A simulated three-dimensional flame apparatus, comprising a base (1), a mist generation mechanism disposed in the base (1), and an outer cover (2) and a light emitting mechanism connected to the base (1). The inner cavity of the outer cover (2) is a mist accumulation chamber (3), a mist outlet (4) of the mist generation mechanism is in communication with the mist accumulation chamber (3), or a part that generates mist in the mist generation mechanism is disposed inside of the mist accumulation chamber (3). The top of the outer cover (2) is provided with a flame outlet (5). The light emitting mechanism is disposed inside of the outer cover (2) and the light emission direction thereof is toward the flame outlet (5), such that the light beam from the light emitting mechanism radiates on the mist emitted from the flame outlet (5), and the refraction of the light beam off the mist forms a dynamic flame (6). The light beam from the light source (17) radiates on the mist which is emitted irregularly, the light refracts off the mist and forms a dynamic flame (6), thereby presenting realistically the flickering effect of a burning flame.

An LED diffusing assembly having a housing, a plurality of LED lights, and an LED control circuit. Each of the plurality of LED lights has a fixed intensity. Once activated the LED control circuit activates and deactivates each LED light at different times and for different intervals to create a flickering effect.

A lighting device has a power interface and a control circuit in communication with a program and the LEDs to simulate a flame. The program determines a first group of LED control integers to simulate a perpetual middle with a perpetual middle center and a perpetual middle range within which one or more of the LEDs are to be at least partially actuated. At least one LED is actuated based on the first group of LED control integers. A first target for simulating movement of the perpetual middle center toward the first target and a first acceleration value is defined. The program determines a second group of LED control integers based on the first target and the first acceleration value such that the perpetual middle center becomes closer to the first target. One or more of the LEDs is actuated based on the second group of LED control integers.

An apparatus, system, and method for lighting effects, including simulating a flame. A three dimensional carrier includes an array of a plurality of light sources distributed on it. A control circuit coordinates on/off of the light sources in a manner to simulate a jumping flame. In one embodiment, the three dimensional carrier and LEDs are encapsulated in an at least partially light transmissive cover. This light modular engine includes a control circuit and an interface to electrical power. The system can include the light engine in a light fixture such as an architectural fixture. The methodology can include a sequence of on/off and brightness variations for the array of light sources.

A solar powered lighting element with a simulated flame and an electric insect eliminator includes a lighting portion with a conducting grid and a light portion that simulates a flickering flame which are powered by a rechargeable battery that is recharged using a solar panel. One or more UV light elements are provided in addition to the flickering flame to attract insects.

A faux fireplace having a video faux flame with a selectively controllable speed. A video file stored in memory includes a video loop of the faux flame, wherein a user can selectively control a playback speed of the video loop. This allows a user to control a presentation of the flame, and a flicker rate of the flame to establish an ambiance. A remote control, such as a smart mobile device running an app, can be used to establish the speed of the of the video faux flame and other parameters.

An electronic lighting device and a method for manufacturing the same are disclosed. The electronic lighting device includes an outer shell with a first opening at a top surface and a core contained within the outer shell. The core includes a left semicircular structure and a right semicircular structure arranged to form a circular shape that is aligned with the first opening at the top surface of the outer shell. The device includes a flame component positioned partially in the internal cavity. The device also includes a light emitting element disposed at least partially in a lighting element installation cradle on a sidewall of the core to hold the light emitting element at a non-zero angle with respect to a longitudinal axis of the electronic lighting device to allow illumination of the flame component. The device further includes a control circuit to control an operation of the lighting emitting element.

A flame lamp made of filament lamps, including a fixing device, a controller and one or a plurality of LED filament lamps, wherein the LED filament lamps are fixedly installed on the fixing device and electrically connected with the controller, and the controller is used for controlling the light emitting frequency and pulse brightness of the LED filament lamps. Each LED filament lamp includes at least two light sources from top to bottom, wherein the light emitting frequencies and/or the pulse brightnesses of the at least two light sources are different. Each LED filament lamp is vertically arranged, and the upper end and the lower end of each LED filament lamp are fixedly connected with the fixing device. Various specific assembly methods are provided. The present invention innovatively makes a flame lamp of filament lamps and uses one or a combination of a plurality of filaments to achieve the luminous effect of a flame through different assembly structures and flashing methods, which can effectively simplify the production process, reduce production cost and provide a good visual effect.

An apparatus, system, and method for lighting effects, including simulating a flame. A three dimensional carrier includes an array of a plurality of light sources distributed on it. A control circuit coordinates on/off of the light sources in a manner to simulate a jumping flame. In one embodiment, the three dimensional carrier and LEDs are encapsulated in an at least partially light transmissive cover. This light modular engine includes a control circuit and an interface to electrical power. The system can include the light engine in a light fixture such as an architectural fixture. The methodology can include a sequence of on/off and brightness variations for the array of light sources.

An electronic scented candle is described that includes a movable flame-shaped component, a shell including an installation chamber, a fragrance container that is removably positioned inside the installation chamber and a scent chamber. An electric fan is positioned within the shell to drive the air into the scent chamber and a scent outlet coupled to the scent chamber to allow the fragrance material to leave the scent chamber and to reach an external environment of the electronic scented candle. The electronic candle also includes a receptacle for connecting a power cord on a bottom surface of the electronic candle. The bottom surface includes a plurality of protruding stands that provide a space to allow the power cord to be connected to the receptacle and be routed below the bottom surface.