Abstract: The present disclosure provides an electronic apparatus (1000, 2000, 4000), including a housing. One end of the housing is provided with an accommodating cavity (1200, 2100, 4100). A sound guide assembly is provided in the accommodating cavity. The sound guide assembly includes a sound box (1300, 2200, 4200) and a sound guide device (2300, 4300). The sound guide device includes a sound receiving portion (2310) and a sound guide body (2320). The sound receiving portion is connected with the sound box. The sound guide body is configured to lead out a sound. An end surface (2312) of the sound receiving portion includes a sound inlet (2311, 4311). A tail end of the sound guide body deviating from the sound receiving portion includes a sound outlet (2321, 4321). A vertical height of a tail end of the sound guide body is smaller than that of the sound receiving portion.

Abstract: A touch frame assembly and an interactive white board are provided. The touch frame assembly includes: an infrared touch frame, including a frame body and a PCB assembly arranged in the frame body; a glass cover plate, located on an inner side of the PCB assembly; a fixing structure configured to fix the glass cover plate to the infrared touch frame, wherein the glass cover plate controls an inward concave of the glass cover plate through a curvature of the frame and/or the fixing structure.

Abstract: The present disclosure provides an electronic apparatus (1000, 2000, 4000), including a housing. One end of the housing is provided with an accommodating cavity (1200, 2100, 4100). A sound guide assembly is provided in the accommodating cavity. The sound guide assembly includes a sound box (1300, 2200, 4200) and a sound guide device (2300, 4300). The sound guide device includes a sound receiving portion (2310) and a sound guide body (2320). The sound receiving portion is connected with the sound box. The sound guide body is configured to lead out a sound. An end surface (2312) of the sound receiving portion includes a sound inlet (2311, 4311). A tail end of the sound guide body deviating from the sound receiving portion includes a sound outlet (2321, 4321). A vertical height of a tail end of the sound guide body is smaller than that of the sound receiving portion.

Abstract: A device includes a loudspeaker body, a loudspeaker fastener structure, and a loudspeaker shock absorption structure, in which the loudspeaker absorption structure further comprises a first elastomer, a second elastomer, and a bridging beam, wherein the bridging beam is made of an elastic material, and the first elastomer is connected to the second elastomer by the bridging beam.

Abstract: A device includes a loudspeaker body, a loudspeaker fastener structure, and a loudspeaker shock absorption structure, in which the loudspeaker absorption structure further comprises a first elastomer, a second elastomer, and a bridging beam, wherein the bridging beam is made of an elastic material, and the first elastomer is connected to the second elastomer by the bridging beam.

Abstract: The present utility model relates to a loudspeaker, in particular to a loudspeaker and a loudspeaker shock absorption structure, which comprise a first elastomer for connecting with a loudspeaker body and a second elastomer for connecting with a loudspeaker fastener structure, the first elastomer and the second elastomer are connected by a cantilever, the cantilever is made of an elastic material. The present utility model forms a non-coaxial connection structure between the loudspeaker body and the loudspeaker fastener structure by setting a cantilever, so that a force produced by a vibration of the loudspeaker body cannot be directly transmitted to the loudspeaker fastener structure. Instead, the force is acted on the fastener structure in the form of a small force after being weakened by buffering and filtering via the cantilever, thereby greatly reducing a machine vibration caused by a large amplitude of the loudspeaker.

Abstract: A device includes a loudspeaker body, a loudspeaker fastener structure, and a loudspeaker shock absorption structure, the loudspeaker absorption structure including a first elastomer, a second elastomer, and a bridging beam, wherein the first elastomer is connected to the second elastomer by the bridging beam, the first elastomer is connected with the loudspeaker body, the first elastomer is configured with an annular groove, the loudspeaker body is configured with a snap ring matching the annular groove, and the snap ring is clamped with the annular groove, wherein the second elastomer is connected with the loudspeaker fastener structure, the second elastomer is configured with a through hole, the loudspeaker fastener structure is configured with a connecting post matching the through hole, and the connecting post passes through the through hole of the second elastomer, and wherein the bridging beam is configured with a first opening and a second opening.

Abstract: A device includes a loudspeaker body, a loudspeaker fastener structure, and a loudspeaker shock absorption structure, the loudspeaker absorption structure including a first elastomer, a second elastomer, and a bridging beam, wherein the first elastomer is connected to the second elastomer by the bridging beam, the first elastomer is connected with the loudspeaker body, the first elastomer is configured with an annular groove, the loudspeaker body is configured with a snap ring matching the annular groove, and the snap ring is clamped with the annular groove, wherein the second elastomer is connected with the loudspeaker fastener structure, the second elastomer is configured with a through hole, the loudspeaker fastener structure is configured with a connecting post matching the through hole, and the connecting post passes through the through hole of the second elastomer, and wherein the bridging beam is configured with a first opening and a second opening.

Abstract: The present utility model relates to a loudspeaker, in particular to a loudspeaker and a loudspeaker shock absorption structure, which comprise a first elastomer for connecting with a loudspeaker body and a second elastomer for connecting with a loudspeaker fastener structure, the first elastomer and the second elastomer are connected by a cantilever, the cantilever is made of an elastic material. The present utility model forms a non-coaxial connection structure between the loudspeaker body and the loudspeaker fastener structure by setting a cantilever, so that a force produced by a vibration of the loudspeaker body cannot be directly transmitted to the loudspeaker fastener structure. Instead, the force is acted on the fastener structure in the form of a small force after being weakened by buffering and filtering via the cantilever, thereby greatly reducing a machine vibration caused by a large amplitude of the loudspeaker.