Disclosure of Invention
The present invention aims to solve the above-mentioned drawbacks of the prior art.
The invention provides a building structure of a green environment-friendly village and town house, which comprises a heat preservation room and a sunlight room, wherein the heat preservation room comprises a plurality of prefabricated heat preservation walls and prefabricated heat preservation floors, the prefabricated heat preservation walls are connected end to form an inner space of the heat preservation room, the prefabricated heat preservation floors are arranged on the top of the inner space of the heat preservation room to seal the inner space of the heat preservation room, the prefabricated heat preservation walls comprise reinforced concrete bearing inner walls, porous foam concrete blocks, environment-friendly heat preservation boards, environment-friendly heat-resistant layers and reinforced concrete bearing outer walls from outside to inside, the prefabricated heat preservation floors sequentially comprise bearing steel plates, steel wire mesh plates, foam concrete and environment-friendly heat-resistant surface layers from bottom to top, the steel wire mesh plates are welded above the bearing steel plates, the foam concrete is poured on the steel wire mesh plates and the bearing steel plates, the environment-friendly heat-resistant surface layers are arranged on the foam concrete, the bottom surfaces of the bearing steel plates are connected with the reinforced concrete outer walls through steel bars, the sunlight room comprises a plurality of grid type walls and a roof, the grid type walls are connected end to form the inner space of the sunlight room, and the roof is arranged in the inner space of the sunlight room to seal the inner space of the sunlight room.
In one possible embodiment, a fiber inner layer is further arranged between the environment-friendly heat insulation board and the environment-friendly heat-resistant layer.
In one possible embodiment, all grids of the grid type wall have the same specification, and the width of the grids is 10-20cm and the length is 80-100cm.
In one possible embodiment, the roof is a double glazing construction.
In one possible embodiment, the roof is arranged obliquely to the grid-type wall.
In one possible embodiment, the angle between the roof and the grid-type wall is in the range of 105-120 °.
In one possible implementation mode, the environment-friendly heat-insulating plate is prepared from the following raw materials, by mass, 80-100 parts of solid garbage, 20-40 parts of vitrified micro bubbles, 30-40 parts of cement, 2-21 parts of silica sol, 1-3 parts of alumina sol, 5-7 parts of calcium oxide and 8-15 parts of water.
In one possible implementation, the environment-friendly heat-resistant layer is prepared from the following raw materials, by mass, 30-50 parts of glass sand, 40-60 parts of waste ceramic particles, 6-10 parts of methyl cellulose, 50-90 parts of magnesite solid material, 20-30 parts of quartz sand and 50-70 parts of water.
In one possible embodiment, the fibrous inner layer is made of the raw materials of 30-70 parts by mass of waste fiber, 60-80 parts by mass of waste asbestos, 15-30 parts by mass of saturated polyester resin and 6-10 parts by mass of methyl cellulose.
The technical scheme provides a green environment-friendly building structure of village and town houses, which achieves the effects of heat preservation and energy conservation by utilizing the self structure on the premise of ensuring simple structure and reducing building energy consumption so as to overcome the defects in the prior art.
Detailed Description
The terms first, second and the like in the description and in the claims and drawings are used for distinguishing between similar elements and not necessarily for describing a particular sequential or chronological order. Furthermore, the terms "comprise" and "have," as well as any variations thereof, are intended to cover a non-exclusive inclusion, such as a series of steps or elements. The method, system, article, or apparatus is not necessarily limited to those explicitly listed but may include other steps or elements not explicitly listed or inherent to such process, method, article, or apparatus.
The technical scheme of the invention is further described in detail below with reference to the accompanying drawings and the examples.
Referring to fig. 1, the embodiment of the invention provides a green environment-friendly building structure of village and town houses, which comprises a heat preservation room 1 and a sunlight room 2 which are communicated with each other.
The heat preservation room 1 comprises a plurality of prefabricated heat preservation walls 11 and prefabricated heat preservation floors 12, the prefabricated heat preservation walls 11 are connected end to form an inner space of the heat preservation room 1, and the prefabricated heat preservation floors 12 are arranged at the top of the inner space of the heat preservation room 1 to enable the inner space of the heat preservation room 1 to be closed.
The sunlight room 2 comprises a plurality of grid-type walls 21 and a roof 22, wherein the grid-type walls 21 are connected end to form an inner space of the sunlight room 2, and the roof 22 is arranged in the inner space of the sunlight room 2 to enable the inner space of the sunlight room 2 to be closed.
The building structure of the green environment-friendly village and town residence has a simple structure and can reduce building energy consumption, and as shown in fig. 1, the building structure comprises a heat preservation room 1 and a sunlight room 2 which are connected with each other, wherein the heat preservation room 1 is connected with a prefabricated heat preservation wall 11 and a prefabricated heat preservation floor 12, the prefabricated heat preservation wall 11 and the prefabricated heat preservation floor 12 have a multi-layer structure, and the self structure can be utilized to achieve the effects of heat preservation and energy conservation. Meanwhile, the sunlight room 2 indirectly connected with heat preservation in the technical scheme is designed to be constructed by the grid type wall 21, so that indoor and outdoor air can be effectively led to circulate naturally, the effect of cooling and dehumidifying is achieved, lighting is quite good, meanwhile, the grid type wall 21 is beneficial to the building structure to fully utilize the characteristic of solar energy, and the environment of the building structure in winter can be effectively improved.
In one example, as shown in fig. 2, the prefabricated thermal insulation wall 11 includes, from inside to outside, a reinforced concrete load-bearing inner wall 111, porous foamed concrete blocks 112, an environment-friendly thermal insulation board 113, an environment-friendly heat-resistant layer 115, and a reinforced concrete load-bearing outer wall 116. The setting of reinforced concrete bearing inner wall 111 and reinforced concrete bearing outer wall 116 can ensure the support intensity of wall body, guarantees building structure's stability, and porous foaming concrete block 112 and environmental protection heated board 113 combined action can make the wall body play heat retaining effect, and the setting of environmental protection heat-resisting layer 115 then improves the fire resistance of wall body when the wall body thermal insulation performance is good, is favorable to improving building structure's security.
In a more specific example, a fiber inner layer 114 is further arranged between the environment-friendly heat-insulating plate 113 and the environment-friendly heat-resistant layer 115, and the fiber inner layer 114 can further improve the heat-insulating effect of the wall body.
In one example, the environment-friendly heat-insulating plate 113 is made of, by mass, 80-100 parts of solid waste, 20-40 parts of vitrified micro bubbles, 30-40 parts of cement, 2-21 parts of silica sol, 1-3 parts of alumina sol, 5-7 parts of calcium oxide and 8-15 parts of water. The solid garbage of one of the raw materials is widely available, and is recycled as aggregate of the heat insulation board, substances harmful to the environment are not added in the treatment process, and the waste water and waste residue are not discharged, so that the purpose of environmental protection is achieved. Specifically, the solid garbage comprises coal gangue, fly ash, cinder, blast furnace slag, steel slag and the like.
In one example, the environment-friendly insulation board 113 is made of 80 parts by mass of solid garbage, 20 parts by mass of vitrified micro bubbles, 30 parts by mass of cement, 2 parts by mass of silica sol, 1 part by mass of alumina sol, 5 parts by mass of calcium oxide and 8 parts by mass of water.
In one example, the environment-friendly insulation board 113 is made of 90 parts by mass of solid garbage, 30 parts by mass of vitrified micro bubbles, 35 parts by mass of cement, 12 parts by mass of silica sol, 2 parts by mass of alumina sol, 6 parts by mass of calcium oxide and 11 parts by mass of water.
In one example, the environment-friendly insulation board 113 is made of 100 parts by mass of solid garbage, 40 parts by mass of vitrified micro bubbles, 40 parts by mass of cement, 21 parts by mass of silica sol, 3 parts by mass of alumina sol, 7 parts by mass of calcium oxide and 15 parts by mass of water.
In one example, the mass ratio of silica sol to alumina sol is (2-7): 1.
The silica sol and the aluminum sol are added into the environment-friendly heat-insulating plate 113, so that the improvement of the flexural strength of the environment-friendly heat-insulating plate 113 on the environment-friendly heat-insulating plate is facilitated, meanwhile, the silica sol and the aluminum sol are essentially one fireproof raw material, and the flame retardance of the environment-friendly heat-insulating plate 113 can be effectively improved by adding the silica sol and the aluminum sol into the environment-friendly heat-insulating plate 113. The mass ratio of the silica sol to the alumina sol is defined as (2-7): 1, and the effect is better.
In one example, the environment-friendly heat-resistant layer 115 is made of, by mass, 30-50 parts of glass sand, 40-60 parts of waste ceramic particles, 6-10 parts of methyl cellulose, 50-90 parts of magnesite solid material, 20-30 parts of quartz sand, and 50-70 parts of water. The heat-resistant wall has good heat resistance, can further improve the flame retardance of the wall, and improves the use safety of the building structure. Because the glass sand and the waste ceramic particles in the preparation raw materials can be obtained from waste glass and ceramic materials, the reuse of the waste glass and ceramic materials is beneficial to achieving the aim of green and environment protection.
In one example, the environment-friendly heat-resistant layer 115 is made of raw materials of 30 parts by mass of glass sand, 40 parts by mass of waste ceramic particles, 6 parts by mass of methylcellulose, 50 parts by mass of magnesite solid material, 20 parts by mass of quartz sand, and 50 parts by mass of water.
In one example, the environment-friendly heat-resistant layer 115 is made of 40 parts by mass of glass sand, 50 parts by mass of waste ceramic particles, 8 parts by mass of methylcellulose, 70 parts by mass of magnesite solid material, 25 parts by mass of quartz sand, and 60 parts by mass of water.
In one example, the environment-friendly heat-resistant layer 115 is made of raw materials of, by mass, 50 parts of glass sand, 60 parts of waste ceramic particles, 10 parts of methyl cellulose, 90 parts of magnesite solid material, 30 parts of quartz sand, and 70 parts of water.
In one example, the fibrous inner layer 114 is made from 30-70 parts by mass of waste fiber, 60-80 parts by mass of waste rock wool, 15-30 parts by mass of saturated polyester resin, and 6-10 parts by mass of methylcellulose. The industrial waste material is used for the heat insulation material of the residential building structure of villages and towns, the operation technology is simple, the price is very low, and the production cost is reduced.
In one example, as shown in fig. 3, the prefabricated heat-insulating floor slab 12 sequentially comprises a bearing steel plate 121, a wire mesh plate 122, foam concrete 123 and an environment-friendly heat-resistant surface layer 124 from bottom to top, wherein the wire mesh plate 122 is welded above the bearing steel plate 121, the foam concrete 123 is poured on the wire mesh plate 122 and the bearing steel plate 121, the environment-friendly heat-resistant surface layer 124 is arranged on the foam concrete 123, and the bottom surface of the bearing steel plate 121 is connected with the reinforced concrete bearing outer wall 116 through steel bars. The use of foam concrete 123 is beneficial to reducing the load bearing of the prefabricated thermal insulation floor slab 12 itself and also provides the floor slab with a certain thermal insulation and shock resistance. Meanwhile, the environment-friendly heat-resistant surface layer 124 is arranged to improve the flame retardance of the floor slab while the heat-insulating performance of the floor slab is good, so that the safety of the building structure is improved.
In one example, all of the grills of the grilled wall 21 are the same gauge, with the grills having a width of 10-20cm and a length of 80-100cm. Besides the beautiful effect on the appearance, each part in the room of the sunlight room 2 can be ventilated uniformly, the cooling and dehumidifying effects are further improved, and the uniform grid structure is also beneficial to the indoor uniform irradiation of sunlight, so that the indoor temperature is improved.
Further, the roof 22 is a double-glazing structure, and the angle between the roof 22 and the grid-type wall 21 is in the range of 105-120 °.
In one example, the roof 22 is obliquely arranged on the grid-type wall 21, the roof 22 is obliquely arranged to be beneficial to avoiding the influence of direct sunlight on people, buildings and the like, the roof 22 is of a double-layer glass structure, the inclined glass surface can increase the heat collection area, the building structure is beneficial to fully utilizing solar energy, and the solar energy utilization efficiency is improved. Specifically, the included angle between the roof 22 and the grid-type wall 21 ranges from 105 ° to 120 °, as shown by angle a in fig. 4, and the heat collection effect of the roof 22 is remarkable in this included angle range.
The foregoing embodiments have been provided for the purpose of illustrating the invention in further detail, and are to be understood that the foregoing embodiments are merely illustrative of the invention and are not to be construed as limiting the scope of the invention.