Abstract: An unmanned aerial vehicle includes a housing, at least one driving module, and at least one driving module. The housing includes an outer structure made of shock-absorbing material, and an inner structure made of rigid material, the inner structure partially embedded into the outer structure. The at least one driving module is assembled to the housing. The at least one detecting module is fixed on the inner structure and surrounded by the outer structure.

Abstract: A shielding cover includes a first frame, a second frame, a first cover and a second cover. The second frame is arranged adjacent to the first frame and defines at least one slot. The first cover covers the first frame and includes at least one first latch corresponding to the at least one slot thereon. The second cover covers the second frame and comprises at least one second latch. The at least one slot is exposed from the second cover, the at least one second latch abuts between the first frame and the second frame, the at least one first latch is latched in the at least one slot. A shielding cover assembly and an electronic device employing the shielding cover are also provided.

Abstract: A protective cover for portable electronic device includes a main body, a display module and a connecting module. The main body includes a first cover and a second cover that is foldable relative to the first cover. The second cover is configured to detachably attach the portable electronic device. The display module is attached to the first cover. The connecting module is attached to the second cover and electronically coupled to the display module. The connecting module is configured to receive display information from the portable electronic device and output the display information to the display module.

Abstract: An unmanned aerial vehicle includes a housing, at least one driving module, and at least one driving module. The housing includes an outer structure made of shock-absorbing material, and an inner structure made of rigid material, the inner structure partially embedded into the outer structure. The at least one driving module is assembled to the housing. The at least one detecting module is fixed on the inner structure and surrounded by the outer structure.

Abstract: A shielding cover includes a first frame, a second frame, a first cover and a second cover. The second frame is arranged adjacent to the first frame and defines at least one slot. The first cover covers the first frame and includes at least one first latch corresponding to the at least one slot thereon. The second cover covers the second frame and comprises at least one second latch. The at least one slot is exposed from the second cover, the at least one second latch abuts between the first frame and the second frame, the at least one first latch is latched in the at least one slot. A shielding cover assembly and an electronic device employing the shielding cover are also provided.

Abstract: A protective cover for portable electronic device includes a main body, a display module and a connecting module. The main body includes a first cover and a second cover that is foldable relative to the first cover. The second cover is configured to detachably attach the portable electronic device. The display module is attached to the first cover. The connecting module is attached to the second cover and electronically coupled to the display module. The connecting module is configured to receive display information from the portable electronic device and output the display information to the display module.

Abstract: A chip card ejecting mechanism includes a main body, a tray assembled in the main body and configured to receive a chip card, and a door. The door includes a rotating end rotatably mounted on the main body and a push pole protruding from the rotating end. A resisting portion is located on an end of the push pole away from the rotating end. When the door is opened and the rotating end is rotated relative to the main body, the resisting portion resists against the chip card and drives the chip card to move out from the main body.

Abstract: A housing, includes a base and at least one non-conductive element, the base has at least one metal sheet and at least one main body, the metal sheet and the at least one main body both have a plurality of nano-pores, the non-conductive element is located at the spaces between the at least one main body and the metal sheet adjacent to the main body, and filled into the nano-pores to bond the at least one metal sheet and the at least one main body together.

Abstract: A heat dissipation assembly including a metal substrate, a heat conducting sheet and a copper foil is provided. The metal substrate has a recess defined therethrough. The heat conducting sheet has a same dimension as the recess, and is embedded in the recess. A thermal conductivity of the heat conducting sheet is greater than a thermal conductivity of the metal substrate. The copper foil is coupled to a surface of the metal substrate. A portable electronic device using the dissipation assembly is also provided. Since the heat conducting sheet has a high thermal conductivity, the metal substrate integrated with the heat conducting sheet can achieve a good strength, low weight and good heat conduct performance.

Abstract: A chip card ejecting mechanism includes a main body, a tray assembled in the main body and configured to receive a chip card, and a door. The door includes a rotating end rotatably mounted on the main body and a push pole protruding from the rotating end. A resisting portion is located on an end of the push pole away from the rotating end. When the door is opened and the rotating end is rotated relative to the main body, the resisting portion resists against the chip card and drives the chip card to move out from the main body.

Abstract: A multi-layer and multi-direction radial fan device is disclosed, comprising an upper cover, a tower fan body, a cavity partition and a lower cover. The tower fan body is located in the upper cover, and the tower fan body comprises a first fan layer and a second fan layer. The cavity partition is located under the upper cover, wherein the cavity partition comprises an opening, and the tower fan body extends through the opening so as to make the first fan layer between the upper cover and the cavity partition. The lower cover is located under the cavity partition, wherein the lower cover comprises an opening to expose the bottom surface of the second fan layer, and the second fan layer is located between the cavity partition and the lower cover.

Abstract: A multi-layer and multi-direction radial fan device is disclosed, comprising an upper cover, a tower fan body, a cavity partition and a lower cover. The tower fan body is located in the upper cover, and the tower fan body comprises a first fan layer and a second fan layer. The cavity partition is located under the upper cover, wherein the cavity partition comprises an opening, and the tower fan body extends through the opening so as to make the first fan layer between the upper cover and the cavity partition. The lower cover is located under the cavity partition, wherein the lower cover comprises an opening to expose the bottom surface of the second fan layer, and the second fan layer is located between the cavity partition and the lower cover.