A dead angle-proof workshop environment treatment device for new energy battery production

Abstract

The present invention relates to the field of air conditioning technology, and specifically discloses an anti-dead angle workshop environment treatment device for new energy battery production, comprising a shell, a control panel fixedly connected to the side wall of the shell, a first fixed shell installed in the shell, a guide tube fixedly connected in the first fixed shell, the guide tube penetrates the shell and is fixedly connected thereto, a first air guide shell fixedly connected in the shell, the first air guide shell fixedly connected and connected to a diverter shell, the diverter shell fixedly connected and connected to a plurality of second air guide shells, the shell embedded with a first fixed frame, the first fixed frame fixedly connected to uniformly distributed second fixed shells, the second fixed shell rotatably provided with a rotating shell. The present invention utilizes uniformly distributed rotating shells to perform swinging jets in different ways to complete all-round blowing of the air in the workshop, reduce air stagnation in the dead angle areas in the workshop, and thus facilitate all-round treatment of the air in the workshop by the device.

Description

Technical Field

[0001] The present invention relates to the technical field of air conditioning, and in particular to an anti-dead-angle workshop environment treatment device for new energy battery production. Background Art

[0002] The production of new energy batteries is mostly carried out in corresponding workshops. In order to improve the comfort of the production environment, air conditioning devices are often installed in the workshop to adjust the humidity and temperature of the air to create a suitable working temperature and humidity. However, due to the large scope of the workshop, when the air conditioning device is working to circulate the air in the workshop, it is restricted by the dead corners in the workshop. Some stagnant gases are easily retained in this area, resulting in incomplete air treatment in the workshop. At the same time, when the battery shell is welded in the workshop, trace amounts of harmful gases generated by welding float in the air, and then a large amount of harmful gases accumulate in the dead corners. When the operator passes through the dead corners, it is very easy for the operator to inhale excessive harmful gases, endangering the health of the operator. Summary of the invention

[0003] In order to overcome the problem of incomplete air circulation, which leads to poor air treatment effect in the workshop, the present invention provides an anti-dead-angle workshop environment treatment device for new energy battery production.

[0004] The technical implementation scheme of the present invention is: a dead angle prevention workshop environment treatment device for new energy battery production, comprising a shell, a control panel fixedly connected to the side wall of the shell, a first fixed shell installed in the shell, a guide tube fixedly connected in the first fixed shell, the guide tube penetrates the shell and is fixed thereto, a first air guide shell fixedly connected in the shell, a pump body connected to the first air guide shell and the first fixed shell fixedly connected in the shell, the first air guide shell fixedly connected and connected to a diverter shell fixed to the shell, the diverter shell fixedly connected and connected to a plurality of second air guide shells, the plurality of second air guide shells are arranged in a fan shape, the shell is embedded with a first fixed frame, the first fixed frame is fixedly connected to uniformly distributed second fixed shells, the second fixed shell is fixedly connected and connected to the adjacent second air guide shells, the second fixed shell is rotatably provided with a rotating shell, the lowermost rotating shell is provided with a swing mechanism for expanding the swing range of the ejected gas, and the shell is provided with a driving mechanism for controlling the swing mode of the uniformly distributed rotating shell.

[0005] The swing mechanism includes a swing shell, which is rotatably arranged on the rotating shell at the lowest side, and one end of the swing shell located outside the adjacent rotating shell is fixedly connected to a spur gear, and the second fixed shell at the lowest side is fixedly connected to a rack meshing with the spur gear.

[0006] The driving mechanism comprises two symmetrical fixing plates, both of which are fixedly connected to the first fixing frame, a first rotating shaft is rotatably arranged between the two fixing plates, the fixing plate on the lower side is fixedly connected to a first servo motor, an output shaft of the first servo motor is fixedly connected to the first rotating shaft, a spirally distributed limiting plate is fixedly connected to the first rotating shaft, a spline rod is fixedly connected between the two fixing plates, and a first sliding frame is slidably arranged with a uniformly distributed first sliding frame, a spring is installed between the first sliding frame and the spline rod, a side wall of the rotating shell is fixedly connected to an L-shaped rod, the second fixed shell is provided with an arc groove for sliding adjacent to the L-shaped rod, the first sliding frame is provided with a sliding groove for slidingly cooperating with adjacent to the L-shaped rod, the first sliding frame is provided with a convex column for extruding and cooperating with adjacent to the limiting plate, and a limiting component for uniformly distributing the synchronous movement of the first sliding frame is provided on the shell.

[0007] The limiting assembly includes a second rotating shaft, the second rotating shaft is rotatably set on the shell, a driving motor is fixedly connected to the side wall of the shell, the output shaft of the driving motor is fixedly connected to the second rotating shaft, the second rotating shaft is slidingly set with a third rotating shaft, the third rotating shaft penetrates the two fixed plates and is slidably connected thereto, a tension spring is installed between the third rotating shaft and the fixed plate on the lower side, the third rotating shaft is fixedly connected with evenly distributed protrusions, and the first sliding frame is provided with grooves for limiting cooperation with adjacent protrusions.

[0008] The control mechanism further comprises a regulating mechanism, wherein the regulating mechanism is arranged on the diverter shell, and the regulating mechanism is used to control the number of jets uniformly distributed on the rotating shell, the regulating mechanism comprises a second fixed frame, the second fixed frame is rotatably arranged in the diverter shell, the diverter shell is provided with two symmetrical rectangular holes, the rectangular hole of the diverter shell is communicated with the adjacent second air guide shell, the second fixed frame penetrates the shell and is rotatably connected thereto, the side wall of the shell is rotatably provided with a first rotating shaft through a bracket, the second fixed frame and the first rotating shaft are driven by a bevel gear set, the side wall of the shell is fixedly connected with a third fixed frame, the third fixed frame is rotatably provided with a second rotating shaft, the second rotating shaft and the first rotating shaft are driven by a bevel gear set, the second rotating shaft is rotatably provided with a third rotating shaft, the third rotating shaft and the first rotating shaft are driven by a bevel gear set, a switching component for driving the second rotating shaft and the third rotating shaft is provided on the third fixed frame, and an adjusting component for adjusting the number of openings is provided on the second fixed frame.

[0009] The switching assembly includes a first electric push rod, which is fixedly connected to the third fixed frame. The third fixed frame is slidably provided with a sliding plate, which is fixedly connected to the telescopic end of the first electric push rod. A limit block is rotatably provided on the sliding plate, and the third rotating shaft is provided with a spline groove. The limit block is located in the spline groove of the third rotating shaft and slides, and the limit block is limitedly matched with the second rotating shaft.

[0010] The regulating assembly includes a uniformly distributed fourth fixed shell, the uniformly distributed fourth fixed shells are all embedded in the second fixed frame, the uniformly distributed fourth fixed shell and two rectangular holes on the diverter shell are circumferentially equidistantly distributed, the fourth fixed shell is communicated with the adjacent second air guide shell, a first sliding shell for blocking itself is slidably arranged in the fourth fixed shell, a second electric push rod is fixedly connected to the side wall of the shell, a second electric push rod is fixedly connected to the telescopic end of the second electric push rod with a second sliding shell that penetrates the shell and is slidably connected thereto, the second sliding shell is rotatably connected to the second fixed frame, a rotating frame is rotatably arranged on the second sliding shell, the second fixed frame is slidably arranged with a uniformly distributed second sliding frame, the second sliding frame is fixedly connected to the adjacent first sliding shell, the rotating frame is provided with uniformly distributed sliding grooves, the second sliding frame is located in the adjacent sliding grooves on the rotating frame and slides, and a diverter component for stirring the gas therein is provided on the second fixed frame.

[0011] The sliding groove on the rotating frame close to the rectangular hole on the splitter shell is a first guide groove, and the remaining sliding grooves on the rotating frame are second guide grooves. The shape of the second guide groove is centrally symmetrical to the shape of the first guide groove.

[0012] The flow dividing component comprises a rotating sleeve, which is rotatably arranged on the second fixed frame, and both ends of the rotating sleeve are fixedly connected with impellers, and the side wall of the rotating sleeve is fixedly connected with spiral blades, and the spiral blades are located between the two impellers.

[0013] The invention also includes a dehumidification mechanism for changing the gas flow path, the dehumidification mechanism is arranged in the first fixed shell, the dehumidification mechanism includes a third sliding shell, the third sliding shell is slidably arranged in the first fixed shell, and the first fixed shell and the shell body are both provided with a sliding groove for the sliding of the third sliding shell, the third sliding shell is provided with a baffle for shielding the sliding groove on the first fixed shell, a spring is installed between the third sliding shell and the first fixed shell, a fifth fixed shell is fixedly connected to the lower side of the third sliding shell, the fifth fixed shell is provided with a through hole communicating with the air inlet on the first fixed shell, a second servo motor is fixedly connected to the upper side of the fifth fixed shell, the output shaft of the second servo motor penetrates the fifth fixed shell and is rotatably connected thereto, a rotating frame fixedly connected to the output shaft of the second servo motor is rotatably arranged in the fifth fixed shell, a sponge is installed on the rotating frame, a roller for squeezing the sponge is rotatably arranged on the fifth fixed shell, the fifth fixed shell is provided with evenly distributed drainage ports located at the lower side of the roller, and a liquid guide shell is fixedly connected to the drainage port on the fifth fixed shell.

[0014] The present invention has the following advantages: the present invention utilizes a uniformly distributed rotating shell to perform swing jetting in different modes, completes all-round blowing of the air in the workshop, reduces the trapped air in the dead corner area of ​​the workshop, and thus facilitates the all-round treatment of the air in the workshop by the device; through the swinging of the swinging shell, the blowing range of the gas sprayed by the device is expanded, and the flow efficiency of the gas in the workshop is further improved, thereby improving the treatment efficiency of the air environment in the workshop by the device; through the rotation of the second fixed frame, and then in conjunction with the blocking of the adjacent fourth fixed shell by multiple first sliding shells, the amount of gas sprayed by the uniformly distributed rotating shell is controlled, thereby blowing the gas in the workshop in different modes, so that the gas in the workshop flows in different modes, and the diversity of the device is improved; and the uniformly distributed rotating shell is used to swing and jet in sequence, and the gas in the workshop is continuously lifted and blown, so that the harmful gas generated by welding in the workshop is prevented from being inhaled into the body by the operator; the water vapor in the air is pre-absorbed by the sponge, and then in conjunction with the squeezing of the roller, the sponge continuously dehumidifies the air with high humidity, and the load of the guide tube is reduced, thereby improving the stability of the dehumidification effect of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0016] Figure 2 It is a schematic diagram of the structure of the parts in the housing of the present invention;

[0017] Figure 3 It is a cross-sectional view of the components of the flow divider shell and the second air guide shell of the present invention;

[0018] Figure 4It is a schematic diagram of the three-dimensional structure of the regulating mechanism of the present invention;

[0019] Figure 5 It is a cross-sectional view of the components of the rotating shell and the swinging shell of the present invention;

[0020] Figure 6 It is a three-dimensional structural schematic diagram of the driving mechanism of the present invention;

[0021] Figure 7 is a cross-sectional view of the driving mechanism of the present invention;

[0022] Figure 8 is a cross-sectional view of the limiting assembly of the present invention;

[0023] Fig. 9 It is a cross-sectional view of the components of the splitter shell and the second fixing frame of the present invention;

[0024] Fig.10 It is a schematic diagram of the structure of the components at the second rotating shaft and the third rotating shaft of the present invention;

[0025] Fig.11 An exploded view of the switching assembly of the present invention;

[0026] Fig.12 is a cross-sectional view of the adjustment assembly of the present invention;

[0027] Fig.13 It is a structural schematic diagram of the components of the second electric push rod and the rotating frame of the present invention;

[0028] Fig.14 It is a schematic diagram of the three-dimensional structure of the diversion component of the present invention;

[0029] Fig.15 It is a three-dimensional structural schematic diagram of the moisture removal mechanism of the present invention;

[0030] Fig.16 It is an exploded view of the moisture removal mechanism of the present invention.

[0031] Among them: 1-shell, 11-control panel, 12-first fixed shell, 121-guide tube, 13-first air guide shell, 131-pump body, 14-diverter shell, 15-second air guide shell, 16-first fixed frame, 17-second fixed shell, 18-rotating shell, 19-swinging shell, 191-spur gear, 192-rack, 2-fixed plate, 21-first rotating shaft, 22-first servo motor, 23-limiting plate, 24-spline rod, 25-first sliding frame, 26-L-shaped rod, 3-second rotating shaft, 31-drive motor, 32-third rotating shaft, 33-bump, 4-second fixed Frame, 41-first rotating shaft, 42-third fixed frame, 43-second rotating shaft, 44-third rotating shaft, 5-first electric push rod, 51-sliding plate, 52-limiting block, 6-fourth fixed shell, 61-first sliding shell, 62-second electric push rod, 63-second sliding shell, 64-rotating frame, 641-first guide groove, 642-second guide groove, 65-second sliding frame, 7-rotating sleeve, 71-impeller, 72-spiral blade, 8-third sliding shell, 81-fifth fixed shell, 82-second servo motor, 83-rotating frame, 831-sponge, 84-roller, 85-liquid guide shell. DETAILED DESCRIPTION

[0032] It should be understood that the specific embodiments described herein are only used to explain the present invention, and are not used to limit the present invention.

[0033] Research has found that in the process of circulating air in the workshop, due to the limiting effect of the shapes of different corners in the workshop, the monotonous gas blowing is not conducive to the air flow in the corner area, and due to the limiting effect of the swinging area of ​​the shutters in the air circulation device, the gas cannot blow all areas of the workshop in an all-round way, causing the gas in some areas to be stagnate, resulting in incomplete subsequent air treatment. At the same time, due to the welding operation in the workshop, the harmful gases generated by welding are very likely to accumulate in the corner area. When the operator passes through this area later, the operator is very likely to inhale excessive harmful gases, endangering the operator's health.

[0034] In view of this discovery, the present invention designs a workshop environment treatment device that can improve and expand the gas blowing range and reduce air retention in the workshop.

[0035] Embodiment 1: A dead angle prevention workshop environment treatment device for new energy battery production, such as Figure 1-Figure 4As shown, it includes a shell 1, an air inlet is provided at the lower part of the shell 1, a filter screen for filtering impurities is installed at the air inlet of the shell 1, a control panel 11 is fixedly connected to the front side wall of the shell 1, a first fixed shell 12 is installed in the shell 1, a guide pipe 121 is fixedly connected in the first fixed shell 12, the guide pipe 121 penetrates the shell 1 and is fixedly connected thereto, the guide pipe 121 is connected to an existing temperature adjustment unit, and the temperature of the flowing liquid in the guide pipe 121 is adjusted by the temperature adjustment unit, so as to achieve the temperature adjustment of the circulating air, a first air guide shell 13 is fixedly connected in the shell 1, the lower end of the first air guide shell 13 is connected to a pump body 131 connected to the upper side of the first fixed shell 12, the pump body 131 is electrically connected to the control panel 11, the first air guide shell 13 is fixedly connected and connected to a diverter shell 14 fixed to the shell 1, and the front side of the diverter shell 14 is fixedly connected and connected to Five second air guide shells 15 are arranged in a fan shape, a first fixed frame 16 is embedded in the upper part of the front side of the shell 1, the first fixed frame 16 is fixedly connected with five evenly distributed second fixed shells 17, the second fixed shells 17 are fixedly connected and communicated with the adjacent second air guide shells 15, a rotating shell 18 connected with the adjacent second air guide shells 15 is rotatably arranged in the second fixed shell 17, a swinging mechanism is arranged on the lowermost rotating shell 18, the swinging mechanism is used to expand the blowing range of the gas ejected by the swinging device, a driving mechanism is arranged on the shell 1, the driving mechanism is used to control the five rotating shells 18 to swing in different modes, by controlling the five rotating shells 18 to swing back and forth from bottom to top in turn, the dead corners in the workshop are blown multiple times, the air retention in the dead corners is reduced, thereby improving the air treatment efficiency of the device in the workshop.

[0036] like Figure 4 and Figure 5 As shown, the swing mechanism includes a swing shell 19, which is rotatably arranged on the lowest rotating shell 18, a spur gear 191 is fixedly connected to the left end of the swing shell 19, and a rack 192 meshing with the spur gear 191 is fixedly connected to the lowest second fixed shell 17. The extension of the swing shell 19 facilitates the device to blow the gas in the lower area of ​​the device, thereby increasing the blowing area of ​​the gas and facilitating the subsequent all-round treatment of the air in the workshop.

[0037] like Figure 4 , Figure 6 and Figure 7As shown, the driving mechanism includes two upper and lower symmetrical fixed plates 2, both of which are fixedly connected to the left part of the rear side of the first fixed frame 16, a first rotating shaft 21 is rotatably arranged between the two fixed plates 2, a first servo motor 22 electrically connected to the control panel 11 is fixedly connected to the lower surface of the lower fixed plate 2, the output shaft of the first servo motor 22 is fixedly connected to the lower end of the first rotating shaft 21, the first rotating shaft 21 is fixedly connected to five spirally distributed limiting plates 23, a spline rod 24 is fixedly connected between the two fixed plates 2, the spline rod 24 is limitedly slidably arranged with five evenly distributed first sliding frames 25, the spline rod 24 is provided with five supporting plates, and springs are respectively installed between the five first sliding frames 25 and the supporting plates below them on the spline rod 24, and an L-shaped rod is fixedly connected to the rear surface of the rotating shell 18. 26, the second fixed shell 17 is provided with an arc groove for the sliding of adjacent L-shaped rods 26, the first sliding frame 25 is provided with a slide groove, the slide groove of the first sliding frame 25 is slidably matched with the adjacent L-shaped rods 26, the first sliding frame 25 is provided with a convex column, the convex column of the first sliding frame 25 is squeezed and matched with the adjacent limiting plate 23, and a limiting component for evenly distributing the synchronous movement of the first sliding frame 25 is provided on the shell 1. The first rotating shaft 21 and the five limiting plates 23 are controlled to rotate and squeeze the adjacent first sliding frames 25 in turn, so that the five first sliding frames 25 move to squeeze the adjacent L-shaped rods 26, and the L-shaped rods 26 are squeezed to drive the adjacent rotating shells 18 to swing, so that the five rotating shells 18 swing in turn to blow the air in the workshop to flow, thereby improving the subsequent treatment efficiency of the device for the air in the workshop.

[0038] like Figure 4 , Figure 7 and Figure 8 As shown, the limiting assembly includes a second rotating shaft 3, which is rotatably arranged on the upper part of the shell 1, and a driving motor 31 electrically connected to the control panel 11 is fixedly connected to the upper surface of the shell 1, and the output shaft of the driving motor 31 is fixedly connected to the second rotating shaft 3, and a third rotating shaft 32 is slidingly arranged in the second rotating shaft 3 in a limiting manner, and the third rotating shaft 32 penetrates the two fixed plates 2 and is slidably connected thereto, and a tension spring is installed between the lower part of the third rotating shaft 32 and the lower fixed plate 2, and the spring is sleeved on the third rotating shaft 32, and the third rotating shaft 32 is fixedly connected with five evenly distributed protrusions 33, and the first sliding frame 25 is provided with grooves for limiting cooperation with adjacent protrusions 33, and by controlling the five protrusions 33 to rotate respectively into the grooves of the adjacent first sliding frames 25, it is convenient for the subsequent five rotating shells 18 to swing synchronously and perform different modes of jetting.

[0039] The operator first places multiple devices in the workshop according to the size of the workshop. When the air environment in the workshop is processed later, the operator sends a signal to all the control panels 11 in the workshop through the remote control terminal. The control panel 11 starts the corresponding pump body 131 and the adjacent temperature adjustment unit. The temperature adjustment unit adjusts the temperature of the flowing liquid in the guide pipe 121 to facilitate the adjustment of the air temperature and air humidity in the workshop. The pump body 131 works to extract indoor gas, so that the external gas flows into the first fixed shell 12 through the air inlet on the shell 1. At this time, the flowing liquid in the guide pipe 121 in the first fixed shell 12 adjusts the temperature of the air. In summer weather, the cold water flowing in the guide pipe 121 condenses and discharges the water vapor in the air to complete the adjustment of the humidity in the air. Then the treated gas enters the five second fixed shells 17 through the first air guide shell 13, the diversion shell 14 and the five second air guide shells 15, and then the gas is ejected to the outside through the five rotating shells 18 to complete the treatment of the air environment in the workshop.

[0040] When it is necessary to accelerate the gas circulation in the workshop, the operator starts the corresponding drive motor 31 and the corresponding first servo motor 22 through the control panel 11, wherein the drive motor 31 drives the second rotating shaft 3, the third rotating shaft 32 and the five protrusions 33 to rotate, and the protrusions 33 rotate and insert into the grooves of the adjacent first sliding frame 25, and then the operator starts the first servo motor 22 through the corresponding control panel 11, and the first servo motor 22 drives the first rotating shaft 21 and the five limit plates 23 to rotate slowly counterclockwise, and the five limit plates 23 squeeze the protrusions of the adjacent first sliding frame 25 from bottom to top in turn during the rotation process. The block 33 has a limiting effect on the five first sliding frames 25, and cooperates with the third rotating shaft 32 to connect the five protrusions 33. When one of the first sliding frames 25 moves, the other four are driven to move together. At this time, the five first sliding frames 25 move synchronously to squeeze the adjacent springs. The five first sliding frames 25 squeeze the adjacent L-shaped rods 26 at the same time, so that the five L-shaped rods 26 respectively drive the adjacent rotating shells 18 to swing. The swing of the rotating shell 18 changes the direction of the gas ejected therein, and the indoor air is blown in a wave-like manner, which accelerates the flow of gas in the workshop and reduces the gas trapped in the dead corners of the workshop, so that the device can treat the air in the workshop in all directions.

[0041] After the limiting plate 23 releases the squeezing of the convex column on the adjacent first sliding frame 25, the first sliding frame 25 is acted upon by the elastic force of the adjacent spring, and the five first sliding frames 25 work in the reverse direction and reset. Subsequently, the next limiting plate 23 rotates to squeeze the convex column of the adjacent first sliding frame 25, and controls the above-mentioned five rotating shells 18 to swing and spray gas again, so as to continuously blow the air in the workshop.

[0042] During the synchronous upward swinging of the five rotating shells 18, the lowest rotating shell 18 simultaneously drives the swinging shell 19 and the gear spur gear 191 to swing upward. During this process, due to the limiting effect of the rack 192 on the gear spur gear 191, the swinging shell 19 simultaneously swings upward relative to the rotating shell 18, thereby expanding the blowing range of the downwardly ejected gas, further improving the device's ability to blow and stir the gas in the workshop in all directions, and further reducing the retention of gas in dead corners in the workshop.

[0043] When welding and other operations are performed in the workshop, in order to prevent the trace harmful gases generated by welding from affecting the health of the operators, the operator selects the gas lifting gear on the control panel 11 in the welding area, and the control panel 11 starts the drive motor 31 to work in the reverse direction and reset. At this time, the five protrusions 33 release the squeezing of the five first sliding frames 25. In the subsequent control panel 11, when controlling the first servo motor 22, the first servo motor 22 drives the five limit plates 23 to rotate together through the first rotating shaft 21. At this time, the five limit plates 23 squeeze the protrusions of the adjacent first sliding frames 25 in turn, so that the five first sliding frames 25 squeeze the adjacent L-shaped rods 26 in turn to swing, and then the five rotating shells 18 swing in turn. Under the swinging action of the five rotating shells 18 one by one, the gas in the workshop is blown, so that the harmful gases generated by welding are blown to the top of the workshop. The external air circulating gas on the top of the workshop subsequently purifies the gas and discharges it to the outside. After stopping the production and processing of new energy batteries in the workshop, the operator sends a signal to all control panels 11 through the remote control terminal, and the control panel 11 turns off the adjacent first servo motors 22 and the adjacent drive motors 31.

[0044] Embodiment 2: Based on embodiment 1, Figure 4 and Figure 9-11As shown, it also includes a regulating mechanism for controlling the number of jets in the five rotating shells 18, the regulating mechanism is arranged on the diverter shell 14, the regulating mechanism includes a second fixed frame 4, the second fixed frame 4 is rotatably arranged in the diverter shell 14, the diverter shell 14 is provided with two rectangular holes symmetrical front and back, the rectangular holes of the diverter shell 14 are communicated with the adjacent second air guide shell 15, the left end of the second fixed frame 4 penetrates the shell 1 and is rotatably connected thereto, the left side surface of the shell 1 is rotatably provided with a first rotating shaft 41 through a bracket, the left side of the second fixed frame 4 and the lower end of the first rotating shaft 41 are driven by a bevel gear set, the upper side surface of the shell 1 is fixedly connected to a third fixed frame 42, the third fixed frame 42 is rotatably provided with a second rotating shaft 43, the front end of the second rotating shaft 43 is connected to the upper end of the first rotating shaft 21 The ends are driven by a bevel gear set, the rear of the second rotating shaft 43 is rotatably provided with a third rotating shaft 44, the rear end of the third rotating shaft 44 and the upper end of the first rotating shaft 41 are driven by a bevel gear set, the third fixed frame 42 is provided with a switching component for transmitting the second rotating shaft 43 and the third rotating shaft 44, the second fixed frame 4 is provided with an adjusting component for adjusting the number of openings, and the rotation of the second fixed frame 4 is controlled to control the rotating shell 18 at different positions to perform jet operation, so that the device can continuously perform unidirectional swinging blowing on the air in the workshop, thereby realizing continuous upward blowing of the gas in the workshop, so that harmful gases in the air float to the top of the workshop, and the subsequent air circulation system in the workshop works to treat the harmful gases in the workshop, thereby improving the protection effect on the operators.

[0045] like Fig.10 and Fig.11 As shown, the switching assembly includes a first electric push rod 5 electrically connected to the control panel 11, the first electric push rod 5 is fixedly connected to the rear side of the third fixed frame 42, and a sliding plate 51 fixedly connected to the telescopic end of the first electric push rod 5 is slidably provided on the third fixed frame 42, and a limit block 52 located on the third rotating shaft 44 is rotatably provided on the upper part of the sliding plate 51, and the limit block 52 is limitedly matched with the second rotating shaft 43. By controlling the limit block 52 to cooperate and separate with the second rotating shaft 43, five rotating shells 18 are selected to spray together or one by one, which is convenient for the device to perform different modes of gas blowing in different environments, thereby improving the applicability of the device.

[0046] like Fig.12 and Fig.13As shown, the adjustment component includes six evenly distributed fourth fixed shells 6, the six fourth fixed shells 6 are all embedded in the second fixed frame 4, the six fourth fixed shells 6 and the two rectangular holes on the diverter shell 14 are circumferentially equidistantly distributed, the fourth fixed shell 6 is connected to the adjacent second air guide shell 15, a first sliding shell 61 is slidably arranged in the fourth fixed shell 6, the first sliding shell 61 is used to block the adjacent fourth fixed shell 6, a second electric push rod 62 electrically connected to the control panel 11 is fixedly connected to the side wall of the shell 1, a second electric push rod 62 is fixedly connected to the telescopic end of the second electric push rod 62, the second sliding shell 63 penetrates the shell 1 and is slidably connected thereto, the second sliding shell 63 is rotatably connected to the right end of the second fixed frame 4, a rotating frame 64 is rotatably arranged on the left part of the second sliding shell 63, the second fixed frame 4 is slidably arranged with six evenly distributed second sliding frames 65, the second sliding frames 65 The left end is fixedly connected to the adjacent first sliding shell 61, and the rotating frame 64 is provided with four circumferentially symmetrical first guide grooves 641 and two vertically symmetrical second guide grooves 642. The four first guide grooves 641 and the two second guide grooves 642 are respectively slidably matched with the adjacent second sliding frame 65. The first guide groove 641 and the second guide groove 642 are both composed of an inclined section and a horizontal section. The inclined section of the first guide groove 641 is located on the right side of its upper horizontal section, and the inclined section of the second guide groove 642 is located on the left side of its upper horizontal section. The inclined sections of the first guide groove 641 and the second guide groove 642 are close to each other from left to right. The second fixed frame 4 is provided with a diversion component for stirring the gas therein. By controlling the limiting position of the first sliding shell 61 on the fourth fixed shell 6 at different positions, different numbers of rotating shells 18 are alternately ejected to improve the gas rising efficiency.

[0047] like Fig. 9 and Fig.14 As shown, the flow diversion component includes a rotating sleeve 7, which is rotatably arranged on the second fixed frame 4. Impellers 71 are fixedly connected to the left and right ends of the rotating sleeve 7. The two impellers 71 are symmetrically distributed. Spiral blades 72 are fixedly connected to the side wall of the rotating sleeve 7. The spiral blades 72 are located between the two impellers 71. During the gas flow process, the gas blows the impeller 71 to make the rotating sleeve 7 drive the spiral blades 72 to rotate, and the stirred gas is ejected from the corresponding second gas guide shell 15 in a flat state.

[0048] When it is necessary to gradually raise the air in the workshop, the operator selects the corresponding gear on the control panel 11, wherein the control panel 11 first starts the first electric push rod 5, and the first electric push rod 5 drives the sliding plate 51 and the limit block 52 to move, so that the limit block 52 is close to the second rotating shaft 43, and at this time, the six first sliding shells 61 respectively block the adjacent fourth fixed shell 6, and at the same time, in the initial state, the two rectangular holes on the second fixed frame 4 are respectively connected to the uppermost second air guide shell 15 and the lowermost second air guide shell 15, and the subsequent air in the workshop During the circulation process, the gas in the diverter shell 14 enters the uppermost second air guide shell 15 and the lowermost second air guide shell 15 through the two rectangular holes on the second fixed frame 4, and then the gas is ejected from the uppermost rotating shell 18 and the lowermost rotating shell 18. At the same time, the gas blows the impeller 71 during this process, so that the rotating sleeve 7 drives the spiral blade 72 to rotate. The rotation of the spiral blade 72 helps the gas flow to the middle of the adjacent second air guide shell 15, which facilitates the gas to be ejected from the second air guide shell 15 in a flat state, thereby increasing the gas blowing area.

[0049] During the above-mentioned gas circulation process, the control panel 11 simultaneously starts the first servo motor 22 to work, and the operator selects the working gear of the driving motor 31 through the control panel 11, so that the five protrusions 33 are disengaged from the limit of the five first sliding frames 25. Subsequently, the first servo motor 22 works to repeat the above-mentioned operation, and controls the five rotating shells 18 to swing from bottom to top in sequence. During the swinging process of the rotating shell 18, the first servo motor 22 drives the second fixed frame 21, the second rotating shaft 43, the third rotating shaft 44, the first rotating shaft 41 and the three sets of bevel gear groups. 4 rotates, and when the reciprocating swing of the lowest rotating shell 18 ends, the second fixed frame 4 rotates until the rectangular holes on its upper and lower sides gradually communicate with the second second air guide shell 15 at the lower side. When the second rotating shell 18 at the lower side swings, the rotating shell 18 here happens to swing and spray air. Finally, the five rotating shells 18 swing and spray air alternately in sequence, continuously lifting the gas in the workshop to prevent harmful gases during welding from being inhaled into the operator's body, thereby improving the protection of the operator. At the same time, the one-way flow of air in the workshop improves the processing efficiency of the device for the air in the workshop.

[0050] When treating the air environment in the workshop, the operator can also select two spaced rotating shells 18 to exhaust together. The operator starts the second electric push rod 62 through the control panel 11. The second electric push rod 62 drives the rotating frame 64 to move to the left through the second sliding shell 63. The rotating frame 64 moves so that the inclined sections of the two second guide grooves 642 thereon squeeze the adjacent second sliding frames 65, and the remaining four second sliding frames 65 slide in the horizontal sections on the adjacent first guide grooves 641. At this time, the two second sliding frames 65 respectively drive the adjacent first sliding shells 61 to slide out of the adjacent fourth fixed shell 6, and the two first sliding shells 61 will release the blockage of the adjacent fourth fixed shell 6.

[0051] During the circulation of gas in the workshop, the gas enters the fourth fixed shell 6 corresponding to the two rectangular holes and the two second guide grooves 642 on the second fixed frame 4 and moves, and the subsequent gas passes through the second air guide shell 15 connected to the two rectangular holes and the two second guide grooves 642 on the second fixed frame 4, thereby forming two spaced rotating shells 18 for jetting, and then cooperates with the operation of the first servo motor 22 to make the two spaced rotating shells 18 swing and jet. Whenever the two spaced rotating shells 18 complete a reciprocating swing, they switch to the next group of two spaced rotating shells 18 for reciprocating swing. During the jetting process, the two spaced rotating shells 18 spray out to blow the gas in a certain area in a limited manner, further improving the lifting rate of the device for the gas in the workshop, thereby improving the air flotation efficiency and accelerating the subsequent treatment efficiency of harmful gases in the air.

[0052] When the operator selects all the rotating shells 18 to spray on the control panel 11, the second electric push rod 62 drives the second sliding shell 63 and the rotating frame 64 to move to the left limit. At this time, the two first guide grooves 641 and the four second guide grooves 642 continue to move the adjacent second sliding frames 65, so that the six second sliding frames 65 respectively drive the adjacent first sliding shells 61 to slide out of the adjacent fourth fixed shells 6, thereby releasing the blockage of the six fourth fixed shells 6, thereby realizing the simultaneous spraying of the five rotating shells 18.

[0053] Embodiment 3: Based on embodiment 2, Figure 3 , Fig.15 and Fig.16As shown, it also includes a dehumidification mechanism for changing the gas flow path, the dehumidification mechanism is arranged in the first fixed shell 12, the dehumidification mechanism includes a third sliding shell 8, the third sliding shell 8 is slidably arranged in the first fixed shell 12, and the first fixed shell 12 and the shell body 1 are both provided with a sliding groove for the sliding of the third sliding shell 8, the third sliding shell 8 is provided with a baffle for shielding the sliding groove on the first fixed shell 12, a spring is installed between the lower surface of the third sliding shell 8 and the inner surface of the first fixed shell 12, the spring is sleeved on the third sliding shell 8, the lower side surface of the third sliding shell 8 is fixedly connected to the fifth fixed shell 8, the fifth fixed shell 81 is provided with a through hole, the through hole of the fifth fixed shell 81 is communicated with the air inlet on the first fixed shell 12, and the upper side of the fifth fixed shell 81 is fixedly connected to the second servo motor electrically connected to the control panel 11 82, the output shaft of the second servo motor 82 penetrates the fifth fixed shell 81 and is rotatably connected thereto, a rotating frame 83 is rotatably provided in the fifth fixed shell 81, the rotating frame 83 is fixedly connected to the output shaft of the second servo motor 82, a sponge 831 is installed on the rotating frame 83, a roller 84 for squeezing the sponge 831 is rotatably provided on the fifth fixed shell 81, the fifth fixed shell 81 is provided with evenly distributed drainage ports at the lower side of the roller 84, and a liquid guide shell 85 is fixedly connected to the drainage port on the fifth fixed shell 81. When the humidity in the air is high, the through hole of the fifth fixed shell 81 is connected to the air inlet of the first fixed shell 12, and the sponge 831 is subsequently used to adsorb the moisture in the air, thereby realizing the pretreatment of the water vapor in the air, and reducing the workload of the guide pipe 121, to ensure the stability of the humidity of the gas sprayed by the device.

[0054] When the air in the workshop is dehumidified, due to the condensation effect of the cold water flowing in the guide pipe 121, the moisture in the air condenses into water droplets on the surface of the guide pipe 121, and then the water droplets gather together and fall into the third sliding shell 8, and then the water droplets are slowly discharged to the outside through the third sliding shell 8. When the humidity in the air in the workshop is high, the water droplets condensed on the surface of the guide pipe 121 become more, and at the same time, due to the restriction of the diameter of the drainage port on the third sliding shell 8, the weight of the water on the third sliding shell 8 gradually increases, and the third sliding shell 8 moves downward relative to the first fixed shell 12 and compresses the connected spring. The third sliding shell 8 also drives the fifth fixed shell 81 to move downward, so that the through hole on the fifth fixed shell 81 is connected to the air inlet hole of the first fixed shell 12. At this time, the gas enters the through hole of the fifth fixed shell 81 through the air inlet hole on the first fixed shell 12, and in this process, the sponge 831 absorbs a large amount of water vapor in the air.

[0055] During the flow of air in the above-mentioned path, the control panel 11 starts the second servo motor 82 at the same time, and the second servo motor 82 drives the rotating frame 83 and the sponge 831 to rotate. The sponge 831 rotates to change the area to absorb water vapor in the flowing air, thereby improving the initial filtering effect of water vapor in the air. When the sponge 831 that absorbs water vapor rotates and passes through the roller 84, under the squeezing action of the roller 84, the water in the sponge 831 flows into the liquid guide shell 85 through the drainage port on the fifth fixed shell 81, and the subsequent water is discharged to the outside through the liquid guide shell 85, thereby reducing the workload of the guide tube 121 and improving the dehumidification efficiency and dehumidification stability of the device.

[0056] After the humidity in the air in the workshop decreases, the amount of water droplets condensed on the guide tube 121 becomes less, that is, the weight of the water on the fifth fixed shell 81 becomes lower. Under the elastic action of the spring connected thereto, the fifth fixed shell 81 moves in the opposite direction and resets so that the through hole on it is disengaged from the cooperation with the air inlet on the first fixed shell 12. At this time, after the gas enters the first fixed shell 12, the gas flows upward through the gap between the first fixed shell 12 and the fifth fixed shell 81 and passes through the guide tube 121. The above operation is subsequently repeated to complete the continuous and stable adjustment of the air humidity in the workshop.

[0057] While the embodiments of the invention have been shown and described, it will be appreciated by those skilled in the art that many changes, modifications, substitutions and alterations may be made to the embodiments without departing from the principles and spirit of the invention.

Claims

1. A dead angle prevention workshop environment treatment device for new energy battery production, comprising a shell (1), a control panel (11) being fixedly connected to a side wall of the shell (1), a first fixed shell (12) being installed in the shell (1), a flow guide tube (121) being fixedly connected in the first fixed shell (12), the flow guide tube (121) penetrating the shell (1) and being fixedly connected thereto, a first air guide shell (13) being fixedly connected in the shell (1), and a gas guide shell (13) being fixedly connected in the shell (1) to the first air guide shell (13) and the first fixed shell (1). 2) a pump body (131) connected thereto, the first air guide shell (13) being fixedly connected to and in communication with a flow divider shell (14) fixedly connected to the shell body (1), the flow divider shell (14) being fixedly connected to and in communication with a plurality of second air guide shells (15), the plurality of second air guide shells (15) being arranged in a fan shape, the shell body (1) being embedded with a first fixing frame (16), the first fixing frame (16) being fixedly connected to uniformly distributed second fixing shells (17), the second fixing shells (17) being fixedly connected to and in communication with adjacent second air guide shells (15), wherein: It also includes evenly distributed rotating shells (18), the evenly distributed rotating shells (18) are respectively slidably arranged in adjacent second fixed shells (17), the lowermost rotating shell (18) is provided with a swing mechanism for expanding the swing range of the ejected gas, and the housing (1) is provided with a driving mechanism for controlling the swing mode of the evenly distributed rotating shells (18); The swing mechanism comprises a swing shell (19), the swing shell (19) being rotatably arranged on the rotating shell (18) at the bottom, a spur gear (191) being fixedly connected to one end of the swing shell (19) located outside the rotating shell (18), and the second fixed shell (17) at the bottom being fixedly connected to a rack (192) meshing with the spur gear (191); The driving mechanism comprises two symmetrical fixing plates (2), the two fixing plates (2) are both fixedly connected to the first fixing frame (16), a first rotating shaft (21) is rotatably arranged between the two fixing plates (2), a first servo motor (22) is fixedly connected to the lower fixing plate (2), an output shaft of the first servo motor (22) is fixedly connected to the first rotating shaft (21), a spirally distributed limiting plate (23) is fixedly connected to the first rotating shaft (21), a spline rod (24) is fixedly connected between the two fixing plates (2), and the spline rod (24) is slidably provided with evenly distributed first a sliding frame (25), wherein a spring is installed between the first sliding frame (25) and the spline rod (24), an L-shaped rod (26) is fixedly connected to the side wall of the rotating shell (18), the second fixed shell (17) is provided with an arc groove for sliding the adjacent L-shaped rod (26), the first sliding frame (25) is provided with a sliding groove for slidingly matching the adjacent L-shaped rod (26), the first sliding frame (25) is provided with a convex column for extrusion matching the adjacent limiting plate (23), and the housing (1) is provided with a limiting component for evenly distributing the synchronous movement of the first sliding frame (25); The limiting assembly comprises a second rotating shaft (3), the second rotating shaft (3) is rotatably arranged on the shell (1), a driving motor (31) is fixedly connected to the side wall of the shell (1), the output shaft of the driving motor (31) is fixedly connected to the second rotating shaft (3), the second rotating shaft (3) is slidingly arranged with a third rotating shaft (32), the third rotating shaft (32) penetrates the two fixed plates (2) and is slidably connected thereto, a tension spring is installed between the third rotating shaft (32) and the lower fixed plate (2), the third rotating shaft (32) is fixedly connected with evenly distributed protrusions (33), and the first sliding frame (25) is provided with a groove for limiting cooperation with an adjacent protrusion (33).

2. According to the anti-dead angle workshop environment treatment device for new energy battery production according to claim 1, it is characterized in that: The invention also comprises a regulating mechanism, the regulating mechanism being arranged on the flow-dividing shell (14), the regulating mechanism being used for controlling the number of jets uniformly distributed in the rotating shell (18), the regulating mechanism comprising a second fixed frame (4), the second fixed frame (4) being rotatably arranged in the flow-dividing shell (14), the flow-dividing shell (14) being provided with two symmetrical rectangular holes, the rectangular holes of the flow-dividing shell (14) being connected with the adjacent second air-guiding shell (15), the second fixed frame (4) penetrating the shell (1) and being rotatably connected thereto, the side wall of the shell (1) being rotatably provided with a first rotating shaft (41) through a bracket, the second fixed frame (4) being connected to the first rotating shaft The side wall of the housing (1) is fixedly connected with a third fixed frame (42), the third fixed frame (42) is rotatably provided with a second rotating shaft (43), the second rotating shaft (43) and the first rotating shaft (21) are driven by a bevel gear set, the second rotating shaft (43) is rotatably provided with a third rotating shaft (44), the third rotating shaft (44) and the first rotating shaft (41) are driven by a bevel gear set, the third fixed frame (42) is provided with a switching component for driving the second rotating shaft (43) and the third rotating shaft (44), and the second fixed frame (4) is provided with an adjusting component for adjusting the number of openings.

3. According to the anti-dead angle workshop environment treatment device for new energy battery production according to claim 2, it is characterized in that: The switching assembly comprises a first electric push rod (5), the first electric push rod (5) being fixedly connected to the third fixing frame (42), the third fixing frame (42) being slidably provided with a sliding plate (51), the sliding plate (51) being fixedly connected to the telescopic end of the first electric push rod (5), the sliding plate (51) being rotatably provided with a limit block (52), the third rotating shaft (44) being provided with a spline groove, the limit block (52) being located in the spline groove of the third rotating shaft (44) and sliding, and the limit block (52) being limitedly matched with the second rotating shaft (43).

4. According to the anti-dead angle workshop environment treatment device for new energy battery production according to claim 3, it is characterized in that: The regulating assembly comprises uniformly distributed fourth fixed shells (6), the uniformly distributed fourth fixed shells (6) are all embedded in the second fixed frame (4), the uniformly distributed fourth fixed shells (6) and the two rectangular holes on the flow diversion shell (14) are circumferentially equidistantly distributed, the fourth fixed shell (6) is communicated with the adjacent second air guide shell (15), a first sliding shell (61) for sealing itself is slidably arranged in the fourth fixed shell (6), a second electric push rod (62) is fixedly connected to the side wall of the shell (1), and a telescopic end of the second electric push rod (62) is fixedly connected to a A second sliding shell (63) is slidably connected thereto, the second sliding shell (63) is rotatably connected to the second fixed frame (4), the second sliding shell (63) is rotatably provided with a rotating frame (64), the second fixed frame (4) is slidably provided with evenly distributed second sliding frames (65), the second sliding frame (65) is fixedly connected to the adjacent first sliding shell (61), the rotating frame (64) is provided with evenly distributed sliding grooves, the second sliding frame (65) is located and slides in the adjacent sliding grooves on the rotating frame (64), and the second fixed frame (4) is provided with a diversion component for stirring the gas therein.

5. According to the anti-dead angle workshop environment treatment device for new energy battery production according to claim 4, it is characterized in that: The sliding groove on the rotating frame (64) close to the rectangular hole on the diverter housing (14) is a first guide groove (641), and the remaining sliding grooves on the rotating frame (64) are second guide grooves (642), and the shape of the second guide groove (642) is centrally symmetrical to the shape of the first guide groove (641).

6. According to claim 4, a blind spot prevention workshop environment treatment device for new energy battery production is characterized in that: The flow dividing component comprises a rotating sleeve (7), the rotating sleeve (7) being rotatably arranged on the second fixed frame (4), both ends of the rotating sleeve (7) being fixedly connected to impellers (71), the side wall of the rotating sleeve (7) being fixedly connected to spiral blades (72), and the spiral blades (72) being located between the two impellers (71).

7. According to the anti-dead angle workshop environment treatment device for new energy battery production according to claim 1, it is characterized in that: The invention also comprises a dehumidification mechanism for changing the gas flow path, the dehumidification mechanism being arranged in the first fixed shell (12), the dehumidification mechanism comprising a third sliding shell (8), the third sliding shell (8) being slidably arranged in the first fixed shell (12), and the first fixed shell (12) and the shell body (1) are both provided with a sliding groove for sliding the third sliding shell (8), the third sliding shell (8) being provided with a baffle for shielding the sliding groove on the first fixed shell (12), a spring being installed between the third sliding shell (8) and the first fixed shell (12), a fifth fixed shell (81) being fixedly connected to the lower side of the third sliding shell (8), the fifth fixed shell (81) being provided with a sliding groove which is connected to the first fixed shell ( 12) a through hole connected to the upper air inlet, a second servo motor (82) is fixedly connected to the upper side of the fifth fixed shell (81), an output shaft of the second servo motor (82) penetrates the fifth fixed shell (81) and is rotatably connected thereto, a rotating frame (83) is rotatably arranged in the fifth fixed shell (81) and is fixedly connected to the output shaft of the second servo motor (82), a sponge (831) is mounted on the rotating frame (83), a roller (84) for squeezing the sponge (831) is rotatably arranged on the fifth fixed shell (81), the fifth fixed shell (81) is provided with evenly distributed liquid discharge ports at the lower side of the roller (84), and a liquid guide shell (85) is fixedly connected to the liquid discharge port on the fifth fixed shell (81).

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