WEARABLE SENSOR WITH STRAP OR ADHESIVE PADS FOR REAL-TIME POSTURE DISORDER DETECTION.

Abstract

The invention relates to a wearable sensor with a strap or adhesive pad for real-time postural defect detection, which enables the monitoring of the user's posture in real time and the detection of postural defects, and the issuance of warnings to the user. The sensor body (1) can be attached to the user's body via a fabric base (4) and fabric straps (8) or via an adhesive pad (10), the direct contact surface (3) is in direct contact with the user's body, the postural data detected by the inertial measurement unit (IMU) is evaluated by the microcontroller (MCU), and a graded vibration warning is given to the user depending on the level of postural defect. The obtained postural data is transmitted to a mobile device via a wireless communication module and monitored via a mobile application.

Description

1 TARIFF FOR REAL-TIME POSTURE DISORDER DETECTION, A HANGING OR WEARABLE SENSOR WITH ADHESIVE PAD Technical Area The invention is in the field of wearable health and ergonomics technologies, particularly in terms of user experience. real-time monitoring of posture, detection of postural disorders and strap 10 that provides the user with a warning about the posture disorder in question. or a wearable sensor with an adhesive pad, suitable for different usage preferences. the sensor is positioned on the body in this way, and posture data is detected. depending on the assessment and the detected postural disorder, to the user Real-time posture feedback through gradual vibration. It relates to wearable sensors with straps or adhesive pads for detecting disorders. 15 The Invention's Infrastructure Today, those who work at desks, students, and those who use phones / tablets for long periods of time Postural problems can frequently occur in individuals. Therefore, users should be aware of the following: monitoring postures, identifying inappropriate posture positions, and Various wearable posture devices are designed to alert users to these situations. Sensors and warning systems have been improved. However, existing wearables In sensors, especially the method of attaching the sensor to the body, the relationship between the sensor and the user 25 in terms of the type of contact between the body and the effectiveness of the warning given to the user There are various technical shortcomings. Wearable posture sensors, which are part of the known technology, usually have a single fixed mount. This method is used. For this purpose, a sling or strap, adhesive pad and magnetic clip are used. While different connection methods are utilized, a significant portion of existing products are 30%. In this section, the user is limited to only one type of connection offered. For example, in a system that uses only adhesive pads, the user can use the same sensor It cannot be used as a hanging loop when desired; it is only adhesive in a hanging system. It is not possible to take advantage of the connection option. Also, certain adhesive pads 2 Replenishing it after use may incur additional costs. Only Solutions that use a hanging system can be noticeable under clothing and are suitable for everyday wear. user preferences in terms of aesthetics or ergonomics in use It can limit. Another problem encountered in current wearable posture sensors is the sensor housing. It is the form of contact between the sensor and the user's skin or body. fabric, adhesive pad or similar material forming the mounting base between the body If the materials are available, the thickness and flexibility of the interlayers in question will be considered. The degree of stiffness is 10 times the body movement, especially in accelerometer or gyroscope-based measurements. This can affect the transmission of movement to the sensor. As a result, the movement is transmitted to the sensor. Delays in transmission or loss of measurement accuracy may occur. Therefore, in order for the sensor to directly detect body movements The contact structure between the sensor and the user's body is important. Another shortcoming in known systems lies in the structure of the warnings given to the user. This is related. Some of the current posture tracking systems provide feedback to the user via vibration. Although notification is given, it differs if single-level vibration is used. Postural disorders at different levels are warned about in the same way. Such a warning In some cases, it may not be sufficiently noticed by the user, while in other cases, 20 It can be perceived as excessively strong. Also, single-level vibration, different This can also make it difficult to distinguish between different types of postural disorders. There are various solutions to these problems in known technology. For example, in application number TR2017 / 23571, multiple 25 fasteners attached to a fabric undershirt A system consisting of gyroscope sensors is mentioned in application number TR2019 / 10207. The description clarifies a single-piece device that is attached directly to the back with adhesive tape. Both solutions utilize a single, fixed mounting method. In the form Other patent documents examined also mention straps, adhesive tape, clips, magnets, or 30 different uses of these for attaching sensors to the body Various structures exist. However, in these solutions, the user... the same sensor housing can be placed between different base modules according to one's preference. a standardized alternative mounting system that allows it to be used by changing the mounting method It is stated that it is not available. 3 For example, document US2016110986A1 mentions items such as belts, straps, adhesives, or snaps. While a wide range of connectivity options are mentioned, these are all the same sensor. its body can be used with user-replaceable base modules It does not establish a standardized system that provides this. US20150374266A1 The document describes a clip-on structure attached to underwear, as well as a 5 that is directly glued to the skin. an alternative is mentioned; WO2014178755A1 and US20090054814A1. The documents also feature clips, rings, adhesives, or alternative fastening elements. This is explained. However, these solutions also involve two different base modules of the same sensor. It reveals an assembly structure that can be modified by the user. It does not include. 10 When examined in terms of sensor-body contact, current solutions involve the sensor's time... time on fabric, adhesive pad or other mounting element It appears to be positioned in document number US20200260966A1 with a strict... Despite having an opening that makes contact with the body via the spine and flexible strip structure, 15 The opening in question in the form is not for mechanical direct contact, but for electro-optical purposes. It is stated that it was created for signal transmission purposes. Therefore, the sensor used... direct mechanical contact with the user's body, regardless of mounting type No structure is being put in place to ensure its protection. In terms of warning systems, this technique uses vibration, sound, light, or mobile notifications. There are different feedback methods such as those mentioned in TR2017 / 23571 and TR2019 / 10207. While single-level vibration is used in applications numbered US9406211B2 The document describes gradual vibrations with increasing intensity as posture violations are repeated, along with light and sound. The feedback is explained. Therefore, gradual vibration alone is a known 25 While technical, this can be changed according to the evaluation made on the form. with a direct contact architecture independent of mounting system and mounting type. An integrated structure in which this is used is not found in existing solutions. Accordingly, 30 strap-on or adhesive-padded devices are used for real-time posture disorder detection. The wearable sensor invention offers mounting flexibility compared to existing systems, the sensor- To address problems related to body contact and stimulation effectiveness together. It has been developed as follows: In the invention, the sensor body has a fabric base according to the user's preference. It can also be used with an adhesive pad. This allows different parts of the same sensor housing to be used. 4 Two different mounting options depending on the terms of use and user preferences. its use is being made possible. The invention also features a wide, low-profile bayonet mounting ring on the sensor housing. It has a direct contact surface. The sensor body has a fabric base or 5 When used with an adhesive pad, the direct contact surface should not be the user's skin. or is made to come into contact with the body. Thus, the fabric or adhesive pad intermediary layers such as these come between the sensor and the user's body, and the body The aim is to prevent their movements from affecting the transmission of information to the sensor. This direct contact structure is maintained in both mounting options, thus 10 Sensor-body contact becomes independent of the user's preferred mounting type. is being brought in. The inertial measurement unit (IMU) located in the sensor housing measures the user's posture angle. It measures in real time and sends the obtained data to the microcontroller. It transmits predetermined data evaluated by the microcontroller. If the threshold is exceeded, the vibration motor will switch to low, medium or low vibration via the vibration driver. By operating at high intensity, the user is given gradual warnings. In addition, the hand The collected data is transmitted to the mobile device via a wireless communication module, allowing the user to... Viewing current and historical posture information and statistics 20 is provided. In conclusion, the invention allows for the use of the same sensor housing with a fabric base or adhesive pad. dual mounting mechanism that allows it to be used interchangeably, Regardless of the mounting type used, the sensor is in direct contact with the user's body for 25 seconds. It combines a structure that provides contact and a stepped vibration warning system. This This ensures the user is not limited to a single mounting method, allowing the sensor and body to be connected. Reducing the effect of intermediate layers on the measurement, different uses adaptation to preferences and gradual assistance to the user in case of postural problems. The aim is to provide feedback. 30 The structural and characteristic features and all the advantages of the invention are given in the figures below. And thanks to the detailed explanation provided, it will be understood more clearly, and therefore... This assessment is also made taking these figures and detailed explanations into consideration. It needs to be done. Figures that Aid in Explaining the Invention The invention will be described by referring to the attached figures, so that the features of the invention can be explained. This will be understood more clearly. However, the purpose of this is to explain the invention with these specific arrangements. It is not about limiting. On the contrary, the invention is defined by the accompanying claims. including all alternatives, modifications and equivalencies that can be included within the field that is also intended. The details shown are only the preferred 10 of the present invention. It is shown both for the purpose of explaining the regulations and the rules of the invention. to provide the most useful and easily understandable definition of its conceptual characteristics It should be understood that they are presented for that purpose. Figure 1: 15-inch strap or adhesive pad device for real-time posture correction. Showing alternative uses of the wearable sensor with a fabric base and adhesive pad. Exploded perspective view Figure 2: Hanging or adhesive pad device for real-time posture correction. Exploded perspective on the use of a wearable sensor with a fabric base and strap. view 20 Figure 3: Hanging or adhesive pad device for real-time posture correction. Exploded perspective on the use of a wearable sensor with an adhesive pad. appearance Figure 4: Hanging or adhesive pad for real-time posture correction. When using the wearable sensor with an adhesive pad, the sensor body should be in contact with the skin surface for 25 minutes. Cross-sectional view showing direct contact. Figure 5: Hanging or adhesive pad device for real-time posture correction. The wearable sensor is attached to the user via a fabric base and fabric straps. View showing how to use it as a shoulder strap. Figure 6: 30-inch strap or adhesive pad device for real-time posture disorder detection. Showing the use of the wearable sensor on the user via an adhesive pad. appearance 6 Reference Numbers that Aid in Disclosure of the Invention 1. Sensor housing 2. Bayonet connection ring 3. Direct contact surface 5 4. Fabric sole 5. Fabric base center slot 6. Connection point 7. Belt end connector 8. Fabric strap 10 9. Length adjustment slider 10. Adhesive pad 11. Ped center slot 12. Ped center opening 13. Ring-shaped adhesive layer 15 14. Ring-shaped protective film Disclosure of the Invention This detailed explanation describes how sling or 20-inch devices are used for real-time posture correction. This relates to wearable sensors with adhesive pads and is only intended to help better understand the subject. This is explained in a way that is geared towards and does not create any limiting effects. The invention in question; • Posture data obtained by positioning the invention on the user 25 electronic devices that enable the detection, processing, and alerting of the user. incorporating the components and a fabric sole according to the user's preference. Sensor housing (1) which can be used with (4) or adhesive pad (10), • The sensor housing (1) can be attached to the fabric base (4) or the adhesive pad (10) removal and interchangeability between the 30 alternative mounting structures in question Bayonet connection ring (2) which enables its use in this way, • located at the bottom of the sensor housing (1) and the sensor housing (1) If used with a fabric base (4) or adhesive pad (10), the user direct contact surface that allows direct contact with the body (3), 7 • positioning the sensor housing (1) hanging on the user's body providing, the sensor housing (1) to which the fabric straps (8) can be attached fabric which contains the connection points (6) that provide the connection base (4), • bayonet connection ring (2) located in the center of the fabric base (4) 5 the fabric base (4) and the sensor body (1) fabric base (4) fabric base center slot (5) which enables the connection to be made, • located on the fabric base (4) and the fabric straps (8), strap end connection connecting elements (7) that enable the fabric to be attached to the base (4) points (6), 10 • located at the ends of the fabric straps (8) and connection points (6) by connecting the fabric straps (8) to the fabric base (4) strap end connectors (7), • attached to the fabric base (4) and worn diagonally over the user's shoulders The sensor body (1) is attached to the user's body, 15 fabric straps that enable positioning (8), • positioned on the fabric straps (8) and the fabric straps in question (8) Length adjustment that allows the length to be adjusted according to the user. sliders (9), • sensor housing (1) without fabric base (4) 20 to the user's body The sensor housing (1) which is fixed by means of an adhesive bond alternative mounting structure adhesive pad (10), • located in the center of the adhesive pad (10) and the bayonet connection ring (2) by placing the sensor body (1) with the adhesive pad (10) The pad center socket (11) which makes the connection, 25 • located inside the pad center housing (11) and the sensor housing (1) direct contact of the contact surface (3) with the user's body providing pad center opening (12), • The adhesive pad (10) ensures that the pad is fixed to the user's body. 30 in the shape of a ring so that the central opening (12) remains open ring-shaped adhesive layer (13), • ring-shaped adhesive layer (13) protecting before use, use during which the adhesive layer (13) separates from the adhesive surface 8 ring-shaped protective film (14) parts that allow its exposure It includes. Within the scope of the invention, the sensor body (1) provides data on the user's posture. perception, evaluation of the data in question and identification of postural disorders 5 and feedback to the user based on the posture disorder detected. It contains the necessary electronic components for providing the sensor. from use of the body (1), fabric base (4) or adhesive pad (10) independently of the electronic components in question, the user's posture Data is detected and evaluated in real time. Evaluation 10 If a postural disorder is detected as a result, the level of the disorder will be determined. Depending on the situation, the user is alerted via gradual vibration; additionally, the results obtained... Posture data is wirelessly transmitted to the mobile device, allowing the user to see current and past posture data. It is able to track posture data. This is inside the sensor housing (1). It contains electronic components that enable the functions to be performed. 15 The invention in question also; • Real-time movement and orientation data regarding the user's posture inertial measurement including accelerometer and gyroscope that enables it to be perceived as such. Intermediate Unit (IMU), 20 • Processes posture data obtained by inertial unit (IMU), assessing the user's posture angle, determining that posture angle. comparing with threshold values ​​and detecting postural disorders. microcontroller (MCU) that provides • Detection of postural disorders by the microcontroller (MCU) 25 in this case, it provides feedback to the user via vibration. vibration motor, • Evaluation performed by the microcontroller (MCU) driving the vibration motor and gradually increasing the vibration intensity accordingly. Pulse width modulation (PWM) and motor 30 that allow it to be adjusted accordingly. Vibration driver circuit including driver / MOSFET structure, • Posture data obtained by the sensor body (1) is transmitted wirelessly. wireless communication module that enables the transfer to a mobile device, 9 • for the operation of the electronic components located inside the sensor housing (1) battery that provides the necessary electrical energy, • Providing the user with visual notifications regarding the sensor's operating status. light-emitting diode (LED) indicator, • allowing the user to track posture data transferred to the mobile device, 5 display of current posture status and past posture data It includes mobile application sections that allow for its review. The working method of the invention; 10 • via the fabric base (4) of the sensor body (1) according to the user’s preference as a hanging or adhesive by means of an adhesive pad (10) determining where it will be used  If hanging style is preferred, 15 fabric straps (8) can be connected by means of strap end connecting elements (7) Connecting to the connection points (6) located on the fabric base (4), the lengths of the fabric straps (8) length adjustment sliders (9) by means of adapting it to the user's body structure adjustment, the bayonet connection ring (2) of the sensor housing (1), fabric base 20 Alignment with the center slot (5), the placement of the sensor housing (1) into the fabric base center slot (5) and to the fabric base (4) via the bayonet connecting ring (2) locking, The fabric straps (8) attached to the fabric base (4) are placed on the user 25 placement and posture tracking of the sensor body (1) positioning on the body part where it will be performed, the direct contact surface (3) of the sensor housing (1), fabric base aligned with the central socket (5) and in direct contact with the user's body. positioning it in such a way as to, 30  If adhesive pad usage is preferred; the ring-shaped protective film (14), ring-shaped adhesive layer (13) separation of the ring-shaped adhesive layer (13) and exposure removal, the bayonet connection ring (2) of the sensor housing (1), adhesive pad Alignment of the pad center slot (11) located on (10), the sensor housing (1) is placed on the adhesive pad (10) and via bayonet connection ring (2) to the adhesive pad (10) locking, 5 through the adhesive pad (10), ring-shaped adhesive layer (13) the user's body area where posture tracking will be performed pasting, the direct contact surface (3) of the sensor housing (1), pad center 10 through the opening (12) to reach the user's body positioning and direct contact surface (3) with the user's body ensuring direct contact between them, • the sensor housing (1) on the user according to the selected usage mode After positioning, the sensor body (1) is powered by the battery. 15 and real-time posture monitoring, • Visual indication of the sensor's operating status via a light-emitting diode (LED). communicated to the user via the display, • inertial sensor containing accelerometer and gyroscope located inside the sensor housing (1) User movement and orientation data via the intramedullary unit (IMU) 20 real-time detection, • posture data detected by the inertial unit (IMU) transmitted to the microcontroller (MCU), • Data received from the inertial unit (IMU) via the microcontroller (MCU) Processing posture data and determining the user's posture angle, 25 • the posture angle determined by the microcontroller (MCU) comparison with the determined threshold values ​​and the user's posture determining whether or not there is a disorder,  if the determined posture angle is within the threshold values, Determining that the user's posture is appropriate, 30 the user's movement and orientation via an inertial unit (IMU) Continuing the perception of data and real-time posture Continuation of monitoring,  If the determined posture angle exceeds the threshold values, 11 the detection of postural disorders by that microcontroller (MCU), the level of postural disorder detected by the microcontroller (MCU) evaluation by, depending on the level of postural disorder detected, to the user Determining the vibration level to be applied, 5 the vibration driver circuit is controlled by that microcontroller (MCU) being done, pulse width modulation (PWM) via that vibration driver circuit driving the vibration motor by applying this method, Depending on the level of postural disorder detected, the vibration level will be 10. in one of three stages of the engine: low, medium or high operating at vibration level, via the vibration motor through the sensor housing (1) to the user Gradual vibration warning is given, • After the vibration warning is given to the user, the inertial measurement unit is 15 Real-time user movement and orientation data via (IMU) the continued perception of it as, • current posture data obtained after vibration stimulation the current posture angle of the user is transmitted to the microcontroller (MCU) reassessment, 20  The user corrects their posture and the posture angle reaches the specified threshold. if it returns to its original values, termination of vibration stimulation related to that postural disorder, real-time posture tracking via an inertial unit (IMU) continuation, 25  If the user's postural disorder persists, that current posture angle is recalculated by the microcontroller (MCU) evaluation, the vibration to be applied depending on the level of postural disorder redefining the level, 30 via that vibration driver circuit, the vibration motor's specified low level, operation at medium or high vibration levels, via that vibration motor, a gradual vibration stimulus is given to the user. continuation of provision, 12 the user's posture is recalculated via an inertial unit (IMU). perception and posture angle within the determined threshold values Posture assessment should continue until return. • Posture data obtained via the sensor body (1) via wireless communication forwarding to module 5 • Posture data is wirelessly transmitted to the mobile device via a wireless communication module. as a transfer, • Posture data transferred to the mobile device is received by the mobile application, • the user's current posture status via a mobile application Viewing and tracking past posture data by the user 10 ensuring that it is done, • during use,  User's posture data via inertial unit (IMU) Continuing to detect it in real time,  via microcontroller (MCU) the posture data in question 15 the evaluation continues,  If a postural disorder is detected, the postural disorder should be addressed. Depending on the level, the vibration is delivered to the user in stages via a vibration motor. Vibration alert is given,  Visual indication of the sensor's operating status is provided by a light-emitting diode (LED) 20 provided via indicator,  Posture data is transmitted to the mobile device via a wireless communication module. Continuing the transfer, • In case of termination of use, the sensor housing (1), bayonet 25 to which it is attached by removing the connecting ring (2) from the locked position separation from the assembly structure,  If the garment has been used while hanging, the separation of the sensor body (1) from the fabric base (4),  If the adhesive pad has been used, Separation of the sensor housing (1) from the adhesive pad (10), 30 • sensor housing (1) from fabric base (4) or adhesive pad (10) After separation, the other assembly method can be selected if needed, and the sensor housing (1) can be reused with the selected mounting structure The process includes the steps involved in bringing it about. 13 All technical and other specifications mentioned in each request are followed by a reference number. This reference number is provided solely to facilitate understanding of the requests. They have been used, therefore this reference number is for illustrative purposes only. It should not be assumed that the scope of the element indicated by is limited. 5 A technical expert can assess the novelty of the invention and similar structures. by using and / or demonstrating this structure in the relevant technique It is clear that this can be applied to other fields with similar purposes. Therefore, such a It is also obvious that the structures will lack the criterion of surpassing innovation. 10 20 30

Claims

14 REQUESTS 1. The invention describes a device with a hanging or adhesive pad for real-time detection of posture disorders. It relates to wearable sensors, and its features are: • Posture data obtained by positioning the invention on the user 5 electronic devices that enable the detection, processing, and alerting of the user. incorporating the components and a fabric sole according to the user's preference. Sensor housing (1) which can be used with (4) or adhesive pad (10), • The sensor housing (1) can be attached to the fabric base (4) or the adhesive pad (10) removal and interchangeability between the 10 alternative mounting structures in question Bayonet connection ring (2) which enables its use in this way, • located at the bottom of the sensor housing (1) and the sensor housing (1) If used with a fabric base (4) or adhesive pad (10), the user direct contact surface that allows direct contact with the body (3), • positioning the sensor body (1) attached to the user's body 15 providing, the sensor housing (1) to which the fabric straps (8) can be attached fabric which contains the connection points (6) that provide the connection base (4), • bayonet connection ring (2) located in the center of the fabric base (4) the fabric base (4) to be placed and the sensor body (1) fabric base (4) 20 fabric base center slot (5) which enables the connection to be made, • located on the fabric base (4) and the fabric straps (8), strap end connection connecting elements (7) that enable the fabric to be attached to the base (4) points (6), • located at the ends of the fabric straps (8) and connection points (6) and 25 by connecting the fabric straps (8) to the fabric base (4) strap end connectors (7), • attached to the fabric base (4) and worn diagonally over the user's shoulders The sensor body (1) is attached to the user's body. fabric straps (8) that enable positioning, 30 • positioned on the fabric straps (8) and the fabric straps in question (8) Length adjustment that allows the length to be adjusted according to the user. sliders (9), • sensor housing (1) without using fabric base (4) on the user's body The sensor housing (1) which is fixed by means of an adhesive bond alternative mounting structure adhesive pad (10), • located in the center of the adhesive pad (10) and the bayonet connection ring (2) By placing it on the adhesive pad (10), the sensor body (1) is connected to the adhesive pad (10) 5 pad center socket (11) which makes the connection, • located inside the pad center housing (11) and the sensor housing (1) direct contact of the contact surface (3) with the user's body providing pad center opening (12), • The adhesive pad (10) is fixed to the user's body and the pad 10 ring-shaped so that the central opening (12) remains open ring-shaped adhesive layer (13), • ring-shaped adhesive layer (13) protecting before use, use during which the adhesive layer (13) separates from the adhesive surface ring-shaped protective film (14) parts that allow its exposure 15 It includes.

2. Strap-on or adhesive for real-time posture disorder detection in accordance with Claim 1. This relates to a padded wearable sensor, and its features are: • Real-time movement and orientation data regarding the user's posture 20 inertial measurement including accelerometer and gyroscope that enables it to be perceived as such. Intermediate Unit (IMU), • Processes posture data obtained by inertial unit (IMU), assessing the user's posture angle, determining that posture angle. comparing with threshold values ​​and detecting postural disorders 25 microcontroller (MCU) that provides • Detection of postural abnormalities by the microcontroller (MCU) in this case, it provides feedback to the user via vibration. vibration motor, • Evaluation performed by the microcontroller (MCU) 30 driving the vibration motor and gradually increasing the vibration intensity accordingly. pulse width modulation (PWM) and motor that allow it to be adjusted accordingly. Vibration driver circuit including driver / MOSFET structure, 16 • Posture data obtained by the sensor body (1) is transmitted wirelessly. wireless communication module that enables the transfer to a mobile device, • for the operation of the electronic components located inside the sensor housing (1) battery that provides the necessary electrical energy, • Providing the user with visual notifications regarding the sensor's operating status. 5 light-emitting diode (LED) indicator, • allowing the user to track posture data transferred to the mobile device, display of current posture status and past posture data It includes mobile application sections that allow for its examination.

3. The invention describes a device with a hanger or adhesive pad for real-time detection of postural defects. This relates to the working method of the wearable sensor and its features; • via the fabric base (4) of the sensor body (1) according to the user’s preference as a hanging or adhesive by means of an adhesive pad (10) determining which one will be used, 15  If hanging style is preferred, by means of fabric straps (8), strap end connecting elements (7) Connecting to the connection points (6) located on the fabric base (4), the lengths of the fabric straps (8) length adjustment sliders (9) through 20 adjustment, the bayonet connection ring (2) of the sensor housing (1), fabric base Alignment with the center slot (5), the placement of the sensor housing (1) into the fabric base center slot (5) and via bayonet connection ring (2) to the fabric base (4) 25 locking, the fabric straps (8) attached to the fabric base (4) on the user placement and posture tracking of the sensor body (1) positioning on the body part where it will be performed, the direct contact surface (3) of the sensor housing (1), fabric base 30 aligned with the central socket (5) and in direct contact with the user's body. positioning it in such a way,  If adhesive pad usage is preferred; 17 the ring-shaped protective film (14), the ring-shaped adhesive layer (13) separation of the ring-shaped adhesive layer (13) and exposure removal, the bayonet connection ring (2) of the sensor housing (1), adhesive pad Alignment of the pad center slot (11) located on (10), 5 the sensor housing (1) is placed on the adhesive pad (10) and via bayonet connection ring (2) to the adhesive pad (10) locking, through the adhesive pad (10), ring-shaped adhesive layer (13) Posture tracking will be performed on the user's body region (10). pasting, the direct contact surface (3) of the sensor housing (1), pad center through the opening (12) to reach the user's body positioning and direct contact surface (3) with the user's body establishing direct contact between them, 15 • the sensor housing (1) on the user according to the selected usage mode After positioning, the sensor body (1) is powered by the battery. providing the necessary electrical energy to the electronic components inside and real-time posture monitoring, • Visual indication of the sensor's operating status via a light-emitting diode (LED) 20 communicated to the user via the display, • inertial sensor containing accelerometer and gyroscope located inside the sensor housing (1) User movement and orientation data via an intramedullary unit (IMU) real-time detection, • Posture data detected by inertial unit (IMU) 25 transmitted to the microcontroller (MCU), • Data received from the inertial unit (IMU) via the microcontroller (MCU) Processing posture data and determining the user's posture angle, • the posture angle determined by the microcontroller (MCU) Comparison with the determined threshold values ​​and 30 in the user's posture determining whether or not there is a disorder,  If the determined posture angle is within the threshold values, Determining that the user's posture is appropriate, 18 the user's movement and orientation via an inertial unit (IMU) Continuing the perception of data and real-time posture Continuation of monitoring,  If the determined posture angle exceeds the threshold values, Detection of postural disorders by the microcontroller (MCU), 5 the level of postural disorder detected by the microcontroller (MCU) evaluation by, depending on the level of postural disorder detected, to the user Determining the vibration level to be applied, The vibration driver circuit is controlled by the microcontroller (MCU). being done, pulse width modulation (PWM) via that vibration driver circuit driving the vibration motor by applying this method, vibration depending on the level of postural disorder detected 15 of three engine stages: low, medium, or high. operating at vibration level, via the vibration motor through the sensor housing (1) to the user Gradual vibration warning is given, • inertial measurement unit after vibration warning is given to the user Real-time user movement and orientation data via (IMU) 20 the continued perception of it as, • current posture data obtained after vibration stimulation the current posture angle of the user is transmitted to the microcontroller (MCU) reassessment,  The user corrects their posture and the posture angle is set to the specified threshold of 25. if it returns to its original values, termination of vibration stimulation related to that postural disorder, real-time posture tracking via an inertial unit (IMU) continuation,  If the user's postural disorder persists, 30 that current posture angle is recalculated by the microcontroller (MCU) evaluation, the vibration to be applied depending on the level of postural disorder redefining the level 19 via that vibration driver circuit, the vibration motor's specified low level, operation at medium or high vibration levels, via that vibration motor, a gradual vibration stimulus is given to the user. continuation of provision, that user's posture is recalculated via an inertial unit (IMU) perception and posture angle within the determined threshold values Posture assessment should continue until return. • Posture data obtained via the sensor body (1) via wireless communication forwarded to the module, • Posture data is transmitted wirelessly to the mobile device via a wireless communication module. as a transfer, • Posture data transferred to the mobile device is received by the mobile application, • the user's current posture status via a mobile application viewing and tracking of past posture data by the user ensuring that it is done, 15 • during the period of use,  User's posture data via inertial unit (IMU) Continuing to detect it in real time,  via a microcontroller (MCU) the posture data in question Continuation of the evaluation, 20  If a postural disorder is detected, the postural disorder should be addressed. Depending on the level, the vibration is delivered to the user in stages via a vibration motor. Vibration alert is given,  Visual indication of the sensor's operating status via a light-emitting diode (LED) provided via indicator, 25  Posture data is transmitted to the mobile device via a wireless communication module. Continuing the transfer, • In case of termination of use, the sensor housing (1), bayonet by removing the connecting ring (2) from the locked position, to which it is attached separation from the assembly structure, 30  If the garment has been used while hanging, the separation of the sensor body (1) from the fabric base (4),  If the adhesive pad has been used, Separation of the sensor housing (1) from the adhesive pad (10), • sensor housing (1) from fabric base (4) or adhesive pad (10) After separation, the other assembly method can be selected if needed, and the sensor housing (1) can be reused with the selected mounting structure It includes the steps involved in the process of bringing it about. 10 20 30

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