JP2015148126A - Building floating up in flood disaster, and construction method of the same - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a building floating up in a flood disaster, which floats up onto the water without being inundated with the water in the flood disaster caused by a typhoon, heavy rain, river flooding, or the like.SOLUTION: A floating body 2 is attached under a floor structure, and a building 1 is provided with a column 3 with a built-in anchor pole, in which the anchor pole 9 extending vertically downward is built. The floating body 2 is housed in a container shape comprising a side wall 20 and a bottom surface 21, in a foundation. The anchor pole 9 and a sill beam 4 constituting a sill of the building are fixed to the foundation. A water gauge 40 capable of measuring a height from a water level when the building 1 floats up, and a buoyancy force adjustment device capable of adjusting levelness, are provided.

Description

The present invention relates to a flooded floating structure that floats on the water without being flooded in the event of a flood such as a typhoon, heavy rain or river flooding.

Near rivers and in lowlands, floods are caused by typhoons that hit several times a year, torrential rains, river floods, etc., and each year suffers enormous human property damage.
In these areas, buildings are traditionally built on foundations raised from the surrounding ground level. In this case, during a normal flood, the flood does not reach the base and the building is not flooded.
On the other hand, as a countermeasure against flooding of buildings constructed on the surrounding ground level, a number of floating buildings that float on the water during floods have been proposed in the prior art literature. In these floating buildings, a building is installed on a floating member, and the floating member is a basement of the building, a foaming material, a trolley type floating body, or the like. These floating buildings are fixed to the foundation or the like by a series of extendable columns.

Shoko 57-23606 JP2007-192007 US Patent 5347949 Patent 3023991 Patent 4882093

Buildings built on the ground are installed on a leveled foundation, and the floor is inevitably constructed to be horizontal. However, when the building is floated on the water, it is not supported by the foundation as described above, and it is very rare that the level is taken. When building a floating building in the event of a flood, it is very important to balance the load of the floating building and ensure levelness when it floats on the water. If the level is not secured when the floating building floats on the water, when the building rises, the friction between the pillars fixed to the foundation and the columns on the floating building side will increase, and the buoyancy will be You will not be able to ascend without being able to overcome the friction. The floating buildings proposed so far have their respective difficulties in this regard. In addition, since the floating building is fixed to the foundation or the like only with the pillars and anchor poles, there is also a problem in the normal earthquake resistance.

In the invention of Patent Document 1, the weights of the front, rear, left and right of the building must be symmetrical and balanced. This is because even if buoyancy due to water works during floods, if the weight of the building is not balanced, the building will tilt without being kept horizontal, and the ring body and the anchoring column will not rub against the surface. Happens. There is no description about levelness, and there is no device for adjusting the weight balance. Even if the weight is balanced, if the connecting strut is tilted, it will not float on the water, and it will not be possible to ascertain where it is.

The invention of Patent Document 2 has a problem in earthquake resistance because the building is not fixed to the foundation, and a large pool type foundation that is unnecessary in a general building is necessary.
Since the invention of Patent Document 3 cannot check whether the building is kept horizontal or whether it actually floats when buoyancy due to water works, whether the building will float during floods It is unknown.
The invention of Patent Document 4 must be balanced in weight in the front / rear and left / right directions of the building. For example, even if buoyancy due to water works, the building is not balanced in weight. Even if it has a roller from the building to the guide column because it tilts without being kept horizontal, the roller and the guide column rub against each other depending on the inclination of the heavy building and do not rise due to a large frictional force. Things happen. In addition, there is no means for checking and verifying whether the weight of the building is balanced, and it is unclear whether it will actually surface or not until flooding.

Regarding Patent Document 5, even if the level of the building is ensured in the state before floating on the water, the weight balance of the front, rear, left and right of the building is maintained when floating on the water with the anchor pole attached. Otherwise, the building will tilt without being kept horizontal, and the anchor pole will rub hard and will not float on the water.
In addition, since there is no water level meter or buoyancy adjustment device for checking the level of the water surface, the level cannot be checked. In addition, even when the horizontality is not secured when floating on the water, the leveling is secured by the friction in the anchor pole when the anchor pole is attached, so the anchor pole got in the way and floated on the water I cannot confirm the level of the time. For this reason, it is unclear whether the building will float on the water during floods. Furthermore, a large pool type foundation that is unnecessary in ordinary buildings is required.

For a floating building that floats on the surface in the event of a flood, the building is actually floated on the water at the completion of the building to check the level of the building, or when the building is expanded or remodeled, or when there is a significant change in household assets. It is a very important characteristic to ensure that the water floats on the water.
The present invention was invented to solve the problems in the prior art, and without requiring special equipment or equipment, the level of the building can be confirmed while floating on the water, or it can be constructed at any time. It is possible to confirm that an object floats on the water, and to improve the seismic strength by fixing anchor poles and foundation beams to the foundation, and to provide a floating structure in case of flooding that can surely float when flooded.

The first floating structure of the present invention is a floating structure that floats under the floor structure with water pressure to prevent flooding such as typhoons, heavy rains, and river flooding. Is a pillar with a built-in anchor pole that has a tubular shape and has an anchor pole that extends vertically downward inside, and the foundation of the building is a container shape having a side wall and a bottom surface, and the floating body is stored in the container-shaped foundation. And a water level meter capable of measuring the height from the surface of the water when the building is lifted by fixing the foundation beam and the anchor pole, which are installed horizontally on the foundation of the building, and fixed to the foundation. An anchor pole having a buoyancy adjusting device capable of adjusting the level of the building, the building being lifted when the water level rises above a predetermined level, and fixed to the foundation so as to prevent the building from flowing due to running water It has. In normal times, the building is firmly fixed on the basis of anchor poles and foundation beams, so it has excellent earthquake resistance. The foundation beam can be fixed easily in case of flood.

According to the second flooded building of the present invention, the floor surface of the building is provided by providing three or more buoyancy adjustment devices and water level gauges as far as possible from each other. It measures, adjusts and secures the upper level of accuracy with high accuracy, so that it can ascend smoothly and reliably in the event of a flood.

The third flooded building of the present invention can adjust the level of the building by installing the water tank of the buoyancy adjustment device under the floor structure, injecting and releasing water into the water tank to adjust the buoyancy. I am doing so. For example, a buoyancy adjustment device and a water level gauge are attached to the front, rear, left and right of a floating building during a flood. The front, rear, left and right water tanks F, B, L, R of the buoyancy adjusting device are connected to the pump via respective valves. If the front water level indicator is smaller than the rear water level indicator from the floor, it can be seen that the front floor is located higher than the rear floor. When the front, rear, left and right water tanks F, B, L, R are filled with water at first, the pump is turned on and the water tank B valve is opened to drain the water tank B and lighten it. , Increase the buoyancy and lift the subsequent floor. When the level from the floor of the rear water level gauge and the previous water level gauge becomes the same, the valve B is closed and the pump is stopped. The level of the building is ensured by repeating such operations and combining the levels from the floor of the front, rear, left and right water level gauges. Since the water level gauge is based on the surface of the water, it is possible to ensure a high level of accuracy by setting the height difference between the water level gauges when the water level gauge is first installed. When it is desired to reduce the amount of floating body or to obtain greater buoyancy, the front, rear, left and right water tanks F, B, L, R may be emptied first. In this case, the level of the building can be adjusted and secured in the same manner if it is read that water is injected instead of discharging the water described above.
At this time, the base beam is released from the foundation, and the anchor pole is also released from the foundation so that the friction between the anchor pole and the anchor pole built-in column does not affect the buoyancy.

In the fourth flooded building of the present invention, the foundation of the building has a container shape with a side wall and a bottom surface, water is injected into the inner space of the container-shaped foundation, and water pressure is applied to the floating body stored therein. In addition, it is the basis on which the building can emerge. Since most of the foundations are buried below the ground surface, the foundations and exterior shapes necessary for ordinary buildings are comparable. When the height is high relative to the building floor area, it may be necessary to store a large floating body, which may result in a deep foundation. Ventilation vents for underfloor ventilation are provided on the side wall of the foundation, but when water is poured into the inner space of the container shape to raise the building and adjust the level of the water, a lid is attached from the outside and water is drawn from the vents. Is not leaking.

The fifth flooded building of the present invention is constructed with the anchor pole and the base beam fixed to the foundation, and after the building is completed, the anchor pole and the base beam are released from the foundation fixation, and the inside of the container-shaped foundation Water is poured into the space to raise the building, and after checking the level of the building with a buoyancy adjustment device, water level gauge, etc., the anchor pole and the foundation beam are fixed again to the foundation. For this reason, after the building is completed, it is actually floated on the water with the building fixed open, and the level is adjusted, and then the anchor pole and the foundation beam are fixed again to the foundation. Since the levelness of the object is reliably secured and verified, it can ascend smoothly and reliably in the event of a flood.
In the above, the level is adjusted after the building is completed. However, the level may be adjusted in the same way as described above after carrying in household goods or after expanding or reconstructing the building. The horizontality can be confirmed and adjusted by the above method at any time when the necessity of the above occurs.
In addition, once every few years or decades, it is desirable to check the floating performance of a floating building in the event of a flood and the level of the surface when floating.

According to the present invention, it has an appearance that is not inferior to that of a general building, can obtain a floating building at the time of flooding on a site area that is not inferior, does not require a large pool for storing the building, There is no need to provide an unsightly locking pole outside the door. In addition, since no pontoon-type floating body or water-resistant basement is required, a floating building can be manufactured at low cost in the event of a flood, and the actual floating test can be verified at the place where the building is built. Since the building is fixed to the foundation with anchor poles in addition to anchor poles, it is also excellent in earthquake resistance, and it is easy to remove the fixing of the base beam before flooding. You can get a floating building.

The side view of the floating structure at the time of the flood of this invention. Cross sectional view of anchor pole built-in column and anchor pole. (A) Example of anchor pole being square (b) Example of anchor pole being H-shaped steel Side view of combined side of anchor pole built-in column, foundation beam, anchor pole and foundation. Combination plan view of pillar with built-in anchor pole, base beam and anchor pole. Structure explanatory drawing of a buoyancy adjusting device and a water level meter installed in a floating building during a flood. The side view which inject | poured water in the foundation and surfaced the floating building at the time of flood. Explanatory drawing of leveling adjustment of building. Base beam fixture (a) Example of bolt tightening (b) Example of L-shaped fastener A side view of a building that floated during a flood.

Next, the flood damage floating building 100 is demonstrated about the form for implementing this invention, referring drawings. However, the example shown below illustrates one mode for embodying the technical idea of the present invention, and is not limited to the following.

In FIG. 1, the building 1 has a large number of vertical pillars, and a plurality of the pillars are anchor pole built-in pillars 3. The anchor pole built-in column 3 is usually made of a metal square tube, and as shown in FIG. 2, an anchor pole 9A made of a square column or an anchor pole 9B made of H-shaped steel is built therein. The application portion of the anchor pole built-in column 3 that incorporates the anchor pole 9 is effective in reducing the number when applied to the corner column.
As shown in FIGS. 2 to 4, a base beam 4 serving as a base of the building 1 is provided horizontally on the upper surface of the side wall 20 of the foundation of the building 1. A column guide 14 is welded to the inner lower end of the anchor pole built-in column 3 and a mounting plate 8 is welded to the lower end on the outer peripheral side. The base beam 4 is fastened to the mounting plate 8 with bolts and nuts 10 to incorporate the anchor pole. It is combined with the pillar 3. The foundation beam 4 is fastened with a nut 29 to an anchor 28 embedded in the side wall 20 of the foundation via an ate plate 44, or is fixed with an L-shaped fastener 45 or the like. Usually, the pillars other than the anchor pole built-in pillar 3 are mounted on the base beam 4. An anchor pole fixing plate 11 is welded to the lower end of the anchor pole 9, and the anchor pole fixing plate 11 is bolted and fixed to an anchor 25 embedded in the side wall 20 of the foundation. A column guide 15 is attached to the upper end of the anchor pole 9 after inserting the anchor pole built-in column 3. The foundation is made of reinforced concrete and has a side wall 20 and a bottom surface 21, and the side wall 20 is provided with a vent 22 and a drain pit 23 on the bottom surface 21.

The main members constituting the buoyancy adjusting device are a water tank 30, a pump 31, and a water level meter 40. Similar to the floating body 2, the water tank 30 is attached to the lower part of the floor structure of the building 1 and is stored in the internal space 24 of the foundation. The floating body 2 is subdivided into a predetermined size, and the water tank 30 is installed in at least three places as far as possible from each other so that the level of the building 1 can be easily adjusted. Has been.
Inside the building 1, a water level meter 40 that measures the water level of the water surface from the floor surface is installed in the vicinity of the installation location of the water tank 30. The installation location of the water level gauge 40 is not limited to the vicinity of the water tank 30 and may be installed at three or more locations as far away as possible in the building 1 so that the levelness can be measured as accurately as possible.
In addition, a pump 31 for supplying and discharging water from the water tank 30 is also installed indoors in the building 1, and as shown in FIG. 5, a pipe 33 is connected from each water tank 30 via a valve 34. The water in the tank can be discharged, or the water tank 30 can be supplied with water. A pipe 35 is provided at the upper end of the water tank 30 to be connected to the outside air via a valve 34 so as to keep the inside of the water tank 30 at atmospheric pressure. The pump 31 may be installed indoors in a controller that can be turned on and off by installing it at an outdoor high place where it is not flooded in the event of a flood.
The floating body 2 is not particularly limited as long as it is an article that can obtain a large buoyancy compared to the weight. In general, a stylus foam or a PET bottle sealed with air is placed in a mesh bag or the like, so that a very large buoyancy can be obtained compared to its weight.

Next, with reference to FIG. 6, a description will be given from the floating operation test of the floating building 100 during flooding to the completion as the building 1. What is located under the floor structure such as the floating body 2 and the water tank 30 is carried in before the floor 5 is attached, and is attached to the base beam 4 which is a strong structure. The anchor pole 9 and the anchor pole built-in column 3 are constructed with particular attention to the vertical. Other construction procedures are constructed with the same procedures and care as ordinary buildings. After completion of the construction, the building 1 is floated on the water to adjust and check the level, and it is confirmed whether the floating building 100 actually floats on the water. First, the anchor pole fixing plate 11 and the base beam 4 are released from the fixing of the foundation so that there is no thing that restrains the building 1 from floating on the water. In order to confirm that the floating body 2 has sufficient buoyancy, each water tank 30 is filled with water, and the space 24 in the container-shaped foundation is filled with water. Since all the parts fixed to the foundation of the building 1 are open, the building 1 floats on the water in a free state without a fixed object by the floating body 2. After slightly rising, the pump 31 is operated while looking at the water level meter 40 installed indoors, and the level of the building 1 is adjusted by repeatedly discharging and supplying water in each water tank 30.

For example, the front / rear / right / left water tanks of the building 1 are 30F, 30B, 30L, 30R, and the front / rear / left / right water level meters are 40F, 40B, 40L, 40R. If the water level difference between the front water level gauge 40F and the rear water level gauge 40B is small with respect to the floor surface as shown by the arrows in FIG. 7, the valve 32 of the rear water tank 30B is opened and the pump 31 is operated. The water in the tank 30B is discharged and lightened, the buoyancy is increased, and the rear floor is raised. After confirming that the water level difference between the rear water level gauge 40B and the floor of the front water level gauge 40F is the same, the valve 32 of the water tank 30B is closed and the pump 31 is stopped. By repeating such operations, the level of the building 1 is ensured when the water level differences from the floor surfaces of all the water level gauges 40F to 40R are combined. The valves 32 of all the water tanks 30F to 30R are closed to seal the water. When drained too much, the water can be supplied to the water tanks 30F to 30R by the pump 31, and the buoyancy can be lowered by increasing the weight. Since all the water level gauges 40F to 40R are based on the water surface, it is possible to ensure a high level of accuracy.

After confirming that the levelness is secured, the anchor pole fixing plate 11 is fixed to the anchor 25 embedded in the side wall 20 of the foundation with a nut 26. Since the anchor pole 9 is first installed vertically and then the nut 26 is simply removed and no external force is applied, the verticality is ensured. Next, water is sealed in the space 24 in the foundation until water overflows from the upper surface of the side wall 20 of the foundation. Since the anchor pole 9 is fixed to the foundation, and the building 1 is secured to a level, the building 1 rises in the vertical direction as the water pole rises and the anchor pole built-in column 3 is guided by the anchor pole 9. to continue. That is, the state of the building 1 at the time of flood is simulated.

After the simulation test at the time of flooding, the water filling the space 24 in the foundation is drained. Building 1 continues to descend as the water level falls. Since the column guide 15 is fixed to the upper end of the anchor pole 9 and the column guide 14 is fixed to the lower end of the anchor pole built-in column 3, the gap between them is always kept constant. The plurality of anchor pole built-in columns 3 are guided by the anchor pole 9 and continue to descend, and return to their original positions. Finally, the water is drained from a drainage pit 23 provided on the bottom surface 21 of the foundation. Since the drain pit 23 is lower than the bottom surface 21 of the foundation, the water poured into the space 24 in the container-shaped foundation can be completely drained. Thereafter, when the foundation beam 4 is fixed to the side wall 20 of the foundation, the building 1 is kept level even in the event of a flood, and the floating building 100 in the event of a flood that floats on the water smoothly and reliably is completed.

Next, the operation of the floating building 100 during a flood will be described. If there is a flood, there is some time in advance. Before the flooding occurs, the fixing member that fixes the foundation beam 4 to the foundation is operated to remove the foundation beam 4 from the foundation fixation. FIG. 8 shows an example of a fixture for the base beam 4. FIG. 8A shows a structure in which a hole is made in the base beam 4 made of H-shaped steel, and an anchor 28 having a threaded end is passed through the hole and tightened with a nut 29. FIG. 8B shows an L-shaped fastening tool 45 in which a handle 46 and a fastening plate 47 are welded in an L shape to a tubular metal ring. The H-shaped steel side of the clamping plate 47 has rounded corners so that it can get on the H-shaped steel and be tightened easily. The metal ring is passed through the anchor 28 and attached rotatably with a nut 29. FIG. 8 shows a state in which the foundation beam 4 is released from the foundation. When the handle 46 is rotated clockwise in the direction of the arrow, the clamping plate 47 is made of the H-shaped steel of the foundation beam 4 as indicated by a one-dotted line. Ride it up and fasten it to the foundation. Since the L-shaped fastener 45 can be rotated by 90 degrees, the base beam 4 can be fixed and released in a short time.

FIG. 9 shows a flooded building 100 that floated during a flood. The foundation of the present invention has a container shape having a side wall 20 and a bottom surface 21. Since most of the foundation is buried in the ground and the height of the bottom surface 21 is lowered below the ground surface, the ground surface is flooded. Then, as the water level increases, water enters the internal space 24 of the container-shaped foundation from the vent 22 provided in the side wall 20 of the foundation. When the water level increases and reaches a predetermined height of the internal space 24 of the foundation, buoyancy is generated by the water pressure applied to the floating body 2. As the water level rises, the buoyancy of the floating body 2 also increases. When the buoyancy overcomes the weight of the building 1, the building 1 rises away from the foundation. When the building 1 floats on the water, water is poured into the internal space 24 of the foundation to check the level of the building 1, so that the building 1 floats smoothly on the water while maintaining the level.

Even if the water level rises, the plurality of pillars with built-in anchor poles 3 are guided by the anchor poles 9, and the building 1 rises smoothly as the water level rises while maintaining the level in the vertical direction and floats on the water. Even if the building 1 floats up to the top of the anchor pole 9, the pillar guide 14 of the anchor pole built-in pillar 3 hits the pillar guide 15 of the anchor pole 9 and does not come off.
For this reason, even if a water flow occurs at the time of flooding, the anchor pole 9 is fixed to the anchor 25 embedded in the side wall 20 of the reinforced concrete foundation via the anchor pole fixing plate 11, so that the building 1 is washed away. There is no. Further, since the floating body 2 is also housed in a wire mesh and fixed to the base beam 3 and the like, there is no fear of being washed away.
Water that has flowed due to flooding will eventually flow away, but in this case as well, the building 1 is prevented from moving in the horizontal direction by the anchor pole 9, and the building 1 has a plurality of pillars 3 with built-in anchor poles as the water level decreases. It is guided by the anchor pole 9 and descends in the vertical direction while maintaining the level in the vertical direction, and returns to the original position.
The water that has flowed into the internal space 24 of the foundation is drained by a pump or the like, but the bottom surface 21 has a gentle slope and is connected to the drain pit 23, so that the last water gathers in the drain pit 23 and can be completely drained. I can do it.
Then, if the foundation beam 4 is fixed to the side wall 20 of the foundation, the original state is restored.

The present invention is a flood-raised building 100 that floats in the event of a flood. Almost every year, floods such as typhoons, heavy rains and river inundations occur, and it is extremely effective as a countermeasure for reducing this flood.
The floating building 100 at the time of flooding of the present invention can be constructed economically without being inferior to general buildings and the appearance, site area, etc., and can provide safe living for people living in flooded areas.

DESCRIPTION OF SYMBOLS 1 Building 2 Floating body 3 Pillar with built-in anchor pole 4 Base beam 5 Floor 8 Mounting plate
DESCRIPTION OF SYMBOLS 9 Anchor pole 9A Square pole anchor pole 9B H-shaped steel anchor pole 10 Bolt and nut 11 Anchor pole fixing plate 14 Column guide 15 Column guide 17 Outer wall 18 Inner wall 20 Foundation side wall 21 Foundation bottom surface 22 Ventilation hole 23 Drainage pit 24 Interior space 25 Anchor 26 Nut 27 Ventilation cover 28 Anchor 29 Nut 30 Water tank 30F Front water tank 30B Rear water tank 31 Pump 32 Valve 33 Piping 34 Valve 35 Piping

40 Water level gauge 40F Front water level gauge 40B Rear water level gauge 41 Float 45 L-shaped fastener 46 Handle 47 Fastening plate

100 Floating buildings in case of flood

The present invention, typhoons, during flood, such as heavy rain or river flood, to a flood time of floating architectural thereof and the construction methods without floating on the water to be flooded.

For a floating building that floats on the surface in the event of a flood, the building is actually floated on the water at the completion of the building to check the level of the building, or when the building is expanded or remodeled, or when there is a significant change in household assets. It is a very important characteristic to ensure that the water floats on the water.
The present invention was invented to solve the problems in the prior art, and without requiring special equipment or equipment, the level of the building can be confirmed while floating on the water, or it can be constructed at any time. It is possible to confirm that an object floats on the water, and to fix an anchor pole or a base beam to the foundation to improve the seismic strength, and to provide a floating structure and a construction method thereof in case of a flood that can surely float in the event of a flood.

The first floating structure of the present invention is a floating structure that floats under the floor structure with water pressure to prevent flooding such as typhoons, heavy rains, and river flooding. Is a pillar with a built-in anchor pole that has a tubular shape and has an anchor pole that extends vertically downward inside, and the foundation of the building is a container shape having a side wall and a bottom surface, and the floating body is stored in the container-shaped foundation. The base beam and the anchor pole, which are installed horizontally on the side wall of the foundation of the building and constitute the foundation , are fixed on the side wall of the foundation, and the height from the water surface when the building rises. A water level meter that can measure the level of water and a buoyancy adjustment device that can adjust the level of the building, and the building rises when the water level rises above a predetermined level and prevents the building from flowing due to running water. fixed anchor on the side walls It is equipped with Lumpur. Normally, the building has excellent anchoring resistance because the anchor pole and the base beam are firmly fixed on the side wall of the foundation. The foundation beam can be fixed easily in case of flood.

The floating building at the time of flooding of the present invention is the horizontal surface on the floor of the building by providing three or more buoyancy adjustment devices and water level gauges of the floating building at the time of flooding of the first invention as far as possible from each other. It measures, adjusts, and secures the degree of accuracy accurately, so that it can ascend smoothly and reliably in the event of a flood.

In the flooded building of the present invention, the water tank of the buoyancy adjustment device is installed under the floor structure, and the buoyancy is adjusted by injecting and discharging water into the water tank so that the level of the building can be adjusted. Yes.
For example, a buoyancy adjustment device and a water level gauge are attached to the front, rear, left and right of a floating building during a flood. The front, rear, left and right water tanks F, B, L, R of the buoyancy adjusting device are connected to the pump via respective valves. If the front water level indicator is smaller than the rear water level indicator from the floor, it can be seen that the front floor is located higher than the rear floor. When the front, rear, left and right water tanks F, B, L, R are filled with water at first, the pump is turned on and the water tank B valve is opened to drain the water tank B and lighten it. , Increase the buoyancy and lift the subsequent floor. When the level from the floor of the rear water level gauge and the previous water level gauge becomes the same, the valve B is closed and the pump is stopped. The level of the building is ensured by repeating such operations and combining the levels from the floor of the front, rear, left and right water level gauges. Since the water level gauge is based on the surface of the water, it is possible to ensure a high level of accuracy by setting the height difference between the water level gauges when the water level gauge is first installed. When it is desired to reduce the amount of floating body or to obtain greater buoyancy, the front, rear, left and right water tanks F, B, L, R may be emptied first. In this case, the level of the building can be adjusted and secured in the same manner if it is read that water is injected instead of discharging the water described above.
At this time, the base beam is released from the foundation, and the anchor pole is also released from the foundation so that the friction between the anchor pole and the anchor pole built-in column does not affect the buoyancy.

In the second flooded building of the present invention, the foundation of the building has a container shape with side walls and a bottom surface, water is injected into the inner space of the container-shaped foundation, and water pressure is applied to the floating body housed therein. In addition, it is the basis on which the building can emerge. Since most of the foundations are buried below the ground surface, the foundations and exterior shapes necessary for ordinary buildings are comparable. When the height is high relative to the building floor area, it may be necessary to store a large floating body, which may result in a deep foundation. Ventilation vents for underfloor ventilation are provided on the side wall of the foundation, but when water is poured into the inner space of the container shape to raise the building and adjust the level of the water, a lid is attached from the outside to Is not leaking.

3rd invention of this invention is related with the construction method of the floating building at the time of a flood.
Third flood when floating building of the present invention, the anchor pole and foundation beams and construction fixed to the side wall of the foundation, to release the anchor pole and foundation beams from a fixed side wall of the foundation after building completion, container shape After injecting water into the inner space of the foundation, the building is levitated, and after checking the level of the building with a buoyancy adjustment device, water level gauge, etc., drain the water and anchor the pole and foundation beam to the side wall of the foundation It is built to be fixed again. For this reason, after the building is completed, it is actually floated on the water with the building open, and the level is adjusted. After that, the anchor pole and the foundation beam are fixed again to the side wall of the foundation. Since the level of the building is surely secured and verified, it can rise smoothly and reliably in the event of a flood.
In the above, the level is adjusted after the building is completed. However, the level may be adjusted in the same way as described above after carrying in household goods or after expanding or reconstructing the building. The horizontality can be confirmed and adjusted by the above method at any time when the necessity of the above occurs.
In addition, once every few years or decades, it is desirable to check the floating performance of a floating building in the event of a flood and the level of the surface when floating.

Next, the operation of the floating building 100 during a flood will be described. If there is a flood, there is some time in advance. Before the flooding occurs, the fixing member that fixes the foundation beam 4 to the foundation is operated to remove the foundation beam 4 from the foundation fixation. FIG. 8 shows an example of a fixture for the base beam 4. FIG. 8A shows a structure in which a hole is made in the base beam 4 made of H-shaped steel, and an anchor 28 having a threaded end is passed through the hole and tightened with a nut 29. FIG. 8B shows an L-shaped fastening tool 45 in which a handle 46 and a fastening plate 47 are welded in an L shape to a tubular metal ring. The H-shaped steel side of the clamping plate 47 has rounded corners so that it can get on the H-shaped steel and be tightened easily. The metal ring is passed through the anchor 28 and attached rotatably with a nut 29. Figure 8 shows a state in which the foundation beam 4 is released from the ground, when the handle 46 is rotated clockwise in the direction of the arrow, the fastening plate 47 as indicated by one-dot chain line is the foundation beam 4 in the H-shaped steel Ride it up and fasten it to the foundation. Since the L-shaped fastener 45 can be rotated by 90 degrees, the base beam 4 can be fixed and released in a short time.

Claims (5)

Mount a floating body that floats the building under water pressure under the floor structure against flood damage such as typhoon, heavy rain and river flooding,
A plurality of the pillars of the building is a pillar with a built-in anchor pole that incorporates an anchor pole that extends vertically downward in the shape of a tube,
The foundation of the building houses the floating body as a container shape having a side wall and a bottom surface, and fixes the foundation beam and the anchor pole that constitute the foundation of the building to the foundation.
When the building rises, it has a water level meter that can measure the height from the water surface and a buoyancy adjustment device that can adjust the levelness,
The building emerges when the water level rises above a certain level,
A floating structure in the event of a flood, wherein the water flow of the building is blocked by an anchor pole.
The buoyancy adjustment device and the water level gauge are provided in three sets or more, respectively, and the floating building at the time of flooding according to claim 1.
The water tank of the buoyancy adjustment device is installed under the floor structure, and water is injected and discharged into the water tank so that the level of the building can be adjusted. A floating structure in the event of a flood.
The floating building at the time of flooding according to any one of claims 1 to 3, wherein water is poured into the inner space of the container-shaped foundation so that the building can float.
The anchor pole and the foundation beam are fixed to the foundation, and the building is completed. After the building is completed, the anchor pole and the foundation beam are released from the foundation fixation, and water is injected into the inner space of the container-shaped foundation to raise the building. 5. The anchor pole and the base beam are fixed again to the foundation after the horizontality of the building is adjusted and confirmed with a buoyancy adjusting device and a water level gauge. 5. A floating structure in the event of a flood.

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