Abstract: A muzzle suitable for holding different sized nail clamps includes a restricting plate and a movable member. The movable member is coupled to the cover and movable in the restricting direction. The restricting plate is inserted in the nail-hitting track and movable in the restricting direction. Therefore, the restricting plate can be moved to press against the second lateral side of different sized nail clamps to clamp the nail clamp between the lateral surface of the nail-hitting track and the restricting plate, and the nail clamp can be firmly positioned in the nail-hitting track without slipping.

Abstract: A muzzle suitable for holding different sized nail clamps includes a restricting plate and a movable member. The movable member is coupled to the cover and movable in the restricting direction. The restricting plate is inserted in the nail-hitting track and movable in the restricting direction. Therefore, the restricting plate can be moved to press against the second lateral side of different sized nail clamps to clamp the nail clamp between the lateral surface of the nail-hitting track and the restricting plate, and the nail clamp can be firmly positioned in the nail-hitting track without slipping.

Abstract: A magazine assembly for accommodating of nail clips is used in combination with a nail gun, and includes: a magazine, a nail pushing assembly, and a muzzle. With the inserting portions of the nail clips and the nails received in the nail holding groove, the clipping portions of the nail clips received in the sliding groove, and the restricting protrusion received in the retaining space of the nail clips, the nail clips can be held firmly in the magazine. Besides, the punching groove and the nail feeding hole of the muzzle are in communication with the magazine to allow the nail clips to be pushed into the punching groove where the nail clips can be fired. Hence, the magazine assembly is not only capable of accommodating but also firing the nail clips.

Abstract: A traveling toy includes a gyroscopic unit, a traveling unit and an ornamental toy unit. The gyroscopic unit includes a motor having co-rotatable upper and lower output shafts, a rigid body having a rotational symmetry, and mounted co-rotatably on the upper output shaft of the motor, a driving gear mounted co-rotatably on the lower output shaft, and a transmission gear meshing the driving gear. The traveling unit is disposed below the gyroscopic unit, and includes a first bottom wheel adapted for traveling on a surface, and a gear train disposed between and meshing the transmission gear and the first bottom wheel. The ornamental toy unit is provided on the gyroscopic unit.

Abstract: A nail clamp includes a clamp body and a nail, the clamp body includes a first side which is provided with a rib extending in a direction X, and a second side which is provided with an engaging groove, the engaging groove includes an opening end located at the closed end of the clamp portion, and a bottom end located between the closed end and the open end of the clamp body, the rib of one nail clamp is inserted into the engaging groove of another nail clamp, so that two nail clamps are connected into a nail clamp strip in a stepped manner. When the nail is being fired, the nail is slantingly position relative to the nailing surface to avoid the walls surrounding the nail clamp, thus allowing the nail gun to conveniently fix the nail clamp to the nailing surface in corners.

Abstract: A nail clamp includes a clamp body and a nail, the clamp body includes a first side which is provided with a rib extending in a direction X, and a second side which is provided with an engaging groove, the engaging groove includes an opening end located at the closed end of the clamp portion, and a bottom end located between the closed end and the open end of the clamp body, the rib of one nail clamp is inserted into the engaging groove of another nail clamp, so that two nail clamps are connected into a nail clamp strip in a stepped manner. When the nail is being fired, the nail is slantingly position relative to the nailing surface to avoid the walls surrounding the nail clamp, thus allowing the nail gun to conveniently fix the nail clamp to the nailing surface in corners.

Abstract: A resistive random-access memory device includes a memory array, a read circuit, a write-back logic circuit and a write-back circuit. The read circuit reads the data stored in a selected memory cell and accordingly generates a first control signal. The write-back logic circuit generates a write-back control signal according to the first control signal and a second control signal. The write-back circuit performs a write-back operation on the selected memory cell according to the write-back control signal and a write-back voltage, so as to change a resistance state of the selected memory cell from a low resistance state to a high resistance state, and generates the second control signal according to the resistance state of the selected memory cell.

Abstract: The real-time touchless interaction method of the present invention comprises the following steps: characteristic information of an object is acquired; the characteristic information is recognized and used to generate a 3D icon which corresponds to the object; the characteristic information of the object continues to be acquired, and the 3D icon is reconstructed in real-time based on how the object is manipulated; at the same time, the 3D icon is utilized as an pointer to interact with the smart device without requiring any physical manipulation with the touch screen. A system and a computer program product for real-time touchless interaction are disclosed herein. The present invention enables users to interact with a smart device without physically touching the screen, thereby generating a plethora of new interactive applications and greatly increasing the versatility of available operations between the user and the smart device.

Abstract: A configurable logic block (CLB) and an operation method of the CLB are provided. The CLB includes memory units and a selecting circuit. The memory unit includes a first resistive non-volatile memory (RNVM) element and a second RNVM element. Top electrodes (TEs) of the first and second RNVM elements are coupled to an output terminal of the memory unit. Bottom electrodes (BEs) of the first and second RNVM elements are respectively coupled to a first bias terminal and a second bias terminal of the memory unit. The selecting circuit selects one of the memory units according to an input logic value and determines an output logic value of the CLB according to an output logic value of the selected memory unit.

Abstract: A logic gate including a first resistive non-volatile memory device and a second resistive non-volatile memory device is provided. When top electrodes of the first and the second resistive non-volatile memory devices are coupled to an output terminal of the logic gate, bottom electrodes of the first and the second resistive non-volatile memory devices are respectively coupled to a first input terminal and a second input terminal of the logic gate. When the bottom electrodes of the first and the second resistive non-volatile memory devices are coupled to the output terminal of the logic gate, the top electrodes of the first and the second resistive non-volatile memory devices are respectively coupled to the first input terminal and the second input terminal of the logic gate.

Abstract: A traveling toy includes a gyroscopic unit, a traveling unit and an ornamental toy unit. The gyroscopic unit includes a motor having co-rotatable upper and lower output shafts, a rigid body having a rotational symmetry, and mounted co-rotatably on the upper output shaft of the motor, a driving gear mounted co-rotatably on the lower output shaft, and a transmission gear meshing the driving gear. The traveling unit is disposed below the gyroscopic unit, and includes a first bottom wheel adapted for traveling on a surface, and a gear train disposed between and meshing the transmission gear and the first bottom wheel. The ornamental toy unit is provided on the gyroscopic unit.

Abstract: A configurable logic block (CLB) and an operation method of the CLB are provided. The CLB includes memory units and a selecting circuit. The memory unit includes a first resistive non-volatile memory (RNVM) element and a second RNVM element. Top electrodes (TEs) of the first and second RNVM elements are coupled to an output terminal of the memory unit. Bottom electrodes (BEs) of the first and second RNVM elements are respectively coupled to a first bias terminal and a second bias terminal of the memory unit. The selecting circuit selects one of the memory units according to an input logic value and determines an output logic value of the CLB according to an output logic value of the selected memory unit.

Abstract: A resistive random-access memory device includes a memory array, a read circuit, a write-back logic circuit and a write-back circuit. The read circuit reads the data stored in a selected memory cell and accordingly generates a first control signal. The write-back logic circuit generates a write-back control signal according to the first control signal and a second control signal. The write-back circuit performs a write-back operation on the selected memory cell according to the write-back control signal and a write-back voltage, so as to change a resistance state of the selected memory cell from a low resistance state to a high resistance state, and generates the second control signal according to the resistance state of the selected memory cell.

Abstract: A logic gate including a first resistive non-volatile memory device and a second resistive non-volatile memory device is provided. When top electrodes of the first and the second resistive non-volatile memory devices are coupled to an output terminal of the logic gate, bottom electrodes of the first and the second resistive non-volatile memory devices are respectively coupled to a first input terminal and a second input terminal of the logic gate. When the bottom electrodes of the first and the second resistive non-volatile memory devices are coupled to the output terminal of the logic gate, the top electrodes of the first and the second resistive non-volatile memory devices are respectively coupled to the first input terminal and the second input terminal of the logic gate.

Abstract: A circuit and a method for controlling the write timing of a non-volatile memory are provided. The method includes the following steps. First, a resistance state switching of at least one memory cell of the non-volatile memory executing a writing operation is monitored to output a control signal. The memory cell stores data states with different resistance states. A write timing is input to the memory cell through a timing control line. Next, the write timing is generated based on a clock signal and the control signal. The write timing is enabled at the beginning of a cycle of the clock signal, and is disabled when the memory cell finishes the resistance state switching.

Abstract: A phase change memory with an operating current that can be gradually increased or gradually decreased. The phase change memory has a phase change storage element, a transistor, and a control circuit. The transistor is operable to adjust the operating current flowing through the phase change storage element. The transistor has a first terminal coupled to a voltage source, a second terminal coupled to the phase change storage element, and a control terminal receiving a control signal from the control circuit. The control circuit is specially designed to limit the transistor in a linear region.

Abstract: A metal-air fuel cell module includes a cap seat connected detachably to a casing and having a plug portion extending into an inner accommodating space in the casing for plugging an opening in the casing; a conductive gas-diffusion sheet disposed in the casing for covering sealingly air inlets in the casing, and permitting air to pass through; an electrolyte solution filled in the inner accommodating space; a metal sheet disposed in the inner accommodating space and connected detachably to the plug portion of the cap seat; a first electrode plate mounted on the casing, extending into the inner accommodating space and in electrical contact with the gas-diffusion sheet; and a second electrode plate mounted in the cap seat, extending into the inner accommodating space and in electrical contact with the metal sheet.

Abstract: The power brick assembly includes a solar energy collecting plate carried on a carrier for collecting solar energy to generate electrical energy. A first connecting port is mounted on the carrier so that the carrier is movable relative to the first connecting port. A mechanical rotary power generating unit includes a second connecting port mounted on a brick-like casing and connected electrically and detachably to the first connecting port so that the first connecting port is movable relative to the second connecting port. The brick-like casing receives a battery module for supplying electric power, a driving module for generating a mechanical rotary power output in response to an electric power input, and a control module operable to output the electric power input based on one of the electrical energy from the solar energy collecting plate and the electric power from the battery module.

Abstract: A verification circuit for a phase change memory array is provided. A sensing unit senses a sensing voltage from a memory cell of the phase change memory array according to an enable signal. A comparator generates a comparing signal according to the sensing voltage and a reference voltage, so as to indicate whether the memory cell is in a reset state. A control unit generates a control signal according to the enable signal. An operating unit generates a first signal according to the control signal, so as to indicate whether the comparator is active. An adjustment unit provides a writing current to the cell, and increases the writing current according to the control signal until the comparing signal indicates that the memory cell is in a reset state.

Abstract: An embodiment of a writing system for a phase change memory based on a present application is disclosed. The writing system comprises a first phase change memory (PCM) cell, a second PCM cell, a first writing circuit and a verifying circuit. The first writing circuit executes a writing procedure, receives and writes a first data to the first PCM cell. The verifying circuit executes a verifying procedure and the circuit further comprises a processing unit and a second writing circuit. The processing unit reads and compares the data stored in the second PCM cell with a second data. The second writing circuit writes the second data to the second PCM cell when the data stored in the second PCM cell and the second data are not matched.