Drone docking station with extended floor / accordion structure

Abstract

Disclosed herein is a drone docking station for depositing drone-delivered items / goods into a secure receptacle. Packages can be delivered from curbside, mailbox, postbox, porch, basement safe, or window-side receptacle to multi-compartment receptacles with specific residential or commercial addresses, extended floor / accordion stations, and a variety of optional features, including pre- and post-delivery temperature and storage, battery charging and replacement stations, collectors for identifying explosives and anthrax, ultraviolet systems for eliminating pathogens, viruses, and harmful substances, ozone applicators for eliminating pathogens, viruses, and harmful substances, weather monitoring, vehicle and package tagging and tracking, facial recognition cameras and software for pets and humans, and floodlights.

Description

[Technical Field]

[0001] The present invention relates to a drone docking station with a special expansion floor / accordion structure called DRONEDEK. The present invention relates to drones and package and item delivery. The present invention relates to a delivery location for receiving packages from vehicles such as drones (unmanned aerial vehicles, UAVs), robotic carriers, or automated unmanned vehicle systems (AUVS). The present disclosure relates to unmanned aerial vehicles and drone aircraft, and more specifically to a landing and docking system for unmanned aerial vehicles for delivering or receiving items. Embodiments of the present disclosure relate to the field of aircraft and unmanned air vehicles, particularly to devices for exchanging items. A drone docking station device for depositing items delivered by drones, robots, or AUVS. Items include, but are not limited to, groceries, general merchandise, and parcels. The box, attached to a secure porch, roof, window, or other building, may be secured through an existing building, attached to an existing mailbox, or configured to replace a mailbox. The present invention relates to drones and package and item delivery.

[0002] (Reference to related application) This application claims the benefit of U.S. provisional patent application having serial number 63012662, filed by Daniel S. O'Toole on April 20, 2020. The application is entitled "Special Expanding Floor / Accordion drone docking station called a DRONEDEK."

[0003] (Statement regarding federally sponsored research) none.

[0004] (Sequence listing or program) none. [Background technology]

[0005] To our knowledge, there is no other technology similar to the drone docking station, which features a special expandable floor / accordion structure called DRONEDEK. Its design and technology make it unique. The following background information on drone delivery and the current industry and market may be helpful. Unmanned aerial vehicles (UAVs) range from traditional fixed-wing aircraft to helicopters and ornithopters (bird-like flying machines) and are used for a variety of purposes. Some are remotely piloted by a ground pilot, while others are autonomous or semi-autonomous, flying missions using preprogrammed coordinates or GPS navigation. UAVs also include remote-controlled helicopters and airplanes for hobbyists. UAVs may be equipped with cameras to provide images during flight, which can be used for flight control or other purposes, such as identifying home addresses. UAVs can also be equipped with sensors to monitor local weather, atmospheric conditions, and radiation levels. UAVs may also be equipped with a platform, hook, or other means for carrying cargo. As a result, UAVs can now be used to deliver parcels, groceries, mail, and other items. Using UAVs for delivery can reduce costs and improve speed and accuracy, but the long range of current UAV technology makes it difficult to deliver to large areas such as entire cities or parts of cities.

[0006] Transporting small packages between origins and destinations has traditionally been a labor-intensive process. For short-distance local deliveries, items (e.g., parcels) may be transported between origins and destinations by delivery personnel. For example, the delivery personnel may drive a vehicle to transport the items between origins and destinations and ensure that the items are properly picked up and / or delivered according to delivery instructions. For longer-distance deliveries, transporting items may involve multiple delivery personnel, each performing one or more steps to pick up the items, sort the items one or more times, transport the items from the final sorting location to the final delivery destination, and / or deliver the items from the delivery vehicle to the delivery address (e.g., a service location). Therefore, various attempts have been made to assist delivery personnel by reducing the physical strain required during the transportation and delivery process. However, previous attempts have proven extremely difficult to properly perform each step of the transportation and delivery process. For example, attempts have been made to utilize unmanned vehicles, such as unmanned aerial vehicles (UAVs), to transport the items from the final sorting location to the delivery destination. However, such concepts are generally limited by the range of the UAV and the number of UAVs available to deliver items to locations that are a significant distance from the final sorting location. Therefore, there is a need for additional systems and methods to assist transportation personnel and thereby reduce the physical demands of the transportation and delivery process.

[0007] Typically, ordered goods are packaged in a shipping parcel (e.g., a cardboard box) and delivered to the user's home or workplace. Physical delivery of goods to a user-specified location has improved dramatically in recent years, with some retailers now offering next-day delivery of ordered goods. The final (last-mile) delivery of physical goods to a user-specified location has traditionally been accomplished using human-controlled trucks, bicycles, carts, etc. For example, a user can order goods for delivery to their home. The goods may be picked up from a ground-based logistics facility, packaged, and delivered to the user by a delivery company for final delivery. The delivery company loads the goods into a human-driven truck and drives to the final delivery location. A human driver, or another person accompanying the driver, retrieves the goods from the truck and completes the delivery to its destination. For example, the delivery may involve handing the goods to the recipient, placing them on the user's porch, or depositing them in a mailbox. In this new era of rapid global change, technology must keep up with consumer habits. Efficiency, cost reduction, technology, convenience, ease, and safety will impact the future of market economies in the United States and around the world.

[0008] One emerging sector of the economy is last-mile logistics. Within this sector of the transportation economy, a field known as drone delivery is rapidly developing. Shifting indicators in the global ecosystem point to the need for autonomous delivery, more than ever before. DRONEDEK is needed. DRONEDEK currently holds two patents and is constantly evolving its technology. 1.7 million packages are stolen every day in the United States, resulting in billions of dollars in losses. DRONEDEK solves this problem with encrypted and authenticated delivery. Thousands of packages are misdelivered every day in the United States. DRONEDEK solves this problem with encrypted and authenticated delivery. In this new world, social distancing will become the "new normal." DRONEDEK enables shippers, couriers, and recipients to practice social distancing while improving their user experience.

[0009] Millennials, a growing voice in the U.S. and global economies, have their own way of doing things. They're working from home, staying indoors, and increasingly expecting a sense of freedom at home. Enter DRONEDEK, which brings many features and benefits to the user experience and offers even more. In addition to these needs, consumers want to shop now. DRONEDEK is a key component of the emerging drone delivery economy. Delivering goods faster and cheaper via drones, autonomous vehicles, and robots only solves part of the problem; without safe, smart, and secure delivery, everything gained in the process is lost at the doorstep. Parcel delivery is the fastest-growing segment of the transportation industry. DRONEDEK accelerates that realization. Furthermore, DRONEDEK opens up other aspects of autonomous vehicle delivery. Food, beverage, and pharmaceutical deliveries will all benefit through the DRONEDEK platform.

[0010] The market includes all residential and commercial addresses in the United States. Of the 100 million items purchased online every day, 91% of deliveries weigh less than 5 pounds—the same weight as a typical drone—and fit into the 24x24-inch diameter DRONEDEK carrier. The market for secure drone containers is poised to grow exponentially, driven by the accelerating trend of online commerce and retail statistics demonstrating a further rise in theft of unsecured traditional deliveries and pouch piracy. The USPS reports that 1.7 million packages are stolen daily, increasing DRONEDEK's market relevance and the demand for smart, secure drone delivery solutions. While drone delivery currently costs shippers $2 per delivery, it's estimated that drone delivery could result in a cost savings of $1 per delivery for the logistics industry. As a result, DRONEDEK's business model and smart mailbox could deliver disruptive savings of $1 billion per 11 days to the logistics industry. Summary of the Invention [Problem to be solved by the invention]

[0011] Several improvements and solutions have been made to drone docking station expansion devices. The drone docking station, equipped with a specialized expansion floor / accordion structure called DRONEDEK, provides additional capacity for multiple packages or deliveries to the docking station, administers UV and ozone disinfection / detoxification to eliminate infectious diseases, viruses, and bacteria, and provides intercommunication with other drones, UAVs, AUVS, and robots delivering within the area. It also monitors weather stations, traffic, human and pet movements via facial recognition cameras, tagging and tracking for authorities, information exchange with providers, and information collection for big data collection and networking for marketing information and data. For security and communication, the DRONEDEK docking station offers floodlights, two-way speakers, alarms, flashing lights, and colored lighting. It also houses above-ground storage to meet housing association rules and restrictions, monitors package weight and size, and can accommodate branded packages for returns. The robot / AUVS (automated guided vehicle) will be equipped with a mechanism to assist in unloading cargo onto the DRONEDEK, and will also be equipped with a mechanism to assist in providing charging stations and battery replacement for drones and unmanned aircraft. The novelty search did not reveal any prior art that conflicts with the DRONEDEK special extendable floor / accordion drone docking station. The relevant prior art is as follows: [Prior art documents] [Patent documents]

[0012] [Patent Document 1] US Patent Publication 9211025 (Postal cube): describes a device configured for safe and automatic reception of parcels. [Patent Document 2] U.S. Patent Publication 9244147 (Automated package delivery to a delivery receptacle) [Patent Document 3] U.S. Patent Publication 984034 (Drone docking station and delivery system): This invention is by the applicant and discloses a drone docking station for depositing items delivered by drone. [Patent Document 4] US Patent Publication 9387928 (Multi-use UAV docking station systems and methods): Discloses systems and methods for providing a series of multi-use UAV docking stations. [Patent Document 5] U.S. Patent Publication No. 9527605 (Multi-use, unmanned aerial vehicle docking station) [Patent Document 6] U.S. Patent Publication 9536216 (Delivery of packages by unmanned aerial vehicles) [Patent Document 7] U.S. Patent Publication 10124912 (Landing Pad for Unmanned Aerial Vehicle Delivery) [Patent Document 8] U.S. Patent Publication 9650136 (an unmanned aerial vehicle payload delivery) [Patent Document 9] U.S. Patent Publication 10163177 (System and method for controlling drone delivery or pick-up during a delivery or pick-up phase of drone operation) [Patent Document 10] U.S. Patent Publication No. 9928749 (Methods for delivering a parcel to a restricted access area) [Patent Document 11] U.S. Patent Publication 10457421 (Drone docking station and delivery system) [Patent Document 12] U.S. Patent Publication 10210475 (Systems, Devices, and / or Methods for Managing Drone Deliveries) [Patent Document 13] U.S. Patent Publication 10373507 (Multi-functional motorized box and landing pad for automatic drone package delivery) [Patent Document 14] U.S. Patent Publication 10287034 (Drone aircraft landing and docking systems) [Patent Document 15] U.S. Patent Publication No. 10112712 (Multi-use UAV Docking Station Systems and Methods) [Patent Document 16] U.S. Patent Publication 10147067 (Drone Operated Delivery Receptacle) [Patent Document 17] U.S. Patent Publication 10592843 (Unmanned aerial delivery to secure location) [Patent Document 18] U.S. Patent Publication No. 9928749 (Methods for delivering a parcel to a restricted access area) [Patent Document 19] U.S. Patent Publication 9969495 (Unmanned aerial vehicle pickup and delivery systems) [Patent Document 20] U.S. Patent Publication 10874240 (Landing pad receptacle for package delivery and receipt) [Patent Document 21] Korean Patent Publication KR10196425 [Patent Document 22] Canadian Patent Publication CA2898304C: The invention comprises an actuated box and navigation aid for automated delivery by unmanned aerial vehicles (UAVs) or drones.

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[0014] As will be apparent to one of ordinary skill in the art of docking stations or delivery receptacles for drones or unmanned aerial vehicles (UAVs), robotic carriers, or automated guided vehicle systems (AUVS), from the foregoing, none of the prior art suggests or motivates the present inventors to make the present invention, which provides a superior system for handling and delivering packages to residential and commercial locations in an effective, efficient, and safe manner.

[0015] This invention is a drone docking station with a special expansion floor / accordion mechanism called DRONEDEK. A preferred embodiment of the drone docking station with a special expansion floor / accordion mechanism is a drone dock and delivery box for receiving drone deliveries, comprising the following elements: (a) a means and structure for expanding the receiving area with a liftable floor to accommodate multiple packages, (b) a means for positioning the drone dock so that a drone can accurately approach and dock with the drone dock, (c) a means for locking the drone dock to allow for stable connection or attachment, (d) a means for transferring the drone's contents into the drone dock, (e) a means for preserving the contents, such as temperature control, and for temporarily and safely storing the delivered items within the drone dock, (f) a means for releasing the drone dock, (g) a means for communicating between the drone and the drone dock directly or via a remote server, and (h) a means for preserving and securing the stored items, preventing damage during transport and / or subsequent storage. (i) a means for securing the box to a structure at a residential or commercial address; (j) a set of optional features including a charging station and replacement mechanism (a collector to identify explosives, anthrax, etc., an ultraviolet scanning system to eradicate disease, viruses, and harmful substances, and an ozone applicator to eradicate disease, viruses, and harmful substances); (k) a set of identification features such as a barcode reader, weight and dimension sensors, and a tattoo printer for return parcels; (l) a set of on-drone dock features for weather monitoring, tagging, and tracking of vehicles, packages, etc.; and (m) a set of local features such as a two-way speaker, colored and strobe-capable LED lights, and flood lights.

[0016] The drone docking station with a special expansion floor / accordion mechanism called the DRONEDEK has several objectives and advantages. There are currently no known drone docking stations or receivers for drones or unmanned aerial vehicles (UAVs), robotic carriers, or automated guided vehicle systems (AUVS) that are effective in providing the objectives of the present invention. Various advantages and benefits include: Item 1: Have a secure door opening and closing function that allows the drone to communicate with the station and open and close the cargo door to receive and ship contents (have a locking means and keypad for on-site access to the DRONEDEK). Item 2: Providing expanded capacity for several parcels or deliveries with a docking station, which is a secure container designed to hold parcels waiting to be received or shipped, equipped with a barcode reader, a tattoo printer for parcel returns, and the ability to place a gate code for manual intervention and delivery. Item 3: Sterilization and disinfection using ultraviolet light and ozone removes infectious diseases, viruses, and bacteria. Item 4: Detect explosives, anthrax, etc. Item 5: Provides intercommunication with other drones, UAVs, AUVS, and robots broadcasting within the area. Item 6: Providing weather stations, traffic and facial recognition cameras to monitor people and pet movements, and tagging and tracking for authorities. Item 7: Information exchange with providers, big data collection for marketing information and data, and information collection for networking. Item 8: Wherever a DroneDek docking station is located, it provides floodlighting, two-way speakers, alarms, flashing lights and colored lights for security and communication. Item 9: Can accommodate underground storage that meets housing association rules and restrictions. Item 10: Monitor package weight and size and be able to make tattoo branded packages for returns. Item 11: Provide charging stations and battery replacement for drones and UAVs. Item 12: The DRONEDEK will be equipped with a mechanism that allows robots / AUVS (Automated Guided Vehicles) to assist in loading and unloading cargo onto the DRONEDEK. Item 13: You can remotely access and connect to the content-sensing switch via a smartphone application. Item 14: Provide means for preserving and temperature-controlling luggage and parcels. Item 15: Equipping the drone dock with a camera system inside and outside the compartment provides interconnected technology and recognition accuracy for applications such as human and pet facial recognition, paint / tagging, and tracking and monitoring communications. Item 16: Because it runs on solar panels or a 110V power source, it can be powered by solar panels while still being highly functional. Item 17: Protect your cargo from rain, wind, sleet, hail, snow and extreme temperatures, and the heated cargo door option allows access in the most severe weather. Item 18: A GPS beacon will allow the transport drone to determine the DroneDek's exact location.

[0017] Finally, other advantages and additional features of the drone docking station with this specialized expansion floor / accordion mechanism, referred to as the DRONEDEK device, will become more apparent from the accompanying drawings and the full description of the device. Those familiar with drone docking station and delivery receptacle technology will understand that the features shown in the embodiment using this product are readily adaptable to other types of drone docking stations and systems and devices that interface with drones or unmanned aerial vehicles (UAVs), robotic carriers, or automated guided vehicle systems (AUVS).

[0018] The accompanying drawings, which are incorporated herein and constitute a part of this specification, illustrate one embodiment of a drone docking station with a specialized expansion floor / accordion mechanism called DRONEDEK for various preferred applications. The drawings, together with the general description provided above and the detailed description provided below, explain the principles of the DRONEDEK device. However, it should be understood that the drone docking station with a specialized expansion floor / accordion mechanism called DRONEDEK is not limited to the exact configuration and fixtures shown. [Brief explanation of the drawings]

[0019] [Figure 1] Figures 1A to 1D are sketches of a typical drone docking station and a DRONEDEK (hereinafter referred to as the "drone docking station with extended floor and receiving area") for depositing items delivered by drones, respectively. [Figure 2] Figure 2 shows the overall communication and delivery system from ordering a product (parcel) to delivery to the docking station (DRONEDEK). [Figure 3] 3A-3C are sketches of the docking station (DRONEDEK) with enlarged overviews of components and features shown from a side or end view. [Figure 4] 4A-4D are another sketch of a docking station (DRONEDEK) with an extension having components and features shown in the several figures. [Figure 5] Figure 5 shows sketches and a prototype of the docking station with extension (DRONEDEK). [Figure 6] 6A-6H are sketches of a general embodiment showing some of the features of the DRONEDEK. [Figure 7] Figures 7A to 7E are sketches of the above-ground storage system for management associations and the robot, AUVS (Automated Guided Vehicle System) loading and unloading support mechanism. [Figure 8] Figures 8 to 8H are sketches showing drone delivery operations at residential and commercial receiving locations and the expanding state of DRONEDEK. [Figure 9] 9 to 9F are sketches of prior art drone delivery systems to date.

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[0028] The following list (Table B) explains the drawing symbols: 30: Drone docking system (DRONEDEK) for depositing goods delivered by drones 31: Drone docking station (DRONEDEK) 31 for depositing goods delivered by drone (extension floor / receiving area also called drone dock, docking station, box, drone box, docking box) 31P: DRONEDEK prototype 31P with extended floor 31DS: Design sketch of DRONEDEK with extended floor 32: Drone docking station structure with extension / accordion with elevating floor 32F. 32A: Side and lateral surfaces of structure 32 32B: End and end face of structure 32 32C: Bottom and bottom surface of structure 32 32D: Control console 32E: Clearance for sliding door 34 32F: 32 liftable floors with an enclosed structure 32FM: Motor for lowering floor 32F 32DD: Means 32DD for driving the floor 32F (chain, cable, belt, etc.) 32P: Measures 32DD pulley / sprocket 32DM: Means 32DM (sealed channel, angle with casters, etc.) for supporting the drive floor 32F at the end of the drive means 32DD 32EM: Means 32EM (enclosed channel, angle with casters, etc.) for supporting the drive floor 32F at the opposite end of the drive section. 33: Drone structure / container opening 34: A movable / electrically operated sliding door having a heating means and capable of being opened and closed, provided on the dock structure 32. 34A: Door motor 36: Measures to prevent damage and deterioration of styrofoam, soft padding, curved surfaces, sealed doors, climate-controlled interiors, heated sliding doors, etc. 38: An upper surface 38 of the docking structure 32 surrounding the periphery of the opening 34, the surface 38 being provided with a heating means. 39A: Mounting pad / base plate for structure 32 40: Small packages such as food, groceries, tools, electronic devices, documents, etc. 50: Drone 50A: Drone carrying a package 50B: Drone without a package 51: Drone Pad 61: A camera system 61 for the interior / exterior compartment of a drone 50 with technology and recognition accuracy for interconnection to human and pet facial recognition applications. 62: Optional receiving dimple for drone pad 51 63: Means 63 for transferring the contents / package 40 of the drone 50 through the opening 34 into the interior of the box, and means for disengaging the package 40 such as a controllable arm 64 (ball and socket 65 releasable / lockable from the package, magnetic or electronic holding structure 66). 64: Controllable Arm 64 65:Releasable / lockable ball and socket 65 66: Control system 66 for motors 34A, 32FM, 132FM, 232FM, 332FM and interface to keyboard 116 67: Power supply 68: Solar panels as a power source 69: One or more lighting mechanisms inside the container 32 70: A means of storing and safekeeping delivered packages after they have been boxed 70 (Complete security solution for drone parcel delivery to homes and offices 40) 71: Lock 71 and keypad 71A for on-site access to the DroneDek 71A: Keypad 71A for DRONEDEK on-site access 72: Heating and cooling system with temperature control function 72 73: Barcode reader 73 (infrared, etc.) 73A: Barcode reader waves and signals 73A 73B: Barcode reader label 73B on parcel 40 74: Windbreak 74 76: Charging Station 76 77: Heat Top 77 78: Motion floodlight with focus technology to illuminate an area or spotlight a specific line of sight in an open area near DRONEDEK31,131 79: Regular Mailbox 79 80: Collector panel 80 for detecting threats such as explosives and anthrax 81: Battery exchange mechanism for exchanging drone batteries with DRONEDEK 81 82: Extendable means 82 for replacing a battery, such as an extendable arm and locking latch for removing a drone battery 83, moving it to a replacement mechanism 81, and returning a charged battery 84 to the drone 50 and re-engaging the drone power connection. 83: Drone Battery 83 84: Charged Battery 84 85: Discharged Battery 85 90: Parcel ordering mechanism 90 (personal communication device 106 connected to network 103) 91: Provision system 91 (shipping source) (order receiving, purchasing, sales company - "GOOD STUFF COMPANY") 92: External lighting for strobes, flashing colors, contacting authorities, emergency calls, etc. (LED type systems can be used) 93: Weight and Dimension Sensor 93 94: Two-way speaker and loud alarm system for communicating with people in the DRONEDEK31,131 and providing loud alarms, sirens, etc. 100: Means 100 for tracking the location of all nearby drones and communicating with docking stations 31, 131 102: Means 102 (such as a GPS system) for determining the location of the docking station 31 so that the drone can approach and dock 103: Cloud / Network 103 104: Satellite Communications 104 105: Signals and Cell Towers 105 106: Personal communication devices 106 (smartphones, tablets, laptops, PCs, etc.) 107: Specific GPS address 107 of docking station 31 108: Local signal and / or mechanical means 108 for facilitating final location confirmation and movement, such as cold beam technology, laser beam, radar, lidar, quick response (QR) code tag, radio frequency RFID, remote identification tracking and sensing, for drone authentication and landing to navigate the drone 50 to a precise location on the docking station 31 109: Encrypted signal 109 from Docking Station 31 110: Means for encrypted communication between the drone 50 and the drone dock 31, either directly or via a remote server (Wi-Fi, Bluetooth, hotspot, satellite, etc.) 111: A smartphone app or the like that notifies the user of a personal communication device 106 of the status of a docking event 112: Flight 112 from Material Source 91 to Docking Station 31 113: Flight 113 from Docking Station 31 back to the goods source or other user's destination 114: Alternate flight 114 for parcel pickup from the original docking station to the secondary docking station, 115: Return tattoo printer 115 with the ability to return parcels and place gate code 115A on the codex or branding for manual intervention and delivery 116: Console Control Keyboard 116 117: Anti-theft chip 117 attached to the frame 120: Micro Weather Station 120 Mechanism (Sensor, etc.) 122: Monitoring, communication and tracking by GPS after painting Painting, tagging and tracking 122 125: UV Detoxification and Sterilization 125 130: Ozone Detox / Disinfect 130 150: Underground storage system for housing management associations 150 151: Structural member 151 for raising platform 155 152: Rolling seal top door 152 155: Movable stand 155 156: Opening 156 of storage 150 157: Lifting means 157 such as a chain, cable, rope, belt, pulley / sprocket / sheave connected to a motor 158 158: Means of converting electricity into rotary motion, such as electric motors 159: Power supply 159 160: Electric Hot / Cold Plate Assist 160 170: A set of powered rollers 170 for the assist platform 172 172: Assist Platform 172 175: Extendable support arm 175 177: Extension cylinder 177 for robot / AVSI assist unit 180 178: Console control keyboard 116, 110V power supply, charging receptacle 178 for mobile phone charging, Tesla, electric scooter, etc. 179: Powered roller, Tesla, scooter charging power supply 179. 180: Robot / AUVS (Automated Unmanned Vehicle Systems) support unit 180 assists in unloading cargo 40 onto DRONEDEK 31, 131 400: Prior Art 400 by O'Toole, 2017 (U.S. Patent 9,840,340) 401: Prior Art 401 by O'Toole, 2019 (U.S. Patent 10,457,421) 402: Prior art 402 by Kalyan, 2018 (U.S. Patent 10,093,454) 403: Prior art by Gentry et al. in 2016 (U.S. Patent 9,387,928) 404: Prior Art 404 by Walsh, 2018 (U.S. Patent 10,124,912) 405: Prior art 405 by Gil et al. (U.S. Patent 9,928,749) from 2018 DETAILED DESCRIPTION OF THE INVENTION

[0029] This specification discloses a drone docking station with a special expansion floor / accordion structure called DRONEDEK. The present invention relates to drones and package and item delivery. The present invention relates to a delivery location for receiving packages from vehicles such as drones (unmanned aerial vehicles, UAVs), robotic carriers, or automated guided vehicle systems (AUVS). The present disclosure relates to unmanned aerial vehicles and drone aircraft, and more specifically, to a landing and docking system for unmanned aerial vehicles for delivering or receiving items. Embodiments of the present disclosure relate to the field of aircraft and unmanned aerial vehicles, particularly to devices for exchanging items. A drone docking station device for depositing items delivered by drones, robots, or AUVS. Items include, but are not limited to, groceries, general merchandise, and parcels. The box, attached to a secure porch, roof, window, or other building, may be secured through an existing building, attached to an existing mailbox, or configured to replace a mailbox. The present invention relates to drones and package and item delivery.

[0030] The advantages of the drone docking station with its specially designed expansion floor / accordion structure, called the DRONEDEK device (30), have been discussed above. In short, the benefits arise from the fact that the device achieves the following: 1. A secure door opening and closing function that allows the drone to communicate with the station and open and close the cargo door to receive and ship contents (has a locking means and keypad for on-site access to the DRONEDEK). 2. Providing expanded capacity for several parcels and deliveries with a docking station, a secure container designed to hold parcels waiting to be received or shipped, equipped with a barcode reader, a tattoo printer for parcel returns, and the ability to place gate codes for manual intervention and delivery. 3. Sterilization and disinfection using ultraviolet rays and ozone removes infectious diseases, viruses, and bacteria. 4. Detect explosives, anthrax, etc. 5. Provides intercommunication with other drones, UAVs, AUVS, and robots broadcasting within the area. 6. Providing weather stations, traffic and facial recognition cameras to monitor people and pet movements, and tagging and tracking for authorities. 7. Information exchange with providers, big data collection for marketing information and data, and information collection for networking. 8. Wherever a DroneDek docking station is located, it provides floodlighting, two-way speakers, alarms, flashing lights and colored lights for security and communication. 9. May accommodate basement storage that meets housing association rules and restrictions. 10. Monitor the weight and size of parcels and be able to make tattoo branded parcels for returns. 11. Provide charging stations and battery replacement for drones and UAVs. 12. The DRONEDEK will be equipped with a mechanism that allows a robot / AUVS (automated guided vehicle) to assist in loading and unloading cargo onto the vehicle. 13. You can remotely access and connect to the content sensing switch via a smartphone application. 14. Provide means for preserving and temperature-controlling packages and parcels. 15. Equipped with a camera system inside and outside the drone dock compartment, it provides interconnected technology and recognition accuracy for applications such as human and pet facial recognition, paint / tagging, and tracking and monitoring communication. 16. It operates on solar panels or 110V power, so it can be powered by solar panels while still being highly functional. 17. Protect your cargo from rain, wind, sleet, hail, snow and extreme temperatures, and the heated cargo door option allows access in the most severe weather. 18. A GPS beacon allows the transport drone to determine the DRONEDEK's exact location.

[0031] A preferred embodiment of the specialized expandable floor / accordion-equipped drone docking station 31, called DRONDEK, is as follows: A drone dock and parcel box 31 for accepting drone deliveries, including: (a) a means and structure 32 for expanding the receiving area with a liftable floor 32F to accommodate multiple parcels; (b) a means for positioning the drone docks 100, 102 so that drones can accurately approach and dock with the drone dock; (c) engaging means 51, 62 for the drone dock 31 for stable connection or attachment; (d) transfer means 63, 64, 65 for transferring the drone's contents 40 to the interior 33 of the drone dock 31; (e) storage means 70, 72, such as temperature control, and means for securely storing goods once delivered to the drone dock; and (f) releasing means 51, 62 for releasing the drone dock 31. (g) Means 108, 110 for encrypted communication between the drone 50 and the drone dock 31, either directly or via a remote server (Wi-Fi, Bluetooth, hotspot, satellite, etc.). (h) A set of functional components 71, 71A incorporated within the box to enable soft preservation and protection of the contents and prevent damage during transport and subsequent storage. (i) Means 39A for securing the box to a structure at a residential or commercial address 107. (j) An optional functional set consisting of a charging station 76 and a replacement mechanism 81. A collector 80 for identifying explosives, anthrax, etc. An ultraviolet scanning system 125 for removing diseases, viruses, and harmful substances. An ozone applicator 130 for removing diseases, viruses, and harmful substances. (k) A set of identification functionalities, such as a barcode reader 73, a weight and dimension sensor 93, and a tattoo printer 115 for return parcels. (l) Drone dock features for weather observation 120, GPS 122 for tagging and tracking vehicles, luggage, etc., and cameras 61 with facial recognition software for tracking people and pets. (m) Local features include two-way speakers and loud audio alarms 94, colored and strobe-enabled LED lights 92, and floodlights 78.

[0032] Figures 1 through 9 show a complete description and operational embodiment of a drone docking station with a specialized expansion floor / accordion structure called the DRONEDEK device. It should be noted that in the drawings and illustrations, Figures 1 through 9 show the general configuration and use of this product. Various use examples are described below.

[0033] The accompanying drawings, which are incorporated herein and constitute a part of this specification, illustrate one preferred embodiment of a drone docking station with a specialized expanding floor / accordion structure referred to as the DRONEDEK device (30). The drawings, together with the general description provided above and the detailed description provided below, explain the principles of the DRONEDEK device (30). However, it is understood that the drone docking station with the specialized expanding floor / accordion structure referred to as the DRONEDEK device (30) is not limited to the exact configuration and structure shown. Other examples of drone docking stations and parcel receiving devices for drones or unmanned aerial vehicles (UAVs), robotic carriers, or automated guided vehicle systems (AUVS) are also within the scope and spirit of the present disclosure.

[0034] 1A-1D are sketches of a typical drone docking station (DRONEDEK) 31 for depositing items 40 delivered by drones 50, hereinafter referred to as a receiving drone dock 31 (docking station) with extended floor and receiving section. These sketches show the following components: a drone docking system (DRONEDEK) 30 for depositing items delivered by drones 50; a drone docking station (DRONEDEK) 31 for depositing items delivered by drones (hereinafter referred to as an extended floor / and receiving drone dock, docking station, box, or drone box or docking box); a prototype DRONEDEK with extended floor 31P; a design sketch 31DS for a DRONEDEK with extended floor; and a housing association underground storage facility 150.

[0035] Figure 2 shows an expanded view of the communication and delivery system from product / parcel ordering to delivery to the docking station / DRONEDEK. The diagram shows the following components: Drone docking system / DRONEDEK 30 for depositing goods delivered by drone 50; Drone docking station DRONEDEK 31 for depositing goods delivered by drone (hereinafter referred to as extension / and receiving drone dock, docking station, box, or drone box or docking box); Parcels 40, such as food, general merchandise, tools, electronics, documents, etc.; Drone 50; Drone 50A with a parcel; Drone 50B without a parcel; Parcel ordering mechanism 90 (personal communication device 106 connected to network 103); Supply source system 91 (source of goods) (ordering, purchasing, and sales company - "GOOD STUFF COMPANY"); Means 100 for tracking the location of all nearby drones and communicating with docking stations 31, 131. A means 102 (e.g., GPS system) for locating the docking station 31 so that the drone can approach and dock; a cloud / network 103; satellite communications 104; signals and cell towers 105; a personal communication device 106 (e.g., smartphone, tablet, laptop, PC); a specific GPS address 107 of the docking station 31; local signal / or mechanical means 108 for facilitating final location confirmation and movement, such as cold beam technology, laser beam, radar, lidar, QR (Quick Response) code tags, RFID (Radio Frequency Identification), remote identification tracking and sensing, for drone authentication and landing to navigate the drone 50 to a precise location on the docking station 31; an encrypted signal 109 from the docking station 31; and a means 110 for encrypted communication between the drone 50 and the drone dock 31, either directly or via a remote server (e.g., Wi-Fi, Bluetooth, hotspot, satellite), such as a smartphone app that informs the user of the personal communication device 106 of the status of the docking event. Flight 112 from Goods Source 91 to Docking Station 31.Return flights 113 from the docking station 31 to the goods source or other user's destination. Alternate flights 114 for parcel pickup from the original docking station to a secondary docking station, with monitoring communication for tagging / tracking 122 and GPS tracking after tagging. In the DRONEDEK receiving units 30, 31 and the overall control system (Fast Air Traffic Control Data for Drones, "FAA"), DRONEDEK utilizes drone tracking and monitoring capabilities. Drone tracking and monitoring capabilities provide mapping of drone locations in and around each DRONDEK's geographic area. Similar to Flightware, Droneware provides visibility of drones operating in the marketplace, including aerial photography. DroneDek also provides air traffic control, allowing users to schedule and prioritize incoming and outgoing shipments. Marketplace Conduit. Acquisition of big data metrics.

[0036] 3A-3C are sketches of docking stations (DRONEDEK) 31, 30 with an extension 32, with components and features generally shown from a side or end view. These figures show the following components: a drone docking station (DRONEDEK) 31 for depositing drone-delivered items (hereinafter referred to as an extension floor / receiving drone dock, docking station, box, drone box, or docking box); a drone docking station structure 32 with an extension / accordion with a liftable floor 32F; sides and lateral surfaces 32A of the structure 32; ends and end faces 32B of the structure 32; a bottom and underside 32C of the structure 32; a control console 32D; clearance 32E for a sliding door 34; a liftable floor 32F of the enclosed structure 32; a motor 32FM for lowering the floor 32F; and a means 32DD (such as a chain, cable, or belt) for driving the floor 32F. Pulley / sprocket 32P of means 32DD. Means 32DM (sealed channel, angle with casters, etc.) for supporting drive floor 32F at the end of drive means 32DD. Means 32EM (sealed channel, angle with casters, etc.) for supporting drive floor 32F at the opposite end of the drive. Openable, movable / powered sliding door 34 with heating means mounted on dock structure 32. Door motor 34A. Means 36 for preventing damage or deterioration to styrofoam, soft padding, curved surfaces, sealed doors, temperature-controlled interiors, heated sliding doors, etc. Top surface 38 of docking structure 32 surrounding the perimeter of opening 34, said surface 38 having heating means mounted thereon. Mounting pad / base plate 39A for structure 32. Parcels 40, such as food, groceries, tools, electronics, documents, etc. Drone 50. Drone 50A loaded with parcels. A camera system 61 inside / outside the compartment of the drone 50, with the technology and recognition accuracy to interconnect with human and pet facial recognition applications. An optional receiving dimple 62 for the drone pad 51. A control system 66 for motors 34A, 32FM, 132FM, 232FM, and 332FM and an interface to the keyboard 116. An encrypted anti-theft chip 117 mounted on the frame. A power supply 67.Solar panels 68 as a power source. A means of storing and securing delivered packages after they are placed in a box 70 (a complete security solution for drone parcel delivery to homes and offices 40). A heating and cooling system with temperature control 72. A barcode reader 73 (infrared, etc.). A two-way speaker and loud alarm device 94 for communicating with people in the DRONEDEK 31, 131 or providing loud alarms, sirens, etc. A console control keyboard 116, a charging receptacle 178 for 110V power, cell phone charging, Tesla, electric scooters, etc. A power source 179 for powered rollers, Tesla, and scooter charging.

[0037] 4A-4D are further sketches of a docking station (DRONEDEK) 31 with an extension 32, with components and features shown in some figures. The components shown in the figures are: a drone docking station (DRONEDEK) 31 for depositing drone-delivered items (hereinafter referred to as an extension floor / receiving drone dock, docking station, box, or drone box or docking box); a drone docking station structure 32 with an extension / accordion with a liftable floor 32F; sides 32A of the structure 32; ends 32B of the structure 32; a bottom 32C of the structure 32; a control console 32D; clearance 32E for a sliding door 34 with heating means; a liftable floor 32F of the enclosed structure 32; a motor 32FM for lowering the floor 32F; and a means 32DD (such as a chain, cable, or belt) for driving the floor 32F. Pulley / sprocket 32P of means 32DD. Means 32DM (sealed channel, angled casters, etc.) for supporting drive floor 32F at the end of drive means 32DD. Means 32EM (sealed channel, angled casters, etc.) for supporting drive floor 32F at the opposite end of the drive section. Drone structure / container opening 33. Openable / movable / powered sliding door 34 on dock structure 32. Door motor 34A. Means 36 for preventing damage and deterioration, such as foam, soft padding, curved surfaces, sealed doors, temperature-controlled interiors, heated sliding doors, etc. Top surface 38 of docking structure 32 surrounding opening 34, said surface 38 having heating means. Mounting pad / base plate 39A for structure 32. Parcel 40, such as food, groceries, tools, electronics, documents, etc. Drone 50. Drone 50A loaded with parcels. A camera system 61 inside / outside the compartment of the drone 50 with the technology and recognition accuracy for interconnecting with facial recognition applications for humans and pets. Optional receiving dimples 62 for the drone pad 51. A control system 66 for motors 34A, 32FM, 132FM, 232FM, and 332FM and an interface to the keyboard 116. A power supply 67. A solar panel 68 for power.A means for storing and securing delivered packages after they have been boxed 70 (a complete security solution for drone parcel delivery to homes and offices 40). A heating and cooling system with temperature control 72. A barcode reader 73 (infrared, etc.). A two-way speaker and loud alarm device 94 for communicating with the drone driver 31, 131 or providing loud alarms, sirens, etc. A return tattoo printer 115 for branding parcels and placing a gate code 115A on the codex for return or manual intervention and delivery. A console control keyboard 116, a receptacle 178 for 110V power, for charging mobile phones, Teslas, electric scooters, etc., and a power supply 179 for charging powered rollers, Teslas, and scooters.

[0038] 5 shows a set of sketches 31DS and a prototype 31P of a docking station (DRONEDEK) 31 with an extension 32. Shown here are the prototype 31P of the DRONEDEK with an extension floor and a design sketch 31DS of the DRONEDEK with an extension floor, which are self-explanatory based on the other drawings herein.

[0039] 6A through 6H are sketches of a general embodiment of an expanded DRONEDEK 31, illustrating some of the DRONEDEK's features and including the following elements: a drone docking station (DRONEDEK) 31 (hereinafter referred to as an extension floor and receiving area, drone dock, docking station, box, drone box, or docking box) for depositing drone-delivered goods; a drone docking station structure 32 with a liftable extension / accordion on the floor 32F; a movable / powered sliding door 34 on the docking structure 32; a door motor 34A; a means 36 for preventing damage and deterioration, such as foam, soft padding, a curved surface, an airtight door, a temperature-controlled interior, or a heated sliding door; a top surface 38 of the docking structure 32 surrounding the opening 34; a package 40, such as food, groceries, tools, electronics, or documents; and a drone 50. A camera system 61 inside / outside the compartment of the drone 50, with the technology and recognition accuracy to interconnect with facial recognition applications for humans and pets. Optional receiving dimples 62 for the drone pad 51. A releasable / lockable ball and socket 65 for parcels 40, etc. One or more lighting mechanisms 69 inside the container 32. A means for storing and safely storing delivered goods 70 within the box (i.e., a completely secure solution for drone delivery for couriers and offices). A heating and cooling system with temperature control 72. A barcode reader 73 (e.g., infrared). Barcode reader pulse and signal 73A. A barcode reader label 73B on the parcel 40. A charging station 76. A heat top 77. A motion floodlight 78 with focusing technology to illuminate an area or spotlight a specific line of sight in an open space near the drone deck 31,131. A regular mail mailbox 79. A collector panel 80 for detecting threats such as explosives and anthrax. Battery exchange mechanism 81 for changing drone batteries on the DRONEDEK.Extendable means for replacing the battery 82, such as an extendable arm and locking latch for removing the drone battery 83, transferring it to the replacement mechanism 81, returning the charged battery 84 to the drone 50, and re-engaging the drone power connection. Drone battery 83. Charged battery 84. Discharged battery 85. Weight and dimension sensor 93. Two-way speaker and loud alarm system 94 for communicating with persons in the drone 31, 131 or providing loud alarms, sirens, etc. Means 100 for tracking the location of all nearby drones and communicating with the docking station 31, 131. Specific GPS address 107 for the docking station 31. Return tattoo printer 115 for parcel return and placing a gate code 115A on the codex or branding for manual intervention and delivery. Micro-weather station 120 mechanism (e.g., sensor). GPS tracking for monitoring communication and post-painting painting, tagging, and tracking 122. UV detoxification and disinfection 125. Ozone Detox / Disinfect 130 uses O3 as a sterilizing and detoxifying material.

[0040] It may be appropriate to further explain some of these functions. Facial recognition systems are a technology for identifying and verifying individuals from digital images or video frames from video sources. While there are multiple methods for facial recognition, they generally operate by comparing selected facial features from a given image with faces in a database. Also known as biometric artificial intelligence (AI), facial recognition can identify individuals by analyzing patterns based on facial shape and texture. Initially a form of computer application, facial recognition has recently become widely used in other technological fields, such as mobile platforms and robotics. Facial recognition is commonly used for access control in security systems and is sometimes compared to other biometric authentication methods, such as fingerprint and iris recognition. While the accuracy of facial recognition as a biometric authentication technology is lower than that of iris and fingerprint recognition, it has been widely adopted due to its contactless and non-invasive process. Recently, facial recognition has also become popular as a commercial identity verification and marketing tool. Other applications include advanced human-computer interaction, video surveillance, automated image indexing, and video databases.

[0041] About Barcode Readers (73): A barcode reader (barcode scanner) is an optical scanner that can read printed barcodes, decode the data contained in the barcode, and transmit the data to a computer. Similar to flatbed scanners, it consists of a light source, a lens, and an optical sensor that converts light impulses into electrical signals. Additionally, almost all barcode readers contain a decoder circuit that analyzes the barcode image data provided by the sensor and transmits the barcode's contents to the scanner's output port. Barcode readers are technically distinguished as follows: Pen-type barcode readers have a light source and a photodiode at the tip of the pen. To read a barcode, the tip of the pen must be moved over the barcode at a relatively constant speed. The photodiode measures the intensity of light reflected from the light source as the pen tip crosses each bar and space in the barcode. The photodiode generates a waveform used to measure the width of the barcode's bars and spaces. Because the dark bars in a barcode absorb light and the white spaces reflect it, the photodiode generates a voltage waveform that represents the barcode's bar and space pattern. This waveform is decoded by the scanner, similar to the dots and dashes in Morse code. Laser scanners operate similarly to pen readers, except that they use a laser beam as a light source and a reciprocating mirror or rotating prism to scan the laser beam back and forth across the barcode. Like pens, they use a photodiode to measure the intensity of the light reflected from the barcode. In both pen readers and laser scanners, the light emitted by the reader changes brightness rapidly in accordance with the data pattern, and the photodiode's receiving circuitry is designed to detect only signals with the same modulation pattern. CCD readers use an array of hundreds of tiny photosensors lined up in a row in the head of the reader. Each sensor measures the intensity of the light directly in front of it. Because the individual photosensors in a CCD reader are so small, and there are hundreds of them in a row, a voltage pattern identical to the barcode pattern can be generated within the reader by sequentially measuring the voltage across each sensor in the row.The difference between CCD scanners and pen / laser scanners is that CCD scanners measure the ambient light emitted from the barcode, while pen / laser scanners measure the reflected light of a specific frequency emitted by the scanner. There are also LED scanners that use CMOS sensors, which are gradually replacing laser scanners.

[0042] About Collector Panel (80): Explosives Trace Detection Portal Machines, also known as Trace Portal Machines and commonly referred to as Puffer Machines, are security devices used at airports and other sensitive facilities to detect explosives and illegal drugs as part of airport security screening. These machines are intended as secondary screening devices used as a complement to, rather than a replacement for, traditional X-ray machines. The term "trace detection" refers to the machine's ability to detect extremely small "traces." While the exact sensitivity of these machines is not readily available, mass spectrometers detect compounds at the molecular level, and are therefore limited only by the collection efficiency of the puffed air to obtain samples for analysis. Some companies use ion mobility spectrometry (IMS) technology to detect explosives such as RDX, PETN, TNT, and nitroglycerin. They can also detect controlled substances such as marijuana, cocaine, heroin, PCP, methamphetamine, and MDMA. Some systems have been developed that are physically similar but internally distinct. This machine uses mass spectrometry (MS) technology to detect 16 explosive compounds with 10 to 100 times greater sensitivity than IMS. It can simultaneously decompose multiple compounds, enabling shoe bomb detection without removing shoes. Its collection technology is also significantly different, and it offers a separate product, the Drug Screening Portal. The machine operates by releasing multiple air blasts toward a passenger standing upright inside the machine. This flushes any particles that have landed on the person inside the machine, allowing them to be analyzed and identified within seconds. It can screen up to 180 passengers per hour. These samples can then be analyzed by IMS or MS to look for specific explosive or narcotic compounds. If a substance of concern is detected, security personnel are notified by visual and / or audible alarms. The machine can be used to detect not only biohazards, biological warfare chemicals, and biological hazards, but also other biohazards.

[0043] The following background information may be helpful regarding the mechanism and sensors of the micro-weather station (120). This paper describes a novel and practical micro-weather station that is compact, portable, and highly accurate, measuring temperature, relative humidity, barometric pressure, and anemometer. The micro-weather station includes a multi-sensor chip, anemometer, measurement system, display system, and power management system. A multi-sensor chip integrating temperature, relative humidity, and barometric pressure has been developed and manufactured using MEMS technology. A drag wind sensor that measures wind speed using cantilever torque has been developed. By vertically encapsulating this wind sensor, wind direction can be measured. Compared to other micro-weather stations, this one uses a very simple and compatible process. These results demonstrate the superior performance of the micro-weather station. MEMS (microelectromechanical systems) is a process technology for creating miniature integrated devices and systems that combine mechanical and electrical components. MEMS are fabricated using integrated circuit (IC) batch processing technology, and their dimensions range from a few micrometers to several millimeters. Weather observation plays a crucial role in many fields, including agriculture, military, and entertainment. There are several solutions for monitoring the weather. A classic solution consists of a static weather station. Another solution uses a wireless sensor network (WSN). A third solution uses a small weather station. Here, we present a weather station consisting of temperature, humidity, pressure, and light intensity sensors integrated into a microcontroller-based board. The station is controlled through a mobile phone SMS service. Microsystems' Weather Sensor redefines what an all-in-one Deep-L sensor should be. Everything needed for weather sensing is integrated into a single unit: 27 environmental parameters, a processor, a communications unit, and a solar power generation system. Small, lightweight, and portable, the Deep-L sensor handles the tasks previously performed by larger, more complex systems. Within 60 seconds of powering on, it can transmit local conditions via a mobile phone or Iridium satellite link.Due to their size, weight, and durability, Deep L sensors are opening up new markets and locations for autonomous weather sensors. Typical requirements for a weather station include (by way of example, not limitation): cloud-based data logging, solar power, processor, two-way connectivity to mobile phone or Iridium satellites, integrated panoramic imagery, expansion port, rugged and portable, easy installation, and autonomous operation. Weather data collected includes: temperature, air pressure, humidity, wind speed, wind direction, compass reading, angle tilt, visibility, dust accumulation, lightning distance, visual imagery, precipitation, current weather, and GPS location.

[0044] Regarding A Paint / Tags and Track (122) surveillance communications, consider the following: Drones (50) and their docking stations (31) can tag and track objects using a spray of nanoparticles. The U.S. Air Force is funding research into using drones to tag suspects and vehicles. An unassuming vehicle rounds a corner on a dusty road in northern Pakistan. 50 meters above, a small drone silently buzzes and sprays a fine mist onto the car's roof as it passes. The vehicle is tagged and can be tracked from kilometers away by an infrared scanner mounted on a larger drone. This scenario may soon become a reality, as the U.S. Air Force has contracted the development of a drone-based tagging system. Taggants are used to discreetly label vehicles carrying contraband, individuals engaged in acts of civil disobedience, and individuals attempting to illegally cross borders. Interest in tagging technology is also fueled by growing pressure on the White House over civilian deaths caused by U.S. drone attacks. Drone tagging allows for tracking of individuals for subsequent arrest. Some tags are based on quantum dots—semiconductor nanocrystals less than 50 atoms in size. Due to the quantum effect, quantum dots absorb and emit specific wavelengths of light. The company is demonstrating a taggant powder that can be detected by an infrared camera up to two kilometers away when illuminated with an invisible ultraviolet laser. The powder is delivered as an aerosol that adheres to metal, glass, and fabric, and batches can be engineered to have distinct spectral signatures. The nanocrystals are sprayed by hand-launched drones with wingspans of less than 1.5 meters, providing a silent, multi-kilometer range. Larger Predator aircraft can then shine ultraviolet lasers on targets and track their progress. "You can spray the nanocrystals with a hand-launched drone and then illuminate them with a laser," says the company. However, spraying taggants precisely is difficult. They conducted an experiment in which they flew taggants made from colored sugar beads, the kind used to decorate cakes, using a small drone.The idea was to coat roads with these beads, allowing them to adhere to the wheels of passing vehicles. However, once the beads are dispersed, they are quickly blown away by the wind. The research team developed software to model the effects of wind, allowing the beads to be dispersed accordingly. By inputting estimated wind speed and direction readings from the drone's sensors, the drone was able to strike targets from an altitude of 45 meters. Smaller drones become inaudible beyond 60 meters, so more advanced systems would enable more accurate tagging from greater distances. The U.S. Department of Homeland Security has expressed interest in equipping drones used by Customs and Border Protection with nonlethal attack capabilities. However, such efforts have been controversial, and tagging may be more readily accepted by the American public. Drones could also use smart tags during riots to identify those involved and allow for later arrest. There are many ways to mark. Tagging technology has advanced since the days of water guns with permanent dye to mark rioters. One company even produces a variety of products containing unique synthetic DNA sequences. These include automatic sprays for marking intruders, personal defense sprays, and paintball pistol-like devices that can mark individuals from up to 30 meters away. Once painted, the items can be tracked with GPS.

[0045] The UV Detox & Sterilization 125 System is described below. Ultraviolet germicidal irradiation (UVGI) is a sterilization method that uses short-wavelength ultraviolet light (UVC or UVC) to destroy the nucleic acids of microorganisms, disrupting their DNA and halting cellular function, thereby killing them. UVGI is used for a variety of purposes, including food, air, and water purification. UVC light is weak at Earth's surface because it is blocked by the atmospheric ozone layer. UVGI generates UVC light of sufficient intensity in air and water circulation systems, creating an environment that is inhospitable to microorganisms such as bacteria, viruses, mold, and other pathogens. UVGI can be combined with filtration systems for air and water disinfection. The application of UVGI for sterilization has been accepted since the mid-20th century, primarily in medical hygiene and sterile processing facilities. While primarily used in medical hygiene and sterile processing facilities, UVGI has recently been used to disinfect drinking water and wastewater. In recent years, UVGI has also been reintroduced into air purifiers. Ultraviolet light is an electromagnetic wave with a wavelength shorter than visible light and longer than X-rays. UV light is divided into several wavelength ranges, and short-wave UV (UVC) is considered "germicidal UV." Wavelengths between approximately 200 and 300 nm are strongly absorbed by nucleic acids. The absorbed energy transforms them into defects, including pyrimidine dimers. These dimers inhibit replication and prevent the expression of essential proteins, killing or inactivating organisms. - Mercury lamps emit ultraviolet light at 253.7 nm at low vapor pressure. - The ultraviolet light-emitting diode (UVC LED) lamp selectively irradiates ultraviolet light with a wavelength of 255 to 280 nm. - Pulsed xenon lamps have an emission peak around 230 nm and emit the entire ultraviolet range. Microorganisms have weak defenses against UV radiation and cannot tolerate prolonged exposure. UVGI systems are designed to deliver germicidal UV radiation to environments such as aquariums, enclosed rooms, and forced-ventilation systems. Germicidal UV radiation of the appropriate wavelength is irradiated into the environment by a germicidal lamp. Forced air or water flow through the environment ensures exposure. The degree of UV inactivation is directly related to the amount of UV radiation delivered to the water. The dose, which is the product of UV intensity and exposure time, is typically measured in microjoules per square centimeter or microwatt-seconds per square centimeter (was / cm2). A dose of 2,000–8,000 watts / cm2 is required to kill more than 90% of most bacteria and viruses. Larger parasites, such as Cryptosporidium, require lower doses to inactivate. As a result, the U.S. Environmental Protection Agency has accepted UV disinfection as a method for drinking water plants to receive inactivation credits for Cryptosporidium, Giardia, or viruses. For example, a 90% reduction in Cryptosporidium requires a minimum dose of 2,500 μW-s / cm², according to the 2006 U.S. EPA UV Guidance Manual. The effectiveness of germicidal UV light depends on the duration of exposure, the intensity and wavelength of the UV light, the presence of particles that can protect the microorganisms from UV light, and the microorganisms' tolerance for UV exposure. Many systems achieve redundancy in UV exposure by repeatedly circulating air or water. This ensures multiple exposures, ensuring that the UV light is effective against the most microorganisms and destroys resistant microorganisms with multiple exposures. Sterilization is often mistakenly considered achievable. While theoretically possible in a controlled environment, it is extremely difficult to prove, and companies offering this service typically use the term "disinfection" to avoid legal repercussions. Professionals often advertise a specific log reduction, such as a 6-log reduction or 99.9999% efficacy, rather than sterilization.This takes into account the phenomenon known as photoreactivation and dark reactivation (base excision repair), in which cells repair DNA damaged by UV light. The germicidal effect depends on whether or not UV light hits the microorganisms. Environments where UV light is blocked by design are less effective. In such environments, it is more effective to position the UVGI system so that it has the optimal line of sight for germicidal action. Dust or film on the bulb reduces the output of UV light. Therefore, bulbs must be cleaned and replaced regularly. The lifespan of germicidal UV bulbs varies depending on their design. The bulb material may also absorb germicidal light.

[0046] The Ozone Detox / Disinfection Unit 130 uses O3 for sterilization. Microorganisms are problematic in many settings, and in clinical settings, bacteria can cause dangerous outbreaks. As a chemical disinfectant, ozone can kill bacteria and viruses at low concentrations. Contact time varies depending on the desired inactivation grade. For many applications, a bacterial reduction rate of 99.99% (equivalent to a 4-log reduction) is sufficient, but higher inactivation levels can be easily achieved by increasing the solution concentration and contact time. These figures apply to the treatment of rooms and ventilation ducts in the food industry and food storage using ozone to reduce the spread of airborne microorganisms. Non-touch technologies include the use of ultraviolet lamps or chemicals dispersed as aerosols or gases to inactivate microorganisms. Compared to other air sterilization methods, ozone can efficiently sterilize large volumes of air and neutralize microorganisms, including viruses, making it suitable for use in medical settings such as hospital and doctor's waiting rooms. Ozone's long bacterial inactivation time with cleaning agents is a key cost-saving factor. After treatment, the ozone will naturally decompose into oxygen over a period of several hours, or the decomposition can be greatly accelerated using an ozone destructor.

[0047] 7A-7E are schematic diagrams of a housing association underground storage system 150 and a robotic / AUVS (Autonomous Unmanned Aerial Vehicle System) unloading assistance mechanism 180. The diagrams show the following components: a drone docking station (DRONEDEK) 31 (hereinafter referred to as the extension floor / receiving drone dock, docking station, box, or drone box) for depositing drone-delivered items; a control system 66 for motors 34A, 32FM, 132FM, 232FM, and 332FM and an interface to keyboard 116; a structural member 151 for raising platform 155; a rolling seal top door 152; a movable platform 155; an opening 156 for storage 150; and a lifting means 157, such as a chain, cable, rope, belt, pulley / sprocket / sheave, etc., connected to a motor 158. A means for converting electricity into rotary motion, such as an electric motor 158. A power source 159. A set of powered rollers 170 for the assist platform 172. The assist platform 172. An extending support arm 175. An extension cylinder 177 for the robot / AVSI assist unit 180. A console control keyboard 116, a charging receptacle 178 for 110V power, cell phone charging, Tesla, electric scooter, etc. A robot / AUVS (Automated Unmanned Vehicle Systems) assist unit 180 to assist in unloading the load 40 onto the DRONEDEK 31, 131. A motor-hydraulic unit 332FM for the robot / AUVSI assist unit 180.

[0048] 8A-8H are sketches of drone 50 delivery and expanding DRONEDEK 31 operation at a residential or commercial pickup location 107, as described in the section below (Operation of the Preferred Embodiment).

[0049] Figures 9A through 9F are sketches of prior art drone delivery systems to date. Here, we present older patents and applications related to various docking stations and systems. These include: 2017 O'Toole Prior Art 400 (U.S. Patent 9,840,340) entitled "Drone docking station and delivery system"; 2019 O'Toole Prior Art 401 (U.S. Patent 10,457,421) entitled "Drone docking station and delivery system"; 2018 Kalyan Prior Art 402 (U.S. Patent 10,093,454) entitled "Unmanned aerial vehicle payload receiving apparatus"; and 2016 Gentry et al. Prior Art (U.S. Patent 9,387,928) entitled "Multi-use UAV docking station systems and methods." Prior art 404 by Walsh in 2018 (U.S. Patent 10,124,912) entitled "Landing pad for unmanned aerial vehicle delivery." Prior art 405 by Gil et al. in 2018 (U.S. Patent 9,928,749) entitled "Methods for delivering a parcel to a restricted access area." As can be seen, the drone docking station 31 with a specialized expanding floor / accordion, referred to as the DRONEDEK device, has a unique combination and uses as described herein.

[0050] The objectives include, but are not limited to: Objectives: 1. To provide communication between the drone dock and the drone; 2. To provide security and storage for deliveries before, during and after delivery; 3. To provide an expanded, secure holding area to accommodate multiple deliveries.

[0051] Features include: Security: Secure door opening and closing function (lock 71 means and keypad 71A for DRONEDEK on-site access) that allows the drone to communicate with the station and open and close for shipments. Expandable Receiving Area: Expands capacity for multiple packages or deliveries and provides an on-docking station. Protection from explosives, pathogens, etc.: Collector panels 80 for detecting explosives, anthrax, or other threats. Weather Data Station: Micro Weather Station 120 Mechanisms (Sensors, etc.) Intercommunication between drones and UAVs: Communication between drone position tracking means 108, 100, 110 and docking station 31. Enables encrypted communication and tracking of driverless vehicles, robots, and vendors interacting with drones. DRONEDEK provides the ability to track and interface with aerial vehicles and / or robots (i.e., complete UAV, drone, and robot interfaces) to utilize non-station drone delivery capabilities, including vehicle and commercial carrier and mobile DRONEDEK applications. Data acquisition: Information exchange with providers, marketing information, big data collection of data, and information collection for networking. Tracking Assist: The internal / external camera system 61 of the drone 50 has the technology and recognition accuracy to interconnect with facial recognition applications for humans and pets, monitors communication between the painting / tag and the rack 122, and tracks the painting with GPS after painting. Basement Storage: 150 Basement Storage Units for Housing Associations Unloading assistance: Robot / AUVS (Automated Guided Vehicle System) assists in unloading parcel 40 onto DRONEDEK 31 Preservation: Preservation and safekeeping of delivered goods after they are boxed. (Complete secure solution for drone delivery: 40°C and temperature-controlled 72°C hot / cold system). Local Security Features: DRONEDEK Docking Station 31 provides location-specific security and communications, including floodlighting, two-way speakers, dog whistles, loud audio alarms 94, and flashing and colored LED lighting 92 for alerting emergency vehicles and first responders. Weatherproof: Protects cargo from rain, wind, sleet, hail, snow and extreme temperatures. Heated cargo door option allows access in the most severe weather. GPS function: Through the GPS beacon, the transport drone knows the exact location of the DRONEDEK. Charging station: A built-in charging station can recharge the drone, effectively doubling the drone's range (the charging station 76 and battery mechanism 81 allow for the replacement of the drone deck and battery). Solar Power: The power source can be solar panels and / or a 110 volt power supply driven by the solar panel 68 with its high level of functionality. Drop-off / Pick: A secure storage area for packages awaiting receipt or shipment, equipped with weight and dimension sensors 93, barcode readers 73 (infrared etc.) and a return tattoo printer 115 (capable of marking a gate code 115A on the carton 40 for manual delivery, to place a gate code 115A on the package return and codex or manual intervention and delivery). Flexible installation: Equipped with a robust Mount 39A infrastructure for installation on steel walls to structures or concrete surfaces. Connectivity: Easily maintain a relationship between the user and their package. DRONEDEK is equipped with a switch that detects the contents, and through the app, users can notify the sender, recipient, and shipping company of package receipts and dispatches. The DRONEDEK's onboard camera also allows users to check the status of their packages. Remote Access: We offer a secure mobile app that allows remote access and lock / unlock of the camera from a phone or tablet. DRONEDEK owners can easily retrieve their contents with a simple code entered into their key or the 111 app on their phone. The big data collection function assumes the use of blockchain technology. Simply put, a blockchain block is a collection of data. Data can be added to a blockchain block and linked to other blocks in chronological order to create a chain of blocks. The first block in a blockchain is called the Genesis Block. A blockchain is a distributed, public digital ledger used to record transactions across many computers, and related records cannot be retroactively changed without changing all subsequent blocks. Blockchain has been described as a protocol for value exchange (see: https: / / coingeek.com / ibm-patent-takes-on-package-drone-theft-with-blockcha) Using the functionality and resulting data of the paint tag track 122, camera system 61, collector panel 80, GPS location 107, and data track 108, the Dronedek receptacle will provide data and connect the receptacle's data reservoir to various emergency systems and applications to alert and assist authorities in reporting emergency events and to guide and direct authorities to the location of buildings, vehicles, and people.

[0052] The details mentioned herein are exemplary and not limiting. Other specific components and features specific to describing the specialized expansion floor / accordion drone docking station referred to as the DRONEDEK device 31, 30 may be added as would be well understood by one of ordinary skill in the art of drone or unmanned aerial vehicle (UAV), robotic carrier, or automated guided vehicle system (AUVS) devices and drone docking stations and receivers for such applications.

[0053] Operation of the Preferred Embodiment The drone docking station with a special expansion floor / accordion mechanism, referred to as DRONEDEK 31, 30, has been described in the above embodiments. The operation of the device is described below. It should be understood that the above description and the operation described herein must be considered together to fully describe the concept of the drone docking station with a special expansion floor / accordion mechanism, referred to as DRONEDEK 31, 30. A preferred embodiment of the drone docking station with a special expansion floor / accordion mechanism, referred to as DRONEDEK 31, 30, is as follows: A drone dock and parcel box 31 for accepting drone deliveries, including: (a) a means and structure 32 for extending the receiving area with a liftable floor 32F to accommodate multiple parcels; (b) a means for positioning the drone dock 100, 102 so that a drone can precisely approach and dock with the drone dock; and (c) an engagement means 51, 62 for a stable connection or attachment to the drone dock 31. (d) Transfer means 63, 64, 65 for transferring the drone's contents 40 to the interior 33 of the drone dock 31. (e) Storage means 70, 72, such as temperature control, and means for securely storing the goods once delivered to the drone dock. (f) Release means 51, 62 for releasing the goods from the drone dock 31. (g) Means 108, 110 for encrypted communication between the drone 50 and the drone dock 31, either directly or via a remote server (Wi-Fi, Bluetooth, hotspot, satellite, etc.). (h) Sets of functional components 71, 71A built into the box to enable soft preservation and protection of the contents and prevent damage during transport and subsequent storage. (i) Means 39A for securing the box to a structure at a residential or commercial address 107. (j) Optional functional set consisting of a charging station 76 and an exchange mechanism 81. Collector 80 for identifying explosives, anthrax, etc. (k) A set of identification features such as a barcode reader 73, a weight and dimension sensor 93, and a tattoo printer 115 for return parcels.(l) Drone dock features for weather observation 120, GPS 122 for tagging and tracking vehicles, luggage, etc., and cameras 61 with facial recognition software for tracking people and pets. (m) Local features include two-way speakers and loud audio alarms 94, colored and strobe-enabled LED lights 92, and floodlights 78.

[0054] The drone docking station, equipped with a special expansion floor / accordion mechanism called the DRONEDEK 31, 30, operates as follows: A secure encrypted code 110 may be employed to direct the drone 50 to access and open the top 34 of the dock to securely deliver the box 31 inside. Instead of a code, the drone may simply access the landing base to open the drone dock. Final communication between the drone and the drone dock 31 may be electronic or magnetic, established when the drone lands and connects with the box. Direct communication between the docking or delivery box and the drone itself upon docking may facilitate transmission of the code in the lock box. In an alternative embodiment, a remote server may be employed, with the drone communicating its location and docking details to the remote server, which may then ping or otherwise send a signal directly to the box or associated IP address to trigger the box to unlock and open. The box may also communicate via RFID to identify itself to the drone (or vice versa) and communicate the barcode or ID sequence required for docking and unlocking. Similarly, a Bluetooth signal may be employed to transmit a code to the drone when the drone is within range of the box and its Bluetooth signal. In certain embodiments, the box provides GPS guidance to the drone for proper docking and delivery to the box. Upon successful docking, the top securely closes, preventing vandals, thieves, and animals from entering the dock. Retriggering the closure may be accomplished via direct communication between the drawer and the box or via a remote server, in a manner similar to the signal to open. The box may also be designed to automatically close and lock when the drone undocks from the box. Communication may occur via wireless networks such as Wi-Fi, Bluetooth, satellite, or others as will be recognized by those skilled in the art.Direct communication between the docking box or delivery box and the drone itself during docking can also be used to facilitate transmission of the code in the lock box. In an alternative embodiment, a remote server is employed, and the drone communicates its location and docking details to the remote server, which then pings or otherwise broadcasts a signal directly to the box or associated IP address, triggering it to unlock and open. The box may also communicate via RFID to identify itself to the drone (or vice versa) and communicate the barcode 73 or ID sequence required for docking and unlocking. Similarly, Bluetooth signals may be employed to transmit a code to the drone when it is within range of the box and its Bluetooth signal. In certain embodiments, the box broadcasts GPS guidance to the drone for proper docking and delivery to the box. Upon successful docking, the top securely closes, preventing vandals, thieves, and animals from accessing the dock. Retriggering the closing can be achieved via direct communication between the docking box and the box or via a remote server, in a manner similar to the signal to open. Additionally, when the drone undocks from the box, the box may be designed to automatically close and lock.

[0055] The box's design allows an item 40 to be dropped into its cavity 33, and the lid 34 to be dropped onto the floor 32F or pad 36. The item 40 drops, and the lid 34 returns to its home position, preventing access to the inserted item except by the intended recipient. The drone dock 31, 30 then reports to the owner, shipper, or shipping company that the item is securely seated in the dock and will come to retrieve it. The drone dock 31 may also report not only the takeoff status but also the charging status to the shipper.

[0056] 8A through 8H are sketches illustrating drone 50 delivery and the operation of an expanded DRONEDEK 31 at a residential or commercial receiving location 107. The following components are shown: a drone docking station (DRONEDEK) 31 (hereafter referred to as the extended floor / receiving drone dock, docking station, box, or drone box) for depositing drone-delivered items; a design sketch 31DS of the DRONEDEK with the expanded floor; a drone structure / container opening 33; a movable / powered sliding door 34 with heating means located on the dock structure 32; styrofoam or soft padding 36; parcels such as food, groceries, tools, electronics, and documents; a drone 50; a camera system 61 inside / outside the drone 50 compartment with technology and recognition accuracy for interconnecting with facial recognition applications for humans and pets; an optional receiving dimple for the drone pad 51; a solar panel for power; and a barcode reader 73 (e.g., infrared). Barcode reader pulse and signal 73A. Barcode reader label 73B on parcel 40. Windscreen 74. Exterior lighting 92 (LED type systems may be used) for strobes, flashing colors, contacting authorities, emergency notifications, etc. Personal communication device 106 (smartphone, tablet, laptop, PC, etc.). Specific GPS address 107 of docking station 31. Local signal and / or mechanical means 108 to facilitate final location and movement, such as cold beam technology, laser beam, radar, lidar, quick response (QR) code tag, radio frequency RFID, remote identification tracking and sensing, for drone authentication and landing to navigate drone 50 to a precise location on docking station 31. Smartphone app, etc., to inform the user of personal communication device 106 of the status of the docking event. Drone dispatch and receipt are coordinated by the FAA, the shipper, and the consignee when sending or receiving a package 91. If a collision occurs, a warning signal is displayed on the smartphone (Figure 8H), and is also displayed when goods are received or shipped. If there is a problem with receiving, such as the package being oversized or the receiving sections 30 and 31 being full, a message is sent and the package is sent to a pre-set overflow zone. All DRONEDEK receptacles 30 and 31 feature a feature called the Drone Zone. This is an overflow area for oversized luggage, luggage for which the DRONEDEK won't function, or luggage that's too full. The zones are equipped with electronic monitoring devices that monitor luggage dropped into these areas. Clients are notified that a luggage is there, and if someone breaches the field and takes the item, photos, video, and electronic visual documentation of the individual are left. In these zones, an audio alarm sounds, similar to the Viper car anti-theft system, saying, "You're getting too close to the luggage, please back off or an alarm will sound."

[0057] It should be understood that this description does not limit the scope of the special expansion floor / accordion-equipped drone docking station called DRONEDEK (31, 30) to the disclosed embodiment, and that the features of the special expansion floor / accordion-equipped drone docking station called DRONEDEK (31, 30) are intended to cover various modifications and equivalent constructions that fall within the spirit and scope of this description.

[0058] While certain novel features of the invention have been shown and described and pointed out in the appended claims, it is understood that one skilled in the art may make various omissions, modifications, substitutions and changes in the form and details of the illustrated apparatus, as well as in its operation, without departing from the spirit of the invention. Without further analysis, the foregoing description will sufficiently reveal the gist of the invention so that others, by applying their current knowledge in the light of the prior art, may readily adapt it to various applications without omitting those features which fairly constitute essential features of the general or particular aspects of the invention.

[0059] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. Although any methods and materials similar or equivalent to those described herein can also be used in the practice or testing of the present invention, the preferred methods and materials are currently described in the preceding paragraphs.

[0060] Other embodiments of the invention are possible. While the above description contains many specificities, these should not be construed as limiting the scope of the invention, but merely as providing illustrations of some presently preferred embodiments of the invention. It is also contemplated that various combinations or subcombinations of the specific features and aspects of the embodiments may be made and still fall within the scope of the invention. Various features and aspects of the disclosed embodiments may be combined with or substituted for one another to form varying modes of the disclosed invention. Accordingly, it is intended that the scope of at least some of the inventions disclosed herein should not be limited by the particularly disclosed embodiments described above.

[0061] Terms recited in the claims should be given their ordinary and customary meaning as determined by reference to the relevant entry in a dictionary (e.g., a widely used general reference dictionary and / or relevant technical dictionary) (e.g., a definition of "plane" as a carpenter's tool would not be relevant to the use of the term "plane" when used to refer to an airplane), with the understanding that the broadest meaning given by any one or combination of these sources should be given to the claim term (e.g., a widely used general reference dictionary and / or relevant technical dictionary), such as the meaning commonly understood by a person of ordinary skill in the art. (a) If a term is used herein in a manner that is broader than its ordinary and customary meaning, the term should be given its ordinary and customary meaning plus the expanded meaning, or (b) if the term is expressly defined to have a different meaning by following it with the words "as used herein" or similar language (e.g., "As herein used shall mean"). Reference to specific examples, use of "i.e.," use of the word "invention," etc., are not intended to invoke exception (b) or otherwise limit the scope of the recited claim terms. Except in circumstances where exception (b) applies, nothing contained herein should be deemed a waiver or denial of the scope of the claims. Accordingly, the subject matter recited in the claims does not coexist with, and should not be construed as coexisting with, any embodiment, feature, or combination of features set forth herein. This is true even if only a single embodiment of a feature or combination of features is shown and described herein. Accordingly, the appended claims should be read to be accorded the broadest interpretation in light of the prior art and the ordinary meaning of the claim terms.

[0062] Unless otherwise noted, numbers or expressions expressing dimensions, physical properties, and the like used in this specification (except in the claims) should be understood to be modified in all instances by the term "approximately." At the very least, and not as an attempt to limit the application of the doctrine of equivalents to the scope of the claims, each numerical parameter described in the specification or claims modified by the term "about" should be construed in light of at least the number of significant digits and by applying ordinary rounding techniques.

[0063] It is to be understood that the present invention is susceptible to modifications which will occur to those skilled in the art. While the present disclosure has been described in detail in the figures and foregoing description, these are to be considered illustrative and not restrictive in nature. It is to be understood that only selected embodiments have been shown and described, and that all changes, modifications, and equivalents which come within the spirit of the above-described disclosure and / or the scope defined by the following claims are desired to be protected.

Claims

1. A parcel receiving section; a receiving section expansion structure for expanding the volume of the parcel receiving section, the receiving section having a liftable floor and an electric sliding door for accommodating a plurality of parcels; a means for enabling the drone to locate the drone dock by GPS and accurately approach and dock; an engagement means for stably connecting the drone to the drone dock; a transfer means for transferring each of the plurality of parcels from the drone to an interior of the drone dock structure; a predetermined temperature maintaining means provided with an electric heat / cold insulation plate; an item storage means for securely storing the parcel within the drone dock; a disengagement means for disengaging the drone from the drone dock; A communication means for performing encrypted communication between a drone dock having a specific GPS address and the drone, and for communicating with a requester requesting delivery of the package; and multiple functional components incorporated into the delivery box to prevent damage or deterioration during transport or subsequent storage, The system is configured to track the parcel delivered to the requester and collect a series of statistical data regarding tracking and delivery for marketing research. To accept multiple drone deliveries of packages to a requester at once, Drone dock and parcel box with extended floor.

2. the access means for the storage means includes at least one of a keypad, a facial recognition camera, and a fingerprint recognition system for on-site access to the drone dock; 10. The drone dock and delivery box with an extended floor according to claim 1.

3. The communication means is at least one of cold beam technology, laser beam, radar, lidar, two-dimensional barcode tag, and RFID.

10. The drone dock and delivery box with an extended floor according to claim 1.

4. The encrypted communication means between the drone and the drone dock is selected from the group consisting of Wi-Fi, Bluetooth, a hotspot, and a satellite system, and the drone dock performs encrypted communication and tracking of the automated guided vehicles, robots, and businesses that interact with the drone dock, and is configured so that the drone dock can track and communicate with aerial drones, commercial carriers, unmanned vehicles (UAVs), and robots.

10. The drone dock and delivery box with an extended floor according to claim 1.

5. The functional component is selected from the group consisting of a soft receiving pad, a curved surface, a sealed door, a temperature-controlled interior, and a heated sliding door.

10. The drone dock and delivery box with an extended floor according to claim 1.

6. The device further includes an optional function selected from the group consisting of a charging station for drone batteries, a replacement mechanism for drone batteries, a charging station for mobile phones, a charging station for electric scooters, a charging station for electric bicycles, and a charging station for electric vehicles.

10. The drone dock and delivery box with an extended floor according to claim 1.

7. Further comprising a collector for identifying explosives, biohazards, illegal drugs, or anthrax.

10. The drone dock and delivery box with an extended floor according to claim 1.

8. Further, the device is provided with an ultraviolet scanning system for removing pathogens, viruses, and harmful substances.

10. The drone dock and delivery box with an extended floor according to claim 1.

9. The device further includes an ozone applicator for removing disease-causing germs, viruses, and harmful substances.

10. The drone dock and delivery box with an extended floor according to claim 1.

10. Further comprising a barcode reader.

10. The drone dock and delivery box with an extended floor according to claim 1.

11. Further comprising a weight and dimension sensor, a barcode reader, and a two-dimensional barcode reader.

10. The drone dock and delivery box with an extended floor according to claim 1.

12. A drone dock and delivery box with an extendable floor as described in claim 1, further comprising a direct print printer for reverse logistics and parcel returns.

13. Further comprising a weather monitoring system.

10. The drone dock and delivery box with an extended floor according to claim 1.

14. Further comprising a paint or tag tracking function for tracking vehicles and parcels.

10. The drone dock and delivery box with an extended floor according to claim 1.

15. Further, the device is provided with a camera with a facial recognition function for humans and pets.

10. The drone dock and delivery box with an extended floor according to claim 1.

16. Further comprising an encrypted tracking chip for tracking loss of said drone dock.

10. The drone dock and delivery box with an extended floor according to claim 1.

17. Further, the device is provided with a dog whistle and a two-way speaker, The two-way speaker has a function to sound a siren to alert emergency vehicles and first responders.

10. The drone dock and delivery box with an extended floor according to claim 1.

18. Further comprising a set of colored, strobe-enabled LED lights for alerting emergency vehicles and first responders.

10. The drone dock and delivery box with an extended floor according to claim 1.

19. Further comprising a floodlight.

10. The drone dock and delivery box with an extended floor according to claim 1.

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