A custom-fit in-ear-monitor (IEM) is provided that utilizes a plurality of drivers and a single piece driver module that significantly simplifies fabrication while insuring that the completed IEM achieves the desired acoustic performance. The driver module, which is fit within a custom-fit ear mold shell, includes a plurality of driver ports to which the drivers are coupled. The driver module also includes an acoustic output member that includes one or more sound bores that acoustically couple the acoustic output surface of the custom-fit ear mold shell to the plurality of driver ports via a plurality of sound ducts within the driver module.

A custom-fit in-ear-monitor (IEM) is provided that utilizes a plurality of drivers and a single piece driver module that significantly simplifies fabrication while insuring that the completed IEM achieves the desired acoustic performance. The driver module, which is fit within a custom-fit ear mold shell, includes a plurality of driver ports to which the drivers are coupled. The driver module also includes an acoustic output member that includes one or more sound bores that acoustically couple the acoustic output surface of the custom-fit ear mold shell to the plurality of driver ports via a plurality of sound ducts within the driver module.

This disclosure relates generally to electronic devices, and more particularly to headphone and headphone safety device for alerting user from impending hazard, and method thereof. In one embodiment, a method is provided for alerting a user wearing a headphone from an impending hazard. The method includes detecting a movement of the user while wearing the headphone, and upon detection, sensing a plurality of ambient parameters with respect to an external surrounding of the user. The method further includes analyzing the plurality of ambient parameters to determine the impending hazard, and upon determination, alerting the user of the impending hazard.

A hearing assistive system including a first hearing assistive device adapted for wireless communication with second hearing assistive device, wherein the first hearing assistive device and the second hearing assistive device have at least one sensor adapted for acquiring a physiological signal each. The first hearing assistive device is adapted for providing a synchronization signal to the second hearing assistive device and instructing the second hearing assistive device to acquire the physiological signal based on timing instructions. The second hearing assistive device is adapted for acquiring the physiological signal by means of the sensor according to the received timing instructions and transmitting the acquired physiological signal wirelessly to the first hearing assistive device. The first hearing assistive device includes a processor for processing the synchronized, physiological signals acquired by sensors of the first hearing assistive device and the second hearing assistive device and synchronized via wireless communication.

An earphone includes a housing that defines a force input surface opposite a touch input surface. A spring member in the housing includes a first arm that biases a touch sensor toward the touch input surface. The spring member also includes a second arm that biases a first force electrode toward the housing and allows the first force electrode to move toward a second force electrode when a force is applied to the force input surface. A non-binary amount of the force is determinable using a change in a mutual capacitance between the first force electrode and the second force electrode. The mutual capacitance between the first force electrode and the second force electrode may be measured upon detecting a touch using the touch sensor.

An earphone includes a housing that defines a force input surface opposite a touch input surface. A spring member in the housing includes a first arm that biases a touch sensor toward the touch input surface. The spring member also includes a second arm that biases a first force electrode toward the housing and allows the first force electrode to move toward a second force electrode when a force is applied to the force input surface. A non-binary amount of the force is determinable using a change in a mutual capacitance between the first force electrode and the second force electrode. The mutual capacitance between the first force electrode and the second force electrode may be measured upon detecting a touch using the touch sensor.

An earphone includes a housing that defines a force input surface opposite a touch input surface. A spring member in the housing includes a first arm that biases a touch sensor toward the touch input surface. The spring member also includes a second arm that biases a first force electrode toward the housing and allows the first force electrode to move toward a second force electrode when a force is applied to the force input surface. A non-binary amount of the force is determinable using a change in a mutual capacitance between the first force electrode and the second force electrode. The mutual capacitance between the first force electrode and the second force electrode may be measured upon detecting a touch using the touch sensor.

An earphone includes a housing that defines a force input surface opposite a touch input surface. A spring member in the housing includes a first arm that biases a touch sensor toward the touch input surface. The spring member also includes a second arm that biases a first force electrode toward the housing and allows the first force electrode to move toward a second force electrode when a force is applied to the force input surface. A non-binary amount of the force is determinable using a change in a mutual capacitance between the first force electrode and the second force electrode. The mutual capacitance between the first force electrode and the second force electrode may be measured upon detecting a touch using the touch sensor.

The invention is directed to a novel probes arrangement configured to be attached to a receiving unit of a device under charge positioned onto or within a conductive charging structure having a transmitting unit for transmitting RF energy, wherein said probes arrangement comprises at least two probes configured to create a closed electromagnetic field lines between them so as to allow improved coupling between said transmitting unit and said receiving unit regardless of the position and/or the orientation of the device under charge relative to the conductive charging structure. The improved coupling between the receiving unit attached to the probes arrangement and the transmitting unit of the conductive charging structure allows a high RF transfer efficiency between said units.

This disclosure relates generally to electronic devices, and more particularly to headphone and headphone safety device for alerting user from impending hazard, and method thereof. In one embodiment, a method is provided for alerting a user wearing a headphone from an impending hazard. The method includes detecting a movement of the user while wearing the headphone, and upon detection, sensing a plurality of ambient parameters with respect to an external surrounding of the user. The method further includes analyzing the plurality of ambient parameters to determine the impending hazard, and upon determination, alerting the user of the impending hazard.