KR102115594B1 - Smart factory type sorting machine for coffee and grain of standard capacity - Google Patents

Abstract

The present invention relates to a coffee and grain picker, and more specifically, a smart factory type picker for coffee beans and grains of the present invention has a main body having an internal space formed therein, and a perforated network installed inside the main body. A dust collector installed on an upper portion of the perforated network to collect foreign substances and gases generated during the selection of grains introduced into the perforated network and discharged to the outside of the main body. Wow, a blower for transferring the grains input to the input path to the perforated network side through the wind, an input door installed to be opened only from the input path to the perforated network side at the outlet side of the input path, and the selection in the perforated network is completed at the lower side of the perforated network. It relates to a smart factory-type picker for a fixed amount of coffee beans and grains, characterized in that it consists of a discharge door that is opened by opening and closing means so that the grain is discharged to the bottom of the perforated network.
As described above, since the coffee beans and grain selectors of the present invention are selected by transferring coffee beans or grains with the intensity of cold wind (wind), coffee beans or grains of a prescribed quantity can be selected, and also generated by cold air. It collects and discharges benzopyrene and dust powder generated during the city, and has a remarkable effect such as improving the selection work environment that prevents oxidation and acidification of coffee beans or grains by rapidly lowering the temperature of coffee beans and grains discharged .

Description

Smart factory type sorting machine for coffee and grain of standard capacity}

The present invention relates to a coffee bean and grain sorting machine, and more specifically, by injecting coffee beans or grains into the inside of the perforated network, spraying cold air (air) into the perforated network to rotate the perforated network while simultaneously performing the sorting and decommissioning operations. It relates to a smart factory-type picker for coffee beans and grains in a quantity.

A smart factory refers to a factory that increases energy efficiency and increases the weight of automation by incorporating advanced information technology (IT) into a manufacturing factory.

In other words, it is an intelligent factory that can improve productivity, quality, and customer satisfaction by applying ICT to the entire production process such as design, development, manufacturing, distribution, and logistics.

Thus, by installing an Internet of Things (IoT) between equipment and devices in the factory, real-time information is exchanged to increase productivity while automatically detecting product location, inventory, etc., thereby reducing human, material, and resource efficiency. To do.

In addition, Jeongseongi is a device that filters grains such as coffee, rice, sesame or soybeans, and then filters out grains such as bran, dust, and impurities mixed with raw sesame seeds in Korean Patent Registration No. 1596884. Separating the sesame seeds by separating them, then washing them in a washing machine by stirring after sedimentation in water; A dehydration step of removing water from the washed sesame seeds by centrifugal dehydration with a dehydrator having a plastic net installed inside the dehydration container; A frying step in which the washed and dehydrated sesame is put in a frying pan and then roasted at a heater temperature of 200 to 220° C. for 10 to 20 minutes to remove smoke and dust using an exhaust system; Transfer the sesame seeds to the picker so that the temperature of the roasted sesame is lowered through ventilation, and then transfer the sesame seeds transferred from the picker to the feeder hopper by using a vacuum acting on the transfer control valve installed on the outside of the picker and the foreign material removal pipe connected to the feeder hopper. A transfer step of controlling and cooling the speed and time; A foreign substance removal step that occurs at the same time as the transfer step, and removes the foreign substances generated when the sesame is fried in a foreign substance storage tank by applying a vacuum in a foreign substance removal pipe connected to the transfer hopper; A milking step in which sesame oil cooled in the feeder hopper is introduced into a milking machine and milked; And transferring the milked sesame oil to a sesame oil filter, followed by a filtration step to remove benzopyrene using an activated carbon filter. Filter net is coupled, and there is an inclined surface inside the body to allow sesame to flow from the upper one side of the body to the lower other side, and the outlet to the lower side of the body so that the sesame flows down and can be discharged to the transport There is, a transfer control valve is coupled to the end of the outlet so that the speed and time at which the sesame is discharged from the outlet to the transfer pipe is transferred from the outlet using a vacuum acting on the foreign material removal pipe connected to the transfer hopper. A method of manufacturing sesame oil with reduced benzopyrene is disclosed, which is characterized in that it can be transferred to a transfer hopper through a pipe.

As another conventional technique, in the registered patent publication No. 1670988, an input portion which is installed in communication with an upper portion so that the threshed rice filled in the supply hopper is supplied in a set amount, and the volume of rice from the rice supplied from the input portion is smaller than that of rice. A large or small foreign matter is sequentially sorted and discharged to the opposite side of the input part, a plurality of spaced apart vertically arranged at the lower side of the input part, and a sorting part which is installed to be inclined downward to the opposite side of the input part. An upper body provided with a foreign material collection unit installed in communication with a downwardly inclined end portion of the sorting unit to collect and discharge; Excavation unit installed on the lower side of the upper body and provided for separating and sorting foreign matters having different specific gravity from the rice supplied through the sorting unit by vibration, and rice installed in one lower part of the precipitation unit to discharge foreign matter sorted And a lower body provided with a sorted rice collecting part formed to be collected. The sorting part includes a first perforated plate having a first perforated hole having a size larger than that of rice, and a first perforated plate installed on the upper side, and spaced apart from the lower side of the first perforated plate A second perforated plate having a second perforated hole having a size smaller than that of rice installed, and a base plate spaced apart from the second perforated plate and formed to collect foreign substances discharged by the second perforated hole toward the foreign material collecting part, The second perforated plate and the support plate are installed in communication with a downwardly inclined end portion, and are configured to include a rice transfer area provided to transport and supply the rice in which foreign substances are selected to the lower body, wherein the rice transfer area is the second perforated plate. A transport hole formed so that a plurality of rice is penetrated up and down along both sides of the left and right sides of the downwardly inclined end portion, so that the rice from which foreign substances are selected is transferred downward, and the rice transferred through the transfer hole is transferred to the lower body. Equipped with an explosion function, characterized in that the downwardly inclined end of the base plate comprises a communication hole that is penetrated up and down to a position corresponding to the transport hole, and a communication tube that is connected to be installed to communicate between the transport hole and the communication hole. The rice picker has been registered.

However, the conventional picking machine has a disadvantage in that it does not have a function to remove benzopyrene generated when picking coffee or grains, or its efficiency is very low even if a configuration for removing it is included.

The present invention has been devised to solve the above-described problems, and can easily remove benzopyrene from coffee beans or grains discharged from a picker, and rapidly lowers the temperature of coffee beans and grains discharged to prevent oxidation and acidification of coffee or grains. It is to provide a smart factory-type picker that prevents it.

The smart factory type picker for coffee beans and grains of the present invention is selected from the main body having an inner space formed therein, a perforated network installed inside the main body, and a grain installed on the perforated network and drawn into the perforated network. A dust collector that collects foreign substances and gases generated at the time and discharges them to the outside of the main body, and is formed on one side of the main body to feed the grain into the inside and the grain input to the input route to the perforated network through the wind A blower, an input door installed to be opened only from the input path to the perforated network side at the outlet side of the input path, and an output door opened by the opening/closing means so that the grains selected in the perforated network are discharged to the lower portion of the perforated network on the lower side of the perforated network. It is characterized by consisting of.

As described above, since the coffee beans and grain selectors of the present invention are selected by transferring coffee beans or grains with the intensity of cold wind (wind), coffee beans or grains of a prescribed quantity can be selected, and also generated by cold air. It collects and discharges benzopyrene and dust powder generated during the city, and has a remarkable effect such as improving the selection work environment that prevents oxidation and acidification of coffee beans or grains by rapidly lowering the temperature of the coffee beans and grains discharged. .

1 is a schematic side view of a coffee bean and grain picker according to the present invention.
Figure 2 is a front overview of the coffee beans and grains of the present invention.
Figure 3 is a side view of the ultrasonic cleaner for coffee beans and grains of the present invention.
Figure 4 is a front overview of the ultrasonic cleaner for coffee beans and grains of the present invention.
5 is a dispenser for coffee beans and grains based on the present invention IOT.
Figure 6 is a schematic diagram according to another embodiment of the present invention IOT-based coffee beans and grain dispenser.

The smart factory type picker for coffee beans and grains of the present invention has a main body 210 in which an internal space is formed, a perforated network 240 installed inside the main body 210, and an upper portion of the perforated network 240 It is installed on the perforated net 240, the dust collector 270 that collects foreign substances and gases generated during the selection of grains introduced into the inside and discharges it to the outside of the main body 210, and is formed on one side of the main body 210. The input path 220 into which grain is introduced into the interior, the blower 230 for transferring the grain input to the input path 220 to the perforated network 240 through the wind, and input to the outlet side of the input path 220 The input door 250 installed to be opened only from the furnace 220 toward the perforated network 240, and the grains that have been selected in the perforated network 240 on the lower side of the perforated network 240 are discharged to the lower portion of the perforated network 240. It is characterized in that it consists of a discharge door 260 opened by the opening and closing means.

Thus, when a predetermined amount of grain is input to the input path 220, the grain of the perforated network 240 is forced by the wind of the blower 230 to push the input door 250 installed at the exit side of the input path 220. When the grain is drawn into the perforated network 240, the perforated network 240 rotates to select, while foreign matters are collected through the dust collector 270 installed on the upper portion of the perforated network 240, and the outside of the main body 210. When the discharge door 260 installed in the lower portion of the perforated network 240 is opened, the grain selected in the perforated network 240 is discharged to the outside of the main body 210 through the discharge door 260. It is characteristic.

In addition, inside the perforated network 240, a plurality of jet nozzles 280 for jetting air toward the inner periphery of the perforated network 240 are projected and spaced apart at regular intervals along the inner periphery of the perforated network 240. to be.

In addition, the injection nozzle 280 is characterized in that the forward injection nozzle 281 for injecting air in the forward direction and the reverse injection nozzle 282 for injecting air in the reverse direction are alternately installed.

The present invention will be described in detail with reference to the accompanying drawings of coffee and grains.

1 is a schematic side view of a coffee bean and grain picker according to the present invention, and FIG. 2 is a front schematic view of a coffee bean and grain picker according to the present invention.

As shown in Figures 1 to 2, the picker 200 includes a main body 210 having an internal space, a perforated network 240 installed inside the main body 210, and a perforated network 240. A dust collector 270 that is installed on the upper side and collects foreign substances and gases generated during the selection of grains introduced into the perforated network 240 and discharges it to the outside of the main body 210, and is formed on one side of the main body 210. The blower 230 for transferring grain to the perforation network 240 through the wind to the input path 220 into which the grain is input, and the grain input to the input path 220, and the outlet side of the input path 220 The input door 250 installed to be opened only from the input path 220 to the perforated network 240 and the grains that have been selected in the perforated network 240 on the lower side of the perforated network 240 are discharged to the lower portion of the perforated network 240 It is characterized in that it consists of a discharge door 260 opened by the opening and closing means as much as possible.

A discharge door support member 261 is installed under the discharge door 260 to support the discharge door 260 toward the discharge port 211.

Preferably, the perforated network 240 is installed in a rotatable structure inside the main body 210, and the blower 230 is configured to use a cold air fan.

The perforated network 240 has an internal space, but a plurality of through holes are formed to allow air to circulate inside and outside, and the entire shape is preferably formed in an annular or cylindrical shape, and in the present invention, the cylindrical shape As the shape, the rotating shaft 241 is formed at both ends, and the rotating shaft 241 is coupled to the inner side of the main body 210 so as to be rotatable inside the main body 210.

More preferably, the perforated network 140 is installed to be rotatable inside the main body 110, and the diameter is formed larger toward the center rather than both ends, but the inclination angle is preferably about 50°.

In addition, a dust collector 270 is installed on the upper surface of the main body 210 to collect foreign substances and gases generated during the selection in the perforated network 240 and discharge them to the outside. As it is a means of tolerance, a detailed description will be omitted.

In addition, the side of one side of the main body 210 is formed with an input path 220 so that grain is input into the perforated network 240, and the input path 220 is formed to be inclined downward so that the end portion is facing the perforated network 240. It is characterized by.

Thus, a top end of the input path 220 protruding from the outside of the main body 210 is formed with a hopper-type input port 221 into which a predetermined amount of coffee or grain is introduced into the input path 220, On the opposite side of the entrance, the input door 250 is formed with an input door 250 that opens in the direction of the perforated network 240.

That is, the input door 250 is a check valve type, and the upper end is hinged to open only in one direction.

A hopper-type inlet 221 is formed on the inlet side of the input path 220, and an input control panel 221-1 for controlling the input of grain is provided between the hopper-type input port 211 and the input path 220. Installed.

In addition, a blower 230 is installed at one end of the input path 220 so as to transfer a quantity of coffee or grains input through the inlet of the input path 220 to the perforated network 240 side, by the blower 230. The intensity of the generated wind is preferably set to an intensity sufficient to open the input door 250.

Accordingly, when the input door 250 is opened by the blower 230, coffee or grains in the input path 220 are introduced into the perforated network 240.

At this time, the blower 230 cools the air and cools the heat generated during the roasting process of coffee or grains, thereby preventing the oxidation effect as well as the generation of benzopyrene generated during the roasting process.

When coffee beans or grains are introduced into the perforated network 240, foreign matter or gas is floated by spraying air inside the perforated network 240, thereby allowing foreign matter or foreign matter to be collected into the dust collector 270 installed on the upper portion of the perforated network 240. The gas is discharged to the outside of the main body 210.

On the other hand, the perforated network 240 may be rotated with the rotating shaft 241 as a central axis by a driving means such as a motor, or alternatively, it may be rotated by air injected into the perforated network 240.

That is, inside the perforated network 240, a plurality of injection nozzles 280 for jetting air toward the inner periphery of the perforated network 240 are installed to protrude at regular intervals along the inner periphery of the perforated network 240.

Thus, when air is injected from the injection nozzle 280, the injected air adds air pressure to the injection nozzle 280, thereby causing the perforated network 240 to rotate.

On the other hand, the perforated network 240 is rotated alternately in the forward and reverse directions so that foreign matter or gas may float more efficiently due to the injection of air.

That is, the injection nozzle 280 is installed by alternately installing the forward injection nozzle 281 for injecting air in the forward direction and the reverse injection nozzle 282 for injecting air in the reverse direction in the forward direction. The air is injected at 281, and after the set time passes, the air is injected from the reverse injection nozzle 282 so that the perforated network 240 is rotated in the reverse direction.

The wind generated by the forward spraying nozzle 281 and the reverse spraying nozzle 282 was also made to generate cold air like the blower 230.

 In addition, a discharge door 260 opened by the opening/closing means 290 was installed on the lower side of the perforated network 240 so that the grains selected in the perforated network 240 are discharged to the lower portion of the perforated network 240.

Meanwhile, an outlet 211 is formed on a lower surface of the lower side body 210 of the discharge door 260.

Since the power means for opening the discharge door 260 is a well-known general means, a detailed description has been omitted.

If the detailed description of the driving relationship of the present invention picker 200 as described above, when a predetermined amount of grain is input to the input path 220, the grain of the input path 220 by the cold air (wind) of the blower 230 The input door 250 installed on the outlet side is forcibly pushed into the perforated network 240, and when grain enters the perforated network 240, it is generated by the forward spraying nozzle 281 and the reverse spraying nozzle 282. As the perforated network 240 rotates and selects with the cold air, foreign matter is collected through the dust collector 270 installed on the upper portion of the perforated network 240 and discharged to the outside of the main body 210, and selected in the perforated network 240 Grain is formed on the lower surface of the main body 210, when the discharge door 260 installed in the lower portion of the perforated network 240 is opened, the grain or coffee beans are discharged to the lower portion of the perforated network 240 through the discharge door 260. It is characterized in that it is discharged to the outside through the outlet 211.

Particularly, the above-described IOT-based grain input control panel 221-1 is mounted between the input port 221 and the input path 220, and manually and automatically controlling the discharge of grain loaded in the input port 221 by IOT control. Through the discharge pipe of the input path 220, the perforated network 240 of the input door 250 is opened to open the input port 221 so that grain is transferred.

3 is a schematic side view of the ultrasonic cleaner for coffee beans and grains of the present invention, and FIG. 4 is a front schematic view of the ultrasonic cleaner for coffee beans and grains of the present invention.

3 to 4, the ultrasonic cleaning kit of the present invention includes a main body 110 in which an internal space is formed, a perforated network 140 installed inside the main body 110, and the main body 110. Installed in the perforated network 140, the door 150 is opened so that the grain or coffee beans (beans) are introduced into the inside, and the upper side body 110 of the perforated network 140 is installed inside the perforated network 140 Consists of a dust collector 170 that collects foreign matter and gas generated from grains introduced into the body and discharges it to the outside of the body 110, but inside the body 110, coffee beans (beans) introduced into the perforation network 140 are formed. Or it is characterized in that the ultrasonic cleaning kit 120 for washing the grain with ultrasonic waves is installed.

The lower side of the perforated network 140 is characterized in that it consists of a discharge door 160 that is opened by opening and closing means so that the coffee beans (beans) washed and dried to the lower portion of the perforated network 140 are discharged.

A discharge door support member 161 is installed at the bottom of the discharge door 160 to support the discharge door 260 toward the discharge port 111.

The perforated network 140 is installed so as to be rotatable inside the main body 110, and has a larger diameter toward the center rather than both ends, but the inclination angle is preferably about 50°.

Further, inside the perforated network 140, a plurality of hot air spray nozzles 180 spraying hot air toward the inner periphery of the perforated network 140 are protruded and installed at regular intervals along the inner periphery of the perforated network 140. It is characteristic.

On the other hand, the hot air spray nozzle 180 is installed by alternately installing a forward hot air nozzle 181 for spraying hot air in the forward direction, and a reverse hot air nozzle 182 for spraying hot air in the reverse direction, the forward hot air nozzle 181 By alternately spraying the hot air nozzle 182 and the reverse direction, the perforated network 140 is rotated in the forward direction when hot air is jetted from the forward hot air nozzle 181, and then rotated in the reverse direction when the hot air nozzle 182 is jetted.

In addition, the outside of the perforated network 140 is characterized in that a magnet 130 is mounted to separate heavy metals buried in coffee beans or grains introduced into the perforated network 140.

It is preferable that the magnet 130 uses a circular rod-shaped magnet rod.

When explaining the operation of the ultrasonic cleaner 100 of the present invention in more detail,

1) Washing step

When coffee beans or grains are put into the perforated network 140 of the device, strong winds float in the space within the perforated network 140 through hot air spray nozzles arranged at regular intervals for a set time to blow out fine dust. The blown fine dust is discharged to the outside of the main body 110 by the dust collector 170.

At this time, sand or foreign matter that is heavier than grains is collected by falling downward through a circular shape of the washing room or through a hole in the perforated network 140.

The next step is to spray water at high pressure for a set time.

A water sprayer (not shown) for spraying water into the perforated network 140 is separately installed inside the main body 110.

The water sprayed at high pressure is mixed with coffee beans or grains to wash the raw materials, and at the same time, ultrasonic cleaning is also performed through the ultrasonic cleaning kit 120. In addition, dust collection through the dust collector 170 is also carried out throughout the entire process.

2) Drying step

When the high pressure injection and ultrasonic cleaning process is completed, the drying step is immediately performed. At this time, the hot air for drying is sprayed for a set time in the same hot air spray nozzle 180. Moisture generated in the washing process is removed by hot air and dust collecting, so the coffee beans or grains are dried.

The dried state of the coffee beans or grains is displayed on the monitor of the ultrasonic cleaner 100 to display the temperature, humidity and weight of the raw materials in the washing room, and the coffee beans are dried by the operator according to the manual and automatic work settings, or Grain is discharged directly through the outlet 111 or through IOT control to transfer raw materials to devices and machines (process processes such as power distribution, crushing, etc.) in the next process stage to establish automation of the production process.

The next process is the selection operation through the selection machine 200.

5 is a dispenser for coffee beans and grains based on the present invention IOT.

As illustrated in FIG. 5, the storage tank 310 in which an internal space is formed so that coffee beans or grains selected inward is introduced, and downward toward the center of the storage tank 310 inside the storage tank 310. The inclined surface 311 is formed so as to penetrate downwardly in the center of the inclined surface 311, and the coffee beans or grains are introduced to the bottom thereof, and the coffee beans introduced through the inlets 312 or It consists of a storage 313 where the grain is temporarily stored, and a discharge door 314 that discharges the coffee beans or grains temporarily stored in the storage 313 to be transferred to the next work unit 320.

The plurality of discharge doors 314 are arranged to be spaced apart at regular intervals along the circumferential direction of the reservoir 313, and the next process apparatus, the work table 320, is installed to correspond one-to-one with the discharge door 314. to be.

Thus, when it is recognized that the work is completed among the plurality of work platforms 320, the coffee beans or grains temporarily stored in the storage 313 by opening the discharge door 314 in communication with the work tables 320 where the work is completed. It is discharged to the work table (320).

More specifically, the storage 313 is a place where coffee beans or grains discharged to the work table 320 are quantitatively stored, and the work table 320 is provided through each discharge door 314 by a control unit (not shown). The coffee beans or grains are discharged.

Meanwhile, an automatic switch 330 is installed between the main body 310 and the storage 313, and the automatic switch 330 is also controlled by a control unit.

The control unit is a well-known means of tolerance, so a detailed description thereof will be omitted.

Figure 6 is a schematic diagram according to another embodiment of the present invention IOT-based coffee beans and grain dispenser.

6, a single discharge door 314 is mounted on the lower end of the storage 313, and a rail 370 is installed at the bottom of the discharge door 314 in the left-right or front-rear direction. A plurality of discharge bins 360 are seated on the rail 370.

The discharge bin 360 is mounted on the lower surface of the wheel 361 to move along the rail 370, and the number of discharge bins 360 is such that the discharge bin 360 and the work table 320 correspond one-to-one. 320).

The discharge tube 360 and the corresponding work table 320 are connected to each other by a common connecting pipe.

Accordingly, when the coffee beans or grains placed on the work table 320 are removed, a discharge bin 360 corresponding to the work table 320 is placed under the discharge door 314 by a control unit, and the storage 313 The coffee beans or grains loaded in the container are dropped into the discharge bin 360 through the discharge door 314, and the coffee beans or grains contained in the discharge bin 314 again correspond to a work table corresponding to the discharge bin 314. It will be sent to (320).

On the other hand, the storage 313 is equipped with a weight sensor 350, a quantity of coffee beans or grains are discharged to the discharge bin 314.

This series of processes is controlled by a customary control.

In more detail,

Device Functionality

Sense for IOT control: temperature, humidity, weight, timer, automatic and manual selection switch

.Function setting: Smart factory-type automation through IOT control by utilizing the sense of the desired operation

 Monitor work display panel: the amount of raw material currently loaded (weight sense), the maximum load, the temperature and humidity, and the operation status of each device connected to this unit (transmission and distribution amount, current operation progress: machine 1, machine 2, machine 2) Waiting, etc.), the work permission function that asks the device connected to this device,'Are you working?', the daily work target amount (selective input function), worker code recognition and dataization, machine uptime DB (1 Day-week-month-yearly), the ability to control and manage the device with a smartphone app,

Condition setting and function: maximum loading, temperature, humidity,

.Maximum loading setting: When grain reaches the maximum value of this storage box, it is delivered to the sense of the whole process to stop transmission and wait for transmission.

Daily workload statistics function: Statistics on the workload (transmission and emission by machine) of devices connected to this unit

Selection switch (automatic and manual): This is a control that automatically and manually handles the progress between the unit and the pre- and post-operational stages, and applies waiting to the desired job when necessary (e.g., milking for maintenance is performed by the worker Since it has to be processed, it is possible to work by selecting the selection switch for supplying raw materials after ink treatment.

Loading capacity of this unit

 It consists of a basic 100kg loadable tank, but allows storage of up to 1 ton, but the important thing is not the size of the tank that can be loaded, but the function of the distributor based on IOT technology. Therefore, the size of the tank can be adjusted according to the working environment.

How the device works

Arrangement of machines and devices in this and before and after process steps:

The arrangement of the machine and the devices in the process steps before and after the device is centered as shown in FIG. 5, and several machines and devices according to the process in the before and after steps of different processes are placed on both sides to minimize work flow. It is to improve the management efficiency of workers.

.IOT control:

Interworking between all process steps of the device and the device;

When this device is activated, input is first requested to the monitor.

.Monitor indicator input setting factors:

Elements always displayed:

.Maximum loading capacity of this unit (total 100kg ~ 1 ton), current temperature, grain temperature, external humidity, humidity inside the unit

.Process machine number and amount of work by machine

Elements to enter when operating this unit:

Enter target amount to work on a day or at a given time (e.g. 8 hour work, target grain production 310kg)

. Enter the amount of work that can be performed once for machines and devices at all stages of the process (e.g., 5 kg once)

. Enter the number of the machine and device to be operated in all the process steps of the device (e.g. machine 1, machine 5, etc.)

. Enter the target amount to work in the next process step of the unit (e.g., 7 hour work, 250 kg grain production target)

. Enter the amount of work that can be performed once per machine and device in the next process step of the device (e.g., 3 kg once)

. Enter the number of the machine and device to be worked on in the next process step of the device (e.g. machine 3, machine 5, etc.)

. When such work instruction information is input, an automatic operation is performed by IOT control by pressing a selection switch for device operation.

Detailed device operation method

. When the operator sets the amount of work that can be loaded on the device, it is displayed on the monitor of the device, and the device issues work orders to the process machines and devices before work, and the machine and device that received the work orders target the raw materials. Work on supply and send to the device. At this time, when setting the work amount of the device, the work amount per machine and device (kg) is set at the same time in all process steps so that the machine and device of the entire process can set and input the workable material weight at the same time. Example) When the daily work quantity is set to 310kg of raw materials (grains) in this unit, when the weight of grains that can work at a time per machine in all process stages is 5kg, when 5 machines are operated simultaneously, 5 machines are operated once Since the amount of grain working on 5kg, 25kg of work must be done 12 times at a time, and the remaining 10kg of work remains, if only the first machine and the second machine are processed once more, a total of 310kg of work will be done. It becomes possible.

. In the process of setting work, when the work is completed in the machine of all the process steps of the apparatus, the grains worked through the conveyor are transferred to the apparatus.

. When all set workloads are completed;

. This device stops the machine and device in all process steps and stops the machine and device.

 . This device makes a database of the amount of work for a certain time, that is, one day, for each machine and device in the pre-process stage. The data processing uses the relevant senses and mechanisms installed on each machine.

. When the maximum grain loading of this unit is exceeded during work, that is, when grain is loaded in the warning range (when 900 kg of grain is loaded in 1 ton), a warning sound sounds and the warning light mounted on the unit turns on. However, the device continues to work until the maximum loading capacity of 1 ton is loaded, and when the 1 ton loading is completed, it automatically manages the machines in all process steps to control further work in advance, and after completion of the work At the same time, the machine at all stages of processing is left standing.

Interlocking between the present invention and the following process

. When the operator sets and inputs the target amount of the next production process and the machine number to work on this unit, it is displayed on the monitor of the unit, and this unit issues work orders to the next process machine and unit to work on, and gives work orders. Received raw materials targeted by the machine and device are supplied for work, and the data is transferred to the device to be converted into big data. At this time, when setting the work volume of the next process in the device, the work volume per machine and device can be input at the same time in the next process step.

. Example) When the daily work quantity is set to 310kg of raw materials (grains) in this unit, when the weight of grains that can work at a time per machine in all process stages is 5kg, when 5 machines are operated simultaneously, 5 machines are operated once Since the amount of grain working on 5kg, 25kg of work must be done 12 times at a time, and the remaining 10kg of work remains, if only the first machine and the second machine are processed once more, a total of 310kg of work will be done. It becomes possible. (All process steps have the same working method)

. When grain is transferred from the device to the next process step, a distributor (distributor) mounted at the bottom of the device operates. The dispenser, which is operated by interworking with machines and devices of the next process with IOT control, transmits grain to the machines and devices of the next process to proceed with the work instruction set and input by the operator when the device is operated. In order to send grain to the machine set by the operator, the dispenser controls the target amount and the working machine by constant IOT control in the dispenser mounted at the bottom of the unit.

. Therefore, the divider mounts the grain on the conveyor of the module that sends the grain to the corresponding machine, sends the grain to the machine to be worked on, and manages and controls multiple machines and devices in this way and collects big data according to the operation.

. In the process of setting the work as in the previous process, when the work is completed in the machine of all the process steps of the device, the grains worked through the conveyor are transferred to the device.

. The method of transferring grains from the distributor of this unit to the machines and devices in the next process step uses the conveyor and the tank height of this unit, that is, the gravity of the next process in the lower position of the distributor. It is also possible to inject grain into the machine's inlet.

. When all set workloads are completed;

. This device stops the machine and device in the next process step and turns off the machine and device.

. This device makes a database of the amount of work per day, that is, for each machine and device in the next process step. The data processing uses the relevant senses and mechanisms installed on each machine.

As described above, since the coffee beans and grain selectors of the present invention are selected by transferring coffee beans or grains with the intensity of cold wind (wind), coffee beans or grains of a prescribed quantity can be selected, and also generated by cold air. It collects and discharges benzopyrene and dust powder generated during the city, and has a remarkable effect such as improving the selection work environment that prevents oxidation and acidification of coffee beans or grains by rapidly lowering the temperature of the coffee beans and grains discharged. .

100. Ultrasonic cleaner
110. Main body 111. Outlet
120. Input route
130. Magnet
140. Perforated network 141.
150. Input statement
160. Discharge door 161. Discharge door support member
170. Dust collector
180. Hot air spray nozzle 181. Forward hot air nozzle 182. Reverse hot air nozzle
190. Warning lights
200. Jeong Seon Ki
210. Main body 211. Outlet
220. Inlet 221. Inlet 221-1. Input control panel
230. Blower
240. Perforated network 241.
250. Input statement
260. Discharge door 261. Discharge door support member
270. Dust collector
280. Spray nozzle 281. Forward spray nozzle 282. Reverse spray nozzle
290. Switching means
300. Splitter
310. Body 311. Slope 312. Inlet
313. Reservoir 314. Outlet
320. Workbench
330. Automatic switch
340. Warning light
350. Weight sensor
360. Outlet 361. Wheels
370. Rail
400. Hopper 410. Input control panel
M1, M2, M3. monitor
U. Ultrasonic cleaning kit

Claims (3)

The main body 210 in which the internal space is formed, the perforated network 240 installed inside the main body 210, and the upper portion of the perforated network 240, the grains introduced into the perforated network 240 A dust collector 270 that collects foreign substances and gases generated at the time of selection and discharges them to the outside of the main body 210, an input path 220 formed on one side of the main body 210, and into which grains are introduced, A blower 230 for conveying the grain input to the input path 220 to the perforated network 240 through the wind, and installed to be opened only from the input path 220 to the perforated network 240 on the outlet side of the input path 220 Consists of an input door 250 and an exit door 260 that is opened by opening/closing means so that grains that have been selected in the perforation network 240 on the lower side of the perforation network 240 are discharged to the lower portion of the perforation network 240. In a smart factory-type picker for fixed quantity coffee beans and grains,
Inside the perforated network 240, a plurality of injection nozzles 280 for jetting air toward the inner periphery of the perforated network 240 are installed to protrude at regular intervals along the inner periphery of the perforated network 240,
The injection nozzle 280 is a constant amount of coffee beans and grains characterized in that the forward injection nozzle 281 for spraying air in the forward direction and the reverse injection nozzle 282 for spraying air in the reverse direction are alternately installed. Yong-suk Jeong Factory. delete delete

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