Patent Grant
11821649
This application claims priority under 35 U.S.C. § 119 from Italian Patent Application No. 102019000018620, filed on Oct. 11, 2019, in the Italian Patent and Trademark Office (“IPTO”), the entire contents of which are incorporated herein by reference.
The present invention relates to a modular element comprising an integrated air conditioning unit and adapted to replace a façade portion of a building in correspondence with at least one floor of the building and a corresponding process for removing and replacing the façade portion with the modular element.
In the construction sector, it is known that the restructuring and renovation of a building in order to improve the performance, functionality, image and comfort thereof may require several separate interventions. In fact, an intervention is often necessary to replace the façade of a building and a further separate intervention to renovate the heating and/or cooling system of the building in order to adapt to the new energy classes and to improve the comfort of the interior environment. The need to carry out separate interventions can result in higher costs for the building owner and simultaneously increase the duration of the renovation works and unforeseen events during the construction site works.
It is also known that, while renovating the façade of a building, which involves the replacement of portions of the façade, the entire building is usually cleared of the occupants and furnishings thereof for as long as the construction site works are in operation.
Considering therefore the long duration of the entire renovation works of the building, all this entails a significant inconvenience, as well as a significant loss of income if the building is leased and/or usufruct if owned. These costs are in addition to the actual costs of renovating the façade and the building as a whole.
The object of the invention is to provide a modular element comprising an integrated air conditioning unit and adapted to replace a façade portion of a building in correspondence with at least one floor of the building which allows the building to be renovated both aesthetically and energetically, meeting formal and functional needs.
An object of the invention is also to present a building renovation process which allows to restore the façade of the building without compromising habitability during both the removal and replacement of the portions constituting the façade.
This and other objects, which will become clearer from the following description, are achieved by the modular element and the process according to the invention, which are characterized in accordance with the claims set forth below.
The advantage achieved with the invention is that of allowing both the aesthetic and energetic renovation of the building with a single coordinated intervention on the outer casing rather than through non-coordinated construction works.
At the same time, the invention allows the enhancement of the building through a contemporary architecture which is more aesthetically appealing. In addition, the invention allows to eliminate the inconvenience and/or loss of income resulting from the need to have the property free of occupants, as conventionally occurs in the application of building renovation processes in accordance with the prior art.
Still advantageously, the invention allows to reduce construction site intervention costs and contingencies.
The invention will now be described further with reference to some of the practical embodiments thereof, given by way of non-limiting example only, illustrated in the accompanying drawings in which:
With reference to the aforementioned figures,
Such modular element 11 comprises an air conditioning unit 14 and a channeling system 16. The air conditioning unit 14 is housed inside a recess 111 of the modular element 11. It should be noted that the dimensions of the air conditioning unit 14 are such as to allow the integration thereof inside the modular element 11. The channeling system 16 comprises one or more channels, including at least one first channel 161 entering the air conditioning unit 14. Furthermore, the channeling system 16 is configured to receive a fluid from an external fluid source 17. The fluid may be a liquid or a gas.
The external fluid source 17 comprises a pump 171 for circulating the fluid inside the channeling system 16. The external fluid source 17 preferably also comprises means for heating and/or cooling the fluid. However, in some cases these means may be omitted in whole or in part. For example, in an embodiment where the fluid is a gas, such means for heating and/or cooling the fluid are only used to cool the fluid. In fact, in the case where the fluid is a gas, the heating can take place inside the modular element 11. That is, the modular element 11 may comprise a direct expansion system (not shown in the accompanying figures) for heating the gas.
In detail, the channeling system 16 comprises one or more inlets 165 configured to be connected to the external fluid source 17 so as to receive the fluid from the external fluid source 17 and input it into the channels of the channeling system 16. This fluid can therefore circulate in the channeling system 16, and in particular in the at least one first channel 161.
The air conditioning unit 14 comprises a mechanical ventilation element 142 configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween. That is, the mechanical ventilation element is configured to heat and/or cool the air inflow. Preferably, said mechanical ventilation element 142 consists of a double cross-flow exchanger for optimized and constant thermal recovery.
The air conditioning unit 14 further comprises a hot and/or cold air diffusion element 141 configured to heat and/or cool the air inflow, and thus the interior environment of the building, using the fluid circulating in the at least one first channel 161 and to input the air inflow into the interior environment of the building. For example, the diffusion element 141 is configured to input the air inflow into the interior of the building via an inlet facing the interior of the building when the modular element 11 is installed in the building.
The heating and/or cooling of the air inflow preferably takes place downstream of the mechanical ventilation element 142, by heat exchange between the airflow and the fluid in the at least one first channel 161. The configurations of the diffusion element 141 and the at least one first channel 161 which allow the best heat exchange are known to those skilled in the art and will therefore not be explored here.
In addition, the air conditioning unit 14 comprises an electronic control element 143 configured to control the hot and/or cold air diffusion element 141 and the mechanical ventilation element 142. The electronic control element 143 allows to control the diffusion element 141 and the mechanical ventilation element 142 according to the air conditioning and thermal comfort needs of the interior environment of the building. In other words, the electronic control element 143 allows to control the degree of heating and/or cooling of the air inflow while simultaneously controlling the air exchange in the interior environment of the building and thus the air quality inside the building.
According to a preferred embodiment of the invention, the channeling system 16 comprises at least one second channel 162 connectable to an internal diffusion element 18 of the building which is distinct from the diffusion element 141 inside the modular element 11. In other words, the channeling system 16 comprises one or more outlets connectable to the internal diffusion element 18 of the building. The inlet 165 is then configured to convey the fluid provided by the external fluid source 17 to the internal diffusion element 18 of the building, and is preferably connected between at least one second channel 162 and at least one outlet 164.
The internal diffusion element 18 of the building is configured to generate hot and/or cold air using the fluid circulating in the at least one second channel 162.
Advantageously, by connecting the at least one second channel 162 to the internal diffusion element 18 of the building it is possible to respond to differentiated air conditioning requirements of the internal environment of the building according to the specificity of the building and of the user and to formal and functional needs.
According to the preferred embodiment of the invention, the air conditioning unit 14 comprises a drainage channel 144. Such drainage channel 144 is configured to drain condensate water produced by the diffusion element 141 to the ground.
Preferably, the modular element 11 comprises windows 12 embedded in the frame of the modular element 11. Still preferably, the windows 12 may incorporate curtains for protection from the sun's rays.
According to the preferred embodiment of the invention, the modular element 11 comprises panels 13 for the partial or total darkening of sunlight. That is, such panels 13 allow the window 12 to be partially or totally darkened. Such panels 13 may be arranged parallel or perpendicular to the window 12, or at intermediate angles, depending on the solar exposure of the building.
Preferably, such panels 13 include devices for generating energy from renewable sources. For example, such panels 13 may be photovoltaic panels.
Preferably, such power generation devices may contribute to the operation of the air conditioning unit 14. More preferably, such power generation devices may contribute to the power supply of the air conditioning unit 14.
According to the preferred embodiment of the invention, the modular element 11 comprises at least one shelf 15 treated with solar rays reflective coating. Such shelf 15 faces the interior of the building when the modular element 11 is installed in the façade 8 of the building. In other words, once the modular element 11 is installed in the façade 8 of the building, reflecting the sun's rays, this shelf 15 allows to improve the diffusion of natural light and limit the risk of glare of the interior environment.
With reference to the aforementioned figures,
The section of the building has been indicated comprehensively with the number 1 and the flooring surfaces of the floors A, B, C, D have been indicated with the number 2, while the respective ceilings have been indicated with 3.
The habitable area in which the furnishings and occupants of the building may be present, also during the construction site works, has been indicated overall with the reference number 4.
According to the first step of the process, this involves the erection of a vertically extending bulkhead 5 between a flooring surface 2 of a floor A, B, C, D and a corresponding overlying ceiling 3.
The bulkhead 5 is removable and capable of delimiting a construction site area 6 between the internal surface 7a of the portion 8a of the façade 8 to be removed and the rear habitable area 4 which continues to be inhabited and in operation, of the floor A, B, C, D of the building where the furnishings and occupants are located.
According to the second step of the process, suspension means comprehensively indicated with the number 10 are provided, for access from the outside to an external surface 7b of the portion 8a of the façade 8 to be removed. Preferably, such suspension means 10 are arranged on the roof floor 9 of the building 1. Alternatively, such suspension means 10 are arranged on the ground, in front of the building 1.
This avoids the need to arrange an extensive construction site area around the building with obvious economic savings.
The third step of the process is implemented by means of the aforementioned suspension means 10, which involves the removal of the single portion 8a of the façade 8 of the façade of the floor A, B, C, D, as schematically illustrated in
Referring to
The process thus comprises a further step in which the modular element 11 is anchored to the façade 8 of the building 1 and electrical and hydraulic connections of the air conditioning unit 14 are performed. For example, the frame of the modular element 11 is connected to a corresponding floor A, B, C, D of the building, while the air conditioning unit 14 is connected to the electrical supply network of the building and the channeling system 16 is connected to the external fluid source 17, as well as to any internal diffusion elements 18 of the building.
Subsequently, the bulkhead 5 is removed with consequent elimination of the construction site area 6 and restoration of the full and total usability of the entire floor A, B, C, D as schematically shown at the floor A of
It should be noted that the process described above can be applied to replace the entire façade 8 of the building with a plurality of modular elements 11. That is, the process can be applied to replace a plurality of portions 8a of the façade 8 with a plurality of modular elements 11, thereby allowing the entire building to be renovated.
The materials as well as the dimensions of the disclosed elements may vary according to needs without thereby departing from the scope of the following claims.
| Number | Date | Country | Kind |
|---|---|---|---|
| 102019000018620 | Oct 2019 | IT | national |
| Number | Date | Country |
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| 102080938 | Jun 2011 | CN |
| 205475754 | Aug 2016 | CN |
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| 102008039010 | Feb 2010 | DE |
| 1467157 | Oct 2004 | EP |
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| 1218141 | Apr 1990 | IT |
| Entry |
|---|
| Italian Search Report and Written Opinion in corresponding Italian Application No. 102019000018620 dated Jul. 1, 2020, 8 pages. |
| Number | Date | Country | |
|---|---|---|---|
| 20210108825 A1 | Apr 2021 | US |
