TWM626905U - Dispensing table and chest of drawers thereof - Google Patents

Abstract

A dispensing table includes a drawer cabinet, a storage cabinet and a storage rack. The drawer cabinet includes a first cabinet body and a plurality of first drawers, wherein the first drawers are arranged on the first cabinet body. Each of the first drawers includes a light-emitting module, an acrylic base, a plurality of partitions and a first display, wherein the first display includes a first microcontroller unit. The storage cabinet is arranged on the top surface of the first cabinet body. The storage cabinet includes a second cabinet body, a plurality of second drawers, a plurality of second displays, and a plurality of second LED light bars, wherein each of the second displays includes a second microcontroller unit. The rack is arranged on the side of the drawer cabinet. The shelf includes a plurality of layers, a plurality of third displays and a plurality of third LED light bars, wherein each of the third displays includes a third microcontroller unit.

Description

Dispensing table and its chest of drawers

This case relates to a drawer cabinet and a dispensing table with the drawer cabinet.

When ordinary people register for medical treatment and receive medicines at hospitals or clinics, pharmacists will pick up and dispense medicines according to the prescription written by the outpatient doctor, and pack the medicines to the people who see a doctor. However, patients with chronic diseases who have been hospitalized for a long time need to take medicines regularly, so the nurses on duty will regularly (for example, after three meals and before going to bed) take medicines and dispense them according to the prescriptions issued by the resident doctor, and will dispense the prepared medicines. The medicine is given to the patient in a small cup.

Usually, pharmacies affiliated to hospitals and clinics or in inpatient wards of hospitals are equipped with dispensing tables, and different types of drugs are stored in a plurality of medicine boxes or cans on the dispensing table. When taking medicines and dispensing them, pharmacists or nurses (hereinafter collectively referred to as pharmacists) will take out the corresponding types and quantities of medicines from different medicine boxes or jars according to the type and quantity of medicines recorded on the prescription. . However, there is a problem with this manual method of taking medicines. When the names of the medicines marked on the prescription are very similar, or when there are many types and quantities of medicines, there may be a risk of taking the wrong medicines.

A drawer cabinet includes a first cabinet body and a plurality of first drawers. The first cabinet has a top surface. A plurality of first drawers are arranged on the first cabinet body, and each of the first drawers includes a light-emitting module, an acrylic base, a plurality of partitions and a first display. The light emitting module includes a plurality of first LED light bars, and the first LED light bars define an array. The acrylic base is arranged on the light-emitting module. A plurality of partitions are arranged on the acrylic base, the partitions separate the inner space of each of the first drawers into a plurality of accommodating spaces, and the partitions are defined relative to the first LED light bars. the array. The first display is disposed on the front surface of each of the first drawers, the first display includes a first microcontroller unit, and the first microcontroller unit is electrically connected to the light-emitting module.

A dispensing table includes the above-mentioned drawer cabinet and a storage cabinet. The storage cabinet is arranged on the top surface of the first cabinet body, and the storage cabinet includes a second cabinet body, a plurality of second drawers, a plurality of second displays and a plurality of second LED light bars. The second drawer is arranged on the second cabinet. Each of the second displays is disposed on the front surface of each of the second drawers, and each of the second displays includes a second microcontroller unit. Each of the second LED light bars is disposed on the front surface of each of the second drawers, and each of the second LED light bars is electrically connected to the second microcontroller unit.

In some embodiments, the above-mentioned dispensing table further includes a shelf. A shelf is arranged on the side of the drawer cabinet, and the shelf includes a plurality of layers, a plurality of third displays and a plurality of third LED light bars. Multiple shelves are arranged in parallel at intervals to define multiple storage spaces. A plurality of third displays are disposed on a front surface of each of the layers, and each of the third displays includes a third microcontroller unit. A plurality of third LED light bars are disposed on the periphery of each of the third displays, and the third LED light bars are electrically connected to the third microcontroller unit.

In some embodiments, the second LED light bar is disposed on one side of the second display.

In some embodiments, the above-mentioned second LED light bar is disposed on the periphery of the second display.

In some embodiments, each of the storage spaces of the above-mentioned storage rack includes a plurality of sub-storage spaces, and each of the sub-storage spaces corresponds to each of the third displays individually.

In some embodiments, the above-mentioned dispensing table further includes another drawer cabinet, the shelf has a bottom space, and the other drawer cabinet is disposed in the bottom space.

In some embodiments, the first microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a drug information, and the first microcontroller unit receives The drug information generates a first control signal, and the light-emitting module is controlled to a light-emitting state according to the first control signal.

In some embodiments, the second microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a drug information, and the second microcontroller unit receives The drug information generates a second control signal, and the second LED light bars are controlled to light up according to the second control signal.

In some embodiments, the third microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a drug information, and the third microcontroller unit receives The drug information generates a third control signal, and the third LED light bars are controlled to be in a light-emitting state according to the third control signal.

In some embodiments, the above-mentioned rack further includes a plurality of sensors, each of which is electrically connected to each of the third microcontroller units individually, and each of the sensors senses an object to generate a sense of The third microcontroller unit receives the sensing signal to generate a fourth control signal, and the third LED light bars are controlled to be turned off according to the fourth control signal.

In some embodiments, the sensor senses the object to generate another sensing signal, the third microcontroller unit receives the other sensing signal to generate a fifth control signal, the third LED lights The bar is controlled to another lighting state according to the fifth control signal.

A dispensing table includes a shelf and the above-mentioned drawer cabinet. The shelf has a bottom space, and the shelf includes a plurality of layers, a plurality of third displays and a plurality of third LED light bars. Multiple shelves are arranged in parallel at intervals to define multiple storage spaces. A plurality of third displays are disposed on a front surface of each of the layers, and each of the third displays includes a third microcontroller unit. A plurality of third LED light bars are disposed on the periphery of each of the third displays, and the third LED light bars are electrically connected to the third microcontroller unit. The above-mentioned chest of drawers is arranged in the bottom space.

In some embodiments, each of the storage spaces of the above-mentioned storage rack includes a plurality of sub-storage spaces, and each of the sub-storage spaces corresponds to each of the third displays individually.

In some embodiments, the above-mentioned dispensing table further includes another drawer cabinet, and the other drawer cabinet is disposed on the side of the storage rack.

In some embodiments, the first microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a drug information, and the first microcontroller unit receives The drug information generates a first control signal, and the light-emitting module is controlled to a light-emitting state according to the first control signal.

In some embodiments, the third microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a drug information, and the third microcontroller unit receives The drug information generates a third control signal, and the third LED light bars are controlled to be in a light-emitting state according to the third control signal.

In some embodiments, the above-mentioned rack further includes a plurality of sensors, each of which is electrically connected to each of the third microcontroller units individually, and each of the sensors senses an object to generate a sense of The third microcontroller unit receives the sensing signal to generate a fourth control signal, and the third LED light bars are controlled to be turned off according to the fourth control signal.

In some embodiments, the sensor senses the object to generate another sensing signal, the third microcontroller unit receives the other sensing signal to generate a fifth control signal, the third LED lights The bar is controlled to another lighting state according to the fifth control signal.

Please refer to FIG. 1 and FIG. 2 . FIG. 1 and FIG. 2 illustrate a drawer cabinet 100 . The drawer cabinet 100 includes a first cabinet body 110 and a plurality of first drawers 120 , wherein the first drawer 120 is disposed on the first cabinet body 110 , and the first drawer 120 has an inner space 126 . The first drawer 120 includes a light-emitting module 130 , an acrylic base 140 , a plurality of partitions 150 and a first display 160 , wherein the light-emitting module 130 is used to remind pharmacists of the location of the medicine, and the acrylic base 140 is used for The light emitting module 130 and the partition plate 150 are stabilized. The partition plate 150 is used to separate the inner space 126 into a plurality of accommodating spaces 152 , and the first display 160 is used to display the information of the medicine. The structures and functions of the light emitting module 130 , the acrylic base 140 , the plurality of partitions 150 , and the first display 160 in the first drawer 120 will be explained in detail below, and how they are arranged.

As shown in FIGS. 3 to 10 , the first drawer 120 includes a front panel 121 , a rear panel 122 , a first side panel 123 , a second side panel 124 and a bottom panel 125 , wherein the rear panel 122 is opposite to the front panel 121 and the first side panel 123 is opposite to each other on the second side plate 124 . The front panel 121 , the rear panel 122 , the first side panel 123 and the second side panel 124 are respectively disposed on the peripheral edge of the bottom plate 125 to define an inner space 126 together with the bottom plate 125 .

As shown in FIG. 4 , the light-emitting module 130 is disposed on the bottom plate 125 , wherein the light-emitting module 130 includes a plurality of first LED light bars 131 , and the plurality of first LED light bars 131 define an array, so that the light-emitting module 130 The appearance presents an array structure. The array is formed by a continuous arrangement of a plurality of first LED light bars 131, wherein the shape and length of each of the first LED light bars 131 can be the same or different. For example, the light emitting module 130 in FIG. 4 presents a rectangular array structure through the continuous arrangement of the plurality of first LED light bars 131A, 131B, 131C, and 131D.

As shown in FIG. 4 , the acrylic base 140 is disposed on the light-emitting module 130 , and the plurality of partitions 150 are disposed on the acrylic base 140 relative to the array defined by the first LED light bar 131 , that is, In other words, the first LED light bar 131 is disposed directly under each partition plate 150 . The acrylic base 140 is used to stabilize the light emitting module 130 so as to prevent the position of each first LED strip 131 in the light emitting module 130 from changing. The partition 150 is used for dividing the inner space 126 into a plurality of accommodating spaces 152 for storing different kinds of medicines.

Referring to FIG. 9 , in some embodiments, the separator 150 includes a long separator 150A and a short separator 150B, and each accommodating space 152 is separated by at least two long separators 150A and at least two short separators 150B made. As shown in FIG. 9 , the size of the long partitions 150A and the short partitions 150B can be determined by the user, so that the long partitions 150A and the short partitions 150B can be disposed in the array defined by the plurality of first LED light bars 131 at acrylic base 140. In some embodiments, when each partition 150 is disposed on the acrylic base 140 according to the array, the size of each accommodating space 152 separated by the partition 150 will be the same.

In some embodiments, the projection of each partition 150 along the vertical direction in FIG. 4 has a projection range, and the array defined by the first LED light bar 131 is completely within this projection range, so the first LED light bar 131 is completely within the projection range. The light emitted by 131 is incident on the bottom surface of each partition 150 , and will not be directly irradiated into each accommodating space 152 .

As shown in FIG. 3 , the first display 160 is disposed on the front surface of the first drawer 120 , that is, at the position of the front panel 121 , wherein the first display 160 includes a first microcontroller unit 161 . In some embodiments, the first display 160 is used to display detailed information of the medicines stored in the first drawer 120 (eg, the name of the medicine, the quantity of the medicine, the way of using the medicine, the indication and function of the medicine, the side effect of the medicine, etc.). When the pharmacist is carrying out the work of taking and dispensing medicines, the information displayed on the first display 160 can be used to repeatedly confirm the information of the medicines, thereby avoiding the problem of taking wrong medicines.

In some embodiments, the first microcontroller unit 161 is electrically connected to the light emitting module 130 , and the first display 160 and the light emitting module 130 are electrically connected to a computer host 400 through the first microcontroller unit 161 . In some embodiments, the computer host 400 is electrically connected to the barcode scanner 410 , so that the computer host 400 has the function of identifying and reading barcodes. In some embodiments, the computer host 400 is further electrically connected to a database 500, wherein the database 500 includes detailed information of each drug in the first drawer 120 (eg, the name of the drug, the remaining amount of the drug, and the storage of the drug) location of space 152).

In some embodiments, each accommodating space 152 corresponds to a plurality of first LED light bars 131 opposite to the surrounding partitions 150 , and the light emitting module 130 receives a first control signal from the first microcontroller unit 161 , The accommodating space 152 corresponding to the first control signal and the corresponding plurality of first LED light bars 131 are controlled to be in a light-emitting state. When the pharmacist uses the drawer 100 to take medicine and dispense medicine, the pharmacist will scan the barcode of a prescription through the barcode scanner 410, and the computer host 400 will receive the barcode of the prescription, and from the data One of the drug information corresponding to the barcode (for example, the name of the drug and the location of the accommodating space 152 in which the drug is stored) is obtained in the library 500 . Next, the first microcontroller unit 161 will receive the drug information, and generate a first control signal according to the drug information. At this time, the light emitting module 130 will receive the first control signal, so that the light-emitting module 130 is relative to the accommodating space. The plurality of first LED light bars 131 of the partition plate 150 around the 152 are controlled to be in a light-emitting state. For example, as shown in FIG. 11 , assuming that a medicine is recorded on the prescription, and the storage position of the medicine is relative to the accommodating space 152 of the solid-line box R1 , the light-emitting module 130 is relatively The plurality of first LED light bars 131 of the partitions 150 around the line box R1 are controlled to be in a light-emitting state, so that the partitions 150 around the solid-line box R1 can be light-transmitted and their positions are emphasized, thereby enabling medical affairs Personnel can easily find the position of the accommodating space 152 relative to the solid-line box R1 to obtain the medicine. In some embodiments, when the pharmacist finishes taking the medicine, the first microcontroller unit 161 stops generating the first control signal, and the light-emitting module 130 is controlled to be turned off after a period of time. In order to avoid the pharmacist to repeatedly take the medicine.

In some embodiments, when the first microcontroller unit 161 controls the light-emitting module 130 to emit light to remind the pharmacist of the location of a drug, the first microcontroller unit 161 synchronously controls the first display 160 to display the position of the drug Details. In some embodiments, the first display 160 can also be used to display the drug inventory information of the database 500. For example, when the pharmacist is not in the process of taking and dispensing drugs, the first display 160 can display the storage information in turn. The inventory information of each drug in the first drawer 120 is used to remind the pharmacist that the drug needs to be replenished to the first drawer 120 .

In some embodiments, the plurality of first LED light bars 131 of the surrounding partitions 150 of the plurality of accommodating spaces 152 in the light emitting module 130 can be simultaneously controlled to be in a light-emitting state. For example, as shown in FIG. 11 , it is assumed that the prescription records two kinds of medicines, and the storage positions of the two medicines are respectively relative to the accommodating space 152 of the solid-line box R1 and relative to the solid-line box In the accommodating space 152 of R2, the plurality of first LED light bars 131 in the light emitting module 130 relative to the partitions 150 around the solid-line box R1 and the plurality of first LED light bars 131 relative to the partitions 150 around the solid-line box R2 The LED light bar 131 is controlled to be in a light-emitting state, so that the surrounding partitions 150 relative to the solid-line box R1 and the surrounding partitions 150 relative to the solid-line box R2 can be light-transmitted and their positions are emphasized, thereby enabling medical affairs Personnel can easily find the accommodating space 152 relative to the solid-line box R1 and the accommodating space 152 relative to the solid-line box R2 to obtain medicines.

As shown in FIG. 4 , in some embodiments, the acrylic base 140 includes a plurality of circular holes 141 , and each partition 150 includes a plurality of pins 151 , and each partition 150 is inserted into a corresponding one through the pins 151 . The round hole 141 is used to fix the acrylic base 140 . The advantages of disposing the partition plate 150 on the acrylic base 140 through the combination of the round hole 141 and the plug 151 are high convenience and freedom. The required specific quantity and size of the accommodating spaces 152 can be easily obtained by inserting and removing the partition 150 .

As shown in FIG. 4 , in some embodiments, the positions of the circular holes 141A on the acrylic base 140 correspond to a plurality of nodes 132 in the light-emitting module 130 , wherein the nodes 132 represent a plurality of first LEDs in the light-emitting module 130 The intersection of an array defined by the light bar 131 . In some embodiments, each partition 150 has at least two pins 151 , so each partition 150 can be aligned with the corresponding at least two circular holes 141A through the at least two pins 151 , so that the partition 150 can be relatively The array defined by the first LED light bar 131 is disposed on the acrylic base 140 .

As shown in FIG. 4 , in some embodiments, the positions of a part of the circular holes 141A on the acrylic base 140 correspond to the plurality of nodes 132 of the array, and the positions of the remaining circular holes 141B correspond to the position between the adjacent two nodes 132 . midpoint. When the size of the spacer 150 is relatively long (eg, the long spacer 150A), the use of only two pins 151 cannot make the long spacer 150A securely set on the acrylic base 140 . Therefore, when the long partition 150A is used to separate the plurality of accommodating spaces 152, a plug 151 can be added to the long partition 150A and aligned with the corresponding circular hole 141B, so that the long partition 150A can be stably set on the acrylic on the base 140.

Referring to FIG. 12 , in some embodiments, the sizes of the at least two accommodating spaces 152 are different. As shown in FIG. 12 , the pharmaceutical personnel can remove part of the long partition 150A or the short partition 150B to obtain a larger accommodating space 152 according to different requirements. For example, as shown by the solid line block R3, when the pharmacist removes a long partition 150A, a more square accommodating space 152 can be obtained to store larger-volume pills or lozenges, which are relatively larger than the actual size. The accommodating space 152 of the line frame R3 is divided by two long partitions 150A and four short partitions 150B. As shown in the solid-line box R4, when the pharmacist removes a short partition 150B, a narrower and longer accommodating space 152 can be obtained to store the oval-shaped capsule medicine with a smaller volume, which is relative to the solid-line box R4. The accommodating space 152 is divided by four long partitions 150A and two short partitions 150B.

In some embodiments, when the pharmacist removes part of the partition 150 to obtain a larger accommodating space 152 , the pharmacist can adjust the firmware settings of the first LED light bar 131 in the light-emitting module 130 , The plurality of first LED light bars 131 in the light-emitting module 130 relative to the partitions 150 around the larger accommodating space 152 are controlled to be in a light-emitting state. For example, as shown in FIG. 12 , assuming that a medicine is recorded on the prescription, and the storage position of the medicine is relative to the accommodating space 152 of the solid-line box R3, the light-emitting module 130 is relatively The plurality of first LED light bars 131 of the partitions 150 around the line box R3 are controlled to be in a light-emitting state, so that the partitions 150 around the solid-line box R3 can be light-transmitted and their positions are emphasized, thereby making the medical affairs easier. Personnel can easily find the position of the accommodating space 152 relative to the solid-line box R3 to obtain the medicine.

In some embodiments, the first LED light bars 131 of the surrounding partitions 150 of the accommodating spaces 152 of different sizes can be controlled to be in a light-emitting state at the same time. For example, as shown in FIG. 12 , it is assumed that the prescription records two kinds of medicines, and the storage positions of the two medicines are respectively relative to the accommodating space 152 of the solid-line box R3 and relative to the solid-line box In the accommodating space 152 of R4, the plurality of first LED light bars 131 in the light emitting module 130 relative to the partitions 150 around the solid-line box R3 and the plurality of first LED light bars 131 relative to the partitions 150 around the solid-line box R4 The LED light bar 131 is controlled to be in a light-emitting state, so that the surrounding partitions 150 relative to the solid-line box R3 and the surrounding partitions 150 relative to the solid-line box R4 can transmit light and emphasize their positions, thereby enabling medical Personnel can easily find the positions of the accommodating space 152 relative to the solid-line box R3 and the accommodating space 152 relative to the solid-line box R4 to obtain medicines.

Referring to FIG. 13 , in some embodiments, the acrylic base 140 includes a plurality of baffles 142 . As shown in FIG. 13 , a plurality of baffles 142 are respectively disposed on the peripheral edges of the acrylic base 140 , and each accommodating space 152 is partitioned by at least one long partition 150A and at least one short partition 150B. Since the baffles 142 are disposed on the surrounding edges of the acrylic base 140 , the accommodating spaces 152 around the first drawer 120 can be separated by a smaller number of partitions 150 . For example, as shown in the accommodating space 152A located at the corner of the first drawer 120 , the accommodating space 152A is divided by a long partition 150A and a short partition 150B. As shown in the accommodating space 152B located at the peripheral edge of the first drawer 120, the accommodating space 152B is divided by two long partitions 150A and one short partition 150B.

Please refer to FIGS. 14 and 15 . FIGS. 14 and 15 illustrate a storage cabinet 200 , wherein the storage cabinet 200 includes a second cabinet body 201 , a plurality of second drawers 210 , a plurality of second displays 220 and a plurality of first Two LED strips 230. The second drawer 210 has an inner space 211 , the second display 220 is used for displaying the information of the medicine, and the second LED light bar 230 is used for reminding the pharmaceutical staff of the location of the medicine. The structures and functions of the second cabinet 201 , the second drawer 210 , the second display 220 , and the second LED light bar 230 in the storage cabinet 200 will be explained in detail below, and how they are arranged.

As shown in FIGS. 14 and 15 , the second drawers 210 are disposed in the second cabinet body 201 , and each of the second drawers 210 includes an inner space 211 for storing medicines. In some embodiments, each of the second drawers 210 stores the same type of medicines to avoid mixing up different types of medicines. Taking FIGS. 14 and 15 as an example, in this embodiment, the storage cabinet 200 includes 16 second drawers 210 , so the storage cabinet 200 can store up to 16 different types of medicines.

As shown in FIGS. 14 and 15 , the second display 220 and the second LED light bar 230 are disposed on the front surface of the second drawer 210 . In some embodiments, the second LED light bar 230 is disposed on one side of the second display 220 . In some embodiments, a plurality of second LED light bars 230 are disposed on the periphery of the second display 220 , for example, disposed at the position of the solid line box R5 shown in FIGS. 14 and 15 .

In some embodiments, each second display 220 includes a second microcontroller unit 221 , wherein the second display 220 and the second LED light bar 230 are electrically connected to the computer host 400 through the second microcontroller unit 221 . In some embodiments, the database 500 further includes detailed information of each medicine in the storage cabinet 200 (eg, the name of the medicine, the remaining quantity of the medicine, and the location of the second drawer 210 where the medicine is stored).

In some embodiments, the plurality of second LED light bars 230 on the periphery of the second display 220 of each second drawer 210 receive a second control signal from the second microcontroller unit 221 so as to correspond to the second control signal The plurality of second LED light bars 230 on the periphery of the second display 220 of the second drawer 210 of the signal are controlled to be in a light-emitting state. When the pharmacist uses the storage cabinet 200 to take medicine and dispense medicines, the pharmacist will scan the barcode of a prescription through the barcode scanner 410, and the computer host 400 will receive the barcode of the prescription and read the data from the data. One of the drug information corresponding to the barcode (for example, the name of the drug and the position of the second drawer 210 where the drug is stored) is obtained in the library 500 . Next, the second microcontroller unit 221 will receive the drug information, and generate a second control signal according to the drug information. At this time, the plurality of second LED light bars 230 on the periphery of the second display 220 will receive the first control signal. The two control signals are controlled to be in a light-emitting state. For example, as shown in FIG. 14 and FIG. 15 , it is assumed that a medicine is recorded on the prescription, and the storage position of the medicine is the second drawer 210 relative to the solid-line box R5, which is located in the solid-line box The plurality of second LED light bars 230 on the periphery of the second display 220 at the position of R5 are controlled to be in a light-emitting state, so that the position of the second drawer 210 relative to the solid line frame R5 can be emphasized, so that the pharmacist can Easily find the position of the second drawer 210 relative to the solid box R5 to access the medication. In some embodiments, when the pharmacist finishes taking the medicine, the second microcontroller unit 221 stops generating the second control signal, and the second LED light bar 230 is controlled to be turned off after a period of time. state to avoid repeated drug collection by the pharmacist.

In some embodiments, when the second microcontroller unit 221 controls a plurality of second LED light bars 230 on the periphery of a second display 220 to emit light to remind the pharmacist of the location of a drug, the second microcontroller unit 221 will The second display 220 is synchronously controlled to display the detailed information of the medicine (for example, the name of the medicine, the quantity of the medicine, the way of using the medicine, the indications and effects of the medicine, and the side effects of the medicine), so that the pharmacist can repeatedly confirm the information of the medicine to Avoid the problem of taking the wrong medication. In some embodiments, the second display 220 can also be used to display the inventory information of the database 500. For example, when the pharmacist is not taking medicines and dispensing medicines, the second display 220 can display the information stored in the storage The drug inventory information in the cabinet 200 is used to remind the pharmacist that the drug needs to be replenished to the storage cabinet 200 .

Please refer to FIG. 16 and FIG. 17 , FIG. 16 illustrates a dispensing table 10 , and FIG. 17 illustrates a block diagram of a module of the dispensing table 10 . As shown in FIG. 16 , the dispensing table 10 includes a drawer cabinet 100 and a storage cabinet 200 , wherein the first cabinet body 110 of the drawer cabinet 100 has a flat top surface 111 , and the storage cabinet 200 is disposed on the top surface of the first cabinet body 110 . 111 on. In some embodiments, the storage cabinet 200 is fastened to the top surface 111 .

As shown in FIG. 17 , in some embodiments, the light emitting module 130 of the drawer cabinet 100 and the second LED light bar 230 of the storage cabinet 200 can be controlled to be in a light-emitting state at the same time. When the pharmacist uses the dispensing station 10 to take medicine and dispense the medicine, the pharmacist will scan the barcode of a prescription through the barcode scanner 410 , and the computer host 400 will receive the barcode of the prescription and read the data from the data. Drug information (eg, drug name and drug storage location) corresponding to one of the barcodes is obtained in the library 500 . Then, the first microcontroller unit 161 and the second microcontroller unit 221 will receive the drug information, and respectively transmit a first control signal and a second control signal according to the drug information to the light-emitting module 130 and the second control signal. The plurality of second LED light bars 230 on the periphery of the display 220 are controlled to be in a light-emitting state at the same time. For example, as shown in FIG. 11 and FIG. 15 , it is assumed that the prescription sheet records multiple medicines, and the storage positions of the multiple medicines are relative to the accommodating space 152 of the solid-line box R1 relative to the solid-line square. When the second drawer 210 of the frame R5 is located, the plurality of first LED light bars 131 of the peripheral partition 150 of the solid-line frame R1 and the plurality of second LEDs located at the periphery of the second display 220 at the position of the solid-line frame R5 The light bar 230 is controlled to be in an illuminated state, so that its respective positions can be highlighted, so that the pharmacist can easily find the respective positions to obtain different medicines.

Please refer to FIG. 18 . FIG. 18 illustrates a shelf 300 , wherein the shelf 300 includes a plurality of laminates 310 , a plurality of third displays 320 and a plurality of third LED light bars 330 . A plurality of layers 310 are arranged in parallel at intervals to define a plurality of storage spaces 311 for storing medicines, a third display 320 is used to display information of medicines, and a third LED light bar 330 is used to remind pharmaceutical staff of the location of medicines . The structures and functions of the middle board 310 , the third display 320 , and the third LED light bar 330 of the rack 300 will be explained in detail below, and the arrangement of each other will be described.

As shown in FIG. 18 , a plurality of layers 310 are disposed on the storage rack 300 to form a plurality of storage spaces 311 . In some embodiments, the storage space 311 includes a plurality of sub-storage spaces 311A, wherein each of the sub-storage spaces 311A corresponds to each of the third displays 320 , and each of the sub-storage spaces 311A can store a medicine. Taking FIG. 18 as an example, in this embodiment, one of the sub storage spaces 311A corresponds to the third display 320 surrounded by the solid-line box R6, and the corresponding relationship between the remaining sub storage spaces 311A and the third display 320 is So on and so forth.

In some embodiments, a plurality of third displays 320 are disposed on a front surface of each laminate 310 , and a plurality of third LED light bars 330 are disposed on the periphery of each third display 320 , for example, as shown in FIG. 18 The location of the solid box R6 is shown.

In some embodiments, each third display 320 includes a third microcontroller unit 321 , wherein the third display 320 and the third LED light bar 330 are electrically connected to the computer host 400 through the third microcontroller unit 321 . In some embodiments, the database 500 further includes inventory information of each medicine on the shelf 300 (eg, the name of the medicine, the remaining quantity of the medicine, and the location of the child storage space 311A where the medicine is stored).

In some embodiments, the plurality of third LED light bars 330 on the periphery of each third display 320 receive a third control signal from the third microcontroller unit 321, so that the third display corresponding to the third control signal A plurality of third LED light bars 330 around the periphery of 320 are controlled to be in a light-emitting state. When the pharmacist uses the rack 300 to take medicine and dispense medicine, the pharmacist will scan the barcode of a prescription through the barcode scanner 410, and the computer host 400 will receive the barcode of the prescription, and from the data One of the drug information corresponding to the prescription is obtained in the library 500 (for example, the name of the drug and the location of the sub-storage space 311A where the drug is stored). Next, the third microcontroller unit 321 will receive the drug information, and generate a third control signal according to the drug information. At this time, a plurality of third LED light bars 330 on the periphery of the third display 320 will receive the third control signal. The three control signals are controlled to be in the light-emitting state. For example, as shown in FIG. 18 , it is assumed that a medicine is recorded on the prescription, and the storage position of the medicine is relative to the sub storage space 311A of the solid-line box R6, and is located at the position where the solid-line box R6 is located. The plurality of third LED light bars 330 on the periphery of the third display 320 will be controlled to be illuminated, so that the position of the child storage space 311A relative to the solid line box R6 can be emphasized, so that the pharmacist can easily find the relative position. Get the medicine at the position of the child storage space 311A of the solid line box R6. In some embodiments, when the pharmacist finishes taking the medicine, the third microcontroller unit 321 stops generating the third control signal, and the third LED light bar 330 is controlled to be turned off after a period of time. state to avoid repeated drug collection by the pharmacist.

In some embodiments, when the third microcontroller unit 321 controls a plurality of third LED strips 330 on the periphery of a third display 320 to emit light to remind the pharmacist of the location of a drug, the third microcontroller unit 321 will The third display 320 is synchronously controlled to display the detailed information of the drug (for example, the name of the drug, the amount of the drug, the mode of use of the drug, the indications and effects of the drug, and the side effects of the drug), so that the pharmacist can repeatedly confirm the information of the drug to Avoid the problem of taking the wrong medication. In some embodiments, the third display 320 can also be used to display the inventory information of the database 500. For example, when the pharmacist is not taking medicines and dispensing medicines, the third display 320 can display the inventory information stored in the storage The drug inventory information on the rack 300 is used to remind the pharmacist that the drug needs to be replenished to the rack 300 .

Please refer to FIGS. 19 to 21 . FIGS. 19 and 20 illustrate another embodiment of the dispensing table 10 , and FIG. 21 illustrates a block diagram of a module of another embodiment of the dispensing table 10 . As shown in FIGS. 19 and 20 , the dispensing table 10 includes a drawer cabinet 100 , a storage cabinet 200 and a storage rack 300 , wherein the storage cabinet 200 is arranged on the top surface 111 of the first cabinet body 110 , and the storage rack 300 is arranged in the drawer The side of the cabinet 100. In some embodiments, the storage cabinet 200 is fastened to the top surface 111 , and the storage rack 300 is fastened to the side of the drawer cabinet 100 . In some embodiments, the dispensing table 10 further includes another drawer cabinet 100 , the shelf 300 has a bottom space 340 , and the other drawer cabinet 100 is disposed in the bottom space 340 .

As shown in FIG. 21 , in some embodiments, the light emitting module 130 of the drawer cabinet 100 , the second LED light bar 230 of the storage cabinet 200 , and the third LED light bar 330 of the shelf 300 can be controlled to emit light at the same time. When the pharmacist uses the dispensing station 10 to take medicine and dispense the medicine, the pharmacist will scan the barcode of a prescription through the barcode scanner 410 , and the computer host 400 will receive the barcode of the prescription and read the data from the data. Drug information (eg, drug name and drug storage location) corresponding to one of the barcodes is obtained in the library 500 . Then, the first microcontroller unit 161, the second microcontroller unit 221 and the third microcontroller unit 321 will receive the drug information, and respectively transmit a first control signal and a second control signal according to the drug information The signal and a third control signal are sent to the light emitting module 130, the plurality of second LED light bars 230 at the periphery of the second display 220, and the plurality of third LED light bars 330 at the periphery of the third display 320, so that they are simultaneously controlled to emit light state. For example, as shown in FIG. 11 , FIG. 15 and FIG. 18 , it is assumed that the prescription sheet records multiple medicines, and the storage positions of the multiple medicines are relative to the accommodating space 152 of the solid-line box R1 , relative to When the second drawer 210 of the solid line box R5 and the sub storage space 311A relative to the solid line box R6, the plurality of first LED light bars 131 of the peripheral partition 150 of the solid line box R1 are located in the solid line box R1. The plurality of second LED light bars 230 at the periphery of the second display 220 at the position of R5 and the plurality of third LED light bars 330 at the periphery of the third display 320 at the position of the solid-line box R6 are controlled to be in the light-emitting state, so that the The respective positions are highlighted so that the pharmacist can easily find the respective positions to obtain different medicines.

Please refer to FIG. 22 and FIG. 23 . FIG. 22 illustrates another embodiment of the dispensing table 10 , and FIG. 23 illustrates a block diagram of a module of another embodiment of the dispensing table 10 . As shown in FIG. 22 , the dispensing table 10 includes a drawer cabinet 100 and a shelf 300 , wherein the drawer cabinet 100 is disposed in the bottom space of the shelf 300 . In some embodiments, the dispensing table 10 further includes another drawer cabinet 100 , wherein the other drawer cabinet 100 is disposed on the side of the storage rack 300 . In some embodiments, another chest of drawers 100 is fastened to the side of the shelf 300 .

As shown in FIG. 23 , in some embodiments, the light-emitting module 130 of the drawer cabinet 100 and the third LED light bar 330 of the shelf 300 can be controlled to be in a light-emitting state at the same time. When the pharmacist uses the dispensing station 10 to take medicine and dispense the medicine, the pharmacist will scan the barcode of a prescription through the barcode scanner 410 , and the computer host 400 will receive the barcode of the prescription and read the data from the data. Drug information (eg, drug name and drug storage location) corresponding to one of the barcodes is obtained in the library 500 . Then, the first microcontroller unit 161 and the third microcontroller unit 321 receive the drug information, and respectively transmit a first control signal and a third control signal to the light-emitting module 130 and the third control signal according to the drug information. There are a plurality of third LED light bars 330 on the periphery of the three displays 320, so that they are controlled to be in a light-emitting state at the same time. For example, as shown in FIG. 11 and FIG. 18 , it is assumed that the prescription records multiple medicines, and the storage positions of the multiple medicines are relative to the accommodating space 152 of the solid-line box R1 and relative to the solid-line square R1 . In the child storage space 311A of the frame R6, relative to the plurality of first LED light bars 131 of the peripheral partition 150 of the solid-line frame R1 and the plurality of third LED lights located at the periphery of the third display 320 where the solid-line frame R6 is located The bars 330 are controlled to be illuminated so that their respective positions are highlighted so that the pharmacist can easily find the respective positions to obtain different medicines.

As shown in FIGS. 21 and 23 , in some embodiments, the rack 300 further includes a plurality of sensors 350 , wherein each sensor 350 is electrically connected to the third microcontroller of each third display 320 individually. Unit 321. In some embodiments, the sensor 350 is a proximity sensor for sensing whether the medicine on the rack 300 has been removed. For example, as shown in FIG. 18 , when the plurality of third LED light bars 330 located at the periphery of the third display 320 at the position of the solid-line box R6 are controlled to be illuminated, the pharmacist will reach out to the sub storage space 311A to take medicine. When the hand of the pharmacist reaches into the sub storage space 311A, the sensor 350 will sense the hand of the pharmacist to generate a sensing signal, and the third microcontroller unit 321 will receive the sensing signal at this time A fourth control signal is generated, and the plurality of third LED light bars 330 on the periphery of the solid-line box R6 are controlled to be turned off according to the fourth control signal, so as to remind the pharmacist to avoid repeatedly taking medicines.

In some embodiments, the models of the first LED light bar 131 , the second LED light bar 230 and the third LED light bar 330 are WS2812B. The WS2812B light bar contains multiple WS2812B units, and each WS2812B unit can be controlled and switched independently. The advantages of the WS2812B light bar are convenient control and extremely low power consumption. Users only need to electrically connect the three pins of the WS2812B light bar to a power supply, and can input multiple lights at one time. The data group individually controls each WS2812B unit on the WS2812B light bar to be in a light-emitting state.

In some embodiments, the WS2812B cell has multiple color light-emitting states. Each WS2812B unit is individually controlled by a data group to control its light-emitting state, wherein each data group includes three sub-data groups, and each sub-data group includes 8 bits (bits). That is, each data group contains 24 bits. In some embodiments, the three sub-data sets control the intensities of green, red, and blue, respectively, where the intensities of green, red, and blue all have 256 variations (00000000 to 11111111). That is to say, by inputting different data sets to the WS2812B unit, the WS2812B unit can be controlled to generate light-emitting states of different colors and brightness.

In some embodiments, when the WS2812B light bar is applied to the dispensing station 10, the pharmacist can distinguish the storage position of the medicine through the lighting states of different colors. Taking the chest of drawers 100 as an example, as shown in FIG. 11 , it is assumed that the pharmacist has two prescriptions in his hand, and the storage positions of the medicines on the two prescriptions are respectively the accommodating space 152 relative to the solid-line box R1 and the When relative to the accommodating space 152 of the solid-line box R2, the first microcontroller unit 161 controls the plurality of first LED light bars 131 relative to the solid-line box R1 and the plurality of first LED light bars 131 relative to the solid-line box R2 The first LED light strips 131 respectively generate light-emitting states of different colors (for example, one light-emitting state is red, and the other light-emitting state is blue), so as to avoid confusion between the medicines on the two prescriptions by the pharmacist.

In some embodiments, when the WS2812B light bar is applied to the rack 300, the pharmacist can confirm whether the medicine on the rack 300 has been taken out through the color change of the WS2812B light bar. Taking Figure 18 as an example, in the initial state, all WS2812B light bars will not emit light. When the plurality of third LED light bars 330 located on the periphery of the third display 320 where the solid line box R6 is located are controlled to be in a light-emitting state of a color (eg, green), it represents that the medicine on a prescription is stored in the opposite In the sub storage space 311A of the solid line box R6, the pharmacist will reach out to the sub storage space 311A to take medicine at this time. When the hand of the pharmacist reaches into the sub-storage space 311A, the sensor 350 of the shelf 300 will sense the hand of the pharmacist and generate a sensing signal. At this time, the third microcontroller unit 321 will receive the The sensing signal generates a fifth control signal, and the plurality of third LED light bars 330 relative to the periphery of the solid line box R6 are controlled to emit light of another color (eg, red) according to the fifth control signal state. In this way, the pharmacist can avoid repeated taking of medicines according to the color change of the third LED light bar 330 .

In some embodiments, the first display 160 , the second display 220 and the third display 320 are electronic paper, wherein the electronic paper has the advantages of extremely low power consumption, and the images displayed by the electronic paper are illuminated by ordinary light. is still clearly visible.

Although the present case has been disclosed above with examples, it is not intended to limit the creation of this case. Anyone with ordinary knowledge in the technical field can make some modifications and changes without departing from the spirit and scope of the disclosure. However, these minor modifications and changes are still within the scope of the patent application in this case.

10: Dispensing table 100: chest of drawers 110: The first cabinet 111: Top surface 120: The first drawer 121: Front panel 122: rear panel 123: First side panel 124: Second side panel 125: Bottom plate 126: Interior Space 130: Lighting module 131: The first LED strip 131A: First LED strip 131B: The first LED strip 131C: The first LED strip 131D: The first LED strip 132: Node 140: Acrylic base 141: round hole 141A: round hole 141B: round hole 142: Baffle 150: Clapboard 150A: long partition 150B: Short Separator 151: latch 152: accommodating space 152A: accommodating space 152B: Accommodating space 160: first monitor 161: First microcontroller unit 200: Storage Cabinet 201: Second Cabinet 210: Second drawer 211: Interior Space 220: Second monitor 221: Second microcontroller unit 230: Second LED strip 300: Shelf 310: Laminate 311: Storage space 311A: Sub storage space 320: Third Display 321: Third microcontroller unit 330: Third LED strip 340: Bottom space 350: Sensor 400: computer host 410: Barcode Scanner 500:Database R1~R6: Solid line box

[Fig. 1] is a three-dimensional schematic diagram of a chest of drawers according to an embodiment of the present invention. [FIG. 2] It is a partial perspective exploded view of a chest of drawers according to an embodiment of the present invention. [ Fig. 3 ] is a schematic perspective view of a first drawer according to an embodiment of the present invention. [FIG. 4] It is a partial perspective exploded view of the first drawer according to an embodiment of the present invention. [Fig. 5] is a schematic front view of the first drawer according to an embodiment of the present invention. [Fig. 6] is a schematic diagram of the rear view of the first drawer according to an embodiment of the present invention. [ Fig. 7 ] is a schematic diagram of a first side view of a first drawer according to an embodiment of the present invention. [ Fig. 8 ] is a schematic diagram of a second side view of the first drawer according to an embodiment of the present invention. [Fig. 9] is a schematic top view (1) of the first drawer according to an embodiment of the present invention. [Fig. 10] is a schematic bottom view of the first drawer according to an embodiment of the present invention. [Fig. 11] is a schematic top view (2) of the first drawer according to an embodiment of the present invention. [ Fig. 12 ] is a schematic top view of the first drawer according to another embodiment of the present invention. [FIG. 13] It is a partial perspective exploded view of the first drawer according to another embodiment of the present invention. [FIG. 14] It is a three-dimensional schematic diagram of a storage cabinet according to an embodiment of the present invention. [FIG. 15] It is a partial perspective exploded view of a storage cabinet according to an embodiment of the present invention. [FIG. 16] It is a schematic front view of a dispensing table according to an embodiment of the present invention. [Fig. 17] is a block diagram of a module of a dispensing station according to an embodiment of the present invention. [FIG. 18] It is a three-dimensional schematic diagram of a shelf according to an embodiment of the present invention. [ Fig. 19 ] is a schematic perspective view of a dispensing table according to another embodiment of the present invention. [Fig. 20] is a schematic diagram (1) of the front view of the dispensing table according to another embodiment of the present invention. [Fig. 21] is a block diagram (1) of a module of a dispensing station according to another embodiment of the present invention. [Fig. 22] is a schematic diagram (2) of the front view of the dispensing table according to another embodiment of the present invention. [Fig. 23] is a block diagram (2) of a module of a dispensing station according to another embodiment of the present invention.

10: Dispensing table

100: chest of drawers

200: Storage Cabinet

300: Shelf

Claims (19)

A chest of drawers comprising: a first cabinet having a top surface; and A plurality of first drawers are arranged on the first cabinet body, and each of the first drawers includes: a light-emitting module, including a plurality of first LED light bars, the first LED light bars define an array; an acrylic base disposed on the light-emitting module; A plurality of partitions are arranged on the acrylic base, the partitions separate an inner space of each of the first drawers into a plurality of accommodating spaces, and the partitions are opposite to the first LED light bars. the array defined; and A first display is disposed on the front surface of each of the first drawers, the first display includes a first microcontroller unit, and the first microcontroller unit is electrically connected to the light-emitting module. A dispensing table comprising: A chest of drawers as described in claim 1; and A storage cabinet, disposed on the top surface of the first cabinet body, the storage cabinet includes: a second cabinet; a plurality of second drawers arranged on the second cabinet; a plurality of second displays, each of the second displays is disposed on the front surface of each of the second drawers, and each of the second displays includes a second microcontroller unit; and A plurality of second LED light bars, each of the second LED light bars is disposed on the front surface of each of the second drawers, and each of the second LED light bars is electrically connected to the second microcontroller unit. The dispensing table according to claim 2, further comprises a shelf, which is arranged on the side of the drawer cabinet, and the shelf includes: Multiple shelves, the interval is set in parallel to define multiple storage spaces; a plurality of third displays disposed on a front surface of each of the layers, each of the third displays comprising a third microcontroller unit; and A plurality of third LED light bars are disposed on the periphery of each of the third displays, and the third LED light bars are electrically connected to the third microcontroller unit. The dispensing table of claim 3, wherein each of the second LED light bars is disposed on one side of the second display. The dispensing table of claim 3, wherein the second LED light bars are arranged on the periphery of the second display. The dispensing table of claim 3, wherein each of the storage spaces of the storage rack includes a plurality of sub-storage spaces, and each of the sub-storage spaces corresponds to each of the third displays individually. The dispensing table according to claim 3 further comprises another drawer cabinet according to claim 1, the shelf has a bottom space, and the other drawer cabinet is arranged in the bottom space. The dispensing station of any one of claims 2 to 7, wherein the first microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a medicine information, the first microcontroller unit receives the medicine information to generate a first control signal, and the light-emitting module is controlled to a light-emitting state according to the first control signal. The dispensing station of any one of claims 2 to 7, wherein the second microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a medicine information, the second microcontroller unit receives the medicine information and generates a second control signal, and the second LED light bars are controlled to light-emitting state according to the second control signal. The dispensing station of any one of claims 3 to 7, wherein the third microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a medicine information, the third microcontroller unit receives the medicine information to generate a third control signal, and the third LED light bars are controlled to light-emitting state according to the third control signal. The dispensing table according to any one of claims 3 to 7, wherein the rack further comprises a plurality of sensors, each of the sensors is electrically connected to each of the third microcontroller units individually, and each of the sensors is electrically connected to each of the third microcontroller units. The sensor senses an object entering the storage space to generate a sensing signal, the third microcontroller unit receives the sensing signal and generates a fourth control signal, and the third LED light bars are based on the fourth control signal. The control signal is controlled to be off. The dispensing table of claim 11, wherein each of the sensors senses that the object enters the storage space to generate another sensing signal, and the third microcontroller unit receives the other sensing signal to generate a A fifth control signal, the third LED light bars are controlled to another lighting state according to the fifth control signal. A dispensing table comprising: A shelf with a bottom space, the shelf includes: Multiple shelves, the interval is set in parallel to define multiple storage spaces; a plurality of third displays disposed on a front surface of each of the layers, each of the third displays comprising a third microcontroller unit; and a plurality of third LED light bars, disposed on the periphery of each of the third displays, the third LED light bars are electrically connected to the third microcontroller unit; and The drawer cabinet according to claim 1 is arranged in the bottom space. The dispensing table of claim 13, wherein each of the storage spaces of the storage rack includes a plurality of sub-storage spaces, and each of the sub-storage spaces corresponds to each of the third displays individually. The dispensing table according to claim 13 further comprises another drawer cabinet according to claim 1, and the other drawer cabinet is arranged on the side of the storage rack. The dispensing table of any one of claims 13 to 15, wherein the first microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a medicine information, the first microcontroller unit receives the medicine information to generate a first control signal, and the light-emitting module is controlled to a light-emitting state according to the first control signal. The dispensing table of any one of claims 13 to 15, wherein the third microcontroller unit is further electrically connected to a computer host, and the computer host receives a barcode of a prescription through a barcode scanner to generate a medicine information, the third microcontroller unit receives the medicine information to generate a third control signal, and the third LED light bars are controlled to light-emitting state according to the third control signal. The dispensing table of any one of claims 13 to 15, wherein the rack further comprises a plurality of sensors, each of the sensors is electrically connected to each of the third microcontroller units individually, and each of the sensors is electrically connected to each of the third microcontroller units. The sensor senses an object entering the storage space to generate a sensing signal, the third microcontroller unit receives the sensing signal and generates a fourth control signal, and the third LED light bars are based on the fourth control signal. The control signal is controlled to be off. The dispensing table of claim 18, wherein each of the sensors senses the object entering the storage space to generate another sensing signal, and the third microcontroller unit receives the other sensing signal to generate a A fifth control signal, the third LED light bars are controlled to another lighting state according to the fifth control signal.

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