1. A wearable garment for outdoor activities, comprising: a fabric structure configured for outdoor use; a plurality of light-emitting elements embedded within the fabric structure at predefined locations; an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns; a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device; and a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements.

2. The wearable garment of claim 1, wherein the wireless communication unit comprises a Wi-Fi-enabled microcontroller configured to establish an IoT-based communication link with an external computing device for real-time adjustment of illumination settings.

3. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes including continuous lighting, intermittent flashing, and color-coded signaling based on user-defined inputs.

4. The wearable garment of claim 1, further comprising an IoT-based distress activation mechanism configured to transmit an emergency signal to an external network upon activation of a predefined distress condition.

5. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification.

6. The wearable garment of claim 1, further comprising an IoT-integrated user interface accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application.

7. The wearable garment of claim 1, wherein the power source comprises a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data.

8. The wearable garment of claim 1, wherein the plurality of light-emitting elements are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones.

9. The wearable garment of claim 1, further comprising an ambient light sensor operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions.

10. The wearable garment of claim 1, further comprising an IoT-integrated tactile control interface embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device. IOT-ENABLED WEARABLE GARMENT FOR OUTDOOR ACTIVITIES Abstract The present disclosure provides a wearable garment for outdoor activities. The wearable garment comprises a fabric structure configured for outdoor use, a plurality of light-emitting elements embedded within the fabric structure at predefined locations, an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns, a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device, and a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements. Fig. 1 , Claims:Claims :

1. A wearable garment for outdoor activities, comprising: a fabric structure configured for outdoor use; a plurality of light-emitting elements embedded within the fabric structure at predefined locations; an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns; a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device; and a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements.

2. The wearable garment of claim 1, wherein the wireless communication unit comprises a Wi-Fi-enabled microcontroller configured to establish an IoT-based communication link with an external computing device for real-time adjustment of illumination settings.

3. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes including continuous lighting, intermittent flashing, and color-coded signaling based on user-defined inputs.

4. The wearable garment of claim 1, further comprising an IoT-based distress activation mechanism configured to transmit an emergency signal to an external network upon activation of a predefined distress condition.

5. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification.

6. The wearable garment of claim 1, further comprising an IoT-integrated user interface accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application.

7. The wearable garment of claim 1, wherein the power source comprises a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data.

8. The wearable garment of claim 1, wherein the plurality of light-emitting elements are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones.

9. The wearable garment of claim 1, further comprising an ambient light sensor operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions.

10. The wearable garment of claim 1, further comprising an IoT-integrated tactile control interface embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device.

Description:

IOT-ENABLED WEARABLE GARMENT FOR OUTDOOR ACTIVITIES
Field of the Invention
[0001] The present disclosure generally relates to wearable technology. Further, the present disclosure particularly relates to an IoT-enabled wearable garment for outdoor activities.
Background
[0002] The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
[0003] Outdoor adventuring has gained widespread popularity due to increasing interest in hiking, trekking, and other exploration activities. Safety remains a primary concern in such outdoor activities, particularly in low-light conditions or remote environments where visibility is reduced. Various safety measures have been implemented to enhance visibility, including wearable lighting systems that integrate light-emitting elements into garments. The primary objective of such systems is to ensure that individuals remain visible in challenging environments to prevent accidents and improve overall safety.
[0004] Wearable lighting systems have been developed to address visibility concerns associated with outdoor adventuring. Conventional wearable lighting solutions incorporate LED-based illumination to provide enhanced visibility in dim environments. Some of these solutions include reflective strips, battery-powered light attachments, and garments embedded with lighting components. Despite the advantages offered by such solutions, significant limitations remain. The primary drawback of existing wearable lighting systems is the absence of real-time control features, restricting users from dynamically adjusting lighting settings based on situational requirements. Additionally, conventional systems are limited to individual visibility enhancement without features enabling coordination between multiple users, which is crucial for group activities such as hiking and trekking.
[0005] Another category of wearable lighting systems involves smart garments embedded with LED elements to provide illumination. Certain smart garments integrate microcontrollers and battery-powered light sources to improve visibility. While such systems offer automated illumination based on predefined settings, they are not equipped with Internet of Things (IoT) connectivity. The absence of IoT integration prevents real-time communication between users, restricting the ability to coordinate lighting patterns across multiple garments. Additionally, emergency signaling mechanisms incorporated into existing smart garments are limited to basic illumination functions, lacking customizable signaling patterns that could be crucial for distress signaling and group coordination.
[0006] Further, other wearable lighting systems incorporate wireless connectivity to facilitate remote control of illumination settings. Such systems enable users to adjust lighting patterns through external control devices such as remote switches or proprietary controllers. However, existing wireless-controlled lighting systems often rely on proprietary communication protocols, limiting compatibility with widely available consumer devices such as smartphones. Moreover, these systems primarily focus on individual user visibility and fail to incorporate features that enable synchronized illumination across multiple garments, which is necessary for efficient group coordination in outdoor environments.
[0007] Additional wearable lighting solutions have been developed with pre-programmed lighting modes that allow users to switch between different illumination settings manually. Such solutions provide limited customization and require manual adjustments, reducing adaptability in dynamically changing outdoor conditions. The absence of automated control mechanisms restricts users from optimizing illumination settings based on external factors such as ambient light levels or emergency situations. Moreover, existing wearable lighting systems do not support real-time connectivity with external networks, limiting their applicability in emergency response scenarios where distress signaling must be communicated effectively.
[0008] In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and/or techniques for wearable safety lighting, particularly in the context of outdoor adventuring.
Summary
[0009] The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
[00010] The following paragraphs provide additional support for the claims of the subject application.
[00011] The present disclosure provides a wearable garment for outdoor activities. The wearable garment comprises a fabric structure configured for outdoor use, a plurality of light-emitting elements embedded within the fabric structure at predefined locations, an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns, a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device, and a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements. Further, the IoT-enabled functionality enhances real-time connectivity, remote customization, and group coordination features. Moreover, adaptive illumination control improves safety and energy efficiency during outdoor activities.
[00012] Further, in another aspect, the wireless communication unit comprises a Wi-Fi-enabled microcontroller configured to establish an IoT-based communication link with an external computing device for real-time adjustment of illumination settings. Further, such a communication unit enables remote operation of the illumination system, improving adaptability in varying environmental conditions.
[00013] Moreover, in another aspect, the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes, including continuous lighting, intermittent flashing, and color-coded signaling based on user-defined inputs. Further, customizable illumination patterns provide enhanced signaling capabilities for outdoor navigation and safety.
[00014] Further, in another aspect, an IoT-based distress activation mechanism is configured to transmit an emergency signal to an external network upon activation of a predefined distress condition. Further, such an emergency signaling system improves response time in critical situations.
[00015] Moreover, in another aspect, the IoT-enabled microcontroller is configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification. Further, group synchronization enhances team visibility and communication during outdoor activities.
[00016] Further, in another aspect, an IoT-integrated user interface is accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application. Further, real-time customization enhances the versatility and usability of the garment in diverse outdoor conditions.
[00017] Moreover, in another aspect, the power source comprises a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data. Further, such a power management system ensures extended operational duration and efficient energy utilization.
[00018] Further, in another aspect, the plurality of light-emitting elements are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones. Further, geolocation-based activation enhances energy efficiency and operational automation.
[00019] Moreover, in another aspect, an ambient light sensor is operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions. Further, adaptive brightness control ensures optimal visibility while conserving power.
[00020] Further, in another aspect, an IoT-integrated tactile control interface is embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device. Further, such an interface enables intuitive user control and seamless data logging.
Brief Description of the Drawings
[00021] The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
[00022] FIG. 1 illustrates a wearable garment for outdoor activities, in accordance with the embodiments of the present disclosure.
[00023] FIG. 2 illustrates a sequence flow diagram of the communication and control process within the wearable garment, in accordance with the embodiments of the present disclosure.
[00024] FIG. 3 illustrates a NodeMCU within the wearable garment, in accordance with the embodiments of the present disclosure.
[00025] FIG. 4 illustrates a flow diagram for connecting the wearable garment, in accordance with the embodiments of the present disclosure.
[00026] FIG. 5 illustrates a 2D sketch of a wearable garment depicting the placement of LEDs, in accordance with the embodiments of the present disclosure.
Detailed Description
[00027] In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
[00028] The use of the terms “a” and “an” and “the” and “at least one” and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term “at least one” followed by a list of one or more items (for example, “at least one of A and B”) is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms “comprising,” “having,” “including,” and “containing” are to be construed as open-ended terms (i.e., meaning “including, but not limited to,”) unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., “such as”) provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
[00029] Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
[00030] As used herein, the term "wearable garment" refers to an article of clothing designed for use in various environmental conditions while being worn on the body. Such a wearable garment comprises textiles or composite materials that provide flexibility, durability, and comfort. Examples of materials used in the wearable garment include synthetic fabrics such as polyester and nylon, natural fibers such as cotton and wool, and blended textiles that offer resistance to weather conditions. The wearable garment is configured to integrate functional components while maintaining structural integrity and ergonomic suitability. Applications of the wearable garment include outdoor activities such as hiking, trekking, camping, and emergency response operations, where visibility, safety, and communication are required. The wearable garment may further be adapted for specialized environments such as military operations, industrial safety, and athletic performance monitoring.
[00031] As used herein, the term "fabric structure" refers to a textile-based material that forms the primary body of the wearable garment. Such a fabric structure is composed of woven, knitted, or non-woven materials designed to provide durability and comfort. Examples of woven fabrics include twill, denim, and canvas, whereas examples of knitted fabrics include jersey and rib-knit textiles. Non-woven materials include felt and bonded fabrics that provide insulation and weather resistance. The fabric structure is further configured for integration with electronic components while ensuring breathability and flexibility. The fabric structure may be treated with water-resistant coatings, UV-protective layers, or fire-retardant finishes depending on the intended application of the wearable garment.
[00032] As used herein, the term "light-emitting elements" refers to electronic components capable of producing illumination when electrically energized. Such light-emitting elements include light-emitting diodes (LEDs), organic light-emitting diodes (OLEDs), electroluminescent strips, and fiber-optic strands. The light-emitting elements are embedded within the fabric structure at predefined locations to provide illumination for visibility, signaling, and aesthetic purposes. The placement of the light-emitting elements is configured to ensure uniform light distribution while minimizing obstruction to the wearer. Applications of the light-emitting elements include personal safety lighting, emergency signaling, and group coordination in outdoor environments.
[00033] As used herein, the term "Internet of Things (IoT)-enabled microcontroller" refers to a processing unit configured for controlling electronic components while supporting network connectivity for remote communication. Such an IoT-enabled microcontroller comprises a central processing unit, memory, input/output interfaces, and wireless communication capabilities. Examples of IoT-enabled microcontrollers include microcontrollers with integrated Wi-Fi or Bluetooth such as ESP8266, ESP32, and ARM Cortex-based microcontrollers. The IoT-enabled microcontroller is operatively coupled to the light-emitting elements to regulate illumination patterns based on user input, environmental conditions, or predefined configurations. The IoT-enabled microcontroller further processes sensor data, transmits operational status to external computing devices, and receives remote commands for dynamic control.
[00034] As used herein, the term "wireless communication unit" refers to a hardware component configured for transmitting and receiving data signals without requiring a wired connection. Such a wireless communication unit supports communication protocols such as Wi-Fi, Bluetooth, Zigbee, and LoRaWAN. Examples of wireless communication units include Wi-Fi transceivers, Bluetooth low-energy (BLE) modules, and radio frequency (RF) transmitters. The wireless communication unit is operatively linked to the IoT-enabled microcontroller to facilitate remote control of the light-emitting elements. The wireless communication unit is configured to establish a connection with external devices such as smartphones, tablets, and cloud-based platforms for data exchange and system monitoring.
[00035] As used herein, the term "external device" refers to an independent electronic apparatus configured for interfacing with the wearable garment through wired or wireless communication. Such an external device includes smartphones, tablets, personal computers, and dedicated remote controllers. Examples of external devices include Android and iOS smartphones, Bluetooth-enabled smartwatches, and Wi-Fi-connected tablets. The external device is configured to transmit user commands to the IoT-enabled microcontroller, receive status updates from the wearable garment, and provide a graphical interface for controlling lighting configurations. The external device further supports mobile applications and cloud-based services that enable real-time monitoring and remote operation.
[00036] As used herein, the term "power source" refers to an energy storage and supply component integrated within the wearable garment to provide electrical power to the IoT-enabled microcontroller and light-emitting elements. Such a power source comprises rechargeable or disposable battery cells, supercapacitors, or energy-harvesting modules. Examples of power sources include lithium-ion batteries, nickel-metal hydride (NiMH) batteries, and photovoltaic energy cells. The power source is configured for efficient power distribution while ensuring prolonged operation of the electronic components. The power source may further include energy management circuits, voltage regulators, and charging interfaces to support stable and reliable power delivery.
[00037] As used herein, the term "Wi-Fi-enabled microcontroller" refers to a microcontroller integrated with Wi-Fi communication capabilities for establishing a wireless network connection. Such a Wi-Fi-enabled microcontroller comprises an embedded radio transceiver, network stack, and secure authentication features for communication with external devices. Examples of Wi-Fi-enabled microcontrollers include ESP8266, ESP32, and ARM Cortex-based controllers with Wi-Fi modules. The Wi-Fi-enabled microcontroller is configured to transmit control signals to the light-emitting elements, receive user-defined illumination patterns from the external device, and synchronize operational settings across multiple garments.
[00038] As used herein, the term "illumination modes" refers to predefined lighting patterns that regulate the operation of the light-emitting elements based on specific requirements. Such illumination modes include continuous lighting, intermittent flashing, and color-coded signaling. Continuous lighting provides a steady light output for visibility in low-light conditions. Intermittent flashing alternates between on and off states to signal movement or emergency alerts. Color-coded signaling adjusts the wavelength output of the light-emitting elements to convey different messages, such as red for emergency alerts and green for normal operation. The illumination modes are configured to be selectable based on user preferences, environmental conditions, or automated triggers.
[00039] As used herein, the term "distress activation mechanism" refers to a control system configured to initiate emergency signaling in response to predefined distress conditions. Such a distress activation mechanism includes manual input controls, automatic sensor-based triggers, or network-based emergency alerts. Examples of distress activation mechanisms include push-button switches, voice-activated commands, and accelerometer-based fall detection systems. The distress activation mechanism is configured to activate a predefined lighting pattern, transmit emergency alerts to external networks, and synchronize distress signals across multiple garments for coordinated rescue efforts.
[00040] As used herein, the term "IoT-integrated user interface" refers to a digital interface accessible through an external device that enables real-time control of the wearable garment’s functionalities. Such an IoT-integrated user interface includes mobile applications, web-based dashboards, and voice-controlled assistants. Examples of IoT-integrated user interfaces include smartphone applications running on Android or iOS, browser-based control panels, and smart assistant integrations such as Amazon Alexa and Google Assistant. The IoT-integrated user interface is configured to adjust lighting intensity, select illumination modes, monitor battery status, and configure emergency response settings.
[00041] As used herein, the term "ambient light sensor" refers to a sensor configured for detecting external illumination levels and adjusting the brightness of the light-emitting elements accordingly. Such an ambient light sensor includes photodiodes, phototransistors, and charge-coupled devices (CCDs). Examples of ambient light sensors include silicon photodiodes for visible spectrum detection and infrared-sensitive phototransistors for low-light adaptation. The ambient light sensor is configured to optimize power consumption, reduce glare, and maintain consistent visibility based on environmental lighting conditions.
[00042] FIG. 1 illustrates a wearable garment for outdoor activities, in accordance with the embodiments of the present disclosure. The wearable garment for outdoor activities comprises a fabric structure configured for outdoor use. Such a fabric structure consists of materials designed to provide durability, flexibility, and comfort in various environmental conditions. The materials used in the fabric structure include woven textiles, knitted fabrics, or non-woven composite materials that offer breathability and resistance to external elements such as moisture, wind, and ultraviolet radiation. The fabric structure may incorporate synthetic fibers such as polyester and nylon, natural fibers such as cotton and wool, or blended textiles that combine the advantages of different materials. The fabric structure is further configured to support the integration of electronic components without compromising the wearability and functionality of the garment. The selection of fabric materials ensures that the garment remains lightweight while withstanding mechanical stress and repeated usage in outdoor environments. The fabric structure may also include coatings or treatments that enhance resistance to water, stains, or microbial growth. The arrangement of fabric layers may provide insulation properties to regulate body temperature in extreme weather conditions. The fabric structure facilitates the secure attachment of additional functional elements such as fasteners, reinforcement panels, and ventilation zones. The incorporation of conductive threads, laminated electronic pathways, or flexible printed circuit boards within the fabric structure allows for efficient electrical connectivity between embedded components. The construction of the fabric structure enables the integration of functional elements while maintaining comfort and mobility for the wearer. The fabric structure is further designed to accommodate variations in garment form factors, including jackets, vests, or full-body suits, depending on the intended application and user requirements. The selection of construction methods, including stitching, welding, and bonding techniques, ensures that the fabric structure maintains durability and flexibility over prolonged usage. The design of the fabric structure enables adaptability for various outdoor activities, ensuring that the garment remains functional across different environmental conditions.
[00043] The wearable garment for outdoor activities further comprises a plurality of light-emitting elements embedded within the fabric structure at predefined locations. Such a plurality of light-emitting elements includes illumination devices such as light-emitting diodes (LEDs), organic light-emitting diodes (OLEDs), electroluminescent strips, or fiber-optic elements that generate visible light. The plurality of light-emitting elements is positioned within the fabric structure to provide optimal visibility while ensuring uniform light distribution across the garment surface. The selection of light-emitting elements enables variable brightness levels and multiple color options, allowing for dynamic lighting configurations based on user preferences and environmental conditions. The plurality of light-emitting elements may operate in different illumination modes, including continuous illumination, flashing patterns, and color-coded signaling, based on predefined settings or real-time control. The placement of the light-emitting elements is determined based on ergonomic considerations to prevent obstruction or discomfort for the wearer. The integration of the plurality of light-emitting elements into the fabric structure is facilitated using flexible circuit substrates, conductive textile threads, or surface-mounted electronic modules to ensure durability and electrical connectivity. The plurality of light-emitting elements is designed to consume minimal power while providing sufficient brightness for visibility in low-light or dark environments. The arrangement of the plurality of light-emitting elements enables uniform illumination and enhances the wearer's visibility from multiple viewing angles. The plurality of light-emitting elements may be embedded within specific regions of the garment, such as the torso, sleeves, or back, to enhance visibility and signal communication in outdoor environments. The plurality of light-emitting elements is further integrated in a manner that prevents direct exposure to environmental factors such as rain, dust, or impact, ensuring reliable operation across different weather conditions. The design and placement of the plurality of light-emitting elements contribute to the overall functionality of the wearable garment in outdoor settings.
[00044] The wearable garment for outdoor activities further comprises an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns. Such an IoT-enabled microcontroller includes a processing unit configured to execute control algorithms, manage communication protocols, and regulate power consumption associated with the plurality of light-emitting elements. The IoT-enabled microcontroller processes input commands received from external devices or sensors to adjust illumination settings based on user preferences or environmental conditions. The IoT-enabled microcontroller includes an integrated memory unit that stores predefined lighting configurations, user-defined presets, and adaptive control algorithms that modify illumination behavior dynamically. The IoT-enabled microcontroller further supports connectivity features that enable seamless interaction between the wearable garment and external devices such as smartphones, tablets, or cloud-based control systems. The IoT-enabled microcontroller is operatively coupled to the plurality of light-emitting elements through electrical interfaces that facilitate signal transmission and power regulation. The IoT-enabled microcontroller enables synchronization of lighting patterns across multiple garments within a designated group to facilitate coordinated visibility and communication. The IoT-enabled microcontroller executes predefined sequences that activate specific illumination modes based on contextual triggers, including movement detection, ambient light levels, or emergency conditions. The IoT-enabled microcontroller operates using low-power embedded processing architectures to optimize battery life while ensuring responsive performance. The integration of the IoT-enabled microcontroller within the wearable garment is facilitated using flexible printed circuit boards, compact enclosures, or textile-based electronic integration techniques. The IoT-enabled microcontroller may include security features such as encrypted communication protocols to protect user data and prevent unauthorized access. The IoT-enabled microcontroller further enables real-time monitoring of system parameters, including battery status and operational diagnostics, through an interactive interface. The IoT-enabled microcontroller plays a central role in managing the illumination functions of the wearable garment while supporting advanced control and connectivity features.
[00045] The wearable garment for outdoor activities further comprises a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device. Such a wireless communication unit includes electronic components configured to establish bidirectional data exchange between the wearable garment and an external device. The wireless communication unit supports multiple communication technologies, including Wi-Fi, Bluetooth, Zigbee, or cellular networks, enabling remote access and configuration of the plurality of light-emitting elements. The wireless communication unit facilitates seamless connectivity with user interfaces such as mobile applications, voice-activated controls, or web-based platforms that allow remote customization of lighting parameters. The wireless communication unit is operatively linked to the IoT-enabled microcontroller to transmit and receive control signals associated with illumination adjustments, power management, and system diagnostics. The wireless communication unit further enables synchronization of lighting patterns across multiple garments within a defined group, ensuring coordinated visibility and communication in outdoor settings. The wireless communication unit includes hardware components such as transceivers, antennas, and secure authentication modules that ensure reliable connectivity across varying communication ranges. The wireless communication unit enables real-time user interaction with the wearable garment, allowing for adaptive lighting configurations based on user input or automated triggers. The wireless communication unit supports secure data transmission protocols to prevent interference or unauthorized access to the garment’s control functions. The wireless communication unit facilitates firmware updates and system enhancements, allowing for continuous improvement and feature expansion through remote updates. The wireless communication unit enhances the functionality of the wearable garment by providing flexible and interactive control mechanisms, ensuring adaptability across various outdoor conditions.
[00046] The wearable garment for outdoor activities further comprises a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements. Such a power source includes energy storage and delivery components configured to provide sustained operation of the garment’s electronic functionalities. The power source comprises a rechargeable battery, supercapacitor, or alternative energy-harvesting system capable of delivering consistent electrical power. The power source is embedded within the fabric structure in a manner that ensures accessibility for recharging or replacement while maintaining garment wearability. The power source is configured to provide stable voltage regulation, protecting the IoT-enabled microcontroller and the plurality of light-emitting el

safety, and communication by providing multiple illumination modes tailored to various outdoor scenarios.
[00049] In an embodiment, the wearable garment further comprises an IoT-based distress activation mechanism configured to transmit an emergency signal to an external network upon activation of a predefined distress condition. The IoT-based distress activation mechanism enables users to trigger emergency alerts manually or automatically based on specific environmental or physiological triggers. The IoT-based distress activation mechanism includes a manual activation interface such as a dedicated physical button, voice command recognition, or touchscreen interface that allows the user to initiate an emergency signal when assistance is required. The IoT-based distress activation mechanism further includes automated activation functionality that responds to predefined conditions such as sudden impact detection, prolonged inactivity, or abnormal biometric readings detected by integrated sensors. Upon activation, the IoT-based distress activation mechanism transmits an emergency signal to external networks, including cloud-based emergency response platforms, designated contacts, or nearby rescue teams. The IoT-based distress activation mechanism utilizes wireless communication protocols such as Wi-Fi, Bluetooth, or cellular networks to relay distress signals in real time. The IoT-based distress activation mechanism further synchronizes with the plurality of light-emitting elements to activate predefined emergency illumination patterns, such as high-intensity flashing red lights, to visually indicate distress to nearby individuals. The IoT-based distress activation mechanism supports geolocation features that embed location data within the transmitted emergency signal to facilitate precise tracking of the wearer's position. The IoT-based distress activation mechanism enhances safety by providing immediate emergency alert capabilities, ensuring rapid response and assistance in critical outdoor scenarios.
[00050] In an embodiment, the wearable garment comprises an IoT-enabled microcontroller configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification. The IoT-enabled microcontroller enables dynamic interaction between multiple garments worn by different users, facilitating synchronized lighting effects for improved group visibility and communication. The IoT-enabled microcontroller supports real-time data exchange between garments, allowing users to select predefined group lighting patterns or configure custom synchronization modes through an external computing device. The IoT-enabled microcontroller enables all garments within a designated group to exhibit identical or complementary illumination behaviors based on predefined rules. The IoT-enabled microcontroller further supports hierarchical group coordination, wherein certain garments function as control units that transmit synchronization commands to other garments within the network. The IoT-enabled microcontroller utilizes low-latency communication protocols to ensure seamless synchronization without perceptible delays. The IoT-enabled microcontroller supports adaptive synchronization features that automatically modify illumination behavior based on proximity, movement patterns, or predefined safety conditions. The IoT-enabled microcontroller facilitates efficient coordination among hikers, cyclists, or emergency response teams by enhancing visibility and reducing the risk of separation. The IoT-enabled microcontroller allows users to enable synchronization settings through a mobile application, providing customizable group visibility options. The IoT-enabled microcontroller further ensures stable power consumption management by optimizing synchronization intervals and illumination intensity. The IoT-enabled microcontroller provides an advanced visibility enhancement mechanism that enables efficient group coordination, improving communication and safety in outdoor environments.
[00051] In an embodiment, the wearable garment further comprises an IoT-integrated user interface accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application. The IoT-integrated user interface provides an interactive control system that allows users to configure the plurality of light-emitting elements remotely. The IoT-integrated user interface supports mobile and web-based platforms, enabling compatibility with smartphones, tablets, and personal computers. The IoT-integrated user interface presents users with an intuitive graphical control dashboard that displays current illumination settings, battery levels, and network status. The IoT-integrated user interface allows users to create custom lighting profiles, defining preferred illumination settings that can be saved and activated when required. The IoT-integrated user interface further includes automation options that enable the plurality of light-emitting elements to adjust dynamically based on predefined conditions such as time of day, motion detection, or weather conditions. The IoT-integrated user interface supports group control functionality, allowing multiple garments to be managed from a single external computing device. The IoT-integrated user interface further integrates voice command capabilities, allowing users to modify illumination settings through voice-activated assistants. The IoT-integrated user interface supports remote diagnostics and troubleshooting features, enabling users to identify and resolve system issues efficiently. The IoT-integrated user interface ensures secure access by implementing authentication measures such as user verification and encrypted communication protocols. The IoT-integrated user interface enhances user convenience by providing real-time customization and control over the wearable garment’s illumination functionalities.
[00052] In an embodiment, the wearable garment comprises a power source that includes a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data. The rechargeable battery provides electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements, ensuring continuous operation of the wearable garment. The rechargeable battery comprises lithium-ion, lithium-polymer, or nickel-metal hydride cells that offer high energy density and long operational life. The rechargeable battery is embedded within the fabric structure in a manner that maintains the wearability and flexibility of the garment. The IoT-based power management system monitors energy consumption and dynamically adjusts power distribution based on real-time demand. The IoT-based power management system implements adaptive energy-saving algorithms that regulate illumination intensity and microcontroller activity to prolong battery life. The IoT-based power management system further includes predictive analytics capabilities that estimate remaining battery life and recommend optimal charging intervals. The rechargeable battery supports multiple charging methods, including wired charging via a universal serial bus (USB) port or wireless charging through inductive coupling. The IoT-based power management system communicates with an external computing device to provide users with real-time battery status updates and low-power alerts. The IoT-based power management system includes safety mechanisms such as overcharge protection, temperature regulation, and short-circuit prevention to ensure reliable operation under varying environmental conditions. The rechargeable battery and IoT-based power management system enable efficient energy utilization, ensuring that the wearable garment remains operational across extended outdoor activities.
[00053] In an embodiment, the wearable garment comprises a plurality of light-emitting elements that are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones. The IoT-enabled geolocation module utilizes global positioning system (GPS), assisted GPS (A-GPS), or Wi-Fi-based positioning technologies to determine the location of the wearable garment in real time. The IoT-enabled geolocation module continuously monitors movement patterns and geographic coordinates, allowing the wearable garment to adjust illumination settings dynamically based on predefined location-based triggers. The plurality of light-emitting elements are activated when the IoT-enabled geolocation module detects entry into a predefined zone, such as low-visibility hiking trails, restricted access areas, or high-traffic pedestrian zones. The plurality of light-emitting elements are deactivated when the IoT-enabled geolocation module determines that the wearer has exited an active illumination zone, conserving battery power while ensuring appropriate lighting when needed. The IoT-enabled geolocation module further supports location-based synchronization of illumination settings across multiple garments, enabling coordinated lighting configurations for group activities. The IoT-enabled geolocation module is configured to transmit location data to an external computing device, allowing users to monitor real-time positioning and configure geofencing parameters through a mobile application. The IoT-enabled geolocation module includes privacy settings that allow users to control location-sharing permissions and restrict access to tracking data. The IoT-enabled geolocation module ensures that illumination functions are intelligently activated based on geographic context, enhancing safety and operational efficiency of the wearable garment in outdoor environments.
[00054] In an embodiment, the wearable garment further comprises an ambient light sensor operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions. The ambient light sensor continuously measures the surrounding brightness levels and transmits real-time data to the IoT-enabled microcontroller, which dynamically regulates the output of the plurality of light-emitting elements. The ambient light sensor includes photodiodes, phototransistors, or charge-coupled devices (CCDs) that are sensitive to visible and infrared light spectrums. The ambient light sensor enables automatic brightness adjustment, wherein the illumination intensity increases in low-light environments and decreases in well-lit conditions to optimize visibility and power consumption. The ambient light sensor further supports adaptive illumination control, ensuring that the wearable garment provides consistent brightness levels without requiring manual adjustments. The IoT-enabled microcontroller processes ambient light data to implement gradual transitions between brightness levels, preventing sudden fluctuations in illumination that could cause discomfort to the wearer. The ambient light sensor is embedded within the fabric structure in a location that allows unobstructed exposure to environmental lighting conditions while maintaining protection from dust and moisture. The ambient light sensor further integrates with other environmental monitoring components, such as temperature and motion sensors, to enhance overall system intelligence. The IoT-enabled microcontroller communicates ambient light data to an external computing device, allowing users to monitor illumination adjustments and configure sensor sensitivity settings remotely. The ambient light sensor enhances the usability of the wearable garment by providing automated lighting adjustments that respond to varying environmental conditions.
[00055] In an embodiment, the wearable garment further comprises an IoT-integrated tactile control interface embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device. The IoT-integrated tactile control interface includes capacitive touch sensors, resistive touch pads, or pressure-sensitive conductive textiles that detect physical interaction from the user. The IoT-integrated tactile control interface allows users to manually control illumination settings without requiring external devices, providing an intuitive and accessible user interaction method. The IoT-integrated tactile control interface is operatively linked to the IoT-enabled microcontroller, enabling real-time command execution for toggling between illumination modes, adjusting brightness levels, and activating emergency signaling functions. The IoT-integrated tactile control interface further supports multi-touch gestures that allow users to execute advanced control commands, such as double-tap to activate flashing mode or swipe gestures to modify color settings. The IoT-integrated tactile control interface includes haptic feedback mechanisms that provide vibration-based confirmation signals to indicate successful input recognition. The IoT-integrated tactile control interface transmits usage data to an external computing device, allowing users to review interaction logs and configure custom touch control settings. The IoT-integrated tactile control interface further integrates with voice-command systems, enabling seamless interaction between manual and voice-activated controls. The IoT-integrated tactile control interface is embedded within the fabric structure in a manner that maintains durability and responsiveness while ensuring protection against environmental exposure. The IoT-integrated tactile control interface enhances user convenience by providing a direct and responsive control mechanism for managing illumination functions of the wearable garment.
[00056] In an embodiment, the fabric structure configured for outdoor use provides durability and flexibility while enabling the integration of electronic components without compromising wearability. The fabric structure supports prolonged exposure to environmental conditions, including moisture, temperature variations, and mechanical stress, ensuring reliable operation during outdoor activities. The configuration of the fabric structure allows for the secure embedding of functional elements, including light-emitting elements, sensors, and conductive pathways, without affecting garment comfort. The ability to incorporate electronic components within the fabric structure ensures improved functionality while maintaining structural integrity, reducing the likelihood of mechanical failure or degradation over time. The optimized material selection enables breathability while supporting resistance to wear and tear, extending the operational lifespan of the wearable garment.
[00057] In an embodiment, the plurality of light-emitting elements embedded within the fabric structure at predefined locations enhances visibility and safety in outdoor environments. The predefined placement of the plurality of light-emitting elements ensures uniform light distribution, providing improved illumination from multiple viewing angles. The ability to operate the plurality of light-emitting elements in different modes allows for adaptive visibility based on environmental conditions, increasing the effectiveness of the illumination system in low-light conditions. The integration of the plurality of light-emitting elements within the fabric structure eliminates the need for external lighting accessories, reducing the complexity of additional gear while improving mobility for the wearer. The embedded design ensures protection from mechanical impact and environmental exposure, enhancing the reliability and longevity of the illumination system.
[00058] In an embodiment, the IoT-enabled microcontroller operatively coupled to the plurality of light-emitting elements enables dynamic lighting control, providing real-time adjustments based on user input, predefined conditions, or automated triggers. The ability to process data from sensors and external devices allows the IoT-enabled microcontroller to optimize illumination patterns based on environmental conditions, ensuring efficient power utilization while maintaining high visibility. The integration of an IoT-enabled microcontroller supports advanced control functions, including programmable lighting sequences, group synchronization, and emergency signaling. The centralized processing capability of the IoT-enabled microcontroller ensures seamless operation across multiple functional elements of the wearable garment, reducing latency in control responses and improving overall system efficiency.
[00059] In an embodiment, the wireless communication unit operatively linked to the IoT-enabled microcontroller facilitates remote access and control of the wearable garment’s illumination system. The ability to establish real-time connectivity with an external device enables users to modify lighting settings dynamically, allowing adjustments based on environmental conditions or activity requirements. The wireless communication unit supports seamless integration with mobile applications, enabling intuitive control interfaces for adjusting brightness, color settings, and operational modes. The inclusion of secure communication protocols ensures data integrity and prevents unauthorized access, maintaining system reliability. The ability to transmit and receive commands over a wireless network eliminates the need for physical interaction with the garment, improving convenience and usability.
[00060] In an embodiment, the power source integrated within the fabric structure ensures continuous operation of the IoT-enabled microcontroller and the plurality of light-emitting elements without reliance on external power sources. The ability to incorporate a rechargeable battery supports long-duration usage, reducing dependency on disposable energy sources. The integration of the power source within the fabric structure ensures compact and lightweight design while maintaining accessibility for recharging. The power source is configured to provide stable voltage output, preventing fluctuations that may impact the performance of electronic components. The incorporation of energy management systems allows for optimized power distribution, ensuring efficient energy consumption and extended battery life.
[00061] In an embodiment, the Wi-Fi-enabled microcontroller establishes an IoT-based communication link with an external computing device, enabling real-time adjustment of illumination settings. The ability to wirelessly modify lighting configurations enhances adaptability, allowing users to respond to changing environmental conditions without physical interaction with the garment. The Wi-Fi-enabled microcontroller ensures reliable connectivity by maintaining stable communication links with external control interfaces, supporting uninterrupted operation. The capability to update firmware remotely allows for continuous system improvements, extending the functional capabilities of the wearable garment over time. The ability to support multiple concurrent connections enables coordinated group lighting configurations, improving group visibility and signaling efficiency.
[00062] In an embodiment, the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes, allowing users to customize lighting behavior based on situational requirements. The ability to switch between continuous lighting, intermittent flashing, and color-coded signaling provides enhanced visibility and communication options for different outdoor scenarios. The ability to implement predefined or user-configurable lighting sequences improves the adaptability of the illumination system. The capability to integrate sensor-driven automatic adjustments ensures that illumination intensity adapts to changing environmental conditions, reducing unnecessary power consumption while maintaining optimal visibility. The ability to store lighting preferences and automate transitions between modes provides an intuitive and user-friendly lighting control system.
[00063] In an embodiment, the IoT-based distress activation mechanism enables emergency signaling through automated or manual triggers, improving safety in critical situations. The ability to transmit emergency alerts to external networks ensures that distress signals reach designated contacts or response teams without requiring additional communication devices. The ability to activate predefined flashing sequences or color-coded distress indicators improves the visibility of the wearer, facilitating faster identification and response in emergency conditions. The integration of location data with distress signaling further enhances response efficiency by providing precise information on the wearer’s position. The ability to interface with third-party emergency response systems enables broader integration with existing safety infrastructure.
[00064] In an embodiment, the IoT-enabled microcontroller facilitates synchronized illumination patterns across multiple garments, allowing for coordinated visual identification in group settings. The ability to establish a real-time communication network between multiple garments ensures uniform lighting behavior, improving group visibility in outdoor environments. The ability to dynamically adjust group lighting configurations enhances team coordination, enabling organized movement in low-light conditions. The ability to maintain real-time synchronization reduces visual confusion and ensures consistent illumination patterns across all participating garments. The capability to implement hierarchical control structures within the group lighting system allows designated users to define lighting commands for the entire group.
[00065] In an embodiment, the IoT-integrated user interface provides real-time customization of illumination parameters through an external computing device, allowing users to configure lighting preferences based on activity requirements. The ability to modify brightness, color variation, and operational duration ensures a highly adaptable lighting system. The capability to create and store user-defined lighting profiles allows for rapid switching between preset configurations, improving usability. The ability to integrate voice control functionality provides an additional interaction method, allowing hands-free operation of the illumination system. The ability to access system diagnostics and battery status through the user interface ensures that users are informed about garment performance and energy levels.
[00066] In an embodiment, the IoT-based power management system dynamically adjusts energy consumption based on real-time data, optimizing battery usage without compromising illumination performance. The ability to monitor energy consumption patterns allows the system to implement adaptive power-saving measures. The ability to distribute power efficiently between different functional components ensures stable operation across all electronic elements of the wearable garment. The ability to adjust brightness levels based on available battery capacity ensures prolonged functionality in outdoor conditions. The capability to notify users about low power levels and recommend charging intervals prevents unexpected power loss.
[00067] In an embodiment, the IoT-enabled geolocation module enables location-based activation and deactivation of the plurality of light-emitting elements, optimizing power usage while ensuring illumination in designated areas. The ability to automatically adjust lighting settings based on geographic position improves visibility without requiring manual input. The capability to implement geofencing features allows for location-specific lighting rules, ensuring compliance with regional visibility requirements. The ability to track user movement enables automated transitions between lighting states based on activity zones. The integration of real-time location monitoring enhances situational awareness in outdoor environments.
[00068] In an embodiment, the ambient light sensor dynamically adjusts the brightness of the plurality of light-emitting elements based on detected external lighting conditions, ensuring optimal visibility while conserving power. The ability to reduce illumination in bright environments minimizes unnecessary energy consumption. The ability to increase brightness in low-light conditions ensures that visibility is maintained at all times. The capability to implement gradual transitions between brightness levels prevents sudden changes in illumination that could cause visual discomfort. The ability to integrate ambient light sensing with other environmental monitoring systems improves overall system intelligence.
[00069] In an embodiment, the IoT-integrated tactile control interface enables direct user interaction with the illumination system without requiring external computing devices. The ability to manually activate and deactivate lighting functions improves accessibility. The capability to adjust brightness and color settings through touch-based gestures provides an intuitive control method. The ability to transmit usage data to an external computing device ensures that user interactions are recorded for performance analysis. The integration of haptic feedback enhances user experience by providing tactile confirmation of input actions. The ability to operate the control interface in all environmental conditions ensures reliability in outdoor applications.
[00070] In an embodiment, the wearable garment for outdoor activities comprises the fabric structure configured for outdoor use. The fabric structure is made of durable khaki fabric, which provides both resilience and comfort for extended wear. The fabric structure incorporates a design that conceals the wiring system between the main fabric and the lining fabric, thereby eliminating discomfort or tension typically caused by exposed wiring. The plurality of light-emitting elements is embedded within the fabric structure at predefined locations, specifically positioned within the buttons, to provide an illuminated effect while maintaining the aesthetic integrity of the garment. An Internet of Things-enabled microcontroller is operatively coupled to the plurality of light-emitting elements for managing illumination patterns, thereby allowing customized lighting effects for various applications. A wireless communication unit is operatively linked to the Internet of Things-enabled microcontroller, thereby enabling remote control of the plurality of light-emitting elements through an external device. A power source is integrated within the fabric structure for supplying electrical energy to the Internet of Things-enabled microcontroller and the plurality of light-emitting elements. The seamless integration of the wiring system within the fabric structure enhances wearability and ensures unrestricted movement for the wearer. The combination of a concealed wiring configuration, a strategically embedded lighting system, and wireless control functionalities provides a modern, functional design that merges fashion with advanced technology.
[00071] FIG. 2 illustrates a sequence flow diagram of the communication and control process within the wearable garment, in accordance with the embodiments of the present disclosure. The process begins with a user operating an external device, such as a smartphone or tablet, to send a control command for modifying the LED pattern of the plurality of light-emitting elements. The external device communicates the command to a wireless communication unit, which acts as an interface for receiving and transmitting data. Upon receiving the control command, the wireless communication unit forwards the command to the IoT-enabled microcontroller, which serves as the central processing component for managing illumination functions. The IoT-enabled microcontroller processes the received command and transmits an acknowledgment signal back to the wireless communication unit, which subsequently relays the confirmation to the external device for display on the user interface. The IoT-enabled microcontroller then activates or modifies the LED pattern according to the received instructions while simultaneously drawing power from the power source to sustain the operation of the plurality of light-emitting elements. The closed-loop communication between the user, wireless communication unit, and IoT-enabled microcontroller ensures real-time responsiveness, efficient control execution, and power management within the wearable garment.
[00072] FIG. 3 illustrates a NodeMCU (similar to IoT-enabled microcontroller of FIG. 1) within the wearable garment, in accordance with the embodiments of the present disclosure. The NodeMCU is powered by a power supply connected via a USB interface. Multiple output pins of the NodeMCU are connected to individual wires, each of which is further connected to the positive terminals of corresponding LEDs. The ground terminals of all LEDs are collectively connected to a single ground wire, which is further connected to the ground pin of the NodeMCU. Such a connection enables the NodeMCU to individually control each LED by providing an appropriate voltage signal to the corresponding output pin. The NodeMCU comprises an integrated Wi-Fi module, which enables wireless communication for data exchange and remote control functionalities. The reset and flash buttons are positioned on the NodeMCU for device configuration and firmware updates. Such a configuration facilitates efficient power management and seamless integration of the NodeMCU with the wearable garment for enhanced functionality.
[00073] FIG. 4 illustrates a flow diagram for connecting the wearable garment, in accordance with the embodiments of the present disclosure. The process begins by powering the NodeMCU (similar to IoT-enabled microcontroller of FIG. 1 and Node MCU of FIG. 3), which serves as the central control unit of the wearable garment. Once powered, the NodeMCU establishes a wireless communication channel by connecting to a mobile hotspot. After establishing the connection, the user retrieves the IP address assigned to the NodeMCU to facilitate remote access. This IP address is then entered into a web browser, allowing the user to access the control interface hosted on the NodeMCU. The web-based interface enables users to remotely control the LEDs integrated within the wearable garment by sending commands over the wireless network. This setup eliminates the need for physical interactions with the garment’s electronic components and ensures seamless control. The described connection process enhances the usability and interactivity of the wearable garment, making it more efficient for real-time applications.
[00074] FIG. 5 illustrates a 2D sketch of a wearable garment depicting the placement of LEDs, in accordance with the embodiments of the present disclosure. The garment is designed with LEDs embedded within the buttons, specifically positioned from button 1 to button 6 along the central vertical axis. The NodeMCU (similar to IoT-enabled microcontroller of FIG. 1 and NodeMCU of FIG. 3 & FIG. 4), serving as the control unit, is connected to these LEDs through individual positive wires, each corresponding to an LED. The backside of the fabric houses the wiring, ensuring that the electronics remain discreet and do not interfere with the aesthetics of the garment. A common ground wire is connected to the negative terminals of all LEDs, completing the circuit and enabling synchronized control. The integration of LEDs into the button structure ensures minimal alteration to the garment’s overall design while enhancing functionality. This configuration allows real-time illumination control, making the wearable suitable for applications requiring visual signaling, interactive displays, or aesthetic enhancements.
[00075] Example embodiments herein have been described above with reference to block diagrams and flowchart illustrations of methods and apparatuses. It will be understood that each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations, respectively, can be implement

Claims
I/We Claim:
1. A wearable garment for outdoor activities, comprising:
a fabric structure configured for outdoor use;
a plurality of light-emitting elements embedded within the fabric structure at predefined locations;
an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns;
a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device; and
a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements.
2. The wearable garment of claim 1, wherein the wireless communication unit comprises a Wi-Fi-enabled microcontroller configured to establish an IoT-based communication link with an external computing device for real-time adjustment of illumination settings.
3. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes including continuous lighting, intermittent flashing, and color-coded signaling based on user-defined inputs.
4. The wearable garment of claim 1, further comprising an IoT-based distress activation mechanism configured to transmit an emergency signal to an external network upon activation of a predefined distress condition.
5. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification.
6. The wearable garment of claim 1, further comprising an IoT-integrated user interface accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application.
7. The wearable garment of claim 1, wherein the power source comprises a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data.
8. The wearable garment of claim 1, wherein the plurality of light-emitting elements are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones.
9. The wearable garment of claim 1, further comprising an ambient light sensor operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions.
10. The wearable garment of claim 1, further comprising an IoT-integrated tactile control interface embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device.

IOT-ENABLED WEARABLE GARMENT FOR OUTDOOR ACTIVITIES
Abstract
The present disclosure provides a wearable garment for outdoor activities. The wearable garment comprises a fabric structure configured for outdoor use, a plurality of light-emitting elements embedded within the fabric structure at predefined locations, an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns, a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device, and a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements.
Fig. 1 , Claims:Claims
I/We Claim:
1. A wearable garment for outdoor activities, comprising:
a fabric structure configured for outdoor use;
a plurality of light-emitting elements embedded within the fabric structure at predefined locations;
an Internet of Things (IoT)-enabled microcontroller operatively coupled to the plurality of light-emitting elements for managing illumination patterns;
a wireless communication unit operatively linked to the IoT-enabled microcontroller for enabling remote control of the plurality of light-emitting elements through an external device; and
a power source integrated within the fabric structure for supplying electrical energy to the IoT-enabled microcontroller and the plurality of light-emitting elements.
2. The wearable garment of claim 1, wherein the wireless communication unit comprises a Wi-Fi-enabled microcontroller configured to establish an IoT-based communication link with an external computing device for real-time adjustment of illumination settings.
3. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to operate the plurality of light-emitting elements in multiple illumination modes including continuous lighting, intermittent flashing, and color-coded signaling based on user-defined inputs.
4. The wearable garment of claim 1, further comprising an IoT-based distress activation mechanism configured to transmit an emergency signal to an external network upon activation of a predefined distress condition.
5. The wearable garment of claim 1, wherein the IoT-enabled microcontroller is configured to synchronize illumination patterns of multiple garments within a designated group using real-time IoT communication for coordinated visual identification.
6. The wearable garment of claim 1, further comprising an IoT-integrated user interface accessible via the external computing device, wherein said user interface enables real-time customization of illumination intensity, color variation, and operational duration through a connected application.
7. The wearable garment of claim 1, wherein the power source comprises a rechargeable battery operatively connected to an IoT-based power management system for optimizing energy consumption based on real-time usage data.
8. The wearable garment of claim 1, wherein the plurality of light-emitting elements are configured to be automatically activated and deactivated based on an IoT-enabled geolocation module detecting predefined geographic zones.
9. The wearable garment of claim 1, further comprising an ambient light sensor operatively connected to the IoT-enabled microcontroller, wherein said sensor is configured to automatically adjust illumination intensity based on detected external lighting conditions.
10. The wearable garment of claim 1, further comprising an IoT-integrated tactile control interface embedded within the fabric structure, wherein said tactile control interface enables manual activation and deactivation of the plurality of light-emitting elements while transmitting usage data to an external computing device.