Bone Conduction Headband Alarm for Silent Wake-Up
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Solution Overview
Problem
Current alarm systems and monitoring devices are inconvenient as they often require users to wear them, and existing silent alarms are not customizable to individual user settings, leading to ineffective wake-up methods for users, especially those who are hearing or visually impaired.
Innovation Solution
An alarm and monitoring system comprising a primary device and secondary devices that communicate wirelessly to generate customizable alarm signals, including auditory, visual, and haptic alerts, capable of controlling other devices such as lights and thermostats to wake users effectively, regardless of their impairments.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If audible alarms are used, then the alarm can be heard clearly, but it may wake up more than the intended user and is ineffective for hearing-impaired users
Solution Approach 1:
The alarm system transmits audio signals through bone conduction via the headband, creating a localized auditory pathway that bypasses the air conduction route. This allows the intended user to hear the alarm through bone vibrations while preventing sound waves from propagating through the air to disturb other sleepers in the same environment.
Solution Approach 2:
The headband acts as an intermediary device that converts audio signals into bone conduction vibrations. This intermediary mechanism transfers the alarm signal directly through the skull to the inner ear, eliminating the need for air-borne sound waves and thus preventing disturbance to others while maintaining effective alarm delivery.
2Object-affected harmful factors
If silent-type alarms are used, then other users are not disturbed, but the alarm must be worn on the wrist which is inconvenient
Solution Approach 1:
Instead of using the conventional wrist-worn approach for silent alarms, the system inverts the placement to a headband configuration. This inversion allows the alarm to remain contactless and non-intrusive like wrist alarms while providing superior comfort and ease of use through head placement, which is more natural and less restrictive than wrist wear.
Solution Approach 2:
The headband serves multiple functions: it acts as a contactless alarm holder, a bone conduction transducer, and a comfortable wearing device. This multi-functionality eliminates the need for wrist placement while maintaining the silent, non-disturbing characteristic, thereby improving ease of operation without sacrificing the benefit of not disturbing others.
3Loss of information
If monitoring systems are used, then user health parameters can be tracked, but the devices must be worn which causes inconvenience
Solution Approach 1:
The system inverts the conventional wearable monitoring approach by placing the monitoring device in a headband configuration rather than wrist-worn. This inversion maintains continuous health parameter tracking capability while significantly improving comfort and ease of use, as headband placement is more natural and less intrusive than wrist wear for prolonged periods.
4Adaptability or versatility
If customizable alarm signals are provided, then the alarm can be tailored to user needs, but the system complexity increases
Solution Approach 1:
The system pre-configures multiple alarm signal types (audible, visual, haptic) and delivery methods (bone conduction, air conduction, vibration patterns) in advance. Users can selectively activate pre-defined alarm profiles rather than configuring individual parameters, which maintains high adaptability while reducing system complexity and ease of use.
Data Source
AI summary
An alarm and monitoring system including a primary device and at least one secondary device, the alarm and monitoring system including at least one controller configured to: determine whether at least one alarm event is set; establish a wireless communication between a primary device and the secondary device, when it is determined that the alarm event has been set; transmit an alarm event signal including alarm information from the primary device to the secondary device in accordance with the alarm event that is determined to have been set; generate an alarm signal by the secondary device in accordance with at least the alarm information; and render the generated alarm signal on a rendering device. The controller being configured to generate and send an actuator control signal to an actuator to adjust a condition to a predetermined state.


