1. A dance footwear 100 comprising: a sole 102 incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances; piezoelectric fabric panels 104 attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer's movements; a mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element that records shifts in balance and posture, providing feedback on the dancer's stability and alignment during various dance routines; interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104, wherein the mechanical energy from the dancer's movements simultaneously influences fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels 104, enhancing the footwear's ability to provide integrated feedback on physical exertion and balance; and a mechanical converter 110 configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems.

2. The dance footwear 100 of claim 1, wherein the hydraulic channels are lined with a flexible material that enhances the responsiveness of the hydraulic fluid movement, thereby providing a more precise adjustment of resistance based on the intensity of the dance movements.

3. The dance footwear 100 of claim 1, further comprising valves within the hydraulic channels that control the flow rate of the hydraulic fluid, enabling finer control over the resistance provided, facilitating adjustments tailored to specific dance moves or dancer preferences.

4. The dance footwear 100 of claim 1, wherein the mechanical balancing component 106 includes a series of interconnected levers and pivots, which enhance the sensitivity and accuracy of balance feedback by distributing the gyroscopic effects more evenly across the sole 102 of the footwear.

5. The dance footwear 100 of claim 1, wherein the interconnected mechanical linkages 108 include elastic elements that allow for a more flexible connection between the hydraulic channels and the piezoelectric fabric panels 104, ensuring that mechanical stress is effectively transmitted between these components without loss of energy.

6. The dance footwear 100 of claim 1, wherein the mechanical converter 110 includes a dial indicator visible on the exterior of the footwear, providing visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104, allowing dancers and instructors to make real-time performance adjustments.

7. The dance footwear 100 of claim 1, wherein the manual controls are accessible through a pull-tab mechanism integrated into the upper portion of the footwear, which allows dancers to adjust the resistance and balance sensitivity without removing the footwear or interrupting their performance.

8. The dance footwear 100 of claim 1, wherein the piezoelectric fabric panels 104 are also configured to adjust their electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions commonly encountered during dance performances and practices. DANCE FOOTWEAR WITH HYDRAULIC CHANNELS, PIEZOELECTRIC PANELS, AND MECHANICAL BALANCING SYSTEM Abstract Disclosed is a dance footwear comprising a sole incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances; piezoelectric fabric panels attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer’s movements; and a mechanical converter configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems. Fig. 1 , Claims:Claims : What is claimed is:

1. A dance footwear 100 comprising: a sole 102 incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances; piezoelectric fabric panels 104 attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer's movements; a mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element that records shifts in balance and posture, providing feedback on the dancer's stability and alignment during various dance routines; interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104, wherein the mechanical energy from the dancer's movements simultaneously influences fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels 104, enhancing the footwear's ability to provide integrated feedback on physical exertion and balance; and a mechanical converter 110 configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems.

2. The dance footwear 100 of claim 1, wherein the hydraulic channels are lined with a flexible material that enhances the responsiveness of the hydraulic fluid movement, thereby providing a more precise adjustment of resistance based on the intensity of the dance movements.

3. The dance footwear 100 of claim 1, further comprising valves within the hydraulic channels that control the flow rate of the hydraulic fluid, enabling finer control over the resistance provided, facilitating adjustments tailored to specific dance moves or dancer preferences.

4. The dance footwear 100 of claim 1, wherein the mechanical balancing component 106 includes a series of interconnected levers and pivots, which enhance the sensitivity and accuracy of balance feedback by distributing the gyroscopic effects more evenly across the sole 102 of the footwear.

5. The dance footwear 100 of claim 1, wherein the interconnected mechanical linkages 108 include elastic elements that allow for a more flexible connection between the hydraulic channels and the piezoelectric fabric panels 104, ensuring that mechanical stress is effectively transmitted between these components without loss of energy.

6. The dance footwear 100 of claim 1, wherein the mechanical converter 110 includes a dial indicator visible on the exterior of the footwear, providing visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104, allowing dancers and instructors to make real-time performance adjustments.

7. The dance footwear 100 of claim 1, wherein the manual controls are accessible through a pull-tab mechanism integrated into the upper portion of the footwear, which allows dancers to adjust the resistance and balance sensitivity without removing the footwear or interrupting their performance.

8. The dance footwear 100 of claim 1, wherein the piezoelectric fabric panels 104 are also configured to adjust their electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions commonly encountered during dance performances and practices.

Description:

DANCE FOOTWEAR WITH HYDRAULIC CHANNELS, PIEZOELECTRIC PANELS, AND MECHANICAL BALANCING SYSTEM
Field of the Invention
[0001] The present disclosure generally relates to dance footwear. Further, the present disclosure particularly relates to dance footwear incorporating hydraulic channels, piezoelectric fabric panels, and a mechanical balancing component.
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] The field of dance footwear has experienced significant advancements over recent years. Such footwear has been developed to provide dancers with optimal performance conditions during various routines. Conventionally, dance footwear primarily focuses on comfort, flexibility, and support. The materials used in such footwear typically include flexible fabrics, cushioning insoles, and reinforced outer soles to protect dancers from injuries. Moreover, enhancements in sole designs have also been introduced to accommodate various dance styles, such as ballet, contemporary, or ballroom dance. However, despite these advancements, conventional dance footwear often lacks the ability to provide dynamic feedback related to the dancer's movements, physical exertion, and balance during performances.
[0004] In recent years, certain approaches have been employed to improve the interaction between the dancer and the footwear. One such approach involves the use of flexible materials in the construction of the sole. The use of flexible materials aims to enhance the adaptability of the footwear to different dance surfaces and movement patterns. However, while such an approach improves comfort and flexibility, it fails to provide any feedback regarding the intensity or rhythm of the dancer's movements. Moreover, the absence of any mechanism to measure or adjust resistance in response to the dancer's exertion leads to a lack of personalized experience during dance routines. Consequently, dancers are unable to optimize their performance based on real-time feedback, which may result in suboptimal alignment, balance, and movement precision.
[0005] Another known approach involves the incorporation of basic sensors within the footwear to monitor certain aspects of a dancer's performance, such as pressure distribution or foot strike patterns. Such sensors are often employed to collect data related to the dancer's footwork, which can later be analyzed for improving technique. However, the reliance on external electronic systems to process and interpret such data is a significant drawback. The integration of electronic systems adds complexity and may introduce delays in receiving real-time feedback. Additionally, the use of external systems can detract from the dancer's focus, as dancers must rely on post-performance analysis rather than receiving immediate insights during the routine. Furthermore, the presence of electronic components in the footwear may also affect the overall comfort and aesthetic appeal, as well as introduce maintenance challenges.
[0006] A further method involves the use of mechanical components integrated into dance footwear to provide some level of resistance or feedback. Such components are typically limited to fixed mechanisms, which do not dynamically respond to the dancer's movements or the varying intensity of dance routines. The use of static mechanical elements can lead to an inconsistent experience during performances, as dancers may encounter varying levels of resistance or support that do not align with the specific demands of a particular routine. Moreover, the lack of integration between different components within the footwear can result in disjointed feedback, making it difficult for dancers to achieve optimal performance.
[0007] In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and techniques for enhancing dance footwear, particularly in providing real-time, dynamic feedback on the dancer's movements, exertion, and balance without relying on complex electronic systems.
Summary
[0008] 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.
[0009] The following paragraphs provide additional support for the claims of the subject application.
[0010] An objective of the present disclosure is to provide dance footwear that offers integrated feedback on physical exertion, balance, and performance dynamics without relying on complex electronic systems. The system of the present disclosure aims to enhance the dancer's experience by providing variable resistance, generating electrical signals correlated to dance movements, and offering feedback on stability and alignment.
[0011] In an aspect, the present disclosure provides dance footwear comprising a sole incorporating multiple hydraulic channels filled with hydraulic fluid. The flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances. The footwear also includes piezoelectric fabric panels attached to predetermined areas of the footwear, including at least the toe and heel regions, which generate electrical signals when deformed by mechanical stress from dance movements. Said electrical signals correlate to the rhythm and intensity of the dancer's movements. A mechanical balancing component embedded within the sole features a gyroscopic element that records shifts in balance and posture, providing feedback on the dancer's stability and alignment during various dance routines. Interconnected mechanical linkages between the hydraulic channels and the piezoelectric fabric panels enable the mechanical energy from the dancer's movements to simultaneously influence fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels, thereby enhancing the footwear's ability to provide integrated feedback on physical exertion and balance. A mechanical converter translates the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels into readable mechanical indicators, providing a comprehensive overview of performance dynamics without reliance on complex electronic systems.
[0012] Furthermore, the footwear includes a flexible material lining the hydraulic channels, enhancing the responsiveness of the hydraulic fluid movement and providing a more precise adjustment of resistance based on the intensity of dance movements. The footwear further comprises valves within the hydraulic channels that control the flow rate of the hydraulic fluid, thereby enabling finer control over the resistance provided and facilitating adjustments tailored to specific dance moves or dancer preferences.
[0013] Additionally, the mechanical balancing component includes a series of interconnected levers and pivots, enhancing the sensitivity and accuracy of balance feedback by distributing the gyroscopic effects more evenly across the sole of the footwear. The interconnected mechanical linkages also include elastic elements that allow for a more flexible connection between the hydraulic channels and the piezoelectric fabric panels, ensuring that mechanical stress is effectively transmitted between these components without loss of energy.
[0014] Moreover, the mechanical converter includes a dial indicator visible on the exterior of the footwear, providing visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels, thereby enabling dancers and instructors to make real-time performance adjustments. The footwear also includes manual controls accessible through a pull-tab mechanism integrated into the upper portion of the footwear, allowing dancers to adjust the resistance and balance sensitivity without removing the footwear or interrupting their performance.
[0015] Finally, the piezoelectric fabric panels are configured to adjust their electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions commonly encountered during dance performances and practices.
Brief Description of the Drawings
[0016] The summary above, as well as the following detailed description of illustrative embodiments, is better understood when read in conjunction with the appended drawings. For the purpose of illustrating the present disclosure, exemplary constructions of the disclosure are shown in the drawings. However, the present disclosure is not limited to specific methods and instrumentalities disclosed herein.
[0017] Embodiments of the present disclosure will now be described, by way of example only, with reference to the following diagrams.
[0018] FIG. 1 illustrates a dance footwear 100, in accordance with various implementations of the present disclosure;
[0019] FIG. 2 illustrates an architectural diagram of the dance footwear 100, detailing the integration and interaction of various components embedded within the sole 102, in accordance with embodiments of the present disclosure; and
[0020] FIG. 3 is a sequential diagram that illustrates the dynamic interaction between the dancer, the footwear, and its internal components, in accordance with embodiments of the present disclosure.
Detailed Description
[0021] 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.
[0022] 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.
[0023] 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.
[0024] The following detailed description illustrates embodiments of the present disclosure and ways in which they can be implemented. Although some modes of carrying out the present disclosure have been disclosed, those skilled in the art would recognize that other embodiments for carrying out or practicing the present disclosure are also possible.
[0025] As used herein, the term "sole" refers to a structural component located at the bottom of the dance footwear. The sole provides a foundation for the other elements of the footwear and supports the dancer's foot during movement. The sole incorporates multiple hydraulic channels filled with hydraulic fluid to provide variable resistance during dance performances, enhancing the responsiveness and comfort of the dancer.
[0026] As used herein, the term "hydraulic channels" refers to conduits integrated within the sole of the dance footwear. Said channels contain hydraulic fluid that moves in response to the dancer's movements, allowing for mechanical adjustment of flow and pressure. Such adjustment offers variable resistance, providing feedback and enhancing the dancer's performance dynamics.
[0027] As used herein, the term "hydraulic fluid" refers to the liquid medium contained within the hydraulic channels of the dance footwear. Said hydraulic fluid transmits pressure and flow changes, which are mechanically adjusted based on the movement and force exerted by the dancer. Such fluid plays an essential role in providing variable resistance and enhancing the dancer's control over movements.
[0028] As used herein, the term "piezoelectric fabric panels" refers to specialized textile components attached to the footwear, specifically in the toe and heel regions. Said panels generate electrical signals when deformed by mechanical stress from dance movements. The electrical signals produced correlate to the rhythm and intensity of the dancer's movements, providing valuable feedback on performance dynamics.
[0029] As used herein, the term "toe regions" refers to the front sections of the dance footwear where the dancer's toes are positioned. Said regions are equipped with piezoelectric fabric panels that respond to the mechanical stress from dance movements, generating electrical signals that provide insights into the rhythm and intensity of the dance.
[0030] As used herein, the term "heel regions" refers to the rear sections of the dance footwear where the dancer's heels are located. Similar to the toe regions, such areas feature piezoelectric fabric panels that generate electrical signals in response to mechanical stress, offering feedback on the dancer's movements and stability.
[0031] As used herein, the term "mechanical balancing component" refers to an embedded apparatus within the sole of the dance footwear designed to monitor and provide feedback on the dancer's balance and posture. Said component includes a gyroscopic element that records shifts in balance and alignment, enhancing the dancer's stability during performances.
[0032] As used herein, the term "gyroscopic element" refers to a device within the mechanical balancing component that measures and records shifts in balance and posture. Said element helps provide feedback on the dancer's stability and alignment, which is essential for maintaining proper form during dance routines.
[0033] As used herein, the term "mechanical linkages" refers to interconnected components that connect the hydraulic channels with the piezoelectric fabric panels. Said linkages ensure that mechanical energy from the dancer's movements is simultaneously transmitted to influence fluid dynamics and the deformation of piezoelectric fabric panels, optimizing the footwear's feedback system.
[0034] As used herein, the term "mechanical converter" refers to a device within the dance footwear that translates the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels into readable mechanical indicators. Said converter allows dancers and instructors to monitor performance dynamics without relying on complex electronic systems.
[0035] As used herein, the term "mechanical indicators" refers to the readable outputs provided by the mechanical converter in the dance footwear. Said indicators offer a comprehensive overview of performance dynamics, such as resistance and balance, enabling real-time adjustments during dance routines.
[0036] As used herein, the term "valves" refers to control mechanisms within the hydraulic channels that regulate the flow rate of the hydraulic fluid. By adjusting the flow rate, said valves enable finer control over the resistance provided by the footwear, accommodating specific dance moves or dancer preferences.
[0037] As used herein, the term "interconnected levers" refers to mechanical elements within the mechanical balancing component that distribute the effects of the gyroscopic element more evenly across the sole of the footwear. Said levers enhance the accuracy of balance feedback by ensuring that gyroscopic effects are uniformly applied.
[0038] As used herein, the term "pivots" refers to rotational joints within the mechanical balancing component that allow for smooth movement and distribution of gyroscopic effects across the sole. Said pivots contribute to the accurate feedback on the dancer's balance and alignment during performances.
[0039] As used herein, the term "elastic elements" refers to flexible components within the interconnected mechanical linkages that facilitate the transfer of mechanical stress between the hydraulic channels and the piezoelectric fabric panels. Said elements ensure that energy is effectively transmitted without loss, maintaining the efficiency of the feedback system.
[0040] As used herein, the term "dial indicator" refers to a visual feedback mechanism integrated into the exterior of the dance footwear. Said indicator displays the combined outputs from the hydraulic channels and piezoelectric fabric panels, allowing dancers to make real-time adjustments based on the feedback provided.
[0041] As used herein, the term "manual controls" refers to user-operated mechanisms within the dance footwear that allow for adjustment of resistance and balance sensitivity. Said controls are accessible through a pull-tab mechanism, enabling dancers to fine-tune footwear settings without interrupting performance.
[0042] As used herein, the term "pull-tab mechanism" refers to a user interface integrated into the upper portion of the dance footwear. Said mechanism allows dancers to adjust the resistance and balance sensitivity of the footwear on the fly, providing convenience and flexibility during performances.
[0043] As used herein, the term "upper portion" refers to the section of the dance footwear that covers the top of the foot. Said portion houses the pull-tab mechanism and may also include other controls or adjustments for the dancer's convenience.
[0044] As used herein, the term "environmental factors" refers to external conditions such as temperature and humidity that may influence the performance of the piezoelectric fabric panels in the dance footwear. Said factors are accounted for in the design to ensure consistent feedback under varying conditions.
[0045] As used herein, the term "temperature" refers to the ambient thermal conditions that can affect the performance of the piezoelectric fabric panels in the dance footwear. Said panels adjust signal generation based on temperature variations to maintain reliable feedback.
[0046] As used herein, the term "humidity" refers to the moisture content in the air that can impact the performance of the piezoelectric fabric panels. Said panels compensate for changes in humidity, ensuring that performance feedback remains consistent in different environments.
[0047] FIG. 1 illustrates a dance footwear 100, in accordance with various implementations of the present disclosure. In an embodiment, the dance footwear 100 comprises a sole 102 incorporating multiple hydraulic channels filled with hydraulic fluid. Said hydraulic channels are integrated within the sole 102 and serve to transmit forces exerted by the dancer during movement. The flow and pressure of the hydraulic fluid are mechanically adjusted based on the intensity and direction of the dancer's movements. This adjustment allows for real-time modification of the resistance offered by the dance footwear 100, providing an adaptive

response to the dancer's actions. As the dancer applies force or shifts weight, the hydraulic channels dynamically alter the fluid distribution, offering varying degrees of resistance that correspond to the movement. The hydraulic channels are strategically positioned within the sole 102 to optimize the response to different dance movements, enabling a controlled and supportive environment for the dancer's foot. The interaction between the hydraulic fluid and the mechanical structure of the channels contributes to a responsive system that adjusts fluid flow efficiently, thereby accommodating a range of dance styles and movement intensities.
[0048] In an embodiment, the dance footwear 100 includes piezoelectric fabric panels 104 attached to predetermined areas, such as the toe and heel regions. Said piezoelectric fabric panels 104 generate electrical signals when subjected to mechanical stress from dance movements. The positioning of such piezoelectric fabric panels 104 in key areas of the dance footwear 100 allows for the capture of stress and deformation data, which correlates with the rhythm and intensity of the dancer's movements. As the dancer moves, the piezoelectric fabric panels 104 deform under the applied pressure, converting mechanical energy into electrical signals that can be analyzed to monitor the dancer's performance. The signals produced reflect the dancer's movement patterns and exertion levels, offering insights into the dynamic nature of the dance routine. The piezoelectric fabric panels 104 operate without the need for external power sources, relying solely on the mechanical stress generated during movement. Such piezoelectric fabric panels 104 are integrated into the design of the dance footwear 100 to provide continuous feedback without impeding the dancer's natural motion.
[0049] In an embodiment, the dance footwear 100 comprises a mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element. Said gyroscopic element records shifts in balance and posture, offering feedback on the dancer's stability during various dance routines. The mechanical balancing component 106 detects changes in the dancer's center of gravity and monitors the alignment of the body throughout movement. The gyroscopic element measures angular velocity and orientation, providing continuous data that reflects the dancer's balance and posture. This data enables real-time assessment of the dancer's stability, allowing for adjustments to be made to maintain proper alignment. The mechanical balancing component 106 is integrated within the sole 102, providing support and feedback without interfering with the dancer's performance. The gyroscopic element operates independently of external power sources, utilizing the mechanical energy generated by the dancer's movements to function.
[0050] In an embodiment, the dance footwear 100 includes interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104. Said mechanical linkages 108 facilitate the simultaneous transmission of mechanical energy from the dancer's movements to both the hydraulic channels and the piezoelectric fabric panels 104. The mechanical linkages 108 are designed to efficiently transfer energy, ensuring that the fluid dynamics within the hydraulic channels and the deformation of the piezoelectric fabric panels 104 are synchronized with the dancer's actions. The interaction between the hydraulic channels and the piezoelectric fabric panels 104, mediated by the mechanical linkages 108, allows the dance footwear 100 to provide integrated feedback on physical exertion and balance. The energy transferred through the mechanical linkages 108 is distributed in a manner that enhances the overall response of the dance footwear 100, allowing for a coordinated and adaptive performance during dance routines.
[0051] In an embodiment, the dance footwear 100 comprises a mechanical converter 110 that translates the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators. Said mechanical converter 110 interprets the data generated by both the hydraulic channels and the piezoelectric fabric panels 104, converting said data into mechanical indicators that provide a comprehensive overview of the dancer's performance. The mechanical indicators may include visual dials, gauges, or other displays that offer real-time feedback on resistance, balance, and movement intensity. The mechanical converter 110 operates independently of electronic systems, relying entirely on the mechanical and electrical outputs generated by the dance footwear 100 components. This design approach ensures that the feedback system is both reliable and durable, providing the dancer with actionable information during performances.
[0052] In an embodiment, the dance footwear 100 comprises hydraulic channels lined with a flexible material that enhances the responsiveness of hydraulic fluid movement. The flexible material adapts to varying pressures and movements exerted by the dancer during performances. Such material enables the hydraulic fluid to flow smoothly, reacting quickly to changes in the dancer's movements. As the dancer increases or decreases movement intensity, the flexible lining adjusts accordingly, providing a more dynamic response within the hydraulic channels. The material's ability to deform and return to its original shape in response to pressure variations facilitates adjustment of resistance. The flexibility of the material also reduces friction within the channels, allowing the hydraulic fluid to move without obstruction. The selection of the lining material considers factors such as durability, elasticity, and the ability to maintain performance under continuous movement and pressure changes. The integration of such flexible material within the hydraulic channels directly influences the effectiveness of the dance footwear 100 by enabling responsive resistance adjustments tailored to various dance movements.
[0053] In an embodiment, the dance footwear 100 further comprises valves within the hydraulic channels that control the flow rate of hydraulic fluid. Said valves regulate the fluid movement through the channels, allowing for adjustments to the resistance offered by the dance footwear 100. The valves operate by opening or closing to specific degrees based on the pressure exerted by the dancer's movements. This controlled flow rate enables the dance footwear 100 to adapt to specific dance moves or dancer preferences. The design and placement of the valves are optimized to prevent obstruction of fluid movement when open and to ensure a secure seal when closed. Valves are constructed from materials that can withstand frequent movement and fluid pressure changes, ensuring consistent performance throughout the lifespan of the dance footwear 100. The inclusion of valves within the hydraulic channels provides a mechanism for adjusting resistance in real-time, tailored to the needs of the dancer.
[0054] In an embodiment, the mechanical balancing component 106 of the dance footwear 100 includes a series of interconnected levers and pivots, which enhance sensitivity and accuracy of balance feedback. The levers and pivots are arranged to distribute gyroscopic effects more evenly across the sole 102 of the dance footwear 100. The distribution allows the gyroscopic element to measure and respond to balance shifts with greater accuracy. The interconnected levers and pivots ensure that movement in one part of the dance footwear 100 affects balance feedback across the entire sole 102. Levers act as mechanical amplifiers, translating small shifts in balance into measurable data, while pivots allow for smooth, multi-directional movement. Materials used for the levers and pivots are selected for strength, durability, and low friction, ensuring consistent performance under dynamic conditions. By enhancing the sensitivity of the gyroscopic element, the interconnected levers and pivots contribute to a more accurate and responsive balance feedback system, supporting the dancer's alignment and stability during various movements.
[0055] In an embodiment, the dance footwear 100 includes interconnected mechanical linkages 108 that incorporate elastic elements. Said elastic elements provide a flexible connection between the hydraulic channels and the piezoelectric fabric panels 104. The elastic elements within the mechanical linkages 108 allow for the absorption and transmission of mechanical stress generated during dance movements. By accommodating the varying forces exerted by the dancer, the elastic elements facilitate efficient energy transfer between the hydraulic channels and the piezoelectric fabric panels 104. The selection of materials for the elastic elements focuses on properties such as elasticity, durability, and resilience, enabling the components to deform under stress and return to their original form without energy loss. This flexibility within the mechanical linkages 108 ensures that the dancer's movements are effectively translated into responsive adjustments within the dance footwear 100, maintaining the intended performance characteristics.
[0056] In an embodiment, the mechanical converter 110 of the dance footwear 100 includes a dial indicator visible on the exterior of the dance footwear 100. Said dial indicator provides real-time visual feedback related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104. As the dancer moves, the mechanical converter 110 processes the data generated by these components, and the dial indicator displays the information in a manner that can be easily interpreted. The placement of the dial indicator on the exterior of the dance footwear 100 allows for immediate visual access, enabling the dancer or instructor to make performance adjustments based on the displayed feedback. The dial indicator is designed with consideration for visibility, durability, and user-friendliness, ensuring that the feedback can be monitored without distraction. The calibration of the dial indicator reflects changes in output with accuracy, providing a reliable source of real-time information during dance routines.
[0057] In an embodiment, the dance footwear 100 comprises manual controls accessible through a pull-tab mechanism integrated into the upper portion of the dance footwear 100. Said pull-tab mechanism allows dancers to adjust resistance and balance sensitivity without the need to remove the dance footwear 100 or interrupt the performance. The manual controls are positioned within the upper portion of the dance footwear 100 to provide easy access during use. The pull-tab mechanism, when engaged, modifies the settings of the hydraulic channels and mechanical balancing component 106 to align with specific movement demands or personal preferences. Materials used for the pull-tab and associated controls are selected for strength and reliability, ensuring consistent operation under the dynamic conditions of dance routines. The design of the pull-tab mechanism prioritizes ease of use, requiring minimal effort to achieve the desired adjustments.
[0058] In an embodiment, the piezoelectric fabric panels 104 of the dance footwear 100 are configured to adjust electrical signal generation based on environmental factors such as temperature and humidity. Said piezoelectric fabric panels 104 are sensitive to changes in environmental conditions, which can influence the performance of the dance footwear 100. Adjustments in signal generation allow the piezoelectric fabric panels 104 to maintain consistent feedback despite fluctuations in temperature or humidity. For instance, variations in temperature may alter the material properties of the piezoelectric fabric panels 104, affecting the electrical output. The piezoelectric fabric panels 104 are designed to compensate for such changes, ensuring stable signal generation. Similarly, changes in humidity can impact the stress experienced by the piezoelectric fabric panels 104, and the configuration allows for adjustments that account for these variations. This capability to adapt to environmental conditions contributes to the reliability of the feedback provided during dance performances, enabling consistent performance across different settings.
[0059] FIG. 2 illustrates an architectural diagram of the dance footwear 100, detailing the integration and interaction of various components embedded within the sole 102, in accordance with embodiments of the present disclosure. The FIG. 2 shows hydraulic channels filled with hydraulic fluid, which are mechanically adjusted based on the dancer's movements to provide variable resistance. Piezoelectric fabric panels 104 are attached to the toe and heel regions, generating electrical signals corresponding to the rhythm and intensity of the dance. A mechanical balancing component 106, featuring a gyroscopic element, records shifts in balance and posture, providing feedback on stability and alignment. Interconnected mechanical linkages 108, which include elastic elements, ensure the effective transmission of mechanical stress between the hydraulic channels and piezoelectric fabric panels 104, minimizing energy loss. The mechanical converter 110 translates these mechanical and electrical outputs into readable mechanical indicators, offering a comprehensive overview of the dancer's performance.
[0060] FIG. 3 is a sequential diagram that illustrates the dynamic interaction between the dancer, the footwear, and its internal components, in accordance with embodiments of the present disclosure. It outlines the sequence of actions starting from the dancer initiating movement, which then triggers adjustments in fluid flow through the hydraulic channels, balance checks by the mechanical balancing component 106, feedback display by the mechanical converter 110, and final adjustments through manual controls. This sequence ensures real-time performance optimization based on the dancer's inputs..
[0061] In an embodiment, the sole 102 of the dance footwear 100 incorporating multiple hydraulic channels filled with a hydraulic fluid allows for mechanical adjustment of fluid flow and pressure based on the movement and force exerted by the dancer, creating a responsive resistance system tailored to the performance. The ability to vary hydraulic resistance provides real-time feedback on exertion levels, enhancing control during dynamic movements. Mechanical adjustment of the hydraulic fluid within the channels also aids in reducing the risk of injury by moderating impact forces, particularly during high-intensity routines. Incorporation of multiple channels enables localized resistance control, allowing differential resistance across various parts of the sole 102, thus accommodating a wide range of dance techniques and movements. Adaptability to different force inputs supports both subtle and powerful dance actions, contributing to improved performance and endurance.
[0062] In an embodiment, the piezoelectric fabric panels 104 attached to predetermined areas of the dance footwear 100, including the toe and heel regions, generate electrical signals in response to mechanical stress from dance movements. Such electrical signals correspond directly to the rhythm and intensity of the actions, providing a real-time correlation between physical exertion and musical tempo. Placement of the piezoelectric fabric panels 104 in key areas of the dance footwear 100 allows detection of movement patterns, enabling monitoring and refinement of technique with greater accuracy. Additionally, generated electrical signals offer insights into the distribution of pressure across the foot during various dance routines, aiding in identifying areas that may require improved technique or additional support. The piezoelectric fabric panels 104 dynamically capture the nuances of the performance, enhancing the interaction between the dancer and the music.
[0063] In an embodiment, the mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element, records shifts in balance and posture, providing feedback on stability and alignment. The gyroscopic element's ability to detect and record subtle shifts in the center of gravity allows continuous monitoring of balance, which is critical in executing movements. Such feedback helps maintain proper alignment throughout various routines, reducing the likelihood of balance-related errors or injuries. Integration of the gyroscopic element into the sole 102 provides a seamless method for tracking stability without adding bulk to the dance footwear 100, ensuring that performance is not hindered. Recorded data on balance shifts can be used to analyze and improve technique, particularly in complex routines where stability is paramount.
[0064] In an embodiment, the interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104 allow mechanical energy from movements to simultaneously influence fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels 104. Such interconnectedness enhances the ability to provide integrated feedback on physical exertion and balance, creating a unified response system that reflects both force and rhythm. The interconnected mechanical linkages 108 ensure that changes in fluid pressure within the hydraulic channels are directly tied to deformation of the piezoelectric fabric panels 104, enabling cohesive interaction between the two systems. The synergy between the hydraulic channels and piezoelectric fabric panels 104 distributes and absorbs mechanical stress.
[0065] In an embodiment, the mechanical converter 110 translates mechanical outputs from the hydraulic channels and electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators, offering a comprehensive overview of performance dynamics without reliance on complex electronic systems. Said mechanical converter 110 provides immediate, tactile feedback on both resistance levels and movement intensity, facilitating adjustments in technique during performances. Converting diverse outputs into a singular, coherent format simplifies interpretation of performance data, making such data accessible even in fast-paced or high-pressure environments. Reliance on mechanical indicators reduces potential electronic failures, increasing the reliability and longevity of the dance footwear 100.
[0066] In an embodiment, the hydraulic channels are lined with a flexible material that enhances responsiveness of hydraulic fluid movement, allowing more accurate adjustments of resistance based on the intensity of dance movements. The flexible lining reduces friction within the channels, enabling quicker and smoother fluid flow, leading to more accurate modulation of resistance levels. Such enhancement allows a dynamic response to varying dance intensities, supporting a wide range of movement styles and providing the dancer with greater control over performance dynamics. Flexibility of the material further aids in maintaining consistent resistance across different sections of the dance footwear 100, ensuring uniform performance during complex routines.
[0067] In an embodiment, valves within the hydraulic channels control the flow rate of hydraulic fluid, providing finer control over resistance adjustments tailored to specific dance moves or dancer preferences. Valves allow regulation of fluid movement, enabling the dancer to fine-tune resistance levels in real time according to the demands of the performance. Such control is particularly beneficial for executing intricate dance techniques that require varying resistance at different stages of movement. Integration of valves within the channels also allows customization of the dance footwear 100 response to individual dancer's needs, enhancing the versatility of the dance footwear 100 across diverse dance styles.
[0068] In an embodiment, the mechanical balancing component 106 includes a series of interconnected levers and pivots, which enhance sensitivity and accuracy of balance feedback by distributing gyroscopic effects more evenly across the sole 102. Distribution of gyroscopic effects improves balance monitoring by allowing more accurate detection of shifts in posture and alignment. The interconnected levers and pivots work in tandem to amplify and evenly spread gyroscopic input, reducing localized stress on any single area of the sole 102 and contributing to overall stability. Enhanced sensitivity provided by the distributed mechanism supports the dancer in maintaining equilibrium during challenging dance routines.
[0069] In an embodiment, the interconnected mechanical linkages 108 include elastic elements that provide a more flexible connection between the hydraulic channels and the piezoelectric fabric panels 104, effectively transmitting mechanical stress between components without loss of energy. Elasticity allows the interconnected mechanical linkages 108 to absorb and transfer mechanical forces more efficiently, enhancing the performance of both the hydraulic and piezoelectric systems. The flexible connection ensures that energy generated by movement is accurately conveyed, maintaining integrity of resistance and feedback mechanisms. Elastic elements also contribute to the durability of the interconnected mechanical linkages 108, reducing wear and tear typically associated with repetitive dance movements.
[0070] In an embodiment, the mechanical converter 110 includes a dial indicator visible on the exterior of the dance footwear 100, offering visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104. The external dial provides dancers and instructors with an immediate visual representation of performance metrics, facilitating real-time adjustments to technique and resistance levels. Such a visual interface allows quick and intuitive monitoring of the dance footwear 100 internal dynamics, enabling dancers to make informed decisions during practice or performance without interrupting the flow of movement. Presence of a visible dial also serves as a practical tool for instructors to assess and guide dancers in refining their technique.
[0071] In an embodiment, manual controls are accessible through a pull-tab mechanism integrated into the upper portion of the dance footwear 100, allowing dancers to adjust resistance and balance sensitivity without removing the dance footwear 100 or interrupting the performance. The pull-tab mechanism provides a convenient and efficient means of modifying the internal settings of the dance footwear 100 while on the go, ensuring adjustments can be made swiftly in response to changing performance conditions. Integration of a pull-tab on the upper portion of the dance footwear 100 allows easy access during performances, supporting a seamless interaction between the dancer and the dance footwear 100 adjustment features.
[0072] In an embodiment, the piezoelectric fabric panels 104 are also adjusted for electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions encountered during dance performances and practices. Adaptive capability allows the piezoelectric fabric panels 104 to maintain accuracy in signal output despite fluctuations in environmental conditions, which could otherwise affect material properties of the fabric. Ability to account for external factors enhances reliability of feedback provided to the dancer, ensuring performance metrics remain consistent regardless of the environment. Such adaptability is particularly valuable in maintaining integrity of the feedback system during outdoor performances or in venues with variable climate control.

Claims
I/We Claim:
What is claimed is:
1. A dance footwear 100 comprising:
a sole 102 incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances;
piezoelectric fabric panels 104 attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer's movements;
a mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element that records shifts in balance and posture, providing feedback on the dancer's stability and alignment during various dance routines;
interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104, wherein the mechanical energy from the dancer's movements simultaneously influences fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels 104, enhancing the footwear's ability to provide integrated feedback on physical exertion and balance; and
a mechanical converter 110 configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems.
2. The dance footwear 100 of claim 1, wherein the hydraulic channels are lined with a flexible material that enhances the responsiveness of the hydraulic fluid movement, thereby providing a more precise adjustment of resistance based on the intensity of the dance movements.
3. The dance footwear 100 of claim 1, further comprising valves within the hydraulic channels that control the flow rate of the hydraulic fluid, enabling finer control over the resistance provided, facilitating adjustments tailored to specific dance moves or dancer preferences.
4. The dance footwear 100 of claim 1, wherein the mechanical balancing component 106 includes a series of interconnected levers and pivots, which enhance the sensitivity and accuracy of balance feedback by distributing the gyroscopic effects more evenly across the sole 102 of the footwear.
5. The dance footwear 100 of claim 1, wherein the interconnected mechanical linkages 108 include elastic elements that allow for a more flexible connection between the hydraulic channels and the piezoelectric fabric panels 104, ensuring that mechanical stress is effectively transmitted between these components without loss of energy.
6. The dance footwear 100 of claim 1, wherein the mechanical converter 110 includes a dial indicator visible on the exterior of the footwear, providing visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104, allowing dancers and instructors to make real-time performance adjustments.
7. The dance footwear 100 of claim 1, wherein the manual controls are accessible through a pull-tab mechanism integrated into the upper portion of the footwear, which allows dancers to adjust the resistance and balance sensitivity without removing the footwear or interrupting their performance.
8. The dance footwear 100 of claim 1, wherein the piezoelectric fabric panels 104 are also configured to adjust their electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions commonly encountered during dance performances and practices.

DANCE FOOTWEAR WITH HYDRAULIC CHANNELS, PIEZOELECTRIC PANELS, AND MECHANICAL BALANCING SYSTEM
Abstract
Disclosed is a dance footwear comprising a sole incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances; piezoelectric fabric panels attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer’s movements; and a mechanical converter configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems.

Fig. 1
, Claims:Claims
I/We Claim:
What is claimed is:
1. A dance footwear 100 comprising:
a sole 102 incorporating multiple hydraulic channels filled with a hydraulic fluid, wherein the flow and pressure of said hydraulic fluid are mechanically adjusted based on the movement and force exerted by the dancer to provide variable resistance during dance performances;
piezoelectric fabric panels 104 attached to predetermined areas of the footwear, including at least the toe and heel regions, configured to generate electrical signals when deformed by mechanical stress from dance movements, wherein said electrical signals correlate to the rhythm and intensity of the dancer's movements;
a mechanical balancing component 106 embedded within the sole 102, featuring a gyroscopic element that records shifts in balance and posture, providing feedback on the dancer's stability and alignment during various dance routines;
interconnected mechanical linkages 108 between the hydraulic channels and the piezoelectric fabric panels 104, wherein the mechanical energy from the dancer's movements simultaneously influences fluid dynamics within the hydraulic channels and deformation of the piezoelectric fabric panels 104, enhancing the footwear's ability to provide integrated feedback on physical exertion and balance; and
a mechanical converter 110 configured to translate the mechanical outputs from the hydraulic channels and the electrical outputs from the piezoelectric fabric panels 104 into readable mechanical indicators, providing a comprehensive overview of performance dynamics without relying on complex electronic systems.
2. The dance footwear 100 of claim 1, wherein the hydraulic channels are lined with a flexible material that enhances the responsiveness of the hydraulic fluid movement, thereby providing a more precise adjustment of resistance based on the intensity of the dance movements.
3. The dance footwear 100 of claim 1, further comprising valves within the hydraulic channels that control the flow rate of the hydraulic fluid, enabling finer control over the resistance provided, facilitating adjustments tailored to specific dance moves or dancer preferences.
4. The dance footwear 100 of claim 1, wherein the mechanical balancing component 106 includes a series of interconnected levers and pivots, which enhance the sensitivity and accuracy of balance feedback by distributing the gyroscopic effects more evenly across the sole 102 of the footwear.
5. The dance footwear 100 of claim 1, wherein the interconnected mechanical linkages 108 include elastic elements that allow for a more flexible connection between the hydraulic channels and the piezoelectric fabric panels 104, ensuring that mechanical stress is effectively transmitted between these components without loss of energy.
6. The dance footwear 100 of claim 1, wherein the mechanical converter 110 includes a dial indicator visible on the exterior of the footwear, providing visual feedback directly related to the combined outputs from the hydraulic channels and piezoelectric fabric panels 104, allowing dancers and instructors to make real-time performance adjustments.
7. The dance footwear 100 of claim 1, wherein the manual controls are accessible through a pull-tab mechanism integrated into the upper portion of the footwear, which allows dancers to adjust the resistance and balance sensitivity without removing the footwear or interrupting their performance.
8. The dance footwear 100 of claim 1, wherein the piezoelectric fabric panels 104 are also configured to adjust their electrical signal generation based on environmental factors such as temperature and humidity, ensuring consistent performance feedback under varying conditions commonly encountered during dance performances and practices.