WO2012083698A1 - 通风降噪装置和通风降噪系统 - Google Patents
通风降噪装置和通风降噪系统 Download PDFInfo
- Publication number
- WO2012083698A1 WO2012083698A1 PCT/CN2011/077848 CN2011077848W WO2012083698A1 WO 2012083698 A1 WO2012083698 A1 WO 2012083698A1 CN 2011077848 W CN2011077848 W CN 2011077848W WO 2012083698 A1 WO2012083698 A1 WO 2012083698A1
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- Prior art keywords
- ventilation
- noise reduction
- module
- air
- vent
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Classifications
-
- H—ELECTRICITY
- H05—ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
- H05K—PRINTED CIRCUITS; CASINGS OR CONSTRUCTIONAL DETAILS OF ELECTRIC APPARATUS; MANUFACTURE OF ASSEMBLAGES OF ELECTRICAL COMPONENTS
- H05K7/00—Constructional details common to different types of electric apparatus
- H05K7/20—Modifications to facilitate cooling, ventilating, or heating
- H05K7/20009—Modifications to facilitate cooling, ventilating, or heating using a gaseous coolant in electronic enclosures
- H05K7/20136—Forced ventilation, e.g. by fans
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F13/00—Details common to, or for air-conditioning, air-humidification, ventilation or use of air currents for screening
- F24F13/24—Means for preventing or suppressing noise
-
- H—ELECTRICITY
- H05—ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
- H05K—PRINTED CIRCUITS; CASINGS OR CONSTRUCTIONAL DETAILS OF ELECTRIC APPARATUS; MANUFACTURE OF ASSEMBLAGES OF ELECTRICAL COMPONENTS
- H05K7/00—Constructional details common to different types of electric apparatus
- H05K7/20—Modifications to facilitate cooling, ventilating, or heating
- H05K7/20009—Modifications to facilitate cooling, ventilating, or heating using a gaseous coolant in electronic enclosures
- H05K7/20136—Forced ventilation, e.g. by fans
- H05K7/20145—Means for directing air flow, e.g. ducts, deflectors, plenum or guides
-
- H—ELECTRICITY
- H05—ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
- H05K—PRINTED CIRCUITS; CASINGS OR CONSTRUCTIONAL DETAILS OF ELECTRIC APPARATUS; MANUFACTURE OF ASSEMBLAGES OF ELECTRICAL COMPONENTS
- H05K7/00—Constructional details common to different types of electric apparatus
- H05K7/20—Modifications to facilitate cooling, ventilating, or heating
- H05K7/20536—Modifications to facilitate cooling, ventilating, or heating for racks or cabinets of standardised dimensions, e.g. electronic racks for aircraft or telecommunication equipment
- H05K7/20554—Forced ventilation of a gaseous coolant
- H05K7/20572—Forced ventilation of a gaseous coolant within cabinets for removing heat from sub-racks, e.g. plenum
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/0001—Control or safety arrangements for ventilation
- F24F2011/0006—Control or safety arrangements for ventilation using low temperature external supply air to assist cooling
Definitions
- Embodiments of the present invention relate to a ventilation noise reduction structure, and more particularly to a ventilation noise reduction device and a ventilation noise reduction system. Background technique
- Cooling down the electronic equipment such as machine rejection is the key to ensuring stable operation of electronic equipment.
- the temperature of the electronic device is lowered, and the fan that drives the cold air generates a large noise.
- the fan runs at a very fast speed, and the noise generated by it has a serious influence on the external environment, which not only reduces People's work efficiency, serious people will also endanger people's physical and mental health. Therefore, noise reduction during the operation of electronic equipment is needed to reduce the impact of noise on the external environment.
- the existing machine rejection is usually provided with a dedicated ventilation noise reduction air duct, and the ventilation noise reduction air passage is connected with the area where the electronic component is installed, and a fan is provided to drive the cold air into the machine to reject the interior or drive the hot air to be exhausted.
- the machine rejects the internal; the noise reduction component is arranged in the ventilation and noise reduction air passage to reduce the noise generated by the operation of the electronic device, and reduce the noise entering the external environment.
- the existing noise reduction channel dedicated to the internal rejection of the machine refuses to perform noise reduction processing, which has the following defects:
- the dedicated noise reduction channel will occupy a large space inside the machine, and the internal space of the machine is limited, and the influence is limited.
- the machine rejects the installation and maintenance of internal electronic components; due to space constraints, the noise reduction and ventilation capabilities of the noise reduction channel set in the machine rejection are limited, which is not suitable for large heat dissipation, small volume rejection, and noise reduction. deal with. Summary of the invention
- the embodiment of the invention provides a ventilation noise reduction device and a ventilation noise reduction system, which does not occupy the internal space of the electronic device, improves noise reduction and ventilation capability, and can be applied to heat dissipation and noise reduction requirements of different types of electronic devices.
- the embodiment of the invention provides a ventilation and noise reduction device, which is installed outside the device to be ventilated and noise-reduced, and includes:
- At least one ventilation module the ventilation module is provided with at least two air passages, and the at least two air passages are connected end to end to form a bypass air passage;
- the ventilation module is provided with a first ventilation port and a second ventilation port, wherein the first ventilation port is in communication with one end of the air channel, and the second ventilation port is in communication with the other end of the air channel.
- Embodiments of the present invention provide a ventilation noise reduction system, including a device to be ventilated and noise reduction, and a ventilation noise reduction device, where the ventilation noise reduction device includes:
- At least one ventilation module the ventilation module is provided with at least two air passages, and the at least two air passages are connected end to end to form a bypass air passage;
- the ventilation module is provided with a first vent and a second vent, the first vent is connected to one end of the air duct, and the second vent is connected to the other end of the air duct;
- the device has a venting port, and the ventilation noise reduction device is installed at a vent of the device, and the first vent of each ventilation module is respectively connected with a corresponding vent on the device.
- the ventilation noise reduction device and the ventilation noise reduction system provided by the embodiments of the present invention provide a bypass air passage by providing a plurality of air passages connected end to end in the noise reduction module, so that the ventilation module can have better noise reduction capability, and the ventilation module
- the air duct can be directly connected to the air inlet or the air outlet of the machine, so that the noise generated by the bypass air passage absorber can be refused.
- the ventilation noise reduction device provided in this embodiment has a simple structure and is convenient to implement, and can be directly installed. On the outside of the machine rejection, as the ventilation and noise reduction equipment of the machine rejection, it does not affect the arrangement of the internal space of the machine rejection.
- the structure of the ventilation module can be effectively utilized to deal with the noise and reduce the machine rejection.
- the influence of the noise generated in the process on the external environment; the ventilation and noise reduction device of the embodiment is directly installed outside the machine rejection It is beneficial to the installation and maintenance of ventilation and noise reduction devices. It can be used for heat dissipation and noise reduction of different machines, especially for large heat dissipation and small volume rejection. It has excellent heat dissipation and noise reduction effects.
- FIG. 1A is a schematic structural view of a ventilation noise reduction device according to Embodiment 1 of the present invention
- FIG. 1B is a perspective perspective structural view of a ventilation module according to an embodiment of the present invention
- FIG. 1C is a schematic cross-sectional structural view of the ventilation module of FIG. 1B;
- 1D is a schematic structural view of a bracket according to an embodiment of the present invention.
- FIG. 2A is a front view of a ventilation noise reduction system according to Embodiment 2 of the present invention.
- Figure 2B is a schematic view of the A - A direction of Figure 2A;
- FIG. 3A is a front elevational view of a ventilation noise reduction device according to Embodiment 3 of the present invention.
- Figure 3B is a left side view of Figure 3A;
- FIG. 4A is a front view of a ventilation noise reduction system according to Embodiment 4 of the present invention.
- Figure 4B is a schematic view of the B - B direction in Figure 4A;
- FIG. 5 is a front view of a ventilation noise reduction system according to Embodiment 5 of the present invention.
- FIG. 6A is a front elevational view of a ventilation noise reduction system according to Embodiment 6 of the present invention.
- Figure 6B is a schematic view of the C-C direction in Figure 6A;
- FIG. 7A is a front elevational view of a ventilation noise reduction device according to Embodiment 7 of the present invention.
- FIG. 7B is a perspective perspective structural view of the ventilation module of FIG. 7A;
- Embodiment 8A is a front elevational view of a ventilation noise reduction system according to Embodiment 8 of the present invention.
- Figure 8B is a schematic view of the D-D direction in Figure 8A;
- FIG. 9 is a front elevational view of a ventilation noise reduction system according to Embodiment 9 of the present invention
- 10A is a front view of a ventilation noise reduction device according to Embodiment 10 of the present invention
- FIG. 10B is a schematic structural view of a ventilation module in the air intake module group of FIG. 10A;
- FIG. 11A is a front elevational view of a ventilation noise reduction system according to Embodiment 11 of the present invention.
- Figure 11B is a schematic view of the E-E direction of Figure 11A. detailed description
- the ventilation noise reduction device configured to be installed outside the device to be ventilated and noise reduction, and may include at least one ventilation module, wherein each ventilation module may be provided with at least two air passages. And the at least two air passages are connected end to end to form a bypass air passage; the ventilation module is further provided with a first ventilation port and a second ventilation port respectively communicating with the two ends of the air passage, respectively, for the device for noise reduction to be ventilated
- the air inlet or the air outlet on the upper side is connected, so that the cold air of the external environment can enter the machine through the ventilation module, or the hot air generated by the machine is rejected by the ventilation module discharge machine. In this way, the noise generated during the operation of the machine can be denoised by the air passage in the ventilation module, and the air passage required for ventilation can be provided.
- the technical solutions of the embodiments of the present invention will be described below as an apparatus for ventilation and noise reduction in the embodiments of the present invention.
- the mechanical rejection of the embodiments of the present invention can be performed, such as a circuit.
- Electronic equipment such as boards.
- embodiments of the present invention are not limited to machine venting and noise reduction processing, but may be used in other equipment that requires ventilation and noise reduction.
- different embodiments are respectively described.
- Embodiment 1 1A is a schematic structural view of a ventilation noise reduction device according to Embodiment 1 of the present invention
- FIG. 1B is a perspective perspective structural view of a ventilation module according to an embodiment of the present invention
- FIG. 1C is a schematic cross-sectional structural view of the ventilation module of FIG. As shown in FIG. 1A, FIG. 1B and FIG.
- the ventilation and noise reduction device of the embodiment includes at least one ventilation module 1 , and at least two air passages 1 1 are disposed in the ventilation module 1 , and the at least two air passages 1 1 end to end
- the ventilation module 1 is further provided with a first vent 12 and a second vent 13 , wherein the first vent 12 communicates with one end of the air duct, and the second vent 13 and the other end of the air duct Connected.
- the ventilation and noise reduction device of the embodiment can be installed at the venting port of the machine rejecting the outside, as the air inlet device or the air outlet device of the machine rejection, and the noise generated by the machine rejection operation is subjected to noise reduction processing, and the absorption machine is refused during operation.
- the generated noise reduces the impact of noise generated by the machine's rejection operation on the external environment.
- the number of the ventilation modules 1 may be one or more. In actual applications, an appropriate number of ventilation modules 1 may be disposed according to the ventilation amount and noise reduction requirements of the machine, and the plurality of ventilation modules 1
- the stacks can be stacked together and installed at the air inlet or outlet of the machine to reject the air inlet or outlet.
- the ventilation and noise reduction device of the embodiment can be applied to the ventilation and noise reduction of the machine that is disposed on the different sides of the air inlet and the air outlet respectively. The application of the embodiment of the present invention in a ventilation noise reduction system will be described in detail later.
- the air passage in the ventilation module 1 is a bypass air passage formed by the end of the plurality of air passages 11.
- the bypass air passage described herein refers to a gyroscopic structure formed by a plurality of air passages.
- the length of the air duct is long and is not a straight channel.
- the air duct of the labyrinth structure can effectively reduce the noise propagating inside, so that the ventilation module 1 can have strong noise reduction capability.
- the plurality of air passages 11 are arranged in parallel, and the plurality of channels arranged in parallel with each other are connected end to end to form a bypass air passage having a convoluted structure.
- the air duct forming the labyrinth structure may be formed by two or more air passages.
- an appropriate number of air passages may be provided according to the noise reduction to obtain a wind of a suitable length.
- the air duct of the labyrinth structure in the ventilation module 1 can perform noise reduction processing on the incoming noise, so that the noise discharged from the second vent 13 of the ventilation module 1 is reduced, thereby reducing the process of the machine rejection.
- a noise reduction component may be disposed in the air duct.
- an active noise reduction component may be disposed in the air duct, or an acoustic material lining may be disposed on an inner wall of the air duct.
- the active noise reduction component may be an active noise reduction system including a microphone and a horn.
- the active noise reduction system may include a controller, a microphone, and a horn, and the controller may collect the air channel through the microphone.
- the noise signal is controlled according to the collected noise signal to generate a sound opposite to the phase of the collected noise signal to superimpose the noise in the air channel to reduce the intensity of the noise in the air channel;
- the acoustic material lining may specifically have An inner wall of the sound absorbing structure, such as a Helmholtz resonator, a perforated plate sound absorbing structure, a thin plate resonance sound absorbing structure, and a lining composed of a compliant material, or the acoustic material lining may also be porous.
- the inner lining of the sound absorbing material, the porous sound absorbing material may include foams such as polyurethane foam, melamine foam, etc., fibers such as polyester fiber, centrifugal glass wool and the like.
- the ventilation module 1 may specifically be a rectangular structure having a cavity, and a baffle 14 may be disposed in the cavity to partition the cavity into the cavity by the baffle 14. At least two air passages 1 1 communicating end to end.
- the baffle can be fixed to the inside of the ventilation module 1 by plugging, so that the ventilation module 1 has the advantages of convenient manufacture and low cost. .
- the ventilation module can also be set to other suitable shapes or structures to meet the needs of installation to the machine; the air ducts in the ventilation module can also be set to a circular shape or other shapes, as long as A labyrinth-shaped air duct can be formed inside the ventilation module to meet the noise reduction requirement of the machine rejection.
- the first vent 12 on the ventilating module 1 can be used to communicate with the air inlet or the air outlet of the machine, so as to take the air passage as a passage for the cold air to enter the machine, or to discharge the air duct as hot air. The channel that the machine refuses.
- the first vent 12 and the second vent 13 may be disposed at a suitable position of the ventilating module 1 according to the installation requirements.
- both ends of the air duct in the ventilating module 1 are located in the ventilating module in this embodiment.
- the same end of the first end, and the first vent 12 is located on the side of the ventilating module 1 near the end, and the second vent 13 is located on the end surface of the ventilating module 1 to meet the need for installation to the machine.
- the ventilation module 1 can be directly mounted to the machine, or can be mounted to the machine by other means, for example, by a bracket.
- the ventilation noise reduction device in this embodiment may further include a bracket on which the ventilation module 1 is mounted, so that the entire ventilation noise reduction device can be fixed to the machine by the bracket.
- FIG. 1D is a schematic structural view of a bracket according to an embodiment of the present invention.
- the bracket 2 in order to facilitate the installation of the ventilation modules, the bracket 2 has a separately installed mounting cavity 21 for accommodating the ventilation modules, so that the ventilation modules are detachably mounted in the corresponding mounting cavity 21, so that When part of the ventilation module is damaged, the damaged ventilation module can be directly taken out, and the ventilation module can be replaced or maintained. During the replacement and maintenance process, the normal operation of other modules will not be affected, and the assembly and maintenance of the ventilation noise reduction device can be facilitated.
- bracket 2 can be mounted on the machine by a fixed connection such as a bolt, and after the bracket 2 is mounted to the machine, the first vent of each ventilation module can be connected with the corresponding air inlet or Vents are connected.
- the first vent and the second vent on the ventilating module 1 may be set according to the position of the vent which is set on the machine and the environment where the machine rejects the external environment, such as the hot air discharge area or the cold air supply area. In the right place.
- the first vent and the second vent on the ventilating module 1 are located at the same end of the ventilating module 1 and are disposed on different sides to meet various ventilation and noise reduction requirements of the machine. .
- the ventilation noise reduction device provided in this embodiment has a plurality of air passages connected in the first and last ends of the noise reduction module, so that the air passage can be returned to the air passage, so that the ventilation module can have better noise reduction capability and ventilation.
- the air duct of the module can be directly connected with the air inlet or the air outlet of the machine, so that the noise generated by the bypass air passage absorber can be rejected.
- the ventilation noise reduction device provided in this embodiment has the advantages of simple structure and convenient implementation, and can be directly Installed on the outside of the machine, it does not affect the arrangement of the machine's internal space. While meeting the needs of the machine's ventilation, it can effectively use the air duct structure of the ventilation module to reduce the noise and reduce the noise generated during the machine's rejection. Impact on the external environment;
- the ventilation and noise reduction device of this embodiment is directly installed on the outside of the machine rejection, which is beneficial to the installation and maintenance of the ventilation noise reduction device.
- FIG. 2A is a front view of a ventilation noise reduction system according to Embodiment 2 of the present invention
- FIG. 2B is a cross-sectional view of the A-A direction of FIG. 2A.
- the ventilation and noise reduction system of this embodiment includes a machine rejection, and the ventilation venting port of the machine is provided with a ventilation noise reduction device, and the ventilation noise reduction device is the device shown in the above-mentioned Figs. 1A to 1D. Specifically, as shown in FIG. 2A and FIG.
- the air vents of the machine rejection 101 include air inlets and air outlets respectively disposed on both sides of the machine rejection 101; air inlets of the machine rejection 101 and Ventilation noise reduction device 201 is respectively disposed at the air outlet, and the ventilation noise reduction device 201 is the device shown in FIG. 1A, and the first ventilation port of the ventilation module 1 in the ventilation noise reduction device 201 is respectively connected to the machine rejection 101.
- the tuyere is connected to the air outlet.
- the outside cold air can enter the interior of the machine rejection 101 through the ventilation noise reduction device 201 disposed at the air inlet, and the hot air formed by the heat exchange inside the machine rejection 101 is set from the outside.
- the ventilation noise reduction device 201 at the tuyere is discharged.
- the noise generated in the process may enter the ventilation module 1 of the ventilation noise reduction device 201.
- the air passage of each ventilation module 1 can be used to reduce noise of the incoming noise, thereby reducing the influence of noise generated during the machine rejection operation on the external environment.
- the outside cold air area that enters the machine rejection and the hot air area that the discharge machine refuses to enter the outside are isolated from each other, and are disposed in the ventilation noise reduction device 201 at the air inlet.
- the second vent of the ventilation module 1 is located at the different end of the machine rejection, as shown by the air flow direction of the arrow in Figure 2B.
- the machine in order to prevent most of the noise generated during the operation of the machine from entering the air duct of each ventilation module 1, the machine refuses to be sealed, and the outer casing of the machine has a strong sound insulation effect, thus, noise It will mainly enter the external environment by the air passages in each ventilation module 1, and the noise will be very small after the noise is removed through the air passage of each ventilation module 1, so that the machine can be effectively reduced during the operation.
- the impact on the external environment improve the noise reduction effect of the machine rejection.
- the ventilation amount in the machine rejection operation ie, the temperature reduction requirement
- a ventilation noise reduction device with a suitable number of ventilation modules can be installed to meet the ventilation and noise reduction requirements of the machine.
- each ventilation module in the ventilation noise reduction device can be stacked and communicated with the ventilation ports provided on the machine, so that the entire ventilation noise reduction system can have better ventilation and noise reduction capability, and the stacking setting
- the ventilation module has a simple structure and is convenient to implement.
- ventilation and noise reduction devices can also be installed only on one side of the device. For example, when the noise generated by the machine is small, only the air inlet of the machine is required to set the ventilation drop. Noise device can be.
- FIG. 3A is a front view of a ventilation noise reduction device according to Embodiment 3 of the present invention
- FIG. 3B is a left side view of FIG. 3A.
- the ventilation and noise reduction device of the embodiment includes an air intake module group and an air outlet module group, and can be applied to the ventilation and noise reduction of the machine disposed on the same side of the air inlet and the air outlet. .
- the number of the ventilation modules 1 is at least two, including the symmetrical arrangement of the air intake module group 10 and the air outlet module group 20, wherein
- the first vent 12 of the ventilating module 1 in the wind module group 10 and the first vent 12 of the ventilating module 1 in the air outlet module group 20 are disposed on the same side, respectively, and the air inlet and the air outlet respectively disposed on the same side of the machine are rejected.
- the second vent 13 of the ventilation module 1 in the air intake module group 10 is located at the first end of the ventilation noise reduction device, as shown in the left direction of FIG.
- the second vent 13 is located at the second end of the ventilation noise reduction device, as shown in In the right direction shown in 3A, the first end and the second end are different ends.
- the ventilation module 1 in this embodiment may specifically be the ventilation module shown in FIG. 1B and FIG. 1C described above.
- the ventilation noise reduction device includes a symmetrical arrangement of the air intake module group 10 and the air outlet module group 20, which can be applied to the noise reduction requirements of the machine refusal provided on the same side of the air inlet and the air outlet.
- the ventilation noise reduction device may be installed on the side of the venting port of the machine, and the first venting port 12 of the ventilation module 1 in the air inlet module group 10 and the air outlet module group 20 respectively
- the tuyere and the air outlet are connected to take the air intake module group 10 as a machine-removed air inlet device, and the air outlet module group 20 is used as a machine-removed air outlet device, and the air intake module group 10 and the air outlet module group 20 are ventilated.
- the second vents 13 of the module 1 are respectively located at the two ends of the machine rejection, so that the cold air of the cold air area of the machine rejection can enter the machine refusal from the second vent of the ventilation module in the air intake module group 10, and the hot air inside the machine is rejected.
- the second vent outlet of the ventilation module in the air intake module group 102 can be rejected, and the hot air area that rejects the outside of the machine can be separated from each other, and the cold air area and the hot air area of the outside are isolated from each other, which can effectively meet the external air circulation when the machine refuses to be actually installed. need.
- the ventilation and noise reduction device of the embodiment When the ventilation and noise reduction device of the embodiment is installed on the side of the machine rejection, the noise generated when the machine is refused to operate enters the ventilation module in the air intake module group 10 and the air outlet module group 20 through the air inlet and the air outlet respectively. Therefore, the air passage of the labyrinth structure in each ventilation module can be utilized to perform noise reduction processing on the noise generated when the machine is refused to operate, thereby reducing the influence of noise generated during the machine rejection operation on the external environment.
- the ventilation and noise reduction device of the embodiment can be applied to the noise reduction requirement of the machine set on the same side of the air inlet and the air outlet, and can be directly installed on the side of the machine to set the vent, and reduce the noise generated when the machine refuses to operate to the outside.
- the influence of the environment can be applied to the ventilation and noise reduction of the machine that is provided with the air inlet and the vent on the same side.
- FIG. 4A is a front view of a ventilation noise reduction system according to Embodiment 4 of the present invention
- FIG. 4B is a schematic view taken along line B-B of FIG. 4A.
- the venting port rejected by the machine in the embodiment is disposed on the same side of the machine rejection, and the venting port of the machine can be rejected.
- the ventilation noise reduction device shown in Figs. 3A and 3B described above is installed.
- the same side of the machine reject 102 in the ventilation and noise reduction system of the present embodiment that is, the right side as shown in FIG. 4A, is provided with an air inlet and an air outlet as a vent.
- the air inlet and the air outlet are symmetrically disposed in front and rear; the left side of the machine 102 is provided with a ventilation noise reduction device 202, which is the device shown in FIG. 3A and FIG. 3B, wherein the ventilation noise reduction device 202
- the air intake module group 10 is located at the air inlet 121
- the air outlet module group 20 is located at the air outlet 122
- the first air outlet of the ventilation module 1 in the air intake module group 10 is connected to the air inlet 121
- the first vent of the ventilation module 1 in 20 is in communication with the air outlet 122.
- the cold air from the outside of the machine 102 can enter the machine refusal 102 from the first vent of the ventilating module 1 in the air intake module group 10, and heat exchange into the hot air in the machine refusal 102. After that, it is discharged from the first vent of the ventilation module 1 in the air outlet module group 20.
- the noise generated when the machine is refused to operate can enter the wind of each ventilation module 1. In the channel, the noise can enter the external environment after the noise reduction processing of each ventilation module 1, so that the noise entering the external environment is reduced.
- the front end and the rear end of the machine refusal 102 are respectively a cold air area and a hot air during the machine refusal operation.
- the area, the cold air area and the hot air area are isolated to facilitate the circulation of outside air, and the cold air area and the hot air area do not affect each other.
- the noise generated during the machine rejection operation can be effectively reduced, and the influence of noise on the external environment is reduced; and, on the side of the machine rejection Ventilation noise reducer for easy installation and maintenance of ventilation and noise reduction devices.
- FIG. 5 is a front elevational view of a ventilation noise reduction system according to a fifth embodiment of the present invention.
- the two sides of the machine are respectively provided with ventilation and noise reduction devices as shown in FIGS. 3A and 3B.
- the two sides of the machine rejection 103 are respectively provided with vents, and both include air inlets and air outlets arranged in front and rear; Ventilation noise reduction devices 203 are provided on both sides, and the ventilation noise reduction device 203 is the device shown in Figs. 3A and 3B described above.
- the cold air that rejects the external environment can enter the machine from the air intake module group on both sides, and the hot air formed after the heat exchange will be discharged from the air outlet module groups on both sides, and the air entering and exiting channels are many. It can meet the demand of the machine to reject large ventilation; at the same time, the noise generated during the machine rejection process will also enter the ventilation modules set on both sides, so as to use the ventilation modules to reduce noise, due to machine rejection Ventilation modules are installed on both sides, which makes the system have better noise reduction and ventilation processing capabilities, and reduces the impact of noise generated during the machine's rejection operation on the external environment.
- the ventilation amount of the machine can be effectively ensured, and the heat dissipation application of the machine having a large heat dissipation requirement can be adapted; Noise reduction is performed on the noise generated when the machine is refused to operate, and the influence of noise generated during the machine rejection operation on the external environment is reduced.
- FIG. 6A is a front view of a ventilation noise reduction system according to Embodiment 6 of the present invention
- FIG. 6B is a diagram
- FIG. 6A and FIG. 6B the upper end of the machine reject 104 is provided with a venting port including an air inlet and an air outlet, and the left and right sides of the air inlet and the air outlet are symmetrically arranged; 3A and the ventilation noise reduction device 204 shown in FIG. 3B.
- the ventilation noise reduction device 204 is the one shown in Figs. 3A and 3B.
- a ventilation noise reduction device is disposed on the upper part of the machine rejection, so that the outside cold air can enter the machine through the air intake module group of the ventilation noise reduction device, and the hot air formed after the heat exchange passes through the ventilation noise reduction device.
- the outlet module group rejects the machine and reduces the temperature of the machine.
- the noise generated during the machine rejection process can enter the ventilation module of the ventilation noise reduction device. Ventilation, so that each ventilation noise reduction mode can be utilized Block to reduce noise and reduce the impact of noise generated by the machine when it refuses to operate.
- FIG. 7A is a front view of a ventilation noise reduction device according to Embodiment 7 of the present invention
- FIG. 7 is a perspective perspective structural view of the ventilation module of FIG.
- the ventilation module in the ventilation noise reduction device in this embodiment may have two second ventilation ports that are disconnected from the machine, so that the ventilation noise reduction device can be installed. Between the two machines, the ventilation and noise reduction of the two machines are achieved.
- the ventilation module 2 in the air intake module group 30 and the air outlet module group 40 in the present embodiment are further disposed.
- vent 15 for communicating with the vent on the machine, so that the first vent 12 and the third vent 15 on the ventilating module 2 can respectively be vented with the two oppositely disposed machines.
- the ventilation and noise reduction device of the embodiment can be installed between the two machines that are oppositely disposed, and communicate with the air vents of the two machines, and the air inlet module group 30 and the air outlet module group 40 can be respectively respectively As two air intake and exhaust devices.
- first venting port 12 and the third venting port 15 are symmetrically arranged to facilitate the symmetrical arrangement of the air inlet or the air outlet of the two machines to facilitate the installation of the ventilation noise reduction device.
- a person skilled in the art can understand that the specific positions of the first vent 12 and the third vent 15 can be set according to the specific position of the vents that are rejected by the two machines to be connected, and the actual application can be based on Need to be properly set.
- the ventilation module in the ventilation and noise reduction device of the embodiment has two vents that communicate with the venting vents of the machine, and can be applied to two machines that are symmetrically arranged, and can be used as the air inlet device and the two machines.
- the wind device, and the noise reduction process generated during the machine rejection process can be applied to the ventilation and noise reduction of the machine with less heat dissipation and less noise.
- Figure 8 is a front view of a ventilation noise reduction system according to Embodiment 8 of the present invention
- Figure 8 is a schematic view of the DD direction in Figure 8A.
- the system of the embodiment includes two symmetric setting machines 105, and the ventilation shown in FIG. 7 ⁇ to FIG. 7 ⁇ is installed between the two machines 105.
- the noise venting device 205, the first venting port and the second venting port of the ventilating module in the ventilating noise reducing device 205 are respectively connected with the corresponding air inlet or outlet of the two machine replies 105, and the ventilation noise reduction device in this embodiment 205 can be used as the air inlet and exhaust device of the two machines at the same time, and can utilize the air passages in each ventilation module 1 to reduce the noise generated during the machine running operation, and reduce the noise generated during the machine rejection process. The impact of noise on the external environment.
- the ventilation and noise reduction of the two machine rejections 105 can be realized, which can effectively reduce the space occupied by the ventilation noise reduction device, and can effectively Ensure that the machine refuses ventilation and noise reduction.
- FIG. 9 is a front elevational view of a ventilation noise reduction system according to Embodiment 9 of the present invention.
- the two sides of the two machines in the embodiment are respectively provided with an air inlet and an air outlet, wherein the two machines are arranged between the two machines as shown in FIG. 7A to FIG. 7B.
- the ventilation noise reduction device 206 is shown, and on the other side of the two machines, a ventilation noise reduction device 207 as shown in Fig. 1A is provided.
- FIG. 8A the two sides of the two machines in the embodiment are respectively provided with an air inlet and an air outlet, wherein the two machines are arranged between the two machines as shown in FIG. 7A to FIG. 7B.
- the ventilation noise reduction device 206 is shown, and on the other side of the two machines, a ventilation noise reduction device 207 as shown in Fig. 1A is provided.
- the air inlets and the air outlets are respectively disposed on two sides of the two machine rejections 106, and the ventilation noise reduction device 206 is disposed between the two machine rejections 106;
- the ventilation noise reduction device 207 wherein the ventilation noise reduction device 206 can be used as an air inlet device shared by the two machines 106, the ventilation noise reduction device 207 acts as an air outlet device for the two machines 106, or the ventilation noise can be reduced.
- the device 206 serves as an air outlet device shared by the two machines 106, and the ventilation noise reduction device 207 serves as an air inlet device for the two machines 106, thereby ensuring the ventilation and noise reduction requirements of the machine, and satisfying the machine to have a large heat dissipation and Noise reduction needs.
- the condition can be effectively met. It is necessary to reduce the temperature of the machine with the requirement of ventilation, and at the same time, it can also have better noise reduction treatment effect, and reduce the influence of the noise generated during the machine rejection operation on the external environment.
- an air driving device 2 is disposed in the first vent and the third vent of the ventilation module of the ventilation noise reduction device for accelerating the circulation of air in the machine rejection.
- the ventilation noise reduction device In order to increase the speed of the outside cold air entering the machine, and to increase the speed of the machine rejecting the internal hot air discharge machine, when installing the ventilation noise reduction device, it is not necessary to consider whether the machine refuses to install the air driving device, only on the ventilation device. By setting the air drive unit, you can meet the ventilation requirements of the machine.
- the air driving device 2 may be specifically a device such as a fan to drive the air to accelerate in a certain direction. Since the air driving device generates noise during operation, the air driving device is installed at the first vent or the second vent communicating with the venting vent, so that when the machine is refused to operate, the noise generated by the air driving device may Absorbed by the air duct of the ventilation module.
- the air driving device may not be disposed in the ventilation module of the ventilation noise reduction device, but the air driving device may be disposed at the corresponding ventilation opening of the machine. It is not necessary to consider the structure required for installing the air drive unit in the ventilation module, and it is not necessary to consider the circuit for controlling the air drive device on the ventilation module. In use, it is only necessary to install the ventilation noise reduction device on the machine rejection. can. In use, the control circuit provided by the machine can be used to control the operation of the air driving device provided thereon, and the speed of the air in and out of the machine can be accelerated, the ventilation amount of the machine can be ensured, and the cooling demand of the machine can be met.
- an air driving device may also be disposed in the first vent or the third vent of the ventilation module of the ventilation noise reduction device, which can ensure the ventilation speed of the machine is rejected, and the ventilation required to ensure the cooling of the machine is ensured.
- more ventilation modules can be used to reduce noise generated by the machine's rejection operation, and the influence of noise generated in the machine rejection operation on the external environment is minimized.
- FIG. 10A is a front view of a ventilation noise reduction device according to Embodiment 10 of the present invention
- FIG. 10B is a schematic structural view of a ventilation module in the air intake module group of FIG. 10A.
- the ventilation module in the air intake module group 50 in the ventilation and noise reduction device of the embodiment is the ventilation module 3 shown in FIG. 10B, specifically, as shown in FIG. 10A and FIG. 10B. It is shown that no air driving device is disposed in the first venting opening 12 of the ventilation module 3 in the air intake module group 50; and the air outlet module group 60 is still in the middle ventilation module 1 shown in FIG. 1C above, and an air driving device is disposed in the first ventilation port of the ventilation module 1.
- the ventilation and noise reduction device of the embodiment can be applied to the machine rejection with large noise reduction requirements, and only needs to be provided by the air driving device disposed in the ventilation module 1 of the air outlet module group 60 to meet the ventilation requirement of the machine rejection.
- the ventilation modules in the air intake module group 50 and the air outlet module group 60 can process the noise generated when the machine is refused to operate, and provide sufficient ventilation for the machine rejection, thereby effectively reducing the occurrence of the machine rejection process. Noise, reducing the impact of noise generated during machine rejection on the external environment.
- FIG. 11A is a front elevational view of a ventilation noise reduction system according to Embodiment 11 of the present invention
- Figure 1 1B is a schematic view of the E-E direction of Figure 11A.
- the air inlet and the air outlet of the air outlet are provided on the same side of the machine rejection 107, and a ventilation noise reduction device 207 is disposed at the air outlet, and the ventilation noise reduction is provided.
- the device 207 is the device shown in FIG. 10A and FIG. 10B, and includes an air intake module group 50 and an air outlet module group 60.
- the air ventilation device is not disposed in the first air outlet of the ventilation module in the air intake module group 50.
- the first vent of the ventilation module in the air outlet module group 60 is provided with an air driving device 3, so that the air can be driven inside the machine rejection 107 under the driving of the air driving device provided in the air outlet module group 60.
- each ventilation module can perform noise reduction processing on noise generated in the machine rejection operation.
- the noise is denoised, which can effectively reduce the impact of noise generated during the machine's rejection process on the external environment.
- An air driving device is disposed in the ventilation module, or an air driving device is disposed in a part of the ventilation module and the air outlet module, as long as the air driving device is provided to meet the ventilation requirement of the machine.
- an air driving device can also be disposed at a part of the air inlet or the air outlet of the machine, which can reduce the machine rejection while satisfying the ventilation required for the machine to refuse operation. The impact of noise generated during operation on the external environment.
- the ventilation noise reduction device may be installed with or without an air driving device, and preferably, a ventilation noise reduction device may be disposed in the ventilation module of the ventilation noise reduction device.
- a ventilation noise reduction device may be disposed in the ventilation module of the ventilation noise reduction device.
- the positions of the first vent and the second vent of the ventilating module may be set according to the requirements of the machine to be ventilated and noise-reduced; or, for each ventilation
- the module assembly is reasonably arranged to meet the ventilation requirements of the machine rejection. For example, the machine is refused to be placed in the machine room to ensure that the cold air and the hot air can be effectively circulated in the machine. When the machine refuses to reduce noise, the machine is rejected. Cooling effect.
- the position of the second air vent of each ventilation module in the ventilation noise reduction device can be reasonably arranged to facilitate the second ventilation as the cold air entering.
- the mouth and the second vent which is discharged as hot air can be located on different sides of the machine rejection, avoiding the mixing of cold air and hot air and reducing the cooling effect of the machine rejection.
- a suitable gas circulation passage can be set according to the needs of the machine, so as to cooperate with the ventilation noise reduction device disposed outside the machine, so that the machine refuses to circulate the air smoothly, and effectively reduces the internal combustion. Heat exchanges heat to improve the heat dissipation of the machine.
- the shape of the first vent, the second vent, and the third vent in the ventilation module may be a circular shape, a square shape, or the like, and the air passage in the ventilation module may be a circle or a square.
- This embodiment is not particularly limited.
- the arrangement and combination of the ventilation modules in the ventilation noise reduction device can be flexibly configured according to the requirements of the machine rejection, as long as the ventilation and noise reduction requirements of the machine rejection can be satisfied.
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Description
通风降噪装置和通风降噪系统
技术领域
本发明实施例涉及通风降噪结构, 尤其涉及一种通风降噪装置和通风 降噪系统。 背景技术
对机拒等电子设备进行降温处理, 是确保电子设备稳定运行的关键。
降低电子设备的温度, 而驱动冷风的风扇会产生较大的噪音, 特别是在发 热量较大的设备, 风扇运转速度极快, 其产生的噪声会对外部环境产生严 重的影响, 不仅会降低人们的工作效率, 严重者还会危害到人们的身心健 康, 因此, 需要对电子设备运行过程中的噪声进行降噪处理, 以降低噪声 对外界环境的影响。
目前, 为减少机拒等电子设备的噪声, 一般是在机拒的内部进行降噪 处理。 具体地, 现有机拒中通常设置有专用的通风降噪风道, 通风降噪风 道与安装电子部件的区域连通处, 设置有风扇, 以便利用风扇驱动冷风进 入机拒内部, 或者驱动热风排出机拒内部; 通风降噪风道内设置有降噪部 件, 以对电子设备运行时产生的噪声进行降噪处理, 减少进入外部环境的 噪声。
但是, 现有在机拒内部设置专用的降噪通道, 对机拒进行降噪处理, 会存在以下缺陷: 专用降噪通道会占用机拒内部较大的空间, 而机拒内部 空间有限, 影响机拒内部电子部件的安装和维护; 因空间限制, 设置在机 拒内的降噪通道的降噪和通风能力均会受到限制, 不适于大散热量、 小体 积的机拒的散热和降噪处理。
发明内容
本发明实施例提供一种通风降噪装置和通风降噪系统, 不会占用电子 设备内部空间, 提高降噪和通风能力, 可适用于不同类型电子设备的散热 和降噪需要。
本发明实施例提供一种通风降噪装置, 用于安装在待通风降噪的设备 的外部, 包括:
至少一个通风模块, 所述通风模块内设置有至少两个空气通道, 所述 至少两个空气通道依次首尾相通形成迂回风道;
所述通风模块上设置有第一通风口和第二通风口, 所述第一通风口与 所述风道的一端连通, 所述第二通风口与所述风道的另一端连通。
本发明实施例提供一种通风降噪系统, 包括待通风降噪的设备和通风 降噪装置, 所述通风降噪装置包括:
至少一个通风模块, 所述通风模块内设置有至少两个空气通道, 所述 至少两个空气通道依次首尾相通形成迂回风道;
所述通风模块上设置有第一通风口和第二通风口, 所述第一通风口与 所述风道的一端连通, 所述第二通风口与所述风道的另一端连通;
所述设备上具有通风口, 所述通风降噪装置安装在所述设备的通风口 处, 且各通风模块的第一通风口分别与设备上相应的通风口连通。
本发明实施例提供的通风降噪装置和通风降噪系统, 通过在降噪模块 内部设置首尾连通的多个空气通道, 得到迂回风道, 使得通风模块可具有 较好的降噪能力, 通风模块的风道可直接与机拒外部的进风口或出风口连 通, 从而可通过迂回风道吸收机拒运行时产生的噪声; 本实施例提供的通 风降噪装置结构简单、 实现方便, 可直接安装在机拒的外部, 作为机拒的 通风和降噪设备, 不影响机拒内部空间的布置, 在满足机拒通风需要的同 时, 可有效利用通风模块的结构对噪声进行处理, 降低机拒运行过程中产 生的噪声对外界环境的影响; 本实施例通风降噪装置直接安装于机拒的外
部, 有利于通风降噪装置的安装和维护, 可适于不同机拒的散热和降噪需 要, 特别是对大散热量、 小体积的机拒, 具有特别好的散热和降噪效果。 附图说明 实施例中所需要使用的附图作简单地介绍, 显而易见地, 下面描述中的附 图仅仅是本发明的一些实施例, 对于本领域普通技术人员来讲, 在不付出 创造性劳动性的前提下, 还可以根据这些附图获得其他的附图。
图 1A为本发明实施例一提供的通风降噪装置的结构示意图; 图 1B为本发明实施例中通风模块的立体透视结构示意图;
图 1C为图 1B中通风模块的剖面结构示意图;
图 1D为本发明实施例中托架的结构示意图;
图 2A为本发明实施例二提供的通风降噪系统的主视图;
图 2B为图 2A中 A - A向的示意图;
图 3A为本发明实施例三提供的通风降噪装置的主视图;
图 3B为图 3A左视图;
图 4 A为本发明实施例四提供的通风降噪系统的主视图;
图 4B为图 4A中 B - B向的示意图;
图 5为本发明实施例五提供的通风降噪系统的主视图;
图 6A为本发明实施例六提供的通风降噪系统的主视图;
图 6B为图 6A中 C-C向的示意图;
图 7A为本发明实施例七提供的通风降噪装置的主视图;
图 7B为图 7A中通风模块的立体透视结构示意图;
图 8A为本发明实施例八提供的通风降噪系统的主视图;
图 8B为图 8A中 D-D向的示意图;
图 9为本发明实施例九提供的通风降噪系统的主视图;
图 10A为本发明实施例十提供的通风降噪装置的主视图; 图 10B为图 10A中进风模块组中通风模块的结构示意图;
图 11 A为本发明实施例十一提供的通风降噪系统的主视图;
图 11B为图 11A中 E-E向的示意图。 具体实施方式
为使本发明实施例的目的、 技术方案和优点更加清楚, 下面将结合本 发明实施例中的附图, 对本发明实施例中的技术方案进行清楚、 完整地描 述, 显然, 所描述的实施例是本发明一部分实施例, 而不是全部的实施例。 基于本发明中的实施例, 本领域普通技术人员在没有做出创造性劳动前提 下所获得的所有其他实施例, 都属于本发明保护的范围。
本发明实施例技术方案提供的通风降噪装置是用于安装在待通风降 噪的设备的外部, 可包括至少一个通风模块, 其中, 每个通风模块内均可 设置有至少两个空气通道, 且该至少两个空气通道依次首尾相通形成迂回 风道; 通风模块上还设置有分别与风道的两端连通的第一通风口和第二通 风口, 分别用于与待通风降噪的设备上的进风口或出风口连通, 使得外界 环境的冷风可通过该通风模块进入机拒内部, 或者机拒内部产生的热风通 过该通风模块排出机拒。 这样, 可通过该通风模块内的风道对机拒运行过 程中产生的噪声进行降噪处理, 并可提供通风所需的风道。
为便于对本发明实施例技术方案的描述, 下文将以机拒作为本发明实 施例中待通风降噪的设备, 对本发明实施例技术方案进行说明, 其中的机 拒是可以安装电子部件, 例如电路板等的电子设备。 本领域技术人员可以 理解的是, 本发明实施例并不限于机拒的通风和降噪处理, 还可以用于其 它需要进行通风和降噪的设备中。 同时, 根据通风降噪装置中通风模块的 配合关系,以及与机拒的配合关系的不同,分别以不同的实施例进行说明。
实施例一
图 1A 为本发明实施例一提供的通风降噪装置的结构示意图; 图 1B 为本发明实施例中通风模块的立体透视结构示意图;图 1C为图 1B中通风 模块的剖面结构示意图。 如图 1A、 图 1B和图 1C所示, 本实施例通风降 噪装置包括至少一个通风模块 1 , 通风模块 1 内设置有至少两个空气通道 1 1 , 该至少两个空气通道 1 1依次首尾相通形成迂回风道; 通风模块 1上 还设置有第一通风口 12和第二通风口 13 , 其中, 第一通风口 12与风道的 一端连通, 第二通风口 13 与风道的另一端连通。 本实施例通风降噪装置 可安装在机拒外部的通风口处, 作为机拒的进风装置或出风装置, 并对机 拒运行中产生的噪声进行降噪处理, 吸收机拒运行过程中产生的噪声, 减 少机拒运行中产生的噪声对外界环境的影响。
本实施例中,通风模块 1的数量可以为 1个或 1个以上,实际应用中, 可根据机拒的通风量和降噪需要, 设置合适数量的通风模块 1 , 且多个通 风模块 1之间可层叠设置在一起, 安装在机拒外部的进风口或出风口处, 以作为机拒的进风装置或出风装置。 本实施例通风降噪装置可适用于进风 口和出风口分别设置在不同侧的机拒的通风和降噪。 后面将会对本发明实 施例在通风降噪系统中的应用进行详细说明。
本实施例中, 通风模块 1 内的风道, 是由多个空气通道 11首尾相通 所形成的迂回风道, 这里所述的迂回风道, 即指多个空气通道形成的回旋 宫式结构的风道长度较长, 且不是直线通道, 该迷宫式结构的风道可有效 对在其内传播的噪声进行降噪, 使得通风模块 1可具有较强的降噪能力。 实际应用中, 所述的多个空气通道 11 相会平行设置, 该相互平行设置的 多个通道依次首尾相连而形成具有回旋式结构的迂回风道。
本实施例中, 形成迷宫式结构的风道可以由 2个或 2个以上的空气通 道连通形成, 实际应用中, 可根据降噪需要, 设置合适数量的空气通道, 以得到具有合适长度的风道, 提高通风模块的降噪能力。
本实施例通风降噪装置安装在机拒的进风口和出风口时, 机拒运行时 产生的噪声可分别通过与机拒的进风口和出风口连通的第一通风口 12,进 入到通风模块 1的风道中, 而通风模块 1内迷宫式结构的风道可对进入的 噪声进行降噪处理, 使得从通风模块 1的第二通风口 13排出的噪声降低, 从而可减少机拒运行过程中产生的噪声对外界环境的影响。
本实施例中, 为提高通风模块的降噪能力, 还可在风道内设置降噪部 件, 例如, 可以在风道内设置主动式降噪部件, 或者在风道的内壁上设置 声学材料内衬, 以通过主动式降噪部件或声学材料来吸收进入风道内的噪 声。 其中, 所述的主动式降噪部件可以是由包括麦克风和喇叭组成的主动 降噪系统, 具体地, 该主动降噪系统可包括控制器、 麦克风和喇八, 控制 器可通过麦克风采集风道内的噪声信号, 并根据采集的噪声信号控制喇八 产生与采集的噪声信号相位相反的声音, 以与风道内的噪声叠加, 降低风 道内噪声的强度; 所述的声学材料内衬具体可以是具有吸声结构的内城, 例如亥姆霍兹共振器、 穿孔板吸声结构、 薄板共振吸声结构、 以及柔顺材 料构成的内衬等, 或者, 所述声学材料内衬, 也可以是多孔性吸声材料构 成的内衬, 多孔性吸声材料可以包括泡沫类, 如聚氨酯泡沫、 三聚氰胺泡 沫等, 纤维类, 如聚酯纤维、 离心玻璃棉等。
本实施例中,如图 1B和图 1C所示,上述的通风模块 1具体可以为具 有空腔的矩形结构, 该空腔内可设置有挡板 14, 以便利用挡板 14将空腔 分隔成首尾相通的至少两个空气通道 1 1。 采用矩形结构, 并通过设置挡板 的方式得到首尾连通的多个空气通道时, 挡板可通过插接的方式固定在通 风模块 1的内部, 使得通风模块 1具有制作方便、 成本较低的优点。
实际应用中, 根据应用场景或其它需要, 通风模块也可设置成其它合 适形状或结构, 以满足安装到机拒上的需要; 通风模块内的风道也可设置 成圆形或其它形状, 只要在通风模块内部可以形成迷宫式结构的风道, 满 足对机拒的降噪需要即可。
本实施例中, 通风模块 1上的第一通风口 12可用于与机拒上的进风 口或出风口连通设置, 以便将风道作为冷风进入机拒内的通道, 或者将风 道作为热风排出机拒的通道。 实际应用中, 可根据安装需要, 将第一通风 口 12和第二通风口 13设置在通风模块 1的合适位置, 优选地, 本实施例 中通风模块 1中的风道的两端位于通风模块 1的同一端,且第一通风口 12 位于通风模块 1靠近端部的侧面上, 第二通风口 13位于通风模块 1的端 面上, 以满足安装到机拒的需要。
本实施例中, 通风模块 1可直接安装到机拒上, 或者, 也可以通过其 它方式, 例如通过托架安装到机拒上。 优选地, 本实施例中通风降噪装置 还可包括有托架, 通风模块 1安装在该托架上, 从而可利用托架将整个通 风降噪装置固接在机拒上。
图 1D为本发明实施例中托架的结构示意图。 如图 1D所示, 为便于 各通风模块的安装, 托架 2上具有容纳各通风模块、 独立设置的安装腔体 21 , 使得各通风模块可拆卸的安装在相应的安装腔体 21 内, 这样, 在部 分通风模块损坏时,可直接将损坏的通风模块取出,更换或维护通风模块, 在更换和维护过程中, 不会影响其它模块的正常工作, 可便于通风降噪装 置的组装以及维护。 本领域技术人员可以理解的是, 托架 2可通过螺栓等 固定连接方式安装在机拒上, 且托架 2安装到机拒后, 各通风模块的第一 通风口可与相应的进风口或通风口连通。
实际应用中, 可根据机拒上设置的通风口的位置, 以及机拒外部的环 境, 如热风排出区域或冷风提供区域的位置, 将通风模块 1上的第一通风 口和第二通风口设置在合适的位置。 优选地, 本实施例中, 通风模块 1上 的第一通风口和第二通风口位于通风模块 1的同一端, 并设置在不同的侧 面上, 以适应各种机拒的通风和降噪需要。
本实施例提供的通风降噪装置, 通过在降噪模块内部设置首尾连通的 多个空气通道, 得迂回风道, 使得通风模块可具有较好的降噪能力, 通风
模块的风道可直接与机拒外部的进风口或出风口连通, 从而可通过迂回风 道吸收机拒运行时产生的噪声; 本实施例提供的通风降噪装置结构简单、 实现方便, 可直接安装在机拒的外部, 不影响机拒内部空间的布置, 在满 足机拒通风需要的同时, 可有效利用通风模块的风道结构对噪声进行降噪 处理, 减少机拒运行过程中产生的噪声对外界环境的影响; 本实施例通风 降噪装置直接安装于机拒的外部, 有利于通风降噪装置的安装和维护。
实施例二
图 2A为本发明实施例二提供的通风降噪系统的主视图; 图 2B为图 2A 中 A - A向的剖面示意图。 本实施例通风降噪系统包括机拒, 该机拒 的通风口处设置有通风降噪装置, 该通风降噪装置为采用上述图 1A〜图 1D所示的装置。 具体地, 如图 2A和图 2B所示, 本实施例通风降噪系统 中, 机拒 101的通风口包括分别设置在机拒 101两侧的进风口和出风口; 机拒 101的进风口和出风口处分别设置有通风降噪装置 201 , 该通风降噪 装置 201为采用上述图 1A所示的装置, 通风降噪装置 201 中通风模块 1 的第一通风口分别与机拒 101上的进风口和出风口连通。
本实施例中, 机拒运行时, 外界的冷风可通过设置在进风口处的通风 降噪装置 201进入机拒 101内部,在机拒 101内部经过热交换形成的热风, 又会从设置在出风口处的通风降噪装置 201排出, 空气的具体流动方向请 参见图 2A和图 2B所示的箭头方向; 同时, 在此过程中产生的噪声会进 入到通风降噪装置 201的各通风模块 1的风道中, 从而可利用各通风模块 1 的风道对进入的噪声进行降噪处理, 减少机拒运行过程中产生的噪声对 外界环境的影响。
本实施例中, 为保证机拒运行时的冷热隔离, 即进入机拒的外界冷风 区域和排出机拒而进入外界的热风区域相互隔离, 设置在进风口处的通风 降噪装置 201 内的通风模块 1 的第二通风口位于机拒的不同端, 如图 2B 所示箭头的空气流通方向。
本实施例中, 为使得机拒运行过程中产生的噪声大部分可进入到各通 风模块 1的风道中,机拒要密封设置,且机拒的外壳具有较强的隔声效果, 这样, 噪声就主要会由各通风模块 1中的风道进入到外界环境, 而噪声经 过各通风模块 1的风道的降噪处理后, 噪音就会变得非常小, 从而可有效 减少机拒运行过程中对外界环境的影响, 提高机拒的降噪效果。
本领域技术人员可以理解, 通风模块 1的数量越多, 对机拒运行中产 生的噪声的降噪效果也就越好, 实际应用中, 可根据机拒运行中的通风量 (即降温需要)以及产生的噪声的大小, 可安装具有合适数量通风模块的 通风降噪装置, 以满足机拒的通风和降噪需要。
本实施例中, 通风降噪装置中的各通风模块可层叠设置, 并与机拒上 设置的各通风口连通, 使得整个通风降噪系统可具有较好的通风、 降噪能 力, 且层叠设置的通风模块具有结构简单, 实现方便。
本领域技术人员可以理解, 根据实际降噪和通风需要, 也可仅在设备 的一侧安装有通风降噪装置, 例如机拒产生的噪声较小时, 只需要在机拒 的进风口设置通风降噪装置即可。
实施例三
图 3A为本发明实施例三提供的通风降噪装置的主视图; 图 3B为图 3A左视图。 与上述图 1A所示实施例不同的是, 本实施例通风降噪装置包 括有进风模块组和出风模块组, 可适用于进风口和出风口同侧设置的机拒 的通风和降噪。 具体地, 如图 3A和图 3B所示, 本实施例通风降噪装置 中, 通风模块 1的数量至少为 2个, 包括对称设置的进风模块组 10和出 风模块组 20, 其中, 进风模块组 10中的通风模块 1的第一通风口 12和出 风模块组 20中的通风模块 1的第一通风口 12同侧设置, 分别与机拒上同 侧设置的进风口和出风口连通; 进风模块组 10中的通风模块 1 的第二通 风口 13位于通风降噪装置的第一端, 如图 3A所示的左侧方向, 出风模块 组 20中的通风模块 1的第二通风口 13位于通风降噪装置的第二端, 如图
3A 所示的右侧方向, 第一端和第二端不同端。 本实施例中的通风模块 1 具体地可为采用上述图 1B和图 1C所示的通风模块。
本实施例中, 通风降噪装置包括对称设置的进风模块组 10和出风模 块组 20, 可适用于进风口和出风口同侧设置的机拒的降噪需要。 具体地, 可将通风降噪装置安装在机拒的通风口所在一侧, 并将进风模块组 10和 出风模块组 20中的通风模块 1的第一通风口 12分别与机拒的进风口和出 风口连通, 以将进风模块组 10作为机拒的进风装置, 将出风模块组 20作 为机拒的出风装置, 且进风模块组 10和出风模块组 20中的通风模块 1的 第二通风口 13 分别位于机拒的两端, 使得机拒外界的冷风区域的冷风可 从进风模块组 10 中通风模块的第二通风口进入机拒内, 机拒内的热风可 通过进风模块组 102中通风模块的第二通风口排出机拒, 进入到机拒外界 的热风区域, 外界的冷风区域和热风区域相互隔离, 可有效满足机拒实际 安装时的外界空气流通需要。
本实施例通风降噪装置安装到机拒的一侧时, 机拒运行时产生的噪声 会通过进风口和出风口分别进入到进风模块组 10和出风模块组 20中的通 风模块中, 从而可利用各通风模块中的迷宫式结构的风道, 对机拒运行时 产生的噪声进行降噪处理, 减少机拒运行过程中产生的噪声对外界环境的 影响。
本实施例通风降噪装置可适用于进风口和出风口同侧设置的机拒的 降噪需要, 可直接安装在机拒上设置通风口的一侧, 降低机拒运行时产生 的噪声对外界环境的影响, 可适用于同侧设置进风口和通风口的机拒的通 风和降噪。
实施例四
图 4A为本发明实施例四提供的通风降噪系统的主视图; 图 4B为图 4A中 B - B向的示意图。 与上述图 2A和图 2B所示系统中的机拒不同的 是, 本实施例中机拒的通风口设置在机拒的同一侧, 该机拒的通风口处可
安装上述图 3A和图 3B所示的通风降噪装置。 具体地, 如图 4A和图 4B 所示, 本实施例通风降噪系统中的机拒 102的同一侧, 即如图 4A所示的 右侧, 设置有作为通风口的进风口和出风口, 其中, 进风口和出风口前后 对称设置;机拒 102的左侧设置有通风降噪装置 202,该通风降噪装置 202 为上述图 3A和图 3B所示的装置, 其中, 通风降噪装置 202中的进风模 块组 10位于进风口 121处, 出风模块组 20位于出风口 122处, 且进风模 块组 10中的通风模块 1的第一通风口与进风口 121连通; 出风模块组 20 中的通风模块 1的第一通风口与出风口 122连通。
本实施例中, 机拒运行时, 机拒 102 外界的冷风可从进风模块组 10 中通风模块 1的第一通风口进入到机拒 102内 , 并在机拒 102内进行热交 换成热风后, 从出风模块组 20中通风模块 1 的第一通风口排出, 空气的 具体流动方向请参见图 4B所示的箭头方向; 机拒运行时产生的噪声可进 入到各通风模块 1的风道内, 噪声可在各通风模块 1的降噪处理后进入到 外界环境, 使得进入外界环境的噪声降低。
本实施例中, 由于进风模组 10和出风模组 20中的第二通风口位于不 同端, 因此, 在机拒运行过程中, 机拒 102的前端和后端分别是冷风区域 和热风区域, 冷风区域和热风区域隔离, 可便于外界空气流通, 且冷风区 域和热风区域互不影响。
本实施例中, 通过在机拒的一侧设置通风降噪装置, 可有效对机拒运 行时产生的噪声进行降噪处理, 降低噪声对外界环境的影响; 而且, 在机 拒的一侧设置通风降噪装置, 可便于通风降噪装置的安装和维护。
实施例五
图 5为本发明实施例五提供的通风降噪系统的主视图。 与上述图 4A 和图 4B所示系统实施例不同的是, 本实施例中机拒的两侧分别设置有如 图 3A和图 3B所示的通风降噪装置。 具体地, 如图 5所示, 机拒 103的 两侧分别设置有通风口,且均包括有前后设置的进风口和出风口;机拒 103
的两侧分别设置有通风降噪装置 203 , 该通风降噪装置 203 为上述图 3A 和图 3B所示的装置。
本实施例中, 机拒外界环境的冷风可从两侧的进风模块组进入到机 拒, 经过热交换后形成的热风, 会从两侧的出风模块组排出, 空气进入和 排出通道多, 可满足机拒大通风量的需求; 同时, 在机拒运行过程中产生 的噪声也会进入到两侧设置的各通风模块中, 以便利用各通风模块对噪声 进行降噪处理, 由于机拒两侧均设置有通风模块, 使得该系统可具有更好 的降噪和通风处理能力, 降低机拒运行过程中产生的噪声对外界环境的影 响。
本实施例中, 通过在机拒两侧设置具有进风功能和出风功能的通风降 噪装置, 可有效保证机拒的通风量, 可适应具有大散热需求的机拒的散热 应用; 同时可对机拒运行时产生的噪声进行降噪处理, 减少机拒运行过程 中产生的噪声对外界环境的影响。
实施例六
图 6A为本发明实施例六提供的通风降噪系统的主视图; 图 6B为图
6A中 C-C向的示意图。 与上述图 4A和图 4B所示系统实施例不同的是, 本实施例可在机拒的上部设置如图 3A和图 3B所示的通风降噪装置。 具 体地, 如图 6A和图 6B所示, 机拒 104的上端设置有包括进风口和出风 口的通风口, 进风口和出风口左右两边对称设置; 机拒 104上部的通风口 处设置有如图 3A和图 3B所示的通风降噪装置 204。 该通风降噪装置 204 为采用图 3A和图 3B所示的装置。
本实施例中, 在机拒的上部设置通风降噪装置, 使得外界冷风可通过 通风降噪装置的进风模块组进入机拒内部, 并将经过热交换后形成的热风 通过通风降噪装置的出风模块组排出机拒, 实现对机拒的降温, 空气的具 体流动方向请参见图 6B所示的箭头方向; 同时, 机拒运行过程中产生的 噪声可进入通风降噪装置的各通风模块的风道, 从而可利用各通风降噪模
块来降低噪声, 降低机拒运行时产生的噪声对外界环境的影响。
实施例七
图 7Α为本发明实施例七提供的通风降噪装置的主视图; 图 7Β为图 7Α中通风模块的立体透视结构示意图。 与上述图 3Α和图 3Β所示装置实 施例不同的是, 本实施例中的通风降噪装置中的通风模块可具有两个与机 拒连通的第二通风口, 使得通风降噪装置可安装在两个机拒之间, 实现对 两个机拒的通风和降噪。 具体地, 如图 7Α和图 7Β所示, 在上述图 1B和 图 1C所示通风模块的基础上, 本实施例中进风模块组 30和出风模块组 40中的通风模块 2上还设置有第三通风口 15 , 用于与机拒上的通风口连 通, 这样, 通风模块 2上的第一通风口 12和第三通风口 15可分别与相对 设置的两个机拒上的通风口连通, 从而使得本实施例通风降噪装置可安装 在相对设置的两个机拒之间, 与两个机拒的通风口连通, 将其中的进风模 块组 30和出风模块组 40可分别作为两个机拒的进风和排风装置。
本实施例中, 第一通风口 12和第三通风口 15对称设置, 以便于对称 设置的两个机拒上的进风口或出风口连通, 以便于通风降噪装置的安装。 本领域技术人员可以理解, 上述的第一通风口 12和第三通风口 15的具体 设置位置, 可根据待连通的两个机拒上的通风口的具体位置而设定, 实际 应用中可根据需要合理设置。
本实施例通风降噪装置中的通风模块具有两个与机拒的通风口连通 的通风口, 可应用于对称设置的两个机拒中, 可同时作为两个机拒的进风 装置和出风装置, 并对机拒运行过程中产生的噪声进行降噪处理, 可适用 于具有较小散热及噪声较小的机拒的通风和降噪中。
实施例八
图 8Α为本发明实施例八提供的通风降噪系统的主视图; 图 8Β为图 8Α中 D-D向的示意图。 如图 8Α和图 8Β所示, 本实施例系统包括有两个 对称设置机拒 105 , 两机拒 105之间安装有上述图 7Α ~图 7Β所示的通风
降噪装置 205 , 通风降噪装置 205中的通风模块的第一通风口和第二通风 口分别与两个机拒 105上对应的进风口或出风口连通, 本实施例中的通风 降噪装置 205可同时作为两个机拒的进风和排风装置, 并可利用各通风模 块 1内的风道, 对机拒运行过程中产生的噪声进行降噪处理, 降低机拒运 行过程中产生的噪声对外界环境的影响。
本实施例中, 通过在两个机拒 105之间设置一个通风降噪装置, 即可 实现对两个机拒 105进行通风和降噪, 可有效降低通风降噪装置的占用空 间, 且可有效保证机拒的通风和降噪。
实施九
图 9为本发明实施例九提供的通风降噪系统的主视图。 与上述图 8A 所示实施例中机拒不同的是, 本实施例中的两个机拒的两侧分别设置有进 风口和出风口,其中两机拒之间设置有如图 7A ~图 7B所示的通风降噪装 置 206, 而在两机拒的另外一侧, 则设置有如图 1A所示的通风降噪装置 207。 具体地, 如图 9所示, 两个机拒 106的两侧分别设置有进风口和出 风口, 两个机拒 106之间设置有通风降噪装置 206; 机拒 106的另一侧设 置有通风降噪装置 207, 其中, 通风降噪装置 206可作为两个机拒 106共 用的进风装置, 通风降噪装置 207作为两个机拒 106的出风装置, 或者, 也可将通风降噪装置 206作为两个机拒 106共用的出风装置, 通风降噪装 置 207作为两个机拒 106的进风装置, 从而保证机拒的通风和降噪需要, 可满足机拒具有较大散热和降噪需求。
本实施例中, 通过在两个机拒之间设置与两个机拒的通风口同时连通 的一通风降噪装置, 并在机拒的另一侧设置另一通风降噪装置, 可有效满 足具有通风量需求的机拒的降温需要, 同时, 也可具有较好的降噪处理效 果, 降低机拒运行过程中产生的噪声对外界环境的影响。
上述本发明各实施例中, 在通风降噪装置的通风模块的第一通风口以 及第三通风口内均设置空气驱动装置 2, 用于加快空气在机拒内的流通,
以提高外界冷风进入机拒内的速度, 以及提高机拒内热风排出机拒的速 度, 这样, 在安装通风降噪装置时, 可不需要考虑机拒是否安装空气驱动 装置, 只需要在通风装置上设置空气驱动装置, 即可满足机拒的通风量需 要。
其中, 上述的空气驱动装置 2具体可以是风扇等装置, 以驱动空气向 一定方向加速流动。 由于空气驱动装置在工作时会产生噪声, 因此, 空气 驱动装置安装在与机拒的通风口连通的第一通风口或第二通风口处, 使得 机拒运行时, 空气驱动装置产生的噪声会被通风模块的风道所吸收。
本领域技术人员可以理解的是, 上述本发明各实施例中, 通风降噪装 置的通风模块内也可不设置空气驱动装置, 而是可以在机拒相应的通风口 处设置空气驱动装置, 这样, 通风模块内可不必考虑安装空气驱动装置所 需的结构, 且也不需要在通风模块上考虑设置控制空气驱动装置的电路 等, 在使用时, 只需要将通风降噪装置安装在机拒上即可。 在使用时, 可 通过机拒上设置的控制电路来控制其上设置的空气驱动装置的工作, 同样 可以加速空气进出机拒的速度,保证机拒的通风量,满足机拒的降温需要。
本发明各实施例中, 也可在通风降噪装置的部分通风模块的第一通风 口或第三通风口内设置空气驱动装置, 可在保证机拒内空气流动速度, 确 保机拒冷却所需通风量的同时, 可利用较多的通风模块来对机拒运行中产 生的噪声进行降噪处理, 最大程度减少机拒运行中产生的噪声对外界环境 的影响。 下面将以具体的实例进行说明。
实施例十
图 10A为本发明实施例十提供的通风降噪装置的主视图; 图 10B为 图 10A中进风模块组中通风模块的结构示意图。 与上述图 3A所示实施例 不同的是, 本实施例通风降噪装置中的进风模块组 50 中通风模块为采用 图 10B所示的通风模块 3 , 具体地, 如图 10A和图 10B所示, 进风模块组 50中通风模块 3的第一通风口 12内未设置空气驱动装置; 而出风模块组
60仍旧为采用上述图 1C所示的中通风模块 1 , 在通风模块 1的第一通风 口内均设置有空气驱动装置。
本实施例通风降噪装置可应用于具有较大降噪需求的机拒中, 只需要 通过设置在出风模块组 60中通风模块 1 中的空气驱动装置就可以满足机 拒的通风量需要, 而通过进风模块组 50和出风模块组 60中的各通风模块 可对机拒运行时产生的噪声进行处理, 在为机拒提供足够通风量的同时, 可有效降低机拒运行过程中产生的噪声, 减少机拒运行过程中产生的噪声 对外界环境的影响。
实施例十一
图 11A 为本发明实施例十一提供的通风降噪系统的主视图; 图 1 1B 为图 1 1A中 E-E向的示意图。 本实施例中, 如图 1 1A和图 1 1B所示, 机 拒 107的同侧设置有作为通风口的进风口和出风口, 且通风口处设置有通 风降噪装置 207,该通风降噪装置 207为采用上述图 10A和图 10B所示的 装置, 包括有进风模块组 50和出风模块组 60, 其中, 进风模块组 50中的 通风模块的第一通风口内没有设置空气驱动装置, 出风模块组 60 中的通 风模块的第一通风口内均设置有空气驱动装置 3 , 这样, 可在出风模块组 60中设置的空气驱动装置的驱动下, 带动空气在机拒 107内部的流动, 并 促使外界的冷风通过进风模块组 50 中通风模块的第二通风口进入机拒内 部, 以满足机拒的通风需要; 同时, 机拒运行过程中产生的噪声可分别进 入到进风模块组 50和出风模块组 60中的各通风模块的风道中, 各通风模 块均可对机拒运行中产生的噪声进行降噪处理。
本实施例中, 只需要在部分通风模块的第一通风口内设置空气驱动装 置, 即可满足机拒冷却所需的进风量, 且可利用设置的较多的通风模块来 对机拒运行中产生的噪声进行降噪处理, 可有效降低机拒运行过程中产生 的噪声对外界环境的影响。
本领域技术人员可以理解的是, 本实施例中, 也可在只在进风模块组
中的通风模块内设置空气驱动装置, 或者, 在进风模块组和出风模块组中 的部分通风模块内设置空气驱动装置, 只要设置的空气驱动装置可以满足 机拒的通风量需要即可。
本领域技术人员可以理解的是, 本实施例中, 也可在机拒上的部分进 风口或出风口处设置空气驱动装置, 可在满足机拒运行所需的通风量的同 时, 降低机拒运行过程中产生的噪声对外界环境的影响。
上述本发明各装置和系统实施例中, 通风降噪装置可以是安装有空气 驱动装置, 也可以不安装空气驱动装置, 优选地, 可在通风降噪装置的通 风模块内设置通风降噪装置, 这样, 可在空气驱动装置损坏时, 直接通过 相应的通风模块, 或者直接将相应的通风模块拿出进行维修即可, 可便于 对通风降噪系统进行维护。
上述本发明各装置实施例中, 可根据待通风和降噪的机拒的需要, 可 对其中的通风模块的第一通风口和第二通风口的位置进行何来设置; 或 者, 对各通风模块组装进行合理布置, 以适应机拒的通风需要, 例如机拒 在机房的设置位置, 确保冷风和热风可有效地在机拒内进行流通, 在对机 拒进行降噪的同时, 确保机拒的降温效果。
上述本发明各系统实施例中, 根据机拒设置的进风口和出风口的位 置, 可合理安排通风降噪装置中各通风模块的第二通风口的位置, 以便于 作为冷风进入的第二通风口和作为热风排出的第二通风口可位于机拒的 不同侧, 避免冷风和热风混合而降低机拒的降温效果。
本发明各系统实施例中, 机拒内可根据需要设置合适的气体流通通 道, 以便与设置在机拒外部的通风降噪装置配合, 使得机拒内空气流通顺 畅, 有效对机拒内产生的热量进行热交换, 提高机拒的散热效果。
本领域技术人员可以理解的是, 通风模块中的第一通风口、 第二通风 口、 第三通风口的形状可以是圆形、 方形等形状, 通风模块中的风道可以 是圆形或方形, 本实施例并不作特别限制。
本发明上述各实施例中, 通风降噪装置中通风模块的排列组合方式可 根据机拒的需要, 而进行灵活配置, 只要可以满足机拒的通风以及降噪需 要即可。
最后应说明的是: 以上实施例仅用以说明本发明的技术方案, 而非对 其限制; 尽管参照前述实施例对本发明进行了详细的说明, 本领域的普通 技术人员应当理解: 其依然可以对前述各实施例所记载的技术方案进行修 改, 或者对其中部分技术特征进行等同替换; 而这些修改或者替换, 并不 使相应技术方案的本质脱离本发明各实施例技术方案的精神和范围。
Claims
1、 一种通风降噪装置, 用于安装在待通风降噪的设备的外部, 其特征在 于, 包括:
至少一个通风模块, 所述通风模块内设置有至少两个空气通道, 所述至 少两个空气通道依次首尾相通形成迂回风道; 所述通风模块上设置有第一通风口和第二通风口, 所述第一通风口与所 述风道的一端连通, 所述第二通风口与所述风道的另一端连通。
2、 根据权利要求 1所述的通风降噪装置, 其特征在于, 所述通风模块的 数量至少为 2个, 包括进风模块组和出风模块组, 其中: 所述进风模块组中的通风模块的第一通风口和出风模块组中的第一通风 口同侧设置, 分别与设备上同侧设置的通风口连通; 所述进风模块组中的通风模块的第二通风口位于所述通风降噪装置的第 一端, 所述出风模块组中的通风模块的第二通风口位于所述通风降噪装置的 第二端, 所述第二端和第一端不同端。
3、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 所述通风模 块上设置有第三通风口, 所述第三通风口与所述第一通风口对称设置, 且所 述第三通风口和第一通风口均与所述风道的同一端连通; 所述通风模块的第一通风口和第三通风口分别与对称设置的两个设备的 进风口连通。
4、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 所述风道的 两端位于所述通风模块的同一端。
5、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 所述通风模 块为具有空腔的矩形模块, 所述空腔内设置有挡板, 所述挡板用于将所述空 腔分割成首尾相通的至少两个空气通道。
6、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 还包括: 托架, 用于将所述通风降噪装置安装在设备上; 所述至少一个通风模块安装在所述托架上。
7、 根据权利要求 6所述的通风降噪装置, 其特征在于, 所述通风模块可 拆卸的安装在所述托架上。
8、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 至少一个通 风模块的第一通风口处设置有空气驱动装置。
9、 根据权利要求 1或 2所述的通风降噪装置, 其特征在于, 所述通风模 块的风道内设置有降噪部件。
10、 一种通风降噪系统, 包括待通风降噪的设备和通风降噪装置, 其特 征在于, 所述通风降噪装置包括: 至少一个通风模块, 所述通风模块内设置有至少两个空气通道, 所述至 少两个空气通道依次首尾相通形成迂回风道; 所述通风模块上设置有第一通风口和第二通风口, 所述第一通风口与所 述风道的一端连通, 所述第二通风口与所述风道的另一端连通; 所述设备上具有通风口 , 所述通风降噪装置安装在所述设备的通风口外 部, 且各通风模块的第一通风口分别与设备上相应的通风口连通。
11、 根据权利要求 10所述的通风降噪系统, 其特征在于: 所述设备的一侧安装有通风降噪装置; 或者, 所述设备的两侧分别安装有通风降噪装置, 且安装在所述设备两 侧的通风降噪装置中通风模块的第二通风口位于机拒的不同端, 以使得外界 冷风和热风区 i或相互隔离。
12、 根据权利要求 11所述的通风降噪系统, 其特征在于, 所述通风降噪 装置具体可包括:
至少数量为 2个以上的通风模块, 包括进风模块组和出风模块组, 其中: 所述进风模块组中的通风模块的第一通风口,用于与设备的进风口连通; 所述出风模块组中的通风模块的第一通风口, 用于与设备的出风口连通; 所述进风模块组中的通风模块的第二通风口和所述出风模块组中的通风 模块的第二通风口分别位于所述设备的不同侧。
13、 根据权利要求 10所述的通风降噪系统, 其特征在于, 对称设置的两 个设备之间设置有通风降噪装置; 所述通风降噪装置中的通风模块上还设置有第三通风口, 所述第三通风 口与所述第一通风口对称设置, 且所述第三通风口和第一通风口均与所述风 道的同一端连通;
所述通风模块的第一通风口和第三通风口分别与所述两个设备的通风口 连通。
14、 根据权利要求 10所述的通风降噪系统, 其特征在于, 至少一个通风 模块的第一通风口处设置有空气驱动装置。
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Also Published As
Publication number | Publication date |
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US20150181759A1 (en) | 2015-06-25 |
CN102318459A (zh) | 2012-01-11 |
US20140069735A1 (en) | 2014-03-13 |
US9402333B2 (en) | 2016-07-26 |
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