Abstract: A wireless charging receiving device for receiving power from a power transmitting device of wireless charging including a body having an accommodation space and a slot, an induction coil and an electromagnetic absorption member in the accommodation space, and a power storage module is provided. At least a portion of the body has a metal shell corresponded to the accommodation space. The slot disposed in the metal shell connects the accommodation space and an exterior edge of the metal shell. The induction coil is insulatedly abutted against the metal shell and electrically connected with the power storage module. The power transmitting device magnetically resonates with the metal shell through generating an electromagnetic field. The metal shell generates an induced current and an electromagnetic field along the slot, and power converted from the energy of the electromagnetic field is transferred and stored in the power storage module.

Abstract: A wireless charging receiving device for receiving power from a power transmitting device of wireless charging including a body having an accommodation space and a slot, an induction coil and an electromagnetic absorption member in the accommodation space, and a power storage module is provided. At least a portion of the body has a metal shell corresponded to the accommodation space. The slot disposed in the metal shell connects the accommodation space and an exterior edge of the metal shell. The induction coil is insulatedly abutted against the metal shell and electrically connected with the power storage module. The power transmitting device magnetically resonates with the metal shell through generating an electromagnetic field. The metal shell generates an induced current and an electromagnetic field along the slot, and power converted from the energy of the electromagnetic field is transferred and stored in the power storage module.

Abstract: A method of fabricating a self-aligned metal silicide. Two neighboring gates are formed on a substrate, and each of the gates comprises a cap layer thereon. Source/drain regions are formed in the substrate. The source/drain regions comprise a common source/drain region between these two gates. A metal suicide layer is formed on the source/drain region. A first insulation layer is formed to cover the source/drain regions. The cap layer is removed, followed by a pre-amorphous implantation process. A metal silicide layer is formed on the gate. A passivation is formed to protect the metal silicide layer on the gate. A second insulation layer is formed to cover the passivation layer and the first insulation layer. The second and the first insulation layers are patterned to form a contact window to expose the common source/drain region.