Abstract: A display device and a fixed structure set are provided. The display device includes a middle frame, a display panel, a plurality of first fixed structure sets and at least one second fixed structure set. The middle frame has a first surface and a second surface opposite to the first surface. The display panel is disposed on the first surface. The plurality of first fixed structure sets are configured to fix the display panel on the middle frame. The at least one second fixed structure set is configured to fix the display panel on the middle frame, and the fixing structure of the first fixed structure set is different from the fixing structure of the second fixing structure set. The display device and the fixed structure set can improve the strength of the display and avoid display problems and the like by the above configuration.

Abstract: A display device and a fixing structure set are provided. The display device includes a middle frame and a display panel. The middle frame has a first surface and a second surface opposite to the first surface. The display panel is fixed on the first surface by using at least one first fixing structure set and a plurality of second fixing structure sets. Wherein, the fixing structure of the first fixing structure set is different from the fixing structure of the second fixing structure set.

Abstract: An electronic device includes a main body and a thermoelectric conversion module. The main body has a heat generating element therein. The thermoelectric conversion module includes a shell and a thermoelectric conversion element. The shell is assembled to the main body. The thermoelectric conversion element is pivoted on the shell and has an operation surface and a back surface opposite to each other. The thermoelectric conversion element is adapted to rotate between a first state and a second state relatively to the shell. When the thermoelectric conversion element is in the first state, the operation surface faces the main body and receives heat from the heat generating element, for the thermoelectric conversion element to generate electricity. When the thermoelectric conversion element is in the second state, the back surface faces the main body and the operation surface receives heat from external environment, for the thermoelectric conversion element to generate electricity.

Abstract: An electronic device includes a main body and a thermoelectric conversion module. The main body has a heat generating element therein. The thermoelectric conversion module includes a shell and a thermoelectric conversion element. The shell is assembled to the main body. The thermoelectric conversion element is pivoted on the shell and has an operation surface and a back surface opposite to each other. The thermoelectric conversion element is adapted to rotate between a first state and a second state relatively to the shell. When the thermoelectric conversion element is in the first state, the operation surface faces the main body and receives heat from the heat generating element, for the thermoelectric conversion element to generate electricity. When the thermoelectric conversion element is in the second state, the back surface faces the main body and the operation surface receives heat from external environment, for the thermoelectric conversion element to generate electricity.

Abstract: A stereoscopic lens docking station used for detachably connecting to an electronic device. The electronic device includes a first lens module and a first transmission interface. The stereoscopic lens docking station includes a chute, a second lens module, and a second transmission interface. The chute is located next to the first lens module. The second lens module can slide along the chute to a position corresponding to the first lens module. The second transmission interface is used for communicating to the first transmission interface, and for electrically connecting to the second lens module, allowing the electronic device to control the second lens module to capture an image, and obtain the image; whereby the two images captured by the first lens module and the second lens module can be integrated to form a three-dimensional image.

Abstract: A lens docking station used for detachably connecting to an electronic device is disclosed, wherein the electronic device includes a first lens module and a first transmission interface. The lens docking station includes a chute, a second lens module, and a second transmission interface. The chute is located next to the first lens module. The second lens module can slide along the chute to a position corresponding to the first lens module. The second transmission interface is used for communicating to the first transmission interface, and for electrically connecting to the second lens module, allowing the electronic device to control the second lens module to capture an image, and obtain the image; whereby the two images captured by the first lens module and the second lens module can be integrated to form a three-dimensional image.

Abstract: A palm-top calculator and name card combination, which includes a top cover shell and a bottom cover shell pivoted together, a partition board pivoted to the cover shells on the inside for closing on the inside of the top cover shell to hold storage name cards in the top cover shell, and a calculator pivotally mounted in a rectangular center opening at the bottom cover shell, wherein male and female positioning means are respectively provided at the bottom cover shell and the calculator for securing the calculation between two reversed positions in the center opening at the bottom cover shell.