Lithium cell group can quick radiating dust catcher that chargesTechnical Field
The invention relates to an improvement of a charging dust collector, in particular to a charging dust collector which can continuously and quickly take heat generated by a lithium battery pack during working out of a dust collector body together with wind discharged by an air duct pipe, so that the temperature of the lithium battery pack can be timely controlled to a certain extent, and the lithium battery pack in a required range can quickly dissipate heat.
Background
According to any lithium battery charging dust collector sold in the current market, the dust collector can generate heat at high temperature continuously when a lithium battery pack of the dust collector works, and the protection device in the lithium battery pack is switched on to stop supplying power to the outside even when the temperature in the battery pack is too high due to continuous rising of the temperature in the power supply process of the lithium battery pack, and a large amount of electric energy in the lithium battery pack cannot be released at the moment. Causing the cleaner to suddenly stop working during use. Bringing great inconvenience to users and even considering the quality problem of products.
Therefore, the charging dust collector is developed, and can continuously and quickly take heat generated by the lithium battery pack during working out of the dust collector body together with air exhausted by the air duct pipe, so that the temperature of the lithium battery pack can be controlled to a certain extent in time, and the lithium battery pack within a required range can quickly dissipate heat.
Disclosure of Invention
The invention mainly solves the technical problem of providing a charging dust collector which can continuously and quickly carry heat generated by a lithium battery pack during working out of a dust collector body together with air discharged by an air duct pipe, so that the temperature of the lithium battery pack can be timely controlled to a certain extent, and the lithium battery pack within a required range can be quickly cooled.
In order to solve the technical problems, the invention adopts a technical scheme that: the charging dust collector comprises a first shell and a second shell; a dust barrel assembly is arranged in the first shell; a vacuumizing motor is arranged in the second shell; the second shell is communicated with the first shell; the dust barrel component is used for collecting dust; the vacuumizing motor in the second shell is used for vacuumizing; the second shell is provided with an air outlet, and an air duct pipe is arranged in the second shell; the air duct pipe is communicated with the vacuumizing motor and the air outlet hole, so that air pumped by the vacuumizing motor is directly discharged from the air outlet hole; the vacuum pumping motor, the air duct pipe and the air outlet hole form an independent closed air flow channel; a lithium battery pack shell is arranged on the outer wall of the second shell; a lithium battery pack is arranged in the lithium battery pack shell; the lithium battery pack provides electric energy for the vacuumizing motor; the lithium battery pack shell is provided with a lithium battery pack air inlet and a lithium battery pack air outlet; lithium cell group fresh air inlet and lithium cell group exhaust vent intercommunication, the during operation, the air current can follow lithium cell group fresh air inlet and get into lithium cell group shell, flows the air inlet duct pipe from lithium cell group exhaust vent again to along with the intraductal exhaust wind of wind outflow exhaust vent together, the heat that the during operation production of lithium cell group was taken away to the air current simultaneously reduces the operating temperature of lithium cell group, in order to protect lithium cell group.
Preferably, the air outlet is opposite to the vacuum-pumping motor, so that the running distance of the air flow in the air duct pipe is as short as possible.
Preferably, an air outlet filter sheet is arranged in the air duct pipe; the air outlet filter sheet is positioned between the vacuumizing motor and the air outlet hole.
Preferably, the communication position of the air outlet of the lithium battery pack and the air duct pipe is located between the air outlet filter sheet and the air outlet and is close to the air outlet.
Preferably, the air outlet of the lithium battery pack is obliquely arranged, and the air outlet end of the air outlet of the lithium battery pack is closer to the air outlet than the air inlet end of the air outlet.
Preferably, a sealing material is arranged between the contact part of the air duct pipe and the vacuum-pumping motor so as to prevent air in the air duct pipe from flowing back to the air inlet end of the vacuum-pumping motor.
Due to the application of the technical scheme, compared with the prior art, the invention has the following advantages:
in the charging dust collector with the lithium battery pack capable of dissipating heat quickly, the vacuum pumping motor, the air duct pipe and the air outlet hole form an independent closed air flow channel; meanwhile, the air outlet hole of the lithium battery pack is communicated with the air duct pipe; when the air-conditioning system works, under the suction of atmospheric air flow discharged at a high speed in the air duct pipe, due to the siphoning characteristic of the air speed, air in the shell of the lithium battery pack can be sucked into the air duct pipe from the air outlet of the lithium battery pack and is discharged from the air outlet; meanwhile, the heat generated during the working of the lithium battery pack in the lithium battery pack shell is continuously and rapidly taken out of the dust collector body together with the air exhausted from the air duct pipe, so that the temperature of the lithium battery pack can be timely controlled to be within a required range, and the phenomenon that the temperature of the charging dust collector is continuously increased due to the continuous discharging of the lithium battery pack during the working of the charging dust collector and the dust collector stops working is thoroughly solved.
Drawings
Fig. 1 is a cross-sectional view of a rechargeable dust collector with a lithium battery pack capable of dissipating heat quickly according to the present invention;
FIG. 2 is a cross-sectional view A-A of FIG. 1; the parts in the drawings are numbered as follows: 1. a first housing; 2. a dirt cup assembly; 3. a second housing; 4. an air duct pipe; 5. an air outlet; 6. a vacuum-pumping motor; 7. a sealing material; 8. an air outlet filter disc; 9. a lithium battery pack housing; 10. a lithium battery pack; 11. and a vent hole of the lithium battery pack.
Detailed Description
The following detailed description of the preferred embodiments of the present invention, taken in conjunction with the accompanying drawings, will make the advantages and features of the invention easier to understand by those skilled in the art, and thus will clearly and clearly define the scope of the invention.
In an embodiment of the present invention, referring to fig. 1 to 2, a charging dust collector with a lithium battery pack capable of dissipating heat rapidly includes afirst housing 1 and asecond housing 3; adust barrel component 2 is arranged in thefirst shell 1; a vacuumizingmotor 6 is arranged in thesecond shell 3; thesecond housing 3 is communicated with thefirst housing 1; anair outlet 5 is formed in thesecond shell 3, and anair duct pipe 4 is arranged in thesecond shell 3; theair duct pipe 4 is communicated with the vacuumizingmotor 6 and theair outlet 5, so that air pumped by the vacuumizingmotor 6 is directly discharged from theair outlet 5; thevacuum pumping motor 6, theair duct pipe 4 and theair outlet 5 form an independent closed air flow channel.
Thedust bucket assembly 2 is used for collecting dust; the vacuum-pumpingmotor 6 in thesecond housing 3 is used for vacuum-pumping.
In this embodiment, a sealingmaterial 7 is disposed between the contact portions of theair duct pipe 4 and the vacuum-pumpingmotor 6 to prevent the air in theair duct pipe 4 from flowing back to the air inlet end of the vacuum-pumpingmotor 6.
In the embodiment, theair outlet 5 is over against the vacuum-pumpingmotor 6, so that the running distance of the air flow in theair duct pipe 4 is as short as possible; an airoutlet filter sheet 8 is arranged in theair duct pipe 4; the airoutlet filter sheet 8 is positioned between the vacuumizingmotor 6 and theair outlet 5, so that air flow is subjected to dust filtration for the last time before being discharged out of theair outlet 5, the cleanliness of the air flow discharged from theair outlet 5 is improved as much as possible, and secondary pollution is prevented.
A lithiumbattery pack shell 9 is arranged on the outer wall of thesecond shell 3; alithium battery pack 10 is arranged in the lithiumbattery pack shell 9; thelithium battery pack 10 provides electric energy for the vacuumizingmotor 6; a lithium battery pack air inlet hole (not shown) and a lithium battery packair outlet hole 11 are formed in the lithiumbattery pack shell 9; lithium cell group fresh air inlet and the 11 intercommunications of lithium cell group exhaust vent to the air current can follow the fresh air inlet of lithium cell group and get into lithiumcell group shell 9, flows out from lithium cellgroup exhaust vent 11 again, and the heat that the during operation oflithium cell group 10 produced is taken away to the air current simultaneously, reduces the operating temperature oflithium cell group 10, in order to protectlithium cell group 10.
Theair outlet hole 11 of the lithium battery pack is communicated with theair duct pipe 4; in this embodiment, the communication position between theair outlet 11 of the lithium battery pack and theair duct pipe 4 is located between the airoutlet filter sheet 8 and theair outlet 5 and is close to theair outlet 5; because the air flow velocity at this connection will be relatively faster, the suction force to the air inside the lithiumbattery pack case 9 is greater; lithium cellgroup exhaust vent 11 slope sets up, lithium cellgroup exhaust vent 11's air-out end is closer than its air inlet end fromexhaust vent 5, makes the air current follow lithium cellgroup exhaust vent 11 back of coming out, directly facesexhaust vent 5.
Due to the application of the technical scheme, compared with the prior art, the invention has the following advantages:
in the charging dust collector with the lithium battery pack capable of dissipating heat rapidly, thevacuum pumping motor 6, theair duct pipe 4 and theair outlet 5 form an independent closed air flow channel; meanwhile, theair outlet 11 of the lithium battery pack is communicated with theair duct pipe 4; when the air-conditioning system works, under the suction of atmospheric current discharged at high speed from theair duct pipe 4, due to the siphoning characteristic of the air speed, the air in the lithiumbattery pack shell 9 is sucked into theair duct pipe 4 from theair outlet 11 of the lithium battery pack and is discharged from theair outlet 5; meanwhile, heat generated during the working of thelithium battery pack 10 in the lithiumbattery pack shell 9 is continuously and rapidly taken out of the dust collector body together with the air exhausted from theair duct pipe 4, so that the temperature of thelithium battery pack 10 can be timely controlled to be within a required range, and the phenomenon that the temperature of the charging dust collector is continuously increased due to the continuous discharging of thelithium battery pack 10 during the working process and the dust collector stops working is thoroughly solved.
The above description is only an embodiment of the present invention, and not intended to limit the scope of the present invention, and all equivalent structures made by using the contents of the specification and the drawings of the present invention or directly or indirectly applied to other related technical fields are included in the scope of the present invention.