Abstract: The disclosure is related to an electric wheel, adapted to a wheel shaft. The electric wheel includes a wheel body, a battery holder, and at least one battery module. The wheel body has a wheel hub configured to be rotatably disposed on the wheel shaft. The battery holder includes a base and at least one first electrical connector connected to each other. The base is configured to be connected to the wheel shaft and disposed side by side to the wheel hub. The base has an outer surface facing away from the wheel shaft. The at least one battery module includes at least one battery storage and at least one second electrical connector. The at least one battery storage has an inner surface in contact with the outer surface of the base. The at least one second electrical connector is detachably mounted on the at least one first electrical connector.

Abstract: The disclosure is related to an electric wheel, adapted to a wheel shaft. The electric wheel includes a wheel body, a battery holder, and at least one battery module. The wheel body has a wheel hub configured to be rotatably disposed on the wheel shaft. The battery holder includes a base and at least one first electrical connector connected to each other. The base is configured to be connected to the wheel shaft and disposed side by side to the wheel hub. The base has an outer surface facing away from the wheel shaft. The at least one battery module includes at least one battery storage and at least one second electrical connector. The at least one battery storage has an inner surface in contact with the outer surface of the base. The at least one second electrical connector is detachably mounted on the at least one first electrical connector.

Abstract: A power heat dissipation device includes a heat-conducting layer, a heat sink and at least one cooling chip. The heat-conducting layer has a heat-absorbing surface and a heat-dissipating surface. The heat sink is in thermal contact with the heat-dissipating surface, and a heat-conducting section is formed in the heat sink. The cooling chip is embedded in the heat sink and disposed adjacent to the heat transferring channel. The cooling chip has a cooling surface which is perpendicular to the heat-absorbing surface. The cooling surface faces the heat transferring channel. The cooling chip removes heat from the heat-conducting section in the heat sink.

Abstract: An integrated power module is provided, which may include a power port, battery, controller, motor, and a connection element. The power port may include a first positive electrode terminal, second positive electrode terminal, and a negative electrode terminal. The positive electrode of the battery may be electrically coupled to one end of the first positive electrode terminal. The negative electrode of the controller may be electrically coupled to the negative electrode of the battery and one end of the negative electrode terminal; the positive electrode of the controller may be electrically coupled to one end of the second positive electrode terminal. The motor may be electrically coupled to the output of the controller. The connection element may include a single circuit; the other end of the first positive electrode terminal may be electrically coupled to the other end of the second positive electrode terminal via the single circuit.

Abstract: A power heat dissipation device includes a heat-conducting layer, a heat sink and at least one cooling chip. The heat-conducting layer has a heat-absorbing surface and a heat-dissipating surface. The heat sink is in thermal contact with the heat-dissipating surface, and a heat-conducting section is formed in the heat sink. The cooling chip is embedded in the heat sink and disposed adjacent to the heat transferring channel. The cooling chip has a cooling surface which is perpendicular to the heat-absorbing surface. The cooling surface faces the heat transferring channel. The cooling chip removes heat from the heat-conducting section in the heat sink.

Abstract: A power heat dissipation device includes a heat-conducting layer, a heat sink and at least one thermoelectric cooling chip. The heat-conducting layer has a heat-absorbing-surface and a heat-dissipating-surface which are opposite to each other. The heat sink is in thermal contact with the heat-dissipating-surface of the heat-conducting layer. The at least one thermoelectric cooling chip is embedded in the heat-conducting layer. The heat-conducting layer has an effective heat-conducting-region. A1 is the area on the heat-absorbing-surface which the effective heat-conducting-region projects on, and A2 is the area on the heat-absorbing-surface which the thermoelectric cooling chip projects on. The ratio of A2 to A1 is between 0.15 and 0.58.

Abstract: A pedelec power system and housing thereof, which comprises: a first receiving portion, a plurality of connecting structures, a plurality of second receiving portions and a plurality of thermally conductive elements. The plurality of connecting structures and second receiving portions interlaced arranged surrounding the first receiving portion; at least one thermally conductive element is disposed in each connecting structure. A motor is arranged in the first receiving portion, a reduction device and a power electronic unit is arranged in the housing, and the reduction device and power electronic unit is coupled to the motor. At least one battery is arranged in each the second receiving portion.

Abstract: A display panel and a method for fabricating the same are provided. The display panel includes a substrate, a transparent film, and a light-gathering film. The substrate includes organic light emitting diode (OLED) elements. The transparent film is disposed on the substrate. The light-gathering film is disposed on the transparent film. In the fabrication method of the display panel, a substrate is first provided, in which the substrate includes OLED elements. Then, a transparent film is provided, in which the transparent film has a first surface and a second surface opposite to the first surface. Thereafter, a light-gathering material is coated to form a light-gathering film on the first surface of the transparent film. Then, a sensing layer is disposed on the second surface of the transparent film. Thereafter, the transparent film is disposed on the substrate to sandwich the sensing layer between the transparent film and the substrate.

Abstract: A motor controller and a cooling method thereof are provided. The motor controller includes: a first power module; a second power module; a first heat sink having first fins; a second heat sink having second fins; a first partition board; a second partition board; a housing disposed at external sides of the first and second partition boards, with a first channel formed between the housing and the first partition board; a conduit connected to a rear end of the first heat sink and extending to an outlet of the housing; a first flow channel; and a second flow channel passing through the first channel and the gaps of the second fins, for second cold air to be introduced, and processed by a heat exchange process performed by the second power module to generate second hot air that is expelled to the outlet of the housing through the second flow channel.

Abstract: A display panel and a method for fabricating the same are provided. The display panel includes a substrate, a transparent film, and a light-gathering film. The substrate includes organic light emitting diode (OLED) elements. The transparent film is disposed on the substrate. The light-gathering film is disposed on the transparent film. In the fabrication method of the display panel, a substrate is first provided, in which the substrate includes OLED elements. Then, a transparent film is provided, in which the transparent film has a first surface and a second surface opposite to the first surface. Thereafter, a light-gathering material is coated to form a light-gathering film on the first surface of the transparent film. Then, a sensing layer is disposed on the second surface of the transparent film. Thereafter, the transparent film is disposed on the substrate to sandwich the sensing layer between the transparent film and the substrate.

Abstract: A charge-or-start system applied in an electric vehicle is provided. The charge-or-start system includes a charge-or-start device coupled to an external power source, an on-car electric source coupled to the charge-or-start device and a battery unit coupled to the charge-or-start device for storing and providing power. In charge mode, under control of the charge-or-start device, anyone of the external power source and the on-car electric source provides power to the battery unit for charging the battery unit through the charge-or-start device. In starting mode, under control of the charge-or-start device, the battery unit provides power to the on-car electric source for activating the on-car electric source through the charge-or-start device.

Abstract: An engine device includes an engine, a power generating portion, a motor portion, and a transmission mechanism. The engine includes a piston and a cylinder, and the piston is arranged in the cylinder and moves back and forth between a top dead center and a bottom dead center. The power generating portion and the motor portion are annularly disposed on the periphery of the cylinder. When the piston moves from the top dead center towards the bottom dead center, the transmission mechanism drives a power generating rotor of the power generating portion to move correspondingly in a direction opposite to that of the piston and enables the power generating portion to generate electric power. When the piston is located at the bottom dead center, the motor portion actuates a motor rotor to move, and pushes the piston to move towards the top dead center through the transmission mechanism.

Abstract: A speed adjusting mechanism for roller traction toroidal continuously variable transmission is disclosed, which comprises an input disk; an output disk coaxially and symmetrically positioned relative to the input disk; a rotation shaft thought the axis of input disk and output disk; a screw rod coaxially connected to the rotation shaft and being rotated accordingly; and a plurality of friction balls respectively contact with the input disk and output disk and rotate same; each friction ball respectively revolved on its own center axis and each center axis respectively connected to a supporting bracket and each supporting bracket respectively connected to an arc-shaped screw gear; wherein the screw rod is engaged to the screw gears so that they will rotate correspondingly to let each center axis tilt to the same extent so that the input disk and out disk will have different rotation rate.

Abstract: An engine device includes an engine, a power generating portion, a motor portion, and a transmission mechanism. The engine includes a piston and a cylinder, and the piston is arranged in the cylinder and moves back and forth between a top dead center and a bottom dead center. The power generating portion and the motor portion are annularly disposed on the periphery of the cylinder. When the piston moves from the top dead center towards the bottom dead center, the transmission mechanism drives a power generating rotor of the power generating portion to move correspondingly in a direction opposite to that of the piston and enables the power generating portion to generate electric power. When the piston is located at the bottom dead center, the motor portion actuates a motor rotor to move, and pushes the piston to move towards the top dead center through the transmission mechanism.

Abstract: A flat panel display mounting device for securing a flat panel display, such as an LCD or plasma television, to a support surface, such as a wall, is disclosed. The flat panel display mounting device comprises a plurality of members in the form of support panels pivotally connected together and a rotation control mechanism connected thereto so that the flat panel display mounted on the device can be rotated to a desired angle and the center of gravity of the flat panel display during rotation can be maintained as close to the support surface as possible, so as not to generate additional burden to the flat panel display mounting device.

Abstract: A charge/start system applied in an electric vehicle is provided. The charge/start system includes a charge/start device coupled to an external power source, an on-car electric source coupled to the charge/start device and a battery unit coupled to the charge/start device for storing and providing power. In charge mode, under control of the charge/start device, anyone of the external power source and the on-car electric source provides power to the battery unit for charging the battery unit through the charge/start device. In starting mode, under control of the charge/start device, the battery unit provides power to the on-car electric source for activating the on-car electric source through the charge/start device.

Abstract: A speed adjusting mechanism for roller traction toroidal continuously variable transmission is disclosed, which comprises an input disk; an output disk coaxially and symmetrically positioned relative to the input disk; a rotation shaft thought the axis of input disk and output disk; a screw rod coaxially connected to the rotation shaft and being rotated accordingly; and a plurality of friction balls respectively contact with the input disk and output disk and rotate same; each friction ball respectively revolved on its own center axis and each center axis respectively connected to a supporting bracket and each supporting bracket respectively connected to an arc-shaped screw gear; wherein the screw rod is engaged to the screw gears so that they will rotate correspondingly to let each center axis tilt to the same extent so that the input disk and out disk will have different rotation rate.

Abstract: A flat panel display mounting device for securing a flat panel display, such as an LCD or plasma television, to a support surface, such as a wall, is disclosed. The flat panel display mounting device comprises a plurality of members in the form of support panels pivotally connected together and a rotation control mechanism connected thereto so that the flat panel display mounted on the device can be rotated to a desired angle and the center of gravity of the flat panel display during rotation can be maintained as close to the support surface as possible, so as not to generate additional burden to the flat panel display mounting device.

Abstract: A flat panel display mounting device for securing a flat panel display, such as an LCD or plasma television, to a support surface, such as a wall, is disclosed. The flat panel display mounting device comprises a plurality of members in the form of support panels pivotally connected together and a rotation control mechanism connected thereto so that the flat panel display mounted on the device can be rotated to a desired angle and the center of gravity of the flat panel display during rotation can be maintained as close to the support surface as possible, so as not to generate additional burden to the flat panel display mounting device.

Abstract: A print control module for a thermal printer includes a housing, a transmission device, a first driving mechanism, a second driving mechanism, and a power switching mechanism all installed in the housing. The transmission device includes a motor, and a transmission gears set for transmitting power of the motor. When the motor rotates in a first direction, the power switching mechanism transfers power of the motor to the first driving mechanism, and when the motor rotates in a direction opposite to the first direction, the power switching mechanism fixes the first driving mechanism and transfers power of the motor to the second driving mechanism.