Neckband with embedded electronic components

Abstract

A neck strap includes a strap body and at least one electronic component embedded in the strap body.

Description

Cross-references to related applications

[0001] This application claims the benefit of U.S. Provisional Patent Application No. 63 / 591,568, filed October 19, 2023, the entire contents of which are incorporated herein by reference. Background Technology

[0002] The embodiments disclosed herein generally relate to lanyards, and more specifically, to lanyards with embedded electronic components.

[0003] A neck strap is a band-like accessory made of various materials (usually fabric or nylon) designed to be worn comfortably around the neck. Neck straps serve as versatile support for items such as ID badges, keys, or compact devices. They are used in various sectors, from healthcare and education to trade shows and conferences, to facilitate secure access and identification.

[0004] In addition to standard neckbands, many devices can be worn with name tags or ID cards to provide enhanced functionality, such as audio guide systems for tourists, including audio receivers for seamlessly receiving information from guides / managers; language translators that enable users to easily communicate in foreign languages; health and safety monitors that provide real-time environmental data to ensure user well-being; emergency medical alarms that assist the elderly by instantly alerting caregivers during emergencies; or contact beacons that facilitate location-based interaction in various situations. These devices typically offer a single function and do not include features to facilitate interaction between the wearer and the device attached to the neckband. Summary of the Invention

[0005] According to an embodiment, a neckband includes a band body and at least one electronic component embedded in the band body.

[0006] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the strip comprises a wire.

[0007] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the tape body includes a microphone and a speaker.

[0008] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the strip includes a control button.

[0009] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein the control button includes volume up, volume down, and power on / off.

[0010] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the band body includes a jack for an earphone attachment.

[0011] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: at least one substrate that provides a bus interface for at least one electronic component embedded in the strip.

[0012] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: a battery that provides power to at least one electronic component embedded in the strip.

[0013] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: a module connected to the bus interface.

[0014] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein the module is a wireless speakerphone module.

[0015] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the strip includes a call button for making or receiving voice calls.

[0016] In addition to one or more of the features described herein, or as an alternative, further embodiments may include wherein the wire provides antenna functionality.

[0017] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the band body includes a jack for an earphone attachment.

[0018] In addition to one or more of the features described herein, or as an alternative, further embodiments may include a radio transceiver module connected to the bus interface.

[0019] In addition to one or more of the features described herein, or as an alternative, further embodiments may include: wherein at least one electronic component embedded in the tape body includes a call button for making or receiving voice calls via a radio transceiver module.

[0020] According to another embodiment, a neckband includes: a strap body configured to be worn around a user's neck, the strap body including embedded metal wires for providing flexibility and acting as antennas; a plurality of embedded devices positioned on the strap body, the devices including a speaker and a microphone; integrated controls on the neckband for power and audio volume adjustment; an earphone jack and earphone cord organizer on the neckband; a base plate attached to the neckband, the base plate having a bus interface for connecting to the embedded wires; a communication module positioned on the base plate; and a battery module positioned on the base plate.

[0021] According to another embodiment, a necklace includes: a plurality of beads; a wire passing through the beads; each bead including at least one decorative bead; each bead including a microphone bead; each bead including a speaker bead; each bead including a call button bead; each bead including a volume up bead; each bead including a volume down bead; and a radio transceiver connected to the wire, the microphone bead, the speaker bead, the call button bead, the volume up bead, and the volume down bead.

[0022] Unless otherwise expressly indicated, the foregoing features and elements can be combined in various combinations without exclusivity. These features and elements, and their operation, will become more apparent from the following description and accompanying drawings. However, it should be understood that the following description and drawings are intended to be illustrative and interpretative in nature, rather than restrictive. Attached Figure Description

[0023] Figure 1 A neck strap with embedded wires and a strap body is shown.

[0024] Figure 2 A neckband with an embedded microphone, speaker, and wires is shown.

[0025] Figure 3 A neckband with embedded controls and wires for user interaction is shown.

[0026] Figure 4 A neckband with embedded wires, a jack, and an earphone attachment is shown.

[0027] Figure 5A This is a front view of a neckband with embedded wires and a bus interface.

[0028] Figure 5B This is a rear view of a neckband with embedded wires and a bus interface.

[0029] Figure 5C This is a side view of a neckband with embedded wires and a bus interface.

[0030] Figure 6 This is a front view of a neckband with embedded wires and a communication module.

[0031] Figure 7 This is a rear view of a neckband with embedded wires and a communication module.

[0032] Figure 8A This is a front view of a neckband with a radio transceiver and embedded control components.

[0033] Figure 8B This is a rear view of the neckband, which features a radio transceiver and embedded control components.

[0034] Figure 8C This is a side view of a neckband with a radio transceiver and embedded control components.

[0035] Figure 9 A neckband with a radio transceiver and embedded control components is shown.

[0036] Figure 10 A neckband with an integrated microphone, speaker, and call button is shown.

[0037] Figure 11 A neckband with an integrated microphone, speaker, and call button is shown.

[0038] Figure 12 The volume control interface for the neckband is shown.

[0039] Figure 13 The interface for the call button on the neckband is shown.

[0040] Figure 14 The neckband features several push-button controls for user interaction.

[0041] Figure 15A This is a rear view of the neckband with the battery module.

[0042] Figure 15B This is a rear view of the neck strap with a replacement battery.

[0043] Figure 16 A necklace with integrated control and communication components is shown. Detailed Implementation

[0044] Figure 1A neckband with a strap 102 and embedded wires 104 is depicted. The strap 102 serves as the basic element of the neckband and is designed to be comfortably worn around the neck. The strap 102 is constructed from a material such as fabric or nylon, providing a durable and flexible base for embedded electronic components. The strap 102 is seamlessly integrated with other components, thereby ensuring that the neckband maintains its structural integrity while accommodating additional functions.

[0045] Conductors 104 are embedded within the band body 102 to provide connectivity for electronic components. These conductors 104 remain flexible, allowing the neckband to hang naturally around the user's neck. The conductors 104 can serve multiple functions, including acting as pathways for electrical signals and potentially as antennas. The integration of the conductors 104 within the band body 102 ensures that the neckband provides enhanced technological capabilities without being obtrusive.

[0046] Figure 2 A neckband with an embedded microphone, speaker, and wiring is shown. Microphone 106 is embedded in the band body 102 and positioned to efficiently capture audio input. Microphone 106 enables voice communication and interaction with other devices. By being strategically placed, microphone 106 ensures optimal audio capture, thereby facilitating clear communication for the user.

[0047] A speaker 108 is also embedded within the band 102 and positioned close to the user's ear to deliver audio output. The speaker 108 works in conjunction with the microphone 106 to provide a comprehensive audio communication system. The speaker 108 ensures that the audio output is clear and easy for the user to hear, thereby enhancing the overall functionality of the neckband. Both the microphone 106 and the speaker 108 are connected to wires 104 embedded in the band 102. Sensors such as temperature sensors, light sensors, humidity sensors, etc., can be integrated into the neckband.

[0048] Figure 3 A neckband with embedded controls and wires for user interaction is shown. A volume up control 110 is embedded within the band body 102, allowing the user to increase the audio output level. This control is strategically positioned for easy access, enabling the user to adjust the volume without removing the neckband. The volume up control 110 interfaces with the speaker 108 and other audio components, ensuring seamless audio management.

[0049] Similar to the volume up 110, the volume down 112 control is embedded within the tape body 102. This control allows the user to reduce the audio output level, thereby providing a balanced audio experience. The volume down 112 control works in conjunction with the volume up 110 control to provide comprehensive audio control capabilities.

[0050] A power on / off control 114 is integrated into the neckband body 102, providing the user with the ability to activate or deactivate the neckband's electronics. This control manages power consumption and ensures the neckband operates only when needed. The power on / off control 114 is integrated with the battery module 142. Figure 7 It can interface with other power-related components to promote efficient energy management.

[0051] Figure 4 A neckband with embedded wires, a jack, and a headphone attachment is shown. The jack 120, embedded in the band body 102, is designed to accommodate the headphone attachment. This jack 120 (e.g., 3.5 mm) allows the user to connect an external audio device, such as headphones, to the neckband. The jack 120 may have push-button connector features to ensure a secure fit with the neckband material. The placement of the jack 120 within the band body 102 provides easy access for the user, thereby enhancing the neckband's functionality as an audio interface.

[0052] Headphones 122 connect to jack 120, enabling audio output from the neckband. Headphones 122 promote a private listening experience by allowing the user to receive audio signals transmitted through the embedded components of the neckband. The design of headphones 122 ensures compatibility with jack 120, providing a seamless audio connection.

[0053] A cord organizer 124 is integrated into the neckband body 102, providing a mechanism for managing the headphone cable. The cord organizer 124 ensures the cable remains neatly stored when not in use, preventing tangles and enhancing the overall aesthetics of the neckband. The inclusion of the cord organizer 124 within the neckband body 102 contributes to the user-friendly design of the neckband, promoting convenience and ease of use.

[0054] Figures 5A to 5C A neck strap with embedded wires and a bus interface is shown. The bus interface 134 is formed by a front substrate 130 and a rear substrate 132. The front substrate 130 is fixed to the strap body 102, thereby providing a secure platform for additional components. The front substrate 130 incorporates the bus interface 134, which enables connection to the embedded wires 104 to support interface functionality. This configuration allows for seamless integration of various modules and devices. Modules such as communication modules or battery modules can be electrically connected to the bus interface 134 on the front substrate 130.

[0055] Rear substrate 132 ( Figure 5B The rear substrate 132 complements the front substrate 130 by providing additional support and connection options. It also features a bus interface 134, ensuring a consistent communication path between components. This dual-substrate setup allows for a balanced distribution of electronic components. Modules, such as communication modules or battery modules, can be electrically connected to the bus interface 134 on the front substrate 130.

[0056] like Figure 5C As shown, the front substrate 130 and the rear substrate 132 sandwich the tape 102 in the middle and establish an electrical connection with the conductor 104. The front substrate 130 and the rear substrate 132 may include contacts for electrical connection with the conductor 104. The contacts on the front substrate 130 and the rear substrate 132 may be connected to the conductor 104 on the surface of the tape 102, or inserted into the fabric of the tape 102 to make electrical contact with the conductor 104.

[0057] Figure 6 This is a front view of a neckband with embedded wires and a communication module 140. The communication module 140 communicates via a bus interface 134. Figures 5A to 5C The communication module 140 is connected to wire 104. This bus interface houses a series of modules that seamlessly integrate hardware and software to create a comprehensive system. These modules can be standard off-the-shelf devices. The communication module 140 can include technologies such as Bluetooth or NFC, enabling interaction with external devices similar to smartphones or other smart systems. The communication module 140 can function in various ways, including walkie-talkie systems, tour guide systems, GPS with eSIM for location tracking, and NFC for access control in environments such as buses, trains, museums, parks, and theaters. The communication module 140 can facilitate functions such as voice calls, data exchange, and location tracking. The integration of the communication module 140 within the belt body 102 ensures that the system remains compact and user-friendly.

[0058] Figure 7 This is a rear view of the neckband with embedded wires and a communication module 140. The battery module 142 is connected via a bus interface 134. Figures 5A to 5C A battery module 142 is mounted on the neckband to provide power to the communication module 140 and other components. The battery module 142 is positioned on the band body 102 to ensure the neckband remains operational over extended periods. The battery module 142 is designed to accommodate various battery capacities, allowing users to select a battery that meets their specific needs. The modular nature of the battery module 142 enables easy replacement, ensuring uninterrupted functionality. The battery module 142 also incorporates power management features to optimize energy consumption and extend battery life.

[0059] Figures 8A to 8C A neckband with a radio transceiver 220 and embedded control components is shown. The radio transceiver 220 may be a wireless audio module (e.g., a Bluetooth speaker). The radio transceiver 220 may be an off-the-shelf module for interacting with a mobile phone. Figure 8AAs shown, a microphone 106, positioned within the band 102, captures audio input from the user. The microphone 106 interfaces with a radio transceiver 220 to facilitate voice communication. The strategic placement of the microphone 106 ensures optimal audio capture, thereby enhancing the clarity and quality of the transmitted sound.

[0060] A speaker 108 is embedded next to a microphone 106 to provide audio output to the user. The speaker 108 works in conjunction with a radio transceiver 220 to deliver incoming audio signals. The proximity of the speaker 108 to the user's ear ensures efficient sound delivery, thereby supporting hands-free communication.

[0061] The call button 210 is integrated into the band 102, allowing the user to initiate or answer voice calls. The call button 210 interfaces with the radio transceiver 220, enabling seamless call management. The design of the call button 210 ensures easy access, allowing the user to operate the device without interference.

[0062] Volume up 212 and volume down 214 controls are integrated into the tape body 102 to adjust the audio level. These controls interact with speaker 108 to modify the output volume according to user preferences. The placement of the volume controls ensures intuitive operation, thereby enhancing user convenience.

[0063] The power switch 216 provides the user with the ability to activate or deactivate the device. The power switch 216 interfaces with the battery module 142 to control the power supply to the electronic components. The design of the power switch 216 ensures simple and intuitive operation.

[0064] Radio transceiver 220 communicates via bus interface 134 ( Figures 5A to 5C A radio transceiver 220 is connected to a tape 102 to facilitate wireless communication by transmitting and receiving radio signals. The radio transceiver 220 interfaces with a microphone 106, a speaker 108, and a call button 210 to support voice communication. The integration of the radio transceiver 220 enhances the device's connectivity, enabling interaction with external devices.

[0065] Battery module 142 ( Figure 8B ) via bus interface 134 ( Figures 5A to 5C A battery module 142 is connected to the belt 102 to power the electronic components. The battery module 142 interfaces with a power switch 216 to manage power distribution. The design of the battery module 142 allows for efficient energy storage and delivery, ensuring continuous operation of the device. Figure 8C As shown, the radio transceiver 220 and battery module 142 can be mounted on the substrate, as per reference. Figures 5A to 5C As described.

[0066] Figure 9 A neckband with a radio transceiver and embedded control components is shown. The radio transceiver 220 is connected via bus interface 134 (…). Figures 5A to 5C The transceiver 220 is connected to the belt 102 and interacts with external devices (such as mobile phones) via a wireless protocol similar to Bluetooth. The transceiver 220 supports features such as hands-free calling and audio streaming, enhancing the system's usability in various applications.

[0067] Control area 230 spans a significant portion of belt body 102, providing an interface for user interaction. Control area 230 incorporates touch-sensitive controls, allowing users to manage functions such as call handling and volume adjustment without diverting their attention from primary tasks. Control area 230 is designed for intuitive use, featuring distinct sections for different controls to ensure easy access and operation. Control area 230 can be highlighted using different colors. Users can easily interact with control area 230 without needing to take their attention away from their primary tasks, such as driving.

[0068] Figure 10 A neckband with a radio transceiver 220 featuring an integrated microphone 106, speaker 108, and call button 210 is shown. The microphone 106, speaker 108, and call button 210 are part of a control area 230. The control area 230 is strategically designed to maximize user convenience. The control area 230 may include a touch-sensitive interface that covers a substantial portion of the neckband's surface. This control area 230 allows a user to make outgoing calls or answer incoming calls by simply touching any part of the control area where the call button 210 is located.

[0069] Figure 11 A neckband with a radio transceiver 220 featuring an integrated microphone 106, speaker 108, and talk button 210 is shown. Volume up 212 and volume down 214 controls are embedded within the neckband 102, allowing the user to adjust audio levels. The large volume control area is thoughtfully divided into distinct up and down sections, each marked with a unique color for quick identification. These controls interface with the speaker 108 to modify sound output, providing a customizable audio experience. The volume controls are designed for intuitive use, marked with distinct colors or textures for quick identification. To further enhance usability, the controls can be assigned different areas and colors based on their function.

[0070] At the center of the neck strap is a compact power on / off switch 216. The user can activate or deactivate the device during less busy periods, such as when starting or ending a trip. The power on / off switch 216 is integrated into the strap body 102, allowing the user to activate or deactivate the electronic components. The power on / off switch 216 is connected to the battery module 142, thereby controlling the power supply to the system. The switch is positioned for easy access, allowing the user to manage power efficiently.

[0071] via bus interface 134 ( Figures 5A to 5C A radio transceiver 220 connected to the band 102 facilitates wireless communication. The radio transceiver 220 is connected to a microphone 106, a speaker 108, and a call button 210, enabling the transmission and reception of audio signals. The radio transceiver 220 supports various wireless protocols, such as Bluetooth, to interact with external devices, thus providing a versatile communication platform.

[0072] Figure 12 A volume control interface for the neckband is shown. The volume up button 212 forms part of the control interface within the smart neckband system. The volume up button 212 is strategically positioned for user accessibility, allowing the user to increase the audio output level. Button 212 is seamlessly integrated with the neckband's electronics, ensuring consistent communication with the audio processing unit. The design of the volume up button 212 may include haptic feedback to enhance user interaction, providing a responsive experience when adjusting the volume level.

[0073] The volume down button 214 complements the volume up button 212 by allowing the user to reduce the audio output level. Similar to the volume up button 212, the volume down button 214 is positioned for easy access and is integrated with the neckband's electronic system. The volume down button 214 may also have haptic feedback features, ensuring that the user can confidently adjust audio settings without visual confirmation. The interaction between the volume down button 214 and the audio processing unit ensures precise control of the sound level.

[0074] Figure 13 A call button interface for the neckband is shown. The call button 210 serves as a multi-functional control element within the smart neckband. The call button 210 allows the user to initiate or answer voice calls, thus providing a hands-free communication solution. The call button 210 is positioned for optimal accessibility and interfaces with a wireless communication module, enabling seamless interaction with connected devices. The call button 210 may include various tactile or visual indicators to confirm call actions, thereby enhancing user confidence during operation.

[0075] Figure 14Multiple push-buttons for user interaction are shown on the neckband. One or more of the volume up button 212, volume down button 214, and call button 210 can be implemented using multiple push-buttons 240. The multiple push-buttons 240 are arranged along an axis to form an extended control area on the neckband. These buttons 240 facilitate user interaction by providing a large, accessible interface for various control functions. The design of the multiple push-buttons 240 allows for customization in size and layout to accommodate different user preferences. The number of individual buttons 240 can be adjusted to customize the size of the control area to suit various user preferences and needs. Each button within the array operates independently but collectively contributes to a cohesive control experience, ensuring that users can easily manage device functions without interference.

[0076] Figure 15A This is a rear view of the neckband with battery module 142, and Figure 15B This is a rear view of the neckband with a replacement battery 148. The battery module 142 is a component that provides power to electronic components embedded within the band body 102. The battery module 142 is strategically positioned within the neckband to ensure uninterrupted functionality of the neckband's features. The design of the battery module 142 allows for easy replacement and maintenance, thus accommodating various battery capacities to meet user requirements. The battery module 142 interacts with wires 104 to distribute power among the components of the neckband.

[0077] Battery connector 143 facilitates the connection between battery module 142 and embedded electronic components. Battery connector 143 ensures a safe and reliable power supply, enabling seamless operation of the neckband's features. Battery connector 143 is designed to accommodate different battery types, providing flexibility in power management and ensuring compatibility with various battery configurations. Battery module 142 and battery connector 143 can be mounted to a substrate, as referenced. Figures 5A to 5C As described.

[0078] The replacement battery 148 provides users with an option to extend the operating life of the neckband. The design of the replacement battery 148 allows for easy installation into the battery module 142, ensuring the neckband remains functional without interruption. The replacement battery 148 is compatible with the battery connector 143.

[0079] Figure 16A necklace with integrated control and communication components is shown. The necklace comprises multiple beads, some purely decorative and others providing functionality. A radio transceiver 320 (e.g., a Bluetooth transceiver) serves as a central communication hub for the necklace. The radio transceiver 320 facilitates wireless communication by transmitting and receiving signals. The radio transceiver 320 interacts with other components, such as a microphone bead 326 and a speaker bead 328, to enable seamless audio communication. The radio transceiver 320 can be implemented using various wireless technologies, including Bluetooth, to ensure compatibility with a wide range of devices. The radio transceiver 320 is connected to a wire 324 running through the beads.

[0080] The wire 324 is embedded within the necklace, providing connectivity between the radio transceiver 320 and other components. The wire 324 remains flexible, allowing the necklace to be worn comfortably around the neck. The wire 324 also functions as an antenna, enhancing the signal reception and transmission capabilities of the radio transceiver 320. The wire 324 connects to various beads, ensuring that each component receives the necessary power and data signals.

[0081] The microphone bead 326 of the necklace is positioned to capture audio input from a user. The microphone bead 326 is connected to a radio transceiver 320 via a wire 324, enabling the transmission of audio signals. The microphone bead 326 can be implemented using various microphone technologies, such as MEMS microphones, to ensure high-quality audio capture. The placement of the microphone bead 326 ensures that it remains close to the user's mouth, thereby facilitating clear communication.

[0082] The speaker bead 328 of this necklace is designed to deliver audio output to the user. The speaker bead 328 is connected to a radio transceiver 320 via a wire 324, allowing it to receive audio signals for playback. The speaker bead 328 can be implemented using miniaturized speaker technology to ensure compactness while delivering clear sound. Positioned close to the user's ear, the speaker bead 328 enhances the listening experience, making it suitable for various applications such as hands-free communication.

[0083] The necklace's call button bead 330 provides the user with control over call functions. The call button bead 330 connects to the radio transceiver 320, allowing the user to initiate or answer calls with a simple press. The call button bead 330 can be implemented using haptic or capacitive touch technology to ensure responsive interaction. Integrating the call button bead 330 into the necklace allows for intuitive use without distracting the user from other tasks.

[0084] The necklace's volume up bead 332 and volume down bead 334 allow the user to adjust the audio level. These beads connect to a radio transceiver 320, thus providing control over the output volume of the speaker bead 328. The volume up button 332 and volume down button 334 can be implemented using distinctly different tactile buttons or touch-sensitive areas. Their placement within the neckband ensures that the user can quickly and conveniently adjust the volume as needed.

[0085] The power bead 336 of the necklace serves as a control for powering on or off the system. The power bead 336 connects to the radio transceiver 320 and other components, thereby managing the power distribution of the entire system. The power bead 336 can be implemented using a simple push-button or touch-sensitive interface, providing the user with direct control over the power status of the device. A battery module (not shown) may be located on the rear side of the radio transceiver 320.

[0086] The embodiments of the present invention have many potential applications, including the following.

[0087] Education: Embodiments of the present invention enable teachers to efficiently manage young students, especially during activities such as school field trips. This capability extends to assisting the elderly in similar settings.

[0088] Travel Enhancement: In the tourism industry, embodiments of the present invention significantly improve the travel experience. Tour guides can easily broadcast information to tourists and quickly locate members who are separated from the group.

[0089] Healthcare Support: For medical professionals such as doctors and dentists, embodiments of the present invention become invaluable tools during busy times, freeing their hands for critical surgeries. In healthcare, these smart neckbands provide vital patient, event, and care team information via messaging, notifications, and calls.

[0090] Construction and Hazardous Environments: Using embodiments of the invention, construction workers gain enhanced communication capabilities, thereby facilitating interaction with colleagues and managers. Similarly, in hazardous environments such as mines, these devices enable efficient worker communication and emergency alerts.

[0091] Workplace Management: Employees and employers benefit from embodiments of the present invention in managing access and visitor interaction within the workplace.

[0092] Time efficiency: Because embodiments of the present invention reduce the time and resources that participants spend seeking meaningful interaction, events become more efficient.

[0093] Personnel tracking: Embodiments of the present invention serve as a smart personnel card, which is particularly valuable for tracking visitor movement within the facility.

[0094] Advanced security: Embodiments of the present invention are equipped with microcontrollers or embedded memory, typically in the form of contact pads. They play a critical role in personnel management and are an essential component of advanced security systems in buildings and spaces.

[0095] Social Activities: At parties and meetings, attendees wearing embodiments of the present invention benefit from seamless social opportunities as these smart neckbands facilitate communication among participants.

[0096] In summary, embodiments of the present invention represent a versatile electrical device with transformative potential across various industries. Its applications range from education and healthcare to construction, workplace management, events, safety, and social interaction. This innovative technology promises to redefine how individuals interact and communicate in diverse environments, ultimately enhancing the overall experience.

[0097] The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of this disclosure. As used herein, the singular forms “a,” “an,” and “the” are intended to include the plural forms as well, unless the context clearly indicates otherwise. It will also be further understood that the terms “comprising” and / or “including” as used in this specification designate the presence of stated features, integers, steps, operations, elements, and / or components, but do not exclude the presence or addition of one or more other features, integers, steps, operations, elements, components, and / or combinations thereof.

[0098] Those skilled in the art will recognize that various exemplary embodiments have been shown and described herein, each having certain features in specific embodiments, but this disclosure is not limited thereto. Rather, this disclosure can be modified to incorporate any number of variations, alterations, substitutions, combinations, sub-combinations, or equivalent arrangements not previously described but commensurate with the scope of this disclosure. Furthermore, while various embodiments of this disclosure have been described, it should be understood that aspects of this disclosure may include only some of the described embodiments. Therefore, this disclosure should not be considered limited to the foregoing description, but only to the scope of the appended claims.

Claims

1. A neck strap, the neck strap comprising: Band body; as well as At least one electronic component embedded in the tape.

2. The neckband according to claim 1, wherein, At least one electronic component embedded in the tape body includes a wire.

3. The neck strap according to claim 1, wherein, At least one electronic component embedded in the tape includes a microphone and a speaker.

4. The neck strap according to claim 1, wherein, At least one electronic component embedded in the tape body includes a control button.

5. The neck strap according to claim 4, wherein, The control buttons include volume up, volume down, and power on / off.

6. The neckband according to claim 1, wherein, At least one electronic component embedded in the tape body includes a connector for an earphone attachment.

7. The neck strap according to claim 1, further comprising: At least one substrate, the at least one substrate providing a bus interface for at least one electronic component embedded in the tape.

8. The neck strap according to claim 1, further comprising: A battery that provides power to at least one electronic component embedded in the belt.

9. The neck strap according to claim 7, further comprising: Modules connected to the bus interface.

10. The neck strap according to claim 8, wherein, The module in question is a wireless speakerphone module.

11. The neckband according to claim 10, wherein, At least one electronic component embedded in the tape body includes a call button for making or receiving voice calls.

12. The neckband according to claim 2, wherein, The wire provides antenna functionality.

13. The neck strap according to claim 1, wherein, At least one electronic component embedded in the tape body includes a connector for an earphone attachment.

14. The neck strap according to claim 7, further comprising: A radio transceiver module connected to the bus interface.

15. The neck strap according to claim 14, wherein, At least one electronic component embedded in the tape includes a call button for making or receiving voice calls via the radio transceiver module.

16. A neck strap, the neck strap comprising: A strap, configured to be worn around a user's neck, includes embedded metal wires for providing flexibility and acting as an antenna; A plurality of embedded devices positioned on the strip, the devices including a speaker and a microphone; The neckband features integrated controls for power and audio volume adjustment. The neckband has an earphone jack and an earphone cord organizer. A base plate fixed to the neckband, the base plate having a bus interface for connecting to the embedded wires; A communication module positioned on the substrate; A battery module positioned on the substrate.

17. A necklace, the necklace comprising: Multiple beads; The wire passing through the bead; The bead body includes at least one decorative bead body; The bead body includes a microphone bead body; The bead body includes a speaker bead body; The bead body includes a call button bead body; The bead body includes a volume-enhancing bead body; The bead body includes a volume-reducing bead body; as well as A radio transceiver connected to the wire, the microphone bead, the speaker bead, the call button bead, the volume up bead, and the volume down bead.

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