Abstract: A recommendation of at least one of multiple audio samples or sets of audio samples to combine with a particular audio sample or set of audio samples is automatically generated. The recommendation is generated by determining the rhythmic compatibility as well as the harmonic compatibility of the particular audio sample or set of samples with each of the multiple audio samples or sets of audio samples. For each of the multiple audio samples or sets of audio samples, a compatibility rating is generated based on the rhythmic compatibility and the harmonic compatibility of the audio sample or set of audio samples with the particular audio sample or set of audio samples. At least one of the multiple audio samples or sets of audio samples is presented by a computing device as a recommendation to combine with the particular audio sample or set of audio samples.

Abstract: A user selects an audio sample to be combined with a set of audio samples. The selected sample is automatically combined with the set of samples based on metadata corresponding to the sample and metadata corresponding to the set of samples. The rhythmic content (beat locations) of the sample and/or set of samples is automatically adjusted to increase rhythmic coherence of the sample and the set of samples, and a pitch of the sample and/or set of samples is automatically adjusted to increase harmonic coherence of the sample and the set of samples. The user is thus able to select a sample and a set of samples, and have one or both automatically adjusted so that the combination sounds good together both rhythmically and harmonically. Audio samples can be similarly combined with other audio samples, and sets of audio samples can be similarly combined with other sets of audio samples.

Abstract: Two audio samples and/or sets of audio samples are identified. The pitch distributions of the audio samples and/or sets of audio samples are identified, the pitch distribution of an audio sample or set of audio samples referring to how much of each of multiple pitches of notes is present in the audio sample or set of audio samples. Based on the pitch distributions of the audio samples and/or sets of audio samples, at least one pitch of one of the audio sample and/or set of audio samples can be automatically adjusted (but need not be, depending on the pitch distributions) to increase harmonic coherence of the audio samples and/or sets of audio samples.

Abstract: Two audio samples and/or sets of audio samples are identified. The pitch distributions of the audio samples and/or sets of audio samples are identified, the pitch distribution of an audio sample or set of audio samples referring to how much of each of multiple pitches of notes is present in the audio sample or set of audio samples. Based on the pitch distributions of the audio samples and/or sets of audio samples, at least one pitch of one of the audio sample and/or set of audio samples can be automatically adjusted (but need not be, depending on the pitch distributions) to increase harmonic coherence of the audio samples and/or sets of audio samples.

Abstract: A recommendation of at least one of multiple audio samples or sets of audio samples to combine with a particular audio sample or set of audio samples is automatically generated. The recommendation is generated by determining the rhythmic compatibility as well as the harmonic compatibility of the particular audio sample or set of samples with each of the multiple audio samples or sets of audio samples. For each of the multiple audio samples or sets of audio samples, a compatibility rating is generated based on the rhythmic compatibility and the harmonic compatibility of the audio sample or set of audio samples with the particular audio sample or set of audio samples. At least one of the multiple audio samples or sets of audio samples is presented by a computing device as a recommendation to combine with the particular audio sample or set of audio samples.

Abstract: A user selects an audio sample to be combined with a set of audio samples. The selected sample is automatically combined with the set of samples based on metadata corresponding to the sample and metadata corresponding to the set of samples. The rhythmic content (beat locations) of the sample and/or set of samples is automatically adjusted to increase rhythmic coherence of the sample and the set of samples, and a pitch of the sample and/or set of samples is automatically adjusted to increase harmonic coherence of the sample and the set of samples. The user is thus able to select a sample and a set of samples, and have one or both automatically adjusted so that the combination sounds good together both rhythmically and harmonically. Audio samples can be similarly combined with other audio samples, and sets of audio samples can be similarly combined with other sets of audio samples.

Abstract: Platforms and techniques for defining, authorizing/authenticating, distributing, and presenting dynamic device experiences using a number of hierarchically-related, declarative language data structures, such as extensible markup language (“XML”) elements or attributes. A dynamic device experience is presented when two electronic devices are in communication via a communication medium. The data structures are processed to present a graphical user interface to a user—the graphical user interface implements a dynamic device experience associated with the other electronic device. In one exemplary scenario, independent hardware vendors (“IHVs”) author XML documents that include device experience information (such as branding or advertising information, access to Web services or applications, and access to device functionality), in the form of items of data stored in the data structures.

Abstract: A volume control may be provided with some integrated graphical indication of the presence and/or level of an audio signal that it controls. For example, a slider-type volume control may be provided with a signal meter within the slider itself. A volume control may be provided with a mechanism for showing the non-mute volume control level of a volume when the volume control is muted. For example, a slider-type volume control may display a ghosted slider tab at the level of volume control in effect before muting while at the same time displaying a regular slider tab at a muted level. A user may be able to glance at a volume control and quickly and intuitively understand aspects of the volume control's state such as the level and condition of the signal that is flowing through or blocked by (if muted) the control.

Abstract: Platforms and techniques for defining, authorizing/authenticating, distributing, and presenting dynamic device experiences using a number of hierarchically-related, declarative language data structures, such as extensible markup language (“XML”) elements or attributes. A dynamic device experience is presented when two electronic devices are in communication via a communication medium. The data structures are processed to present a graphical user interface to a user—the graphical user interface implements a dynamic device experience associated with the other electronic device. In one exemplary scenario, independent hardware vendors (“IHVs”) author XML documents that include device experience information (such as branding or advertising information, access to Web services or applications, and access to device functionality), in the form of items of data stored in the data structures.