Integrated multi-projection and field tracking system for enhanced sports goal post

Abstract

The present invention is an advanced system designed to enhance the visual and interactive experience associated with a goal post in sports environments. The system integrates projectors, tracking sensors, a fog or mist generation system, and a control unit to produce synchronized visual and audio effects in response to real-time gameplay events. Projectors display dynamic holographic visuals onto goal posts, mesh screens, or mist, creating an immersive spectator experience. The system is equipped with LIDAR, thermal imaging, and AI-driven tracking technologies to ensure precise monitoring of the ball and players. Additionally, a mobile application allows spectators to interact with the system, influencing the visual content and receiving real-time updates. The system's flexible design, combined with sustainable power sources like solar panels, provides a customizable and engaging solution for various sports events, setting a new standard in sports technology.

Description

CLAIM OF PRIORITY

[0001] This Continuation-In-Part (CIP) application claims the benefit of U.S. Non-Provisional patent application Ser. No. 14 / 816,248 filed on Aug. 3, 2015, and further, claims priority to a previously filed, U.S. Provisional patent application, namely, that having Ser. No. 62 / 006,459 and a filing date of Jun. 2, 2014, with the contents of both prior applications being incorporated herein by reference in their entireties.BACKGROUND OF THE INVENTIONField of the Invention

[0002] The present invention relates generally to sports technology and, more specifically, to an integrated multi-projection and field tracking system designed for goal posts used in various sports. This system enhances the visual and interactive experience by incorporating holographic projections, player and ball tracking, and synchronized multimedia displays during gameplay.Description of the Related Art

[0003] In the realm of sports technology, goal posts have traditionally served a singular, functional purpose: to define the scoring area for various sports such as soccer, football, rugby, and others. The primary focus has always been on the physical integrity and precise positioning of these structures to ensure fairness and accuracy in gameplay. However, with the advent of modern technology, there has been a growing interest in enhancing the spectator experience and adding more interactive elements to live sports events. This interest has spurred the development of various technologies aimed at integrating multimedia displays, lighting effects, and tracking systems into sports environments. Despite these advancements, many of these technologies remain isolated from each other and have not been fully integrated into goal post structures in a manner that would significantly enhance the overall sports experience.

[0004] Historically, the most notable advancements in enhancing the spectator experience have revolved around large-scale video displays and lighting systems. Jumbotrons and LED scoreboards have become ubiquitous in stadiums, offering high-definition replays, player statistics, and various forms of entertainment during breaks in play. These systems, however, are typically positioned far from the field of play and are not integrated with the action on the field in real-time. They serve more as supplementary entertainment rather than as a core part of the game experience.

[0005] In some high-profile sports events, goal posts have been equipped with basic lighting systems that illuminate when a score is made. This feature is particularly common in sports like American football, where the uprights of the goal post may light up in team colors or flash to signify a successful field goal or extra point. While this adds a visual element to the scoring process, it is a relatively static and limited use of technology. The lights are triggered by a simple event (i.e., the ball passing through the uprights) and do not offer any further interaction or visual complexity.

[0006] Simultaneously, advancements in tracking technologies have made significant strides. In sports like soccer and American football, tracking systems are used to monitor the position of players and the ball throughout the game. Technologies such as GPS tracking, RFID tags, and optical tracking systems using high-speed cameras have been employed to gather data on player movement, ball trajectory, and overall game dynamics. These systems are often used for post-game analysis, live commentary enhancement, and in some cases, to assist referees with real-time decisions. However, these tracking systems typically function independently of the goal post and are not integrated with any visual display technologies that could enhance the real-time spectator experience.

[0007] One of the more sophisticated tracking systems is the optical tracking system, which utilizes high-speed cameras strategically placed around the field to capture and analyze the position and movement of players and the ball. This system provides a wealth of data that can be used for various purposes, including performance analysis, coaching, and even fan engagement through broadcast enhancements. Despite its advanced capabilities, the optical tracking system operates separately from any visual or interactive elements associated with the goal post, missing an opportunity to directly tie this data to a localized, immersive experience at the scoring area.

[0008] Similarly, radio frequency identification (RFID) and GPS-based systems have been deployed to track player and ball movements. These systems offer the advantage of providing real-time data with high accuracy. RFID tags embedded in player uniforms or in the ball itself can transmit location data to a central system, which then processes and displays the information for various uses. GPS systems, often used in conjunction with wearable devices, provide continuous tracking of player positions and movements, offering insights into player performance and game dynamics. However, like optical systems, these technologies are not integrated with the goal post, leaving a gap in their potential to enhance the live experience at the point of scoring.

[0009] Another area of innovation has been the use of projection systems in sports settings. Projectors have been used to create large-scale visuals on the field or in the stands, often as part of pre-game or halftime shows. These projections can include team logos, sponsor messages, or artistic displays designed to entertain the crowd. However, these systems are generally used for spectacle rather than as a tool to enhance the gameplay experience itself. They are not typically interactive and do not respond to the real-time actions on the field.

[0010] There have been some attempts to combine projection systems with interactive technologies. For example, certain events have employed augmented reality (AR) systems that allow fans to view additional information or graphics overlaid on their view of the field through mobile devices or stadium screens. These AR systems can provide live statistics, player information, or virtual replays. However, these are usually separate from the goal post structure and rely on external devices for interaction, which can detract from the immediacy of the experience.

[0011] Despite these advancements, a significant gap remains in the integration of visual display systems, tracking technologies, and goal post structures. Existing systems are often siloed, with tracking systems providing valuable data but lacking a direct connection to visual or interactive elements at the goal post. Similarly, visual systems, while capable of creating impressive displays, do not incorporate the dynamic, real-time data generated by tracking technologies. This disconnect limits the potential for creating a truly immersive and interactive sports experience.

[0012] The problems with the current state of the art are multifaceted. First, there is a lack of integration between tracking systems and visual display technologies. The data generated by tracking systems is underutilized, often confined to post-game analysis or broadcast enhancements rather than being leveraged to create real-time, interactive experiences at the goal post. Second, existing visual systems are limited in their interactivity and are not responsive to the live dynamics of the game. They are often static or pre-programmed, lacking the ability to adapt to the flow of the game or to enhance specific moments such as scoring events.

[0013] Additionally, the goal post itself, a central feature in many sports, has remained largely unchanged despite the advancements in surrounding technologies. While it plays a crucial role in determining the outcome of many games, it has not been leveraged as a platform for enhancing the spectator experience or for integrating with other technological systems.

[0014] A proposed solution to these problems would involve the development of a fully integrated system that combines the capabilities of tracking technologies, projection systems, and the goal post structure. Such a system could utilize real-time data from tracking technologies to drive dynamic visual displays directly on or around the goal post. For example, projections could be triggered by specific game events, such as a ball crossing the goal line, and could display relevant information or visual effects that enhance the moment. The system could also include interactive elements that allow fans to engage with the game in new ways, either through mobile devices or directly through the stadium infrastructure.

[0015] By addressing these gaps, a new approach could transform the goal post from a static, functional object into a dynamic, interactive centerpiece of the sports experience. Such a system would not only enhance the visual spectacle of the game but also create new opportunities for fan engagement and interaction, ultimately redefining how live sports events are experienced.SUMMARY OF THE INVENTION

[0016] The present invention is an integrated multi-projection and field tracking system designed for sports goal posts. This system incorporates a series of strategically positioned projectors capable of displaying dynamic holographic visuals, as well as real-time tracking technologies that monitor the position of players and the ball during gameplay. The system is connected to a central control software that manages the projections and integrates the tracking data, allowing for synchronized visual displays directly on or around the goal post, enhancing the spectator experience by creating a more immersive and interactive environment.

[0017] The present invention offers significant advantages over existing technologies by fully integrating visual display and tracking systems within the goal post structure itself. Unlike traditional systems that operate independently or require separate setups, this invention seamlessly combines holographic projections with real-time game data, creating a responsive and dynamic experience that directly interacts with the ongoing action on the field. This integration not only enhances the visual impact of scoring events but also provides a more engaging and immersive experience for spectators, elevating the overall atmosphere of live sports events. Additionally, the centralized control of the system allows for greater flexibility and customization, enabling tailored displays that can adapt to different sports, venues, and audience preferences.

[0018] In a first implementation of the present invention, a system is provided for enhancing the visual and interactive experience associated with a goal post in a sports environment. The system includes at least one projector mounted on or around the goal post, configured to project visual content onto a surface area associated with the goal post. A control unit operatively connected to the projector is configured to receive data related to gameplay events, such as the position or movement of one or more objects on the playing field. The control unit processes this data to generate corresponding visual content and controls the projector to display the visual content in synchronization with the detected gameplay events. This implementation allows for real-time visual feedback, creating a dynamic and engaging experience for both players and spectators.

[0019] In another aspect, the system for enhancing the visual and interactive experience associated with a goal post may include a plurality of projectors positioned at different locations on or around the goal post.

[0020] In another aspect, the plurality of projectors may be configured to project holographic images, dynamic graphics, or video content onto a surface associated with the goal post.

[0021] In another aspect, the system may further comprise a tracking system configured to monitor the positions and movements of one or more objects on the playing field, wherein the control unit may receive data from the tracking system.

[0022] In another aspect, the tracking system may include sensors selected from the group consisting of optical sensors, radio frequency identification (RFID) sensors, GPS-based sensors, and LIDAR sensors.

[0023] In another aspect, the control unit may be configured to process data from the tracking system to detect gameplay events, including scoring events, ball proximity to the goal post, or player positions.

[0024] In another aspect, the control unit may be further configured to modify the visual content projected by the at least one projector in response to the detected gameplay events. In another aspect, the visual content projected by the at least one projector may be synchronized with real-time gameplay events.

[0025] In another aspect, the system may further comprise a software application operatively connected to the control unit, the software application configured to manage the visual content and allow for remote control and customization of the projected content.

[0026] In another aspect, the software application may be configured to integrate with additional multimedia systems, including stadium lighting, audio systems, and digital displays.

[0027] In another aspect, the control unit may be further configured to control the intensity, color, or pattern of the visual content based on the gameplay events.

[0028] In another aspect, the system may further comprise a communication module operatively connected to the control unit, the communication module configured to enable wireless communication between the system and external devices, including mobile devices and stadium infrastructure.

[0029] In another aspect, the communication module may be configured to allow interactive features, such as enabling spectators to influence the visual content via mobile applications. In another aspect, the visual content projected by the system may include team logos, player statistics, instant replays, or celebratory effects.

[0030] In another aspect, the system may further comprise a fog or mist generation system integrated with the goal post, wherein the visual content is projected onto the fog or mist to create enhanced holographic effects.

[0031] In another aspect, the fog or mist generation system may be synchronized with the at least one projector to release fog or mist at specific moments during gameplay events.

[0032] In another aspect, the control unit may be configured to adjust the projection angle, focus, or orientation of the at least one projector based on the position of the ball or players on the field. In another aspect, the at least one projector may be configured to project visual content onto a mesh or net material associated with the goal post to enhance the visibility of the projected content.

[0033] These and other objects, features, and advantages of the present invention will become more readily apparent from the attached drawings and the detailed description of the preferred embodiments, which follow.BRIEF DESCRIPTION OF THE DRAWINGS

[0034] The preferred embodiments of the invention will hereinafter be described in conjunction with the appended drawings provided to illustrate and not to limit the invention, where like designations denote like elements, and in which:

[0035] FIG. 1 illustrates a goal post system equipped with vertical posts, a crossbar, a speaker, a control unit, a sensor at the base of one post, and a power supply, all integrated to detect and respond to gameplay events;

[0036] FIG. 2A illustrates the goal post system with its lights off, showing the connection between the goal post components, including the crossbar and vertical post, a sensor at the base of the post, a clock / timer unit, and a power supply, all interconnected to manage the system's operations;

[0037] FIG. 2B illustrates the goal post system with its lights on, depicting the connections between the crossbar, vertical post, sensor, speaker, clock / timer unit, and power supply, all working together to control the lighting and audio output in response to gameplay events;

[0038] FIG. 3 illustrates an enhanced goal post system, showing the arrangement of multiple light-emitting components along the vertical posts and crossbar, connected to a sensor, a speaker, and a clock / timer unit, all managed by a control unit and powered by a power supply to synchronize lighting effects with gameplay events;

[0039] FIG. 4 illustrates a goal post system with an angled design, showing the placement of light-emitting components along the posts and crossbar, connected to a sensor, speaker, clock / timer unit, and power supply, all configured to work together for synchronized lighting and audio effects during gameplay;

[0040] FIG. 5 illustrates the goal post system with a light-emitting component centrally positioned on the top crossbar, showing how it projects lighting within the angled goal structure, alongside the connected sensor, speaker, clock / timer unit, and power supply, all integrated for coordinated visual and audio effects during gameplay;

[0041] FIG. 6 provides a close-up view of the internal structure of the vertical post, detailing the arrangement of light-emitting components, wiring, and support structures housed within the post, all designed to facilitate the emission of light along the post's length during operation;

[0042] FIG. 7A illustrates a football goal post system with vertical posts equipped with light fixtures along their lengths, emitting light for visual effects, and a curved projection surface or mist screen positioned behind the goal post, with a solar panel and power source nearby to provide sustainable energy for the system;

[0043] FIG. 7B depicts a soccer goal post system with vertical posts and a crossbar equipped with light fixtures along their lengths, and a mesh or net surface positioned behind the goal structure to enhance visual effects during gameplay;

[0044] FIG. 8A illustrates a football goal post system in operation, showing light fixtures along the vertical posts and the projection of holographic visuals, such as score indicators, onto a curved screen or mist behind the goal post, with additional holographic projections extending onto the ground surface to enhance visual impact.

[0045] FIG. 8B depicts a soccer goal post system featuring dual projection setups, where holographic visuals, such as numbers or symbols, are projected onto a mesh or net surface positioned behind the goal post as well as onto the ground surface, with light fixtures along the goal post structure further enhancing the overall display.

[0046] FIG. 9 illustrates a wearable sensor system for players, showing how sensors embedded in players'jerseys provide data on their interaction with the ball, such as speed and force of kicks, with the data transmitted to a mineral detector and transmitter system that interacts with a mineral patch embedded in the ball to facilitate magnetic field tracking and notify the goal post system;

[0047] FIG. 10 illustrates a comprehensive tracking system setup, including Wi-Fi Positioning Systems (WPS), Ultra-Wideband (UWB) Technology, and Optical Tracking Systems, all integrated with Wi-Fi / Receiver pillars equipped with cameras positioned around the field, and solar panels for power, designed to accurately track gameplay events and the ball's movement;

[0048] FIG. 11 shows a top-down view of a sports field equipped with Wi-Fi / Receiver pillars with cameras, designed to track player locations and transfer data to the goal post system, which is powered by solar panels connected directly to the goal post either above or underground;

[0049] FIG. 12 illustrates the integration of LIDAR (Light Detection and Ranging) technology within the goal post system, showing how the sensors are used to create real-time 3D maps of the ball's position and trajectory, enabling the system to detect when the ball crosses the goal line and to trigger a visual alert by lighting up the goal post;

[0050] FIG. 12A provides a detailed view of the beam light fixture, highlighting its components, including advanced computer vision and AI algorithms for analyzing video footage to track the ball's movement, as well as thermal imaging capabilities that detect the ball's heat signature, enhancing tracking accuracy in various conditions;

[0051] FIG. 12B depicts the internal structure of the vertical post, focusing on the placement of LED light strips and their corresponding plastic or plexiglass covers, as well as access points within the post for maintaining and securing the light fixtures used in the goal post system;

[0052] FIG. 13 illustrates the soccer goal post system with integrated projection and lighting components, showing how the system projects visuals such as numbers or symbols onto a mesh or net surface positioned behind the goal post and onto the ground surface, providing synchronized visual effects during gameplay events;

[0053] FIG. 13A provides a detailed view of the beam light fixture and projection components integrated into the soccer goal post, highlighting the use of rotators and mirrors to adjust the orientation and focus of the projected visuals for accurate and dynamic displays across multiple surfaces;

[0054] FIG. 13B depicts the internal structure of the soccer goal post, showing the arrangement of LED strip lights secured with clip holders, internal pipe and wire lines for organized power routing, and protective plastic or plexiglass covers that shield the lighting components while maintaining accessibility through an access panel for maintenance and adjustments;

[0055] FIG. 14A illustrates the goal post control software, which is designed to manage lighting, display projected visuals, and send notification alerts to fans via a mobile application, with capabilities for AI-driven automation, as well as Bluetooth and internet connectivity; and

[0056] FIG. 14B depicts a mobile device interface, showing the functions of the mobile app, which include lighting up in team colors when points are scored, keeping track of team scores, and providing score notifications to users.

[0057] Like reference numerals refer to like parts throughout the several views of the drawings.DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT

[0058] The following detailed description is merely exemplary in nature and is not intended to limit the described embodiments or the application and uses of the described embodiments. As used herein, the word “exemplary” or “illustrative” means “serving as an example, instance, or illustration.” Any implementation described herein as “exemplary” or “illustrative” is not necessarily to be construed as preferred or advantageous over other implementations. All of the implementations described below are exemplary implementations provided to enable persons skilled in the art to make or use the embodiments of the disclosure and are not intended to limit the scope of the disclosure, which is defined by the claims. For purposes of description herein, the terms “upper”, “lower”, “left”, “rear”, “right”, “front”, “vertical”, “horizontal”, and derivatives thereof shall relate to the invention as oriented in FIG. 1. Furthermore, there is no intention to be bound by any expressed or implied theory presented in the preceding technical field, background, brief summary or the following detailed description. It is also to be understood that the specific devices and processes illustrated in the attached drawings, and described in the following specification, are simply exemplary embodiments of the inventive concepts defined in the appended claims. Hence, specific dimensions and other physical characteristics relating to the embodiments disclosed herein are not to be considered as limiting, unless the claims expressly state otherwise.

[0059] The present invention is an advanced system designed to enhance the visual and interactive experience associated with sports goal posts by integrating real-time tracking, projection, and interactive components. This comprehensive system is configured to display dynamic holographic visuals and respond to gameplay events, providing an immersive experience for players and spectators. The system seamlessly combines advanced tracking technologies, projection capabilities, and user interaction features to transform the traditional goal post into a multifunctional centerpiece for live sports events. By embedding sensors, projectors, and control units directly into the goal post structure, the system achieves precise operation and adaptability. Additionally, the invention is designed to simplify installation and enhance the visual appeal of sports environments, making it an adaptable and robust solution for various applications. This innovative system represents a significant improvement over traditional setups by integrating functionality into a unified, efficient design.

[0060] The structural and operational features of the goal post system are exemplified in FIG. 1. The system includes vertical posts 10 and 20 and a crossbar 15, forming the primary structural framework. Mounted on or near the goal post are projectors configured to deliver holographic images, dynamic graphics, and video content directly onto the surface area of the goal post or its surroundings. The system integrates a control unit 40, which serves as the central hub, coordinating data from sensors and managing the synchronization of visual and audio outputs. These sensors, positioned at the base and within the goal post, collect real-time gameplay data such as ball trajectory and player positions. A power supply 50 ensures uninterrupted operation, while backup systems provide additional reliability. The projectors'ability to project visuals onto the goal post itself and surrounding areas enhances audience engagement and adds visual dynamism to the game.

[0061] In FIG. 2A, the goal post system is depicted in its non-operational state. The vertical posts 10 and 20 and crossbar 15 house essential components like wiring, sensors, and the control unit. These elements are discreetly embedded to maintain a clean and professional appearance. Connections to external devices, including a clock / timer unit and power supply, are highlighted, showcasing the system's seamless integration with existing infrastructure. The structural design ensures that components remain protected from environmental factors, contributing to durability and low maintenance requirements. FIG. 2B illustrates the operational state, where light-emitting components integrated along the goal post illuminate in response to gameplay events. These lighting effects are synchronized with audio outputs controlled by the central unit, creating an engaging atmosphere. This dual-state capability demonstrates the system's adaptability to various game conditions and user preferences while emphasizing its reliability in delivering consistent performance.

[0062] The arrangement of light-emitting components is further detailed in FIG. 1 and FIG. 3. Multiple light elements are strategically positioned along the vertical posts 10 and 20 and crossbar 15 to ensure uniform illumination. These components are connected to a speaker system and clock / timer unit, enabling the system to provide both visual and auditory feedback during gameplay. The control unit 50 dynamically adjusts the intensity and pattern of the lighting effects based on real-time data from sensors. These effects are designed to highlight key gameplay moments, such as goals or close calls, enhancing the overall spectator experience. The seamless integration of visual and audio elements ensures that the system delivers a cohesive and engaging display, aligning with real-time game dynamics. This arrangement highlights the importance of combining multiple technologies into a unified system to create an immersive and memorable experience.

[0063] FIG. 4 introduces a variant of the goal post system 400 with an angled design, which features vertical posts 410 and 420, a crossbar 415, and angled supports 412 and 414 that provide additional structural stability. The inclusion of light-emitting components 416 and 418 along the length of the vertical posts and crossbar optimizes the distribution of illumination across the field, ensuring that the projected visual effects are clearly visible from various angles. The goal post system also incorporates a speaker 430, positioned to enhance the auditory component of the interactive experience by providing sound effects, notifications, or crowd engagement audio cues. The system is controlled by a clock / timer unit 440, which manages the synchronization of the lighting and audio elements based on gameplay events. The clock / timer unit 440 is electrically connected to a power supply 450 via cables 445 and 455, ensuring consistent power delivery to the system and allowing for uninterrupted operation. This integration of lighting, audio, and control components ensures a coordinated display of visual and auditory effects, making the system highly responsive to in-game occurrences.

[0064] FIG. 5 builds upon the design of FIG. 4 by introducing a centrally positioned light-emitting component 560 mounted along the crossbar 425. This component is configured to project illumination in a downward and outward direction, creating an intensified lighting effect that enhances visibility. Similar to the system depicted in FIG. 4, the goal post system in FIG. 5 also incorporates angled supports 412 and 414, vertical posts 410 and 420, and embedded light-emitting components 416 and 418. The speaker 430 remains a crucial part of the system, ensuring that sound effects are synchronized with the visual elements for a more immersive experience. The clock / timer unit 440 continues to serve as the operational control center, managing the timing and sequencing of lighting and sound effects. The electrical connections through cables 445 and 455 to the power supply 450 ensure that the system remains operational throughout gameplay. The enhanced lighting configuration in FIG. 5 is particularly useful in scenarios where increased brightness is required for better visibility, such as night games or events with high spectator engagement. The combination of these components demonstrates the system's ability to provide a visually and audibly engaging experience while maintaining structural integrity and reliability.

[0065] A closer examination of the internal structure is provided in FIG. 6. The vertical posts house light-emitting components, wiring, and support structures meticulously arranged to ensure efficient operation. These components facilitate the emission of light along the post's length, creating visually striking effects. Wiring is routed through dedicated conduits to minimize maintenance complexity, while support structures provide stability and alignment for the lighting elements. Access points within the structure allow for straightforward adjustments and maintenance. Protective covers shield internal components from external elements such as weather, impacts, and debris, ensuring their longevity. This detailed view highlights the engineering precision and robustness of the internal design, ensuring consistent performance even in demanding sports environments. By organizing components within a structured layout, the system achieves a balance of functionality and ease of maintenance.

[0066] FIG. 7A and FIG. 7B illustrate configurations tailored for football and soccer goal posts, respectively. FIG. 7A shows a football goal post system 700 equipped with vertical light fixtures 710 and 720 and a curved projection surface 730 positioned behind the structure. This surface enhances the visibility of holographic visuals, making them accessible to a broader audience. A solar panel 740 and power source emphasize sustainability, ensuring energy-efficient operation. This configuration demonstrates the system's ability to incorporate renewable energy solutions, aligning with modern environmental standards. FIG. 7B presents a soccer goal post system 750 featuring vertical light fixtures 760 and 770 and a mesh surface 780 behind the goal. This mesh serves as a versatile projection canvas, enabling dynamic visuals to be displayed in synchronization with gameplay events. The projection capabilities adapt to various game scenarios, ensuring visual effects are impactful and responsive. These configurations underscore the system's adaptability to different sports environments and its commitment to enhancing spectator engagement.

[0067] Operational scenarios are further detailed in FIG. 8A and FIG. 8B. FIG. 8A illustrates a football goal post system 800 in action, where light fixtures are strategically positioned along the vertical posts and crossbar, emitting synchronized lighting effects in response to gameplay events. These lighting effects can vary in brightness, color, and activation patterns, allowing them to correspond with different in-game scenarios such as a scoring event, penalty, or time-out. Holographic visuals are projected onto a curved screen 810 or mist 820 behind the goal post, providing dynamic and engaging visual displays. The mist projection system is configured to generate a controlled dispersion of fine particles, creating a semi-transparent display surface for vivid animations, celebratory graphics, or team logos that enhance the overall spectator experience. Additional projections onto the ground surface further contribute to the immersive visual environment, ensuring that both players and spectators can clearly observe the real-time dynamic effects. Integrated speakers mounted along the goal post assembly work in coordination with the visual elements, emitting synchronized audio cues such as celebratory sound effects, referee notifications, or crowd engagement prompts. These speakers are strategically placed to ensure optimal sound distribution across the field while minimizing any disruption to on-field communication. The combination of lighting, projection, and audio ensures that the football goal post system 800 enhances key moments of gameplay, making them more engaging for players and spectators alike.

[0068] FIG. 8B focuses on a soccer goal post system 850 that employs a dual projection setup, allowing for the simultaneous display of visuals on both a mesh surface 860 positioned behind the goal and the ground directly in front of the goal area. The mesh surface serves as a dedicated projection medium, enabling clear and vibrant visual displays while maintaining the functional integrity of the goal net. Projectors mounted on the goal post dynamically adjust focus and projection angles to ensure clarity and sharpness of visuals regardless of player movement or changing field conditions. These projections can include goal confirmations, animated player statistics, team logos, or promotional content, further enhancing the in-game experience. Similar to the football goal post system 800, the soccer goal post system 850 incorporates synchronized light fixtures along the vertical posts and crossbar, ensuring that lighting effects complement the projected visuals and create an engaging atmosphere. Additionally, speakers integrated into the goal post structure provide real-time audio feedback, delivering audible goal confirmations, team anthems, and celebratory sound effects. This synchronized combination of lighting, audio, and projection elements ensures that the goal post system operates as a fully interactive and immersive display, capable of adapting to various game scenarios while heightening the visual and auditory impact for both players and spectators.

[0069] Player interaction with the system is supported by wearable sensor technology, as shown in FIG. 9. Sensors embedded in players'jerseys 900 collect data on interactions with the ball, such as speed, force, and trajectory of kicks. This data is transmitted to a mineral detector and transmitter system 910, which interacts with a mineral patch embedded in the ball 920 to facilitate magnetic field tracking. The control unit processes this information to enable responsive visual and audio effects synchronized with player actions. These wearable sensors also provide valuable insights into player performance, contributing to a more interactive and data-driven sports experience. Additionally, this data can be used for post-game analysis, offering teams and coaches actionable insights into player behavior and strategy.

[0070] FIG. 10 and FIG. 11 provide an overview of the comprehensive tracking system integrated into the sports field. FIG. 10 illustrates the use of Wi-Fi Positioning Systems WPS, Ultra-Wideband UWB Technology, and Optical Tracking Systems, supported by Wi-Fi / Receiver pillars 1000 equipped with cameras and solar panels 1010. These technologies work together to accurately track gameplay events, player positions, and ball movements. The system's ability to triangulate player and ball positions in real time enhances the accuracy of its visual and audio outputs. FIG. 11 offers a top-down perspective of the field, highlighting the strategic placement of receiver pillars and their connectivity to the goal post system. This arrangement facilitates seamless data transfer and real-time synchronization of visual and auditory effects. The integration of these tracking technologies ensures robust coverage and enhances the accuracy of gameplay monitoring, contributing to a more immersive sports experience.

[0071] The advanced tracking capabilities of the system are further enhanced by LIDAR technology, as shown in FIG. 12. This technology creates real-time 3D maps of the ball's position and trajectory, enabling precise detection of events such as goal-line crossings. The system's response includes activating visual alerts, such as illuminating the goal post to indicate a scoring event. FIG. 12A provides a detailed view of the beam light fixture 1200, which incorporates computer vision and AI algorithms to analyze video footage and track ball movement. These advanced features allow the system to respond to gameplay events with precision and speed. Thermal imaging capabilities within the fixture ensure accurate tracking under varying conditions, such as low visibility or nighttime games. FIG. 12B focuses on the internal structure of the vertical post, detailing the placement of LED light strips 1210, protective covers 1220, and access points 1230 for maintenance. These features contribute to the system's reliability and adaptability, ensuring its consistent performance in diverse conditions.

[0072] FIG. 13 introduces a soccer goal post system 1300 with integrated projection and lighting components designed to display visuals such as numbers or symbols on a mesh surface 1310 positioned behind the goal. The mesh surface serves as a projection medium that allows dynamic visual content to be displayed in response to gameplay events. This setup ensures that visuals remain visible and legible to spectators from multiple viewing angles around the stadium, making it an essential component for enhancing the in-game experience. The projected visuals may include player statistics, team logos, instant replays, or celebratory animations, all synchronized with the actions occurring on the field. The integration of these projection elements with the goal post structure ensures seamless operation, reducing the need for external projection systems while maintaining a clean and professional appearance.

[0073] FIG. 13A and FIG. 13B provides a detailed view of the projection components integrated within the system. This includes rotators 1320, which allow for precise adjustments to the orientation of the projected visuals, ensuring optimal placement of the images across different surfaces, including the mesh surface 1310 and the playing field. Mirrors 1330 within the system further refine the direction and focus of the projected visuals, creating sharp and well-defined imagery regardless of the surrounding lighting conditions. The mirrors are positioned to maximize the reflective efficiency, ensuring that light from the projectors is properly redirected to the intended projection area. Additionally, a high-beam light fixture is incorporated to enhance visibility in low-light conditions, enabling clear and vivid projections even during evening matches or games played under artificial lighting. An inside light fixture works in conjunction with the projection system, providing supplemental illumination that enhances the overall clarity of the visuals. The combined functionality of these elements ensures that the projected content remains highly visible and engaging throughout the game.

[0074] FIG. 13B further expands on the internal structure of the goal post system by illustrating the organized arrangement of lighting and projection components housed within the post. Strip lights are securely embedded within the structure, providing uniform illumination along the length of the goal post. The LED strip lights 1340 are held in place by dedicated clip holders, ensuring stability and preventing displacement due to vibrations or impact during gameplay. A rotator 1320 is incorporated within the internal design, allowing for the dynamic repositioning of lighting and projection elements to accommodate different viewing angles and gameplay scenarios. The internal wiring is systematically routed through pipe and wire lines 1350, keeping the electrical components well-organized and protected. These wire lines ensure that power is consistently supplied to all integrated lighting and projection components while maintaining a clutter-free internal layout.

[0075] The structure also features protective elements, including plastic or plexiglass covers 1360 that shield the internal components from environmental hazards such as moisture, debris, and impact from the ball or players. These covers are strategically positioned to provide maximum protection while still allowing for efficient heat dissipation, preventing overheating of the internal electronics. Access panels 1370 are integrated within the vertical post design to facilitate easy maintenance and servicing of the internal components. These access panels allow technicians to perform routine inspections, replace malfunctioning parts, or upgrade the lighting and projection systems without requiring extensive dismantling of the goal post structure. The inclusion of these maintenance-friendly features ensures the long-term reliability and adaptability of the system, making it a practical solution for professional and recreational sports environments.

[0076] The design and integration of these components allow the soccer goal post system to serve as more than just a structural boundary for gameplay—it becomes an interactive and visually engaging element that enhances the spectator experience. By incorporating advanced projection technology, intelligent lighting configurations, and a robust internal support structure, this system delivers a high-quality, synchronized display that interacts dynamically with the flow of the game. These features collectively contribute to the versatility and efficiency of the invention, demonstrating its applicability across various levels of sports competition.

[0077] The control and customization capabilities of the system are depicted in FIG. 14A and FIG. 14B. FIG. 14A illustrates the goal post control software 1400, which manages lighting, projection, and notification alerts. The software integrates AI-driven automation and provides connectivity options, such as Bluetooth and internet, for remote operation. Users can customize visual and auditory outputs, tailoring the system to suit specific events or preferences. FIG. 14B showcases a mobile device interface 1410 that allows users to interact with the system in real time. Features include lighting up in team colors when points are scored, tracking team scores, and providing notifications. These capabilities enhance the user experience by enabling direct engagement with the system and facilitating audience interaction, making the sports environment more dynamic and engaging.

[0078] In conclusion, the present invention combines advanced tracking, projection, and interaction technologies to create a dynamic and immersive experience for sports events. By integrating these components within the goal post structure and surrounding field infrastructure, the system offers a seamless and adaptable solution for enhancing gameplay and audience engagement. Each figure highlights a specific aspect of the system, demonstrating its versatility, precision, and innovative design. This detailed description emphasizes the potential applications and benefits of the invention, setting a new standard for interactive sports technologies.

[0079] Since many modifications, variations, and changes in detail can be made to the described preferred embodiments of the invention, it is intended that all matters in the foregoing description and shown in the accompanying drawings be interpreted as illustrative and not in a limiting sense. Furthermore, it is understood that any of the features presented in the embodiments may be integrated into any of the other embodiments unless explicitly stated otherwise. The scope of the invention should be determined by the appended claims and their legal equivalents.

Claims

1. A system for enhancing the visual and interactive experience associated with a goal post in a sports environment, the system comprising:a. at least one projector mounted on or around the goal post, the projector configured to project visual content onto a surface area associated with the goal post; andb. a control unit operatively connected to the at least one projector, the control unit configured to:i. receive data related to gameplay events, including the position or movement of one or more objects on the playing field;ii. process the data to generate visual content corresponding to the gameplay events; andiii. control the at least one projector to project the visual content in synchronization with the gameplay events.

2. The system of claim 1, wherein the at least one projector comprises a plurality of projectors positioned at different locations on or around the goal post.

3. The system of claim 2, wherein the plurality of projectors are configured to project holographic images, dynamic graphics, or video content onto a surface associated with the goal post.

4. The system of claim 1, further comprising a tracking system configured to monitor the positions and movements of one or more objects on the playing field, wherein the control unit receives data from the tracking system.

5. The system of claim 4, wherein the tracking system includes sensors selected from the group consisting of optical sensors, radio frequency identification (RFID) sensors, GPS-based sensors, and LIDAR sensors.

6. The system of claim 4, wherein the control unit is configured to process data from the tracking system to detect gameplay events, including scoring events, ball proximity to the goal post, or player positions.

7. The system of claim 6, wherein the control unit is further configured to modify the visual content projected by the at least one projector in response to the detected gameplay events.

8. The system of claim 1, wherein the visual content projected by the at least one projector is synchronized with real-time gameplay events.

9. The system of claim 1, further comprising a software application operatively connected to the control unit, the software application configured to manage the visual content and allow for remote control and customization of the projected content.

10. The system of claim 9, wherein the software application is configured to integrate with additional multimedia systems, including stadium lighting, audio systems, and digital displays.

11. The system of claim 1, wherein the control unit is further configured to control the intensity, color, or pattern of the visual content based on the gameplay events.

12. The system of claim 1, further comprising a communication module operatively connected to the control unit, the communication module configured to enable wireless communication between the system and external devices, including mobile devices and stadium infrastructure.

13. The system of claim 12, wherein the communication module is configured to allow interactive features, such as enabling spectators to influence the visual content via mobile applications.

14. The system of claim 1, wherein the visual content includes team logos, player statistics, instant replays, or celebratory effects.

15. The system of claim 1, further comprising a fog or mist generation system integrated with the goal post, wherein the visual content is projected onto the fog or mist to create enhanced holographic effects.

16. The system of claim 15, wherein the fog or mist generation system is synchronized with the at least one projector to release fog or mist at specific moments during gameplay events.

17. The system of claim 1, wherein the control unit is configured to adjust the projection angle, focus, or orientation of the at least one projector based on the position of the ball or players on the field.

18. The system of claim 1, wherein the at least one projector is configured to project visual content onto a mesh or net material associated with the goal post to enhance the visibility of the projected content.

19. A system for enhancing the visual and interactive experience associated with a goal post in a sports environment, the system comprising:a. a plurality of projectors mounted directly on the goal post, each projector configured to project visual content onto a specific area of the goal post, wherein the visual content includes holographic images and dynamic graphics;b. a tracking system comprising optical sensors positioned around the playing field, the tracking system configured to detect the position and movement of a ball during gameplay; andc. a control unit operatively connected to the plurality of projectors and the tracking system, the control unit configured to:i. receive real-time data from the tracking system regarding the ball's position relative to the goal post;ii. generate visual content in response to the ball's movement and proximity to the goal post; andiii. control the plurality of projectors to project the visual content directly onto the goal post in synchronization with the detected movement of the ball.

20. A system for enhancing the visual and interactive experience associated with a goal post in a sports environment, the system comprising:a. a plurality of projectors mounted directly on the goal post, each projector configured to project dynamic visual content onto a fog or mist generated around the goal post;b. a fog or mist generation system integrated within the goal post, the system configured to release fog or mist in response to specific gameplay events;c. a tracking system comprising optical sensors positioned around the playing field, the tracking system configured to detect the position and movement of the ball and players during gameplay;d. a control unit operatively connected to the plurality of projectors, the fog or mist generation system, and the tracking system, the control unit configured to:i. receive real-time data from the tracking system regarding the position of the ball and players;ii. trigger the release of fog or mist from the fog or mist generation system based on the proximity of the ball to the goal post or the occurrence of a scoring event;iii. generate and control the dynamic visual content projected by the plurality of projectors onto the released fog or mist, wherein the visual content is synchronized with the detected gameplay events; ande. a communication module operatively connected to the control unit, the communication module configured to enable wireless interaction with external devices, including mobile devices, to allow customization and remote control of the visual effects.

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