Balloon-based hovering wireless telecommunication and internet data decryption system

Abstract

This invention introduces a suspended telecommunications system utilizing gas-lift hydrogen-filled balloons for global internet access and secure encrypted communication analysis. Utilizing this gas-lift technology, it deploys an airborne antenna platform stabilized by lightweight carbon fiber structures and secured by ground-based cables. The system integrates various antennas, including parabolic and Starlink dishes, dynamically adjusting for optimal signal reception from terrestrial and satellite sources. a high-frequency amplifier-dissipator and an AI-enhanced ground processing center facilitate the interception and decryption of encrypted communications, filtering potential security threats. The platform features motorized rotating plates, efficient power management, and GSM / Wi-Fi modules for enhanced connectivity. Constructed with composite materials for durability and minimal weight, it includes built-in lighting for visibility and emergency signaling. The system presents an innovative, cost-effective, and scalable solution for global telecommunication coverage and secure communication monitoring, addressing national and social security concerns while ensuring reliable access to digital information worldwide.

Description

Balloon-Based Hovering Wireless Telecommunication and Internet Data Decryption System

[0001] This invention presents an advanced airborne wireless telecommunications system that provides global internet access and enables the interception and decryption of encrypted digital communications to enhance national and social security. The system comprises electromagnetic-wave antennas, including parabolic, Starlink, branch, and whip antennas, suspended by hydrogen-filled balloons within a lightweight carbon fiber frame. This energy-efficient suspension eliminates continuous energy consumption. Electric motors precisely adjust antenna orientation, optimizing VHF, UHF, and satellite signal reception.

[0002] The ground-based control center coordinates data reception, processing, and wireless communication, supported by dedicated circuits for power supply, stepper motor control, and high-frequency amplification. The system’s decryption mechanism utilizes IMSI, TMSI, and dynamic identifier redefinition, ensuring secure and targeted data access. With comprehensive 360-degree coverage, the device offers cost-effective deployment and maintenance, revolutionizing digital connectivity and security in remote and urban environments.

[0003] The technical field of the claimed invention is in the field of detecting, decoding, analyzing, and decrypting electromagnetic-based internet and cloud data to make various layers of internet accessible in different wireless communications’ forms, based on redefining and decrypting International Mobile Standard Identifier (IMSI), Temporary Mobile Standard Identifier (TMSI), and other identifiers relates to the Global System for telecommunication and Mobile Communications (GSM) and by relying of a balloon-based hovering multisectoral receiving / transmitting antennas.

[0004] This claimed invention can be searched through international codes (IPC) and international classified codes (Cooperative patent classification with the abbreviation CPC)), B64B1 / 40, G06F3 / 0484, G06F21 / 6245, G07C9 / 33, G09B29 / 006, H04B1 / 00, H04B1 / 40, H04B7 / 18502, H04L2209 / 00, H04L2463 / 061, H04L41 / 0896, H04L43 / 045, H04L67 / 1095, H04L9 / 00, H04L9 / 3268, H04M1 / 72457, H04W8 / 20, H04W12 / 00, H04W12 / 043, H04W28 / 00, H04W28 / 26, H04W48 / 16, H04W68 / 12, H04W88 / 00 in search engines and international online databases.

[0005] By searching keywords such as "Internet AND Decryption", "SIM Card", "SIM", "IMSI Cloning”, “SIM AND (IMSI Cloning)”, “Internet AND UAV”, “Internet Globalization”, in international patent databases such as Google Patent, Patent Scope, and Lenz, similar patent documents and declarations were obtained as follows.

[0006] In patent No. US10769568B2, under the title of "UAV routing and data extraction", which was registered on 2018-05-21, a drone-based predictive system has been disclosed for detecting and analyzing web and drone-based data in order to mitigate potential losses and enhance risk mitigation activities in commercial insurance such as for business owners’ policies and workers compensation. The drone is able to capture from a plurality of angles and perspectives to provide data to affect a variety of insurance-based actions.

[0007] In patent No. US10313328B2, under the title of "Method and system for establishing trusted communication using a security device", which was registered on 2017-08-14, a security device at local networks location has been claimed to establish secure digital access to a remote network location. It has been alleged that the security device possesses a unique identifier (UID), processor, and memory, security software is obtained from a remote network location, the security software obtains a personal identification number (PIN) of a user, and the UID of the security device. The PIN, the UID, and the private security software are forwarded to the remote network location for generating a credential code, including encrypting the credential code.

[0008] In patent No. US11540190B2, under the title of "Methods and apparatuses for deploying a moving base station for internet of things (IoT) applications", which was registered on 2018-09-28, an unmanned vehicle base station (BS) has been provided which comprises at least one processor; and at least one memory comprising computer program code which this constituent with the claimed processor, cause the process that the apparatus at least receiving an indication from at least one device of its capability to switch to a temporary cell of an unmanned vehicle base station; determine, based on knowledge of locations on a planned path of the unmanned vehicle base station, which of the at least one device is located within coverage of one of the locations on the planned path; and configure discontinuous reception cycles or power saving mode of the at least one device so that the at least one device is awake when the unmanned vehicle base station establishes the temporary cell, wherein the discontinuous reception cycles or power saving mode of the at least one device are configured based on the planned path of the unmanned vehicle base station.

[0009] In patent No. US11488488B2, under the title of "Blockchain-based solution for internet of drones security and privacy", which was registered on 2020-01-03, a secure system has been claimed to be designed for the management of at least one unmanned aerial vehicle (UAV) comprises a cloud service and a ground control station. The cloud service features a cloud-based management system equipped with processing circuitry that facilitates communication among the cloud service, the ground control station, and the UAV. It has been noted that the alleged system is responsible for controlling and monitoring the UAV through a corresponding UAV client device. The UAV client device is tasked with receiving messages from the UAV, transmitting commands to it, authenticating the sender of each received message, and generating a new block for each message and command as new transactions. This process includes executing a consensus algorithm for the new block, determining a consensus to validate it, and subsequently updating a blockchain with the validated block.

[0010] In patent No. US20190166963A1, under the title of "Intelligent Umbrella Including One or More Internet-of-Things (IoT) Enabled Devices ", which was registered on 2016-12-29, An intelligent umbrella system has been disclosed contains one or more shading elements; a support assembly, coupled to the one or more shading elements, to provide support for the one or more shading elements; and a base assembly, coupled to the support assembly, to provide contact with a surface. The intelligent umbrella also includes one or more microphones to capture spoken or audio commands; one or more processors; one or more memory modules; and one or more wireless communication transceivers. The intelligent umbrella system includes computer-readable instructions stored in the one or more memory modules that are executed by the one or more processors to convert the captured audio commands into audio files; and perform voice recognition on the converted audio files to generate instructions or commands based, at least in part, on the converted audio files.

[0011] In patent No. US10321320B2, under the title of "Wireless network buffered message system", which was registered on 2017-04-28, a networked system has been claimed to be designed consisting of: i) a network server system that includes a link interface designed to sustain a secure Internet data message link between the link interface and a corresponding device link agent on each of a variety of wireless end-user devices, with each wireless end-user device containing multiple software components authorized to receive messages through the device link agent associated with that device; a network interface responsible for receiving messages from various network elements, which are to be delivered to specific software components identified in the messages, where each network element is permitted to transmit messages via the link interface to one or more software components on one or more wireless end-user devices; and a message buffer system that encompasses memory and logic, the memory serving to store content from the received messages of network elements for which delivery is requested to any of the wireless end-user devices, the logic tasked with identifying when one of several message delivery triggers for a particular wireless end-user device has been activated, wherein for some of the received messages from network elements, the arrival of such a message at the message buffer system does not constitute a message delivery trigger, and for at least one of the message delivery triggers, the trigger is the occurrence of an asynchronous event necessitating time-sensitive messaging, and upon recognizing that one of the message delivery triggers has been activated for the specified wireless end-user device, the logic is further responsible for supplying one or more messages containing the buffered content for that particular wireless end-user device to the transport services stack for delivery over the secure message link established between the transport services stack and a device link agent on that specific wireless end-user device; and ii) the device link agents located on the respective wireless end-user devices, with each device link agent configured to sustain the corresponding secure Internet data message link.

[0012] In patent No. US11473913B2, under the title of "System and method for service oriented cloud based management of internet of drones", which was registered on 2020-02-13, an unmanned aerial vehicle (UAV) management system and method based on Internet protocol has been presented, which encompasses UAVs equipped with a communication chip, a user computer, and a cloud-based service designed to facilitate a virtual UAV. The method involves the storage of multiple pre-planned missions, the management of communication between the UAV and the user computer, the mapping of the UAV to the virtual UAV, the assignment of missions that include several waypoints, and the allocation of tasks at these waypoints. Dynamic mission planning is executed for the assigned mission to create planned paths for task execution. The operation of the UAV is governed through the corresponding virtual UAV, which includes receiving messages and commands related to the mission from the user computer, dispatching control commands to the UAV, receiving data signals from the UAV, and relaying the location and status of task performance for the UAV. The cloud-based service also conducts image processing utilizing the received data signals.

[0013] In patent No. US20200349852A1, under the title of "Smart drone rooftop and ground airport system", which was registered on 2020-05-04, an unmanned vehicle control system has been taken into consideration that comprises a ground control station in operable communication with a plurality of unmanned vehicles via a communications network, the ground control station to receive unmanned vehicle mission information and provide a plurality of instructions to the unmanned vehicle to execute a mission, the mission including a take-off procedure and a landing procedure; a plurality of microservices to process requests from a controller; at least one charging station to provide a docking point for the plurality of unmanned vehicles, wherein the charging station provides a power source to the plurality of unmanned vehicles and receives mission information from the ground control station, wherein the unmanned vehicles are operable to deliver a good to a remote location.

[0014] In patent No. US10382970B2, under the title of "Balloon clumping to provide bandwidth requested in advance", which was registered on 2017-10-17, a method has been taken into consideration that includes the following steps: utilizing an advance request for bandwidth within a designated area for a specific future time frame characterized by a start and a limited duration, to forecast the anticipated bandwidth requirements in that area; prior to the commencement of the specified future time frame, and informed by the projected bandwidth needs, maneuvering one or more balloons within a high-altitude balloon network into the airspace above the designated area; assessing a priority level associated with the anticipated bandwidth requirements; and delivering bandwidth through the aforementioned balloons in the high-altitude balloon network within the designated area during the specified future time frame, where the delivery of bandwidth is contingent upon the established priority level.

[0015] In patent No. US11362901B1, under the title of "Dynamic balloon network coverage map," which was registered on 2020-03-16, a method has been taken into consideration that includes the following steps: generating a dynamic coverage map for a balloon network based on real-time and historical data; monitoring the positions and coverage areas of multiple high-altitude balloons in the network; determining gaps or overlaps in coverage by analyzing environmental conditions, user demand, and balloon movement patterns; adjusting balloon positions dynamically to optimize network coverage; and continuously updating the coverage map to reflect real-time changes, ensuring reliable and efficient network performance.

[0016] In patent No. CN110868455B, under the title of "Computing unloading method and system based on air-space-ground remote Internet of things," which was registered on 2019-10-29,a method has been taken into consideration that includes the following steps: constructing a total energy consumption objective function-based on the local computing energy consumption of the Internet of Things (IoT) terminal, the edge computing unloading energy consumption of unmanned aerial vehicles (UAVs), UAV flight energy consumption, satellite cloud computing unloading energy consumption, and UAV edge computing energy consumption; obtaining an optimal computing unloading scheme according to the total energy consumption objective function; and adjusting the computation unloading process in the air-space-ground remote IoT system based on the derived optimal scheme. The method enables joint optimization of resource allocation, user scheduling, computation unloading allocation, and UAV trajectory planning, ensuring an energy-efficient solution that minimizes total system energy consumption under various constraints.

[0017] In patent No. US10511950B2, under the title of "Method and system for an emergency location information service (E-LIS) for Internet of Things (IoT) devices", which was registered on 2017-04-19, a technique and framework for identifying and confirming the location of network devices associated with the Internet of Things (IoT) have been presented. This technique and framework offer the real-time physical geographic location of IoT network devices and / or their users during critical situations, including accidents, health emergencies, fitness-related incidents, fires, terrorist threats, military events, severe weather, and flooding. The current physical geographic location is then transmitted to traditional 911 networks, Next Generation 911 (NG-911) networks, Emergency Services IP networks (ESInet), or text-to-911 Short Message Services (SMS) networks to notify emergency responders.

[0018] In patent No. US12001403B2, under the title of "Blockchain cell system", which was registered on 2022-03-23, a blockchain cell system is disclosed which comprises: a distributed ledger storing one or more smart contracts, one or more 5G small cells, each having one or more antennas mounted on a housing, each small cell sending packets of data trackable with the distributed ledger, wherein at least one of the 5G small cells earns fees by providing communication with mobile devices, wherein the small cell is associated with a public key in the distributed ledger and provides data transport and Proof-of-Location services, and a processor to control a directionality of the antennas in communication with a predetermined target using 5G protocols.

[0019] In patent No. US10373097B2, under the title of "Autonomous multimodal logistics", which was registered on 2017-11-16, a system has been taken into consideration that includes the following components: a docking station remotely located from a fulfillment center; a fulfillment system managing both the fulfillment center and the docking station; an unmanned aerial vehicle (UAV); and an autonomous ground vehicle (AGV). The fulfillment system is configured to receive a request to ship an item, determine an item transfer point based on the delivery point, calculate a flight path to the item transfer point, load the item onto the UAV via a handling mechanism at the fulfillment center, and deploy the UAV to the item transfer point using the calculated flight path. The AGV is in wireless communication with the fulfillment system and the docking station. The item transfer point specifies a geographical location where the item is to be transferred from the UAV to either the docking station or the AGV, depending on the delivery point.

[0020] In patent No. US10277307B1, under the title of "Network capacity management," which was registered on 2018-08-10, a method has been taken into consideration that includes the following steps: flying an unmanned aerial vehicle (UAV) to a specified geographical location where a wireless router is present; detecting a wireless coverage area defined by the router; accessing the wireless network using a predefined network identifier and password; establishing a backhaul link to a data network; transmitting a notification to a client device served by the wireless coverage area, indicating that the UAV is now acting as the default gateway; and facilitating data exchanges between the client device and other devices accessible via the data network. The method further includes dynamically updating the network assignment, enabling seamless UAV-based internet access, and supporting flexible deployment of aerial communication nodes.

[0021] In patent No. CN106464342B, under the title of "Broadband access system via drone / UAV platform," which was registered on 2014-03-24, a system has been disclosed that consists of the following constituents: at least one antenna fixture located on each aerial platform, capable of generating at least one beam directed toward the ground to provide broadband wireless access; a radio subsystem on each aerial platform, which demodulates and decodes signals from ground terminals, transmits modulated data, and dynamically adjusts antenna beams based on the platform's position and orientation; an aerial platform switching subsystem that manages data routing between ground terminals; and a ground terminal subsystem comprising an antenna and radio unit that searches for the strongest UAV signal, calibrates transmission parameters, and maintains connectivity. The system utilizes a combination of space division multiple access (SDMA) and time division multiple access (TDMA) schemes to optimize communication efficiency and ensure seamless broadband service delivery across a wide area.

[0022] In patent No. US9094816B2, under the title of "Method and system for an emergency location information service (E-LIS) from unmanned aerial vehicles (UAV)," which was registered on 2014-12-22, a system has been disclosed that enables accurate emergency location tracking using UAVs. The method involves receiving an emergency message, such as E911 or text-to-911, from a mobile network device via a wireless communication network; transmitting a location request to a UAV operating over the geographic area where the mobile device is located; retrieving a response from the UAV containing precise 3D (X,Y,Z) or 2D (X,Y) geo-space coordinates; determining the device’s real-time physical location based on these coordinates; and relaying this information to emergency response networks, including E911, ESInet, or text-to-911 systems. The system further incorporates UAV-based audiovisual identification, GPS, WiFi, Bluetooth, and cellular signal tracking to enhance location accuracy. Additionally, real-time visualization of the determined location can be displayed on emergency response agency servers, improving situational awareness and facilitating swift rescue operations in both urban and remote settings.

[0023] In patent No. US20190166963A1, under the title of "Intelligent Umbrella Including One or More Internet-of-Things (IoT) Enabled Devices", which was registered on 2016-12-29, An intelligent umbrella system has been claimed which comprises one or more shading elements; a support assembly, coupled to the one or more shading elements, to provide support for the one or more shading elements; and a base assembly, coupled to the support assembly, to establish contact with a surface. The intelligent umbrella also includes one or more microphones to capture spoken or audio commands. Furthermore, this system comprises computer-readable instructions that are stored in one or more memory modules. These instructions are executed by one or more processors to transform captured audio commands into audio files. Additionally, the system claimed to conducts voice recognition on the converted audio files to produce instructions or commands that are derived, at least in part, from the converted audio files.

[0024] In patent No. US20230397052A1 (US12177139B2), under the title of "Wireless communication device and wireless communication method,"which was registered on 2023-08-17, a system has been introduced to enhance bandwidth allocation and communication efficiency across multiple wireless standards. The system includes a wireless communication device equipped with transmitting circuitry that designates bandwidth usage for different categories of terminals—each compliant with distinct wireless standards. The device transmits a control frame containing multiple fields specifying bandwidth allocations for first, second, and third terminals, dynamically determining the operating bandwidth for each based on network conditions. Additionally, the system manages frequency multiplexing, adaptive bandwidth restriction, and interference mitigation through intelligent control circuitry. This ensures optimized network performance by efficiently distributing available spectrum across diverse wireless communication devices while maintaining seamless interoperability among different communication standards.

[0025] In patent No. US20220116108A1, under the title of "Wireless Base Station, Control System, Electronic Device, and Wireless Communication Terminal," which was registered on 2021-09-09, a system has been introduced to facilitate direct terminal-to-terminal communication using a wireless base station. The system enables efficient data exchange between a first wireless communication terminal and a second wireless communication terminal by dynamically transmitting control and operational signals to optimize connectivity. The method involves transmitting a first control signal to the second terminal, instructing it to request communication with the first terminal; transmitting one or more first operation signals to control certain functionalities of the first terminal; receiving either a response signal or data signal from the first terminal via the second terminal; and transmitting a second operation signal based on the received response. If no response is detected, the second operation signal is instead sent to the second terminal to continue the communication attempt. This approach has been claimed to enhance real-time network efficiency, minimizes unnecessary signal retransmissions, and improves wireless resource allocation, ensuring seamless connectivity between mobile terminals while reducing reliance on centralized network infrastructures.

[0026] In patent No. TW202505931A, under the title of "Methods and apparatus for wireless communications," which was registered on 2023-03-28, a method has been introduced to enhance wireless communication efficiency using relay devices on unlicensed carriers. The method involves discovering a relay wireless device for local communication on an unlicensed frequency band; performing a listen-before-talk (LBT) procedure to ensure channel availability; and, upon successful completion of the LBT process, establishing a communication link with the relay device to facilitate data transmission between a user equipment (UE) and a base station. This approach optimizes spectrum utilization, improves network coverage, and ensures efficient data forwarding by leveraging unlicensed spectrum for relay-based communication.

[0027] In patent No. US11903028B2, under the title of "Wireless communication device, wireless communication terminal, and wireless communication method," which was registered on 2022-07-18, a system has been proposed to enhance network efficiency by implementing transmission prohibition periods to manage overlapping wireless networks. The method involves setting a first transmission prohibition period for a first network and a second transmission prohibition period for a second overlapping network; receiving and analyzing frames addressed to other devices; and determining the state of the wireless medium based on a comparison of received signal levels with predefined thresholds. The system dynamically adjusts transmission control based on network conditions, ensuring efficient communication while mitigating interference in shared spectrum environments.

[0028] In patent No. US11310791B2, under the title of "Wireless communication device," which was registered on 2020-02-24, a system has been developed to improve transmission control in wireless networks using Orthogonal Frequency Division Multiple Access (OFDMA). The method includes receiving a request-to-send (RTS) frame from a wireless device, determining whether the frame is addressed to the receiving device, and implementing a transmission prohibition period if the frame is not intended for the device. The system maintains this prohibition even when a subsequent clear-to-send (CTS) frame is not received within a specified time period, ensuring controlled access to the wireless medium. Additionally, the system dynamically manages transmission permissions across multiple frequency bands, optimizing channel access and reducing interference in high-density wireless environments.

[0029] In patent No. CN111031513B, under the title of "A multi-UAV-assisted IoT communication method and system," which was registered on 2019-12-02, a method has been proposed for optimizing Internet of Things (IoT) communication using multiple unmanned aerial vehicles (UAVs). The method involves constructing a networked IoT communication system with base stations as central nodes, incorporating multiple UAV nodes and IoT devices; modeling the system to minimize total energy consumption while ensuring ultra-reliable low-latency communication (URLLC); iteratively optimizing IoT device scheduling and UAV deployment to derive an energy-efficient communication strategy; and allocating network resources accordingly. The system leverages UAV-assisted ground base stations to enhance communication reliability, reduce latency, and extend IoT device battery life, addressing key challenges in large-scale IoT deployments.

[0030] In patent No. US11473913B2, under the title of "System and method for service-oriented cloud-based management of Internet of drones," which was registered on 2020-02-13, a system has been disclosed for managing unmanned aerial vehicles (UAVs) using an Internet protocol-based cloud service. The method includes storing multiple pre-planned UAV missions, such as surveillance, disaster recovery, delivery, and premises security; mapping UAVs to virtual UAVs in a cloud environment; assigning missions with multiple waypoints and dynamically planning UAV paths for efficient task execution; and controlling UAV operations through virtual UAVs that receive and transmit mission commands, control signals, and data feedback. The cloud-based service processes received UAV data, including video streams, and applies deep learning algorithms for advanced image analysis, enabling enhanced automation and mission efficiency in UAV operations.In patent No. US9764363B2, under the title of "Spraying washing device of drum washing machine and washing method and the drum washing machine", which was registered on 2012-06-18,

[0031] In patent No. US10445722B2, under the title of "Systems and methods for enabling secure transactions with mobile devices," which was registered on 2012-07-09, a system has been disclosed for facilitating electronic ticketing and secure transactions using mobile devices. The method includes receiving an encrypted Near Field Communication (NFC) data exchange format (NDEF) message containing an NDEF record; decrypting the message to extract the NDEF payload; generating an NFC-emulated card from the payload; storing the emulated card in memory for use as an electronic ticket or transaction medium; and transmitting an encrypted outgoing NDEF message via an NFC standard or an alternative over-the-air communication protocol, such as SMS or MMS, when an NFC interface is unavailable. Additionally, the system supports authorization at airline terminals, automatic deletion of the emulated card after one-time use, and integration with a subscriber identity module (SIM) for enhanced security.

[0032] In patent No. EP1863301B1, under the title of "Method and apparatus for encrypting a security key in a mobile communication terminal," which was registered on 2007-05-23, a system has been disclosed for securely storing a security key in a mobile communication terminal. The method involves generating a security key randomly; encrypting the key using a predetermined encryption scheme, specifically Walsh code spreading; and storing the encrypted key in the mobile device’s memory. The security key is a control key designed to disable SIM card personalization, ensuring enhanced protection against unauthorized access. Even if extracted through hacking or memory dumping, the encryption prevents accurate key retrieval. Additionally, the system enables secure SIM personalization control by verifying the decrypted security key against stored control data, allowing or restricting device unlocking accordingly.

[0033] In patent No. US20060291660A1, under the title of "SIM UICC based broadcast protection," which was registered on 2005-12-21, a method has been introduced for securing multicast and broadcast transmissions, such as mobile TV and multimedia, through a SIM-based encryption framework. The method involves encrypting broadcast / multicast content using a broadcast key (KB) at the service provider level; distributing the encrypted key alongside session identification and nonce values to the mobile operator; further encrypting the broadcast key using a shared key (KE) before transmission to mobile devices; and utilizing the mobile device’s SIM card to decrypt the received key and recover the broadcast content securely. The system leverages existing GSM and UMTS authentication mechanisms, ensuring that only authorized mobile devices can decrypt and access protected broadcast services, enhancing security in wireless content distribution.

[0034] In patent No. US8572389B2, under the title of "System and method for protecting master encryption keys,"which was registered on2005-12-22, a method has been introduced to enhance the security of master transport encryption keys used for securing data communications between computing devices. The method includes generating a copy of a decrypted grand master encryption key; encrypting individual master transport encryption keys using the grand master key; storing the encrypted keys in a non-volatile memory of a computing device; and retaining the decrypted grand master key in volatile memory for real-time decryption, even when the device is locked. This approach ensures that encrypted data can still be accessed securely while maintaining confidentiality and preventing unauthorized use, particularly in scenarios where content protection modes are enabled.

[0035] In patent No. US20220046413A1, under the title of "Mobile Originated Secure Message Transmission between a Subscriber Identity Module Application and a Cloud Server," which was registered on 2021-07-31, a method has been introduced for secure message transmission between a subscriber identity module (SIM) application and a cloud server. The method involves generating a keyset comprising keyset number, ciphering algorithm, encryption key, cryptographic checksum algorithm, and counter values; transmitting the keyset to a SIM application via SMS or another data channel; securely storing the keyset on the SIM module; encrypting mobile-originated messages using the keyset before transmission to the cloud server; and incrementing counter values with each sent message to enhance security. The cloud server uses the keyset to validate and process encrypted messages, ensuring secure communication between mobile devices and cloud infrastructure.

[0036] In patent No. US20220038143A1, under the title of "Wireless Communication Device," which was registered on 2021-10-21, a system has been introduced for efficient uplink multiplexing transmission in wireless communication networks. The method enhances frame transmission reliability by dynamically determining retransmission needs and optimizing data flow between wireless communication devices and an access point. The system includes a receiver configured to receive trigger frames specifying devices authorized for uplink transmission, a transmitter that sends multiplexed frames in response, and a feedback mechanism for error detection and retransmission control. The access point sends a second frame containing check results and a new trigger frame, allowing devices to retransmit failed frames or send new data based on received feedback. This approach optimizes spectral efficiency, reduces unnecessary retransmissions, and enhances wireless network performance, particularly in high-density communication environments.

[0037] In patent No. US20070011466A1, under the title of "Mobile terminal device, personal identification number verification program, and method of verifying personal identification number," which was registered on 2006-06-21, a system has been disclosed for enhancing security in mobile terminal devices using biometric-based encryption for personal identification number (PIN) verification. The method involves detecting biometric information to generate an encryption key; encrypting a registered PIN using the biometric-derived encryption key; storing the encrypted biometric PIN in the mobile device; generating a decryption key from newly detected biometric information during verification; decrypting the stored biometric PIN with the decryption key to recover the original PIN; and comparing the recovered PIN with the stored encrypted PIN to complete authentication. This approach ensures enhanced security by linking PIN verification to unique biometric data, preventing unauthorized access even if the encrypted PIN is compromised.

[0038] In patent No. WO2021015598A1, under the title of "Communication based on plurality of SIMs," which was registered on 2020-07-27, a method has been introduced to enable wireless communication devices to operate efficiently using multiple Subscriber Identity Modules (SIMs). The method involves transmitting a request message to a first network node of a second network, including information related to the plurality of SIMs; receiving an acceptance message from the network node; and managing communication or paging monitoring in a first network while maintaining connectivity in the second network. Additionally, when downlink data is available for the device in the second network, the first information related to the multiple SIMs is used to transmit a notification message through the first network, ensuring seamless data transmission across networks.

[0039] In patent No. US8606171B2, under the title of "Methods of suppressing GSM wireless device threats in dynamic or wide area static environments using minimal power consumption and collateral interference," which was registered on 2012-03-19, a method has been introduced to detect and mitigate wireless threats in operational areas by preventing hostile devices from receiving activation signals. The method includes detecting uplink signaling from wireless devices operating on specific frequency channels; generating an attack signal to disrupt downlink channels upon which the threat device is receiving; and applying one or more mitigation techniques, including bandwidth limitation to match target channels, adjusting transmission power to match detected downlink levels, or time-multiplexing interference to minimize power consumption.

[0040] In patent No. US10327185B2, under the title of "IuGW architecture with RTP localization," which was registered on 2017-09-22, a method has been introduced for optimizing voice call routing by localizing Real-Time Protocol (RTP) traffic to reduce core network load. The method includes receiving an originating leg setup message for a call initiated by a first user equipment (UE); generating and storing a first call correlation identifier; extracting a second call correlation identifier from a terminating leg setup message for the second UE; determining RTP localization status by matching call identifiers; and sending transport layer assignment messages to redirect RTP packets directly between the UEs through the terminating leg bearer, bypassing the core network. This approach enhances call efficiency, reduces latency, and minimizes network congestion by optimizing RTP packet routing.

[0041] In patent No. US10271214B1, under the title of "Systems and methods for detecting and controlling transmission devices," which was registered on 2016-03-21, a method has been introduced for detecting, managing, and controlling the transmission of devices within a facility. The method includes forming a local network within a defined coverage area; detecting transmission signals from devices using at least one transmission detection facility; extracting identification information from the detected transmissions; determining the location of the transmission device and assessing whether it is permitted to transmit within the set area; analyzing network usage to identify available channels; and, if the device is not allowed, directing it to an unused channel or denying network access. Additionally, the system provides a display of relevant transmission device information, enabling enhanced security and controlled network management.

[0042] In patent No. US10743176B1, under the title of "Secure onboarding of a device having an embedded universal integrated circuit card without a preloaded provisioning profile,"which was registered on2019-04-05, a method has been introduced for securely onboarding a device with an embedded Universal Integrated Circuit Card (eUICC) without requiring a preloaded provisioning profile. The method includes receiving a first onboarding identifier from a certificate authority, which is linked to a private key stored on the user equipment (UE); transmitting an attach request to a wireless network using the first onboarding identifier; receiving an encrypted signaling message containing a second onboarding identifier; decrypting the message using the private key stored on the UE; obtaining a permanent identifier from a Remote SIM Provisioning (RSP) platform based on an authentication procedure; and establishing a secure connection to the wireless network using the acquired permanent identifier. This approach enhances security in device onboarding by utilizing cryptographic authentication and remote provisioning.

[0043] In patent No. US12132609B2, under the title of "Blockchains for securing IoT devices,"which was registered on2022-03-23,a system has been introduced for enhancing security and reliability in Internet of Things (IoT) networks using blockchain technology. The method involves implementing a trusted execution environment that maintains a blockchain-based chain history, root-of-trust mechanisms, and distributed ledger systems for secure device onboarding and communication. The system detects failures in IoT devices by monitoring attested watchdog messages stored on the blockchain and triggers a failover mechanism by activating a replacement device when a failure threshold is met. Additionally, the system facilitates device recovery by deploying repair drones or robot drones to replace malfunctioning devices. The blockchain maintains watchdog message blocks, peer device blocks, and identity blocks to ensure secure authentication, failure tracking, and automated response mechanisms within IoT environments.

[0044] In patent No. US9853712B2, under the title of "Broadband access system via drone / UAV platforms," which was registered on 2014-03-24, a system has been introduced for providing broadband internet access to homes and enterprises using a network of drones or unmanned aerial vehicles (UAVs). The system includes a drone communication system composed of an antenna subsystem, a radio subsystem, and a data switching subsystem. Drones form and direct beams toward ground terminals using a space division multiple access scheme, while ground terminals, equipped with an antenna and radio subsystem, search for and connect to the strongest drone signal. The drone radio subsystem continuously tracks the drone’s position and orientation, dynamically adjusting antenna beams to maintain connectivity. Furthermore, the system claimed to enable adaptive switching between antenna apertures and fixtures based on positional changes, utilizing a combination of space and time division multiple access techniques to optimize communication efficiency.

[0045] In patent No. US20220169401A1, under the title of "Smart city smart drone UASS / UAV / VTOL smart mailbox landing pad," which was registered on 2020-05-04, a system has been introduced for integrating smart drone mailbox landing pads and charging stations into a drone unmanned system service network. The system includes a processing node with a processor, memory, storage device, and network connectivity; a designated drone landing pad; an induced charging pad for recharging drone batteries; external webcams for monitoring; weather condition measuring equipment; and a package receiving container for securely accepting delivered packages. The system operates within a communications network that connects autonomous drones and drone service function devices while utilizing blockchain-based logging, mining, and recording mechanisms to ensure secure and efficient package delivery.

[0046] In patent No. US9619632B2, under the title of "System for providing session-based network privacy, private, persistent storage, and discretionary access control for sharing private data," which was registered on 2015-07-24, a system has been introduced to enable secure and private communication over a network while ensuring persistent private storage and discretionary access control. The method includes anonymous network browsing without revealing a user’s identity or activities; securely storing and retrieving private data, such as passwords and files, without the system knowing the content or ownership; and allowing users to manage and control access to their stored data while maintaining confidentiality. The system employs encryption techniques, including generating encryption and decryption keys, assigning unique data object identifiers, utilizing public-private key pairs for authentication, and securing message exchanges using hashed coded user identifiers and challenge-response mechanisms.

[0047] In patent No. EP3603142B1, under the title of "Virtual SIM with multiple mobile network operator profiles for operating over multiple wireless IP networks," which was registered on 2018-02-26, a method has been introduced to enable an Internet of Things (IoT) communication device to operate across multiple wireless telephone and internet protocol (IP) networks using a virtual Subscriber Identity Module (SIM). The method includes storing multiple Mobile Network Operator (MNO) profiles in the virtual SIM, each containing unique identifiers for telephone and IP networks; dynamically switching between MNO profiles to optimize connectivity; blocking provisioning requests that attempt to switch only one network type to ensure simultaneous switching of both telephone and IP networks; and enabling remote management of MNO switching via a remote server based on network performance assessments. Additionally, the system supports secure storage of virtual SIM data by segregating private and public information, facilitates switching between virtual and physical SIM cards, and incorporates a test SIM profile for validation purposes.

[0048] In patent No. US10631160B2, under the title of "Apparatuses, methods and systems for virtualizing a reprogrammable universal integrated circuit chip," which was registered on 2016-10-03, a system has been introduced for virtualizing a reprogrammable Universal Integrated Circuit Chip (UICC) within a connected device’s operating system. The method involves configuring an integrated cellular modem in the device to communicate with a virtual eUICC using a simplified protocol, enabling seamless reprogramming and management of network credentials. The system facilitates secure command transmission between a baseband processor and an application processor, allowing mobile applications to interact with the virtual eUICC without direct physical or electrical connection to the baseband processor.

[0049] In patent No. US10091715B2, under the title of "Systems and methods for protocol-based identification of rogue base stations," which was registered on 2016-12-05, a system has been introduced for detecting rogue base stations in cellular networks by analyzing signaling message anomalies. The method involves passively monitoring communications exchanged between base stations and communication terminals; detecting duplicate signaling messages that should only appear once according to the communication protocol; intercepting messages sent from a terminal to a rogue base station and relayed to an innocent base station; and triggering an alert upon identifying duplicated registration requests, call setup attempts, or SMS transactions. The system operates across multiple network standards, including GSM, UMTS, and LTE, enhancing security by identifying unauthorized base stations attempting to intercept or manipulate network traffic.

[0050] In patent No. US10470085B2, under the title of "Sharing of network resources within a managed network," which was registered on 2018-01-12, a system has been introduced for enabling the controlled sharing of network resources between mobile devices within a managed network. The method involves receiving network operator-approved credentials associated with a first mobile device, which grants access to pre-assigned network resources; replicating these credentials to facilitate controlled sharing; receiving a request from a second mobile device for access to the first device's network resources; allocating network resources based on user-defined thresholds for different data types and time periods; monitoring resource consumption; and restricting or adjusting access based on predefined limits. Notifications are sent when resource usage exceeds set thresholds, ensuring controlled and efficient sharing of network resources between devices while maintaining security and network integrity.

[0051] In patent No. US10470085B2, under the title of "Sharing of network resources within a managed network," which was registered on 2018-01-12, a system has been introduced for enabling the controlled sharing of network resources between mobile devices within a managed network. The method involves receiving network operator-approved credentials associated with a first mobile device, which grants access to pre-assigned network resources; replicating these credentials to facilitate controlled sharing; receiving a request from a second mobile device for access to the first device's network resources; allocating network resources based on user-defined thresholds for different data types and time periods; monitoring resource consumption; and restricting or adjusting access based on predefined limits. Notifications are sent when resource usage exceeds set thresholds, ensuring controlled and efficient sharing of network resources between devices while maintaining security and network integrity.

[0052] In patent No. US10474829B2, under the title of "Virtual service provider zones," which was registered on 2017-09-21, a system has been introduced for securing data storage across multiple locations using encryption and administrative controls. The method involves receiving a request to store data via a service proxy acting as an application programming interface (API) proxy; encrypting the data before storage; managing encryption keys through a cryptographic service to ensure data remains undecryptable at unauthorized locations; and generating encrypted data objects that are stored in geographically distributed storage devices. The encryption process incorporates jurisdictional or administrative controls, ensuring compliance with varying legal and regulatory requirements while maintaining data security and access control.

[0053] In patent No. US9419951B1, under the title of "System and method for secure three-party communications," which was registered on 2014-12-01, a system has been introduced for facilitating secure communication between two parties through an intermediary without exposing sensitive data. The method involves an intermediary receiving a request containing an identifier of the desired information and transaction details; transmitting the first party’s identifier to the second party; and negotiating a comprehension function to obscure portions of the exchanged information. The system ensures security by using asymmetric encryption, direct key exchange, or composite encryption techniques, preventing unauthorized decryption by either the intermediary or the second party. The process enables encrypted message transformation between encryption formats without requiring plaintext decryption, ensuring confidentiality and integrity during data transmission.

[0054] In patent No. WO2002017660A2, under the title of "Transportable Self-Contained Cell Site (Base Station) Comprising Transmission Equipment and Antennas," which was registered on 2001-08-24, a mobile, self-contained cellular system is introduced to provide wireless communication in remote or temporary locations. The system consists of a transportable vehicle equipped with a radio frequency unit, modem, signal processing unit, multiplexer / demultiplexer, control unit, database, and microwave radio transmitter. It features extendable masts that support radio frequency and microwave antennas, a power generator, an air conditioning system, and backup batteries, ensuring full operational autonomy. The apparatus transceives signals between mobile devices and a communications network, supporting multiple frequency bands (e.g., 806-960 MHz, 1710-1855 MHz, 2500-2690 MHz, and 2.4-2.5 GHz). This invention allegedly enhanced network coverage, disaster recovery communication, and temporary wireless service deployment by offering a fully mobile, rapidly deployable base station for emergency response, military applications, or events in remote areas.

[0055] In patent No. EP3123629B1, under the title of "Global Communication Network," which was registered on 2015-01-22, a satellite-based communication system is introduced to enable seamless global connectivity. The system consists of a source ground station, a constellation of orbiting communication devices, multiple linking gateways, and a destination ground station. Communication is relayed from the source station to an orbiting satellite, then transmitted through a series of satellites grouped in distinct orbital trajectories, with a linking gateway facilitating data transfer between different satellite groups before reaching the destination ground station. A data processing unit dynamically determines the optimal communication path based on factors such as distance, inter-satellite link capacity, operational status, and signal strength. This system enhances real-time, high-speed, and resilient global communication, making it suitable for broadband internet access, military operations, emergency response, and IoT networking across remote or underdeveloped regions.

[0056] In patent No. US20240136710A1, under the title of "Wireless Communication System," which was registered on 2023-11-21, a next-generation wireless communication system is introduced, integrating AI-driven edge processing, beam-steerable antennas, and quantum computing capabilities to enhance connectivity and computational efficiency. The system consists of a transceiver for communication with a target, electrically or mechanically steerable antennas, and an AI processing module that enables low-latency edge computing. The AI module dynamically adjusts communication parameters based on signal strength (RSSI, TSSI) and computational load, selecting between quantum processors, GPUs, neuromorphic chips, or classical processors for optimal performance. A beam sweeping module governs antenna positioning according to traffic data, service-level agreements, and historical beam patterns. The system supports 5G and 6G communication and can be enclosed in a portable housing or container, making it suitable for autonomous networking, high-speed mobile communication, and AI-driven signal optimization in urban and remote environments.

[0057] In patent No. US8116763B1, under the title of "Airborne Basestation," which was registered on 2009-09-02, a lighter-than-air vehicle-based wireless communications system is introduced to provide broadband relay communication services across a geographic area. The system consists of an airborne basestation equipped with a high-directivity electronically-steerable antenna, a radio unit, and a switching device for data routing. The airborne unit is stabilized using attitude and position determining mechanisms, ensuring precise targeting of communication signals to mobile users. The basestation connects to user equipment units in the coverage area, allowing low-data-rate communication via omnidirectional antennas and high-data-rate communication via directive antennas. Additionally, a gateway may be included to facilitate wide-area network access. The system optimizes spectrum utilization by dynamically assigning transmit and receive data channels, making it an efficient solution for providing wireless connectivity in remote or underserved areas.

[0058] In patent No. US10348394B1, under the title of "System Architecture and Method for Enhancing Wireless Networks with Mini-Satellites, Pseudollites, and Adaptive Antenna Processing," which was registered on 2015-12-14, a hybrid wireless communication network is introduced that integrates aerial and ground-based transceivers to improve connectivity and adaptability. The network consists of radio frequency (RF) transceivers, including central nodes and end nodes, which form wireless links. Some transceivers feature adaptive antenna arrays for enhanced signal processing. A key innovation in this system is the deployment of aerial communication nodes, which may be mini-satellites, balloons, or drones, to provide extended coverage. These aerial nodes operate in coordination with ground-based transceivers and can adjust their altitude to optimize coverage. Additionally, the network includes backhaul nodes, potentially linked to fiber connections or orbiting satellites, ensuring seamless data relay and high-efficiency communication infrastructure for diverse applications.

[0059] In patent No. US10627576B2, under the title of "Free-Space Optical Communication Dual-Fiber Ferrule," which was registered on 2018-01-03, an optical communication terminal is introduced that supports full-duplex free-space optical (FSO) communication using a dual-wavelength transmission system. The system operates in two complementary modes, where a terminal transmits light of one wavelength while receiving light of a second wavelength along the same free-space optical path. The terminal includes a steering mirror that directs optical signals to and from a dichroic element, enabling wavelength-dependent optical routing. It also features spatially separated emitters and detectors for each wavelength, ensuring efficient bidirectional communication. Additionally, the system employs dual-core fiber ferrules, where each ferrule is linked to a specific emitter / detector pair. These ferrules facilitate simultaneous optical communication with multiple remote terminals, improving signal integrity, adaptability, and performance in free-space optical networks.

[0060] This invention presents a novel airborne telecommunications system utilizing gas-lift balloons to provide universal internet access and enable the interception and decryption of encrypted communications for national and social security purposes. The system consists of a suspended antenna platform stabilized by lightweight carbon fiber structures and secured by cables to a ground-based control center. The use of hydrogen-filled balloons ensures energy-efficient, cost-effective deployment compared to traditional towers or drones. The core of the invention includes various antennas, such as parabolic and Starlink dishes, dynamically adjusting to optimize signal reception from both terrestrial and satellite sources.

[0061] The system also integrates specialized receivers capable of processing electromagnetic waves across different frequency bands, including infrared and ultraviolet spectrums. A high-frequency amplifier-dissipator and an AI-enhanced data processing center on the ground filter, analyze, and decrypt potentially harmful encrypted transmissions while ensuring secure communication channels. The balloons, acting as stable, elevated platforms, improve signal reception by maintaining an optimal height, reducing interference, and extending coverage across larger geographic areas.

[0062] To enhance efficiency, the invention incorporates motorized rotating plates for fine-tuning antenna positions, a power-efficient motor system, and advanced networking modules, including GSM and Wi-Fi components. The carbon fiber construction ensures durability while minimizing weight. Built-in lighting provides visibility, emergency signaling, and potential geolocation applications. By leveraging gas-lift balloon technology, this invention presents a scalable, flexible, and effective solution for secure global internet access, improving communication intelligence while maintaining cost-efficiency and long-term operational sustainability.

[0063] Free access to the Internet and Internet information is a general right for all people of the world. Moreover, the desire to decode, decrypt, analyze, and legally access encrypted information on the Internet and penetrate the layered levels of encrypted information that can be exchanged through the Internet, has always existed as a pivotal need in the community to quell their anxiety and ensure their safety against the fishing or scamming attempts.

[0064] To provide and improve the levels of national security and social security, it has increased among individuals, users, and security institutions based in different countries and in the international arena. In this invention, to design and implement an efficient device and system, containing a set of antennas for telecommunication information exchange, with the ability to be suspended in the air and with the aim of globalization and creating universal access to digital information, which is transmitted through electromagnetic waves and on the basis of the global Internet system.

[0065] Also, with the aim of enabling the process of interception and decryption of a wide range of digitally encrypted information, especially malicious data, and information provided and made available to the public by a group of users or hostile organizations under false pretenses, e.g. hackers, institutions and spying organizations that threaten and disrupt national and social security.

[0066] As mentioned, in this invention, the design and implementation of an efficient device and system, containing a set of antennas for the exchange of telecommunication information, with the ability to be suspended in the air and with the aim of globalization and creating universal access to telecommunication information and internet data, have been addressed, with the aim of enabling the process of intercepting and decrypting dangerous encrypted information made available to the public by users, institutions, and organizations that threaten and disrupt national and social security.

[0067] In fact, to enable the process of intercepting and decrypting telecommunication information, which is carried and disseminated by a wide spectrum of wavelength and frequency of electromagnetic waves, there is a need for an intermediatory device and system, playing the two roles of amplifying communication signals and electromagnetic waves carrying decrypted information and being able to be positioned and embedded in different geographical and coordinate positions. In this invention, a series of different embodiments of this device and intermediate system have been implemented.

[0068] In fact, a set of antennas, with different designs and technical characteristics, in different coordinates, geographic angles, and directions will be needed to search for the various telecommunication frequencies available in the space and to receive any communication signal that may be beneficial or non-beneficial.

[0069] On the other hand, placing the antennas at a suitable height causes better reception of waves. Therefore, it is necessary to place the antennas at the right height and direction in an appropriate, fast, and cost-effective way. One method is the utilization of high masts, which is not justified in this application due to the long time required for construction and also the very high costs.

[0070] Another way to receive at a suitable height is to use different drones and search in different geographical directions and coordinates. In this method, one or more drones with energy consumption - which may be electric or fuel - will remain suspended at one or more altitudes for some time and will keep the desired antenna in the direction of receiving waves. Although this method is fast, it is very expensive and requires continuous care. The manpower required to monitor and change the direction easily with the wind is another disadvantage of this method.

[0071] To solve the mentioned problems by using the suspension system by gas with a density lower than air, in this claimed invention, an optimal method is considered. By using Archimedes' law, the amount of lifting force is based on the volume of gas in the balloons and the difference in its mass in the surrounding air, a set of suspended antenna holders (1) has been designed. In normal balloons, the dominant force to overcome the gravity of the earth is created from the process of heating the air inside the balloon, which is constantly cooled in contact with the outside air and needs to spend energy to reheat, but in this device, the use of hydrogen and its density difference has brought the suspension without the need to spend energy.

[0072] Also, in order to prevent displacement and increase in height and relative maintenance of the direction of the suspended support (1), three support cables (3) are connected to the control center (2) on the ground. Cables (3) are connected to the suspended support part of the antennas (1) through clamps (4), in which there are a set of holes (5) to connect the cable clamps (4) on the body of the suspended support, in order to enable detachable connections.

[0073] To lighten the cables, carbon fiber fibers are used, which have very little weight due to acceptable tensile strength. Also, the side of each cable can be used for the passage of data or electricity or lubricant to lubricate parts in friction. In the place where the cables (3) are connected to the control center (2), the legs (6) ensure a safe connection.

[0074] The claimed suspension mount assembly for the antennas (1) is made, for the most part, of carbon fiber material to provide sufficient durability while possessing an enhanced amount of optimal volume and weight density parameters. This endurance includes sufficient resistance to wind and the ability to withstand pressure from balloons and cables.

[0075] The main body of the suspended antenna holder consists of a frame (14) which is made of lightweight carbon fiber composite with mesh design. As mentioned earlier, the height of this section is significantly higher than the ground level and it may be tens of meters away from the ground, which will cause the possibility of flying objects such as helicopters and large-scale drones.

[0076] To solve this problem during the day, dynamic colors such as orange, yellow, or red have been used in the environment (15), which can also transmit light at night. For the time of darkness, the peripheral part (15) has the capability of transmitting and spreading light beams with various colors.

[0077] In this part, the light may be always on or flashing to send a collision warning to the flying objects. It can also be used as a source of identification and guidance in the dark; In other words, by sending specific pulses of electromagnetic waves of the type of light waves, in conventional colors like passenger planes, in addition to confirming the geographical coordinates, it will send a request for help at the location in case of emergency, and through software such as Google Earth, visual messages can be seen in distant places.

[0078] In this case, it is possible to view the images by a human operator and to process the image at the points under observation with the help of the processor and at higher levels with the help of artificial intelligence. The embedded upper door (6) is also made of carbon fiber, which includes the fixed parts of the claimed upper door (7) in the form of concentric circles and connected to each other.

[0079] Between these circles, there are empty spaces where the upper plates (8 and 17) are placed between them and have the ability to move. The top cover is connected to the device frame (14) with a set of screws (13). This separability is widely used in maintenance and it contains consumable parts such as electric motors and electronic modules.

[0080] Claimed rotating plates (8) and (17), include types of antennas with the ability to change the horizontal and vertical angle independently in each plate. The middle circular plate with medium dimensions (8) with counterclockwise movement restriction and the circular inner plate with small medium dimensions (17) with clockwise restriction is considered, to create and establish a complete coverage. Despite the use of an electric motor, which is used for the sake of stylization as much as possible, these two screens have the possibility of being passed in one direction asynchronously.

[0081] On each screen, there are two types of antennas have been embedded, parabolic antennas (12) and the Starlink dishes (18), each of which possesses the ability to receive waves by placing them in the right direction. Placing the antennas in different directions relative to each other will give the receiver a higher chance of receiving.

[0082] Furthermore, in an embodiment of this claimed invention, the process of finding a suitable geographic direction and coordinates to receive electromagnetic waves from one side or two sides, followed by selecting the optimal mode of other rotating plates (8) or (17) is performed, which can travel and search in search of other directions to receive radio signals.

[0083] In the center of the top door, a receiver - or sometimes a laser receiver / transmitter (9) with compound lenses is responsible for receiving light beams and waves, in the frequency range of infrared, visible, and ultraviolet spectrum, that carry information. The search limitation of this piece, due to its stability, is compensated by using a compound lens. The function of this piece can be considered like the compound eye of some insects, which allows covering a wide area of ​​space without moving.

[0084] In the lower part of the designed embodiment, the lower lid (19) is installed, which is connected to the frame part (14) of the claimed suspended and hovered holders by various resin compounds, preferably silicone and epoxy resins, to integrate the assembly. For the purpose of having access to this claimed section, it will be possible to separate the connections using suitable solvents, such as butyl alcohol, carbitol, Dicone NC9, 2-methyl-2,4-pentanediol, cyclohexanone, toluene, cyclohexanol, methyl ethyl ketone, and methyl iso-butyl ketone, from the preferred solvent type Dicone NC9 for silicone resins and two preferred solvents methyl ethyl ketone and methyl iso-butyl ketone.

[0085] In the lower area of this section, other types of antennas are being installed. In this embodiment of the claimed invention, a set of branch antennas (10) and whip antennas (11) will be placed in the lower area of ​​the frame and adjacent to the lower door (19), and the reason for this condition is the reception of electromagnetic waves in this range from the surface of the earth, which is contrary to the antennas placed on top of the frame, which receive electromagnetic waves from satellites.

[0086] In the central area of the lower door (19), an LED light (16) is placed, which can illuminate an area at night if needed. This set of LED lights has the possibility of producing light waves in the visible spectrum without color or with a specific color, and their lighting performance is considered in this visualization of the implemented frame and system. which has the possibility of producing an invisible spectrum, such as ultraviolet or infrared, which in this case can be used to disinfect or reduce the microbial load or create concentrated heat.

[0087] Considering that in VHF and UHF frequency waves, the exact direction of the antenna is less important than the frequencies above one GHz, which are received by the dish, the process of adjusting the direction of the lower antennas embedded on the ground will be conducted regarding the estimated approximate direction. This mentioned feature is completely ruled out for whip antennas and the technical effect of the direction of its placement is negligible and situating in a manner of being perpendicular to the ground would be sufficient.

[0088] By dismantling the suspended holder of the antennas designed in this considered embodiment (1), in addition to the previous parts, a set of balloons (20) will also be visible and the parts can be seen with more separation. The carbon fiber frame (14) incorporates an extended surface within these suspended holders to hold the balloons. The holding surface of the balloons (21) contains a set of empty spaces for the lower half of the balloons (22), which are seen as spherical.

[0089] The diameter of these hollow circles is slightly smaller than the final diameter of each balloon so the claimed balloon (20) filled with hydrogen, by being placed under it, will bring an upward force to this surface (21) and, as a result, apply a force to all the structures designed for the suspended supports mentioned (1). On the level of holding the indicated balloons (21), a set of lateral empty spaces (23) can also be seen, which consists of 4 quadrants of the circle.

[0090] The purpose of creating these hollow parts is simply to reduce the weight of the surface and consequently the structure. As can be seen, a round environment is essential to exist on the lower and upper levels so that the antennas can alter the direction easily by placing these claimed antennas on the referred round environment. In the main cross-section, the hexagonal shape must be changed to a round one, that's why the upper throat (25) and the lower throat (26) are designed with low thickness so that the desired shape can be changed without increasing the weight.

[0091] In the lower area of ​​the frame (14), the lower door (19) is placed. The bottom cover (19) is responsible for protecting the bottom surface of the balloons (20) and keeping the light (16) in addition to keeping the whip antennas (11) and branch antennas (10). This piece, like other parts, is made of carbon fiber and transparent epoxy or silicone resin. On the tangent surface (27) with the frame (14), the thickness is slightly reduced until after the connection by the resin, the thickness will increase and, as a result, a minimal and controlled weight increase will be experienced.

[0092] Moreover, in this embodiment of the claimed invention, between the designed smooth surfaces (29), the process of changing the surface (28) takes place with a transparent material made of epoxy resin, which facilitates the molding process and provides the ability to view the internal parts of the desired device and part. The designed flat surfaces (29) are reinforced by carbon fibers to have sufficient endurance.

[0093] In the design of this section, the connection point of the cables (32) is removed from the overall structure and is seen as hollow so that the connection of the cables (3) to the body (1) does not face any problem. The recesses (30) for branch antennas and the holes (31) for whip antennas are placed on flat surfaces (29) to facilitate the installation of the antennas as easily as possible and prevent them from changing direction when the wind blows with their special shape. It can be seen carefully in this section that the recess of the appendage in the circular section of the hole (31) is designed for this purpose.

[0094] In the set of balloons (20), several balloons (33) with an improved design for storing gas with a lower density than air are considered. These balloons have a flexible and elastic body (34) whose surface can be significantly increased and has good resistance. In the section of the outer surface that is in contact with the body of the frame (14), the body (34) has been strengthened by increasing the thickness and the rubber rim has created the contact (35).

[0095] This part is due to the possibility of wear and friction in movements caused by the wind, and its reinforcement has minimized the risk of perforation due to wear. Other parts of the designed surface (34) have a lower risk of injury. In the lowest area of these balloons, at least one inlet valve (36) is placed, which provides the possibility of safe storage of low-density gas. The design of this valve is done by using common parts and in most parts, it is made of metal.

[0096] The main body of the built-in valves (37), in the upper part, includes a set of threads (38) that allows its connection to the desired balloon and makes the valve detachable or replaceable. The replacement process may take place due to the failure of the installed valve (36) or the end of the useful life of the used balloons (33), in the second case, the valve will be installed on the new balloon and the cost of replacing the balloon will be reduced.

[0097] In the middle of the claimed valve body (37), a movable feeder (39) is placed, which is equipped with a spring part (40), which is kept in continuous contact with the body (37) by means of this set of applied nuts, and this spring (40) puts its elastic force on the thorn-like part and excess (41). When the pressure exerted on the claimed inlet valve (36) from the outside environment is greater than the air pressure inside the balloon, the pressure causes the spring (49) to be compressed and the valve feeder (39) moves inward, and the way to enter the gas into the balloon will be opened.

[0098] The next part of the implementation of this invention is the upper door of the frame (6), which is also made of carbon fiber with maximum lightness and sufficient endurance. As mentioned earlier, this section is designed with a reversible and detachable connection, for easy access and to facilitate the process of periodic servicing, with 10 screws (13) in the circumference of the circle responsible for this task. Due to the empty parts of the surface of this door (6), the passage spaces of the upper plates (44), in line with the radius of the circle of surfaces perpendicular to the surface, play a role in the state of a set of vertical bases (42).

[0099] These plates and vertical surfaces used (42) increase the endurance of the upper door, created with the least weight and perpendicular to the plate and against bending and twisting. Also, in the bottom view, the location of the engine and gearbox assembly (43) has been optimized, and it can be seen that this section has also been strengthened by a set of blades (51) in terms of endurance and has created a set of strong connections.

[0100] The location of the engine (43) must have sufficient resistance against its unwanted rotation, and for this reason, this part is made of thin sheets of metal or carbon fiber, that due to the integrity of the body and the ease of molding, carbon fiber is considered as the preferred material in this embodiment of the claimed invention.

[0101] In the middle area and between the outer end of the surface in relation to the center of the surface, the space for placing the upper feeding module (46) is considered, which will improve and improve the equilibrium situation and bring the center of gravity closer to the center of the surface.

[0102] In order to transmit and receive telecommunication data and encrypted information carried by electromagnetic waves emitted in space, it would be necessary to create and establish a communication path from the set of alleged mobile antennas, which are embedded on the outer surface of the upper door (6), to the set of electric transmission cables (3) and the ground center (2).

[0103] One way to create a claimed communication path is to use a flat spiral. Although this method is safer than other methods, the limitation of movement caused by using it in the device encourages the use of two separate motors, which increases the weight and causes more depreciation, which has more disadvantages than advantages.

[0104] Another method that can be used is to use a set of rings and conductive coals, which have very little depreciation and will not limit the circulation of plates. Also, it is worth noting that the transmitter (45) consists of at least one insulating body (47) and at least one end plate (48), that in the middle of the claimed end plate (48), there will be a hole (49), to allow the wires connected to the coal (50) to pass through.

[0105] To keep the charcoal (50) in contact with the conductive surface of the ring, a distance compensator (53) has been used. This part (53) is a flexible hollow cylinder in which the compressible fluid is compressed. Using this compensator in places where the temperature increases slightly and does not damage the flexible rubber structure, brings the advantage of increasing the life span and maintaining better contact.

[0106] It is worth noting that this technology has been used in the suspension system of cars to maintain more tire contact with the ground. In parts of the vertical plates (42), a set of special cuts and holes (52) are embedded, which is actually the path of the tangential part of the electric motor used with the rotating plates (8).

[0107] These cuts (52) have helped to reduce the friction of the rotating plates (8) so that these claimed concentric rotating plates have the least friction with the surface of the alleged upper door (6) during the safe process of mechanical connection with the electric motor assembly. A set of applied upper plates (8, 17, and 54) are assembled on the surface of the upper door (6).

[0108] Except for the internal screen (54), which has the smallest dimensions and is embedded in the center of the upper door, and does not need to rotate and adjust the direction, to establish communication with the satellite, two of the other sets of embedded upper plates (8 and 17) must have the capability to rotate finding the desired horizontal direction. The process of accepting the circulation process is done by the electric motor and gearbox (57), and in the two upper plates (8) and (17), in addition to the flat designed surface (55) for the installation of antennas, a set of protruding edges (56) will also be required.

[0109] The claimed raised edges (56) pass through the slots (52), which have been demonstrated on the figures. On the flat surface of these plates (55), the mounting holes for the base and the cable passage (58) of the parabolic antennas and the holes and holes for the Starlink satellites antennas (59) have been created to ensure the process of maintaining the direction.

[0110] The next challenge in the considered embodiment of the claimed invention is the design of an electromotor (57) that can rotate two plates separately with the least amount of weight and have sufficient accuracy in measuring the amount of rotation. One way to implement the electromotoric assembly is to use two electromotors separately for each of the upper plates claimed (8) or (17).

[0111] This method, in addition to high weight and high depreciation, requires separate rotation control systems and matching the rotation of two engines with each other when passing in front of each other. The second method used is to equip the gearbox motor with an electric clutch, which in turn will cause problems such as increasing the weight and increasing the number of required controllers.

[0112] In this invention, by using a brushless outrunner connected to a mechanical clutch, it is possible to rotate each plate separately and only by changing the rotation direction of the electric motor. In this electric motor (57), the outer body (66) of the rotors is made of composite to have sufficient endurance in addition to being light.

[0113] The designed composite body (66), in the lowest position and layer, contains a set of electric coils (70) which, by applying the current of electricity, becomes paramagnetic and subsequently, becomes magnetized and enable the process of absorbing or repelling embedded magnets. The assembly of claimed magnets (67) is mounted on the rotating base (68) to include the rotation process of the shaft and consequently the rubber wheel (69).

[0114] The reason for placing and embedding the used magnets (67) outside the coils (70) is to create a higher torque, which is why most brushless motors are seen with an outrunner system, and a limited number have been designed as in-runners. The use of at least one rubber wheel (69) instead of a metal or plastic wheel improves the desired coefficient of friction between the used rubber wheel (69) and the idler rollers (65).

[0115] In this option, it is better to choose these rollers from wear-resistant rubber. Depending on the direction of rotation of the used rubber wheel (69), the idler rollers (65) move in the built-in groove (63) and cause power to be transferred to one of the transfer rollers to the plates (60).

[0116] The power transmission rollers to the plates (60) will always be in contact with the built-in upper plates (8) or (17). It is worth noting that in the implementation of this embodiment of the claimed invention, the rotation direction of the rubber wheel (69) is considered to be clockwise and the power transmission process is done to the lower roller (60).

[0117] With the aim of measuring the amount of movement of each plate using the encoder shaft (62) connected to the lower roller, the amount of rotation of each plate is measured with high accuracy. Electrical connections to the electromotor set (57) are possible through the connector (61).

[0118] These connections will include the required electricity transmission paths of the coils (70) and the information transmission paths of the encoder shafts (62) to the upper processor and then to the main processor installed on the ground. The body is enclosed by a specially designed cover that supports the rubber wheel shafts (69) and the bottom rollers of the plate (60).

[0119] It is better to connect this electric motor to the body by special silicone and epoxy resins, preferably silicone, so that in addition to having endurance and moisture resistance, its replacement or repair requires special solvents such as Dicone NC9. Under the upper door (6), another part is installed, which is responsible for controlling and feeding electronic circuits (46), lights and electric motors. This used module is enclosed by a metallic body compartment (71), which is located on the door part equipped with a radiator-heating-cooling assembly (72).

[0120] The claimed used radiator-heating-cooling set (72) is made of metals and alloys with a copper or aluminum base, which is responsible for transferring heat to the surrounding air with a large surface area. Next to the body compartment (71), two specific appendages (73) are installed, which when placed in place on the top lid (6), these two appendages (73) go into the groove and are secured in place with a little twist.

[0121] Inside this designed metal housing, a set of several electronic circuits will be placed, each of which has a specific task, and the separation of the circuits reduces the risk of the entire equipment failing at the same time. In the main power supply circuit, the main task of receiving information and issuing commands is the responsibility of the designed and used main processor (74). To feed this processor (74), it will be supplied from a voltage regulator (75) supported by electrolytic capacitors (76).

[0122] The connector (79) is responsible for supplying the power required by the circuit and transmitting the information received from the power supply circuit on the ground. The received information is transferred to port B of the processor, and commands are issued from port C and port D. Furthermore, electric commands formed and issued from port C are generally used to trigger relays (83). Considering the electromechanical nature of the relay, this piece will be used for isolated switching at low frequencies.

[0123] Moreover, in terms of electrical power, the output power of the processor (74) will be too weak to trigger the relay (83) and for this reason, at least one negative-type bipolar transistor amplifier unit (85) has been used to increase the current gain. The matching of the input impedance of the transistors, which has caused them to be biased, is done by resistors (84).

[0124] As can be seen in the technical map, a resistor and output have been used as a reserve so that it can be used to output a special command if needed. The output of the relays (83) will appear in the connector (86) and in this connector, there are also two free bases that have provided the possibility of upgrading without the need to be replaced.

[0125] These outputs may be used to feed the LED light embedded in the lower area (16), the set of LED lights embedded in the side areas (15), or the like. In port D of the processor (74), the outputs are connected to the base of the negative-type bipolar transistors (80) by resistors (81) and commands are transmitted to them.

[0126] After an amplification step, the positive bipolar output transistors (82) will prepare the output current for the brushless electric motor (57) and according to the received information, they will transfer the current to the coils of the electric motor. In switching circuits with relatively high power, the amplification of a strong transistor requires a strong input, and in this circuit, a two-step process has been performed to amplify the transistor current.

[0127] The electric current output of these transistors (82) is available in the connector (78), along with two power supply output pins. The correctness of the electric current entering this circuit can be monitored and observed by an LED indicator (77), which is connected to a resistor in the series circuit. The parabolic antenna (12) concentrates the waves in the LNB section (88) using the reflecting dish (87) and transmits them to the cable. The LNB section (88) is connected to the dish body (87) by the base (89).

[0128] As mentioned earlier, the horizontal direction of the antenna is adjusted by the rotation of two rotating plates with large and medium dimensions (8 and 17) from the set of upper plates claimed; But the vertical direction needs an additional adjustment capability, which has been modified for this purpose. The base is made of a plate (97) tangent to two large and medium-sized upper rotating plates (8 and 17) held in place by a set of screws (93) and nuts (94).

[0129] It can be mentioned that the information transmission cable can be passed through the built-in hole (95). Also, this built-in hole is used to transfer the dish motor control cable. With the purpose of protecting the electromotor section (98), the cover (92) is designed as a hollow on the plate (97) in the shape of an incomplete cone. The fixed base (90) is connected to the end of the dish and its angle with respect to the dish will always be an unchangeable number, which has enabled the joint connection with the arm part of the shape (91) around the shaft (99).

[0130] Along with the rotation process of the electromotor part (98), the spiral axis (100) also rotates around the axis and moves the fixed nut connected to the arm-shaped part (103) in the vertical direction and up or down, which the result of this movement will be the vertical movement of the arm part of the figure (91) in the vertical direction and up or down.

[0131] Due to the technical limitation in changing the direction of the dish, on this base, which has the possibility of moving in only one direction by the joint (96), the tip of the dish (87) will move vertically and face up or down. By increasing or decreasing the length of the arm set and the electric motor used, another direction change around the axis of the shaft (102) will be observed, this shaft (102) and the fixed base (101) have made this process possible.

[0132] The electromotive part (98) chosen to change the vertical angle of the dish is a step motor type to possesses the ability to create high accuracy. For each step motor, three strings of wires with precise pulse control are required, so it is reasonable to use a processor (104) along with a set of operational amplifiers (105).

[0133] The current consumption of these step motors is much less than the brushless motor (57) that drives the plates, and in this circuit, the required commands can be issued using ULN series ICs. The command output of this circuit is available in the connector (106) with the number of 15 pins, including the 3 pins required for each step motor.

[0134] Moreover, the circuit is fed through the connector (108), the 12 V voltage is received, and the data is received and sent to the processor circuit on the ground through this connector to the processor. Port A of the processor (104) is assigned to this section. Other ports are placed to provide outputs.

[0135] In the used connector (108), an amplified output and a 5-volt output after the regulator are also available to be used when it is necessary to increase and adjust the current or voltage of the circuit. The feeding of this processor is done through the regulator (107) and an LED (109) has been installed in the place to show the presence of the current and correct functioning of the regulator.

[0136] Also, in the connector (110) there are three outputs and a positive voltage so that when a part of the electronic board fails, this part can be used for performance testing or as a temporary replacement. This board will also be installed next to the upper feeding board in the compartment (46).

[0137] The power supply circuit on the ground, using the processor (119) in port B, will be able to measure the amount of voltage received in the high-power supply circuit, based on which it will adjust the voltage sent. A set of electronic resistors (117) are placed in this port to prevent damage. As we know, analog information is converted and processed in this port. Port D is also dedicated to receiving and sending information in the Bluetooth network, and the Bluetooth module (120) connected to it is placed for this connection.

[0138] It is worth noting that at the same time as connecting to the Bluetooth module (120), it will be possible to use a wired connection. Information required for the operation of the circuits is shown in the display (121) so that some primary or secondary operating errors are in quick access. The first connector (118) is used to connect and continuously monitor the voltage of the high-supply circuit.

[0139] The second connector (122) has been utilized to feed and send the issued commands. The main power supply of the circuit is provided through at least one transformer unit with two outputs - three wires - (111) for two voltage ranges of 12 and 5 volts, which after rectification in diode bridges (116), is shown in LEDs (113) and (112) and 5 volts of energy will be stored in the battery (114) and 12 volts of energy in the battery (115).

[0140] In the control center (2), which is located on the ground, a set of receivers and processors must be of much higher power.

[0141] The speed of receiving and sending information, the separation of received data and the issuing of commands should be faster and more accurate, which requires specialized hardware consisting of several microprocessors (138). The alleged main processor (131) will communicate with other equipment via USB (132) and document and receive ports.

[0142] For the main communication with the high-frequency amplifier / dissipator (124), the method of data transmission by wire is used, and to enable and facilitate the process of digital communication with a set of out-of-circuit diagnostic or measurement devices, at least one Bluetooth module unit (133) has been used.

[0143] The overall feeding of the circuit is done through the connector (139) where the main voltage is 5 volts. After the connector, the input power of 5 volts is divided into different sections by the set of diodes (140) and the set of weak resistances with low ohmic range (141) used in this section will act like a fuse. The use of this method, in this embodiment of the invention, has caused that in case of a connection in a part of the circuit, other parts and parts have the ability to do the work as well.

[0144] Besides that, with a 12V input and converting it to 5V by the regulator (129), electronic parts and elements that are vitally important for being externally troubleshooted intermittently, would be able to receive backup power. For instance, in the main processor (131), the absence of 5 volts in the connector (139) means the absence of any communication and, as a result, the difficulty of troubleshooting, which is solved with the support of the 5-volt regulator. The existence of the connector (130) plays an essential role in powering different parts, including GSM modules (137) and WIFI modules (126), and is responsible for the process of powering the required functional current and voltage.

[0145] Furthermore, 5 different units of GSM module (137) have been utilized, which have the ability to receive a wide range of telecommunication electromagnetic signals, especially weak signals, in an amplified form by a set of added antennas (137). The reason for the number of GSM modules (137) used is the presence of different operators and different working frequencies, depending on the data transfer speed.

[0146] These frequencies will be between the preferred range of 1710 to 1880 for the DCS band, between the range of 850 to 1900 MHz for the GSM band, and between the preferred range of 1800 to 2600 for the LTE band.

[0147] In the procedure of utilizing mobile phones, their small dimensions and portability have made it impossible to use antennas with large dimensions, but in this device, the lack of relative dimensional limitations and portability has made it possible to use antennas with larger dimensions. It is a set of high-frequency amplifier / separator units (124), a set of specialized parts in the field of telecommunication and transmission, and simultaneous amplification and separation of information of each input frequency.

[0148] Based on this information and processing planning and creation of frequency and time priority and delay, it can manage data output and analysis. This part, which possesses the ability to be manufactured in the microelectronics industry, by using this unit in the system and device implemented in this invention, has provided the possibility of replacing several parts and modules simultaneously.

[0149] A portion of the outputs of the claimed high-frequency amplifier / dissipator units (124) is assigned to the process of transmitting data to the WIFI modules (126), and the process of receiving data and converting them into frequencies that can be received, in all kinds of modems and electronic equipment and repeaters, has been made possible by the capabilities of a set of WIFI units and modules used (126).

[0150] Besides that, two types of antennas have been used for each of the claimed WIFI modules (126), one of which has an operating frequency range of 5 GHz and the other in an operating frequency range of 2.4 GHz, and the alleged 5 GHz antenna (127) is installed with a little distance from the 2.4 GHz antenna (128) and three WIFI module units (126) are also used for three directions and sufficient coverage.

[0151] In another output, at least one high-frequency amplifier / demultiplexer unit (124) is used, using a current operational amplifier (135) and inserting a stage for final amplification of the current and the generated transistor signal (136). A set of electric current outputs has also been used to isolate by relay or issue start and end commands with sufficient power in the connector (123).

[0152] This invention has established several technical advantages in providing interment global connectivity, decoding electromagnetic wave carrying wireless data, and real-time intelligence gathering, by relying on introducing a suspended balloon-based antenna system that replaces conventional communication towers and drones by utilizing gas-lift balloons to carry antennas and signal processing units, ensuring stable, long-duration operation with minimal energy consumption. The adaptive antenna network, equipped with parabolic, whip, and Starlink dishes, dynamically adjusts its direction and frequency to capture a broad spectrum of electromagnetic waves, optimizing signal reception from various sources. A high-performance ground control unit, integrated with AI-enhanced processors, analyzes received signals, decrypts encrypted data, and isolates potential threats in real time. The system employs lightweight carbon fiber cables for efficient power and data transmission between the airborne units and the ground station, minimizing energy loss while maintaining structural integrity. Additionally, the suspended platform is stabilized using anchored carbon-fiber cables with controlled tension, ensuring minimal displacement due to wind or atmospheric changes, allowing for continuous and precise signal acquisition. Furthermore, the invention incorporates visible and infrared lighting for nighttime visibility, emergency distress signals, and geolocation assistance, enhancing situational awareness in critical scenarios while effectively balancing cost, efficiency, and security to provide a cutting-edge solution for global connectivity, cybersecurity, and real-time intelligence gathering.

[0153] : Depicting a general representation of a complete assembly of the implemented hovering system for global wireless telecommunication and encrypted data decoding.

[0154] : Demonstrating two isometric shapes and hidden lines removed forms of the hovering antenna holders’ set of the claimed global wireless telecommunication and encrypted data decoding system.

[0155] : Illustrating several points of view of the hovering antenna holders’ set and all its comprising constituents.

[0156] : Showing an exploded axonometric representation of the complete system and the hovering antenna holders’ compartment.

[0157] : Representing the suspended antenna holder’s carbon fiber frame.

[0158] : Illustrating two 2D schematics of the carbon fiber frame of the hovered antenna holder, as a part of the claimed global wireless telecommunication and encrypted data decoding system.

[0159] : Depicting the lower door of the suspension assembly and the embedded electronic and electromechanical components.

[0160] : Demonstrating two 3D representations of the lower door of the suspension assembly.

[0161] : Illustrating a cross-sectional figure of a unit of the set of hydrogen-filled balloons, in an isometric shape.

[0162] : Displaying several sections of a hydrogen-filled balloon unit

[0163] : Representing the balloon inlet valve for the gas injection section, as a comprising compartment of the discussed multisectoral hovering system for global wireless telecommunication.

[0164] : Depicting a cross-sectional schematic of the hovered mount spherical plates and leg assembly, from the direct point of view.

[0165] : Showing the hovered mount spherical plates and leg assembly and all its comprising components.

[0166] : Illustrating the electromagnetic data transmitting unit.

[0167] : Depicting the middle circular rotating plate.

[0168] : Demonstrating the compartment related to the suspended mount spherical plates and leg assembly.

[0169] : Showing the brushless electric motor unit, in an isometric shape.

[0170] : Representing the unit of the brushless electric motor series, which are embedded on the claimed hovered mount spherical plates and leg assembly central area, inside and inner positions.

[0171] : Illustrating the location of the placement of the feeding module and controlling circuits.

[0172] : Depicting the main power supply circuit.

[0173] : Demonstrating several schematics of a parabolic antenna assembly.

[0174] : Illustrating multiple cross-sectional schematics of the parabolic antenna unit.

[0175] : Showing the step motor units’ controller electronic circuit.

[0176] : Representing the power supply circuit situated on the ground.

[0177] : Depicting multielement circuit relates to the control center unit, which contains a set of receivers and processors.

[0178] : It shows all the components and the complete assembled set of the system and the claimed hovering system for global wireless telecommunication and encrypted data decoding, from the frontal direction, along with 3 coordinate axes, in an isometric shape and in the form of hidden lines removed. The scale of the drawn figures is 1 to 35 real scale and the dimensions shown are in centimeters. Referred components include the set of suspended antenna holders (1), the ground control center (2), the set of electric transmission cables (3), the cable clamps (4), the cable connection holes (5), and the upper frame door and mounted suspended legs (6).

[0179] : It depicts all the constituents and the comprising compartments of the hovering antenna holders’ set of the alleged global wireless telecommunication and encrypted data decoding system, from different side angles, and in isometric shapes, in 3 coordinate dimensions, and in the form of hidden lines removed. the scale of the drawn figures is 1 to 20 real scale and the dimensions shown are in centimeters. Referred components include the upper fixed parts of the antenna holder (7), the middle circular rotating plate (8), the laser receiver / transmitter with compound lenses (9), the branch antennas (10), the whip antennas (11), the parabolic antennas (12), the screws for frame assembly (13), the led illumination for night visibility (16), and the lower door of the suspension assembly (19).

[0180] : It demonstrates multiple representations of a complete assembly of the constituents and the comprising compartments of the hovering antenna holders’ set of the alleged global wireless telecommunication and encrypted data decoding system, from different horizontal angles, in the upper, lower, lateral, and opposite directions, in various isometric, dimetric and trimetric shapes, along the 3 axes of the coordinate system, and in both hidden lines removed and hidden lines visible forms. The scale of the drawn shapes is 1 to 25 real scale and the dimensions shown are in centimeters. Referred components include the carbon fiber frame of the suspended antenna holder (14), the peripheral light transmission system (15), the inner circular rotating plate (17), and the Starlink dishes for satellite reception (18).

[0181] : It illustrates an exploded axonometric representation of the hovering antenna holders’ set of the alleged global wireless telecommunication and encrypted data decoding system, and all its constituents like the Starlink dishes, hydrogen-filled balloons, compound lenses, and various antennas, from a side angle, in an isometric shape, in line with the 3 axes of the coordinate system, and in the form of hidden lines removed. The scale of the drawn figures is 1 to 35 real scale and the dimensions shown are in centimeters. Referred component includes the set of hydrogen-filled balloons (20).

[0182] : It illustrates a schematic representation of the carbon fiber frame of the suspended antenna holder, from a lateral angle, in an isometric shape, along the 3 coordinate axes, and in the form of hidden lines removed. Referred component includes the round environment for antenna positioning (24).

[0183] : It shows two 2D schematics of the carbon fiber frame of the suspended antenna holder, as a part of the claimed global wireless telecommunication and encrypted data decoding system, from the direct and frontal angles, and in line with the x and z axes of the coordinate system. The scale of the drawn shapes is 1 to 20 real scale and the dimensions shown are in centimeters. Referred components include the lower half of the balloons (spherical structure) (21), the lateral empty spaces for weight reduction (22), the round environment for antenna positioning (23), the upper throat for structural support (25), the lower throat for structural support (26).

[0184] : It depicts the various components and constituents that are located on the lower door of the suspension assembly, from a frontal angle, and along the x and z coordinate axes. The scale of the drawn figures is 1 to 16 real scale and the dimensions shown are in centimeters. Referred components include the tangent surface connection to the frame (27), the transparent material section for internal visibility (28), the flat reinforced carbon fiber surfaces (29), the recesses for branch antennas (30), and the holes for whip antennas (31).

[0185] : It demonstrates two 3D schematic representations of the lower door of the suspension assembly, from different horizontal and lateral directions, in isometric shapes, along the 3 axes of the coordinate system, and in the form of hidden lines removed. The scale of the drawn figures is 1 to 20 real scale and the dimensions shown are in centimeters. Referred component includes the cable connection points (32).

[0186] : It illustrates a schematic representation of a unit of the set of hydrogen-filled balloons, from a lateral direction, in an isometric shape, in line with the 3 axes of the coordinate system, and in the form of hidden lines removed. The scale of the drawn figures is 1 to 2 real scale and the dimensions shown are in centimeters. Referred components include a unit of the gas storage balloons (33), the flexible and elastic balloon body (34), the reinforced contact rim for wear resistance (35), and the balloon inlet valve for gas injection (36).

[0187] : It represents several schematics of a unit of the set of hydrogen-filled balloons, from various horizontal, upper, and lower directions, in line with the x and z coordinate axes, and in the form of hidden lines removed. The scale of the drawn figures is 1 to 4 real scale and the dimensions shown are in centimeters.

[0188] : It demonstrates various sections of balloon inlet valve for gas injection, from different visual angles, in line with the x and z axes of the coordinate system. The scale of the drawn figures is 5 to 1 real scale and the dimensions shown are in centimeters. Referred components include the valve main body for gas flow control (37), the threaded connection for valve replacement (38), the movable feeder for gas flow regulation (39), the spring component for valve mechanism (40), and the thorn-like extension for pressure adjustment (41).

[0189] : It depicts the part related to the suspended mount assembly plates and legs, with all the components that were installed in various zones and sections of the claimed part, from a direct perspective, in a 2D shape, alongside the x and z coordinate axes, in the form of hidden lines removed. The scale of the drawn shapes is 1 to 8 real scale and the dimensions shown are in centimeters. Referred components include the vertical structural plates for upper door support (42), the engine and gearbox assembly for rotating plates (43), the upper feeding module for power and signal transmission (44), the electromagnetic data transmitter (45), the electronic circuit control and power feeding module (46), the insulating body of the data transmitter (47), the end plate for conductive rings and wiring (48), and the central hole for cable passage (49).

[0190] : It demonstrates the compartment related to the hovered mount spherical plates and leg assembly, with all the components that were embedded in various zones and sections of the claimed section, from both upper and lower lateral points of view, in isometric shapes, alongside the 3 axes of the coordinate system, in the form of hidden lines removed. Referred components include the carbon brushes for electrical contact (50), the support blades for mechanical strength (51), and the special cutouts for rotating plate friction reduction (52).

[0191] : It illustrates the electromagnetic data transmitting unit, which is embedded in the central area and inner zones of the alleged hovered mount spherical plates and leg assembly, from a lateral perspective, in an isometric shape, in line with the 3 axes of the coordinate system, and in the form of hidden lines removed. The scale of the drawn shapes is 10 to 1 real scale and the dimensions shown are in centimeters. Referred component includes the Distance Compensator for Electrical Contacts (53).

[0192] : It depicts the middle circular rotating plate, as a constituent of claimed the hovering antenna holders’ set of the alleged global wireless telecommunication and encrypted data decoding system, from various 3D visual angles, in isometric shapes, in line with the 3 axes of the coordinate system, and in the form of hidden lines removed. The scale of the drawn shapes is 1 to 7 real scale and the dimensions shown are in centimeters. Referred component includes the stationary inner plate for satellite communication (54), the flat surface for antenna installation (55), and the raised edges for rotating plate alignment (56).

[0193] : It represents several other schematics of the compartment related to the hovered mount spherical plates and leg assembly, with all the components that were embedded in various zones and sections of the claimed section, from both upper and lower points of view, alongside the x and z coordinate axes, in the form of hidden lines removed. The scale of the drawn shapes is 1 to 7 real scale and the dimensions shown are in centimeters. Referred components include the brushless electric motor with clutch mechanism (57), the cable passages for parabolic and Starlink antennas (58), and the holes for Starlink antenna alignment (59).

[0194] : It shows an isometric shape of the brushless electric motor unit, from a lateral point of view, alongside the 3 axes of the coordinate system, and in the hidden lines visible form. The scale of the drawn shapes is 5 to 1 real scale and the dimensions shown are in centimeters. Referred component includes the power transmission rollers for rotating plates (60).

[0195] : It depicts various cross-sectional schematic representations of a unit of the brushless electric motor series, which are embedded in the central area and several positions inside the inner zone of the claimed hovered mount spherical plates and leg assembly, from a lateral point of view, alongside the 3 axes of the coordinate system, and in the hidden lines visible form. The scale of the drawn shapes is 2.5 to 1 real scale and the dimensions shown are in centimeters. Referred components include the electrical connector for motor control (61), the encoder shaft for measuring rotation angles (62), the groove for idler rollers to move (63), the idler rollers for smooth transmission (64), the friction-resistant rubber wheel for transmission (65), the lightweight composite rotor housing (66), the embedded magnets for torque generation (67), the rotating base for motor transmission (68), the rubber wheel for friction transmission (69), and the electric coils for magnetic induction (70).

[0196] : It demonstrates the zone for embedding the feeding module and controlling circuits, from lateral angles, in line with the 3 coordinate axes, and in the form of hidden lines removed. The scale of the drawn shapes is 3 to 1 real scale and the dimensions shown are in centimeters. Referred components include the metallic compartment for electronic modules (71), the radiator-heater-cooler for temperature control (72), and the locking appendages for module secure placement (73).

[0197] : It illustrates a schematic representation of the main power supply circuit. Referred components include the main processor for data control and processing (74), the voltage regulator for stable power supply (75), the electrolytic capacitors for power filtering (76), the led indicator for power monitoring (77), the connector for motor power transmission (78), the connector for ground power supply and commands (79), the negative bipolar transistors for amplification (80), the resistors for transistor biasing (81), the positive bipolar transistors for motor drive (82), the electromechanical relays for switching (83), the impedance matching resistors (84), the transistor amplifier for current gain (85), and the connector for relay output signals (86).

[0198] : It represents several schematic representations of a parabolic antenna assembly, with all the constituents and components, from various horizontal, lateral, upper, and lower visual angles, in line with the 3 coordinate axes, in several 2D and isometric shapes, and in the form of hidden lines removed. The scale of the drawn shapes is 1 to 1 real scale and the dimensions shown are in centimeters. Referred components include the reflecting dish for parabolic antenna (87), the LNB section for signal reception (88), the LNB base for mounting (89), the fixed base for dish alignment (90), the arm structure for dish support (91), the protective cover for electromotor (92), the plate for dish mounting (93), the nuts for secure dish positioning (94), the cable passage hole for dish motor (95), the rotational joint for vertical dish adjustment (96), the adjustable dish mounting plate (97).

[0199] : It demonstrates multiple cross-sectional schematics of the parabolic antenna unit, from various lateral perspectives, along with the x and z axes of the coordinate system, and in the hidden lines removed form. The scale of the drawn shapes is 1 to 1 real scale and the dimensions shown are in centimeters. Referred components include the step motor for vertical dish control (98), the dish rotation shaft (99), the spiral axis for vertical dish movement (100), the fixed base for secondary dish adjustment (101), the rotation shaft for dish fine-tuning (102), and the fixed nut for dish positioning (103).

[0200] : It shows a schematic depiction of the controller circuit related to the step motor units. Referred components include the processor for step motor control (104), the operational amplifiers for signal processing (105), the connector for motor signal transmission (106), the voltage regulator for step motor power (107), the power supply connector for control circuits (108), the led indicator for step motor circuit status (109), the diagnostic output connector (110).

[0201] : It illustrates a Porteous diagram of the main power supply circuit embedded in the ground. Referred components include the transformer unit for voltage supply (111), the led indicator for 5V power status (112), the led indicator for 12V power status (113), the battery storage for 5V power (114), the battery storage for 12V power (115), the diode bridges for power rectification (116), the electronic resistors for circuit protection (117), the high power voltage monitoring connector (118), the ground processor for power management (119), the Bluetooth module for wireless communication (120), the display for operational data monitoring (121), the command transmission connector (122).

[0202] : It depicts a control center multielement circuit. Referred components include the relay-controlled power output connector (123), the high-frequency amplifier and separator unit (124), the amplified antenna system for signal reception (125), the WIFI modules for wireless communication (126), the 5 GHz WIFI antenna (127), the 2.4 GHz WIFI antenna (128), the 12V to the 5V voltage regulator (129), the main power distribution connector (130), the main ground control processor (131), the USB port for external data input (132), the Bluetooth module for external diagnostics (133), the data logging and storage unit (134), the operational amplifier for high-frequency processing (135), the high-frequency transistor signal generator (136), the multiple GSM modules for cellular communication (137), the microprocessor array for high-speed processing (138), the primary power supply connector (139), the diodes for power distribution (140), and the low ohmic resistors for circuit protection (141).Examples

[0203] In an isolated mountainous region with no existing communication infrastructure, this balloon-based antenna system can be deployed to establish a wireless telecommunications network and internet connectivity while ensuring secure digital communication. The system consists of multiple hydrogen-filled balloons, each carrying a parabolic antenna, signal processing units, and decryption modules. The balloons are anchored to a control station via carbon-fiber cables, allowing for stable positioning and data transmission while maintaining altitude without continuous energy consumption. The deployment process begins with lifting the parabolic antennas using hydrogen-filled balloons, which are strategically positioned at different altitudes to maximize signal coverage. These antennas continuously scan and capture electromagnetic signals from satellite sources and terrestrial transmission nodes. The system leverages real-time signal processing to establish a two-way communication link between remote users and the global internet infrastructure.

[0204] To facilitate secure access and user authentication, the system employs an advanced decryption mechanism based on IMSI (International Mobile Subscriber Identity), TMSI (Temporary Mobile Subscriber Identity), and dynamic identifier redefinition. When a mobile user in the remote region attempts to connect, their IMSI is initially captured and analyzed through the signal processing unit in the balloon system. The system assigns a temporary TMSI to anonymize user data while rerouting the signal through a secure channel, reducing the risk of interception by malicious entities. Furthermore, the identifier redefinition mechanism ensures that unauthorized tracking or spoofing attempts are mitigated by continuously refreshing the TMSI and associating it with encrypted data packets. The decryption module in the airborne system intercepts encrypted signals from both authorized and unauthorized sources, applying AI-powered analysis to filter out potential threats, such as spoofed base stations or rogue IMSIs attempting to compromise the network.

[0205] For internet communication, the parabolic antennas capture satellite internet signals, which are then processed and relayed to local ground users via Wi-Fi or LTE transmission. The system dynamically adjusts its frequency bands to accommodate varying weather conditions and optimize bandwidth distribution. This enables a robust and low-latency communication network that can support emergency services, remote learning, and business operations in previously unreachable locations. This innovative approach provides a sustainable, cost-effective, and highly secure method of delivering telecommunications and internet access to remote areas while integrating real-time threat detection and encryption mechanisms to ensure privacy and network integrity.

[0206] The application of this invention is in every aspect of contemporary human life, including all social, economic, residential, industrial, and health-care-related activities that extensively rely on a continuous utilization of digital communication, and wireless network telecommunication. The application of this invention would facilitate telecommunication and digital information access through the internet in remote areas and enable any individual to decrypt encrypted digital information to integrate with cybersecurity, which eventually allows one to get to safer digital content and reduce the possibility of being targeted by scam / fraud content.

Claims

The design and implementation of a novel airborne wireless telecommunications system is claimed which consists of the following compartmentsA series of electromagnetic-wave receiving / transmitting antennasA set of suspended antenna holdersA series of electric motorsAt least of control center unitA set of lifting balloonsAt least one electromechanical holding unit, with a series of interconnecting cablesA series of electronic circuitsAccording to claim 1, the claimed airborne telecommunications system is a multisectoral hovering device that operates by utilizing a series of gas-lift balloons to provide universal internet access and enable the interception and decryption of encrypted communications for national and social security purposes.According to claim 1, the airborne wireless telecommunications system includes several types and assemblies of antennas, specifically a set of parabolic antennas, a set of Starlink dishes, a set of branch antennas, and a series of whip antennas.According to claim 3, the antenna sets and assemblies are capable of continuously transmitting, intercepting, and receiving telecommunication and data-carrying electromagnetic waves. To establish comprehensive 360-degree coverage of electromagnetic wave interception, amplification, and transmission, the antennas are optimally oriented based on various coordinates, geographic angles, and orientations.According to claim 4, in the context of VHF (Very High Frequency) and UHF (Ultra High Frequency) frequency waves, the precise orientation of the antenna is less critical compared to frequencies above one gigahertz (GHz), which are typically captured by parabolic dish antennas due to their directional nature, and eventually, the process of aligning the lower antennas positioned on the ground is primarily based on an estimated and approximate directional adjustment rather than precise calibration.According to claim 5, this characteristic is particularly evident in whip antennas, whose omnidirectional design allows them to receive signals equally well from all directions. As a result, the orientation of whip antennas has minimal impact on their performance, and simply positioning them vertically, perpendicular to the ground, is sufficient to achieve optimal signal reception.According to claim 1, the set of suspended antenna holders, consists of several compartments and components including:the upper frame door and mounted suspended legsSeries of rotating circular platesThe carbon fiber framethe lower lid / doorAccording to claims 3 and 7, the claimed set of branch antennas and whip antennas, are embedded and located in the lower area of ​​the frame and adjacent to the lower door, for the purpose of performing the reception of electromagnetic waves in this range from the surface of the earth, which is contrary to the antennas placed on top of the frame, which receive electromagnetic waves from satellites.According to claim 7, the alleged set of lifting balloons has an improved design for storing gas with a lower density than air and possesses a flexible and elastic body, with a size-changeable and adjustable surface area and wear resistivity. In the section of their outer surface that is in contact with the body of the frame, the body has been strengthened by increasing the thickness and the rubber rim has created the contact.According to claim 9, the balloons are filled with hydrogen gas, which has a lower density than air. This density difference creates an upward lifting force, allowing the antenna holders to remain suspended without requiring continuous energy consumption.According to claims 7 and 9, the carbon fiber frame section of the claimed set of hovered antenna holders, which is composed of lightweight carbon fiber composites with mesh designs, possesses a series of embedding and installing zones, to enable the process of situating a series of the alleged hydrogen-filled lifting balloons, as well as a peripheral area with the light transmitting capability, which allows a complete and flexible coverage for the balloons, in a secure area, due to possessing the transmitting characteristic, which severs as an alerting part.According to claim 11, the carbon fiber frame incorporates an extended surface within these suspended holders to hold the balloons, and the holding surface of the balloons contains a set of empty spherical spaces for the lower half of the balloons.According to claim 12, the diameter of the hollow circular sections is designed to be slightly smaller than the fully inflated diameter of each hydrogen-filled balloon, and this size difference enables each balloon, when placed beneath the holding surface, to generate an upward lifting force that both supports and stabilizes the entire framework of the suspended antenna holders. Furthermore, the holding surface is designed with a series of lateral hollow spaces, strategically distributed across four distinct quadrants around the circle's perimeter.According to claim 7, the lower lid, positioned at the bottom of the designed embodiment, serves as a mounting platform for various types of antennas installed in its lower section, ensuring efficient reception and transmission of electromagnetic signals and is securely attached to the frame part of the suspended and hovered holders using various resin compounds, primarily silicone and epoxy resins, to ensure structural integration and durability.According to claim 14, the claimed connection is designed to be reversible, allowing access to the internal components by using specific solvents to dissolve the resin bonds. Suitable solvents include butyl alcohol, carbitol, Dicone NC9, 2-methyl-2,4-pentanediol, cyclohexanone, toluene, cyclohexanol, methyl ethyl ketone, and methyl iso-butyl ketone. Among these, Dicone NC9 is preferred for silicone resins, while methyl ethyl ketone and methyl iso-butyl ketone are favored for epoxy resins.According to claim 1, the series of electric motors includes brushless outrunner motors and stepper motors. The brushless outrunner motors are connected to a mechanical clutch, enabling independent rotation of the upper antenna plates. Their outer rotors are designed for higher torque, enhancing rotational performance.According to claims 1 and 16, the step / stepper motors operate by relying on the sensitive pulse control mechanism and with the application of three wires. These units possess a step-by-step rotation mechanism, which allows them to apply adjustable control over the vertical angle adjustment of parabolic antennas.According to claim 1, the control center acts as the core of the entire system, responsible for receiving, processing, and analyzing telecommunication signals from the suspended antenna holders, and this compartment, includes a multielement advanced circuit consisting of several microprocessors, GSM, and Wi-Fi modules for data transmission, high-frequency amplifiers for signal enhancement, and a secure power supply system.According to claim 18, the claimed control center ensures adjustable and targeted control of antenna operations and enables secure communication with external devices, supporting encryption and decryption processes for digital data.The airborne wireless telecommunication device designed and implemented in this invention, employs an advanced decryption mechanism based on IMSI (International Mobile Subscriber Identity), TMSI (Temporary Mobile Subscriber Identity), and dynamic identifier redefinition.According to claims 1 and 20, the implementation and preformation of the decryption mechanism fundamentally rely on the electronic circuits series and when a mobile user in the remote region attempts to connect, their IMSI is initially captured and analyzed through the signal processing circuit in the balloon system.According to claim 1, the utilized series of electronic circuits in this invention is divided into four different types which include the main power supply circuit, the power supply circuit situated on the ground, the step / stepper motor circuit, and the control center multi-element circuit.According to claim 22, the main power supply circuit’s function is based on delivering stable voltage to both the suspended antenna holders and the ground control center. This circuit comprises several electronic elements including the main processor for data control and processing, the voltage regulator for stable power supply, the electrolytic capacitors for power filtering, the LED indicator for power monitoring, the connector for motor power transmission, the connector for ground power supply and commands, the negative bipolar transistors for amplification, the resistors for transistor biasing, the positive bipolar transistors for motor drive, the electromechanical relays for switching, the impedance matching resistors, the transistor amplifier, and the connector for relay output signals.According to claim 23, the alleged main power supply circuit employs a dual-output transformer, providing 12V for electric motors and 5V for processors, with diode bridges converting AC to DC. Voltage regulators ensure consistent output and electrolytic capacitors reduce electrical noise, stabilizing current flow. The claimed LED indicators display the system’s operational status, while batteries store energy for backup power, guaranteeing uninterrupted performance. Furthermore, multiple connectors distribute power to components, and integrated resistors act as protective fuses, safeguarding circuits from surges or short circuits.According to claim 22, power supply circuit on the ground is designed to provide stable voltage to the ground control center and its components and this ground-embedded power supply circuit comprises several electronic elements including the transformer unit for voltage supply, the led indicator for 5V power status, the led indicator for 12V power status, the battery storage for 5V power, the battery storage for 12V power, the diode bridges for power rectification, the electronic resistors for circuit protection, the high power voltage monitoring connector, the ground processor for power management, the Bluetooth module for wireless communication, the display for operational data monitoring, the command transmission connector.According to claim 25, the claimed ground-embedded power supply circuit features a dual-output transformer that supplies 12V for motors and 5V for processors. Diode bridges convert AC to DC, while voltage regulators maintain consistent voltage levels. The utilized Electrolytic capacitors smooth the current flow, and resistors act as safety fuses. Backup batteries store energy to ensure continuous operation during power outages. LED indicators monitor system status, and multiple connectors distribute power to various components, ensuring reliable operation of the control center’s processors, communication modules, and monitoring equipment.According to claim 22, The step / stepper motor circuit’s function is based on controlling antenna movement, to adjust the parabolic antennas’ angle, enhance their ability to intercept satellite signals, and ensure various vertical alignments for capturing electromagnetic waves. This unit comprises multiple elements including the control processor, the operational amplifiers for signal processing, the connector for motor signal transmission, the voltage regulator for step motor power, the power supply connector for control circuits, the led indicator for step motor circuit status, and the diagnostic output connector.According to claim 27, the claimed step / stepper motor is electrically powered by a 12V supply, stepper motors receive pulse signals from a dedicated processor that interprets commands from the ground control center. ULN series ICs amplify these control signals, ensuring smooth and accurate motor rotation. Operational amplifiers fine-tune the output, enhancing signal clarity. The 15-pin connector provides dedicated power and control channels for each motor, facilitating synchronized operation. A voltage regulator maintains a stable 5V supply for the processor, ensuring continuous functionality. LED indicators confirm the correct voltage supply and monitor the motors’ status, providing real-time feedback on their performance.According to claim 22, the control center multi-element comprises a wide range of electronic elements including the relay-controlled power output connector, the high-frequency amplifier, and separator unit, the amplified antenna system for signal reception, the WIFI modules for wireless communication, the 5 GHz WIFI antenna, the 2.4 GHz WIFI antenna, the 12V to the 5V voltage regulator, the main power distribution connector, the main ground control processor, the USB port for external data input, the Bluetooth module for external diagnostics, the data logging and storage unit, the operational amplifier for high-frequency processing, the high-frequency transistor signal generator, the multiple GSM modules for cellular communication, the microprocessor array for high-speed processing, the primary power supply connector, the diodes for power distribution, and the low ohmic resistors for circuit protection.According to claim 29, the alleged control center multi-element circuit coordinates and processes telecommunication signals, ensuring continuous and controlled system operation. The main processor acts as the central hub, managing various tasks with support from multiple microprocessors that handle specific functions in parallel. The circuit communicates via USB ports for wired connections, while Bluetooth and GSM modules enable wireless communication. High-frequency amplifier / demultiplexer units filter and boost incoming signals, ensuring clear transmission. Operational amplifiers fine-tune these signals, improving accuracy and reliability. Wi-Fi modules transmit data at both 2.4 GHz and 5 GHz frequencies, ensuring high-speed wireless communication. Voltage regulators maintain stable power delivery to all components, while LED indicators display system status and operational alerts.

Images