Abstract: An semiconductor package includes a redistribution structure, a first semiconductor device, a second semiconductor device, an underfill layer and an encapsulant. The first semiconductor device is disposed on and electrically connected with the redistribution structure, wherein the first semiconductor device has a first bottom surface, a first top surface and a first side surface connecting with the first bottom surface and the first top surface, the first side surface comprises a first sub-surface and a second sub-surface connected with each other, the first sub-surface is connected with the first bottom surface, and a first obtuse angle is between the first sub-surface and the second sub-surface.

Abstract: A method for forming a semiconductor structure is provided. The method includes forming a first nanostructure and a second nanostructure over a substrate, forming a first interfacial layer on the first nanostructure and a second interfacial layer on the second nanostructure, forming a first gate dielectric layer on the first interfacial layer and a second gate dielectric layer on the second interfacial layer, forming a patterned mask layer on the second gate dielectric layer while exposing the first gate dielectric layer, and driving nitrogen into the first interfacial layer, thereby forming a nitrogen-doped interfacial layer.

Abstract: A signal detecting circuit of a micro switch includes a first terminal, a second terminal, a third terminal and a micro controller. The first terminal has two ends that are respectively connected to a normally closed terminal of the micro switch and a resistor. The second terminal has two ends that are respectively connected to a normally opened terminal of the micro switch and a ground. The third terminal is connected to a common terminal of the micro switch. The micro controller has two ends that are respectively connected to the first terminal and the third terminal. When an elastic plate of the micro switch is pressed down, the common terminal is connected to the normally opened terminal. When the elastic plate of the micro switch is released, the common terminal is connected to the normally closed terminal.

Abstract: A wireless charging mouse and a method of charging the same are provided. The wireless charging mouse includes a first wireless power receiver, a second wireless power receiver, a conversion circuit, and a control circuit. The first wireless power receiver has a first wireless charging circuit, and the first wireless power receiver receives a wireless power supply of a first wireless power supply unit. The second wireless power receiver has a second wireless charging circuit, and the second wireless power receiver receives a wireless power supply of a second wireless power supply unit. The control circuit outputs a control signal to the conversion circuit according to the power status information received from the first wireless power receiver and the second wireless power receiver by the conversion circuit. The control circuit selectively receives at least one of the first power and the second power according to the control signal.

Abstract: A wireless charging mouse and a method of charging the same are provided. The wireless charging mouse includes a first wireless power receiver, a second wireless power receiver, a conversion circuit, and a control circuit. The first wireless power receiver has a first wireless charging circuit, and the first wireless power receiver receives a wireless power supply of a first wireless power supply unit. The second wireless power receiver has a second wireless charging circuit, and the second wireless power receiver receives a wireless power supply of a second wireless power supply unit. The control circuit outputs a control signal to the conversion circuit according to the power status information received from the first wireless power receiver and the second wireless power receiver by the conversion circuit. The control circuit selectively receives at least one of the first power and the second power according to the control signal.

Abstract: A smart lighting foot mat includes a foot mat body including a lighting device and a control unit. The control unit includes a memory storing a lighting state list of the lighting device. The lighting state list stores a plurality of lighting states and a plurality of codes corresponding to the plurality of lighting states, a control device controlling a lighting state of the lighting device according to the plurality of codes and a wireless transceiver receiving a wireless control signal and transmitting the wireless control signal to the control device. The control device analyzes the wireless control signal to obtain a code, compares the code with the plurality of codes in the lighting state list and controls the lighting device according to the code to generate a lighting state corresponding to the code.

Abstract: A lighting vehicle foot mat includes a foot mat body including a lighting device and a control unit. The control unit includes a memory storing a lighting state list of the lighting device. The lighting state list stores a plurality of lighting states and a plurality of codes corresponding to the plurality of lighting states, a control device controlling a lighting state of the lighting device according to the plurality of codes and a controller area network (CAN) bus transceiver receiving a vehicle control signal and transmitting the vehicle control signal to the control device. The control device analyzes the vehicle control signal to obtain a first code, compares the first code with the plurality of codes in the lighting state list and controls the lighting device according to the first code to generate a lighting state corresponding to the code.

Abstract: A peripheral device with accessory identification capability includes a device body and at least one accessory. The device body includes a processing unit disposed therein. The at least one accessory is releasably attached to the device body and selectively coupled to the processing unit. When the at least one accessory is attached to the device body and coupled to the processing unit, the processing unit identifies the at least one accessory and instructs at least one function of the device body to be performed, based on at least one identification code of the identified at least one accessory.

Abstract: A signal detecting circuit of a micro switch includes a first terminal, a second terminal, a third terminal and a micro controller. The first terminal has two ends that are respectively connected to a normally closed terminal of the micro switch and a resistor. The second terminal has two ends that are respectively connected to a normally opened terminal of the micro switch and a ground. The third terminal is connected to a common terminal of the micro switch. The micro controller has two ends that are respectively connected to the first terminal and the third terminal. When an elastic plate of the micro switch is pressed down, the common terminal is connected to the normally opened terminal. When the elastic plate of the micro switch is released, the common terminal is connected to the normally closed terminal.

Abstract: A peripheral device with accessory identification capability includes a device body and at least one accessory. The device body includes a processing unit disposed therein. The at least one accessory is releasably attached to the device body and selectively coupled to the processing unit. When the at least one accessory is attached to the device body and coupled to the processing unit, the processing unit identifies the at least one accessory and instructs at least one function of the device body to be performed, based on at least one identification code of the identified at least one accessory.

Abstract: An input device adaptable to a use habit includes: a memory, configured to store a preset sampling frequency and the preset number of times of sampling; a keying circuit, configured to produce a keying waveform when one key thereof is pressed; and a microprocessor, configured to perform, according to the preset sampling frequency and the preset number of times of sampling that are stored in the memory, sampling on the keying waveform produced by the keying circuit, to obtain multiple sampling keying signals, and determines the sampling keying signals, which are sampled according to the preset number of times of sampling, in a stable and correct waveform segmentation in the corresponding keying waveform, to send a keying signal corresponding to the keying waveform. In addition, the present invention provides an adapting method for an input device adaptable to a use habit.

Abstract: An input device adaptable to a use habit includes: a memory, configured to store a preset sampling frequency and the preset number of times of sampling; a keying circuit, configured to produce a keying waveform when one key thereof is pressed; and a microprocessor, configured to perform, according to the preset sampling frequency and the preset number of times of sampling that are stored in the memory, sampling on the keying waveform produced by the keying circuit, to obtain multiple sampling keying signals, and determines the sampling keying signals, which are sampled according to the preset number of times of sampling, in a stable and correct waveform segmentation in the corresponding keying waveform, to send a keying signal corresponding to the keying waveform. In addition, the present invention provides an adapting method for an input device adaptable to a use habit.

Abstract: An input device with parallel multi-tasking capabilities is disclosed. The input device comprises a controller, a data assigning unit and a plurality of first communication end-points. The input device declares the plurality of first communication end-points as virtual peripheral devices with equivalent performance. When the input device is electrically connected to a host for data communication, the virtual peripheral devices with equivalent performance and a plurality of second communication end-points are respectively establish communication link of point-to-point correspondingly, so that the plurality of second communication end-points receive a plurality of operation slave data for reducing data communication time.

Abstract: A light guide plate luminance-mixing structure includes a light guide plate containing a light input plane, a bottom crossing the light input plane, and a light output plane opposite to the bottom, and multiple point light sources being disposed in relation to one side of the light input plane; multiple luminance-mixing structures provided on the light guide plate being divided into two sets by a central line extending from the light input plane with both sets being different from each other to allow different volumes of light emitted from both sides of the central line with the volumes adjustable depending on the arrangement of point light sources to promote consistent luminance for effectively correcting the inconsistent distribution of luminance as found with the prior art

Abstract: A backlighting device includes a light guide plate having a first side and a second side opposite to the first side, and a point light source to generate light incident on the first side of the light guide plate. The light guide plate has a plurality of longitudinal diffraction microstructures which are arranged and oriented according to the location of the point light source. The microstructures are varied gradually at least in size, position, density, or shape relative to the location of the point light source. When light is incident on the light guide plate from the point light source, the microstructures, which are varied gradually at least in size, position, density, or shape, function to regulate and adjust the illuminance of bright and dark areas in the light guide plate so as to provide uniform brightness.

Abstract: An adjustable audio cable vibration reducing device for minimizing cable vibration. The device has two porous vertical pieces and at least one horizontal supporting piece. The length of the porous vertical pieces can be selected appropriately, as can the height of the horizontal supporting pieces. Multiple horizontal supporting pieces can be utilized to support several cables simultaneously. Sound can be tuned by changing the material of the horizontal supporting pieces or porous vertical pieces. Vibration can be transformed into heat energy by filling energy-transforming holes with a suitable material, such as rubber or foam.

Abstract: A backlighting device includes a light guide plate having a first side and a second side opposite to the first side, and a point light source to generate light incident on the first side of the light guide plate. The light guide plate has a plurality of longitudinal diffraction microstructures which are arranged and oriented according to the location of the point light source. The microstructures are varied gradually at least in size, position, density, or shape relative to the location of the point light source. When light is incident on the light guide plate from the point light source, the microstructures, which are varied gradually at least in size, position, density, or shape, function to regulate and adjust the illuminance of bright and dark areas in the light guide plate so as to provide uniform brightness.

Abstract: A backlighting device includes a light guide plate having a first side and a second side opposite to the first side, and a point light source to generate light incident on the first side of the light guide plate. The light guide plate has a plurality of longitudinal diffraction microstructures which are arranged and oriented according to the location of the point light source. The microstructures are varied gradually at least in size, position, density, or shape relative to the location of the point light source. When light is incident on the light guide plate from the point light source, the microstructures, which are varied gradually at least in size, position, density, or shape, function to regulate and adjust the illuminance of bright and dark areas in the light guide plate so as to provide uniform brightness.

Abstract: A revegetation and greening system is used to control erosion and to decorate infertile environments or steep structures. This system comprises one or many revegatation devices. Each device holds self-sufficient materials for growing plant with minimal need for frequent watering or advanced care. A layer of synthetic nets or grids can be placed on the surface of these structures to secure these devices. This system creates a stable and suitable environment for the growth of many plants in various conditions. Furthermore, by using many layers of this system simultaneously, it can provide erosion control and structure decoration in a very short time.