Abstract: A keyboard device having a wireless charging function and a peripheral device are provided. The keyboard includes a casing module, a processing module, a key module, a first secondary resonant circuit and a second secondary resonant circuit. The processing module is electrically connected to the key module. The first secondary resonant circuit is disposed on a first side of the casing module. The second secondary resonant circuit is disposed on a second side of the casing module.

Abstract: A mouse pad suitable for operating with a wireless mouse is provided. The mouse pad includes a first charging circuit, a second charging circuit, a control circuit, a power supply module, a conversion circuit and a main body. The first charging circuit, the second charging circuit and the conversion circuit are each electrically connected to the control circuit, and the power supply module is electrically connected to the conversion circuit. The first charging circuit and the second charging circuit each outputs an electromagnetic energy to the wireless mouse. When the control circuit receives a load current flowing through the first charging circuit and the load current flowing through the second charging circuit, through the control circuit, a power supply current of the power supply module to the first charging circuit and to the second charging circuit are dynamically adjusted.

Abstract: A keyboard device having a wireless charging function and a peripheral device are provided. The keyboard includes a casing module, a processing module, a key module, a first secondary resonant circuit and a second secondary resonant circuit. The processing module is electrically connected to the key module. The first secondary resonant circuit is disposed on a first side of the casing module. The second secondary resonant circuit is disposed on a second side of the casing module.

Abstract: A method of manufacturing a semiconductor package structure is provided. The method includes providing a first carrier, forming a patterned buffer layer over the first carrier, forming a first redistribution structure that includes forming a first dielectric layer on the patterned buffer layer, after an electrical testing by applying an electric signal towards the first redistribution structure, removing the first carrier, removing portions of the first dielectric layer, resulting in a patterned first dielectric layer, the patterned first dielectric layer exposing portions of the first circuit layer, removing the exposed portions of the first circuit layer, using the patterned first dielectric layer as a mask, resulting in a patterned first circuit layer, and forming an electric conductor in a recess defined by the patterned first dielectric layer and the patterned first circuit layer.

Abstract: A method of manufacturing a semiconductor package structure is provided. The method includes providing a first carrier, forming a patterned buffer layer over the first carrier, forming a first redistribution structure that includes forming a first dielectric layer on the patterned buffer layer, after an electrical testing by applying an electric signal towards the first redistribution structure, removing the first carrier, removing portions of the first dielectric layer, resulting in a patterned first dielectric layer, the patterned first dielectric layer exposing portions of the first circuit layer, removing the exposed portions of the first circuit layer, using the patterned first dielectric layer as a mask, resulting in a patterned first circuit layer, and forming an electric conductor in a recess defined by the patterned first dielectric layer and the patterned first circuit layer.

Abstract: A method of manufacturing a semiconductor package structure is provided. The method includes providing a first carrier, forming a patterned buffer layer over the first carrier, forming a first redistribution structure that includes forming a first dielectric layer on the patterned buffer layer, after an electrical testing by applying an electric signal towards the first redistribution structure, removing the first carrier, removing portions of the first dielectric layer, resulting in a patterned first dielectric layer, the patterned first dielectric layer exposing portions of the first circuit layer, removing the exposed portions of the first circuit layer, using the patterned first dielectric layer as a mask, resulting in a patterned first circuit layer, and forming an electric conductor in a recess defined by the patterned first dielectric layer and the patterned first circuit layer.

Abstract: A semiconductor device package includes a semiconductor device in an encapsulating layer, an electrical conductor for electrical connection of the semiconductor device to an external device, and a redistribution structure for electrical connection between the semiconductor device and the electrical conductor. The redistribution structure includes dielectric layers stacked on each other in a direction extending between the encapsulating layer and the electrical conductor, wherein the dielectric layer most adjacent to the electrical conductor includes a first pattern under the electrical conductor, and circuit layers each corresponding to a respective one of the dielectric layers.

Abstract: Various examples with respect to synchronization signal block (SSB) raster shift in mobile communications are described. A processor of a user equipment (UE) performs an initial cell search to identify a cell among one or more cells of a wireless communication system. The processor then camps on the identified cell. In performing the initial cell search, the processor scans through a plurality of SSB entries for frequency bands below 3 GHz with a SSB raster spacing and a SSB raster offset frequency that support sub-carrier spacing (SCS) spaced channel raster and 100 kHz channel raster for both 15 kHz SCS and 30 kHz SCS. A minimum channel bandwidth at 5 MHz or higher for 15 kHz SCS or at 10 MHz or higher for 30 kHz SCS is supported. The SSB raster spacing is a common multiple of 15 kHz and 100 kHz. The SSB raster offset frequency for 100 kHz channel raster is a multiple of 30 kHz plus/minus 10 kHz.

Abstract: A radiofrequency ablation electrode needle includes at least one first segment and at least two second segments. The at least one first segment and the at least two second segments are exposed on a surface of the needle body. An impedance of the at least one first segment is smaller than an impedance of the at least two second segments and at least one of the at least one first segment is disposed between two immediately adjacent ones of the at least two second segments. Besides, the radiofrequency ablation electrode needle is a monopolar electrode needle.

Abstract: Various examples with respect to synchronization signal block (SSB) raster shift in mobile communications are described. A processor of a user equipment (UE) performs an initial cell search to identify a cell among one or more cells of a wireless communication system. The processor then camps on the identified cell. In performing the initial cell search, the processor scans through a plurality of SSB entries for frequency bands below 3 GHz with a SSB raster spacing and a SSB raster offset frequency that support sub-carrier spacing (SCS) spaced channel raster and 100 kHz channel raster for both 15 kHz SCS and 30 kHz SCS. A minimum channel bandwidth at 5 MHz or higher for 15 kHz SCS or at 10 MHz or higher for 30 kHz SCS is supported. The SSB raster spacing is a common multiple of 15 kHz and 100 kHz. The SSB raster offset frequency for 100 kHz channel raster is a multiple of 30 kHz plus/minus 10 kHz.

Abstract: A method for fabricating metal interconnect structure includes the steps of: forming a first metal interconnection in a first inter-metal dielectric (IMD) layer on a substrate; forming a cap layer on the first metal interconnection; forming a second IMD layer on the cap layer; performing a first etching process to remove part of the second IMD layer for forming an opening; performing a plasma treatment process; and performing a second etching process to remove polymers from bottom of the opening.

Abstract: A method for fabricating metal interconnect structure includes the steps of: forming a first metal interconnection in a first inter-metal dielectric (IMD) layer on a substrate; forming a cap layer on the first metal interconnection; forming a second IMD layer on the cap layer; performing a first etching process to remove part of the second IMD layer for forming an opening; performing a plasma treatment process; and performing a second etching process to remove polymers from bottom of the opening.

Abstract: Various examples with respect to synchronization signal block (SSB) raster shift in mobile communications are described. A processor of a user equipment (UE) performs an initial cell search to identify a cell among one or more cells of a wireless communication system. The processor then camps on the identified cell. In performing the initial cell search, the processor scans through a plurality of SSB entries for frequency bands below 3 GHz with a SSB raster spacing and a SSB raster offset frequency that support sub-carrier spacing (SCS) spaced channel raster and 100 kHz channel raster for both 15 kHz SCS and 30 kHz SCS. A minimum channel bandwidth at 5 MHz or higher for 15 kHz SCS or at 10 MHz or higher for 30 kHz SCS is supported. The SSB raster spacing is a common multiple of 15 kHz and 100 kHz. The SSB raster offset frequency for 100 kHz channel raster is a multiple of 30 kHz plus/minus 10 kHz.

Abstract: A rechargeable wireless mouse includes a wireless electrical-energy-receiving circuit, a transformation circuit, a wireless transmission circuit and a control circuit. The wireless electrical-energy-receiving circuit receives an electromagnetic energy from a charging plate. The transformation circuit is electrically connected to the wireless electrical-energy-receiving circuit and transforms the electromagnetic energy into an electric potential energy. The wireless transmission circuit transmits a control signal to the charging plate. The control circuit is electrically connected to the transformation circuit and the wireless transmission circuit. The control circuit receives the electric potential energy transmitted by the transformation circuit and outputs the control signal to the charging plate according to the electric potential energy.

Abstract: A method for fabricating metal interconnect structure includes the steps of: forming a first metal interconnection in a first inter-metal dielectric (IMD) layer on a substrate; forming a cap layer on the first metal interconnection; forming a second IMD layer on the cap layer; performing a first etching process to remove part of the second IMD layer for forming an opening; performing a plasma treatment process; and performing a second etching process to remove polymers from bottom of the opening.

Abstract: A rechargeable wireless mouse includes a wireless electrical-energy-receiving circuit, a transformation circuit, a wireless transmission circuit and a control circuit. The wireless electrical-energy-receiving circuit receives an electromagnetic energy from a charging plate. The transformation circuit is electrically connected to the wireless electrical-energy-receiving circuit and transforms the electromagnetic energy into an electric potential energy. The wireless transmission circuit transmits a control signal to the charging plate. The control circuit is electrically connected to the transformation circuit and the wireless transmission circuit. The control circuit receives the electric potential energy transmitted by the transformation circuit and outputs the control signal to the charging plate according to the electric potential energy.

Abstract: A wireless charging circuit coupled to an oscillation unit. The wireless charging circuit includes a balun unit, a higher-order filter unit and a differential unit. The balun unit is coupled to the oscillation unit. The higher-order filter unit is coupled to the balun unit. The differential unit is coupled to the higher-order filter unit. The differential unit is coupled to a transmission coil. The oscillation unit issues a differential signal to the balun unit, and then the balun unit converts the differential signal into a converted signal to be transmitted to the higher-order filter unit. The higher-order filter unit filters the converted signal to output a filtered signal to the differential unit. The differential unit converts the filtered signal into a differential output signal to be outputted by the transmission coil.

Abstract: A wireless input device is provided. The wireless input device includes a rechargeable wireless mouse, a wireless receiver and a charging pad. The charging pad includes a wireless power transmitting module and a charging control circuit. The charging control circuit is electrically connected to the wireless power transmitting module. The charging control circuit correspondingly activates the wireless power transmitting module to wirelessly output the electromagnetic power according to an activation signal provided by the wireless receiver. The charging pad receives the activation signal when the wireless receiver is connected to the charging pad. When the charging pad is not connected to the wireless receiver, the charging control circuit stops the wireless power transmitting module from wirelessly outputting the electromagnetic power. Accordingly, the charging pad of the present invention can avoid damage resulting from the abnormal charging so as to save power.

Abstract: A compact printer having improved operational features is disclosed. The printer includes an articulating print frame assembly coupled to a top cover that is adapted to rotate out of the top cover to an open position and to rotate into the top cover to a closed position. When the print frame is in an open position, the top cover is prevented from rotating toward the bottom housing to a closed position. The print frame includes a ribbon guide bar that facilitates loading of ribbon and media. The disclosed printer also includes a fixed or adjustable media sensor, and is configurable to accommodate an internal supply of web (roll) media or an external supply of fanfold media.

Abstract: A wireless charging circuit coupled to an oscillation unit. The wireless charging circuit includes a balun unit, a higher-order filter unit and a differential unit. The balun unit is coupled to the oscillation unit. The higher-order filter unit is coupled to the balun unit. The differential unit is coupled to the higher-order filter unit. The differential unit is coupled to a transmission coil. The oscillation unit issues a differential signal to the balun unit, and then the balun unit converts the differential signal into a converted signal to be transmitted to the higher-order filter unit. The higher-order filter unit filters the converted signal to output a filtered signal to the differential unit. The differential unit converts the filtered signal into a differential output signal to be outputted by the transmission coil.