US20250242184A1

US20250242184A1 - Aerial yoga smart system and method of aerial smart yoga using thereof

Info

Publication number: US20250242184A1
Application number: US18/428,071
Authority: US
Inventors: Shahad Ahmed ALABDULLATIF; Dana ALHUSSAIN; Ruba ALKHALDI; Zati HAZIRAT; Hala EL-WAKEEL; Lojain ALAMRI
Original assignee: Imam Abdulrahman Bin Faisal University
Current assignee: Imam Abdulrahman Bin Faisal University
Priority date: 2024-01-31
Filing date: 2024-01-31
Publication date: 2025-07-31

Abstract

An aerial yoga smart system and a method of aerial smart yoga include a hammock having at least seven fabric sections comprising at least six grip sections and at least one center section, attached in two positions and configured to hang freely downward from the at least two support cables. The center section is connected to the two positions, and a first three grip sections is connected to a first position of the two positions and a second three grip sections is connected to a second position of the two positions. Each grip section has an end connected to one or more grips.

Description

STATEMENT REGARDING PRIOR DISCLOSURE BY THE INVENTORS

Aspects of the present disclosure are described in Alabdullatif, S., “Aerial Yoga Beginners' Training Challenges: performance challenges and their effect on their physical and psychological health” published in a thesis for the College of Design at Imam Abdulrahman Bin Faisal University, which is incorporated herein by reference in its entirety.

BACKGROUND

Technical Field

The present disclosure relates generally to the field of exercise equipment and more specifically to a system and a method for aerial yoga which incorporate means for monitoring, feedback, and enhancement of aerial yoga practice.

Description of Related Art

The “background” description provided herein is for the purpose of generally presenting the context of the disclosure. Work of the presently named inventors, to the extent it is described in this background section, as well as aspects of the description which may not otherwise qualify as prior art at the time of filing, are neither expressly or impliedly admitted as prior art against the present invention.
The practice of aerial yoga involves performing traditional yoga poses, Pilates, dance, and body movement with the aid of a hammock or fabric sling. This form of yoga allows users to perform postures that they may not ordinarily be able to attempt on a yoga mat. Aerial yoga combines the physical training of aerial arts with the spiritual and mental discipline of traditional yoga; however, one of the challenges faced by aerial yoga users, particularly beginner aerial yoga users, is a lack of feedback mechanisms to correct poses, ensure balance, and track progress over time.
Traditional aerial yoga equipment provides limited to no feedback to the user, making it difficult for users to correct their form and alignment without the constant supervision of a trained instructor. In traditional setups, users are often left to rely on mirrors to adjust their poses, which can be ineffective or impractical for many complex aerial yoga poses and postures. This limitation can lead to improper practice, which may not only reduce the efficacy of the exercise but also increase the risk of injury and discourage users from continuing to practice aerial yoga. Additionally, there is a lack of integrated systems that can track performance over time, which is helpful for users who wish to monitor their progress, set goals, and achieve consistent improvement.
Therefore, there is a need for technical advancement in aerial yoga equipment that can provide real-time feedback, monitor a user's performance, and provide post-session summaries, which may enhance the practice of aerial yoga. Such a system would empower individuals to practice aerial yoga safely and effectively, even in the absence of an instructor. Furthermore, such a system could also provide additional benefits such as tracking progress over time, suggesting modifications to poses, and even enhancing the exercise experience to increase user engagement and motivation.
Accordingly, it is one object of the present disclosure to provide an aerial yoga system that is capable of providing real time electronic feed to a user.

SUMMARY

In an exemplary embodiment, an aerial yoga smart system is disclosed. The aerial yoga smart system comprises a hammock. Herein, the hammock comprises at least seven fabric sections comprising at least six grip sections and at least one center section. The hammock is attached in two positions to at least two support cables, wherein the center section is connected at a first end to a first position of the two positions and at a second end to a second position of the two positions. Also, a first set of three grip sections of the at least six grip sections is connected to the first position of the two positions and a second set of three grip sections of the at least six grip sections is connected to the second position of the two positions. Each grip section has a first end connected to the first position or the second position of the at least two positions and a second end connected to one or more grips. Further, the center section of the hammock is configured to hang freely downward from the at least two support cables. Furthermore, the one or more grips of the at least six grip sections are configured to rotate.
In some embodiments, the aerial yoga smart system also comprises one or more sensors. Herein, the one or more sensors are attached to the hammock and the at least two support cables. The aerial yoga smart system further comprises an error-indicating system, a monitoring screen, and a personalized performance summary.
In some embodiments, the one or more sensors are configured to send one or more signals to the error-indicating system.
In some embodiments, the error-indicating system receives one or more signals from the one or more sensors.
In some embodiments, the error-indicating system translates one or more signals from the one or more sensors into one or more messages.
In some embodiments, the monitoring screen displays the one or more messages.
In some embodiments, a first sensor of the one or more sensors is positioned on a first support cable attached to the hammock, a second sensor of the one or more sensors is positioned on a second support cable attached to the hammock, and a third sensor of the one or more sensors is positioned on the center section of the hammock.
In some embodiments, the first sensor, the second sensor, and the third sensor are balance sensors.
In some embodiments, the first sensor and the second sensor are vibration sensors.
In some embodiments, the aerial yoga smart system further comprises one or more sensors attached to the one or more grips.
In some embodiments, the error-indicating system can detect displacement, rotation, and angles of the one or more sensors.
In some embodiments, the monitoring screen provides real-time updates on a display screen.
In some embodiments, the personalized performance summary of a yoga session is available on an application.
In some embodiments, the hammock is attached in the at least two positions to the at least two support cables with one or more carabiners to one or more ceiling hooks such that the center section is suspended above a floor surface.
In some embodiments, the at least two support cables are daisy chains comprising 2 to 20 choke loops.
In some embodiments, a height of the hammock may be adjusted.
In some embodiments, the one or more grips have a length of 110 to 140 mm and a height of 20 to 30 mm.
In some embodiments, the one or more sensors comprise one or more electrodes, a thermoplastic substrate, a polymer, and a silicon casing.
In another exemplary embodiment, a method of aerial smart yoga is disclosed. The method comprises inserting a user into the aerial yoga smart system. Herein, the user is a human. Further, herein, the user's hands and feet are placed into one or more of the at least six grip sections with the one or more grips. The method further comprises suspending the user in air by contacting one or more of the at least six grip sections with the one or more grips. The method further comprises detecting a movement with the one or more sensors. The method further comprises sending one or more signals from the one or more sensors to the error-indicating system. The method further comprises receiving at the error-indicating system the one or more signals from the one or more sensors. The method further comprises translating at the error-indicating system the one or more signals to one or more messages. The method further comprises displaying the one or more messages on the monitoring screen. The method further comprises reporting the personalized performance summary in a report.
In some embodiments, the user is wearing the one or more sensors.
The foregoing general description of the illustrative embodiments and the following detailed description thereof are merely exemplary aspects of the teachings of this disclosure and are not restrictive.

BRIEF DESCRIPTION OF THE DRAWINGS

A more complete appreciation of embodiments of the present disclosure (including alternatives and/or variations thereof) and many of the attendant advantages thereof will be readily obtained as the same becomes better understood by reference to the following detailed description when considered in connection with the accompanying drawings, wherein:

FIG. 1A is a diagrammatic perspective view illustration of an aerial yoga smart system, according to certain embodiments;

FIG. 1B is a diagrammatic detailed perspective view illustration of a portion of an upper section of the aerial yoga smart system, according to certain embodiments;

FIG. 1C is a diagrammatic detailed perspective view illustration of a portion of a lower section of the aerial yoga smart system, according to certain embodiments;

FIG. 2A is a diagrammatic top perspective view illustration of a grip of the aerial yoga smart system, according to certain embodiments;

FIG. 2B is a diagrammatic bottom perspective view illustration of the grip of the aerial yoga smart system, according to certain embodiments;

FIG. 2C is a diagrammatic side planar view illustration of the grip of the aerial yoga smart system, according to certain embodiments;

FIG. 3 is a schematic block diagram illustration of the aerial yoga smart system, according to certain embodiments;

FIG. 4 is a flowchart listing steps involved in a method of aerial smart yoga, according to certain embodiments; and

FIG. 5 is an exemplary illustration of implementation of the aerial yoga smart system for implementation by a user, according to certain embodiments.

DETAILED DESCRIPTION

Embodiments of the present disclosure will now be described more fully hereinafter with reference to the accompanying drawings wherever applicable, in that some, but not all, embodiments of the disclosure are shown.
Reference will now be made in detail to specific embodiments or features, examples of which are illustrated in the accompanying drawings. Wherever possible, corresponding or similar reference numbers will be used throughout the drawings to refer to the same or corresponding parts. Moreover, references to various elements described herein are made collectively or individually when there may be more than one element of the same type. However, such references are merely exemplary in nature. It may be noted that any reference to elements in the singular may also be constructed to relate to the plural and vice-versa without limiting the scope of the disclosure to the exact number or type of such elements unless set forth explicitly in the appended claims. Further, as used herein, the words “a,” “an,” and the like generally carry a meaning of “one or more,” unless stated otherwise.
Furthermore, the terms “approximately,” “approximate,” “about,” and similar terms generally refer to ranges that include the identified value within a margin of 20%, 10%, or preferably 5%, and any values therebetween.
The use of the terms “include,” “includes,” “including,” “have,” “has,” or “having” should be generally understood as open-ended and non-limiting unless specifically stated otherwise.
Aspects of this disclosure are directed to an aerial yoga smart system and a method of aerial smart yoga. The aerial yoga smart system includes a multi-sectional hammock with integrated grip sections and a center section, supported by adjustable support cables. The aerial yoga smart system integrates an array of sensors for real-time monitoring of the user's movements, balance, and load distribution, providing feedback through an error-indicating system. The aerial yoga smart system also includes a monitoring screen displaying visual cues and alerts for immediate pose correction and includes the capability to generate personalized performance summaries for post-session review. The method of aerial smart yoga involves using the aerial yoga smart system to guide users through yoga routines, allowing for customized adjustments and enhanced safety, ensuring a highly personalized and effective aerial yoga experience.
Referring to FIGS. 1A-1C, in combination, illustrated are different views of an aerial yoga smart system (generally designated by reference numeral 100), according to certain embodiments of the present disclosure. The aerial yoga smart system 100 is configured to enhance the traditional practice of aerial yoga by integrating smart technology for the benefit of the user. The hardware and software components of the aerial yoga smart system 100 work in conjunction to provide an interactive experience that is both educational and engaging. Each element of the aerial yoga smart system 100 has been designed to perform specific functions that contribute to the overall efficacy and user-friendliness thereof.
As illustrated, the aerial yoga smart system 100 includes a hammock 102. The hammock 102 serves as a primary interface between the user and the aerial yoga smart system 100. The hammock 102 is a multi-sectional fabric assembly designed to support a wide range of aerial yoga poses and movements with enhanced safety and comfort. It may be appreciated that the fabric used in the hammock 102 is selected for its durability, elasticity, and tactile quality, contributing to the overall experience and safety of the user. Examples of fabric used in the hammock 102 may include, but are not limited to, cotton, nylon, polyester, canvas, silk, any other fabric known in the art, and combinations thereof. The fabric used in the hammock 102 may be non-stretch fabric, low-stretch fabric, medium-stretch fabric, high-stretch fabric, and any other stretch fabric known in the art. The hammock 102 includes at least seven fabric sections 110, 112, 114, 116, 118, 120, and 130. These fabric sections include six grip sections 110, 112, 114, 116, 118, 120 (also referred to as 110-120) and at least one center section 130. Each of the fabric sections 110, 112, 114, 116, 118, 120, and 130 is designed to fulfill distinct roles in the aerial yoga smart system 100. For instance, such design of the aerial yoga smart system 100 distributes the grip sections 110-120 strategically to enhance functionality and user ergonomics. A position, length, and the like of the grip sections 110-120 may be individually adjustable. The grip sections 110-120 may be statically adjustable and/or dynamically adjustable. In general, the configuration of the fabric sections 110-120 and 130 allows for multiple grip options and facilitates the ease of transitioning between poses for the user, when using the aerial yoga smart system 100.
Also, as illustrated, the hammock 102 is attached to at least two support cables 140. The hammock 102 is attached in two positions P₁and P₂to the at least two support cables 140. Specifically, the center section 130 is connected at a first end 130 a to a first position P₁of the two positions and the center section 130 is connected at a second end 130 b to a second position P₂of the two positions, in the aerial yoga smart system 100. Herein, the two support cables 140, in turn, may be secured to a stable overhead structure, such as a ceiling beam, one or more hooks, the like, and/or a specialized frame designed for aerial exercises (as discussed later in more detail). The attachment positions P₁, P₂are designed to allow for easy installation and removal of the hammock 102, as well as adjustment of its height and tension. Such connection at the two positions P₁and P₂allows the hammock 102 to be suspended in a stable and balanced manner, providing a secure and reliable platform for the practice of aerial yoga.
Further, as illustrated, a first three grip sections 110, 112, and 114 (also referred to as 110-114) of the at least six grip sections, e.g., a first set of three grip sections of the at least six grip sections, are connected to the first position P₁of the two positions and a second three grip sections 116, 118, and 120 (also referred to as 116-120) of the at least six grip sections, e.g., a second set of three grip sections of the at least six grip sections, is connected to the second position P₂of the two positions. That is, the hammock 102 is designed to distribute the grip sections 110120 strategically to enhance functionality and user ergonomics. More specifically, the hammock 102 is divided into two main support zones, each corresponding to one of the two positions P₁and P₂from which the hammock 102 is suspended. From the first position P₁, the first three grip sections 110-114 are connected, forming the first set of user interfaces, to cater to a first section of the user (i.e., a left side of the user) divided by the sagittal plane of the upper body and lower body, allowing for hand, arm, foot, and leg placement during poses that require upper body, core, and lower body strength and control. From the first position P₁, the first three grip sections 110-114 are allowed to rotate, pivot, and move accordingly. From the second position P₂, the second three grip sections 116-120 extend, forming the second set of user interfaces to cater to a second section of the user (i.e., a right side of the user) divided by the sagittal plane, to facilitate upper body and lower body engagement, assisting with hand, arm, foot, leg, and core-based postures that require upper body and lower body support. From the second position P₂, the second three grip sections 116-120 are allowed to rotate, pivot, and move accordingly. Grip sections 110 and 116 cater to hand and arm placement of the upper body of the user. Grip sections 110 and 116 may cater to foot and leg placements of the lower body of the user. Grip sections 114 and 120 cater to foot and leg placement of the lower body of the user. Grip sections 114 and 120 may cater to hand and arm placement of the upper body of the user. Grip sections 112 and 118 may cater to hand, arm, foot, and leg placement of the upper body and lower body. This allows users to distribute their weight evenly across the hammock 102, maintaining balance and stability, and further provides multiple points of contact for the user as required for the complex maneuvers often encountered in the aerial yoga practice.
Furthermore, as illustrated, each grip section 110-120 has a first end 110 a-120 a connected to the first position P₁or the second position P₂of the at least two positions and a second end 110 b-120 b connected to one or more grips 142. That is, each grip section 110-120 has the first end 110 a-120 a that is connected to either the first position P₁or the second position P₂where the hammock 102 attaches to the support cables 140. This means that the grip sections 110-120 are anchored at the first end 110 a-120 a to one of the main suspension points of the aerial yoga smart system 100, providing a secure base that can withstand the dynamic loads and movements in any direction associated with aerial yoga. The configuration of the grip sections 110-120, with the first ends 110 a-120 a connected to main support structure at either the first position P₁or the second position P₂and the second ends 110 b-120 b attached to the grips 142, allows the aerial yoga smart system 100 to support the user's weight from above while providing the flexibility to perform a wide array of poses.
In the present embodiments, the center section 130 of the hammock 102 is configured to hang freely downward from the at least two support cables 140 when installed. This configuration allows the center section 130 to cradle the user's body, providing support while allowing for fluid movement and a wide range of motion. Specifically, the free-hanging configuration of the center section 130 allows it to create a concave space that can comfortably support the user's body. The canter section 130 of the hammock 102 may provide support for the user's thighs, pelvis, hips, back, ribs, chest, underarms, shoulders and/or any other body part. The center section 130 of the hammock 102 may also support the user's feet, legs, arms, and or hands. The center section 130 of the hammock 102 may be comprised of one or more fabric section folds. The support cables 140, which extend above and are typically fixed to a secure overhead structure, provide the necessary elevation and tension for the hammock 102. The ends 130 a, 130 b of the center section 130 connected to the support cables 140 are designed to ensure that, even when the center section 130 hangs freely, it remains securely attached and capable of bearing the intended loads without risk of detachment or failure.
Further, as discussed, the second end 110 b-120 b of each grip section 110-120 is connected to the one or more grips 142. The grips 142 are where the user physically holds or supports themselves during their practice. The grips 142 are tailored to be ergonomic and may feature materials or coatings that maximize comfort and prevent slippage, ensuring the user can maintain a secure and stable hold. Examples of material of the grips 142 may included, but are not limited to, rubber, silicone, metal, wood, plastic, silk, foam, a combination thereof, and any material known in the art. Herein, the one or more grips 142 of the at least six grip sections 110-120 are configured to rotate. The rotation feature of the grips 142 allows users to adjust their hand positioning dynamically as they transition between poses, ensuring that the grips 142 can follow the rotation of the wrists. This is beneficial for complex maneuvers that require twisting motions or changes in grip orientation, which are common in aerial yoga sequences. In some embodiments, the one or more grips 142 of the at least six grip sections 110-120 may be configured to be positioned stationarily. In some embodiments, the at least six grip section 110-120 may not have the one or more grips 142. In some embodiments, grip sections 110, 112, 116, and 118 may have grips 142 and grip section 114 and 120 may not have grips 142. In some embodiments, grip sections 110 and 116 may have grips 142 and grip section 112, 114, 118, and 120 may not have grips 142.
In an embodiment, as better illustrated in FIG. 1B, the hammock 102 is attached in the at least two positions P₁and P₂to the at least two support cables 140 with one or more carabiners 144 to one or more ceiling hooks 146 such that the center section is suspended above a floor surface. In some embodiments, the one or more ceiling hooks may be in a ceiling 10. That is, the attachment of the hammock 102 in the aerial yoga smart system 100 is facilitated by the use of the one or more carabiners 144, which serve as the connecting hardware between the hammock 102 and the support cables 140. The carabiners 144 are metal coupling links that are commonly employed in safety systems due to their strength, reliability, and ease of use. The carabiners 144 are designed to quickly and securely attach and detach from the support cables 140, providing a convenient method for installing, adjusting, or removing the hammock 102 as necessary. In some embodiments, the carabiners 144 may be integrated and/or sewn into the fabric of the hammock 102. In some embodiments, the carabiners 144 may be a metal loop with a spring-loaded gate. The metal loop may be D-shaped, offset D-shaped, oval-shaped, pear-shaped, and the like. The spring-loaded gate may be a wire gate, a solid gate, and the like. The spring-loaded gate may be a bent gate, straight gate, or the like. The carabiners 144 may be non-locking, auto locking, or manual locking. The carabiners 144 are load bearing and/or weight-bearing. The carabiners 144 may be any carabiners known in the art. To ensure a stable and secure overhead anchoring, the carabiners 144 are connected to one or more ceiling hooks 146 that are installed in the ceiling 10. The ceiling hooks 146 are fixed support points that are designed to bear the loads imparted by the hammock 102 and the user during the practice of aerial yoga. The ceiling hooks 146 may have an open end or may be closed, preferably closed. The ceiling hooks 146 may be circular, triangular, square, rectangular, and any shape known in the art. The ceiling hooks 146 are typically anchored into structural elements of the ceiling 10, ensuring that the aerial yoga smart system 100 remains safely suspended during use.
In some examples, the at least two support cables 140 are daisy chains comprising 2 to 20 choke loops (not labelled). That is, the support cables 140 in the aerial yoga smart system 100 are constructed as daisy chains, which are a series of connected loops, known as choke loops, that allow for versatile and adjustable rigging. Choke loops in the daisy chains provide multiple attachment points, allowing the user to fine-tune the setup according to their specific requirements. These daisy chains typically feature a range of 2 to 20 choke loops, providing a degree of adjustability in the length and tension of the support cables 140. This design is particularly advantageous in the aerial yoga smart system 100, where the precise height and positioning of the hammock 102 is required for the correct execution of poses and for ensuring the safety of the user. It may be appreciated that the support cables 140 themselves are composed of a high-strength material capable of supporting the dynamic loads experienced during aerial yoga practice.
In the present embodiments, a height of the hammock 102 may be adjusted. This may be achieved by manipulating the choke loops in the support cables 140. Selecting different loops to attach to the carabiners 144 enables the hammock 102 to be raised or lowered, providing a customizable setup for each user or class of exercises. This feature ensures that the hammock 102 can be positioned at an optimal height for accommodating users of different heights and skill levels, as well as for facilitating various types of aerial yoga poses that may require different elevations for the hammock 102.
Referring to FIGS. 2A-2C, illustrated are different views of the grip 142, according to certain embodiments. As illustrated, the grip 142 of the aerial yoga smart system 100 is ergonomically designed to provide optimal support and comfort for users during practice. The grip 142 has a contoured surface tailored to fit the natural curvature of the hand and foot. The grip 142 has a height profile and side contours that facilitate a firm and comfortable grasp. The grasp may provide a mounting mechanism for secure attachment and use of the aerial yoga smart system 100 for the user. As shown, the grip 142 may be hollow to allow for reduced weight and for providing flexibility for comfortable holding by the user. The grip 142 may be solid to allow for extra support. The grips 142 may be manufactured from materials that ensure a non-slip surface, such as textured rubber or silicone. The grips 142 may be coated in a non-slip material. Thereby, the grips 142 help in improving the safety and functionality of the aerial yoga smart system 100, enabling users to comfortably perform a variety of aerial yoga poses.
In an embodiment, as shown in FIG. 2C, the one or more grips 142 have a length ‘L’ of 110 to 140 mm, preferably 115 to 135 mm, preferably 120 to 130 mm, preferably 122 to 128 mm, and a height ‘H’ of 20 to 30 mm, preferably 21 to 29 mm, preferably 22 to 28 mm, preferably 23 to 27 mm, preferably 24 to 26 mm. As depicted, the grip 142 has a balanced proportion of the length ‘L’ to the height ‘H’ that ensures ease of use and durability. The length ‘L’ that ranges from 110 to 140 millimeters provide ample space for users to securely grasp or wrap their hands around and/or securely stand and place their feet on. This range is selected to accommodate different hand and foot sizes while ensuring that the grip 142 can be comfortably held and stood on during various yoga poses, facilitating both stability and maneuverability. Additionally, the height ‘H’ of the grip 142 is set between 20 to 30 millimeters, for ensuring that the grip 142 can be easily held and/or stood on by the user. This height ‘H’ is sufficient to allow fingers to curl around the grips 142 and/or feet to stand on the grips 142, ensuring a secure and ergonomic hold without causing undue strain on hands, fingers, or feet. In an embodiment, the length ‘L’ and the height ‘H’ of the grip 142 may be the same between grip sections 110-120. In an embodiment, the length ‘L’ and the height ‘H’ of the grip 142 may vary between grip sections 110-120. In an embodiment, the length ‘L’ of the grip 142 may be longer for grip section 114 and 120 to accommodate for feet of the user compared to the length ‘L’ of the grip 142 for grip section 110, 112, 118, and 120 to accommodate for hands of the user. In an embodiment, the length ‘L’ of the grip 142 may be shorter for grip section 114 and 120 to accommodate for feet of the user compared to the length ‘L’ of the grip 142 for grip section 110, 112, 118, and 120 to accommodate for hands of the user. In an embodiment, the height ‘H’ of the grip 142 may be taller for grip section 114 and 120 to accommodate for feet of the user compared to the height ‘H’ of the grip 142 for grip section 110, 112, 118, and 120 to accommodate for hands of the user. In an embodiment, the height ‘H’ of the grip 142 may be shorter for grip section 114 and 120 to accommodate for feet of the user compared to the height ‘H’ of the grip 142 for grip section 110, 112, 118, and 120 to accommodate for hands of the user. That said, it may be appreciated that the given dimensions are exemplary only and shall not be construed as limiting to the present disclosure in any manner.
Referring to FIG. 3 , illustrated is a schematic block diagram of the aerial yoga smart system 100, according to certain embodiments. The aerial yoga smart system 100 (as described in the preceding paragraphs) includes components that create an interactive and intelligent exercise platform. The aerial yoga smart system 100 is configured to provide an enhanced interactive experience, leveraging integrated technology to elevate the traditional practice of aerial yoga. The aerial yoga smart system 100 is configured to interpret user engagement and adapt accordingly, providing a yoga experience that aligns with the unique needs and goals of each individual user.
In particular, the aerial yoga smart system 100 includes one or more sensors (collectively referred by reference numeral 150). These sensors 150 are integrated into the aerial yoga smart system 100 to continuously monitor and record a spectrum of physical parameters associated with the user's interaction therewith. Herein, the one or more sensors 150 are attached to the hammock 102 and the at least two support cables 140. FIGS. 1A-1C depict the positioning of the sensors 150, as attached to the hammock 102 and the support cable 140. These attachments are strategic, as positioning the sensors 150 in this manner allows to capture the user's engagement with the hammock 102 as well as the movements and the varying stresses placed upon the support cables 140. The data collected by the sensors 150 is utilized for the functionality of the aerial yoga smart system 100, enabling the detection and analysis of the user's movements, the distribution of their weight across the hammock 102, and the forces exerted upon the support cables 140 during use.
In an embodiment, the one or more sensors 150 include a first sensor 150 a, a second sensor 150 b, and a third sensor 150 c. Herein, as illustrated in FIGS. 1A-1C, the first sensor 150 a of the one or more sensors 150 is positioned on a first support cable of the two support cables 140 attached to the hammock 102, the second sensor 150 b of the one or more sensors 150 is positioned on a second support cable of the two support cables 140 attached to the hammock 102, and the third sensor 150 c of the one or more sensors 150 is positioned on the center section 130 of the hammock 102. Specifically, the first sensor 150 a and the second sensor 150 b are positioned to monitor variables such as tension, force, and angle, specific to the hammock 102, which can provide insights into the user's balance and weight distribution during use. Other movements, such as any movement, by the user may be detected by the first sensor 150 a and the second sensor 150 b. The third sensor 150 c helps in detecting the direct impact of the user's movements and weight on the hammock 102 itself, by gathering data on parameters such as vertical force, the deformation of the hammock 102, and the center of mass shifts, for assessing the accuracy of yoga poses and the effectiveness of the user's engagement with the aerial yoga smart system 100.
In one embodiment, the first sensor 150 a, the second sensor 150 b, and the third sensor 150 c are balance sensors. These balance sensors are specifically selected to measure equilibrium and stability during the practice of aerial yoga. The first sensor 150 a and the second sensor 150 b, positioned on the respective support cables 140, are responsible for detecting the distribution of the user's weight across the hammock 102, as well as the tension and forces applied to each side of the hammock 102 during various poses. This enables the aerial yoga smart system 100 to monitor for any lateral imbalances or asymmetries in the user's positioning. The third sensor 150 c, positioned on the center section 130 of the hammock 102, complements the first sensor 150 a and the second sensor 150 b by detecting the vertical balance and the overall center of gravity of the aerial yoga smart system 100 as the user moves. This allows for detecting any forward or backward shifts in weight that could impact the user's stability.
In another embodiment, the first sensor 150 a and the second sensor 150 b are vibration sensors. Vibration sensors are particularly sensitive to the dynamic movements and forces exerted by users during aerial yoga practices, capturing fluctuations that may not be visually apparent. These sensors 150 a, 150 b may thus detect oscillations and vibrations within the structure of the hammock 102, specifically along the support cables 140 to which they are attached. The first sensor 150 a and the second sensor 150 b may detect oscillations and vibrations directly from the support cables 140 to which they are attached. Such data collected by these sensors 150 a, 150 b can be indicative of the user's motion, the stability of their poses, or the presence of any abrupt movements that could compromise safety. Additionally, these sensors 150 a, 150 b can monitor the integrity of the hammock 102 over time, providing valuable feedback on the wear and tear of the support cables 140 that could affect reliability of the aerial yoga smart system 100. In some embodiments, the vibration sensors may send out vibrations to the user when an incorrect form is detected.
Further, in an embodiment, as illustrated in FIG. 1C, the aerial yoga smart system 100 has the one or more sensors 150 attached to the one or more grips 142. Such sensors 150, attached to the grips 142, are configured to capture data directly related to the user's interaction with the grips 142 during their aerial yoga routine. These sensors 150 are capable of detecting various metrics such as grip strength, the pressure exerted by the user's hands and/or feet, the duration and frequency of grip or step engagements, and rotational movements or hand and/or feet adjustments by the user on the grips 142. Furthermore, the sensors 150 on the grips 142 can contribute to the safety of the practice by detecting any unusual patterns or excessive forces that may signal a risk of slipping from the grip 142.
The one or more sensors 150 included in the aerial yoga smart system 100 may be composed of an assembly of materials and components that together enable capturing of user and equipment data. In one or more embodiments, the one or more sensors 150 include one or more electrodes, a thermoplastic substrate, a polymer, and a silicon casing (not illustrated). The electrodes are the contact points for detecting electrical signals, which could be related to changes in pressure, touch, or even the electrical activity resulting from the user's muscle movements. Encasing these electrodes, the thermoplastic substrate provides a stable structure for components of the sensors 150. The polymer layer is also incorporated into structure of the sensors 150, which may serve multiple functions such as insulating the electronic components, providing waterproofing, etc. Further, the silicon casing envelops the entire sensor unit for each of the one or more sensors 150, providing a protective shell to shield the internal components from physical damage, and other environmental factors. The one or more sensors 150, may be comprised of any materials and any components known in the art to perform and detect a variety of functions.
Referring back to FIG. 3 , the aerial yoga smart system 100 also includes an error-indicating system 160. The error-indicating system 160 is integrated within the aerial yoga smart system 100 and works in conjunction with the sensors 150. Herein, the one or more sensors 150 send one or more signals ‘S’ to the error-indicating system 160. Further, the error-indicating system 160 receives the one or more signals ‘S’ from the one or more sensors 150. The error-indicating system 160 is configured to process the one or more signals ‘S’ received from the sensors 150 and identify deviations from predetermined criteria that could indicate potential errors in the user's yoga poses or practices. The predetermined criteria may be adjusted depending on the size of the user, the experience of the user, and other factors. Upon detecting such deviations, the error-indicating system 160 is configured to alert the user through appropriate feedback channels. Examples of feedback channels may include, but are not limited to, real-time messages displayed on a screen, delayed messages displayed in an application, real-time messages given to an instructor to be relayed to the user, and any feedback channel known in the art. The inclusion of the error-indicating system 160 thus enhances the ability of the aerial yoga smart system 100 to support the user in achieving precise and correct yoga poses, allowing for learning aerial yoga techniques.
Herein, in an embodiment, the error-indicating system 160 can detect displacement, rotation, and angles of the one or more sensors 150. These capabilities enable the error-indicating system 160 to monitor the spatial orientation and movement dynamics of the hammock 102 and the user in relation to the support cables 140 and the environment. Displacement detection allows the error-indicating system 160 to observe any shifts or movements of the hammock 102 from its original, expected, or set position, which could signal an imbalance or improper execution of a yoga pose. Rotation detection provides insights into the rotational movements that occur when the user transitions between poses or adjusts their grip, ensuring that such rotations remain within safe and expected ranges. Further, angle detection may be used for assessing the inclination of the hammock 102 in relation to the horizontal plane or other reference angles, as required for maintaining the correct posture and alignment during practice. By monitoring these spatial parameters, the error-indicating system 160 can provide precise feedback on the user's form and technique, determining any deviations from the ideal alignment during the aerial yoga routine. The ideal alignment may be adjusted over time and various practice sessions for the user.
In an embodiment, the error-indicating system 160 translates the one or more signals ‘S’ from the one or more sensors 150 into one or more messages ‘M’. That is, the error-indicating system 160 translates the raw signals ‘S’, which may include various metrics such as tension, pressure, motion, and orientation, into user-friendly messages ‘M’. These messages ‘M’ may be in the form of alerts that communicate specific information to the user about their performance or the status of the equipment. The translation process may involve discerning between normal fluctuations during use and those that signify an error or a potential risk. In some examples, the algorithms implemented by the error-indicating system 160 are calibrated to recognize a wide range of aerial yoga poses and transitions. They account for variables such as the user's weight, the speed of movements, and the degree of stretch in the hammock 102. This calibration ensures that the error detection is accurate and relevant to the user's practice. Once an error is identified, the error-indicating system 160 generates the message ‘M’ that clearly indicates the nature of the issue and, when necessary, provides suggestions for corrective action.
The aerial yoga smart system 100 further includes a monitoring screen 170. The monitoring screen 170 serves as the visual interface for the display of the one or more messages ‘M’. These one or more messages ‘M’ include the processed information derived from the data collected by the one or more sensors 150 attached throughout the aerial yoga smart system 100, including those on the hammock 102, the support cables 140, and the grips 142. The visual presentation of the messages ‘M’ on the monitoring screen 170 facilitates an interactive and responsive yoga experience, allowing users to act upon the feedback provided by the aerial yoga smart system 100. The monitoring screen 170, thus, enhances the user's ability to interact with the aerial yoga smart system 100, providing an engaged aerial yoga experience.
In an embodiment, the monitoring screen 170 provides real-time updates on a display screen (not shown). The real-time updates ensure that users receive instantaneous feedback during their aerial yoga sessions and allows them to make immediate corrections to their poses and alignments, thereby enhancing the efficacy of their workout. The display screen serves as a dynamic interface, presenting the updates that may include visual representations of the user's balance, grip strength, and overall form, as well as other metrics captured by the aerial yoga smart system 100. It may be understood by a person skilled in the art that the display screen of the monitoring screen 170 may be placed in close proximity to the hammock 102 to ensure that the user can easily view the messages ‘M’. Alternatively, the aerial yoga smart system 100 may configure a user's personal device, such as a smartphone, tablet, or smartwatch, to function as the display screen of the monitoring screen 170.
The aerial yoga smart system 100 further includes a personalized performance summary 180. The personalized performance summary 180 is a comprehensive report including data and analytics derived from the user's activity during a yoga session, captured by the one or more sensors 150. The personalized performance summary 180 may provide a detailed account of the user's performance, including metrics such as the duration and stability of holds, the precision of poses, the consistency of practice, and other personalized feedback that can inform and guide the user's progression in aerial yoga.
In an embodiment, the personalized performance summary 180 of a yoga session is available on an application (not shown). The application serves as a digital repository and analytics tool, where the data recorded during the yoga sessions is processed, analyzed, and translated into user-friendly reports and visualizations. Users can review their performance summaries post-session, track their progress over time, and gain insights into areas of strength and those requiring improvement. It may be appreciated that the application may be a software platform that can be installed on a user's smartphone, tablet, or computer.
The present disclosure further provides a method of aerial smart yoga. Referring to FIG. 4 , illustrated is a flowchart of a method (generally represented by reference numeral 400) of aerial smart yoga, according to certain embodiments. The method 400 has been described in conjunction with FIG. 5 , which is an exemplary diagrammatic illustration of implementation of the aerial yoga smart system by a user (represented by reference numeral 20). The order in which the method 400 is described is not intended to be construed as a limitation, and any number of the described method steps can be combined in any order to implement the method 400 without departing from the spirit and scope of the present disclosure.
The method 400 leverages the aerial yoga smart system 100, equipped with the one or more sensors 150, the error-indicating system 160, the monitoring screen 170, and other integrated components to provide a responsive and personalized yoga experience. The method 400, generally, allows for guiding the user 20 through various yoga poses and sequences while utilizing capabilities of the aerial yoga smart system 100 to monitor and analyze movements, balance, and posture of the user 20 in real time.
Specifically, at step 402, the method 400 includes inserting the user 20 into the aerial yoga smart system 100. Herein, the user 20 is a human. Further, herein, the user's hands and feet are placed into one or more of the at least six grip sections 110-120 with the one or more grips 142. That is, the user 20 engages with the aerial yoga smart system 100 by positioning their hands and feet into one or more of the at least six grip sections 110-120 which are equipped with one or more grips 142. The insertion is performed in a manner that ensures the user 20 is securely and comfortably placed within the grips 142, which are designed and positioned to support weight of the user 20 and allow for the execution of various aerial yoga poses and sequences. By properly inserting themselves and securing their hands and feet in the designated grip sections 110-120 with the grips 142, the user 20 is assured a stable position for their aerial yoga session.
At step 404, the method 400 includes suspending the user 20 in air by contacting one or more of the at least six grip sections 110-120 with the one or more grips 142. As the user 20 grips these grip sections 110-120, their body is lifted off the ground, leveraging the flexibility and strength of the hammock 102. In some embodiments, the user 20 may stand in the center section 130 of the hammock 102 and grip the grip sections 110-120 with their hands. Such suspension enables the user 20 to perform a variety of yoga poses and sequences.
At step 406, the method 400 includes detecting a movement with the one or more sensors 150. The sensors 150, placed on the hammock 102, the grips 142, and possibly other components, are configured to sense and record a wide range of motions of the user 20, including shifts in position, changes in the distribution of their weight, their grip pressure, and the overall dynamics of their movements as they perform various aerial yoga poses. The sensors 150 ensures that all motions are captured, providing a detailed dataset from which the aerial yoga smart system 100 can draw meaningful insights.
At step 408, the method 400 includes sending the one or more signals ‘S’ from the one or more sensors 150 to the error-indicating system 160. The signals ‘S’ represent data points that the sensors 150 have detected including, but not limited to, variables such as acceleration, pressure, orientation, displacement, and rotational information, which collectively provide details of movements and interactions of the user 20 with the hammock 102 and the grips 142. Upon capturing these movements, the sensors 150 convert the physical interactions into the signals ‘S’ that are indicative of activity of the user 20. The sensors 150 are configured to send signals ‘S’ to the error-indicating system 160. These signals ‘S’ are then transmitted, often in real time, to the error-indicating system 160.
At step 410, the method 400 includes receiving at the error-indicating system 160 the one or more signals ‘S’ from the one or more sensors 150. The error-indicating system 160 is configured to receive one or more signals ‘S’ from the one or more sensors 150. That is, the collected sensor data, representative of physical engagements and movements of the user 20 within the aerial yoga smart system 100 is received at the error-indicating system 160.
At step 412, the method 400 includes translating at the error-indicating system 160 the one or more signals ‘S’ to one or more messages ‘M’. The error-indicating system 160 acts as the central processor, to decode the information within the signals ‘S’ to convert into feedback which may be used to guide aerial yoga practice of the user 20. This translation step involves converting the technical data, i.e., the input from movements and interactions of the user 20 with the aerial yoga smart system 100, into the messages ‘M’ which are understandable and actionable. These messages ‘M’ are designed to communicate with the user 20, informing them of any adjustments or corrections in their aerial yoga practice.
At step 414, the method 400 includes displaying the one or more messages ‘M’ on the monitoring screen 170. This step involves using the messages ‘M’, which have been translated from data from the sensors 150 by the error-indicating system 160 and presenting them to the user 20 in a clear and accessible way. The monitoring screen 170 (or a display screen thereof) acts as the interface where these messages ‘M’ are made visible, ensuring that the user is informed of any adjustments needed in their posture or technique during the aerial yoga session. Displaying the one or more messages ‘M’ on the monitoring screen 170 (or a display screen thereof) may occur after the user 20 has completed their aerial yoga session as a playback or replay of the aerial yoga session.
At step 416, the method 400 includes reporting the personalized performance summary 180 in a report. This step consolidates activity data of the user 20 into a structured document that highlights key performance metrics, trends, and insights from the aerial yoga session. The personalized performance summary 180 is designed to provide the user 20 with details of their practice, enabling them to understand their achievements and areas for improvement. This personalized performance summary 180 serves as a record of progress of the user 20 in their aerial yoga journey.
In an embodiment of implementing the method 400, the user 20 is wearing the one or more sensors 150. In this scenario, some of the sensors 150 may be integrated into garments or accessories that the user 20 may be wearing during the aerial yoga session. For instance, as illustrated in FIG. 5 , the user 20 may be wearing a band (like a smart band) incorporating the one or more sensors 150. This direct integration ensures that the sensors 150 are in constant contact with the user 20, allowing for precise monitoring of physiological responses and movement dynamics. In some embodiments, examples of the one or more sensors 150 the user 20 may be wearing include, but are not limited to, smart wrist bands, smart watches, smart headbands, smart rings, smart armbands, smart ankle bands, smart socks, and any other wearable sensors known in the art. The one or more sensors 150 the user 20 may be wearing may be used alone or in combination with the one or more sensors 150 attached throughout the aerial yoga smart system 100, including those on the hammock 102, the support cables 140, and the grips 142.
The aerial yoga smart system 100 and the method 400 of aerial smart yoga of the present disclosure provides numerous advancements over known prior art. The design of the hammock 102, with the multiple grip sections 110-120 and free-hanging characteristics of the center section 130, provides a level of versatility that encourages users to explore a wider range of poses and sequences. This design fosters a more effective and enjoyable practice, contributing to the overall well-being and satisfaction of the user. The integration of the sensors 150 into the hammock 102 and/or the support cables 140 provides a level of interactivity and feedback previously unavailable. The monitoring screen 170 with its intuitive interface allows users to understand the feedback without any pre-requisite training. Furthermore, the ability of the aerial yoga smart system 100 to provide a personalized performance summary 180 after each session allows users to enhance their learning and development in aerial yoga.
Numerous modifications and variations of the present disclosure are possible in light of the above teachings. It is therefore to be understood that within the scope of the appended claims, the invention may be practiced otherwise than as specifically described herein.

Claims

What is claimed is:

1: An aerial yoga smart system, comprising:

a hammock,

wherein the hammock comprises at least seven fabric sections comprising at least six grip sections and at least one center section,

wherein the hammock is attached in two positions to at least two support cables, wherein the center section is connected at a first end to a first position of the two positions and at a second end to a second position of the two positions,

wherein a first set of three grip sections of the at least six grip sections is connected to the first position of the two positions and a second set of three grip sections of the at least six grip sections is connected to the second position of the two positions,

wherein each grip section has a first end connected to the first position or the second position of the at least two positions and a second end connected to one or more grips,

wherein the center section of the hammock is configured to hang freely downward from the at least two support cables,

wherein the one or more grips of the at least six grip sections are configured to rotate.

2: The aerial yoga smart system of claim 1, further comprising:

one or more sensors,

wherein the one or more sensors are attached to the hammock and the at least two support cables,

an error-indicating system;

a monitoring screen; and

a personalized performance summary.

3: The aerial yoga smart system of claim 2, wherein the one or more sensors are configured to send one or more signals to the error-indicating system.

4: The aerial yoga smart system of claim 2, wherein the error-indicating system receives one or more signals from the one or more sensors.

5: The aerial yoga smart system of claim 2, wherein the error-indicating system translates one or more signals from the one or more sensors into one or more messages.

6: The aerial yoga smart system of claim 5, wherein the monitoring screen displays the one or more messages.

7: The aerial yoga smart system of claim 2, wherein a first sensor of the one or more sensors is positioned on a first support cable attached to the hammock, a second sensor of the one or more sensors is positioned on a second support cable attached to the hammock, and a third sensor of the one or more sensors is positioned on the center section of the hammock.

8: The aerial yoga smart system of claim 7, the first sensor, the second sensor, and the third sensor are balance sensors.

9: The aerial yoga smart system of claim 7, wherein the first sensor and the second sensor are vibration sensors.

10: The aerial yoga smart system of claim 2, further comprising:

one or more sensors attached to the one or more grips.

11: The aerial yoga smart system of claim 2, wherein the error-indicating system can detect displacement, rotation, and angles of the one or more sensors.

12: The aerial yoga smart system of claim 2, wherein the monitoring screen provides real-time updates on a display screen.

13: The aerial yoga smart system of claim 2, wherein the personalized performance summary of a yoga session is available on an application.

14: The aerial yoga smart system of claim 1, wherein the hammock is attached in the at least two positions to the at least two support cables with one or more carabiners to one or more ceiling hooks such that the center section is suspended above a floor surface.

15: The aerial yoga smart system of claim 1, wherein the at least two support cables are daisy chains comprising 2 to 20 choke loops.

16: The aerial yoga smart system of claim 1, wherein a height of the hammock may be adjusted.

17: The aerial yoga smart system of claim 1, wherein the one or more grips have a length of 110 to 140 mm and a height of 20 to 30 mm.

18: The aerial yoga smart system of claim 2, wherein the one or more sensors comprise:

one or more electrodes;

a thermoplastic substrate;

a polymer; and

a silicon casing.

19: A method of aerial smart yoga, comprising:

inserting a user into the aerial yoga smart system of claim 2,

wherein the user is a human,

wherein the user's hands and feet are placed into one or more of the at least six grip sections with the one or more grips,

suspending the user in air by contacting one or more of the at least six grip sections with the one or more grips;

detecting a movement with the one or more sensors;

sending one or more signals from the one or more sensors to the error-indicating system;

receiving at the error-indicating system the one or more signals from the one or more sensors;

translating at the error-indicating system the one or more signals to one or more messages;

displaying the one or more messages on the monitoring screen; and

reporting the personalized performance summary in a report.

20: The method of claim 19, wherein the user is wearing the one or more sensors.