CN204453678U - A kind of conveyer of tool lubricating system - Google Patents

Abstract

The utility model discloses a kind of conveyer of tool lubricating system, comprise bench board, described bench board arranges the vibrating disk for holding material, vibrating disk engine installation for making described vibrating disk vibrate is set between described vibrating disk and described bench board, also comprise a lubrication unit, it has a fuel tank, one motor, one oil-deflecting element, and a controller, this fuel tank has the oil hole that an oil storage space and is communicated with this oil storage space, this oil storage space is in order to store a lubricant and to communicate with the surface of this major axis via this oil hole, connect this motor in the oil storage space that this oil-deflecting element is located at this fuel tank, this controller is electrically connected this motor, in order to control the start of this motor.Conveyer structure of the present utility model is simple, with low cost, easy to operate, can control the quantity of material stream passed in slideway accurately, ensures normally carrying out of follow-up work.

Description

A transmission device with a lubricating device

technical field

The utility model relates to a transmission device with a lubricating device.

Background technique

At present, the filling method of beverage bottles basically adopts an automated method, and the empty bottles to be filled are transferred to the infusion point by the conveyor belt, and then sent away after the filling is completed.

However, in the prior art, the quantity of conveyed bottles needs to be strictly controlled, so it is necessary to equip the device with special-purpose equipment for quantity control, and the existing special-purpose equipment has a complex structure, resulting in an increase in the manufacturing cost of the entire equipment.

Utility model content

The purpose of this utility model is to provide a transmission device with a lubricating device, which can solve the above-mentioned shortcomings in the prior art.

The utility model adopts the following technical solutions:

A conveying device with a lubricating device, comprising a workbench, on which a vibrating plate for holding materials is arranged, and a vibrating plate for vibrating the vibrating plate is arranged between the vibrating plate and the workbench A vibrating plate power device, one side of the vibrating plate is obliquely provided with a first slideway connected with the vibrating plate, and the end of the first slideway away from the vibrating plate is provided with a transmission guide wheel, and the transmission guide wheel A second slideway is arranged obliquely on the side away from the first slideway, and the end of the second slideway away from the transmission guide wheel is used to communicate with the next manufacturing process;

The height of the transmission guide wheel is lower than the height of the vibration plate, and the height of the end of the second slideway close to the transmission guide wheel is lower than the height of the transmission guide wheel and higher than the second slideway one end away from the transmission guide wheel;

The transmission guide wheel includes a guide wheel shaft connected with the guide wheel power device, and the surface of the guide wheel shaft is evenly distributed along its circumference at least three material stoppers for holding the material from the first slideway. The distance between two adjacent block blocks matches the size of a single material;

It also includes a controller, the controller is respectively connected with the power device of the guide wheel and the power device of the vibrating plate;

Also includes a lubricating unit, which has an oil tank, a motor, an oil guide, and a controller, the oil tank has an oil storage space and an oil filling hole connected to the oil storage space, the oil storage space is used to store a Lubricant communicates with the surface of a major shaft through the oil hole, and the oil guiding member is arranged in the oil storage space of the oil tank and connected to the motor, so as to be driven by the motor to guide the lubricant through the oil hole Leading to the surface of the vibrating plate power device, the controller is electrically connected to the motor to control the movement of the motor.

The end of the first slideway far away from the vibrating plate is articulated with a transmission block, one end of the transmission block is connected to the first slideway through a rotating shaft, and the other end of the transmission block is suspended and extends to Between two adjacent said stop blocks on said guide wheel shaft.

The material blocking block is provided with a material pocket recessed along the rotation direction of the guide wheel shaft.

The hopper is an arc-shaped groove, a square groove or a special-shaped groove.

The surface of the guide wheel shaft is evenly distributed with five blocks along its axis.

The width of the first slideway matches the length of a single material; and/or, the width of the second slideway matches the length of a single material.

The conveying device of the utility model has the advantages of simple structure, low cost and convenient operation, and can accurately control the quantity of material circulation in the slideway, so as to ensure the normal progress of follow-up work.

Description of drawings

The utility model is described in detail below in conjunction with embodiment and accompanying drawing, wherein:

Fig. 1 is the structural representation of the utility model.

Fig. 2 is the structural representation of cleaning device in the utility model;

Fig. 3 is a schematic structural diagram of direction A in Fig. 2;

Fig. 4 is a schematic structural diagram of direction B in Fig. 2;

Fig. 5 is a schematic diagram of the module cleaning system in the cleaning and dust removal device of the present invention;

Fig. 6 is a schematic diagram of the mechanism of the dust removal system in the cleaning and dust removal device of the present invention;

Fig. 7 is a schematic structural view of the redirection device in the present invention.

Fig. 8 is a schematic structural view of the lubricating device in the present invention.

FIG. 9 is a schematic cross-sectional view of FIG. 8 .

Detailed ways

Further set forth the specific embodiment of the present utility model below in conjunction with accompanying drawing:

Below in conjunction with accompanying drawing and embodiment the utility model is described in further detail.

As shown in Figure 1, the transmission device of the present utility model includes a workbench 1, on which a vibrating plate 2 for holding materials is arranged, and between the vibrating plate 2 and the workbench 1 is set for vibrating the vibrating plate 2 The vibrating plate power unit 3, one side of the vibrating plate 2 is obliquely provided with the first slideway 4 connected with the vibrating plate 2, and the end of the first slideway 4 away from the vibrating plate 2 is provided with a transmission guide wheel 5, and the transmission guide wheel 5 is far away from the vibrating plate 2. One side of the first slideway 4 is obliquely provided with a second slideway 6 , and the end of the second slideway 6 away from the transmission guide wheel 5 is used to communicate with the next manufacturing process.

The width of the first slideway 4 and the width of the second slideway 6 both match the length of a single material, the height of the transmission guide wheel 5 is lower than the height of the vibrating plate 2, and the second slideway 6 is close to one end of the transmission guide wheel 5 The height is lower than the height of the driving guide wheel 5 and higher than the end of the second slideway 6 away from the driving guide wheel 5 .

The transmission guide wheel 5 includes a guide wheel shaft 51 connected with the guide wheel power device, and the surface of the guide wheel shaft 51 is evenly distributed along its circumference at least three material stoppers 52 for holding the material from the first slideway 4, adjacent to each other. The distance between the two stop blocks 52 matches the size of a single material. In this embodiment, the surface of the guide wheel shaft 51 is evenly distributed along its axis with five stop blocks 52, and each stop block 52 has a The pocket trough 521 that is sunken in the clockwise rotation direction of the guide wheel shaft 51, in this embodiment, the pocket pocket 521 is an arc-shaped groove, of course, the pocket pocket 521 is not limited to an arc-shaped groove, and can also be a square Grooves or shaped grooves.

A controller is also included, and the controller is respectively connected with the guide wheel power device and the vibrating disk power device 3 . One end of the first slideway 4 away from the vibrating plate 2 is articulated with the transmission stopper 7, one end of the transmission stopper 7 is connected to the first slideway 4 through the rotating shaft 8, and the other end of the transmission stopper 7 is suspended and extends to the guide wheel shaft 51 Between two adjacent block blocks 52 on the top.

In this embodiment, the transmission device is used for conveying bottles 9 , and the widths of the first slideway 4 and the second slideway 6 are both equal to the length of a single bottle 9 .

The controller controls the vibrating plate 2 to vibrate, and the bottle 9 in the vibrating plate 2 is automatically sent into the first slideway 4, and the bottle 9 rolls into between the two stoppers 52 of the transmission guide wheel 5 due to the action of gravity. When a process needs a bottle 9, the controller controls the guide wheel power device to work, and the guide wheel power device controls the guide wheel shaft 51 to rotate clockwise by 72°, and a bottle 9 falling between the two stop blocks 52 will be driven to rotate clockwise to break away from the The blanking opening of the first slideway 4, and the adjacent stop block 52 lifts the transmission stopper 7 to prevent the bottle 9 in the first slideway 4 from slipping out of the first slideway 4, and the controller controls the guide wheel power device Continue to work, the guide wheel power device continues to control the guide wheel shaft 51 to rotate clockwise 72° again, and the bottle 9 between the two stoppers 52 is sent into the second slideway 6, and the second slideway 6 sends the bottle 9 enter the next process to carry out the next step, so the reciprocating cycle can realize the quantitative delivery of the bottle 9.

As shown in Fig. 2 to Fig. 6, it is the structure schematic diagram of cleaning and dust removal device 10 in the utility model, and it comprises spraying system, module cleaning system, dust removal system and automatic control system, and spraying system comprises that is powered by spray pump 102 The spraying device, the opening of the spraying device is located above the module cleaning system; the module cleaning system includes a dust removal box 119 with a dust storage tank 109 fixed inside, and the dust removal system includes a bag filter 112, an axial flow fan 118 and is connected to the bag filter. The clean air chamber 117 is provided with a dust collecting and filtering device 113, and the outlet of the clean air chamber is connected with an axial fan 118 pipeline. The dust removal box is connected with the bag type dust collector 112 of the dust removal system through the air duct 120 . The spraying system comprises a liquid storage tank 101, a spray pump 102, a valve 103 and a spraying device 104 opening on the top of the module cleaning system to form. The valve is used to control the spraying of the liquid in the liquid storage tank. The liquid in the liquid storage tank is water or a loose agent that can reduce the solid-solid tension between the dust and the catalyst. The spray device is mainly composed of a nozzle or a fluidizer. Conventional device. The opening and closing of the spray pump 102 is controlled by an automatic control system. During spraying, the liquid in the liquid storage tank is sprayed above the catalyst module 107 through the spraying device 104 through the pipeline connected with the valve 103 . After the module cleaning system completes the preliminary cleaning of the catalyst module, the spray system sprays and cleans the liquid in the liquid storage tank above the catalyst module through the pipeline connected with the valve through the spray device.

The modular cleaning system includes a conveying device 110 , a screen-like stage 111 , a dust storage tank 109 with a sloped top, a telescopic manipulator 105 with through-hole needles 106 , an air compressor 114 and a waste liquid port 108 . The conveying surface of the conveying device 10 is at an oblique angle to the ground, and the top of the conveying device 10 is connected to the mesh-shaped object platform 11, and the bottom of the mesh-shaped object stage used to carry the catalyst module is a closed dust removal box 119, inside the dust removal box A dust storage tank 109 with a sloped top is fixed, and the slope of the dust storage tank 109 corresponds up and down to the position of the screen of the screen-like stage 111. Adjacent, the dust box is connected to the bag filter 112 through an air duct 120 . The telescopic manipulator is above the screen-shaped stage, and the through-hole needle 106 is arranged below the telescopic manipulator 105 through a horizontally arranged collection handle 123. The collection handle is provided with a row connected to the air compressor 114 and the through-hole needle respectively. stomata. The exhaust hole is connected with an external air compressor, and the cleaning of the catalyst module can be completed before the mechanical passage.

The conveying device 110 transmits the catalyst module 107 to be cleaned to the screen-shaped object platform 111, and the dust on the module can enter the dust storage tank 109 through the screen on the screen-mesh-shaped object platform 11, and the described dust storage The groove can collect the dust and waste liquid falling on the screen-like stage after mechanical through-hole, purging, spray cleaning, and the telescopic manipulator drives the through-hole needle to complete the purging of the catalyst module and the mechanical through-hole process. At the same time, the spacing adjustment of the through-hole needles and the switch of the air compressor connected to the exhaust hole can be adjusted through the automatic control system.

As shown in FIG. 5 , the core of the dust removal system is the bag filter 112 , which also includes an ash hopper 121 , a material outlet with a rotary valve 116 , a dust collection filter 113 , an axial fan 118 and a pulse valve 115 . The ash hopper is located below the bag filter, and the bottom of the ash hopper is connected to the material outlet with a rotary valve 116 . A clean air chamber 117 is installed on the top of the bag-type dust collector, and a dust collection and filtering device 113 is installed in the clean air chamber. The valve is connected with the air compressor, and the compressed air from the air compressor is used to blow back the bag filter and the clean air chamber. The axial flow fan 118 makes the dust in the module cleaning system enter the dust removal system through the air duct 120, and after the back blowing of the dust collection filter device 113 and the bag filter, the material enters the ash hopper 121, and finally the dust is discharged by the opening and closing of the rotary valve 116. The dust discharge system completes the entire cleaning and dust removal process.

The axial flow fan provides negative pressure for the whole system, and at the same time makes the dust in the dust storage tank enter the dust removal system. The dust collection and filtering device prevents dust from being discharged through the outlet, which is beneficial to reduce dust in the workplace. The dust hopper collects the dust collected by the dust removal system and discharges it out of the system through the material outlet.

The cleaning and dedusting steps of the catalyst module performed by the cleaning and dedusting system of the present invention are described below: open the axial flow fan of the dedusting system, and simultaneously open the bag type dust collector of the dedusting system through the automatic control system. The conveying device 110 is turned on and the catalyst module to be purged is conveyed to the mesh-shaped stage 111 through the conveying belt. The distance between the telescopic manipulator 105 and the through-hole needle 106 is adjusted by the automatic control system, and the through-hole needle is moved up and down. At the same time, the air compressor 114 is turned on, and the catalyst module is purged by compressed air. Close the dedusting system, open the valve 103 of the spray system and open the spray pump 102 through the automatic control system at the same time, so that the spray liquid is sprayed on the catalyst module through the spray device 104, and the spray waste liquid flows into the storage through the screen-like carrier 11. In the dust tank 109, the waste liquid port 108 is opened to discharge the spray waste liquid. Remove the cleaned catalyst module from the module cleaning system.

As shown in Figure 7, redirecting mechanism 1, described redirecting mechanism 20 comprises motor 201, bearing 204, crankshaft 202 and redirecting member 203, and described motor 201 is provided with shaft rod, and the two ends of described crankshaft 202 are arranged as Straight rod, the middle is arranged as an arc-shaped curved rod, one end of the crankshaft 202 is detachably and fixedly connected to the shaft rod, and the other end is detachably and fixedly connected to the inner ring of the bearing 14, and the redirecting member 203 is provided with a through hole 2031 , the inner wall of the through hole 2031 is provided with at least one protrusion 3013, the redirecting member 203 is sleeved on the crankshaft 202, and the redirecting member 2031 is connected with the transmission mechanism.

By adopting the above technical solution, the crankshaft 202 is detachably connected to the rotating shaft, and the rotation of the motor 201 drives the crankshaft 202 to rotate in the circumferential direction. When the crankshaft 202 rotates in the circumferential direction, the arc-shaped crank rod collides with the bump 2013 , the height of the bump 2013 determines the vibration amplitude of the redirecting member 203, and the redirecting member 203 is connected with the transmission mechanism to drive the transmission mechanism to vibrate.

The utility model also includes an alarm device 301, and the first slideway is provided in turn along the conveying direction: a first sensor 302 for providing a trigger signal to the alarm device; a first sensor 302 for providing a shutdown signal to the driving mechanism The second sensor 302, the alarm device is an alarm lamp and a buzzer installed on the frame.

The first sensor detects the bottles passing through it. When the passing speed of the bottle is lower than the preset speed, the first sensor 302 is triggered, and the first sensor 302 sends an alarm signal to notify the staff to deal with it. If it fails to deal with it in time, The bottle continues to move along the transmission slide until the second sensor 303 is triggered, and the second sensor 303 sends a shutdown signal.

As shown in Figures 8 and 9, the lubricating device 40 is hung on the vibrating plate power device 3 in this embodiment, and has an oil storage space 45, a power chamber 46 adjacent to the oil storage space 45, and a Adjacent to the control chamber 47 of the oil storage space 45, the oil storage space 45 is used to store a lubricant and is divided into a main oil chamber 452 and an auxiliary oil chamber 454 communicated with each other by a first partition 48, the auxiliary oil chamber 454 communicates with the surface of the vibrating plate power unit through an oil injection hole 456 (as shown in Figure 2). A rolling element 62 is provided in the rolling groove 474 (here, a steel ball is used as an example); the motor 42 is fixed in the power chamber 46 of the fuel tank 41, and has a drive shaft 422 extending into the auxiliary oil chamber 454; the oil guide 43 is connected to The drive shaft 422 of the motor 42 is located in the auxiliary oil chamber 454 of the oil tank 41, so that the oil guide 43 can be rotated by the drive of the motor 42, and the lubricant is passed from the auxiliary oil chamber 454 through the oil injection hole during the rotation. 456 is guided to the surface of the long shaft 20; the controller 44 is fixed in the control groove 472 of the control chamber 47 of the oil tank 41 and electrically connected to the motor 42 to control the start or stop of the motor 42.

In this embodiment, the sensor 60 is a proximity switch. When installed, the second partition 49 is fixed and located in the control room 47 of the fuel tank 41, and is electrically connected to the controller 44 to sense the position change of the rolling member 62. , and generate an actuation signal to the controller 44 according to the sensed position change.

It can be seen from the above structure that, as shown in Figure 5, when the vibrating disc power unit rotates, the lubricating unit 50 will also move with the vibrating disc power unit, so that the rolling member 62 will roll freely in the rolling groove 574, and the sensor 60 at this time will be It will start to sense the position change of the rolling element 62, and when the sensor 60 senses the rolling element 62, it will generate an actuation signal to the controller 54, and then the controller 54 will control the motor 52 to start according to the received actuation signal, so that The oil guiding member 53 can be driven by the motor 52 to deliver the lubricant in the oil storage space 55 to the surface of the vibrating plate power device through the oil injection hole 556 to achieve the effect of automatic lubrication. Once the sensor 60 fails to detect the rolling element 62, the transmission of the actuation signal will be interrupted. At this time, the controller 54 will control the motor 52 to stop running because the actuation signal cannot be received, and the oil guide 53 will also stop supplying the oil. lose action. Therefore, when the rolling member 62 keeps rolling, that is, when the vibrating plate power device is rotating, the sensor 60 will generate intermittent actuation signals to the controller 54, so that the controller 54 can control the lubricating unit 50 to perform the oil supply operation . The sensor will generate the actuation signal to the controller, and then the controller will control the motor to start according to the actuation signal, so that the guide is driven by the motor to guide the lubricant through the oil hole to the The surface of the long axis, in order to achieve the effect of automatic lubrication.

The above descriptions are only preferred embodiments of the present utility model, and are not intended to limit the present utility model. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present utility model shall be included in this utility model. within the scope of protection of utility models.

Claims (6)

1. the conveyer of a tool lubricating system, it is characterized in that, comprise bench board, described bench board arranges the vibrating disk for holding material, vibrating disk engine installation for making described vibrating disk vibrate is set between described vibrating disk and described bench board, the lopsidedness of described vibrating disk arranges the first slideway be connected with described vibrating disk, described first slideway arranges transmission guide wheel away from one end of described vibrating disk, described transmission guide wheel arranges the second slideway away from the lopsidedness of described first slideway, described second slideway away from one end of described transmission guide wheel for being communicated with lower one Fabrication procedure,

The height of described transmission guide wheel lower than the height of described vibrating disk, the height of described second slideway near one end of described transmission guide wheel lower than described transmission guide wheel height and higher than described second slideway one end away from described transmission guide wheel;

Described transmission guide wheel comprises the guide wheel shaft be connected with guide wheel engine installation, the surface of described guide wheel shaft is uniformly distributed at least three for being installed from the material blocking block of the material of described first slideway along its circumference, and the distance between adjacent two material blocking blocks and the size of single material match;

Also comprise controller, described controller is connected with described guide wheel engine installation and described vibrating disk engine installation respectively;

Also comprise a lubrication unit, it has a fuel tank, a motor, an oil-deflecting element, and a controller, this fuel tank has the oil hole that an oil storage space and is communicated with this oil storage space, this oil storage space is in order to store a lubricant and to communicate via the surface of this oil hole with a major axis, connect this motor in the oil storage space that this oil-deflecting element is located at this fuel tank, in order to the driving by this motor, this lubricant is directed to the surface of this vibrating disk engine installation via this oil hole, this controller is electrically connected this motor, in order to control the start of this motor.

2. the conveyer of tool lubricating system according to claim 1, it is characterized in that, described first slideway is movably hinged driving dog away from one end of described vibrating disk, one end of described driving dog is connected by axis of rotation with described first slideway, and the other end of described driving dog is unsettled and extend between adjacent two the described material blocking blocks on described guide wheel shaft.

3. the conveyer of tool lubricating system according to claim 2, is characterized in that, described material blocking block has the pocket hopper along described guide wheel shaft rotation direction depression.

4. the conveyer of tool lubricating system according to claim 3, is characterized in that, described pocket hopper is circular groove or square groove.

5. the conveyer of the tool lubricating system according to any one of Claims 1-4, is characterized in that, the surface of described guide wheel shaft is uniformly distributed five described material blocking blocks along its axis.

6. the conveyer of the tool lubricating system according to any one of Claims 1-4, is characterized in that, the width of described first slideway and the length of single material match; And/or the width of described second slideway and the length of single material match.