Simulation flame fireplace with 3D aerial imaging function

Abstract

The utility model relates to the technical field of simulation flame fireplaces, in particular to a simulation flame fireplace with 3D aerial imaging, which comprises a fireplace box body, transparent plates are mounted on the surfaces of the fireplace box body, control buttons are mounted on the surface of a mounting base, simulation charcoal is mounted in the fireplace box body, and the simulation charcoal is mounted in the mounting base. Simulation wood charcoal is arranged in the fireplace box body, simulation flame bodies are arranged on the surfaces of the simulation wood charcoal, semi-transparent imaging screens are installed on the inner walls of the fixing boxes, one ends of the semi-transparent imaging screens extend into the fireplace box body, multi-color lamp bead plates are arranged in the fixing boxes, ultra-transparent film-coated acrylic plates are installed in the fireplace box body, and the multi-color lamp bead plates and the ultra-transparent film-coated acrylic plates are arranged in the fixing boxes. The ultra-transparent coated acrylic plates are respectively positioned on two sides of the simulation charcoal, and are symmetrically distributed by taking the simulation charcoal as a center. According to the simulation flame fireplace with the 3D aerial imaging function, under the action of the LED lamp bead plate, orange light emitted by the simulation charcoal can flicker, and the vivid combustion effect can be achieved between the simulation charcoal and the simulation flame body.

Description

Technical Field

[0001] This utility model relates to the field of simulated flame fireplace technology, specifically a simulated flame fireplace with 3D aerial imaging. Background Technology

[0002] Simulated fireplaces rely on light reflection to create a two-dimensional planar flame, coupled with simulated charcoal, resulting in a realistic effect but not a real flame. Decorative simulated fireplaces are more prominent in their decorative function and are the most widespread. They simulate the effect of "burning wood" in a fireplace to achieve the purpose of decorating the house, but have no heating function. They are often seen in neoclassical and other styles. Simulated fireplaces do not need to consider the problem of chimneys and the environmental pollution caused by burning firewood. Now there is a need for a simulated flame fireplace with 3D aerial imaging. Utility Model Content

[0003] The purpose of this invention is to provide a simulated flame fireplace with 3D aerial imaging, in order to solve the problems mentioned in the background art, such as the simulated flame fireplace being prone to displacement due to collisions during use, the inconvenience of disassembling and replacing multi-color LED boards, and the difficulty in inspection and maintenance.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a simulated flame fireplace with 3D aerial imaging, comprising a fireplace housing, a mounting base installed on the bottom surface of the fireplace housing, a fixing box installed on the top surface of the fireplace housing, a door provided on the surface of the fixing box, the door being detachably connected to the surface of the fixing box, a transparent panel installed on the surface of the fireplace housing, control buttons installed on the surface of the mounting base, simulated charcoal installed inside the fireplace housing, simulated flame bodies provided on the surface of the simulated charcoal, a semi-transparent imaging screen installed on the inner wall of the fixing box, one end of the semi-transparent imaging screen extending into the interior of the fireplace housing, a multi-color LED bead panel installed inside the fixing box, and an ultra-transparent coated acrylic panel installed inside the fireplace housing, the ultra-transparent coated acrylic panels being located on both sides of the simulated charcoal and symmetrically distributed with the simulated charcoal as the center.

[0005] Preferably, the simulated charcoal has an LED light bead board installed inside, the bottom end of which extends into the interior of the mounting base and is fixed to the inner wall of the mounting base. Each of the fixed boxes has a reflector shaft installed inside, which rotates and engages with the inner wall of the fixed box. Each reflector shaft has a reflector sheet installed on its surface. Each fixed box has a rotating motor installed inside, the input end of which is electrically connected to the output end of the control button. The output end of the rotating motor has a rotating shaft installed through a coupling, and one end of the rotating shaft is fixed to the surface of the reflector shaft.

[0006] Preferably, a display screen is installed on the top of the fixed box (102), with the screen facing downwards, displaying the flame image on the simulated charcoal (113).

[0007] Compared with existing technologies, the beneficial effects of this utility model are as follows: This simulated flame fireplace with 3D aerial imaging uses a reflective axis to drive a reflector to rotate inside a fixed box. Under the action of the reflective axis and the reflector, the light emitted by the multi-color LED bead board is reflected onto the surface of a semi-transparent imaging screen. Then, through the semi-transparent imaging screen and the ultra-transparent coated acrylic plate, a simulated flame body is mirrored onto the surface of simulated charcoal. Under the action of the LED bead board, the orange light emitted by the simulated charcoal produces a flickering effect, creating a realistic burning effect between the simulated charcoal and the simulated flame body. Because the reflective axis and the reflector are constantly rotating, the light emitted by the multi-color LED bead board can be reflected on the surface of the simulated charcoal in a jumping manner, making the effect of the simulated flame body more realistic. At the same time, because the structure of the ultra-transparent coated acrylic plate is symmetrically distributed, the effect of the simulated flame body when mirrored onto the surface of the simulated charcoal is even more realistic. Attached Figure Description

[0008] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0009] Figure 2 This is a schematic diagram of the front cross-sectional structure of this utility model;

[0010] Figure 3 This is an enlarged side view sectional diagram of the present invention.

[0011] In the diagram: 1. Fireplace housing; 101. Mounting base; 102. Fixing box; 103. Control button; 104. Transparent panel; 105. Door; 106. Reflector shaft; 107. Reflector sheet; 108. Rotating motor; 109. Multi-color LED bead panel; 110. Semi-transparent imaging screen; 111. LED bead panel; 112. Simulated flame body; 113. Simulated charcoal; 114. Ultra-transparent coated acrylic panel. Detailed Implementation

[0012] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0013] The present invention provides a structure for a simulated flame fireplace with 3D aerial imaging, as follows: Figure 1 and Figure 2As shown, the fireplace includes a fireplace housing 1. A mounting base 101 is installed on the bottom surface of the fireplace housing 1. A fixing box 102 is installed on the top surface of the fireplace housing 1. A door 105 is provided on the surface of the fixing box 102, and the door 105 is detachably connected to the surface of the fixing box 102. A transparent panel 104 is installed on the surface of the fireplace housing 1. A control button 103 is installed on the surface of the mounting base 101; the control button 103 can be of the LA series. Simulated charcoal 113 is installed inside the fireplace housing 1. Simulated flame bodies 112 are provided on the surface of the simulated charcoal 113. An LED light bead board 111 is installed inside the simulated charcoal 113, and the bottom end of the LED light bead board 111 extends into the interior of the mounting base 101 and is fixed to the inner wall of the mounting base 101. A semi-transparent imaging screen 110 is installed on the inner wall of the fixing box 102. One end of 110 extends into the interior of the fireplace housing 1. The interior of each fixed box 102 is equipped with a multi-color LED bead plate 109. The interior of each fixed box 102 is equipped with a reflector shaft 106. The reflector shaft 106 rotates and engages with the inner wall of the fixed box 102. The surface of each reflector shaft 106 is equipped with a reflector sheet 107. The interior of each fixed box 102 is equipped with a rotary motor 108. The rotary motor 108 can be of the JO series. The input end of the rotary motor 108 is electrically connected to the output end of the control button 103. The output end of the rotary motor 108 is equipped with a rotating shaft through a coupling. One end of the rotating shaft is fixed to the surface of the reflector shaft 106. The interior of each fireplace housing 1 is equipped with an ultra-transparent coated acrylic plate 114. The ultra-transparent coated acrylic plates 114 are located on both sides of the simulated charcoal 113 and are symmetrically distributed with the simulated charcoal 113 as the center.

[0014] Furthermore, such as Figure 2 As shown, both the surface of the multi-color LED bead board 109 and the inner wall of the fixing box 102 are provided with a disassembly and replacement mechanism 2. The disassembly and replacement mechanism 2 includes a guide groove 21, a guide block 22 and a disassembly and replacement assembly 23. The disassembly and replacement assembly 23 is provided on the surface of the multi-color LED bead board 109 and the inner wall of the fixing box 102.

[0015] In practice, when the user needs to change the color of the simulated flame body 112, the multi-color LED bead board 109 needs to be replaced. At this time, the user pulls the door 105 on the surface of the fixed box 102 to remove the door 105 from the surface of the fixed box 102, and then pulls the multi-color LED bead board 109 inside the fixed box 102 to pull the multi-color LED bead board 109 out of the fixed box 102 and change the brightness color of the multi-color LED bead board 109, so as to realize the function of disassembling and replacing the multi-color LED bead board 109 of the simulated flame fireplace.

[0016] The user controls the multi-color LED board 109 to work, emitting light under its influence. At this time, the user operates the control button 103 on the surface of the mounting base 101, causing the control button 103 to control the rotating motor 108 inside the fixing box 102. The rotating motor 108 drives the reflector shaft 106 to rotate inside the fixing box 102. Simultaneously, the reflector shaft 106 drives the reflector sheet 107 to rotate inside the fixing box 102. Under the action of the reflector shaft 106 and the reflector sheet 107, the light emitted by the multi-color LED board 109 is reflected onto the surface of the semi-transparent imaging screen 110, and then mirrored through the semi-transparent imaging screen 110 and the ultra-transparent coated acrylic plate 114 to form an image. The real flame body 112 is placed on the surface of the simulated charcoal 113. Under the action of the LED light bead plate 111, the orange light emitted by the simulated charcoal 113 flickers, creating a realistic burning effect between the simulated charcoal 113 and the simulated flame body 112. Since the reflector axis 106 and the reflector sheet 107 are constantly rotating, the light emitted by the multi-color light bead plate 109 can be reflected on the surface of the simulated charcoal 113, making the effect of the simulated flame body 112 even more realistic. At the same time, since the structure of the ultra-transparent coated acrylic plate 114 is symmetrically distributed, the effect of the simulated flame body 112 when reflected onto the surface of the simulated charcoal 113 is even more realistic.

[0017] In this embodiment, the flame image can be displayed on a screen instead of the flame simulated by the reflector 107. Specifically, a screen is installed on the top of the fixed box 102 with the screen facing down, so that the flame image is displayed on the simulated charcoal 113, which can make the flame effect more realistic.

[0018] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention.

Claims

1. A simulated flame fireplace with 3D aerial imaging, comprising a fireplace cabinet (1), characterized in that: The surface of the bottom of the fireplace cabinet (1) is provided with a mounting base (101), the surface of the top of the fireplace cabinet (1) is provided with a fixed box (102), the surface of the fixed box (102) is provided with a door body (105), the door body (105) is detachably connected with the surface of the fixed box (102), the surface of the fireplace cabinet (1) is provided with a transparent plate (104), the surface of the mounting base (101) is provided with a control button (103), the inside of the fireplace cabinet (1) is provided with a simulated charcoal (113), the surface of the simulated charcoal (113) is provided with a simulated flame body (112), the inner wall of the fixed box (102) is provided with a semi-transparent imaging screen (110), one end of the semi-transparent imaging screen (110) extends to the inside of the fireplace cabinet (1), the inside of the fixed box (102) is provided with a multi-color lamp bead plate (109), the inside of the fireplace cabinet (1) is provided with a super-transparent coated acrylic plate (114), the super-transparent coated acrylic plate (114) is located on both sides of the simulated charcoal (113), and the super-transparent coated acrylic plate (114) is symmetrically distributed around the simulated charcoal (113).

2. A simulated flame fireplace with 3D in-air imaging according to claim 1, characterized in that: The inside of the simulated charcoal (113) is provided with an LED lamp bead plate (111), the bottom end of the LED lamp bead plate (111) extends to the inside of the mounting base (101) and is fixed with the inner wall of the mounting base (101), the inside of the fixed box (102) is provided with a reflecting shaft (106), the reflecting shaft (106) and the inner wall of the fixed box (102) are rotatably connected, the surface of the reflecting shaft (106) is provided with a reflecting sheet (107), the inside of the fixed box (102) is provided with a rotating motor (108), the input end of the rotating motor (108) is electrically connected with the output end of the control button (103), the output end of the rotating motor (108) is provided with a rotating shaft through a shaft coupling, and one end of the rotating shaft is fixed with the surface of the reflecting shaft (106).

3. The simulated flame fireplace with 3D in-air imaging of claim 1, wherein: The top of the fixed box (102) is provided with a display screen, the picture part of the display screen faces downward, and a flame picture is displayed on the simulated charcoal (113).

Images