49 results about "Soundscape" patented technology

Disclosed herein are systems and methods enabling hearing aid fitting by a non-expert consumer. The method in one embodiment involves delivering a sequence of test audio signals corresponding to natural sound segments to a non-acoustic input of a programmable hearing device in-situ, while allowing the consumer to adjust fitting parameters based perceptual assessment of hearing device output. The sound segments define a fitting soundscape within the normal human auditory range, with each sound segment corresponding to one or more fitting parameters of the programmable hearing device. The consumer is instructed to listen to the output of the in-situ hearing device and adjust controls related to corresponding fitting parameters. In one embodiment, the fitting system comprises a personal computer and a handheld device providing calibrated test audio signals and programming interface. The systems and methods allow home dispensing of hearing devices without requiring specialized instruments.

A method is provided for allocating bits for quantifying spatial information parameters by frequency sub-band for parametric encoding/decoding of a multichannel audio stream representative of a soundstage consisting of a plurality of sound sources. The method includes a step of quantifying or inversely quantifying, by frequency sub-band, spatial information parameters for the sound sources of the soundscape. The method further includes: assessing a spatial resolution of the current sub-band on the basis of the spectral properties of the sub-band; and determining a number of bits to be allocated to the current sub-band, the number of bits to be allocated being inversely proportional to the estimated spatial resolution. Also provided is a device for allocating quantification bits implementing the above-described method.

A system and method for processing multiple channel audio signals to create a realistic soundscape in a space largely independent of the number of loudspeakers and audio source channels is provided. The system includes an encoding system in the recording process and a decoding system in the local listening area.

Systems, methods and articles of manufacture for outputting an audio effect on a remote device are disclosed. Embodiments select a device from a plurality of devices within a physical environment for use in outputting an audio effect. Upon determining that transmitting the audio effect as uncompressed data to the selected device would violate a predefined performance criteria, the audio effect is modified by determining, for each of a plurality of portions of the audio effect, a respective priority. Additionally, upon determining that a first portion of the plurality of portions of the audio effect is a lower priority, relative to a second portion of the audio effect, embodiments compress the first portion of the audio effect, while the second portion of the audio effect remains uncompressed. The modified audio effect is then transmitted to the selected device for playback.

Methods and apparatuses for addressing open space noise are disclosed. In one example, a method for masking open space noise includes receiving a sensor data from a sensor arranged to monitor an open space over a time period. The method includes generating a predicted future noise parameter in the open space at a predicted future time from the sensor data. The method further includes adjusting a sound masking noise output from a loudspeaker prior to the predicted future time responsive to the predicted future noise parameter.

The invention relates to an interaction system and method for automatically generating a soundscape and lighting, which are adapted to an action of a viewer of displayed items, in order to attract the attention of the viewer to one or more of the displayed items, such as products presented in a shop or displayed in a shopping window. A basic idea of this invention is refining interactivity by triggering the generation of a lighting and soundscape upon detection of a certain viewer or user action and to adapt the generated lighting and soundscape to the viewer or user action. The invention provides in an embodiment an interaction system (10) comprising—at least one detector (12) being adapted to detect an action of at least one viewer (14) showing interest in displayed items (16) and—a controller (18) being adapted to control a light (20) and sound (22) system in response to information received from the at least one detector such that a soundscape and lighting adapted to the detected action is generated.

A method and system are provided for allowing a sound designer to design and implement interactive soundscapes based on existing waveform audio files, MIDI files, or audio streams. This is accomplished by using a set of tools consisting of an authoring tool for creating specifications of interactive soundscapes visually without having to write complex code, and a graph builder object that recreates the authored soundscape and interacts with it in real-time according to its specification. To give non-programmers the ability to specify and test how a soundscape will interact with programmatic events and user input in an application, the following tools are also provided: an interface to construct a “control panel;” a graphical “trigger-condition-action” specification that defines what actions to take when input from the control panel or application interface is received; a preview mode that enables the sound designer to interact with the soundscape in the same way that the application will; and the ability to save the soundscape as a file that can be edited or used at run-time to recreate the soundscape. Once the interface between the soundscape and the application has been agreed to, the tools allow the sound designer to work independently of the programmer of the media application.

The present disclosure is directed to systems (200), apparatus and methods utilizing the soundscape of the appliance (204) to generate content for a dynamic output. In various embodiments, the output generated by the apparatus is varied based on differences in the acoustic signal resulting from changes in the operating state of the appliance (204). By utilizing the soundscape of the appliance (204), a non-repetitive and pseudo-random, but still recognizable outputs associated with the appliance (204), can be generated based on the various operating states of the appliance (204). The user's operation of the appliance (204) may influence the acoustic signal received by the apparatus which may further influence the output produced by the appliance (204). The systems (200), apparatus and methods described herein employ a dynamic acoustic signal of an appliance (204) to provide a user with a dynamic output to engage the user in a manner that increases their interest in and attachment to the appliance (204).

Methods and apparatuses for addressing open space noise are disclosed. In one example, a method for masking open space noise includes receiving a plurality of mobile device microphone data from a plurality of mobile devices. A location data associated with each mobile device in the plurality of mobile devices is received. A plurality of stationary microphone data is received from a plurality of stationary microphones. A sound masking noise output is adjusted at one or more loudspeakers responsive to the plurality of mobile device microphone data and the plurality of stationary microphone data.

Methods and apparatuses for addressing open space noise are disclosed. In one example, a method for masking open space noise includes receiving a microphone output signal from a microphone, the microphone one of a plurality of microphones in an open space. The method includes detecting a presence of a noise source from the microphone output signal, and determining whether the noise source is capable of being masked with a noise masking sound. The method further includes increasing a volume of a noise masking sound output from a loudspeaker responsive to a determination that the noise source is capable of being masked, the loudspeaker located in a same geographic sub-unit of the open space as the microphone. The loudspeaker is one of a plurality of loudspeakers in the open space.

The invention relates to a biodiversity monitoring system with a frequency spectrum time-space interface. The system comprises a service layer, a data layer and a display layer, the service layer comprises a user system, a service system and an algorithm system, the service system acquires various biological audios on the island through an audio extraction device and provides a frequency spectrum time space interface for recording, positioning, analysis, annotation and classification, and the algorithm system serves as a background system to achieve corresponding functions through artificial intelligence audio recognition. The artificial intelligence audio identification comprises noise removal, multi-audio separation, automatic classification and single identification, the service system realizes biological audio acquisition, the audio extraction device is used for extracting a sound source and a direction, and the audio extraction device comprises a microphone array and a data processing device. The biodiversity monitoring system provides a complete framework based on ecological data analysis, with a feature mapping technology, an annotation tool is realized, extraction of necessary sound sources is facilitated, the classification time cost is reduced, understanding of sound scenes around a microphone array is facilitated, and understanding of biological sound production and behaviors in more detail is facilitated.

A machine implemented method for simulated sports training includes the steps displaying a simulated environment having one or more virtual objects of a sporting event; displaying to a user a moving object in the simulated environment in accordance with object path data representing an object path and conditions of motion of the moving object as a function of time; correlating soundscape data to the object path data, the soundscape data being dependent on both object path of the moving object in the object path and the conditions of motion; and outputting sound to the user based on the correlated soundscape data either before or during displaying to the user the moving object, thereby providing spatial auditory clues for assisting tracking eye movements of the user to train the user to anticipate or recognize a trajectory of the moving object.