Dynamic directional WIFI coverage system with configurable antenna array

Abstract

The present disclosure provides a flexible dynamic coverage wireless communication system (100) having a wireless communication router device (102) with a plurality of rotatable directional antennas (104) The wireless communication router device (102) includes a control module (106) configured to receive user configuration input for coverage area preferences and operational modes, an antenna rotation control module (108) operatively connected to the control module (106) and configured to position the rotatable directional antennas (104) according to desired coverage patterns, a monitoring module (110) configured to track router device usage and activity in coverage areas and automatically adjust antenna positions based on detected usage patterns, and beamforming capabilities (112) configured to provide electronic beam steering, dynamic beam parameter adjustment, and coordination between multiple beamforming antennas. The system (100) further includes a user configuration remote device (114) wirelessly connected to the wireless communication router device (102) for remote control and at least one user device (116) wirelessly connected to the wireless communication router device (102) through Wi-Fi protocols. Each rotatable directional antenna (104) is mechanically rotatable through a range of angles to provide targeted coverage in selected directions, and the operational modes include omnidirectional coverage mode and dynamic directional coverage mode.

Description

DYNAMIC DIRECTIONAL WIFI COVERAGE SYSTEM WITH CONFIGURABLE ANTENNA ARRAY FIELD OF INVENTION

[0001] The present disclosure relates to wireless communication systems. Particularly, the invention discloses a dynamic directional WiFi coverage system and method, utilizing configurable antenna arrays for selective directional coverage control. The invention provides optimized power consumption and reduced electromagnetic radiation exposure while enabling flexible coverage patterns that dynamically adjusted based on real-time usage requirements and user preferences. BACKGROUND OF THE INVENTION

[0002] Wireless communication technology has experienced remarkable growth in recent years, with applications spanning from residential internet connectivity to enterprise networking solutions. WiFi technology, based on IEEE 802.11 standards, plays a central role in providing wireless internet access across homes, offices, and public spaces. Modern WiFi systems enable multiple devices including smartphones, laptops, tablets, and smart home devices to connect wirelessly within a coverage area, facilitating data transmission, file sharing, and internet access without physical cables.

[0003] Current WiFi router designs typically employ omnidirectional antennas that radiate signals uniformly in all directions, creating a roughly spherical coverage pattern extending up to 300 feet outdoors and 100-200 feet indoors depending on the WiFi standard and environmental factors. While this approach provides comprehensive area coverage, it presents several operational challenges. The omnidirectional radiation pattern results in power and signal wastage in areas where WiFi usage is minimal or nonexistent, such as extending coverage beyond building boundaries where unauthorized access becomes a concern. Additionally, the uniform distribution of transmission power reduces signal strength in areas where coverage is actually needed, potentially degrading user experience in active usage zones.

[0004] Alternative approaches using directional antennas can focus signal strength in specific directions but are limited to fixed coverage patterns that cannot adapt to changing userrequirements or usage patterns. These static directional solutions lack the flexibility needed for dynamic environments where user locations and connectivity needs vary throughout the day.

[0005] There are several patent applications that relates to the flexible dynamic coverage wireless communication system. In one such patent application CN 109041069 B, the invention discloses a method for adjusting router signal coverage range using wide beam antennas that can be directed toward terminal devices based on signal strength feedback. The system employs pairs of opposing wide beam antennas with switching mechanisms to concentrate coverage in areas where terminal devices are detected. While this approach offers dynamic coverage adjustment capabilities, it does not provide comprehensive user-configurable directional control or AI-based learning features for automatic coverage optimization based on usage patterns.

[0006] Keeping in view the challenges associated with the state of the art, there is a need for a flexible WiFi coverage system that enables dynamic directional configuration while minimizing power consumption and electromagnetic radiation exposure, thereby providing a configurable antenna array system with user-controlled and AI-assisted directional coverage management that optimizes WiFi performance based on real-time usage requirements. OBJECTIVES OF THE INVENTION

[0007] The primary objective of the present invention is to provide a dynamic directional WiFi coverage system that enables selective coverage control through configurable antenna arrays, allowing users to optimize signal distribution based on real-time usage requirements and spatial needs.

[0008] Another objective of the present invention is to minimize power consumption and electromagnetic radiation exposure by directing WiFi signals only to areas where coverage is needed, thereby reducing wasteful omnidirectional transmission in unused zones.

[0009] Another objective of the present invention is to implement AI-based learning capabilities that automatically adjust directional coverage patterns based on historical usage data and real-time device connectivity patterns in different angular locations.

[0010] Another objective of the present invention is to provide user-configurable control mechanisms that allow manual adjustment of coverage patterns through remote assistance or directconfiguration on the WiFi router system, enabling switching between directional and omnidirectional modes as needed.

[0011] Another objective of the present invention is to enhance WiFi security by preventing signal extension beyond intended boundaries, thereby reducing unauthorized access risks while maintaining optimal coverage within designated areas.

[0012] Another objective of the present invention is to implement sensing features that detect WiFi usage activity in specific angular directions and automatically disable corresponding directional antennas during periods of inactivity, providing additional power savings and radiation reduction.

[0013] Yet another objective of the present invention is to optimize network scanning processes by reducing unnecessary scanning attempts for unknown networks, thereby conserving device power and improving connection efficiency for known WiFi networks.

[0014] Other objectives and advantages of the present invention will become apparent from the following description taken in connection with the accompanying drawings, wherein, by way of illustration and example, the aspects of the present invention are disclosed. SUMMARY OF THE INVENTION

[0015] The present invention relates to a flexible dynamic coverage wireless communication system comprising a wireless communication router device having a plurality of rotatable directional antennas with integrated control, monitoring, and beamforming capabilities. The system includes a control module for receiving user configuration input, an antenna rotation control module for positioning the rotatable directional antennas according to desired coverage patterns, a monitoring module for tracking usage and automatically adjusting antenna positions, and beamforming capabilities for electronic beam steering, all working in coordination with a user configuration remote device and connected user devices to provide optimized Wi-Fi coverage through both omnidirectional and dynamic directional coverage modes. The integration of artificial intelligence algorithms for real-time usage pattern analysis and automatic antenna positioning optimization, combined with advanced Wi-Fi scanning features that prioritize known networks, makes the system suitable for residential, commercial, and industrial applications where flexible and efficient wireless coverage management is essential.BRIEF DESCRIPTION OF FIGURES

[0016] The present invention will be better understood after reading the following detailed description of the presently preferred aspects thereof with reference to the appended drawings, in which the features, other aspects and advantages of certain exemplary embodiments of the invention will be more apparent from the accompanying drawing in which:

[0017] Figure 1 illustrates a block diagram of the flexible dynamic coverage wireless communication system.

[0018] Figure. 2 illustrates a flowchart for a method (200) of providing flexible dynamic Wi-Fi coverage using rotatable antennas; and

[0019] Figure.3 illustrates a flowchart for a method (200) of managing coverage modes, frequency bands in a wireless communication system and active set of antennas.

[0020] Common reference numerals are used throughout the figures to indicate similar features. DETAILED DESCRIPTION OF THE INVENTION

[0021] The following detailed description and embodiments set forth herein below are merely exemplary out of the wide variety and arrangement of instructions which can be employed with the present invention. The present invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. All the features disclosed in this specification may be replaced by similar other or alternative features performing similar or same or equivalent purposes. Thus, unless expressly stated otherwise, they all are within the scope of the present invention.

[0022] Accordingly, those of ordinary skill in the art will recognize that various changes and modifications of the embodiments described herein can be made without departing from the scope of the invention. In addition, descriptions of well-known functions and constructions are omitted for clarity and conciseness.

[0023] The terms and words used in the following description and claims are not limited to the bibliographical meanings but are merely used to enable a clear and consistent understanding of the invention. Accordingly, it should be apparent to those skilled in the art that the followingdescription of exemplary embodiments of the present invention are provided for illustration purpose only and not for the purpose of limiting the invention.

[0024] It is to be understood that the singular forms “a,” “an,” and “the” include plural referents unless the context clearly dictates otherwise.

[0025] It should be emphasized that the term “comprises / comprising” when used in this specification is taken to specify the presence of stated features, integers, steps, or components but does not preclude the presence or addition of one or more other features, integers, steps, components, or groups thereof.

[0026] Accordingly, the present disclosure relates to wireless communication systems that provide flexible dynamic coverage capabilities for Wi-Fi and other wireless communication protocols. The disclosed systems address limitations in conventional wireless routers that provide static omnidirectional coverage patterns, which can result in inefficient power usage, unnecessary electromagnetic radiation exposure, and potential security concerns from coverage extending beyond intended areas.

[0027] As illustrated in figure 1, the flexible dynamic coverage wireless communication system (100) comprises a wireless communication router device (102) equipped with a plurality of rotatable directional antennas (104) to enable targeted coverage control. The system (100) includes a control module (106) to manage user configuration inputs and operational modes, working in coordination with an antenna rotation control module (108) to position the rotatable directional antennas (104) according to desired coverage patterns. A monitoring module (110) tracks device usage and activity patterns within coverage areas, while beamforming capabilities (112) provide electronic beam steering and dynamic parameter adjustment. The system (100) further incorporates a user configuration remote device (114) for wireless control and configuration, and supports connection with at least one user device (116) through Wi-Fi protocols. An artificial intelligence module (118) analyzes usage patterns and automatically optimizes coverage configurations, while position feedback sensors (120) verify antenna orientations. The coverage area is divided into specific angular coverage locations (122) which can be dynamically configured based on user requirements and environmental factors. The artificial intelligence-based configuration capabilities allow the system to minimize radiation exposure to non-requireddirections, which provides health benefits by reducing unnecessary electromagnetic field exposure in areas with no active wireless usage.

[0028] In the present invention, the wireless communication router device (102) incorporates a plurality of rotatable directional antennas (104) configured to provide comprehensive wireless coverage through advanced antenna positioning capabilities. The wireless communication router device (102) utilizes an array of directional antennas to achieve complete 360-degree coverage of a designated area, where in one implementation, the antennas are implemented as fixed directional antennas rather than rotatable antennas in certain configurations and their coverage direction may be achieved by different phase configurations. Each directional antenna or group of directional antennas contributes to Wi-Fi coverage in a specific direction represented by an angular coverage location, where the size of the angular coverage location is dynamic and based on configuration type or other implementation-specific factors.

[0029] The plurality of rotatable directional antennas (104) enables the wireless communication router device (102) to selectively direct wireless signals toward specific coverage areas while reducing signal transmission to areas where coverage is not required. The directional antenna configuration allows for enhanced signal strength and coverage quality in targeted directions while minimizing power consumption and electromagnetic radiation exposure in non-required directions. The angular coverage locations adjust dynamically based on user requirements, environmental conditions, and real-time usage patterns detected by the system monitoring capabilities.

[0030] In an exemplary embodiment, the wireless communication router device (102) includes eight directional antennas arranged in a circular configuration, with each antenna covering a 45- degree angular coverage location to provide complete 360-degree coverage capability. The directional antennas are selectively activated or deactivated based on coverage requirements, allowing the system to provide targeted coverage to specific areas such as living rooms, bedrooms, or office spaces while reducing coverage to outdoor areas or unused portions of a building. The angular coverage locations resize from the standard 45-degree configuration to larger or smaller coverage areas depending on the specific deployment requirements and user preferences.

[0031] The control module (106) serves as a central coordination component within the wireless communication router device (102), providing comprehensive management of user configurationinputs and operational mode selection. The control module (106) receives user configuration input for coverage area preferences and operational modes, enabling users to specify desired coverage patterns, antenna positioning parameters, and switching between omnidirectional coverage mode and dynamic directional coverage mode. The control module (106) processes configuration data from multiple input sources and translates user preferences into actionable control signals for antenna positioning and coverage optimization. The control module (106) communicates internally with the antenna rotation control module (108) to coordinate antenna positioning based on user-defined coverage requirements and automatic optimization algorithms.

[0032] The control module (106) incorporates dual configuration pathways to accommodate different user preferences and operational scenarios. The control module (106) receives user input through the user configuration remote device (114) for wireless remote control capabilities, allowing users to adjust coverage parameters and antenna positioning from remote locations within the wireless network range. The control module (106) also supports direct manual configuration on the wireless communication router device (102) as an alternative to remote assistance for controlling angular coverage locations, providing users with local access to configuration settings through physical interface controls or direct device interaction. The manual configuration capability ensures system accessibility when remote configuration devices are unavailable or when users prefer direct device interaction for coverage area control.

[0033] In an exemplary embodiment, the control module (106) comprises a touchscreen interface integrated into the wireless communication router device (102) housing, allowing users to select specific angular coverage areas through graphical representation of the 360-degree coverage space. The control module (106) displays real-time coverage maps showing active and inactive angular coverage locations, with users able to tap specific directional areas to activate or deactivate coverage in those regions. The control module (106) stores multiple configuration profiles, enabling users to switch between predefined coverage patterns such as "daytime office mode" with coverage directed toward work areas, "evening entertainment mode" with coverage focused on living room and entertainment areas, and "security mode" with reduced coverage to prevent signal extension beyond building boundaries.

[0034] The antenna rotation control module (108) operates in direct coordination with the control module (106) to execute precise antenna positioning commands and manage the mechanicalrotation mechanisms that enable dynamic coverage control. The antenna rotation control module (108) comprises mechanical rotation mechanisms capable of 360-degree antenna positioning, allowing each directional antenna within the plurality of rotatable directional antennas (104) to be oriented toward any desired angular position within the coverage area. The mechanical rotation mechanisms include servo motors, stepper motors, or other precision actuators that provide controlled rotational movement with sufficient torque to position directional antennas accurately while maintaining stable positioning during operation. The antenna rotation control module (108) incorporates position feedback sensors (120) for verifying antenna orientations and ensuring accurate positioning relative to commanded angular positions, with the position feedback sensors (120) providing real-time orientation data to confirm successful antenna positioning and detect any positioning errors that may require correction.

[0035] The antenna rotation control module (108) includes coordination logic for managing the plurality of rotatable directional antennas (104) simultaneously, enabling multiple antennas to be repositioned concurrently or sequentially based on coverage optimization requirements and system performance considerations. The coordination capabilities include rotation scheduling algorithms for time-based coverage optimization, allowing the antenna rotation control module (108) to execute predetermined antenna positioning sequences that align with usage patterns, user preferences, or automated optimization routines determined by the artificial intelligence module (118). The antenna rotation control module (108) receives positioning commands from the control module (106) and translates these commands into specific motor control signals that drive the mechanical rotation mechanisms to achieve desired antenna orientations, while the position feedback sensors (120) provide continuous monitoring of antenna positions to ensure positioning accuracy and system reliability.

[0036] In an exemplary embodiment, the antenna rotation control module (108) manages eight directional antennas arranged around the perimeter of the wireless communication router device (102), with each antenna mounted on a precision servo motor capable of 360-degree rotation with 1-degree positioning accuracy. The position feedback sensors (120) comprise optical encoders integrated with each servo motor to provide real-time angular position data with 0.1-degree resolution, enabling the antenna rotation control module (108) to verify that each antenna reaches the commanded position within acceptable tolerance limits. The coordination logic executes complex positioning sequences such as directing four antennas toward a high-usage area duringpeak activity periods while rotating the remaining antennas to provide background coverage to other areas, with the rotation scheduling algorithms managing smooth transitions between different coverage configurations to avoid service interruptions during antenna repositioning operations.

[0037] The monitoring module (110) operates as an integrated component within the wireless communication router device (102) to provide comprehensive tracking of device usage and activity patterns across all coverage areas served by the plurality of rotatable directional antennas (104). The monitoring module (110) connects directly to the control module (106) and antenna rotation control module (108) to provide real-time feedback data that enables dynamic coverage adjustments based on detected usage patterns and device connectivity activity. The monitoring module (110) tracks router device usage and activity in coverage areas through continuous analysis of signal strength measurements, data transmission volumes, device connection events, and user density calculations for each angular coverage location (122) within the 360-degree coverage space. The monitoring module (110) provides internal feedback to the antenna rotation control module (108) for dynamic adjustments, enabling automatic antenna repositioning based on usage pattern changes, device mobility, and coverage optimization requirements determined through ongoing activity analysis.

[0038] The monitoring module (110) incorporates sensing capabilities to detect periods of inactivity within specific angular coverage locations (122), allowing the system (100) to identify areas where Wi-Fi usage has ceased for predetermined time periods. The sensing feature detects no activity of Wi-Fi usage for a certain period in an angular direction, triggering automated responses where corresponding directional antennas may be turned off for a certain time period to conserve power and reduce electromagnetic radiation exposure in unused coverage areas. The monitoring module (110) schedules periodic reactivation of deactivated antennas to check for renewed activity in previously inactive angular directions, ensuring that coverage becomes available when devices reconnect or users return to previously unused areas. The monitoring module (110) maintains activity logs and usage statistics for each angular coverage location (122), providing data analysis capabilities that support both manual configuration decisions and automated optimization routines executed by the artificial intelligence module (118).

[0039] In an exemplary embodiment, the monitoring module (110) tracks eight angular coverage locations (122) corresponding to the directional coverage areas served by the plurality of rotatabledirectional antennas (104), with each angular coverage location (122) monitored for device connection events, data transmission activity, and signal strength measurements updated every 30 seconds. The monitoring module (110) detects inactivity when no data transmission occurs within a specific angular coverage location (122) for a configurable time period such as 15 minutes, automatically signaling the antenna rotation control module (108) to deactivate the corresponding directional antenna to reduce power consumption. The monitoring module (110) schedules reactivation checks every 5 minutes for deactivated coverage areas, briefly enabling the directional antenna to scan for device connection requests or renewed activity, with successful detection of activity resulting in full reactivation of coverage for that angular coverage location (122) while continued inactivity extends the deactivation period for additional power savings. In other implementation for the inactive areas, the device may keep a low power mode radiation to see if any request for connection and may move to the full power mode connection. This further help to dynamic selective low power mode in different direction.

[0040] The beamforming capabilities (112) operate in direct coordination with the monitoring module (110) to provide advanced electronic beam steering and dynamic parameter adjustment based on real-time usage data and device connectivity patterns detected across the angular coverage locations (122). The beamforming capabilities (112) receive continuous feedback from the monitoring module (110) regarding signal strength measurements, user density calculations, and device location data to execute precise directional targeting through phase array control mechanisms. The electronic beam steering functionality adjusts antenna phase relationships for directional coverage control, enabling the wireless communication router device (102) to focus signal transmission toward specific device locations while minimizing interference and signal dispersion to unused coverage areas. The beamforming capabilities (112) incorporate dynamic beam parameter adjustment based on device locations and signal quality requirements using signal-to-noise ratio measurements provided by the monitoring module (110), allowing the system (100) to optimize signal characteristics for individual connected devices based on their specific location and communication requirements within the coverage area.

[0041] The coordination between multiple beamforming antennas enables optimized coverage distribution using interference mitigation algorithms that process usage pattern data from the monitoring module (110) to prevent signal conflicts and maximize overall system performance. The beamforming capabilities (112) manage simultaneous beam steering operations across theplurality of rotatable directional antennas (104), coordinating phase adjustments and signal parameters to ensure that multiple directional beams operate without creating destructive interference patterns or coverage gaps within the angular coverage locations (122). The coordination algorithms analyze device density information from the monitoring module (110) to determine optimal beam configurations that serve multiple devices efficiently while maintaining signal quality standards and minimizing power consumption through targeted signal delivery. The beamforming capabilities (112) execute real-time beam parameter modifications based on device mobility patterns detected by the monitoring module (110), automatically adjusting beam width, signal strength, and directional focus to maintain connectivity as devices move between different angular coverage locations (122) within the wireless network coverage area.

[0042] In an exemplary embodiment, the beamforming capabilities (112) manage a phased array antenna system comprising 32 individual antenna elements arranged in four groups of eight elements, with each group corresponding to a specific angular coverage location (122) monitored by the monitoring module (110). The electronic beam steering adjusts phase relationships between antenna elements with 5-degree beam steering resolution, enabling the beamforming capabilities (112) to direct focused signal beams toward specific device locations identified through signal strength analysis performed by the monitoring module (110). The coordination between multiple beamforming antennas executes simultaneous beam steering operations where two angular coverage locations (122) with high device density receive focused beams with 15-degree beam width, while adjacent coverage areas with lower activity levels receive broader beams with 30- degree beam width to provide background coverage. The interference mitigation algorithms process signal-to-noise ratio measurements from the monitoring module (110) to detect potential interference conditions, automatically adjusting beam parameters such as transmission power levels and phase relationships to maintain signal quality above -70 dBm for all connected devices while reducing electromagnetic radiation exposure in coverage areas with no active device connections.

[0043] The user configuration remote device (114) establishes a wireless connection to the wireless communication router device (102) to provide comprehensive remote control capabilities for coverage parameters, antenna positioning, and operational mode management. The user configuration remote device (114) communicates with the control module (106) through Wi-Fi protocols, Bluetooth connectivity, or dedicated wireless communication channels to transmitconfiguration commands and receive system status information from the wireless communication router device (102). The wireless connection enables users to adjust coverage area preferences, specify angular coverage locations (122) for activation or deactivation, and modify antenna rotation angles without requiring physical access to the wireless communication router device (102). The user configuration remote device (114) supports real-time configuration changes, allowing users to switch between omnidirectional coverage mode and dynamic directional coverage mode based on immediate requirements or changing usage patterns within the coverage area.

[0044] The user configuration remote device (114) incorporates user interface capabilities that display current system status, coverage area maps, and antenna positioning information received from the wireless communication router device (102) through the established wireless connection. The user interface provides graphical representations of the 360-degree coverage space divided into angular coverage locations (122), enabling users to visualize active and inactive coverage areas and make informed decisions about coverage modifications. The user configuration remote device (114) transmits configuration data to the control module (106), which processes the remote commands and coordinates with the antenna rotation control module (108) to execute requested antenna positioning changes and coverage adjustments. The wireless communication between the user configuration remote device (114) and the wireless communication router device (102) includes authentication protocols and encryption mechanisms to prevent unauthorized access to system configuration capabilities and maintain network security during remote control operations.

[0045] In an exemplary embodiment, the user configuration remote device (114) comprises a smartphone application that connects to the wireless communication router device (102) through the existing Wi-Fi network, providing users with a touchscreen interface for coverage area management and antenna positioning control. The smartphone application displays a circular coverage map representing the 360-degree coverage space, with eight angular coverage locations (122) shown as selectable segments that users can tap to activate or deactivate coverage in specific directions. The user configuration remote device (114) includes preset configuration options such as "Home Mode" that activates coverage toward interior rooms while deactivating coverage toward outdoor areas, "Office Mode" that focuses coverage on work areas during business hours, and "Sleep Mode" that reduces coverage to bedroom areas during nighttime hours while deactivating coverage to other angular coverage locations (122). The smartphone application receives real-timeupdates from the monitoring module (110) showing device connection counts and activity levels for each angular coverage location (122), enabling users to make informed coverage decisions based on current usage patterns and adjust antenna positioning to optimize coverage distribution across active areas.

[0046] The at least one user device (116) establishes wireless connectivity to the wireless communication router device (102) through Wi-Fi protocols to enable internet access and local network communication within the flexible dynamic coverage wireless communication system (100). The at least one user device (116) incorporates Wi-Fi connectivity capabilities that support multiple wireless communication standards including Wi-Fi 4, Wi-Fi 5, Wi-Fi 6, and future Wi-Fi standards to ensure compatibility with advanced communication protocols managed by the wireless communication router device (102). The at least one user device (116) includes optimized scanning features configured to prioritize known networks and reduce scanning time for unknown networks, where the user device (116) may avoid scanning of other Wi-Fi networks which are not known or not connected to the user device (116) in a number of scanned attempts. The user configuration capabilities allow users to configure the wireless communication router device (102) to not attempt other Wi-Fi network scanning, reducing power consumption and processing overhead associated with continuous network discovery operations for networks that remain consistently unavailable or unauthorized for connection.

[0047] The optimized scanning features extend beyond Wi-Fi network connectivity to encompass other wireless local area network connectivity features such as Bluetooth scanning and connection processes, where the at least one user device (116) may be configured to avoid repeated scanning attempts for unknown networks across multiple wireless communication protocols. The scanning optimization reduces power consumption within the at least one user device (116) by eliminating unnecessary scanning operations for wireless networks that have been previously identified as unavailable, unauthorized, or incompatible with the user device (116) connectivity requirements. The at least one user device (116) maintains stored authentication credentials for connecting to known networks, enabling rapid connection establishment to authorized wireless networks without requiring repeated authentication processes or extended network discovery procedures. The connectivity optimization features coordinate with the monitoring module (110) and artificial intelligence module (118) within the wireless communication router device (102) to provide enhanced coverage when the at least one user device (116) is positioned in areas with higher userdensity as automatically detected through usage pattern analysis and device connectivity monitoring.

[0048] In an exemplary embodiment, the at least one user device (116) comprises personal computers, mobile devices, smartphones, laptops, tablets, and smart home devices that connect to the wireless communication router device (102) through the angular coverage locations (122) served by the plurality of rotatable directional antennas (104). A smartphone configured as the user device (116) includes Wi-Fi scanning optimization that maintains a blacklist of 50 unknown network identifiers that have been scanned unsuccessfully during 10 or more connection attempts, with the smartphone avoiding future scanning attempts for blacklisted networks to reduce battery consumption and connection establishment time. A laptop computer configured as the user device (116) incorporates Bluetooth scanning optimization that suppresses discovery attempts for Bluetooth devices that have been detected but remain unpaired after 5 scanning cycles, reducing processor utilization and wireless radio activity during Bluetooth connectivity operations. Smart home devices configured as user devices (116) store authentication credentials for the wireless communication router device (102) and automatically connect to the strongest available angular coverage location (122) based on signal strength measurements, with the devices receiving enhanced coverage allocation when the artificial intelligence module (118) detects multiple smart home devices operating within the same angular coverage location (122) during peak usage periods.

[0049] The artificial intelligence module (118) provides advanced machine learning capabilities that analyze real-time directional usage patterns and device connectivity data to enable automatic optimization of coverage configurations across the angular coverage locations (122) served by the plurality of rotatable directional antennas (104). The artificial intelligence module (118) incorporates machine learning algorithms that process signal strength measurements, user density calculations, and historical usage patterns to generate specific rotation angle values and coverage optimization parameters for the antenna rotation control module (108). The machine learning algorithms analyze time-based usage patterns for different coverage areas using historical data processing, enabling the artificial intelligence module (118) to learn recurring usage patterns such as television room areas requiring Wi-Fi coverage during specific time slots, office areas needing enhanced coverage during business hours, and bedroom areas requiring coverage during evening hours. The artificial intelligence module (118) executes automatic switching to directionalcoverage in different angular directions based on real-time use case learning, where the system (100) directs enhanced coverage toward areas with detected device activity while reducing coverage to angular coverage locations (122) with minimal or no usage activity.

[0050] The artificial intelligence module (118) incorporates sensing capabilities that detect inactivity in specific coverage areas and automatically deactivate rotatable directional antennas (104) serving inactive areas to conserve power and minimize electromagnetic radiation exposure in areas with no active Wi-Fi usage. The radiation minimization capabilities provide health benefits by reducing unnecessary electromagnetic field exposure in non-required directions, where the artificial intelligence module (118) coordinates with the antenna rotation control module (108) to rotate antennas away from unused coverage areas and focus signal transmission toward areas with active device connectivity. The artificial intelligence module (118) predicts future coverage requirements based on historical usage data and optimizes antenna rotation schedules for different time periods, enabling the system (100) to proactively adjust coverage patterns before usage pattern changes occur. The artificial intelligence module (118) continuously learns and adapts coverage patterns based on user behavior and environmental changes, with the machine learning algorithms updating optimization parameters through ongoing analysis of device connectivity events, data transmission volumes, and usage pattern variations detected across the angular coverage locations (122).

[0051] In an exemplary embodiment, the artificial intelligence module (118) employs neural network algorithms and decision tree learning models to analyze usage patterns collected over a 30-day period, identifying recurring patterns such as television room coverage requirements between 7:00 PM and 11:00 PM on weekdays and extended coverage periods during weekend hours. The machine learning algorithms process device connection timestamps, data transmission volumes, and signal strength measurements to generate predictive models that anticipate coverage requirements with 85% accuracy based on historical usage data analysis. The artificial intelligence module (118) implements reinforcement learning algorithms that adjust coverage optimization parameters based on user satisfaction metrics derived from connection success rates and data transmission performance measurements, with the system (100) automatically increasing coverage allocation to angular coverage locations (122) that demonstrate improved performance metrics following coverage adjustments. The time-based usage pattern recognition identifies specific scenarios such as home office areas requiring enhanced coverage during 9:00 AM to 5:00 PMperiods on weekdays, entertainment areas needing coverage during evening hours, and reduced coverage requirements during overnight periods when device activity decreases across multiple angular coverage locations (122), enabling the artificial intelligence module (118) to minimize electromagnetic radiation exposure during periods of low usage activity while maintaining coverage availability for active usage areas.

[0052] The angular coverage locations (122) represent specific directional coverage areas within the 360-degree coverage space served by the plurality of rotatable directional antennas (104), where each angular coverage location (122) corresponds to a defined angular segment that receives targeted wireless signal transmission from one or more directional antennas. Each directional antenna or group of directional antennas contributes to Wi-Fi coverage in a direction represented by an angular coverage location (122), where the size of the angular coverage location (122) is dynamic and based on type of configuration or other factors and implementation specific requirements. The angular coverage locations (122) are configured to provide comprehensive coverage distribution across the entire 360-degree coverage space while enabling selective activation and deactivation of specific directional coverage areas based on user requirements, usage patterns, and environmental factors detected by the monitoring module (110). The dynamic sizing capability allows angular coverage locations (122) to expand or contract based on device density, signal propagation requirements, and coverage optimization algorithms executed by the artificial intelligence module (118), with larger angular coverage locations (122) providing broader coverage areas for high-activity zones and smaller angular coverage locations (122) enabling focused coverage for specific device locations or usage scenarios.

[0053] The antenna configurations support both individual antenna operation and group antenna operation modes, where individual rotatable directional antennas (104) may serve single angular coverage locations (122) for standard coverage scenarios, while groups of rotatable directional antennas (104) operate in carrier aggregation mode to enhance coverage in specific angular directions that require increased signal strength, bandwidth capacity, or device connectivity support and also group of rotatable directional antennas (104) may help to angular coverage with high signal strength and increased coverage distance . The carrier aggregation mode coordinates multiple rotatable directional antennas (104) to serve a single angular coverage location (122) through synchronized signal transmission, phase coordination, and power distribution algorithms that combine the transmission capabilities of multiple antennas to achieve enhanced coverageperformance within the targeted angular coverage area. The antenna configurations adapt dynamically based on coverage requirements detected through usage pattern analysis, device connectivity monitoring, and signal quality measurements, with the system (100) automatically transitioning between individual antenna operation and group antenna operation modes to maintain coverage quality standards while optimizing power consumption and electromagnetic radiation distribution across the angular coverage locations (122).

[0054] In an exemplary embodiment, the 360-degree coverage space is divided into twelve angular coverage locations (122) of 30 degrees each, served by twelve rotatable directional antennas (104) arranged in a circular configuration around the wireless communication router device (102), with each angular coverage location (122) initially configured to provide standard coverage using a single directional antenna operating at 20 dBm transmission power. The carrier aggregation mode activates when the monitoring module (110) detects high device density or increased bandwidth requirements within specific angular coverage locations (122), such as an entertainment area with multiple streaming devices, where three adjacent rotatable directional antennas (104) coordinate to serve a single 90-degree angular coverage location (122) with combined transmission power of 35 dBm and enhanced signal processing capabilities. The dynamic sizing capability adjusts angular coverage locations (122) based on real-time requirements, with low-activity areas served by expanded 60-degree angular coverage locations (122) using reduced transmission power to conserve energy, while high-activity areas receive focused 15-degree angular coverage locations (122) with concentrated signal transmission to maximize coverage quality and device connectivity performance within the targeted coverage area.

[0055] The operational modes of the flexible dynamic coverage wireless communication system (100) comprise omnidirectional coverage mode and dynamic directional coverage mode, with the control module (106) managing transitions between these operational configurations based on user selection or automatic optimization algorithms. The omnidirectional coverage mode utilizes all rotatable directional antennas (104) in a broadcast pattern for comprehensive area coverage, where the antenna rotation control module (108) positions the plurality of rotatable directional antennas (104) to provide uniform signal distribution across the entire 360-degree coverage space. The dynamic directional coverage mode selectively activates and positions specific rotatable directional antennas (104) for targeted angular coverage areas, enabling the system (100) to concentrate wireless signal transmission toward specific directions while reducing or eliminatingcoverage to areas where wireless connectivity is not required. The mode switching capability addresses coverage extending outside home or building boundaries where possible fear of theft of service exists, allowing users to configure directional coverage patterns that focus signal transmission toward interior spaces while minimizing signal propagation to outdoor areas or adjacent properties where unauthorized access to wireless services may occur.

[0056] The switching mechanism between operational modes executes through the control module (106) processing user configuration input received from the user configuration remote device (114) or direct manual configuration interfaces, with the control module (106) coordinating with the antenna rotation control module (108) to reposition the rotatable directional antennas (104) according to the selected operational mode requirements. The automatic optimization algorithms analyze usage patterns detected by the monitoring module (110) and artificial intelligence module (118) to determine appropriate operational mode selection based on device connectivity patterns, coverage area activity levels, and security considerations related to signal propagation beyond intended coverage boundaries. The omnidirectional coverage mode provides traditional wireless router functionality with enhanced antenna positioning capabilities, while the dynamic directional coverage mode enables selective coverage control that reduces electromagnetic radiation exposure in unused areas and prevents wireless signal extension to locations where service theft concerns exist. The operational mode transitions execute seamlessly without interrupting existing device connections, with the antenna rotation control module (108) managing gradual antenna repositioning sequences that maintain coverage continuity during mode switching operations.

[0057] In an exemplary embodiment, the system (100) operates in omnidirectional coverage mode during initial setup and guest access periods, with all twelve rotatable directional antennas (104) positioned to provide uniform coverage across the 360-degree coverage space at standard transmission power levels of 20 dBm per antenna. The system (100) switches to dynamic directional coverage mode during evening hours when the artificial intelligence module (118) detects concentrated device activity in specific angular coverage locations (122) such as living room and bedroom areas, with the control module (106) directing eight rotatable directional antennas (104) toward interior coverage areas while deactivating four antennas that previously provided coverage toward outdoor areas or adjacent properties. The mode switching includes security-focused configurations where users select "boundary protection mode" through the user configuration remote device (114), causing the system (100) to activate dynamic directionalcoverage mode with coverage patterns that terminate at building walls or property boundaries to prevent signal propagation beyond intended coverage areas. The operational mode transitions complete within 30 seconds as the antenna rotation control module (108) executes coordinated antenna repositioning sequences, with the position feedback sensors (120) confirming successful antenna positioning before the control module (106) activates the new coverage pattern and updates the monitoring module (110) to track device connectivity within the modified angular coverage locations (122). In manual configuration mode, the remote device may configure the direction of the coverage manually to get the coverage or high coverage in desired direction.

[0058] As illustrated in figure 2, in an embodiment, the present invention also relates to a method (200) for providing flexible dynamic Wi-Fi coverage using rotatable antennas and artificial intelligence optimization. The method (200) comprises multiple coordinated steps that enable comprehensive coverage control and optimization across angular coverage locations within a wireless communication system. The method (200) incorporates user configuration capabilities, automated optimization algorithms, and real-time monitoring functions to provide enhanced wireless coverage management compared to conventional static wireless router systems.

[0059] As illustrated in figure 2, the method (200) of implementation of flexible dynamic coverage wireless communication system (100), comprises the following steps: • receiving (202) user configuration input for coverage mode selection between omnidirectional coverage mode and dynamic directional coverage mode, where the user configuration input includes selection of specific angular coverage areas and antenna rotation preferences through wireless remote control devices or direct manual configuration interfaces; • initializing (204) a wireless communication router system with a plurality of rotatable directional antennas, where the initialization process establishes communication pathways between control modules, antenna rotation control modules, monitoring modules, and artificial intelligence modules within the wireless communication router system; • determining (206) optimal antenna rotation angles based on desired coverage patterns, where the determination process comprises analyzing real-time usage patterns and device connectivity data using artificial intelligence algorithms configured to processsignal strength measurements, user density calculations, and historical usage patterns to generate specific rotation angle values; • mechanically rotating (208) selected rotatable directional antennas to target positions, where the mechanical rotation process comprises coordinating multiple antennas simultaneously for optimized coverage distribution using servo motors, stepper motors, and position feedback sensors to achieve precise antenna positioning; • activating (210) the rotatable directional antennas in configured orientations to provide Wi-Fi coverage, where the activation process includes electronic beam steering capabilities, beamforming parameter adjustment, and signal transmission coordination across multiple directional antennas serving specific angular coverage locations; • determining (211) whether automatic mode is enabled for coverage optimization, where the determination process evaluates system configuration settings and user preferences to enable or disable automated antenna positioning and coverage adjustment functions; • monitoring (212) Wi-Fi usage and activity in coverage areas, where the monitoring process comprises tracking user density in different coverage areas and detecting inactive coverage zones through continuous analysis of device connection events, data transmission volumes, and signal strength measurements; • dynamically adjusting (214) antenna positions and configurations based on real-time usage patterns and optimization algorithms, where the dynamic adjustment process comprises automatically enhancing coverage in directions with higher user density and deactivating antennas serving inactive areas to conserve power and reduce electromagnetic radiation exposure.

[0060] The method (200) as illustrated in figure 3 , further comprises additional optimization steps that enhance system performance and provide comprehensive coverage management capabilities: • comprising determining (215) whether to switch coverage mode based on user selection or automatic optimization algorithms, where the determination process evaluates current operational requirements and coverage effectiveness;• switching (216) between omnidirectional coverage mode and dynamic directional coverage mode based on user selection or automatic optimization algorithms, where the switching process coordinates antenna repositioning sequences and coverage pattern transitions without interrupting existing device connections; • managing (218) multiple frequency bands comprising 2.4 GHz, 5 GHz, 6 GHz and other frequency bands along with active set of antennas, and selectively activating optimal frequency band based on coverage requirements and environmental factors detected through signal propagation analysis and device compatibility assessment; • determining whether AI-based control is enabled for automatic optimization using predefined configuration parameters and user preference settings, where the determination process evaluates system configuration data and user authorization levels to enable or disable artificial intelligence-based coverage optimization functions; • coordinating beamforming capabilities for electronic beam steering through phase array control, dynamic beam parameter adjustment based on signal-to-noise ratio measurements, and coordination between multiple beamforming antennas for optimized coverage distribution using interference mitigation algorithms.

[0061] The method (200) incorporates sensing capabilities that detect periods of inactivity within specific angular coverage locations, where the sensing process identifies areas where Wi-Fi usage has ceased for predetermined time periods and triggers automated responses to deactivate corresponding directional antennas for power conservation and electromagnetic radiation reduction. The method (200) includes periodic reactivation procedures that schedule brief activation periods for deactivated antennas to check for renewed activity in previously inactive angular directions, ensuring coverage availability when devices reconnect or users return to previously unused areas. The method (200) maintains activity logs and usage statistics for each angular coverage location, providing data analysis capabilities that support both manual configuration decisions and automated optimization routines executed through machine learning algorithms and historical usage pattern analysis.

[0062] The flexible dynamic coverage wireless communication system addresses multiple technical challenges present in conventional wireless router designs while providing enhanced functionality and operational benefits. The system enables optimized coverage distributionthrough selective antenna positioning and intelligent coverage management, allowing wireless signal transmission to be directed toward areas with active device connectivity while reducing signal propagation to unused coverage areas. The optimized coverage capabilities result in improved signal strength and connection quality for devices located within targeted coverage zones, while the selective activation of directional antennas reduces overall power consumption compared to traditional omnidirectional wireless router systems that continuously transmit signals in all directions regardless of usage patterns.

[0063] The power consumption reduction occurs through multiple operational mechanisms within the system. The monitoring capabilities detect periods of inactivity within specific angular coverage locations and automatically deactivate corresponding directional antennas serving unused areas, eliminating unnecessary power consumption associated with signal transmission to areas without active device connectivity. The artificial intelligence-based optimization algorithms coordinate antenna activation patterns based on real-time usage analysis, ensuring that power resources are allocated efficiently to coverage areas with demonstrated connectivity requirements while minimizing power expenditure in areas with minimal or no wireless activity. The selective antenna activation approach provides substantial power savings compared to conventional wireless routers that maintain continuous omnidirectional signal transmission regardless of actual coverage utilization patterns.

[0064] The electromagnetic radiation reduction capabilities address health and environmental concerns associated with continuous wireless signal transmission in all directions. The directional antenna positioning enables the system to minimize electromagnetic radiation exposure in areas where wireless coverage is not required, focusing signal transmission toward specific angular coverage locations with active device connectivity while reducing radiation levels in unused coverage areas. The artificial intelligence module coordinates radiation minimization by automatically rotating antennas away from areas with no active wireless usage, concentrating electromagnetic field exposure within targeted coverage zones where wireless connectivity is actively utilized. The radiation reduction approach provides health benefits by limiting unnecessary electromagnetic field exposure in residential and office environments, particularly in areas such as bedrooms, unused rooms, or outdoor spaces where wireless coverage is not required during specific time periods.

[0065] The system addresses security concerns related to wireless signal propagation beyond intended coverage boundaries, where conventional omnidirectional wireless routers may extend coverage to outdoor areas or adjacent properties where unauthorized access to wireless services may occur. The directional coverage capabilities enable users to configure coverage patterns that focus signal transmission toward interior spaces while minimizing signal propagation to areas outside building boundaries, reducing the potential for service theft or unauthorized network access. The boundary control functionality allows users to specify coverage termination points that align with property boundaries or building walls, ensuring that wireless signal strength remains insufficient for reliable connectivity beyond intended coverage areas while maintaining adequate signal levels within authorized usage zones.

[0066] The coverage optimization extends beyond basic directional control to include intelligent adaptation based on usage patterns and environmental factors. The artificial intelligence algorithms analyze device connectivity patterns, signal strength requirements, and usage timing to automatically adjust coverage configurations that align with actual wireless usage needs. The adaptive coverage management reduces wasted signal transmission to areas with consistently low usage while enhancing coverage quality in areas with high device density or bandwidth requirements. The optimization algorithms coordinate multiple directional antennas to provide carrier aggregation capabilities in high-demand coverage areas, improving connection speeds and reliability for devices located within targeted angular coverage locations.

[0067] The system provides enhanced user control capabilities that enable customized coverage management based on specific usage scenarios and preferences. The dual configuration pathways support both remote wireless control through mobile applications or standalone remote device and direct manual configuration on the wireless router device, providing users with flexible access to coverage management functions. The operational mode switching between omnidirectional and dynamic directional coverage enables users to adapt the system behavior based on changing requirements, such as switching to omnidirectional mode during guest access periods and returning to directional mode for routine usage patterns that benefit from targeted coverage distribution.

[0068] The present invention provides the following advantages:• The present invention provides optimized wireless coverage distribution through selective directional antenna positioning and intelligent coverage management algorithms. • The present invention reduces power consumption by automatically deactivating directional antennas serving inactive coverage areas and coordinating antenna activation patterns based on real-time usage analysis. • The present invention minimizes electromagnetic radiation exposure in unused coverage areas by focusing signal transmission toward specific angular coverage locations with active device connectivity. • The present invention addresses security concerns by enabling coverage pattern configuration that focuses signal transmission toward interior spaces while minimizing signal propagation beyond intended coverage boundaries. • The present invention prevents unauthorized network access and service theft by providing directional coverage control that reduces wireless signal strength in outdoor areas and adjacent properties. • The present invention improves connection quality and signal strength for devices located within targeted coverage zones through coordinated directional antenna positioning and carrier aggregation capabilities. • The present invention provides adaptive coverage management that automatically adjusts coverage configurations based on device connectivity patterns, usage timing, and environmental factors. • The present invention enables customized coverage management through dual configuration pathways supporting both remote wireless control and direct manual configuration interfaces. • The present invention reduces wasted signal transmission by directing wireless coverage toward areas with demonstrated connectivity requirements while eliminating coverage in areas with minimal wireless activity.• The present invention improves operational efficiency through artificial intelligence algorithms that coordinate antenna positioning, power allocation, and coverage optimization based on historical usage data and real-time connectivity analysis.

[0069] Features of any of the examples or embodiments outlined above may be combined to create additional examples or embodiments without losing the intended effect. It should be understood that the description of an embodiment or example provided above is by way of example only, and various modifications could be made by one skilled in the art. Furthermore, one skilled in the art will recognize that numerous further modifications and combinations of various aspects are possible. Accordingly, the described aspects are intended to encompass all such alterations, modifications, and variations that fall within the scope of the appended claims.

Claims

WE CLAIM:

1. A flexible dynamic coverage wireless communication system (100), comprising: a wireless communication router device (102) having a plurality of rotatable directional antennas (104), the wireless communication router device (102) comprising: a control module (106) integrated within the wireless communication router device (102) and configured to receive user configuration input for coverage area preferences and operational modes; an antenna rotation control module (108) integrated within the wireless communication router device (102) and operatively connected to the control module (106), the antenna rotation control module (108) configured to position the rotatable directional antennas (104) according to desired coverage patterns; a monitoring module (110) integrated within the wireless communication router device (102) and configured to track router device usage and activity in coverage areas and automatically adjust antenna positions based on detected usage patterns; beamforming capabilities (112) integrated with the wireless communication router device (102) and configured to provide electronic beam steering, dynamic beam parameter adjustment, and coordination between multiple beamforming antennas; a user configuration remote device (114) wirelessly connected to the wireless communication router device (102) for remote control and configuration for coverage parameters, antenna positioning, and operational modes; at least one user device (116) wirelessly connected to the wireless communication router device (102) through Wi-Fi or 5G, 6G protocols for internet access and localnetwork communication, the at least one user device (116) configured with WIFI connectivity capabilities; wireless communication router device (102) wherein, each rotatable directional antenna (104) is mechanically rotatable through a range of angles to provide targeted coverage in selected directions; the operational modes comprise omnidirectional coverage mode and dynamic directional coverage mode; the control module (106) communicates internally with the antenna rotation control module (108) to coordinate antenna positioning; the monitoring module (110) provides internal feedback to the antenna rotation control module (108) for dynamic adjustments; and the wireless communication router device (102) includes high gain directional antennas (104) configured for electronic beam steering and advanced communication protocols.

2. The system (100) as claimed in claim 1, wherein the wireless communication router device (102) is configured to operate through Wi-Fi communication protocols, 5G communication protocols, 6G communication protocols, and other local wireless communication protocols, and wherein the system (100) is configured to manage multiple frequency bands comprising 2.4 GHz, 5 GHz, 6 GHz, and other frequency bands for 5G and 6G based operations and wherein each frequency band is selectively activated based on coverage requirements and environmental factors.

3. The system (100) as claimed in claim 1, wherein the control module (106) is configured to switch between the omnidirectional coverage mode and the dynamic directional coverage mode based on user selection or automatic optimized coverage algorithms.

4. The system (100) as claimed in claim 1, further comprising an artificial intelligence module (118) configured to analyze real-time directional usage patterns and device connectivity data using machine learning algorithms, automatically determine optimal antenna rotation angles and coverage configurations through signal strength analysis and user density calculations, and learn time-based usage patterns for different coverage areas using historical data processing.

5. The system (100) as claimed in claim 4, wherein the artificial intelligence module (118) is configured to sense user density in different coverage areas and automatically enhance coverage in directions with higher user density by directing more antennas to work in those directions.

6. The system (100) as claimed in claim 1, wherein the system (100) supports both traditional Wi-Fi standards and advanced 5G and 6G communication protocols, wherein the wireless communication router device (102) includes processing capabilities for managing multiple communication protocol standards simultaneously, and wherein coverage direction is changed by phase changes of one or more rotatable directional antennas (104), and wherein the antenna rotation control module (108) comprises electronic beam steering capabilities configured to adjust antenna phase relationships for directional coverage control.

7. The system (100) as claimed in claim 1, wherein the antenna rotation control module (108) comprises mechanical rotation mechanisms capable of 360-degree antenna positioning, position feedback sensors (120) for verifying antenna orientations, rotation scheduling algorithms for time-based coverage optimization, and coordination logic for managing the plurality of rotatable directional antennas (104) simultaneously.

8. The system (100) as claimed in claim 1, wherein the plurality of rotatable directional antennas (104) are configured to provide coverage in different angular coverage locations (122) representing different directional coverage areas within a 360-degree coverage space, wherein each angular coverage location (122) may be dynamically sized and configuredbased on user requirements, environmental factors, and device connectivity patterns, and wherein individual rotatable directional antennas (104) or groups of rotatable directional antennas (104) are configured for carrier aggregation mode to enhance coverage in specific angular directions.

9. The system (100) as claimed in claim 8, wherein the system (100) coordinates multiple rotatable directional antennas (104) to serve each angular coverage location (122) effectively.

10. The system (100) as claimed in claim 1, wherein the control module (106) is configured to receive user input through the user configuration remote device (114) or direct manual configuration on the wireless communication router device (102), wherein users may specify coverage area or antenna rotation angles through user interface or remote control, and wherein the plurality of rotatable directional antennas (104) comprises groups of fixed directional antennas, where each group is configured to provide coverage in a specific directional coverage area, and wherein one or more groups may be selectively activated to provide coverage in one or more directions.

11. The system (100) as claimed in claim 1, wherein the beamforming capabilities (112) include electronic beam steering for precise directional targeting through phase array control, dynamic beam parameter adjustment based on device locations and signal quality requirements using signal-to-noise ratio measurements, and coordination between multiple beamforming antennas for optimized coverage distribution using interference mitigation algorithms.

12. The system (100) as claimed in claim 1, wherein the at least one user device (116) comprises Wi-Fi scanning optimization features configured to avoid scanning unknown Wi-Fi networks that have not been previously connected or attempted multiple times, suppress display of unknown Wi-Fi networks, and reduce scanning time and power consumption, and wherein the Wi-Fi scanning optimization extends to other wireless localarea network connectivity features comprising Bluetooth scanning and connection processes, and wherein devices may be configured to avoid repeated scanning attempts for unknown networks.

13. The system (100) as claimed in claim 3, wherein the omnidirectional coverage mode utilizes all rotatable directional antennas (104) in a broadcast pattern for comprehensive area coverage, and the dynamic directional coverage mode selectively activates and positions specific rotatable directional antennas (104) for targeted angular coverage areas.

14. The system (100) as claimed in claim 4, wherein the artificial intelligence module (118) is further configured to detect inactivity in specific coverage areas, automatically deactivate rotatable directional antennas (104) serving inactive areas to conserve power, rotate antennas away from unused coverage areas, minimize electromagnetic radiation exposure in areas with no active Wi-Fi usage, predict future coverage requirements based on historical usage data, optimize antenna rotation schedules for different time periods, and continuously learn and adapt coverage patterns based on user behavior and environmental changes.

15. The system (100) as claimed in claim 1, wherein the at least one user device (116) is selected from the group consisting of personal computers, mobile devices, smartphones, laptops, tablets, and smart home devices, and wherein the at least one user device (116) is configured with Wi-Fi connectivity capabilities, optimized Wi-Fi scanning features that avoid repeatedly scanning unknown networks, stored authentication credentials for connecting to known networks, support for multiple wireless protocols including Wi-Fi 4, Wi-Fi 5, Wi-Fi 6 and future WIFI standards and Bluetooth, and capability to receive enhanced coverage when positioned in areas with higher user density as automatically detected by the router's monitoring module (110) and artificial intelligence module (118).

16. The system (100) as claimed in claim 15, wherein the optimized scanning features are configured to prioritize known networks and reduce scanning time for unknown networksby avoiding repeated scanning attempts for networks that have been previously identified as unavailable or unauthorized.

17. A method (200) for providing flexible dynamic Wi-Fi coverage using rotatable antennas and artificial intelligence optimization, the method (200) comprising: receiving (202) user configuration input for coverage mode selection between omnidirectional coverage mode and dynamic directional coverage mode; initializing (204) a wireless communication router system with a plurality of rotatable directional antennas; determining (206) optimal antenna rotation angles based on desired coverage patterns; mechanically rotating (208) selected rotatable directional antennas to target positions; activating (210) the rotatable directional antennas in configured orientations to provide Wi-Fi coverage; determining (211) whether automatic mode is enabled for coverage optimization; monitoring (212) Wi-Fi usage and activity in coverage areas; and dynamically adjusting (214) antenna positions and configurations based on real- time usage patterns and optimization algorithms.

18. The method (200) as claimed in claim 17, wherein the user configuration input includes selection of specific angular coverage areas and antenna rotation preferences, and wherein determining (206) optimal antenna rotation angles comprises analyzing real-time usage patterns and device connectivity data using artificial intelligence algorithms configured to process signal strength measurements, user density calculations, and historical usage patterns to generate specific rotation angle values.

19. The method (200) as claimed in claim 17, wherein mechanically rotating (208) selected rotatable directional antennas comprises coordinating multiple antennas simultaneously for optimized coverage distribution, wherein monitoring (212) Wi-Fi usage and activity comprises tracking user density in different coverage areas and detecting inactive coverage zones, and wherein dynamically adjusting (214) antenna positions comprises automatically enhancing coverage in directions with higher user density and deactivating antennas serving inactive areas to conserve power.

20. The method (200) as claimed in claim 17, further comprising determining (215) whether to switch coverage mode based on user selection or automatic optimization algorithms, where the determination process evaluates current operational requirements and coverage effectiveness.

21. The method (200) as claimed in claim 17, further comprising switching (216) between omnidirectional coverage mode and dynamic directional coverage mode based on user selection or automatic optimization algorithms, and managing (218) multiple frequency bands comprising 2.4 GHz, 5 GHz, 6 GHz and other frequency bands along with active set of antennas, and selectively activating each frequency band based on coverage requirements and environmental factors.

22. The method (200) as claimed in claim 17, further comprising determining (220) whether AI-based control is enabled for automatic optimization using predefined configuration parameters and user preference settings.

23. The method (200) as claimed in claim 17, further comprising coordinating (222) beamforming capabilities for electronic beam steering through phase array control, dynamic beam parameter adjustment based on signal-to-noise ratio measurements, and coordination between multiple beamforming antennas for optimized coverage distribution using interference mitigation algorithms.

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