1. A dance pole system 100 comprising: a base assembly 102 to stably engage with a variety of floor surfaces, the base assembly 102 comprising: a floor-engaging plate 104, providing the foundational support for the system 100; multiple self-leveling feet 106, each foot 106 mounted on a respective ball joint 108, wherein the ball joints 108 enable the feet 106 to automatically adjust to the angle of the floor surface to maintain full ground contact and enhance stability across varied surface conditions; a lower cylindrical section 110 rigidly connected to the base assembly 102, incorporating: an externally threaded adjustable connector 112 that facilitates vertical height adjustments, designed for modular telescoping engagement with additional pole sections 114, enabling the customization of the pole length based on performance requirements; multiple additional pole sections 114: each section 114 designed to mechanically interlock with the lower cylindrical section 110 or another pole section 114 through the externally threaded adjustable connector 112, ensuring a secure and stable assembly that supports dynamic acrobatic performances without deformation; a dual-lock adjustment mechanism 116 integrated within the lower cylindrical section 110, comprising: a threaded adjustment interface 118 for setting an initial desired height of the pole system 100; a cam lock mechanism 120 operatively coupled to the threaded adjustment interface 118, wherein the cam lock mechanism 120 engages after the height adjustment is set, thereby securing the interconnected pole sections 114 in place and reducing mechanical strain on the threaded interface; a rotating base 122 located at the bottom of the lower cylindrical section 110, equipped with: bearings and bushings arranged to facilitate controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely as part of the dance performance.

2. The dance pole system of claim 1, wherein said floor-engaging plate 104 is formed with a plurality of reinforcement ribs across the underside thereof, said reinforcement ribs being configured to distribute load evenly across said base assembly.

3. The dance pole system of claim 1, wherein each of said multiple self-leveling feet 106 is individually adjustable via a threaded rod mechanism, said threaded rod mechanism allowing for micro-adjustments to the height and angle of each foot to optimize contact with uneven floor surfaces.

4. The dance pole system of claim 1, wherein said rotating base 122 is equipped with a counterweight system designed to balance the rotational movements, said counterweight system being configured to automatically adjust based on the detected weight distribution of performers.

5. The dance pole system of claim 1, wherein the axle is equipped with a part-spherical journal that maintains the vertical alignment of the pole, interacting with grub screws that engage with flats on the axle to prevent rotation, enhancing the stability and precision of the pole's orientation during performances.

6. The dance pole system of claim 1, wherein the rotating hub located at the top of the pole comprises: a computer, controller, battery, and wireless receiver that support integrated lighting and electronic features controlled via wireless protocols such as DMX512, allowing synchronization with external systems; Slip rings or inductive couplers that provide continuous power to the rotating hub, ensuring seamless operation of electronic features during rotation.

7. The dance pole system of claim 1, wherein the grub screws used in the pole sections 114 and the axle feature a double-lock design, which includes: an initial engagement point; a secondary internal thread lock activated upon tightening, offering enhanced resistance to vibrations and securing the screws in place during dynamic performances.

8. The dance pole system of claim 1, wherein each of the self-leveling feet 106 is equipped with hydraulic actuators, configured to automatically adjust the level of the feet 106 in response to real-time surface changes, improving the system’s response time and stability on uneven surfaces.

9. The dance pole system of claim 1, wherein the base assembly 102 includes an articulated base plate with multiple articulation points, enabling the base to adapt more significantly to highly uneven surfaces, thereby enhancing overall stability.

10. The dance pole system of claim 1, wherein the rotating hub includes a kinetic energy harvester that generates electrical power from the movement of the pole during use, thereby reducing the energy consumption of the system 100. DANCE POLE SYSTEM WITH ADJUSTABLE HEIGHT AND ROTATIONAL BASE Abstract Disclosed is a dance pole system (100) comprising a base assembly (102) to stably engage with a variety of floor surfaces. The base assembly (102) includes a floor-engaging plate (104) and multiple self-leveling feet (106) mounted on ball joints (108), allowing the feet (106) to automatically adjust to the angle of the floor surface. The system further comprises a lower cylindrical section (110) connected to the base assembly (102), featuring an externally threaded adjustable connector (112) for modular telescoping engagement with additional pole sections (114), allowing customization of the pole length. A dual-lock adjustment mechanism (116) within the lower cylindrical section (110) includes a threaded adjustment interface (118) and a cam lock mechanism (120) to secure the interconnected pole sections (114) in place. A rotating base (122) at the bottom of the lower cylindrical section (110) includes bearings and bushings for controlled rotational movement, enabling performers to execute spins and rotations smoothly. Fig. 1 , Claims:Claims :

1. A dance pole system 100 comprising: a base assembly 102 to stably engage with a variety of floor surfaces, the base assembly 102 comprising: a floor-engaging plate 104, providing the foundational support for the system 100; multiple self-leveling feet 106, each foot 106 mounted on a respective ball joint 108, wherein the ball joints 108 enable the feet 106 to automatically adjust to the angle of the floor surface to maintain full ground contact and enhance stability across varied surface conditions; a lower cylindrical section 110 rigidly connected to the base assembly 102, incorporating: an externally threaded adjustable connector 112 that facilitates vertical height adjustments, designed for modular telescoping engagement with additional pole sections 114, enabling the customization of the pole length based on performance requirements; multiple additional pole sections 114: each section 114 designed to mechanically interlock with the lower cylindrical section 110 or another pole section 114 through the externally threaded adjustable connector 112, ensuring a secure and stable assembly that supports dynamic acrobatic performances without deformation; a dual-lock adjustment mechanism 116 integrated within the lower cylindrical section 110, comprising: a threaded adjustment interface 118 for setting an initial desired height of the pole system 100; a cam lock mechanism 120 operatively coupled to the threaded adjustment interface 118, wherein the cam lock mechanism 120 engages after the height adjustment is set, thereby securing the interconnected pole sections 114 in place and reducing mechanical strain on the threaded interface; a rotating base 122 located at the bottom of the lower cylindrical section 110, equipped with: bearings and bushings arranged to facilitate controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely as part of the dance performance.

2. The dance pole system of claim 1, wherein said floor-engaging plate 104 is formed with a plurality of reinforcement ribs across the underside thereof, said reinforcement ribs being configured to distribute load evenly across said base assembly.

3. The dance pole system of claim 1, wherein each of said multiple self-leveling feet 106 is individually adjustable via a threaded rod mechanism, said threaded rod mechanism allowing for micro-adjustments to the height and angle of each foot to optimize contact with uneven floor surfaces.

4. The dance pole system of claim 1, wherein said rotating base 122 is equipped with a counterweight system designed to balance the rotational movements, said counterweight system being configured to automatically adjust based on the detected weight distribution of performers.

5. The dance pole system of claim 1, wherein the axle is equipped with a part-spherical journal that maintains the vertical alignment of the pole, interacting with grub screws that engage with flats on the axle to prevent rotation, enhancing the stability and precision of the pole's orientation during performances.

6. The dance pole system of claim 1, wherein the rotating hub located at the top of the pole comprises: a computer, controller, battery, and wireless receiver that support integrated lighting and electronic features controlled via wireless protocols such as DMX512, allowing synchronization with external systems; Slip rings or inductive couplers that provide continuous power to the rotating hub, ensuring seamless operation of electronic features during rotation.

7. The dance pole system of claim 1, wherein the grub screws used in the pole sections 114 and the axle feature a double-lock design, which includes: an initial engagement point; a secondary internal thread lock activated upon tightening, offering enhanced resistance to vibrations and securing the screws in place during dynamic performances.

8. The dance pole system of claim 1, wherein each of the self-leveling feet 106 is equipped with hydraulic actuators, configured to automatically adjust the level of the feet 106 in response to real-time surface changes, improving the system’s response time and stability on uneven surfaces.

9. The dance pole system of claim 1, wherein the base assembly 102 includes an articulated base plate with multiple articulation points, enabling the base to adapt more significantly to highly uneven surfaces, thereby enhancing overall stability.

10. The dance pole system of claim 1, wherein the rotating hub includes a kinetic energy harvester that generates electrical power from the movement of the pole during use, thereby reducing the energy consumption of the system 100.

Description:

DANCE POLE SYSTEM WITH ADJUSTABLE HEIGHT AND ROTATIONAL BASE
Field of the Invention
[0001] The present disclosure generally relates to exercise and performance equipment. Further, the present disclosure particularly relates to a dance pole system with adjustable height and rotational capabilities.
Background
[0002] The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
[0003] Dance poles are widely used in various performance settings, including fitness studios, dance clubs, and personal exercise spaces. Such systems typically consist of a vertical pole that is secured between the floor and ceiling, providing a structure for acrobatic and dance performances. Stability, adjustability, and rotational capabilities are key factors in ensuring safe and effective use of dance poles. Traditional dance pole systems often require precise installation to accommodate different floor surfaces, ceiling heights, and user preferences, which can be challenging and time-consuming. Additionally, maintaining stability on uneven or varied floor surfaces is a common problem, potentially compromising the safety and usability of the dance pole.
[0004] In some systems, base assemblies are fixed or limited in their ability to adapt to different surface angles, which can lead to instability during use. Moreover, adjustments to the pole height and length are often cumbersome, with limited modularity, making it difficult to customize the pole for different performance requirements. The connection between pole sections in some designs can also be insecure, resulting in instability or mechanical failure during dynamic movements. Furthermore, traditional pole systems may lack integrated mechanisms that securely lock the pole sections in place after height adjustment, relying solely on threaded interfaces that are prone to mechanical strain over time. Rotational movement in such systems is another area that often lacks smoothness and control, leading to inconsistent performance experiences.
[0005] Various state-of-the-art systems incorporate basic leveling mechanisms or adjustable connectors but fail to address all the aforementioned issues comprehensively. For example, some systems offer leveling feet but lack the ability to self-adjust to varying floor angles, limiting their effectiveness on uneven surfaces. Others provide adjustable pole lengths but do not offer secure locking mechanisms to support dynamic use, especially during acrobatic performances. Rotational base components are sometimes included but without bearings or bushings to facilitate smooth movement, resulting in jerky or uncontrolled rotations.
[0006] In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and/or techniques for dance pole systems, particularly in terms of stability, adjustability, modularity, and rotational performance.

Summary
[0001] The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
[0002] The following paragraphs provide additional support for the claims of the subject application.
[0003] In an aspect, the present disclosure provides a dance pole system comprising a base assembly that stably engages with a variety of floor surfaces. The base assembly includes a floor-engaging plate and multiple self-leveling feet mounted on ball joints, enabling the feet to automatically adjust to the angle of the floor surface for maintaining full ground contact and enhancing stability across varied surface conditions. A lower cylindrical section is rigidly connected to the base assembly and includes an externally threaded adjustable connector that facilitates vertical height adjustments and modular telescoping engagement with additional pole sections, allowing customization of the pole length. The additional pole sections mechanically interlock with the lower cylindrical section or another pole section through the externally threaded adjustable connector, ensuring a secure and stable assembly that supports dynamic acrobatic performances without deformation. The lower cylindrical section integrates a dual-lock adjustment mechanism comprising a threaded adjustment interface for setting an initial desired height of the pole system and a cam lock mechanism operatively coupled to the threaded adjustment interface, engaging after the height adjustment is set, securing the interconnected pole sections in place, and reducing mechanical strain on the threaded interface. A rotating base located at the bottom of the lower cylindrical section includes bearings and bushings that facilitate controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely as part of the dance performance.
[0004] Further, the floor-engaging plate of the base assembly is formed with reinforcement ribs across the underside to distribute load evenly.
[0005] Further, each self-leveling foot is individually adjustable via a threaded rod mechanism, allowing for micro-adjustments to the height and angle of each foot to optimize contact with uneven floor surfaces.
[0006] Further, the rotating base includes a counterweight system designed to balance rotational movements, automatically adjusting based on the detected weight distribution of performers.
[0007] Further, the axle is equipped with a part-spherical journal that maintains the vertical alignment of the pole, interacting with grub screws that engage with flats on the axle to prevent rotation, enhancing the stability and precision of the pole's orientation during performances.
[0008] Further, the rotating hub located at the top of the pole includes a computer, controller, battery, and wireless receiver supporting integrated lighting and electronic features controlled via wireless protocols, with slip rings or inductive couplers providing continuous power to the rotating hub.
[0009] Further, the grub screws used in the pole sections and the axle feature a double-lock design, including an initial engagement point and a secondary internal thread lock activated upon tightening, offering enhanced resistance to vibrations.
[00010] Further, the self-leveling feet are equipped with hydraulic actuators, automatically adjusting the level of the feet in response to real-time surface changes.
[00011] Further, the base assembly includes an articulated base plate with multiple articulation points, enabling the base to adapt to highly uneven surfaces.
[00012] Further, the rotating hub includes a kinetic energy harvester generating electrical power from the movement of the pole during use, reducing energy consumption.
Brief Description of the Drawings
[00013] The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
[00014] FIG. 1 illustrates a dance pole system 100, in accordance with the embodiments of the present disclosure.
[00015] FIG. 2 illustrates the structural components and relationships within a dance pole system 100, designed to provide stability and adaptability across various floor surfaces, as detailed in the embodiments of the present disclosure.
Detailed Description
[00016] In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
[00017] The use of the terms “a” and “an” and “the” and “at least one” and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term “at least one” followed by a list of one or more items (for example, “at least one of A and B”) is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms “comprising,” “having,” “including,” and “containing” are to be construed as open-ended terms (i.e., meaning “including, but not limited to,”) unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., “such as”) provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
[00018] Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
[00019] As used herein, the term "dance pole system" refers to a structural assembly for dance and acrobatic performances. The dance pole system comprises multiple components that work together to provide a stable and adjustable vertical pole capable of supporting dynamic movements by a performer. The system includes a base assembly that stably engages with various floor surfaces, a lower cylindrical section that provides the primary vertical structure, and additional pole sections that interlock to extend the height of the pole as required. The dance pole system further incorporates mechanisms for height adjustment, rotational movement, and secure locking of the pole sections to safety and stability during use. The system is typically used in fitness studios, performance venues, and personal spaces where secure and versatile pole installations are necessary for executing a variety of dance techniques and acrobatic maneuvers.
[00020] As used herein, the term "base assembly" refers to the foundational component of the dance pole system. The base assembly is responsible for securely engaging with the floor surface, providing the primary support for the entire structure. The base assembly typically includes a floor-engaging plate, multiple self-leveling feet, and other components that the stability of the pole system on a variety of floor surfaces. The base assembly may be adapted to different surface conditions, including smooth, uneven, or angled floors, by using mechanisms such as ball joints or adjustable feet. The base assembly plays a role in maintaining the overall stability and safety of the dance pole system, especially during dynamic movements by the performer.
[00021] As used herein, the term "floor-engaging plate" refers to the component of the base assembly that directly contacts the floor surface. The floor-engaging plate provides foundational support for the dance pole system, that the system remains stable during use. The floor-engaging plate is typically with a broad surface area to distribute the load evenly across the floor, reducing the risk of tipping or instability. In some embodiments, the floor-engaging plate may include reinforcement features, such as ribs or additional layers, to enhance strength and load-bearing capacity. The floor-engaging plate is essential in that the base assembly maintains secure contact with the floor, regardless of the surface type or condition.
[00022] As used herein, the term "self-leveling feet" refers to the components of the base assembly that automatically adjust to the angle of the floor surface. Each self-leveling foot is mounted on a respective ball joint, allowing the foot to pivot and maintain full ground contact, even on uneven or sloped surfaces. The self-leveling feet play a role in that the dance pole system remains stable and secure during use, as they enable the base assembly to adapt to a variety of floor conditions without manual adjustment. In some configurations, the self-leveling feet may also include additional adjustment mechanisms, such as threaded rods, to further fine-tune the height and angle of each foot.
[00023] As used herein, the term "ball joint" refers to the pivotable connection between the self-leveling feet and the base assembly. The ball joint allows each self-leveling foot to rotate freely, adjusting to the angle of the floor surface to maintain full ground contact. The ball joint is typically to allow a wide range of motion, enabling the self-leveling feet to adapt to various surface angles and conditions. The ball joint is a key component in the self-leveling mechanism, providing the necessary flexibility for the base assembly to stabilize the dance pole system on uneven or irregular surfaces.
[00024] As used herein, the term "lower cylindrical section" refers to the primary vertical component of the dance pole system, connected to the base assembly. The lower cylindrical section provides the foundational vertical support for the pole system and serves as the attachment point for additional pole sections. The lower cylindrical section typically incorporates an externally threaded adjustable connector, allowing for vertical height adjustments and the secure attachment of additional pole sections. The lower cylindrical section may also house other mechanisms, such as the dual-lock adjustment mechanism, that further enhance the stability and security of the pole system during use.
[00025] As used herein, the term "externally threaded adjustable connector" refers to the component within the lower cylindrical section that allows for vertical height adjustments and the modular telescoping engagement with additional pole sections. The externally threaded adjustable connector is to facilitate the secure attachment of additional pole sections by enabling them to be mechanically interlocked with the lower cylindrical section or with each other. Said connector is essential for customizing the pole length to meet specific performance requirements, that the dance pole system can be adapted to different heights and configurations as needed.
[00026] As used herein, the term "additional pole sections" refers to the modular components that can be attached to the lower cylindrical section to extend the height of the dance pole system. Each additional pole section is to mechanically interlock with the lower cylindrical section or with another pole section through the externally threaded adjustable connector. These pole sections a secure and stable assembly that can support dynamic acrobatic performances without deformation. The additional pole sections are essential for customizing the height of the dance pole system, allowing it to be adjusted for various performance environments and user preferences.
[00027] As used herein, the term "dual-lock adjustment mechanism" refers to the system integrated within the lower cylindrical section that secures the height of the dance pole system after it has been adjusted. The dual-lock adjustment mechanism typically comprises a threaded adjustment interface for setting the initial desired height and a cam lock mechanism that engages after the height adjustment is set. The dual-lock mechanism is to secure the interconnected pole sections in place, reducing mechanical strain on the threaded interface and that the pole remains stable during use. The dual-lock adjustment mechanism is for maintaining the integrity of the dance pole system during dynamic movements.
[00028] As used herein, the term "threaded adjustment interface" refers to the component within the dual-lock adjustment mechanism that allows for the initial setting of the desired height of the dance pole system. The threaded adjustment interface provides a secure and precise method for adjusting the height of the pole by engaging with the externally threaded adjustable connector. Once the desired height is set, the cam lock mechanism within the dual-lock adjustment mechanism engages to secure the pole sections in place. The threaded adjustment interface is essential for achieving the correct pole height, that the dance pole system can be customized to meet the specific requirements of the performance environment.
[00029] As used herein, the term "cam lock mechanism" refers to the component within the dual-lock adjustment mechanism that secures the pole sections in place after the height adjustment has been set. The cam lock mechanism engages with the threaded adjustment interface to lock the pole sections together, reducing mechanical strain on the threaded interface and preventing any unwanted movement during use. The cam lock mechanism is to provide additional security to the dance pole system, that the pole remains stable and secure during dynamic performances. The cam lock mechanism is a key component in maintaining the structural integrity of the dance pole system.
[00030] As used herein, the term "rotating base" refers to the component located at the bottom of the lower cylindrical section that allows for controlled rotational movement of the dance pole system. The rotating base typically includes bearings and bushings arranged to facilitate smooth and secure rotational movement, enabling performers to execute spins and rotations as part of their dance routines. The rotating base is to enhance the versatility of the dance pole system by allowing for a wider range of movements and techniques to be performed. The rotating base is essential for providing the dynamic capabilities of the dance pole system, that it can be used for a variety of performance styles.
[00031] FIG. 1 illustrates a dance pole system 100, in accordance with the embodiments of the present disclosure. The dance pole system 100 includes a base assembly 102 that stably engages with a variety of floor surfaces, allowing the system 100 to maintain consistent contact with the ground during use. The base assembly 102 comprises several components providing a stable foundation for the dance pole system 100. The base assembly 102 incorporates a floor-engaging plate 104, which provides foundational support for the dance pole system 100. The floor-engaging plate 104 is characterized by a broad surface area, which distributes the load evenly across the floor surface, minimizing the risk of tipping or instability. The floor-engaging plate 104 may be constructed from a durable material to withstand the forces exerted by the pole system 100 during dynamic movements. Additionally, the floor-engaging plate 104 may include reinforcement features, such as ribs or additional layers, to enhance strength and load-bearing capacity. These reinforcement features allow the floor-engaging plate 104 to maintain structural integrity under various conditions, allowing the dance pole system 100 to remain secure during performances. The base assembly 102, therefore, provides a foundation for the overall stability and performance of the dance pole system 100, enabling use on different types of floor surfaces with confidence.
[00032] The dance pole system 100 further comprises multiple self-leveling feet 106, each mounted on a respective ball joint 108. These self-leveling feet 106 play an important role in adapting the dance pole system 100 to various floor conditions. The ball joints 108 allow each foot 106 to pivot and adjust to the angle of the floor surface, allowing the feet 106 to maintain full ground contact at all times. Aforesaid feature is particularly beneficial when the dance pole system 100 is used on uneven or sloped surfaces, as the self-leveling feet 106 automatically adjust to

maintain stability without the need for manual intervention. The ability of the feet 106 to self-level reduces the risk of the dance pole system 100 becoming unbalanced during use, providing a stable platform for performers. Additionally, the self-leveling feet 106 may include additional adjustment mechanisms, such as threaded rods, to allow for micro-adjustments to the height and angle of each foot 106. Said further enhances the ability of the dance pole system 100 to adapt to a wide range of floor surfaces and conditions, allowing consistent performance across different environments. The self-leveling feet 106, in conjunction with the ball joints 108, provide a flexible and adaptive base for the dance pole system 100, allowing secure positioning on various floor types.
[00033] The dance pole system 100 includes a lower cylindrical section 110, which is rigidly connected to the base assembly 102. The lower cylindrical section 110 serves as the primary vertical support structure for the dance pole system 100 and securely holds additional pole sections 114. The lower cylindrical section 110 is integral to the overall height and stability of the dance pole system 100, providing a solid anchor point for the additional pole sections 114 that extend the height of the system 100. Incorporated within the lower cylindrical section 110 is an externally threaded adjustable connector 112. The adjustable connector 112 facilitates vertical height adjustments by allowing for modular telescoping engagement with the additional pole sections 114. The externally threaded adjustable connector 112 securely interlocks with the additional pole sections 114, allowing the assembly to remain stable and resist deformation under the stresses of dynamic acrobatic performances. The secure engagement between the lower cylindrical section 110 and the additional pole sections 114 is essential for maintaining the structural integrity of the dance pole system 100, allowing performers to safely execute a wide range of movements.
[00034] The dance pole system 100 includes multiple additional pole sections 114 that mechanically interlock with the lower cylindrical section 110 or with other pole sections 114. Each additional pole section 114 is designed with compatibility in mind, enabling secure and stable assembly with the lower cylindrical section 110 through the externally threaded adjustable connector 112. The design of the additional pole sections 114 ensures that when connected, the dance pole system 100 provides a continuous, stable vertical structure capable of supporting dynamic performances. The interlocking mechanism is engineered to prevent any play or movement between the sections, which could otherwise compromise the stability of the system 100. By allowing for the modular addition of pole sections, the dance pole system 100 can be easily adjusted in height, catering to different performance environments and user preferences. The ability to securely interlock these sections is vital for the overall stability of the dance pole system 100, as it prevents any unwanted movement or detachment of the pole sections during use.
[00035] The dance pole system 100 includes a dual-lock adjustment mechanism 116, integrated within the lower cylindrical section 110. The dual-lock adjustment mechanism 116 is a component that allows secure assembly of the pole sections after height adjustment has been made. The dual-lock adjustment mechanism 116 comprises two main components: a threaded adjustment interface 118 and a cam lock mechanism 120. The threaded adjustment interface 118 allows users to set the initial desired height of the dance pole system 100 by engaging with the externally threaded adjustable connector 112. Said interface provides a secure and precise method for adjusting the height of the pole, allowing it to meet the specific needs of the performance. Once the desired height has been set, the cam lock mechanism 120 engages with the threaded adjustment interface 118. The cam lock mechanism 120 serves to lock the pole sections in place, reducing mechanical strain on the threaded interface and preventing any movement of the pole sections during use. The dual-lock system provides an additional layer of security, allowing the dance pole system 100 to remain stable even under the dynamic forces experienced during a performance. The integration of both the threaded adjustment interface 118 and the cam lock mechanism 120 within the dual-lock adjustment mechanism 116 is essential for maintaining the structural integrity of the dance pole system 100, allowing performers to confidently execute a wide range of acrobatic movements.
[00036] The dance pole system 100 includes a rotating base 122, located at the bottom of the lower cylindrical section 110. The rotating base 122 plays a role in enhancing the versatility of the dance pole system 100 by allowing for controlled rotational movement. The rotating base 122 is equipped with bearings and bushings strategically arranged to facilitate smooth and secure rotational movement of the pole. These components allow the pole to rotate freely and evenly, enabling performers to execute spins and other rotational movements as part of their dance routines. The smoothness of the rotational movement is important for maintaining control during spins, allowing the performer to transition seamlessly between movements without any sudden jerks or stops. The design of the rotating base 122 allows the pole to remain anchored to the floor, even while rotating, preventing any risk of tipping or instability. The integration of the rotating base 122 into the dance pole system 100 adds a dynamic element to the performance, allowing performers to explore a wider range of movements and techniques. The combination of the rotating base 122 with the other components of the dance pole system 100 results in a versatile and stable platform that can accommodate various performance styles. The rotating base 122, along with the bearings and bushings, contributes to the overall stability and functionality of the dance pole system 100.
[00037] In an embodiment, the floor-engaging plate of the dance pole system is formed with a plurality of reinforcement ribs across the underside. These reinforcement ribs are strategically positioned to distribute the load evenly across the base assembly. The reinforcement ribs provide structural support by increasing the rigidity of the floor-engaging plate, which is particularly beneficial when the dance pole system is subjected to dynamic forces during performances. The ribs prevent the plate from flexing or warping under pressure, maintaining a flat, stable surface that securely engages with the floor. The even distribution of load across the base assembly reduces the risk of tipping or instability, especially when the dance pole system is used on surfaces that may not be perfectly level. The inclusion of reinforcement ribs allows the floor-engaging plate to accommodate a variety of floor conditions while maintaining the overall stability and safety of the dance pole system during use.
[00038] In an embodiment, each self-leveling foot of the dance pole system is individually adjustable via a threaded rod mechanism. The threaded rod mechanism allows for precise micro-adjustments to the height and angle of each foot, optimizing contact with uneven floor surfaces. Adjustability becomes important in situations where the floor surface may have irregularities, such as slopes or variations in elevation. By turning the threaded rod, the height of the self-leveling foot can be increased or decreased as needed, maintaining full contact with the ground. Additionally, the angle of the foot can be adjusted to align with the slope of the floor, further enhancing the stability of the dance pole system. The threaded rod mechanism provides a simple yet effective means of customizing the base assembly to suit the specific conditions of the performance environment, ensuring that the dance pole system remains securely anchored regardless of the floor surface.
[00039] In an embodiment, the rotating base of the dance pole system includes a counterweight system that balances the rotational movements. The counterweight system automatically adjusts based on the detected weight distribution of performers, providing smooth and controlled rotation of the pole. Counterweights are strategically placed within the base to counteract any imbalance that may occur during use, particularly when performers shift their weight or execute spins. As the pole rotates, the counterweight system dynamically adjusts to maintain equilibrium, preventing wobbling or tilting. The counterweight system enhances the performance capabilities of the dance pole system by allowing for a wider range of rotational maneuvers while minimizing the risk of instability.
[00040] In an embodiment, the axle of the dance pole system is equipped with a part-spherical journal that maintains the vertical alignment of the pole. The part-spherical journal interacts with grub screws that engage with flats on the axle, preventing rotation and enhancing the stability and precision of the pole's orientation during performances. The part-spherical shape of the journal allows for smooth rotational movement within a controlled range, keeping the pole vertically aligned during rotation. The grub screws provide additional security by locking the axle in place, preventing any unwanted rotation that could compromise stability. Said configuration is particularly beneficial in maintaining alignment during dynamic movements, where precise control over orientation is essential. The combination of the part-spherical journal and grub screws keeps the dance pole system stable and secure, allowing performers to execute complex maneuvers with confidence.
[00041] In an embodiment, the rotating hub located at the top of the pole comprises a computer, controller, battery, and wireless receiver that support integrated lighting and electronic features. These features are controlled via wireless protocols such as DMX512, allowing synchronization with external systems. The rotating hub also includes slip rings or inductive couplers that provide continuous power to the electronic components, enabling seamless operation during rotation. The integration of these electronic features allows the dance pole system to be enhanced with dynamic lighting effects, synchronized with music or other performance elements. The use of slip rings or inductive couplers prevents interruptions in power supply, enabling the electronic features to function reliably even as the pole rotates. The rotating hub adds a layer of interactivity and versatility to the dance pole system, allowing for more engaging and immersive performances.
[00042] In an embodiment, the grub screws used in the pole sections and the axle feature a double-lock design. The double-lock design includes an initial engagement point and a secondary internal thread lock that is activated upon tightening. The initial engagement point provides a secure hold as the grub screws are threaded into the pole sections or axle, while the secondary internal thread lock activates as the screws are fully tightened, locking them in position. The double-lock mechanism is particularly beneficial in preventing the screws from loosening due to the vibrations and forces experienced during use. The secure fastening of the grub screws keeps the pole sections firmly connected and the axle aligned, contributing to the overall stability and reliability of the dance pole system during performances.
[00043] In an embodiment, each self-leveling foot of the dance pole system is equipped with hydraulic actuators. The hydraulic actuators automatically adjust the level of the feet in response to real-time surface changes. Said capability allows the system to adapt to uneven surfaces more effectively, improving response time and maintaining stability on challenging floor conditions. The hydraulic actuators continuously monitor the contact between the feet and the floor, making adjustments as needed to keep each foot in full contact with the ground. The automatic leveling feature is particularly useful in environments where the floor surface may shift or settle during use. By maintaining optimal contact with the ground, the hydraulic actuators enhance the stability and safety of the dance pole system, allowing performers to focus on their routines without concern for the stability of the equipment.
[00044] In an embodiment, the base assembly of the dance pole system includes an articulated base plate with multiple articulation points. These articulation points enable the base to adapt more significantly to highly uneven surfaces, thereby enhancing overall stability. The articulated base plate flexes and moves in response to the contours of the floor, allowing it to maintain full contact with the ground even on irregular surfaces. Each articulation point provides a pivot or hinge that allows the base plate to adjust its angle and position independently of the other points. Such flexibility is particularly beneficial in environments where the floor surface may be rough, sloped, or uneven. The articulated base plate keeps the dance pole system securely anchored, providing a stable foundation for performances even in challenging conditions.
[00045] In an embodiment, the rotating hub of the dance pole system includes a kinetic energy harvester that generates electrical power from the movement of the pole during use. The kinetic energy harvester is integrated into the rotating hub, capturing the energy produced by the pole's motion and converting the captured energy into electrical power. Said power can then be used to operate the electronic features of the dance pole system, such as lighting or other effects, thereby reducing the system's overall energy consumption. The kinetic energy harvester allows the dance pole system to be more energy-efficient, harnessing the natural movements of the pole to power its features. The self-sustaining power source is particularly beneficial in performance environments where minimizing energy use is important. The integration of a kinetic energy harvester into the rotating hub enhances the sustainability and functionality of the dance pole system, providing a reliable source of power without the need for external energy inputs.
[00046] The base assembly of the dance pole system comprises a floor-engaging plate that provides foundational support necessary to maintain stability across various floor surfaces. The inclusion of multiple self-leveling feet mounted on ball joints allows automatic adjustment to the angle of the floor surface, maintaining full ground contact. The adjustment mechanism enhances stability by maintaining the dance pole system secure and level, even on uneven or sloped surfaces, thereby preventing instability or tipping during dynamic performances. The rigid connection between the lower cylindrical section and the base assembly provides a stable vertical structure, which, combined with the externally threaded adjustable connector, allows easy customization of pole height. The modular telescoping engagement with additional pole sections facilitates a secure and stable assembly that supports acrobatic performances without deformation. The integration of a dual-lock adjustment mechanism, comprising a threaded adjustment interface and a cam lock mechanism, allows precise height setting and maintains the interconnected pole sections securely in place, reducing mechanical strain on the threaded interface. The rotating base, equipped with bearings and bushings, facilitates controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely.
[00047] The floor-engaging plate, formed with a plurality of reinforcement ribs across its underside, significantly enhances the load-bearing capacity of the dance pole system. The reinforcement ribs distribute the load evenly across the base assembly, preventing localized stress points that could lead to deformation or instability. Even distribution of load contributes to the overall stability of the dance pole system, particularly during high-intensity performances where forces exerted on the system can vary greatly. The structural integrity provided by the reinforcement ribs maintains the floor-engaging plate's shape and strength, even under repeated use and varying conditions, thus supporting consistent performance across different floor surfaces.
[00048] Each self-leveling foot in the dance pole system is individually adjustable via a threaded rod mechanism, allowing micro-adjustments to the height and angle of each foot. The adjustability optimizes contact with uneven floor surfaces, maintaining full ground contact, which is essential for stability. By allowing fine-tuned adjustments, the threaded rod mechanism provides the ability to compensate for any irregularities in the floor surface, such as slight slopes or variations in elevation, that could otherwise compromise stability.
[00049] The rotating base of the dance pole system incorporates a counterweight system to balance rotational movements automatically. The system adjusts based on detected weight distribution of performers, maintaining the pole balanced during use. By dynamically responding to changes in weight distribution, the counterweight system prevents the pole from tilting or wobbling during spins and other rotational movements, which could disrupt the performance or cause safety concerns. The automatic adjustment provided by the counterweight system allows performers to execute a wide range of movements with confidence, knowing that the dance pole system will remain stable and balanced throughout the performance, regardless of how weight is distributed along the pole.
[00050] The axle of the dance pole system incorporates a part-spherical journal that plays a significant role in maintaining vertical alignment of the pole. The part-spherical journal interacts with grub screws that engage with flats on the axle, preventing unwanted rotation and enhancing stability and precision of the pole's orientation during performances. The configuration maintains the pole correctly aligned vertically, even as performers apply lateral forces or perform dynamic movements. By maintaining precise alignment, the part-spherical journal and grub screws work together to prevent any shifts in the pole's position that could lead to instability or reduced performance quality. The feature is particularly important for maintaining overall safety and reliability of the dance pole system during use.
[00051] The rotating hub located at the top of the pole comprises a computer, controller, battery, and wireless receiver that enable integrated lighting and electronic features. The features are controlled via wireless protocols, such as DMX512, allowing synchronization with external systems for enhanced performance effects. The rotating hub also incorporates slip rings or inductive couplers that provide continuous power to the electronic components, ensuring seamless operation during rotation. The setup allows the dance pole system to incorporate dynamic lighting and electronic effects that enhance the visual impact of performances. The ability to synchronize effects with music or other elements of the performance adds a layer of interactivity and engagement, making the dance pole system a versatile tool for creating immersive performance experiences.
[00052] The grub screws used in the pole sections and the axle feature a double-lock design that includes an initial engagement point and a secondary internal thread lock activated upon tightening. The design offers enhanced resistance to vibrations, maintaining the screws securely fastened during dynamic performances. The double-lock mechanism prevents the screws from loosening due to forces and vibrations experienced during use, which could otherwise compromise stability and safety of the dance pole system. By securing the pole sections and axle with the robust locking mechanism, the system maintains integrity throughout the performance, providing a stable and reliable structure that can withstand the demands of acrobatic movements.
[00053] Each self-leveling foot in the dance pole system incorporates hydraulic actuators, which automatically adjust the level of the feet in response to real-time surface changes. The feature improves the system's response time and stability on uneven surfaces by continuously monitoring and adjusting the feet to maintain full ground contact. The hydraulic actuators maintain the dance pole system adapting to shifting floor conditions, such as slight movements or settling, without requiring manual intervention. By maintaining optimal contact with the ground at all times, the hydraulic actuators enhance overall stability and safety, allowing performers to focus on their routines without concern for stability of the equipment.
[00054] The base assembly of the dance pole system comprises an articulated base plate with multiple articulation points, allowing the base to adapt more significantly to highly uneven surfaces. The articulation capability enhances overall stability by enabling the base plate to maintain full contact with the ground, even on surfaces with significant irregularities. The multiple articulation points provide flexibility in the base plate, allowing the base plate to conform to contours of the floor and distribute the load evenly across the surface. The feature is particularly beneficial in environments where the floor may be rough, sloped, or uneven, as it prevents the base from becoming unstable or unbalanced, maintaining the dance pole system securely anchored during use.
[00055] The rotating hub of the dance pole system incorporates a kinetic energy harvester that generates electrical power from movement of the pole during use. The energy harvesting capability reduces the system's overall energy consumption by converting kinetic energy produced by the pole's motion into usable electrical power. The harvested energy can be used to power electronic features of the system, such as lighting or other effects, making the dance pole system more energy-efficient and sustainable. By generating power from natural movements of the pole, the kinetic energy harvester provides a self-sustaining power source that enhances functionality of the system while reducing reliance on external power sources.
[00056] FIG. 2 illustrates the structural components and relationships within a dance pole system 100, designed to provide stability and adaptability across various floor surfaces, as detailed in embodiments of the present disclosure. The system comprises a base assembly 102, which serves as foundational support, incorporating a floor-engaging plate 104 and multiple self-leveling feet 106. Each self-leveling foot is connected via ball joints 108, allowing automatic adjustment to maintain full ground contact. A lower cylindrical section 110 is rigidly connected to the base assembly 102 and incorporates an externally threaded adjustable connector 112 for vertical height adjustments. The lower cylindrical section 110 also supports multiple additional pole sections 114, which interlock mechanically to maintain a stable assembly capable of supporting dynamic acrobatic performances. A dual-lock adjustment mechanism 116, integrated within the lower cylindrical section 110, comprises a threaded adjustment interface 118 and a cam lock mechanism 120, which secures the pole sections in place after height adjustment, reducing strain on the threaded interface. At the base of the lower cylindrical section 110, a rotating base 122, equipped with bearings and bushings, allows controlled rotational movement, enabling performers to execute spins and rotations smoothly.
[00057] Example embodiments herein have been described above with reference to block diagrams and flowchart illustrations of methods and apparatuses. It will be understood that each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations, respectively, can be implemented by various means including hardware, software, firmware, and a combination thereof. For example, in one embodiment, each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations can be implemented by computer program instructions. These computer program instructions may be loaded onto a general purpose computer, special purpose computer, or other programmable data processing apparatus to produce a machine, such that the instructions which execute on the computer or other programmable data processing apparatus create means for implementing the functions specified in the flowchart block or blocks.
[00058] Throughout the present disclosure, the term ‘processing means’ or ‘microprocessor’ or ‘processor’ or ‘processors’ includes, but is not limited to, a general purpose processor (such as, for example, a complex instruction set computing (CISC) microprocessor, a reduced instruction set computing (RISC) microprocessor, a very long instruction word (VLIW) microprocessor, a microprocessor implementing other types of instruction sets, or a microprocessor implementing a combination of types of instruction sets) or a specialized processor (such as, for example, an application specific integrated circuit (ASIC), a field programmable gate array (FPGA), a digital signal processor (DSP), or a network processor).
[00059] The term “non-transitory storage device” or “storage” or “memory,” as used herein relates to a random access memory, read only memory and variants thereof, in which a computer can store data or software for any duration.
[00060] Operations in accordance with a variety of aspects of the disclosure is described above would not have to be performed in the precise order described. Rather, various steps can be handled in reverse order or simultaneously or not at all.
[00061] While several implementations have been described and illustrated herein, a variety of other means and/or structures for performing the function and/or obtaining the results and/or one or more of the advantages described herein may be utilized, and each of such variations and/or modifications is deemed to be within the scope of the implementations described herein. More generally, all parameters, dimensions, materials, and configurations described herein are meant to be exemplary and that the actual parameters, dimensions, materials, and/or configurations will depend upon the specific application or applications for which the teachings is/are used. Those skilled in the art will recognize, or be able to ascertain using no more than routine experimentation, many equivalents to the specific implementations described herein. It is, therefore, to be understood that the foregoing implementations are presented by way of example only and that, within the scope of the appended claims and equivalents thereto, implementations may be practiced otherwise than as specifically described and claimed. Implementations of the present disclosure are directed to each individual feature, system, article, material, kit, and/or method described herein. In addition, any combination of two or more such features, systems, articles, materials, kits, and/or methods, if such features, systems, articles, materials, kits, and/or methods are not mutually inconsistent, is included within the scope of the present disclosure.

Claims
I/We Claim:
1. A dance pole system 100 comprising:
a base assembly 102 to stably engage with a variety of floor surfaces, the base assembly 102 comprising:
a floor-engaging plate 104, providing the foundational support for the system 100;
multiple self-leveling feet 106, each foot 106 mounted on a respective ball joint 108, wherein the ball joints 108 enable the feet 106 to automatically adjust to the angle of the floor surface to maintain full ground contact and enhance stability across varied surface conditions;
a lower cylindrical section 110 rigidly connected to the base assembly 102, incorporating:
an externally threaded adjustable connector 112 that facilitates vertical height adjustments, designed for modular telescoping engagement with additional pole sections 114, enabling the customization of the pole length based on performance requirements;
multiple additional pole sections 114:
each section 114 designed to mechanically interlock with the lower cylindrical section 110 or another pole section 114 through the externally threaded adjustable connector 112, ensuring a secure and stable assembly that supports dynamic acrobatic performances without deformation;
a dual-lock adjustment mechanism 116 integrated within the lower cylindrical section 110, comprising:
a threaded adjustment interface 118 for setting an initial desired height of the pole system 100;
a cam lock mechanism 120 operatively coupled to the threaded adjustment interface 118, wherein the cam lock mechanism 120 engages after the height adjustment is set, thereby securing the interconnected pole sections 114 in place and reducing mechanical strain on the threaded interface;
a rotating base 122 located at the bottom of the lower cylindrical section 110, equipped with:
bearings and bushings arranged to facilitate controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely as part of the dance performance.
2. The dance pole system of claim 1, wherein said floor-engaging plate 104 is formed with a plurality of reinforcement ribs across the underside thereof, said reinforcement ribs being configured to distribute load evenly across said base assembly.
3. The dance pole system of claim 1, wherein each of said multiple self-leveling feet 106 is individually adjustable via a threaded rod mechanism, said threaded rod mechanism allowing for micro-adjustments to the height and angle of each foot to optimize contact with uneven floor surfaces.
4. The dance pole system of claim 1, wherein said rotating base 122 is equipped with a counterweight system designed to balance the rotational movements, said counterweight system being configured to automatically adjust based on the detected weight distribution of performers.
5. The dance pole system of claim 1, wherein the axle is equipped with a part-spherical journal that maintains the vertical alignment of the pole, interacting with grub screws that engage with flats on the axle to prevent rotation, enhancing the stability and precision of the pole's orientation during performances.
6. The dance pole system of claim 1, wherein the rotating hub located at the top of the pole comprises:
a computer, controller, battery, and wireless receiver that support integrated lighting and electronic features controlled via wireless protocols such as DMX512, allowing synchronization with external systems;
Slip rings or inductive couplers that provide continuous power to the rotating hub, ensuring seamless operation of electronic features during rotation.
7. The dance pole system of claim 1, wherein the grub screws used in the pole sections 114 and the axle feature a double-lock design, which includes:
an initial engagement point;
a secondary internal thread lock activated upon tightening, offering enhanced resistance to vibrations and securing the screws in place during dynamic performances.
8. The dance pole system of claim 1, wherein each of the self-leveling feet 106 is equipped with hydraulic actuators, configured to automatically adjust the level of the feet 106 in response to real-time surface changes, improving the system’s response time and stability on uneven surfaces.
9. The dance pole system of claim 1, wherein the base assembly 102 includes an articulated base plate with multiple articulation points, enabling the base to adapt more significantly to highly uneven surfaces, thereby enhancing overall stability.
10. The dance pole system of claim 1, wherein the rotating hub includes a kinetic energy harvester that generates electrical power from the movement of the pole during use, thereby reducing the energy consumption of the system 100.

DANCE POLE SYSTEM WITH ADJUSTABLE HEIGHT AND ROTATIONAL BASE
Abstract
Disclosed is a dance pole system (100) comprising a base assembly (102) to stably engage with a variety of floor surfaces. The base assembly (102) includes a floor-engaging plate (104) and multiple self-leveling feet (106) mounted on ball joints (108), allowing the feet (106) to automatically adjust to the angle of the floor surface. The system further comprises a lower cylindrical section (110) connected to the base assembly (102), featuring an externally threaded adjustable connector (112) for modular telescoping engagement with additional pole sections (114), allowing customization of the pole length. A dual-lock adjustment mechanism (116) within the lower cylindrical section (110) includes a threaded adjustment interface (118) and a cam lock mechanism (120) to secure the interconnected pole sections (114) in place. A rotating base (122) at the bottom of the lower cylindrical section (110) includes bearings and bushings for controlled rotational movement, enabling performers to execute spins and rotations smoothly.
Fig. 1

, Claims:Claims
I/We Claim:
1. A dance pole system 100 comprising:
a base assembly 102 to stably engage with a variety of floor surfaces, the base assembly 102 comprising:
a floor-engaging plate 104, providing the foundational support for the system 100;
multiple self-leveling feet 106, each foot 106 mounted on a respective ball joint 108, wherein the ball joints 108 enable the feet 106 to automatically adjust to the angle of the floor surface to maintain full ground contact and enhance stability across varied surface conditions;
a lower cylindrical section 110 rigidly connected to the base assembly 102, incorporating:
an externally threaded adjustable connector 112 that facilitates vertical height adjustments, designed for modular telescoping engagement with additional pole sections 114, enabling the customization of the pole length based on performance requirements;
multiple additional pole sections 114:
each section 114 designed to mechanically interlock with the lower cylindrical section 110 or another pole section 114 through the externally threaded adjustable connector 112, ensuring a secure and stable assembly that supports dynamic acrobatic performances without deformation;
a dual-lock adjustment mechanism 116 integrated within the lower cylindrical section 110, comprising:
a threaded adjustment interface 118 for setting an initial desired height of the pole system 100;
a cam lock mechanism 120 operatively coupled to the threaded adjustment interface 118, wherein the cam lock mechanism 120 engages after the height adjustment is set, thereby securing the interconnected pole sections 114 in place and reducing mechanical strain on the threaded interface;
a rotating base 122 located at the bottom of the lower cylindrical section 110, equipped with:
bearings and bushings arranged to facilitate controlled rotational movement, allowing performers to execute spins and rotations smoothly and securely as part of the dance performance.
2. The dance pole system of claim 1, wherein said floor-engaging plate 104 is formed with a plurality of reinforcement ribs across the underside thereof, said reinforcement ribs being configured to distribute load evenly across said base assembly.
3. The dance pole system of claim 1, wherein each of said multiple self-leveling feet 106 is individually adjustable via a threaded rod mechanism, said threaded rod mechanism allowing for micro-adjustments to the height and angle of each foot to optimize contact with uneven floor surfaces.
4. The dance pole system of claim 1, wherein said rotating base 122 is equipped with a counterweight system designed to balance the rotational movements, said counterweight system being configured to automatically adjust based on the detected weight distribution of performers.
5. The dance pole system of claim 1, wherein the axle is equipped with a part-spherical journal that maintains the vertical alignment of the pole, interacting with grub screws that engage with flats on the axle to prevent rotation, enhancing the stability and precision of the pole's orientation during performances.
6. The dance pole system of claim 1, wherein the rotating hub located at the top of the pole comprises:
a computer, controller, battery, and wireless receiver that support integrated lighting and electronic features controlled via wireless protocols such as DMX512, allowing synchronization with external systems;
Slip rings or inductive couplers that provide continuous power to the rotating hub, ensuring seamless operation of electronic features during rotation.
7. The dance pole system of claim 1, wherein the grub screws used in the pole sections 114 and the axle feature a double-lock design, which includes:
an initial engagement point;
a secondary internal thread lock activated upon tightening, offering enhanced resistance to vibrations and securing the screws in place during dynamic performances.
8. The dance pole system of claim 1, wherein each of the self-leveling feet 106 is equipped with hydraulic actuators, configured to automatically adjust the level of the feet 106 in response to real-time surface changes, improving the system’s response time and stability on uneven surfaces.
9. The dance pole system of claim 1, wherein the base assembly 102 includes an articulated base plate with multiple articulation points, enabling the base to adapt more significantly to highly uneven surfaces, thereby enhancing overall stability.
10. The dance pole system of claim 1, wherein the rotating hub includes a kinetic energy harvester that generates electrical power from the movement of the pole during use, thereby reducing the energy consumption of the system 100.