Abstract: A water curtain simulated candle lamp, which is mainly provided to achieve the dynamic effect of simulating candle burning by using water curtain projection, including a base body, a cover body, a spraying device, a light source and a floating wick. Wherein, a water container with an upper opening is set on the base body, the cover body including a concave upper surface is used to cover the water container, and a spacing hole is set on its concave end; the spraying device set inside the water container includes a pump and a spray pipe, which is used to spray a water curtain simulating flame shape from the spacing hole; the light source is used to light up the sprayed water curtain, the floating wick set inside the spray pipe is provided to move up and down with water flow to form a wick of simulating candle lamp.

Abstract: A flame simulating device includes an upper part, a light source, a container and an oscillation device. The upper part has a flame element which freely swings relative to the upper part, and the light source located in the upper part emits light toward the flame-shaped portion. The container is located below the upper part and contains liquid therein. The oscillation device is located at the underside of the container and oscillates the liquid in the container to generate liquid vapor and liquid droplets, the liquid droplets hit and irregularly swing the flame element. The liquid vapor provides a foggy environment.

Abstract: A flame simulating device includes an upper part, a light source, a container and an oscillation device. The upper part has a flame element which freely swings relative to the upper part, and the light source located in the upper part emits light toward the flame-shaped portion. The container is located below the upper part and contains liquid therein. The oscillation device is located at the underside of the container and oscillates the liquid in the container to generate liquid vapor and liquid droplets, the liquid droplets hit and irregularly swing the flame element. The liquid vapor provides a foggy environment.

Abstract: A simulated flame structure comprises a bracket, a simulated flame element, a first magnetic element and a light-emitting element. The bracket is formed with a position limiting hole. The simulated flame element is restricted in the position limiting hole through a position limiting portion. The first magnetic element is disposed on the simulated flame element. The light-emitting element is disposed on the bracket and outputs light toward the simulated flame element. By magnetic attractive actions between the first magnetic element and a metal element in the position limiting hole, the simulated flame element may be suspended in the position limiting hole and naturally swing relatively to the bracket, thereby achieving visual effects of optimized flame combustion.

Abstract: A water curtain simulated candle lamp, which is mainly provided to achieve the dynamic effect of simulating candle burning by using water curtain projection, including a base body, a cover body, a spraying device, a light source and a floating wick. Wherein, a water container with an upper opening is set on the base body, the cover body including a concave upper surface is used to cover the water container, and a spacing hole is set on its concave end; the spraying device set inside the water container includes a pump and a spray pipe, which is used to spray a water curtain simulating flame shape from the spacing hole; the light source is used to light up the sprayed water curtain, the floating wick set inside the spray pipe is provided to move up and down with water flow to form a wick of simulating candle lamp.

Abstract: A dynamic flame simulating device mainly comprises an upper base, a flame element suspended from the upper base, a light source providing light rays, and a driving assembly below the flame element. The driving assembly further comprises an electromagnetic coil and a second magnetic element, wherein the electromagnetic coil is powered on to drive the second magnetic element to bounce toward a first magnetic element on the bottom end of the flame element to generate repellent magnetic acting forces to make the flame element swing naturally and achieve the dynamic visual effect of the natural beating of the burning flame.

Abstract: A dynamic flame simulating device mainly comprises an upper base, a flame element suspended from the upper base, a light source providing light rays, and a driving assembly below the flame element. The driving assembly further comprises an electromagnetic coil and a second magnetic element, wherein the electromagnetic coil is powered on to drive the second magnetic element to bounce toward a first magnetic element on the bottom end of the flame element to generate repellent magnetic acting forces to make the flame element swing naturally and achieve the dynamic visual effect of the natural beating of the burning flame.

Abstract: A simulated flame structure comprises a bracket, a simulated flame element, a first magnetic element and a light-emitting element. The bracket is formed with a position limiting hole. The simulated flame element is restricted in the position limiting hole through a position limiting portion. The first magnetic element is disposed on the simulated flame element. The light-emitting element is disposed on the bracket and outputs light toward the simulated flame element. By magnetic attractive actions between the first magnetic element and a metal element in the position limiting hole, the simulated flame element may be suspended in the position limiting hole and naturally swing relatively to the bracket, thereby achieving visual effects of optimized flame combustion.

Abstract: A candle stand with faux flame is disclosed, including a lamp stand, power supply, support frame, holder, flame decorative element, light-emitting body, motor, driving element, first resistive magnet body, and at least a second resistive magnet body. The support frame is fixedly standing upon lamp stand; the flame decorative element is suspended at top of holder; the light-emitting body emits light towards flame decorative element. The power supply and motor are inside lamp stand for driving the driving element. The first resistive magnet body is disposed at lower end of flame decorative element. The second resistive magnet body is disposed on the driving element. When the motor drives the driving element, the second resistive magnet body moves close to or away from first resistive magnet body so as to sway flame decorative element. With projected light, the swaying flame decorative element emulates a flame.

Abstract: A lamp stand with faux flame is provided, including a lamp base, a support frame, a flame holder, a flame flake, a light-emitting body and a power supply, wherein power supply disposed inside lamp base; support frame fixedly standing upon lamp base; flame holder fixedly connected to top of support frame and having a vertical via hole; flame flake penetrating via hole and protruding beyond top of flame holder; light-emitting body fixed to flame holder and emitting light towards the direction of flame flake. The light-emitting body is electrically connected to power supply. The lamp stand further includes a motor, an actuator and a pusher. The motor is fixed to lamp base and electrically connected to power supply. The actuator is connected to output of motor. The pusher is disposed on top of actuator. The present invention can replace conventional candle to achieve visual effect of flickering flame.

Abstract: A lamp stand with faux flame is provided, including a lamp base, support frame, flame holder, flame flake, light-emitting body, power supply, driving device, impact arm and driving circuit; wherein power supply disposed inside lamp base; support frame standing upon lamp base; flame holder connected to support frame and having a vertical via hole; flame flake penetrating via hole and protruding beyond top of flame holder; light-emitting body fixed to flame holder and emitting light towards direction of flame flake; light-emitting body connected to power supply; driving device fixed to lamp base; one end of impact arm connected to driving device output. The driving circuit and power supply are connected and drive output end of the driving device to suck in or bounce out to generate a propulsion, making impact arm to hit flame flake. The present invention can replace conventional candle to achieve visual effect of flickering flame.

Abstract: A candle stand with faux flame is disclosed, including a lamp stand, power supply, support frame, holder, flame decorative element, light-emitting body, motor, driving element, first resistive magnet body, and at least a second resistive magnet body. The support frame is fixedly standing upon lamp stand; the flame decorative element is suspended at top of holder; the light-emitting body emits light towards flame decorative element. The power supply and motor are inside lamp stand for driving the driving element. The first resistive magnet body is disposed at lower end of flame decorative element. The second resistive magnet body is disposed on the driving element. When the motor drives the driving element, the second resistive magnet body moves close to or away from first resistive magnet body so as to sway flame decorative element. With projected light, the swaying flame decorative element emulates a flame.

Abstract: The present invention relates to a porous magnetic antenna, comprising: an antenna; an insulating layer, having one side next to said antenna; and a magnetic layer, placed next to the other side of the insulating layer, separated from said antenna with a distance, and having at least one hole. The porous magnetic antenna has the advantages of shaping the field pattern, lowering the sensitivity, improving the gain value and possessing stable directionality.

Abstract: A clock system includes a clock signal generating circuit and a controlling circuit. The clock signal generating circuit is used for generating a primary clock signal and a reference clock signal both derived from an oscillating signal of the clock signal generating circuit. The controlling circuit is coupled to the clock signal generating circuit and used for receiving the primary clock signal under a normal mode and compensating timing information generated from the primary clock signal according to the reference clock signal when the clock system exits a power saving mode. The primary clock signal is de-activated when the clock system enters the power saving mode and is activated when the clock system exits the power saving mode. The clock system can keep a continue clock for system to use when the primary clock signal is gated or power saving mode is entered.

Abstract: A clock system includes a clock signal generating circuit and a controlling circuit. The clock signal generating circuit is used for generating a primary clock signal and a reference clock signal both derived from an oscillating signal of the clock signal generating circuit. The controlling circuit is coupled to the clock signal generating circuit and used for receiving the primary clock signal under a normal mode and compensating timing information generated from the primary clock signal according to the reference clock signal when the clock system exits a power saving mode. The primary clock signal is de-activated when the clock system enters the power saving mode and is activated when the clock system exits the power saving mode. The clock system can keep a continue clock for system to use when the primary clock signal is gated or power saving mode is entered.

Abstract: A driving circuit for lighting lamp is provided, including, in the order of, a bridge rectifier, an EMC filter, a control circuit, a power transformer and a cold cathode fluorescent load, with a feedback loop connected in series between the control circuit and the power transformer. A cold cathode fluorescent lamp using the driving circuit for lighting lamp is also provided, including a plastic lamp tube, a cold cathode fluorescent lamp tube, installation electrodes, frame and driving circuit module. Two contact electrodes are connected to the electrodes of the installation electrodes on the two ends of the plastic lamp tube for electrical connection to the conventional fluorescent lamp base. The circuit of the present invention is simple in structure, uses less number of components, is inexpensive in manufacturing, novel control mechanism and high reliable.

Abstract: A lighting lamp apparatus with replaceable fuse element is provided, including a light base having a light source, a light focusing shade engaged to top of the light base, and a light head, engaged to bottom of the light base as an electrical connection interface of the entire apparatus to a light bulb installation part, a circuit set being placed between said light head and said light base, where the circuit set further includes a fuse. The fuse is placed inside a fuse base, and one end of said fuse base is exposed outside of surface of said light head for easy replacement of the fuse.

Abstract: A light-emitting diode(LED) light rod with screw head is provided, including a circuit board having a plurality of LED lights distributed evenly on the surface; a screw head further including an insulated main body and a metal screw shell, the inside of main body having a control circuit for electrical connection with the screw shell and circuit board respectively, the screw shell matching the conventional socket base for tungsten light bulb in a conventional light string, and control circuit for transforming household alternating current (AC) into direct current (DC) for LED lights; and a rod shell, for the light to shine through and for housing the circuit board, the rod shell having one end closed and the other end connected to the main body of the screw head.

Abstract: The present invention relates to a porous magnetic antenna, comprising: an antenna; an insulating layer, having one side next to said antenna; and a magnetic layer, placed next to the other side of the insulating layer, separated from said antenna with a distance, and having at least one hole. The porous magnetic antenna has the advantages of shaping the field pattern, lowering the sensitivity, improving the gain value and possessing stable directionality.

Abstract: A magnetic antenna is provided. The magnetic antenna includes an antenna; and a magnetic piece configured near the antenna with a distance therebetween.