A multifunctional electric fireplace includes a casing, a main control board, a decorative light guide plate, a light emitting device, and a simulated charcoal. The decorative light guide plate is disposed on the inner wall of an accommodating chamber of the casing, so that the light of the light emitting device is irradiated on the side of the decorative light guide plate. The main control board controls the light change of the light emitting device, so that the decorative light guide plate exhibits various statics patterns or dynamic patterns to form realistic visual effects. The functions of simulation are diverse, which can meet the requirements for aesthetics.

A fireplace cavity insert provides still and video images appearing to emanate from within the insert.

A flame simulating assembly is provided with a reflected flickering light that includes only one light source. Light from the light source passes through a rotating flicker element onto an angled reflector, or mirror, that reflects light up onto a simulated fuel bed and the some of the light is reflected off of the flicker elements towards a flame screen to create a simulated flame. The clipping flicker elements creates a fluttering light effect due to the flicker elements intermittently dipping into the light path. This fluctuating light is reflected onto the logs and ember bed in front and creates a dancing effect, which simulates glowing embers.

A decorative-flame burner includes a manifold elongated along an axis and a plurality of nipples supported by the manifold. A jet is supported by and protrudes outwardly from each nipple. Each nipple is elongated transverse to the axis from a first end of the nipple to a second end of the nipple. Each nipple has threads at the first end of the nipple and the manifold includes threaded holes spaced from each other along the axis and threadedly engaged with the threads on the first ends of the nipples.

A simulated fireplace appliance is provided having an imaging system and a modelled fuel bed having modelled fuel bed features. The imaging system is configured to generate flame imagery overlaying the modelled fuel bed. The imaging system may have an image display apparatus adapted to project flame image data. One or more image creation screens may be adapted to receive projected image data and a translucent panel may be adapted to receive light from the image creation screens and partially reflect the light from the appliance.

The present invention discloses a flame simulating device, comprising a mist generating chamber, an atomizing head, an air orifice and a nozzle. The inside of the mist generating chamber is provided with a liquid and the atomizing head, the atomizing head being capable of atomizing the liquid inside the mist generating chamber, the two sides of the nozzle being set as Coanda curved surfaces, the cross section of the air orifice being in a constricted shape and providing an air flow blown upward such that under the Venturi effect, the air flow blown upward will guide and attract the mist from inside the mist generating chamber to vent out and flow into a nozzle inlet; the upper surface of the mist generating chamber is provided with a breathing port, and the breathing port directly faces the atomizing head. Due to the Coanda curved surface on the side of the nozzle, the mist flows along both sides of the nozzle under the Coanda effect and then vents out of the nozzle.

A flame simulating assembly is provided with a reflected flickering light that includes only one light source. Light from the light source passes through a rotating flicker element onto an angled reflector, or mirror, that reflects light up onto a simulated fuel bed and the some of the light is reflected off of the flicker elements towards a flame screen to create a simulated flame. The clipping flicker elements creates a fluttering light effect due to the flicker elements intermittently clipping into the light path. This fluctuating light is reflected onto the logs and ember bed in front and creates a dancing effect, which simulates glowing embers.

An intelligent terminal control simulated flame generator is disclosed. A circuit control device is provided on the basis of a traditional simulated flame generator. All adjustable mechanisms of various light sources, motors and the like are connected with the circuit control device, so that the circuit control device serves as the core of communication and control to achieve wireless communication with an intelligent terminal After the simulated flame generator is actuated, the user not only feels the temperature but also hears the sound of burning firewood and sees the change of the flame, providing a real feeling.

A flame simulating assembly is provided with a reflected flickering light that includes only one light source. Light from the light source passes though a rotating flicker element onto an angled reflector, or mirror, that reflects light up onto a simulated fuel bed and the some of the light is reflected off of the flicker elements towards a flame screen to create a simulated flame. The clipping flicker elements creates a fluttering light effect due to the flicker elements intermittently dipping into the light path. This fluctuating light is reflected onto the logs and ember bed in front and creates a dancing effect, which simulates glowing embers.