Abstract:
The invention discloses a heat-power conversion magnetism device. The heat-power conversion magnetism device includes a magneto caloric effect material so that the magnetic field thereof can be changed according to a temperature difference. The heat-power conversion magnetism device is rotated by changing the magnetic field of the magneto caloric effect material. A system for converting energy by use of the heat-power conversion magnetism device is also disclosed.
Abstract:
A magnetic apparatus and a magnetic system are provided. The magnetic apparatus or the magnetic system includes the magnetic apparatus that can generate the mechanical torque and at least two magnetic apparatus are coupled together to sum each mechanical torque. In addition, a phase angle delay of each of the magnetic torque of the at least two magnetic apparatus is arranged to minimize a torque ripple so as to output a power smoothly. Therefore, a better working condition of the magnetic apparatus and the whole magnetic system can be selected for demonstrating a better performance. Furthermore, a permanent magnetic element of the magnetic apparatus can rotate more smoothly.
Abstract:
A magnetic light-shielding apparatus includes a body, a light-shielding element and a magnetic actuator. The body has a light-penetrating portion, and one end of the light-shielding element is disposed pivotally on the body to form a rotation center. The light-shielding element corresponding to the light-penetrating portion rotates with respect to the rotation center. The magnetic actuator has a magnetic element, a magnetically conducting element and a coil. The magnetically conducting element is disposed with respect to the magnetic element. The coil is disposed at the other end of the light-shielding element and surrounds the magnetically conducting element.
Abstract:
An optical shutter for a projection system includes a shutter element and an actuator. The shutter element includes a light-shielding portion and a linkage portion. The light-shielding portion is disposed on the optical pathway of the projection system and is connected with the linkage portion. The light-shielding portion is bent toward the linkage portion and there is a pre-determined angle formed between the light-shielding portion and the linkage portion. The light-shielding portion faces the linkage portion with a predetermined angle. The actuator is coupled with the linkage portion to drive the shutter to swing.
Abstract:
A motor with an air bearing structure includes a shaft, a rotor, a stator and a magnetic body. The rotor is coupled to the shaft and an air gap is formed therebetween, thereby forming the air bearing structure. The stator is coupled to the rotor and an air gap is formed therebetween. The magnetic body is disposed adjacent to the periphery of the stator.
Abstract:
A touch apparatus includes a touch unit, a detecting unit, and a compensation unit. The touch unit has a touch substrate and at least one conductive layer. The conductive layer is disposed on the touch substrate. The detecting unit is electrically connected with the conductive layer of the touch unit and outputs a driving signal to the conductive layer. A first parasitic capacitance is formed between the detecting unit and a ground. The compensation unit is electrically connected with the detecting unit and the touch unit and outputs a compensation signal to the first parasitic capacitance. Hence, the touch apparatus can eliminate the parasitic capacitance effect.
Abstract:
A control method of the magnetic actuator system includes the following steps. A first initial orientation step is to move a magnetic actuator to a first position in accordance with a first position signal, and generate a first position sense signal by a position sensor. A second initial orientation step is to move the magnetic actuator to a second position in accordance with a second position signal, and generate a second position sense signal by the position sensor. An orientation step is to perform an interpolation in accordance with the above signals and a target position signal to obtain a target position sense signal. A moving step is to move the magnetic actuator to an actual position in accordance with the target position signal, and output an actual position sense signal by the position sensor. An adjustment step is to move the magnetic actuator to a target position in accordance with the target position sense signal and the actual position sense signal.
Abstract:
A touch panel includes a substrate, a resistive layer, a plurality of signal terminals, a conductive circuit layer, an insulation layer and a plurality of signal lines. The substrate has a touch area and a peripheral area. The signal terminals are disposed in the peripheral area and electrically connected to the resistive layer. The conductive circuit layer is disposed in the peripheral area and electrically connected to the resistive layer. The insulation layer is disposed on the signal terminals and the conductive circuit layer. The signal lines are disposed on the insulation layer and electrically connected to signal terminals, respectively.
Abstract:
A touch panel includes a substrate, a conductive circuit layer, a resistive layer and a dielectric layer. The substrate has a touch area and a peripheral area surrounding the touch area. The conductive circuit layer is formed on the peripheral area of the substrate. The resistive layer covers the conductive circuit layer and the touch area of the substrate. The dielectric layer is formed on the resistive layer. The conductive circuit layer includes a plurality of signal terminals disposed on corner surfaces of the substrate as the corner electrodes of the conductive circuit layer.
Abstract:
A light-emitting diode (LED) chip includes a substrate, a first semiconductor layer, an active layer, a second semiconductor layer and a groove. The first semiconductor layer, active layer and second semiconductor layer are formed on the substrate in sequence. The groove is formed in the first semiconductor layer, the active layer and the second semiconductor layer.