Abstract: A vibration speaker includes a top cover, a bottom cover, at least one transducer plate and at least one conductive connector. The top cover and the bottom cover define a space to accommodate the transducer plate and the conductive connector. Each transducer plate includes a conductive plate, a first smart material layer coated on a first surface of the conductive plate, and a first electrode layer formed on the first smart material layer. The conductive connector presses on the transducer plate, wherein an insulating layer is coated on an area between the first surface and the conductive connector but excluding the first electrode layer, such that the conductive connector electrically contacts the first electrode layer but is insulated from the conductive plate.

Abstract: A vibration speaker includes a top cover, a bottom cover, at least one transducer plate and at least one conductive connector. The top cover and the bottom cover define a space to accommodate the transducer plate and the conductive connector. Each transducer plate includes a conductive plate, a first smart material layer coated on a first surface of the conductive plate, and a first electrode layer formed on the first smart material layer. The conductive connector presses on the transducer plate, wherein an insulating layer is coated on an area between the first surface and the conductive connector but excluding the first electrode layer, such that the conductive connector electrically contacts the first electrode layer but is insulated from the conductive plate.

Abstract: The invention is directed to a securing apparatus for a vibration speaker, the securing apparatus including at least one fastening plate fixed to or pressed on the vibration speaker; and at least one suction cup correspondingly attached to the fastening plate. When the at least one suction cup is adhered to a vibration plate, the suction cup draws the fastening plate, which then presses on the vibration speaker, such that the bottom of the vibration speaker bonds with the vibration plate.

Abstract: The present invention is directed to a vibration speaker with a securing device. The vibration speaker includes a transducer, and a bottom having at least one groove. At least one fastening element corresponding to the at least one groove is capable of being inserted into the groove. The transducer is driven to generate vibration, which is then transferred to a vibration plate via the fastening element.

Abstract: The present invention is directed to a vibration speaker with a securing device. The vibration speaker includes at least one transducer. The vibration speaker is attached to a securing element, which includes a bottom plate, at least one lateral plate and at least one securing portion. A top surface of the bottom plate is in contact with a bottom surface of the vibration speaker; the lateral plate extends from an edge of the bottom plate, and is in contact with a side surface of the vibration speaker; and the securing portion fastens the vibration speaker.

Abstract: The present invention is directed to a haptic feedback module, which includes a vibration plate, and at least one first actuator that is disposed along a lateral surface of the circumference of the vibration plate. The vibration plate contacts with a top plate member. When the first actuator presses the vibration plate, the vibration energy of the vibration plate is transferred to the top plate member to result in haptic feedback.

Abstract: The present invention is directed to a transducer module, which includes at least two actuators with a same physical dimension. At least two support members correspond to the actuators, and are used to transfer inertial force to a vibration plate. The two support members are disposed between neighboring actuators, and between the actuator and the vibration plate, respectively.

Abstract: The present invention is directed to a method of generating three dimensional (3D) haptic feedback and an associated handheld electronic device. A first, a second and a third directional actuator groups are disposed on an inner surface of a housing. The vibration inertial forces generated by the first, the second, and the third directional actuator groups are parallel with the first, the second and the third axial directions respectively. The first, the second, and the third directional actuator groups are individually or in combination driven, thereby generating haptic feedback.

Abstract: Transducers and transducer modules having the transducers are disclosed. An embodiment discloses a transducer that includes a conductive layer having a U-shaped slit toward its swing end. The slit is configured to enhance a haptic feedback or an acoustic propagation, or adjust a resonant mode.

Abstract: The present invention is directed to a transducer module, which includes an actuator that is directly or indirectly coupled to a vibration plate. The transducer module includes a plastic damper that elastically secures the vibration plate to a frame.

Abstract: The present invention is directed to a power generating system. At least one signal tracing unit receives an input signal, according to which a tracing signal is generated, wherein the waveform of the tracing signal traces the wave peak of the input signal. At least one DC to DC converter receives the tracing signal, according to which a power supply is generated.

Abstract: The present invention is directed to a transducer module including a first transducer and a second transducer. The second transducer is disposed between the first transducer and a first plate.

Abstract: The present invention is directed to a transducer module including a first transducer and a second transducer. The first transducer is directly or indirectly disposed on a first plate with a first point, and the second transducer is disposed at a second point of the first transducer. In an embodiment, an inertial mass is further disposed on the second transducer.

Abstract: The present invention is directed to a transducer module including a first transducer, a support member and a block member. The support member rests or is fixed on a first plate with a first end, and rests or is fixed on the central section of the first transducer with a second end. The block member rests or is fixed on the central section of the first transducer with a first end, and rests or is fixed on a second plate with a second end.

Abstract: A power connector assembly with improved terminals includes a first electrical connector and a second electrical connector. The first electrical connector has a first insulated body and a plurality of first power-terminal sets received in the first insulated body. The second electrical connector has a second insulated body and a plurality of second power-terminal sets received in the second insulated body. Each of the first power-terminal sets is contacted with each of the second power-terminal sets correspondingly. Each second power-terminal set has a pair of separate second power terminals. Each second power terminal has a contacting portion for contacting with the first power-terminal set. Each contacting portion is protruded with at least one bulge portion toward the first power-terminal set from a side thereof.

Abstract: A sliding cover structure and an electronic apparatus are disclosed. The sliding cover structure is used for covering a lens, and includes a base, a first cover, a second cover and a swing part. The first cover slides forwards and backwards on the base, and slides between an opening position that does not cover the lens and a closing position that covers the lens. The second cover moves upwards and downwards on the base. The swing part is pivoted with the base and has a first contact end and a second contact end. The pivoting position of the swing part and the base is located between the first contact end and the second contact end so that the swing part can perform a seesaw operation. The first contact end is located below the second cover so that the first contact end drives the second cover to move upwards.

Abstract: A power connector assembly with improved terminals includes a first electrical connector and a second electrical connector. The first electrical connector has a first insulated body and a plurality of first power-terminal sets received in the first insulated body. The second electrical connector has a second insulated body and a plurality of second power-terminal sets received in the second insulated body. Each of the first power-terminal sets is contacted with each of the second power-terminal sets correspondingly. Each second power-terminal set has a pair of separate second power terminals. Each second power terminal has a contacting portion for contacting with the first power-terminal set. Each contacting portion is protruded with at least one bulge portion toward the first power-terminal set from a side thereof.

Abstract: An electromagnetic sliding mechanism and an electronic device are provided. The sliding mechanism includes a fixing base, a sliding piece, and an elastic piece. The fixing base and the sliding piece are respectively provided with an electromagnetic element and the two electromagnetic elements correspond to each other. The sliding piece can slide between a first position and a second position with respect to the fixing base. One end of the elastic piece is pivotally connected to the fixing base, and the other end thereof is pivotally connected to the sliding piece to slide synchronously therewith. Via a repulsive magnetic force generated by electro-magnetizing the two electromagnetic elements, the sliding piece slides automatically from the first position to the second position. When the electromagnetic sliding mechanism is applied to the electronic device, two opposite casings of the electronic device can slide with respect to each other.

Abstract: A connector structure, accommodating a flat cable via a front end thereof is disclosed. The flat cable defines a recess at each lateral side thereof; and the connector structure includes a connection base, a lid member, a plurality of terminals, and a pair of latch members being made of metallic materials. The connection base has a base portion, a pair of sidewalls extending backwards from two lateral sides of the base portion respectively. The lid member includes a pair of pivotal shafts pivoted respectively to the sidewalls of the connection base, and a pair of brake shafts each being adjacent to an inner side of each pivotal shaft. Each of the latch members is secured to each sidewall of the connection base, and has a latch arm. After the lid member covers over, the brake shafts actuate the latch arms in order to engage the recesses of the flat cable.

Abstract: An electrical connector with an aligning means includes an insulating body, a plurality of terminals, a lower casing, and an aligning casing. The terminals are provided on the insulating body. The lower casing is provided on the bottom of the insulating body. The aligning casing is provided on the top of the insulating body. Both sides of the aligning casing are bent and extend to form two opposite aligning portions. Via the above arrangement, the electrical connector with an aligning means can be achieved and generate an aligning effect. Thus, the electrical connector having an aligning means can be inserted with a docking connector more quickly, and the contact therebetween will not become poor due to an external force. Furthermore, the work hours for assembling can be reduced. The present invention further provides an assembly combination of the electrical connector with aligning means.