Drone port system and method for controlling the same
The safe delivery of online medical prescription drugs is achieved through the drone port system, solving the problem of drug delivery far away from hospitals or pharmacies, and ensuring that patients can quickly and safely obtain prescription drugs.
Patent Information
- Application Number
- JP2023123153
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2023-07-28
- Publication Date
- 2025-02-07
AI Technical Summary
In areas far away from hospitals or pharmacies or doctors are far away from patients, the prior art cannot effectively realize drug delivery after online medical consultation, and there are safety risks of drug delivery.
By establishing a drone port system, patients send information and passwords to the nearest drone port through the terminal after online medical consultation. The port system stores information and selects a distribution port. The distribution port prepares drugs and delivers them by the drone. After receiving the port, the drug is provided after verifying the patient's identity.
It enables patients to safely and quickly obtain online doctor prescription drugs even in the absence of hospitals or pharmacies, avoiding drug delivery accidents.
Smart Images

Figure 2025019510000001_ABST
Abstract
Description
[Technical field]
[0001] The present invention relates to a drone port system for receiving prescription drugs based on online medical consultation and a control method thereof. [Background technology]
[0002] A "drone" is a type of small unmanned helicopter that flies autonomously or remotely. In recent years, there are plans to use drones to transport small packages, inspect bridges and other structures, and spray pesticides. In addition, "drone port" means a facility equipped with a landing surface (hereinafter referred to as "port surface") on which drones land.
[0003] A remote medical treatment support system has been proposed that enables remote medical treatment by communicating, for example, by videophone between a doctor terminal and a patient terminal (see, for example, Patent Document 1).
[0004] The "information processing device" of Patent Document 1 is connectable to a first client terminal used by a patient and a second client terminal used by a doctor, and includes a means for storing patient identification information, doctor identification information, and appointment information in association with each other. The information processing device further includes a control means for starting a video call sequence based on the appointment information, and a means for storing chart information related to remote medical treatment performed in the video call sequence in association with the patient identification information and doctor identification information. [Prior art documents] [Patent documents]
[0005] [Patent Document 1] Patent No. 6574391 Summary of the Invention [Problem to be solved by the invention]
[0006] Patent Document 1 discloses an information processing device that provides a means for making reservations for remote medical treatment and a means for video calling between a doctor and a patient. However, when there is no pharmacy or hospital nearby (e.g., on a remote island or in a mountainous area) or when a patient's primary care physician is far away (e.g., when the physician or patient is traveling), patients may want to receive their prescriptions quickly, in addition to receiving medical treatment online from a physician.
[0007] On the other hand, in the case of remote medical care, there is a possibility that other patients may receive prescription drugs based on the doctor's diagnosis, so it is necessary to ensure that such accidents are prevented.
[0008] The present invention has been devised to solve such problems. That is, the object of the present invention is to provide a means for a patient to promptly receive a prescription based on online medical care, even when there is no pharmacy or hospital nearby, or when the patient's regular doctor is far away, and to prevent an accident in which another patient receives the same prescription. [Means for solving the problem]
[0009] According to the present invention, a patient receives prescription data by remotely consulting a doctor, and then transmits patient information and the prescription data to a pharmacist's pharmacy terminal via a patient terminal or a receiving drone port closest to the patient, and receives a password associated with the prescription drug. A drone port including the receiving drone port, and a drone capable of taking off and landing on the drone port, The receiving drone port has a function of storing the patient information, the prescription data, and the password, and selecting a shipping drone port from the drone port to ship the prescription drug and requesting delivery of the prescription drug; The delivery drone port has a function of preparing the prescription drug based on the prescription data and requesting delivery by the drone; The drone has a function of delivering the prescription drug from the sending drone port to the receiving drone port, A drone port system is provided in which the receiving drone port further has the function of authenticating the patient based on the input patient information and providing the prescription drug linked to the patient based on the input password.
[0010] In addition, according to the present invention, the above drone port system is used, (A) a data transmission and reception step in which the patient receives the prescription data by receiving remote medical care from a doctor, then transmits the patient information to the pharmacy terminal via the patient terminal or the receiving drone port closest to the patient, receives authentication, transmits the prescription data, and receives the password associated with the prescription drug; (B) a delivery request step in which the receiving drone port stores the patient information, the prescription data, and the password, and selects the sending drone port from the drone port to send the prescription drug, and requests delivery of the prescription drug; (C) a prescription drug preparation step in which the shipping drone port prepares the prescription drug based on the prescription data and requests the drone to deliver the prescription drug; (D) a prescription drug delivery step in which the drone delivers the prescription drug from the sending drone port to the receiving drone port; (E) A method for controlling a drone port system is provided, the method including a prescription drug delivery step in which the receiving drone port authenticates the patient based on the input patient information and provides the prescription drug linked to the patient based on the input password. Effect of the Invention
[0011] According to the present invention, a patient sends patient information and prescription data to a pharmacist's pharmacy terminal via a patient terminal used by the patient or a receiving drone port nearest to the patient, and receives a password linked to the prescribed drug, and the receiving drone port has the function of selecting a shipping drone port and requesting delivery of the prescribed drug. In addition, the shipping drone port has a function of preparing prescription medicines and requesting delivery by a drone, and the drone has a function of delivering the prescription medicines from the shipping drone port to the receiving drone port. The receiving drone port also has the function of authenticating the patient based on the input patient information and providing the patient with prescription medications linked to the input password.
[0012] Therefore, even if there is no pharmacy or hospital nearby or if the patient's regular doctor lives far away, the patient can quickly receive the prescription based on the doctor's online consultation.
[0013] In addition, since the patient is authenticated and receives a password, the receiving drone port authenticates the patient based on the entered patient information and provides the patient with prescription drugs linked to the entered password, it is possible to reliably prevent accidents in which another patient receives the prescription drugs. [Brief description of the drawings]
[0014] [Figure 1] This is an overall configuration diagram of the drone port system. [Diagram 2] This is an overall configuration diagram of a drone port. [Diagram 3] This is an overall configuration diagram of a drone. [Figure 4] FIG. 1 is an overall flow diagram of a control method for a drone port system. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS
[0015] Hereinafter, an embodiment of the present invention will be described with reference to the drawings. In addition, common parts in each drawing are given the same reference numerals, and duplicated explanations will be omitted.
[0016] FIG. 1 is an overall configuration diagram of a drone port system 100. In this example, a patient terminal 1 used by a patient P, a doctor terminal 2 used by a doctor D, and a pharmacy terminal 3 used by a pharmacist A are connected to an internet line I. The patient terminal 1 is a network device connectable to an internet line I. The drone port system 100 is a system that provides prescription drugs M to patient P based on online medical consultation by doctor D.
[0017] In this system, a patient P receives prescription data MD from a doctor D after receiving remote medical treatment. Next, the patient P transmits patient information PD and prescription data MD to a pharmacy terminal 3 of a pharmacist A via a patient terminal 1 or a receiving drone port 10A nearest to the patient, and receives a password PW linked to the prescribed drug M. The password PW may be a unique ID (a one-to-one drug-specific ID or an ID uniquely assigned to a patient, such as an insurance card number or a My Number). Preferably, the doctor D uses a plurality of doctor terminals 2, and the patient P can receive remote medical treatment from the doctor D of his / her choice. In addition, the pharmacy terminal 3 used by the pharmacist A is preferably multiple, and it is preferable to select one according to the patient P's wish or the doctor D's designation.
[0018] In Figure 1, the drone port system 100 includes multiple drone ports 10, including a receiving drone port 10A, and a drone 30 capable of taking off and landing at the drone port 10. The receiving drone port 10A is a drone port 10 among the multiple drone ports 10 that the patient P can directly access, and is set at the patient P's preference.
[0019] It is preferable that multiple (at least two) drone ports 10 are present in an area including the residence of the patient P and the workplace of the pharmacist A. In this case, the interval (distance) between adjacent drone ports 10 is set to be shorter than the flight distance of the drone 30.
[0020] Each of the multiple drone ports 10 functions as a receiving drone port 10A and a sending drone port 10B, which will be described later.
[0021] That is, the drone port 10 has the following functions as a receiving drone port 10A or a drone port 10B. (1) A first function of storing patient information PD, prescription data MD, and password PW. (2) A second function of selecting a shipping drone port 10B that ships prescription drug M from all drone ports 10 and requesting delivery of prescription drug M. (3) A third function of preparing prescription medicine M based on prescription data MD and requesting delivery by drone 30. (4) A fourth function of receiving prescription medicine M in cooperation with the drone 30, authenticating the patient P based on the patient information PD input by the patient P, and providing the patient P with the prescription medicine M linked to the input password PW.
[0022] After receiving a delivery request from the sending drone port 10B, the drone 30 has the function of loading the prescription drug M in cooperation with the sending drone port 10B and delivering the prescription drug M from the sending drone port 10B to the receiving drone port 10A.
[0023] Furthermore, the drone port 10 and the drone 30 operate unmanned, without human intervention.
[0024] FIG. 2 is an overall configuration diagram of the drone port 10. In this example, the drone port 10 has a takeoff and landing surface ("port surface 11") on which the drone 30 takes off and lands. The port surface 11 is provided, for example, on the upper surface of the drone port 10, and is configured to allow at least one drone 30 to take off and land. The drone port 10 also has a receiving and taking-out port 12 for receiving prescription medicine M from outside (e.g., pharmacist A) and for a patient P to take out the prescription medicine M, and a storage unit 13 for storing the prescription medicine M.
[0025] In this figure, the drone port 10 is equipped with a control unit 14. The control device 14 is, for example, a computer (PC), and includes an input / output device 14a, a storage device 14b, a calculation device 14c, and a communication device 14d.
[0026] The input / output device 14a is a keyboard, a dialogue camera, a monitor, a touch panel, a code reader, or a printer, and is a device for inputting or outputting patient information PD, prescription data MD, or a password PW. "Patient information PD" is, for example, the patient's unique name, sex, date of birth, insurance type, insurer number, etc. "Prescription data MD" is, for example, a prescription method, patient information PD, and medical institution information (facility name, location, medical fee, doctor, etc.), and may be a QR code (registered trademark) including these.
[0027] The storage device 14b stores patient information PD, prescription data MD, and a password PW. The storage device 14b further stores unique information and unique software of the patient terminal 1, the doctor terminal 2, the pharmacy terminal 3, the drone port 10, and the drone 30. The arithmetic device 14c has an authentication function for authenticating the patient P based on the patient information PD. The arithmetic device 14c also executes unique software. The communication device 14d has a function of bidirectionally communicating with other drone ports 10 or the pharmacy terminal 3. Furthermore, the communication device 14d may also have a function of bidirectionally communicating with the patient terminal 1 or the doctor terminal 2.
[0028] The input / output device 14a may be provided on the outer surface (counter) of the drone port 10 or in an adjacent booth.
[0029] In FIG. 2 , the drone port 10 is equipped with a drone 30 located on the port surface 11 and a transport device 16 that transports prescription drugs M between the receiving and dispensing outlet 12 and the storage unit 13. The conveying device 16 is disclosed in, for example, JP 2021-46110 A.
[0030] In FIG. 2, the drone port 10 further includes a charging device 18, a battery exchange device 20, and a remote guidance system 22.
[0031] The charging device 18 charges the battery B of the drone 30. The battery exchange device 20 exchanges the battery B of the drone 30.
[0032] The remote guidance system 22 remotely guides the drone 30. The remote guidance system 22 is, for example, a radar tracking system. The radar tracking system uses a radar mounted on the drone port 10 to track the position of the drone 30. This makes it possible to grasp the position information of the drone 30 and guide the drone 30. The drone 30 may also be remotely guided using a video link, a data link, or a beacon or radio signal.
[0033] The control device 14 also controls the transport device 16, the charging device 18, the battery exchange device 20, and the remote guidance system 22 described above.
[0034] With the above-mentioned configuration, since there are spaces where GPS cannot reach, such as mountainous areas, when the drone port 10 receives information from the drone 30 that the GPS has been lost, it can activate the remote guidance system 22 to guide the drone 30.
[0035] It should be noted that the drone port 10 is not limited to the above-mentioned example and may have other configurations. For example, as disclosed in Japanese Patent No. 6937346, it may have the function of housing a drone 30 inside.
[0036] In FIG. 2, the drone port system 100 further includes a drone base 24. The drone base 24 is preferably located near the drone port 10 and is configured to allow at least one drone 30 to take off and land. In addition, the above-mentioned port surface 11 may be set wide, and the area other than the area where the drone 30 takes off and lands may be used as the drone base 24.
[0037] The configuration of the drone port system 100 described above makes it possible to execute the first to fourth functions described above unmanned, without human intervention.
[0038] 2, the drone port 10 is equipped with a drone authentication device 25 that communicates with the drone 30 to check drone suitability. "Drone suitability" means that the drone 30 is capable of landing at the drone port 10 and is scheduled to land there.
[0039] The drone authentication device 25 has a two-way communication device 26 and a landing feasibility determination device 27. The two-way communication device 26 is a wireless communication device that communicates two-way with the drone 30 to obtain the remote ID of the drone 30 and transmits to the drone 30 whether or not the drone 30 can land. The landing feasibility determination device 27 determines whether the drone 30 can land based on the remote ID. The "remote ID" is a mechanism for remotely transmitting the identification information of the drone 30 via radio waves. By using the remote ID, the serial number, registration number, position, speed, altitude, time, etc. of the drone 30 can be notified in real time even during flight.
[0040] In FIG. 2, the drone port 10 further includes a display device 28 that displays instructions for use of the prescription drug M, and a confirmation button 29 that the patient P presses after viewing the displayed instructions. With this configuration, the drone port 10 provides the prescribed medication M to the patient P when the patient P presses the confirmation button 29.
[0041] FIG. 3 is an overall configuration diagram of the drone 30. The drone 30 has a main body 32, a propeller 33 for flight, and legs 34. In this example, the four legs 34 extend downward and outward from the four corners of the main body 32, and landing parts 34a are provided at the lower ends of the legs 34. In addition, a catcher 35 for holding the prescription drug M is attached between the four legs 34. The catcher 35 is adapted to hold or release the lower end of the prescription drug M, and when held, supports the lower end of the prescription drug M to prevent it from falling, and when released, releases the lower end of the prescription drug M to allow it to move (or fall) downward.
[0042] In FIG. 3, the drone 30 further includes an automatic transport system 36 and an information transmission device 38.
[0043] The automatic transport system 36 has a function of flying to the sending drone port 10B and loading the prescription drug M, a function of flying to the receiving drone port 10A and transporting the prescription drug M, and an automatic return function of flying to the drone base and returning.
[0044] The information transmission device 38 transmits the remaining battery level, the presence or absence of a malfunction, and the GPS position information.
[0045] The configuration of the drone 30 described above allows the functions of the drone 30 described above to be performed unmanned, without human intervention.
[0046] FIG. 4 is an overall flow diagram of the control method of the drone port system 100. In this figure, the control method uses the drone port system 100 described above and includes steps (processes) S1 to S5.
[0047] In the data transmission / reception step S1, the patient P receives remote medical treatment from the doctor D and receives the prescription data MD. At that time, it is preferable that the patient P accesses the doctor terminal 2 using the patient terminal 1, receives remote medical treatment from the doctor D, and receives the prescription data MD from the doctor D. In this case, it is preferable that the patient terminal 1 is a computer (PC) installed in the patient P's home or the like. However, the present invention is not limited to this method, and other means may be used to receive remote medical care and prescription data MD.
[0048] Next, the patient P sends patient information PD to the patient terminal 1 or pharmacy terminal 3 via the receiving drone port 10A closest to the patient to receive authentication, sends prescription data MD to receive medication instructions, and receives a password PW linked to the prescribed drug M. In this case, it is preferable to use the input / output device 14a provided in the receiving drone port 10A closest to the patient, but the receiving drone port 10A may be accessed using the patient terminal 1. The pharmacy terminal 3 used by the pharmacist A is preferably selected according to instructions from the doctor D or the patient P's wishes.
[0049] In the delivery request step S2, the receiving drone port 10A stores the patient information PD, prescription data MD, and password PW received from the patient P or the pharmacy terminal 3. In addition, the receiving drone port 10A selects a shipping drone port 10B from the multiple drone ports 10 to ship the prescription drug M, and requests the shipping drone port 10B to deliver the prescription drug M.
[0050] The shipping drone port 10B is selected as follows: (1) The prescription drug M based on the prescription data MD is special and not commonly available. In this case, the drone port 10 nearest to the pharmacist A who sent the prescription data MD and received medication instructions is selected as the dispatch drone port 10B. (2) The prescription drug M based on the prescription data MD is commonly distributed, and multiple drone ports 10 each have the same prescription drug M in stock. For example, the prescription drug M may be an over-the-counter drug used during epidemics such as influenza. In this case, the nearby drone ports 10 that are relatively close to the receiving drone port 10A are inquired about the availability of the prescription drug M in stock. Next, among the drone ports 10 with stock, the one with the shortest flight time to the receiving drone port 10A is selected as the sending drone port 10B. In addition, this selection takes into account the wind speed around the drone port 10 where the inventory is located, and if delivery will take a long time due to headwinds, a drone port 10 that can deliver in a short time even if it is farther in a straight line will be selected as the shipping drone port 10B.
[0051] In the prescription drug preparation step S3, the shipping drone port 10B prepares the prescription drug M based on the prescription data MD. This preparation is performed as follows. (1) If the prescribed drug M based on the prescription data MD is special and not commonly distributed, the nearest drone port 10 to pharmacist A (i.e., the shipping drone port 10B) will request the pharmacy terminal 3 to prepare and deliver the prescribed drug M unmanned, without human intervention. Upon receiving this request, pharmacist A prepares the prescription drug M based on the prescription data MD and delivers it to the nearest drone port 10. Delivery of the prescription drug M to the drone port 10 closest to the pharmacy is preferably performed by a person (pharmacist A or his / her representative), but may also be performed by an automated transport robot. An automatic transport robot is disclosed, for example, in JP 2022-42302 A. (2) If the prescription drug M based on the prescription data MD is commonly distributed and the shipping drone port 10B already has the prescription drug M in stock in the storage facility 13, the drone port 10B will wait.
[0052] Next, the shipping drone port 10B selects a drone 30 and requests delivery of the prescription drug M. The drone 30 is selected with priority from a nearby drone base 24 that is located at a relatively short distance to the shipping drone port 10B and is ready to fly based on remaining battery power, whether or not there are any malfunctions, etc.
[0053] In prescription drug delivery step S4, the selected drone 30 flies from the drone base 24 to the shipping drone port 10B after receiving a delivery request from the shipping drone port 10B. The drone 30 then cooperates with the shipping drone port 10B to load the prescription drug M and deliver the prescription drug M from the shipping drone port 10B to the receiving drone port 10A.
[0054] If the flight time from the sending drone port 10B to the receiving drone port 10A is long and there is a possibility that the charge capacity of battery B may be insufficient, the drone may land at an intermediate drone port 10 to charge or replace battery B.
[0055] In addition, there are spaces where GPS cannot reach, such as in mountainous areas, so when the drone port 10 receives information from the drone 30 that the GPS has been lost, it is a good idea to activate the remote guidance system 22 to guide the drone 30.
[0056] In the prescription drug delivery step S5, the receiving drone port 10A, in cooperation with the drone 30, receives the prescription drug M and stores it in its storage 13. Next, at the receiving drone port 10A, a person (patient P or his / her representative) inputs the patient information PD and password PW.
[0057] The receiving drone port 10A authenticates the patient P based on the input patient information PD, and provides the patient P with the prescription drug M linked to the input password PW. In addition, the patient P may access the receiving drone port 10A using the patient terminal 1, enter the patient information PD and password PW, and receive the prescribed drug M using the automatic transport robot. An automatic transport robot is disclosed, for example, in the above-mentioned JP 2022-42302 A.
[0058] According to the embodiment of the present invention described above, patient P sends patient information PD and prescription data MD to pharmacist A's pharmacy terminal 3 via the receiving drone port 10A closest to the patient and receives a password PW linked to the prescribed drug M. The receiving drone port 10A has the function of selecting the sending drone port 10B and requesting delivery of the prescription drug M. In addition, the shipping drone port 10B has a function of preparing the prescription drug M and requesting delivery by a drone, and the drone 30 has a function of delivering the prescription drug M from the shipping drone port 10B to the receiving drone port 10A. In addition, the receiving drone port 10A further has the function of authenticating the patient P based on the input patient information PD, and providing the patient P with the prescription drug M linked to the input password PW based on the input password PW.
[0059] Therefore, even if there is no pharmacy or hospital nearby or the patient's regular doctor is far away, the patient P can promptly receive the prescribed medicine M based on the online consultation by the doctor D.
[0060] In addition, the patient P is authenticated and receives a password PW, and the receiving drone port 10A authenticates the patient P based on the input patient information PD, and provides the patient P with the prescription drug M linked to the input password PW. This can reliably prevent an accident in which another patient receives the prescription drug M.
[0061] It should be noted that the present invention is not limited to the above-described embodiment, and various modifications can be made without departing from the spirit and scope of the present invention. [Explanation of symbols]
[0062] A pharmacist, B battery, D doctor, I internet line, M prescription drug, MD prescription data, P patient, PD patient information, PW password, 1 patient terminal, 2 doctor terminal, 3 pharmacy terminal, 10 drone port, 10A receiving drone port, 10B sending drone port, 11 port surface, 12 receiving outlet, 13 storage, 14 control device, 14a input / output device, 14b storage device, 14c computing device, 14d communication device, 16 transport device, 18 charging device, 20 battery exchange device, 22 remote guidance system, 24 drone base, 25 drone authentication device, 26 two-way communication device, 27 landing feasibility determination device, 28 display device, 29 confirmation button, 30 drone, 32 main body, 33 propeller, 34 legs, 34a landing part, 35 catcher, 36 automatic transport system, 38 Information transmission device, 100 Drone Port System
Claims
1. A drone port system in which a patient receives prescription data from a doctor through remote medical examination, and then transmits patient information and the prescription data to a pharmacist's pharmacy terminal via a patient terminal or a receiving drone port closest to the patient, and receives a password associated with the prescription drug, A drone port including the receiving drone port, and a drone capable of taking off and landing on the drone port, The receiving drone port has a function of storing the patient information, the prescription data, and the password, and selecting a shipping drone port from the drone port to ship the prescription drug and requesting delivery of the prescription drug; The delivery drone port has a function of preparing the prescription drug based on the prescription data and requesting delivery by the drone; The drone has a function of delivering the prescription drug from the sending drone port to the receiving drone port, The receiving drone port further has the function of authenticating the patient based on the input patient information and providing the prescription drug linked to the input password to the patient, the drone port system.
2. The drone port system of claim 1 , wherein the drone port and the drone operate unattended, without human intervention.
3. The drone port includes a control device, the control device comprising: an input / output device for inputting or outputting the patient information, the prescription data, or the password; A storage device that stores the patient information, the prescription data, or the password; a computing device having an authentication function for authenticating the patient based on the patient information; The drone port system of claim 1 , further comprising: a communication device for bidirectional communication between other drone ports, the drone, and the pharmacist.
4. The drone port system of claim 1 , wherein the drone port comprises a transport device that transports the prescription medication between the drone, a receiving outlet, and a storage facility.
5. The drone port system according to claim 1 , wherein the drone port is equipped with a charging device for charging a battery of the drone or a battery exchange device for exchanging the battery.
6. The drone port system of claim 1 , wherein the drone port has a remote guidance system that remotely guides the drone.
7. The drone port is equipped with a drone authentication device that communicates with the drone to check drone suitability, The drone authentication device is a two-way communication device that communicates two-way with the drone to obtain the remote ID of the drone and transmits to the drone whether or not the drone can land; The drone port system of claim 1, further comprising: a landing feasibility determination device that determines whether the drone can land based on the remote ID.
8. The drone port has a display device that displays how to use the prescription drug, and a confirmation button that the patient presses after viewing the how to use, The drone port system of claim 1 , wherein the prescription is provided to the patient by the patient pressing the confirmation button.
9. The drone has an automatic transport system, The drone port system of claim 1, wherein the automatic transport system has a function of flying to the shipping drone port and loading the prescription medicine, a function of flying to the receiving drone port and transporting the prescription medicine, and an automatic return function of flying to a drone base and returning.
10. The drone port system according to claim 1, wherein the drone has an information transmission device that transmits information on the remaining battery level, whether or not there is a malfunction, and its GPS location information.
11. Using the drone port system according to claim 1, (A) a data transmission and reception step in which the patient receives the prescription data from a doctor by receiving remote medical care from the doctor, then transmits the patient information to the pharmacy terminal via the patient terminal or the receiving drone port closest to the patient, receives authentication, transmits the prescription data, and receives the password associated with the prescription drug; (B) a delivery request step in which the receiving drone port stores the patient information, the prescription data, and the password, and selects the sending drone port from the drone port to send the prescription drug, and requests delivery of the prescription drug; (C) a prescription drug preparation step in which the shipping drone port prepares the prescription drug based on the prescription data and requests the drone to deliver the prescription drug; (D) a prescription drug delivery step in which the drone delivers the prescription drug from the sending drone port to the receiving drone port; (E) A method for controlling a drone port system, comprising a prescription drug delivery step in which the receiving drone port authenticates the patient based on the input patient information and provides the prescription drug linked to the patient based on the input password.
12. In the delivery request step, the drone port desired by the pharmacist is selected as the dispatch drone port; The method for controlling a drone port system according to claim 11 , wherein in the prescription drug preparation step, the pharmacist prepares the prescription drug and delivers it to the shipping drone port.
13. In the delivery request step, a nearby drone port that is relatively close to the receiving drone port is inquired about the presence or absence of the prescription drug in stock; The control method for a drone port system according to claim 11, further comprising the step of selecting, from among the drone ports in stock, the one with the shortest flight time as the dispatch drone port, taking into account the surrounding wind speed.
Citation Information
Patent Citations
Information processing device
JP6574391B2
Cited By
Intelligent medical service system based on unmanned aerial vehicle
CN120809118A