Abstract: Disclosed in embodiments of the present disclosure are a communication terminal, a communication system and an audio information processing method, the communication terminal includes a sound reception assembly and a basic communication module, wherein the basic communication module of the communication terminal receives second pickup audio information in a wireless manner, such that the communication terminal acquires returned audio information according to first pickup audio information generated by the communication terminal and the received second pickup audio information, and transmits outwards the returned audio information. Therefore, the technical solution in the embodiments of the present disclosure may realize synchronous sound reception of a plurality of wireless sound reception apparatuses or wireless sound reception components, and may satisfy a requirement for multiple people to use, thereby achieving a good sound reception effect.

Abstract: A speaker is provided and includes a first speaker body, a second speaker body, a speaker component, and a sound transmission member. The first speaker body has a first chamber. The second speaker body has a second chamber. The second speaker body is received in the first chamber and defines a resonant cavity in the first chamber. The speaker component is disposed on the second speaker body and includes a supporting member, a magnet, a coil, and a diaphragm. Two ends of the supporting member are respectively inserted into the second chamber and fixed on the second speaker body. The magnet is disposed in the supporting member. The diaphragm is disposed on the supporting member and abuts against the second speaker body. The coil is received in the magnet and is connected to the diaphragm. The sound transmission member is coaxially disposed in the resonant cavity with the speaker component.

Abstract: An information handling system headset has an earcup that rotationally couples a microphone boom at one end of a cavity to rotate between an extended position with a member of the microphone boom in straight form and a retracted position with the member bent to fit in the cavity and substantially conform with the earcup periphery. The microphone boom member rotates between first and second stops disposed proximate the hinge and bend when pushed against the first stop to fit in the cavity. The microphone boom can fully insert into the cavity to have a flush outer periphery at the earcup or can partially extend out of the cavity at the terminating end where the microphone couples to the member.

Abstract: A headphone and a headphone status detection method are provided. A signal processor of the headphone transmits a plurality of code messages to a first audio playback unit, so that the first audio playback unit plays a plurality of first audio signals with different frequencies corresponding to the code messages according to a playback sequence. The signal processor obtains a plurality of first time points at which a first audio receiving unit receives the first audio signals that are reflected for the first time. The signal processor determines a wear status of the headphone according to the plurality of first time points.

Abstract: A speaker is provided and includes a first speaker body, a second speaker body, a speaker component, and a sound transmission member. The first speaker body has a first chamber. The second speaker body has a second chamber. The second speaker body is received in the first chamber and defines a resonant cavity in the first chamber. The speaker component is disposed on the second speaker body and includes a supporting member, a magnet, a coil, and a diaphragm. Two ends of the supporting member are respectively inserted into the second chamber and fixed on the second speaker body. The magnet is disposed in the supporting member. The diaphragm is disposed on the supporting member and abuts against the second speaker body. The coil is received in the magnet and is connected to the diaphragm. The sound transmission member is coaxially disposed in the resonant cavity with the speaker component.

Abstract: Disclosed in embodiments of the present disclosure are a communication terminal, a communication system and an audio information processing method, the communication terminal includes a sound reception assembly and a basic communication module, wherein the basic communication module of the communication terminal receives second pickup audio information in a wireless manner, such that the communication terminal acquires returned audio information according to first pickup audio information generated by the communication terminal and the received second pickup audio information, and transmits outwards the returned audio information. Therefore, the technical solution in the embodiments of the present disclosure may realize synchronous sound reception of a plurality of wireless sound reception apparatuses or wireless sound reception components, and may satisfy a requirement for multiple people to use, thereby achieving a good sound reception effect.

Abstract: A headphone and a headphone status detection method are provided. A signal processor of the headphone transmits a plurality of code messages to a first audio playback unit, so that the first audio playback unit plays a plurality of first audio signals with different frequencies corresponding to the code messages according to a playback sequence. The signal processor obtains a plurality of first time points at which a first audio receiving unit receives the first audio signals that are reflected for the first time. The signal processor determines a wear status of the headphone according to the plurality of first time points.

Abstract: A probe combination for detecting cancer includes one or more sets of partial hepatitis B virus (HBV) targeting probes. When sequences of each of the sets of partial HBV targeting probes are aligned, an overall sequence of the aligned set of probes matches a reference sequence of a genome of a HBV genotype or a direct repeat (DR) region on the genome. In the aligned set of probes, each of the probes overlap with one or two adjacent probes by a portion of a length of the probe. The probe combination may further includes one or more sets of hotspot gene targeting probes targeting cancer hotspot genes such as CTNNB1, TERT, and TP53 genes, one or more sets of exogenous gene targeting probes targeting portions of a lambda phage genome, and endogenous gene targeting probes targeting endogenous genes such as GAPDH and GdX genes.

Abstract: A sound-receiving device includes a housing, a connecting cavity, a sound-receiving assembly, and a signal processing circuit. An outer surface of the housing is provided with a first sound-receiving hole and a second sound-receiving hole. The connecting cavity is provided in an internal space of the housing. The connecting cavity includes a connecting channel. A first hole and a second hole are respectively provided at two ends of the connecting channel. The first hole is connected to the first sound-receiving hole, and the second hole is connected to the second sound-receiving hole. The sound-receiving assembly includes a first sound-receiving diaphragm and a second sound-receiving diaphragm. The sound-receiving assembly is disposed between the first hole and the first sound-receiving hole. The signal processing circuit is electrically connected to the sound-receiving assembly. The signal processing circuit generates an output result according to the first sound and the second sound.

Abstract: A thin loudspeaker device includes a housing, a battery, and a loudspeaker module. The battery and the loudspeaker module are located in the housing. The loudspeaker module includes an inner shell, two loudspeaker units, and a block wall. The two loudspeaker units are located in the inner shell. The two loudspeaker units are electrically connected to the battery. The block wall is located between the two loudspeaker units. The inner shell and the block wall jointly form two chambers and a channel. The channel is communicated with the two chambers. The two loudspeaker units are respectively located in the two chambers.

Abstract: A thin loudspeaker device includes a housing, a battery, and a loudspeaker module. The battery and the loudspeaker module are located in the housing. The loudspeaker module includes an inner shell, two loudspeaker units, and a block wall. The two loudspeaker units are located in the inner shell. The two loudspeaker units are electrically connected to the battery. The block wall is located between the two loudspeaker units. The inner shell and the block wall jointly form two chambers and a channel. The channel is communicated with the two chambers. The two loudspeaker units are respectively located in the two chambers.

Abstract: A probe combination for detecting cancer includes one or more sets of partial hepatitis B virus (HBV) targeting probes. When sequences of each of the sets of partial HBV targeting probes are aligned, an overall sequence of the aligned set of probes matches a reference sequence of a genome of a HBV genotype or a direct repeat (DR) region on the genome. In the aligned set of probes, each of the probes overlap with one or two adjacent probes by a portion of a length of the probe. The probe combination may further includes one or more sets of hotspot gene targeting probes targeting cancer hotspot genes such as CTNNB1, TERT, and TP53 genes, one or more sets of exogenous gene targeting probes targeting portions of a lambda phage genome, and endogenous gene targeting probes targeting endogenous genes such as GAPDH and GdX genes.

Abstract: An electronic device and a corresponding method for analyzing and playing sound signals are provided. The electronic device includes a microphone, a processor, and a speaker. The microphone receives a sound and generates a sound signal according to the sound. The processor is coupled to the microphone for analyzing the sound signal to obtain an analysis parameter, determining a dynamic range parameter according to the analysis parameter, and adjusting the sound signal according to the dynamic range parameter. The speaker is coupled to the processor for playing the adjusted sound signal.

Abstract: An electronic device and a corresponding method for analyzing and playing sound signals are provided. The electronic device includes a microphone, a processor, and a speaker. The microphone receives a sound and generates a sound signal according to the sound. The processor is coupled to the microphone for analyzing the sound signal to obtain an analysis parameter, determining a dynamic range parameter according to the analysis parameter, and adjusting the sound signal according to the dynamic range parameter. The speaker is coupled to the processor for playing the adjusted sound signal.

Abstract: A hedge trimmer includes a motor, a transmission mechanism, a main handle, a front handle, a switch and a cutter mechanism. The motor drives the cutter mechanism through the transmission mechanism. The main handle is provided at a rear of the hedge trimmer and the front handle is provided at a front of the hedge trimmer, and the front handle may be turned for a predetermined angle. The main handle and the front handle are provided with a main switch and an auxiliary switch at inner sides thereof respectively. The auxiliary switch is connected to a microswitch through a soft shaft or controls a switch, which is serially connected to the main switch, direction.