance of the cargo hold 17.

The third watertight plate 153c may be installed at a certain height along the edge of each of the pair of first long shaft frames 111a constituting the upper frame 111, and the water accumulated on the first watertight plate 153a is guided to the second watertight plate 153b forming the side of the closed-type container loading aid 100a to block water from entering the cargo hold 17.

The third watertight plate 153c installed along the edge of each of the pair of first long shaft frames 111a is used to attach the small container C or large container C to the first and second fitting members 141 and 142. In order not to be damaged when fixed, have a gap larger than the width of the small container (C) or large container (C), or set the height of the third watertight plate (153c) to the first fitting member 141 and the second fitting It can be formed lower than the member 142.

That is, the closed-type container loading assistance device 100a, unlike the open-type container loading assistance device 100, the width of the upper portion may be formed larger than the width of the small container C or large container C.

As described above, the closed-type container loading assistance device 100a provided with the watertight member 153 is mounted on the upper deck 11 at the entrance of the cargo hold 17, and the container C is loaded thereon. When the water flows down the sidewall of the container C, the water accumulates on the first watertight plate 153a, and the water is collected on the closed-type container loading aid 100a by the third watertight plate 153c. It overflows to the side and does not flow into the cargo hold 17, and can be drained to the upper deck 11 through the second watertight plate 153b.

As described above, the container loading aids 100 and 100a of the present invention are simple open-type and open-type parallel connection by coupling member 170, simple closed-type and coupling member 170 It can be formed in a closed-type parallel connection type by. Here, the open-type may be a non-tight type, and the closed-type may be a watertight type or a closed type.

The container loading aids (100, 100a) of the present invention can be operated in the same operation method as the ISO container (C), can be operated with a crane (CR) to maximize loading convenience, and transport vehicle (TR) on land It can be loaded and transported to promote production and logistics convenience, and can reduce the weight of the existing 6-row hatch cover by about 25% (for example, about 600 tons based on 15K).

As shown in FIGS. 22 to 26, the container carrier 1 according to an embodiment of the present invention adjusts the position of the container loading assistance device 100 and adjusts the number of loading stages of the container loading assistance device 100. It may include a position adjusting member 40 for adjusting.

The position adjusting member 40 is disposed in the horizontal direction between the lower cell guides 31 adjacent to each of the plurality of cells 18 inside the cargo hold 17, and the transverse bulkhead 16 partitioning the cargo hold At least one or more may be installed at any position in the vertical direction.

The position adjusting member 40 may pass through a groove formed in the upper deck 11 and may be configured to hold the container loading assistance device 100 lowered into the cargo hold 17 .

The position adjusting member 40 may be at least one of a fixed stopper 41, a sliding stopper 42, and a hinged stopper 43a, 43b, and 43c.

The position adjusting member 40 may be a fixed stopper 41 as shown in FIG. 22 .

A pair of fixed stoppers 41 are disposed in the horizontal direction between the adjacent lower cell guides 31 in each of the plurality of cells 18, so as to correspond to the protruding member 120 of the container loading aid 100. Transverse It is installed at an arbitrary position in the vertical direction of the partition wall 16 so that the protruding member 120 can be mounted.

In addition, the position adjusting member 40, as shown in Figure 23, may be a sliding stopper (42).

A pair of sliding stoppers 42 are installed to be movable along rails 42a installed in the horizontal direction on the transverse bulkhead 16 between the neighboring lower cell guides 31 in each of the plurality of cells 18 can

The sliding stopper 42 is moved left and right when the container loading aid 100 is raised and lowered so that the protruding member 120 is mounted (shown as a solid line in the drawing), or moved to the middle so that the protruding member 120 may be prevented from interfering (indicated by a dotted line in the drawing).

In addition, the position adjusting member 40, as shown in (a) to (c) of FIGS. 24, 25 and 26, may be a hinge-type stopper (43a, 43b, 43c) that rotates in various ways.

A pair of hinged stoppers 43a, 43b, and 43c are disposed in the horizontal direction between adjacent lower cell guides 31 in each of the plurality of cells 18. A pair may be rotatably installed on the partition wall 16 .

The hinge-type stoppers 43a, 43b, and 43c are rotated in one direction when the container loading aid 100 is lifted so that the protruding member 120 is mounted (shown as a solid line in the drawing), or rotated in the other direction It is possible to prevent the protruding member 120 from interfering (indicated by a dotted line in the drawing).

In FIG. 26, (a) is a side view of the hinge-type stopper 43c showing a rotated state, and (b) is a plan view of the hinge-type stopper 43c, showing a rotated state to support the protruding member 120. It is shown, (c) is a plan view of the hinge-type stopper (43c) showing a rotated state so that the protruding member 120 can pass through.

As described above, the position adjusting member 40 may be composed of various stoppers such as a fixed stopper 41, a sliding stopper 42, and a hinged stopper 43a, 43b, and 43c. and can be used.

For example, when the fixed stopper 41 is installed at an arbitrary position on the transverse bulkhead 16, the sliding stopper 42 or the hinged stopper 43a, 43b, 43c is positioned above or below the fixed stopper 41 By installing at least one place on the transverse bulkhead 16 of the cargo hold 17, it is possible to install at least two or more container loading aids 100 in each of the plurality of cells 18 inside.

As another example, when the fixed stopper 41 is not installed in an arbitrary position of the transverse bulkhead 16, the sliding stopper 42 or the hinged stopper 43a, 43b, 43c is attached to the transverse bulkhead 16 at least. By installing one or more, it is possible to install at least one container loading auxiliary device 100 in each of the plurality of cells 18 inside the cargo hold 17.

In the present invention, the container carrier 1 includes lower cell guides 31 installed at regular intervals on the side of the transverse bulkhead 16 in the cargo hold 17, and top bridges 20, 20-1 corresponding up and down thereto, The upper cell guide 32 installed in 20a, 20b) is connected. Being able to continuously load the container C from the bottom of the cargo hold 17 to the top of the upper deck 11 may be similar to the open-top of a conventional small container carrier, but the present invention The container carrier (1) includes container loading aids (100, 100a) located in the center of the cell guides (31, 32) and top bridges (20, 20-1, 20a, 20b) installed on the upper deck (11), upper cell Due to the role of the guide 32, a large amount of containers C can be loaded in 13 stages or more, including the amount loaded on the top of the upper deck 11 from the bottom of the cargo hold 17.

30 and 31 are diagrams for explaining and comparing loading stability of containers in the cell guide system of the present invention and the existing lashing system.

As described above, in the container carrier 1 of the present invention, the existing lashing system applied to the existing lashing bridge is omitted, and the cell guide system in which the upper cell guide 32 is provided in the top bridge 20 is applied. Therefore, it will be clarified that the present invention is differentiated from the existing ones by comparing and explaining the loading stability of the container C in the cell guide system of the present invention and the existing lashing system with reference to FIGS. 30 and 31 .

30(a) shows the load acting on the socket foundation part during internal lashing in the existing lashing system applied to the existing lashing bridge, and the compressive load due to its own weight and the motion of the hull It is shown that the lateral load by the moment component acts as an additional compressive load on the socket foundation part.

30(b) shows the load acting on the socket foundation part during external lashing in the existing lashing system applied to the existing lashing bridge, and the compression load due to its own weight and the motion of the hull The load in the lateral direction is a moment component and acts as an additional compressive load on the socket foundation part, but the load is relatively reduced compared to internal lashing.

30 (c) shows that in the existing lashing system applied to the existing lashing bridge, as shown in FIG. 30 (a) and (b), the excessive hull motion load is an incomplete element in the hatch cover and the lashing system. It shows that the socket foundation part is damaged by causing the hatch cover movement and the relative displacement of the deck stool and hatch cover and the hull by acting as a . Damage to the socket foundation part is a major cause of container collapse and loss.

31 is a socket foundation of the container loading aids 100 and 100a when the cell guide system and container loading aids 100 and 100a of the present invention in which the upper cell guide 32 is provided on the top bridge 20 are applied As a part, it shows the load acting on the first and second fitting members 141 and 142, and the compression load due to its own weight and the lateral load due to hull motion are absorbed by the upper cell guide 32, so that no additional compression force is generated. It is possible to secure a margin equal to the general structural strength of the hull for the load caused by the hull motion, the effect of the relative displacement of the hull is insignificant, and the damage of the loading container (C) due to the load bias and the collapse of the lashing system The domino collapse phenomenon of C) can be fundamentally blocked.

32 to 34 are tables for comparing and explaining the loading stability of containers in the cell guide system of the present invention and the existing lashing system.

As described above, in the container carrier 1 of the present invention, the existing lashing system applied to the existing lashing bridge is omitted, and the cell guide system in which the upper cell guide 32 is provided in the top bridge 20 is applied. In the following, by comparing and explaining the loading stability of the container C in the cell guide system of the present invention and the existing lashing system with reference to FIGS.

32 shows that in the existing lashing system applied to the existing lashing bridge, when 12 containers (C) are loaded onto the upper hatch cover of the upper deck of the hull and the container (C) is lashed in 3 stages using the lashing system, This is a table obtained by calculating racking force, corner post force, and twistlock force.

The racking force is the force that the loaded container (C) receives in the inclined direction under the influence of hull rolling, and the corner post force is the upward and downward force on the four corners of the loaded container (post). The twistlock force is the force applied to the twistlock connecting the containers by the movement of the hull.

33 shows that in the cell guide system of the present invention in which the upper cell guide 32 is provided on the top bridge 20, the container C is loaded in 12 stages on top of the container loading auxiliary device 100, and the cell guide system is installed on the container. This is a table obtained by calculating racking force, corner post force, and twistlock force when up to four stages of the loading assist device 100 are applied.

FIG. 34 shows racking force, corner post force, and twistlock force in the existing lashing system and the cell guide system of the present invention, based on the tables of FIGS. 32 and 33 ) is a table of analysis results.

As shown in FIG. 34, as a result of analyzing the corner post force applied at the maximum value of motion acceleration when the loaded container C moves left and right during the rolling motion of the container carrier, compared to the allowable value of 848 kN, the existing lashing system ( In the case of the container 3-stage lashing bridge), 927.5 kN was found to exceed the allowable value at the bottom of the loaded container at the top of the hatch cover, which could lead to a container collapse accident, whereas the cell guide system of the present invention (top of the container loading aid of the present invention) In the case of a structure in which cell guides support up to the 4th layer of containers loaded in the container), as the cell guides absorb motion acceleration up to the 4th layer of the loaded container, the maximum value is less than the allowable value of 805.7kN, so there is no risk of container collapse. there is.

In addition, although not shown, under the same conditions of loading containers C in 12 stages and loading small containers (20ft containers) from 1st to 10th, in the existing lashing system, there is no lashing when loading 20ft containers on top of the hatch cover ( If lashing is performed on only one side, a worse condition occurs than not lashing.) In the cell guide system of the present invention (structure supporting up to 5 containers with cell guides), the cell guide supports the container, so unlike the existing lashing system, pure Load transmission in the lateral direction is possible (the same load transmission as inside the cargo hold), so the design safety factor of the present invention is higher than the existing design safety factor at the allowable twist lock load (Min. breaking 500kN (per person), 420kN (shear)) An increase of about 8 times was obtained. That is, when the cell guide system of the present invention is applied, it is expected to secure superior stability compared to the existing lashing system in a 20 ft container loading rough sea sailing condition.

35 is a view for explaining a container unloading method using a container loading auxiliary device in a container carrier according to an embodiment of the present invention, and FIG. 36 is a view for explaining a container loading auxiliary device in a container carrier according to an embodiment of the present invention. It is a flow chart for explaining a container unloading method, and FIG. 37 is another flow chart for explaining a container unloading method using a container loading assist device in a container carrier according to an embodiment of the present invention.

Referring to FIGS. 35 and 36 , a container unloading method using the container loading assist devices 100 and 100a in the container carrier 1 according to an embodiment of the present invention will be described.

In this embodiment, as described above, the container loading aids 100 and 100a used in the container unloading method are at least one of the container carriers 1 loading the small container C or the large container C. It is applied to the cargo hold 17 of and has a width and length of 1 to n times (n is a natural number) the width and length of the container C so as to load the container C upward, but the entrance of the cargo hold 17 The upper and lower frames 111 and 112 having a smaller planar cross section, the support 113 provided in the height direction on the upper and lower frames 111 and 112, and the upper and lower frames to be mounted at any position of the cargo hold 17 ( 111, 112) or a protruding member 120 protruding outward from the support 113, and a coupling member 170 connecting two or more of the upper and lower frames 111 and 112 disposed adjacent to each other. .

Hereinafter, a method of loading and unloading a container in the container carrier 1 with the container loading assist devices 100 and 100a will be described in detail.

First, the operation of loading the container C on the land 2 to the container carrier 1 using the crane CR will be described.

Loading of the container C into the cargo hold 17 is completed by using the crane CR to load the container C into the cargo hold 17 (step S11).

The container loading auxiliary devices 100 and 100a are connected in parallel using the coupling member 170 (step S12).

In the above step S12, it is preferable to connect an odd number of container loading auxiliary devices 100 and 100a connected in parallel to match the center of gravity when transferring the container loading aids 100 and 100a to the crane CR. That is, when the container loading auxiliary devices 100 and 100a are transferred using the spreader SR attached to the crane CR, the container loading auxiliary device positioned in the center of the container loading auxiliary devices 100 and 100a connected in parallel Since the spreader (SR) is connected to (100, 100a), it is necessary to connect an odd number to easily align the center of gravity during transportation.

The container loading aids 100 and 100a are transferred in a state connected in parallel using a crane CR (step S13).

By using a crane (CR), the container loading auxiliary device (100, 100a) is mounted on the upper deck (11) at the entrance of the cargo hold (17), and the container loading auxiliary device (100, 100a) is used to hold the cargo hold (17). ) cover the inlet (step S14).

In step S14, the container loading aids 100 and 100a are transported to the cargo hold 17 of the container carrier 1 using the crane CR in a state where they are stored on the land 2.

By using a crane (CR), the container (C) is loaded on top of the container loading aids (100, 100a) to complete the loading of the container (C) on top of the container loading aids (100, 100a). (Step S15).

Hereinafter, the operation of unloading the container C of the container carrier 1 to the land 2 using the crane CR will be described.

An operation of unloading the container C loaded on the upper portion of the container loading auxiliary devices 100 and 100a is performed using the crane CR (step S16).

By using a crane (CR), the container loading auxiliary device (100, 100a) is removed from the cargo hold (17) inlet to open the inlet of the cargo hold (17) (step S17).

In step S17, the container loading aids 100 and 100a can be transported to an arbitrary place on the upper deck 11 in a state connected in parallel, stacked and stored on the upper deck 11, and transported to the land 2 to land ( 2) can be stored in piles.

An operation of unloading the container C loaded in the cargo hold 17 is performed using the crane CR (step S18).

In this embodiment, the container carrier 1 has an upper deck 11, a side plate 12, and a bottom plate 13 forming the outer appearance of the hull 10 and the transverse bulkhead 16 inside the hull 10 It is installed extending to the left and right edges of the upper deck 11 between the cargo hold 17 partitioned by, the lower cell guide 31 installed at regular intervals on the side of the transverse bulkhead 16, and the cargo hold 17 , Top bridge 20 disposed in a plurality of rows in the longitudinal direction of the hull 10, and upper cell guides connected to each of the lower cell guides 31 and installed on both sides of the top bridge 20 ( 32), the upper cell guide 32 uses the coupling member 170 to connect the container loading auxiliary devices 100 and 100a in parallel (step S12), the crane CR When mounted on the upper deck 11 at the entrance of the cargo hold 17 (step S14) or removed from the entrance of the cargo hold 17 (step S17), between the container loading aids 100 and 100a connected in parallel It can be inserted into the gap of the lift guide.

Referring to FIGS. 35 and 37 , another method of unloading a container using the container loading assist devices 100 and 100a in the container carrier 1 according to an embodiment of the present invention will be described.

In this embodiment, as described above, the container loading aids 100 and 100a used in the container unloading method are at least one of the container carriers 1 loading the small container C or the large container C. It is applied to the cargo hold 17 of and has a width and length of 1 to n times (n is a natural number) the width and length of the container C so as to load the container C upward, but the entrance of the cargo hold 17 The upper and lower frames 111 and 112 having a smaller flat cross section, the support 113 provided in the height direction on the upper and lower frames 111 and 112, and the upper and lower frames 111 and 112 to be mounted at the entrance of the cargo hold 17 ) or a protruding member 120 protruding outward from the support 113.

Hereinafter, a method of loading and unloading a container in the container carrier 1 with the container loading assist devices 100 and 100a will be described in detail.

First, the operation of loading the container C on the land 2 to the container carrier 1 using the crane CR will be described.

Loading of the container C into the cargo hold 17 is completed by using the crane CR to load the container C into the cargo hold 17 (step S21).

By using a crane (CR), the container loading auxiliary device (100, 100a) is mounted on the upper deck (11) at the entrance of the cargo hold (17), and the container loading auxiliary device (100, 100a) is used to hold the cargo hold (17). ) cover the entrance (step S22).

In step S22, the container loading aids 100 and 100a are transported to the cargo hold 17 of the container carrier 1 by using the crane CR while being stored on the land 2, or the container carrier 1 It is transferred to the cargo hold 17 of the container carrier 1 using a crane CR in a state stored at an arbitrary place on the upper deck 11 of the.

By using a crane (CR), the container (C) is loaded on top of the container loading aids (100, 100a) to complete the loading of the container (C) on top of the container loading aids (100, 100a). (Step S23).

Hereinafter, the operation of unloading the container C of the container carrier 1 to the land 2 using the crane CR will be described.

An operation of unloading the container C loaded on the top of the container loading aids 100 and 100a is performed using the crane CR (step S24).

The operation of removing the container loading aids (100, 100a) from the entrance of the cargo hold (17) using a crane (CR) is performed, but the removed container loading aids (100, 100a) are lowered to the land (2) or It is transported to an arbitrary place on the upper deck 11 to open the inlet of the cargo hold 17 (step S25).

In step S25, the container loading aids 100 and 100a can be transported to an arbitrary place on the upper deck 11 and stored on the upper deck 11, and transported to the land 2 to be stored on the land 2. can

An operation of unloading the container C loaded in the cargo hold 17 using the crane CR is performed (step S26).

In this embodiment, the container carrier 1 has an upper deck 11, a side plate 12, and a bottom plate 13 forming the outer appearance of the hull 10 and the transverse bulkhead 16 inside the hull 10 It is installed extending to the left and right edges of the upper deck 11 between the cargo hold 17 partitioned by, the lower cell guide 31 installed at regular intervals on the side of the transverse bulkhead 16, and the cargo hold 17 , Top bridge 20 disposed in a plurality of rows in the longitudinal direction of the hull 10, and upper cell guides connected to each of the lower cell guides 31 and installed on both sides of the top bridge 20 ( 32), the container loading aids 100 and 100a are stacked between the top bridges 20 facing forward and backward on the upper deck 11 in step S25 of opening the entrance of the cargo hold 17. It may be stored or stored by placing it on land (2).

In this way, in this embodiment, by providing the top bridges 20, 20-1, 20a, 20b equipped with the upper cell guides 32, the container C can be supported and fixed by the upper cell guides 32. , Existing lashing systems (fastening devices such as lashing rods and lashing bars) can be omitted, thereby reducing material costs as well as time and money consumed for lashing work. In addition, it is possible to solve the problem of damage or loss of the loaded container (C) by directly supporting the container (C) on the upper deck (11) during operation of the container carrier (1), and also the top bridge (20, 20-1 , 20a, 20b), the upper cell guide 32 provided on the transverse bulkhead 16 and the lower cell guide 31 installed on the transverse bulkhead 16 are connected, respectively, so that the container C is unloaded without additional work such as mounting a hatch cover or lashing work. A loading or unloading operation may be possible.

In addition, this embodiment configures the container loading auxiliary devices 100 and 100a so that they can be mounted at the entrance of the cargo hold 17 of the container carrier 1, so that the hull 10 is mounted at the entrance of the cargo hold 17. ), as well as contributing to the longitudinal strength of the upper deck (11), it is possible to transfer the loading load of the container (C) loaded to the upper deck (11) to the hull (10), so that the cargo hold (17) is loaded on top of the upper deck (11) from the bottom. A large amount of containers (C) in 13 or more stages including the amount can be stacked,

In addition, in this embodiment, by configuring the container loading aids 100 and 100a so that one or more can be transported by the crane (CR) and stacked by itself, at the entrance of the cargo hold 17 of the container carrier 1 Handling for mounting is easy, storage on the container carrier 1 or on land 2 can be convenient, and transportation on the land 2 to the transport vehicle TR can be easy.

In addition, in this embodiment, the container loading auxiliary device 100, 100a is provided with all or part of the reinforcing frame 130, the first plate 151 and the second plate 152, and the reinforcing member 160, It is possible to secure rigidity capable of supporting the load of the container (C) loaded on.

In addition, in this embodiment, by providing the first and second fitting members 141 and 142 corresponding to the corner casting of the container C on the upper surface of the container loading aids 100 and 100a, containers loaded on the upper surface Not only can it be safely fixed, but also it is possible to mix and stack a 20ft small container (C) and a 40ft large container (C).

In addition, in this embodiment, the lashing bridges of the top bridges 20, 20-1, 20a, and 20b are omitted, and the upper cell guide 32 and the lower cell guide 31 installed on the transverse bulkhead 16 are connected, respectively. By forming the cell guide system, the width can be minimized compared to the existing lashing bridge, and the complex structure with the existing lashing bridge installed can be formed into a simple structure, and the cargo hold compared to the existing container carrier with the existing lashing bridge installed (17 ), it is possible to minimize the width of the upper deck (11) between the container carrier (1), to ensure design flexibility compared to the same specifications of the container carrier (1) (optimization possible due to the elimination of hull length and other lashing systems), or the shipping capacity of the container (C) can increase

In addition, this embodiment, by providing a position adjusting member 40 for adjusting the position of the container loading auxiliary device (100, 100a), the container loading auxiliary device 100 at an arbitrary position inside the cargo hold 17 One or more can be installed, so the flexibility of loading the container (C) can be increased.

In addition, in this embodiment, by providing the hull extension part 50 protruding to the left and right of the hull 10, it is possible to additionally load the container C in the hull extension part 50, and the container C loading quantity Not only can it be increased, but also the possibility of invasion of green water can be reduced by making the ship side shell plate (12a) part forming the hull extension part 50 have a certain inclination to the outside.

In addition, in this embodiment, the bending moment of the hull 10 can be improved by installing the reinforcing bulkhead 60 at the edge of the upper deck 11 on the left and right sides of the hull 10.

In addition, in this embodiment, a water discharge port 70 is provided to penetrate the side plate 12 of the double hull structure from the freeboard deck 19 to the outside, and the container C ), and by providing a drainage system 90 on the bottom plate 13, it is possible to easily treat the water flowing through the cargo hold 17 entrance of the container carrier 1. And it is possible to prevent the container (C) on the bottom of the cargo hold (17) from being submerged in water.

38 is a view for explaining a container carrier according to an embodiment of the present invention, a support member, an entry guide, and a reinforcing member provided therewith, and FIG. 39 is a view for explaining the support member of FIG. 38, FIG. 40, FIG. 41 and 42 are views for explaining the entry guide and reinforcing member of FIG.

38 to 42, the container carrier 1 according to an embodiment of the present invention may be provided with a support member 200, an entry guide 300 and a reinforcing member 400.

Support members 200 are provided at both ends of the plurality of top bridges 20 to reinforce structure and vibration.

The support member 200 connects a pair of top bridges 20 spaced back and forth among the plurality of top bridges 20, and a pair may be provided at both ends of the pair of top bridges 20.

As described above, the top bridge 20 may be composed of a combination of a plurality of vertical members 21 and a plurality of horizontal members 22. The plurality of vertical members 21 are outer vertical members 21a disposed two by two on the upper deck 11 on the left and right sides of the hull 10, and a plurality of intermediate vertical members disposed at regular intervals between the outer vertical members 21a. A member 21b may be included.

At this time, the pair of support members 200 may connect the outer side of the outer vertical member 21a between the upper horizontal member 22a and the intermediate horizontal member 22b adjacent thereto among the plurality of horizontal members 22. .

As shown in FIG. 39 , the pair of support members 200 may be formed by combining first, second, third, and fourth support members 210, 220, 230, and 240. Hereinafter, the pair of support members 200 will be described as being formed by combining the first, second, third, and fourth support members 210, 220, 230, and 240, but are not limited thereto, and the first, second, and third ,4 support members (210, 220, 230, 240) are all formed integrally, or the first and third support members (210, 230) and the second and fourth support members (220, 240) are formed integrally, respectively. Of course, it can be formed in various ways.

Each of the first, second, third, and fourth support members 210, 220, 230, and 240 may have a 'c' shape in which one side is open and the other side is closed. In this embodiment, each of the first, second, third, and fourth support members 210, 220, 230, and 240 is described as having a 'c' shape, but it can be formed in various forms, of course.

In the first support member 210, the other side opposite to one side open to the outer vertical member 21a of any one of the pair of top bridges 20 spaced apart from each other in the front and back may be connected.

In the second support member 220, the opposite side of one side opened to the outer vertical member 21a of the other top bridge 20 of the pair of top bridges 20 spaced back and forth may be connected.

The third and fourth support members 230 and 240 may be coupled between the first support member 210 and the second support member 220 .

The third and fourth support members 230 and 240 connect the other side opposite to the open side of the third support member 230 and the other side opposite to the open side of the fourth support member 240. It may be coupled between the first support member 210 and the second support member 220 .

The open side of the third support member 230 may be connected to the open side of the first support member 210 . In this way, one support member having a hollow can be provided by combining the first support member 210 and the third support member 230 .

The open side of the fourth support member 240 may be connected to the open side of the second support member 220 . In this way, another support member having a hollow can be provided by combining the second support member 220 and the fourth support member 240 .

The entry guide 300 may be provided on top of each of the upper cell guides 32, and may guide the container C when the container C is loaded.

As shown in FIGS. 40, 41 and 42, the entry guide 300 includes a first entry guide member 310 for guiding the front or rear surface of the container C and the container C. A second entry guide member 320 for guiding one side may be included.

The first entry guide member 310 may be connected to an upper end of the upper cell guide 32 and may extend upward at an angle at an angle so as to guide the front or rear surface of the container C.

The first entry guide member 310 may have a quadrangular shape in which a lower width and an upper width are equal.

The second entry guide member 320 may be connected to the upper end of the upper cell guide 32 and extend vertically upward. The second entry guide member 320 may have a trapezoidal shape, one side of which is connected to the first entry guide member 310 and whose width expands in the left and right directions toward the top.

The second entry guide member 320 may include a first guide member 320a having a first height and a second guide member 320b having a second height higher than the first height.

The first and second guide members 320a and 320b may have inclined surfaces 321a and 321b whose upper ends are inclined at a predetermined angle so as to guide one side of the container C.

The inclined surface 321a of the first guide member 320a and the inclined surface 321b of the second guide member 320b may have the same width and length.

As described above, since the first and second guide members 320a and 320b have different heights and have the same length of the inclined surfaces 321a and 321b, the ratio of width expansion in the left and right direction toward the top may be different.

In the above, it has been described that the inclined surface 321a of the first guide member 320a and the inclined surface 321b of the second guide member 320b have the same length, but it is not limited thereto. That is, the first and second guide members 320a and 320b may have the same width expansion rate in the left and right directions as they go toward the top, and thereby, the inclined surface 321a of the first guide member 320a having a first height. The length of ) may be smaller than the length of the inclined surface 321b of the second guide member 320b having the second height.

The entry guide 300 having the first guide member 320a of the first height and the entry guide 300 having the second guide member 320b of the second height are located at the top of each of the plurality of upper cell guides 32. It is provided in, but can be arranged alternately.

The reinforcing member 400 may support the upper cell guide 32 .

The top bridge 20 may be composed of a combination of a plurality of vertical members 21 and a plurality of horizontal members 22 .

The plurality of horizontal members 22 include the uppermost horizontal member 22a constituting the uppermost part of the top bridge 20, and a plurality of intermediate horizontal members disposed at regular intervals between the uppermost horizontal member 22a and the upper deck 11 ( 22b) may be included.

The upper cell guide 32 may be installed higher than the upper horizontal member 22a.

Due to this, the reinforcing member 400 is a part of the upper cell guide 32 extending to the top of the upper horizontal member 22a of the top bridge 20 or the entry guide 300 provided at the upper end of the upper cell guide 32 can support

The reinforcing member 400 may be provided from the rear surface of the upper cell guide 32 toward the center of the top bridge 20, and the first, second, third, and fourth reinforcing members 410, 420, 430, and 440 can include

The first reinforcing member 410 may be fixed on the upper horizontal member 22a on the lower surface at the rear side of the upper cell guide 32 extending to the upper portion of the upper horizontal member 22a of the top bridge 20, , It may extend to the top of the upper cell guide 32.

The second reinforcing member 420 may have one side connected to the first reinforcing member 410 vertically, and a lower surface may be fixed on the upper horizontal member 22a. The second reinforcing member 420 may extend toward the center of the top bridge 20 .

The lower surface of the third reinforcing member 430 may be connected to the upper surface of the second reinforcing member 420 and the upper surface may be connected to one flat surface of the first entry guide member 310 .

The lower surface of the fourth reinforcing member 440 may be connected to the upper surface of the first reinforcing member 410 and the upper surface may be connected to one flat surface of the first entry guide member 310 .

The first and second reinforcing members 410 and 420 may support the upper cell guide 32 , and the third and fourth reinforcing members 430 and 440 may support the entry guide 300 .

In the above, the present invention has been described centering on the embodiments of the present invention, but these are only examples and do not limit the present invention, and those skilled in the art to which the present invention belongs do not deviate from the essential technical content of the present embodiment. It will be appreciated that various combinations or modifications and applications not exemplified in the embodiments are possible within the range. Therefore, technical details related to variations and applications that can be easily derived from the embodiments of the present invention should be construed as being included in the present invention.

1: container carrier 2: land
10: hull 11: upper deck
11a: extended deck 12: side plate
12a: side shell plating 12a1: overhang shell plating
12a2: vertical outer plate 12b: ship side inner plate
13: bottom plate 13a: bottom plate
13b: bottom plate 14: bow
15: stern 16: transverse bulkhead
17: cargo hold 18: cell
19: freeboard deck 20, 20-1, 20a, 20b: top bridge
21: vertical member 21a: outer vertical member
21b: intermediate vertical member 22: horizontal member
22a: upper horizontal member 22b: middle horizontal member
23: diagonal member 24: plate member
31: lower cell guide 32: upper cell guide
40: position adjusting member 41: fixed stopper
42: sliding stopper 42a: rail
43a, 43b, 43c: hinged stopper 50: hull extension
60: reinforced bulkhead 70: water discharge port
80: support structure 90: drainage system
91: Bilge well 92: Drain hole
93: pipe duct 100, 100a: container loading aid
110: body 111: upper frame
111a: first long axis frame 111b: first short axis frame
112: lower frame 112a: second long axis frame
112b: second short frame 113: support
120: protruding member 130: reinforcing frame
131: first horizontal stiffener 132: second horizontal stiffener
133: first vertical stiffener 141: first fitting member
142: second fitting member 151: first plate
152: second plate 153: watertight member
153a: first watertight plate 153b: second watertight plate
153c: third watertight plate 160: reinforcing member
161: intermediate reinforcing member 162: first reinforcing member
163: second reinforcing member 170: coupling member
171: first coupling member 172: second coupling member
180: stacking member 181: stacking leg
182: third fitting member 200: support member
210: first support member 220: second support member
230: third support member 240: fourth support member
300: entry guide 310: first entry guide member
320: second entry guide member 320a; First guide member
320b: second guide member 321a, 321b: inclined surface
400: reinforcing member 410: first reinforcing member
420: second reinforcing member 430: third reinforcing member
440: fourth reinforcing member
C: container A: cabin
I: engine casing R: engine room
CR: Crane SR: Spreader
TR: transport vehicle DL: waterline

Claims (6)

A hull composed of a side plate forming a double hull structure with a side shell plate and a ship side inner plate, a bottom plate forming a double bottom structure with a bottom shell plate and a ship bottom inner plate, and an upper deck;
A plurality of cargo holds partitioned in the front and rear directions by transverse bulkheads inside the hull;
Lower cell guides installed at regular intervals on the transverse bulkhead;
Top bridges provided between the plurality of cargo holds in the fore-and-aft direction of the upper deck, extending to left and right edges of the upper deck, and disposed in a plurality of rows in the longitudinal direction of the hull;
Upper cell guides installed on the top bridge and integrally connected to each of the lower cell guides to form a guide path of a continuous container;
an entry guide provided at an upper end of each of the upper cell guides and guiding the container when the container is loaded; and
Including a container loading auxiliary device applied to the cargo hold so that the container is loaded upward,
The container loading aid,
A container carrier that is introduced into the guide path while being guided by the upper cell guide, and at least partially mounted on the hull to transfer the load of the container loaded above the container loading assistance device to the hull. The method of claim 1, wherein the entry guide,
a first entry guide member connected to an upper end of the upper cell guide, extending obliquely upward, having the same lower width and upper width, and guiding the front or rear surface of the container; and
A second entry guide member connected to the upper end of the upper cell guide, extending vertically upward, having an inclined upper end, and guiding one side of the container,
The second entry guide member,
A container carrier, one side of which is connected to the first entry guide member, and whose width expands in the left and right directions toward the top. The method of claim 2, wherein the second entry guide member,
It consists of a first guide member having a first height and a second guide member having a second height higher than the first height,
The first guide member and the second guide member have the same width and length of each inclined surface of the container carrier. The method of claim 2, wherein the top bridge,
It is composed of a combination of a plurality of vertical members and a plurality of horizontal members,
The plurality of horizontal members,
an upper horizontal member forming the uppermost part of the top bridge; and
Including a plurality of intermediate horizontal members disposed at regular intervals between the upper horizontal member and the upper deck,
The upper cell guide,
A container carrier installed higher than the upper horizontal member. According to claim 4,
Further comprising a reinforcing member supporting the upper cell guide portion or the entry guide extending to the upper portion of the upper horizontal member,
The reinforcing member,
A container carrier provided from the rear surface of the upper cell guide toward the center of the top bridge. The method of claim 5, wherein the reinforcing member,
A first reinforcing member at the rear surface of the upper cell guide, the lower surface of which is fixed on the upper horizontal member, and extends to the upper end of the upper cell guide;
a second reinforcing member having one side thereof connected vertically to the first reinforcing member, having a lower surface fixed on the upper horizontal member, and extending toward the center of the top bridge;
a third reinforcing member having a lower surface connected to an upper surface of the second reinforcing member and an upper surface connected to a plane on one side of the first entry guide member; and
A container carrier comprising a fourth reinforcing member having a lower surface connected to an upper surface of the first reinforcing member and an upper surface connected to a plane on one side of the first entry guide member.

Images