A display device for environment design capable of simulating illumination and a method of using the same

Abstract

The application relates to the field of environmental design, in particular to a display device for environmental design capable of simulating illumination and a use method thereof, which comprises a fixed disc, an exhibition stand and an illumination simulation assembly. The illumination simulation assembly comprises a rotation simulation track, a first sliding piece and a revolution simulation track. The rotation simulation track is arranged on the fixed disc, a control panel is fixedly arranged on the fixed disc, the first sliding piece is slidingly arranged on the rotation simulation track, a light source pointing to the exhibition stand is fixedly arranged on the first sliding piece, the revolution simulation track is arranged below the fixed disc, and the revolution simulation track and the rotation simulation track are slidingly matched. The simulated illumination environment can be simultaneously affected by the earth rotation and revolution, the illumination environment in different seasons can be simulated in addition to the illumination conditions at different times in a day, the deviation between the simulated environment and the real environment is reduced, and the accuracy of the environmental design result is improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of environmental design, and particularly to a display device for environmental design capable of simulating light and a method of using the same. BACKGROUND

[0002] Environmental design is to study various aspects of the environment from the perspective of design, considering artificial and natural space elements as a whole, and the goal is to design buildings and environmental spaces that harmonize these elements, i.e., to meet functional requirements, while also considering environmental safety and ecological sustainability. When displaying design results, it is common to create corresponding display devices to enable onlookers to fully understand the ideas and results of the designers. Common display devices for environmental design now mostly show the relationship between products and light, but the sun-like light component in the existing display device for environmental design capable of simulating light cannot be fixed on the track at any time when moving, and the sun-like light component cannot be repeatedly viewed at a specified position.

[0003] Chinese patent CN215954643U discloses a sand table for residential environmental design capable of simulating sunlight, which moves the light source along an arc-shaped track above the exhibition stand by means of a sliding block, thereby simulating changes in light. However, this solution requires manual control of the sliding block's fixed state during use, resulting in uneven light changes. Furthermore, the light conditions are affected by both the Earth's revolution and rotation, and moving the light source along a single trajectory can only simulate the light conditions during Earth rotation, resulting in an unrealistic simulated environment and a large deviation between the simulated and actual light conditions. SUMMARY

[0004] To address the above problems, a display device for environmental design capable of simulating light is provided, which enables the light source to reciprocate the east-west phenomenon caused by the Earth's rotation through the cooperation of the self-rotation simulation track and the first sliding member, and enables the light source to reciprocate the light offset phenomenon caused by the Earth's revolution through the cooperation of the self-rotation simulation track and the revolution simulation track. The control panel enables the light conditions at different time periods to be simulated.

[0005] The display device for environment design capable of simulating light is disclosed, which comprises a fixed disc, an exhibition stand capable of coaxial rotation arranged on the fixed disc and a light simulation assembly, the light simulation assembly comprises a rotation simulation track, a first sliding member and an orbit simulation track, the rotation simulation track is arranged on the fixed disc, a control panel capable of controlling the rotation simulation track is fixedly arranged on the fixed disc, the first sliding member is slidingly arranged on the rotation simulation track, the first sliding member performs circumferential motion with the south-north direction as the rotation axis, the moving track of the first sliding member is evenly divided into two equal parts by the exhibition stand, a light source pointing to the exhibition stand is fixedly arranged on the first sliding member, the orbit simulation track is arranged below the fixed disc, the orbit simulation track and the rotation simulation track are slidingly matched, the rotation simulation track performs reciprocating pendulum motion with the east-west direction as the rotation axis on the orbit simulation track, and the control panel can control the orbit simulation track to work.

[0006] Preferably, the first sliding member further comprises a first U-shaped shell, a second U-shaped shell, a first positioning shaft and a first elastic connecting piece, the rotation simulation track is in the shape of a ring, and a first belt is arranged on the rotation simulation track, the first U-shaped shell is slidingly arranged outside the rotation simulation track, the first U-shaped shell is attached to the outside of the rotation simulation track, the second U-shaped shell is slidingly arranged inside the rotation simulation track, the second U-shaped shell is attached to the outside of the first belt, the convex ends of the first U-shaped shell and the second U-shaped shell are oppositely arranged, and the second U-shaped shell is fixedly arranged inside the first U-shaped shell, the first positioning shaft is slidingly arranged on the second U-shaped shell, the sliding direction of the first positioning shaft is parallel to the diameter of the rotation simulation track, one end of the first elastic connecting piece is fixedly connected with the first positioning shaft, the other end of the first elastic connecting piece is in abutment with the first U-shaped shell, the second U-shaped shell can drive the first positioning shaft to move along the rotation simulation track, a first positioning hole is formed in the first belt and capable of allowing the first positioning shaft to be inserted, the number of the first positioning holes is at least the same as the number of the first positioning shafts, and all the first positioning holes are evenly arranged along the length direction of the first belt.

[0007] Preferably, the rotation simulation track further comprises a roller, the roller is rotatably arranged in the rotation simulation track, the axis of the roller is parallel to the axis of the rotation simulation track, the number of the rollers is at least one, all the rollers are evenly arranged around the axis of the arc-shaped track, the inner side of the first belt is in contact with the rollers, the number of the first belts is two, and the two first belts are coaxially and spaced apart, and the light source is fixed on the second U-shaped shell and located between the two first belts.

[0008] Preferably, the first sliding member further comprises an arc-shaped limiting plate and a second elastic connecting piece, the arc-shaped limiting plate is slidingly arranged between the first U-shaped shell and the second U-shaped shell, the sliding direction of the arc-shaped limiting plate is parallel to the sliding direction of the first positioning shaft, a stepped hole capable of allowing the first positioning shaft to be inserted is formed in the arc-shaped limiting plate, one end of the second elastic connecting piece is fixedly connected with the arc-shaped limiting plate, and the other end of the second elastic connecting piece is in abutment with the first U-shaped shell.

[0009] Preferably, both ends of the arc-shaped limiting plate are provided with at least one first positioning shaft, and the interval between the two first positioning shafts at the two ends of the arc-shaped limiting plate is equal to the interval between two adjacent first positioning holes on the first belt.

[0010] Preferably, the light simulation assembly further comprises a second sliding member, a revolution simulation track is fixedly arranged below the fixed disc, the revolution simulation track is arc-shaped, a rotation simulation track is rotatably connected with the fixed disc, the axis of the revolution simulation track is parallel to the diameter of the rotation simulation track, the second sliding member is capable of reciprocatingly sliding in the revolution simulation track, and the second sliding member is fixedly connected with the rotation simulation track.

[0011] Preferably, the second sliding member comprises a sliding sleeve and a sliding block, the sliding sleeve slides along the revolution simulation track, the sliding block is slidingly arranged in the sliding sleeve, the sliding sleeve is fixedly connected with the rotation simulation track, the sliding direction of the sliding block is parallel to the diameter of the revolution simulation track, the sliding sleeve is capable of driving the sliding block to move, both ends of the sliding block along the moving direction of the sliding block are fixedly provided with a second positioning shaft, a second belt capable of moving is arranged in the revolution simulation track, the second belt is sleeved outside the sliding block and provided with a second positioning hole capable of allowing the second positioning shaft to be inserted, the sliding sleeve is sleeved outside the second belt, the number of the second positioning holes is at least equal to the number of the second positioning shafts, and all the second positioning holes are uniformly arranged along the length direction of the second belt.

[0012] Preferably, the second sliding member further comprises a mouth-shaped plate and a third elastic connecting piece, the mouth-shaped plate is slidingly arranged in the sliding block, the sliding direction of the mouth-shaped plate is parallel to the sliding direction of the sliding block, both ends of the mouth-shaped plate along the sliding direction of the mouth-shaped plate are fixedly provided with a magnetic piece capable of being magnetically matched with the sliding sleeve in a different way, two third elastic connecting pieces oppositely arranged are fixedly arranged on each mouth-shaped plate, and the other end of the third elastic connecting piece is fixedly connected with the sliding block.

[0013] Preferably, guide pieces are fixedly arranged at both ends of the revolution simulation track, a guide groove capable of cooperating with the guide pieces to slide is formed in the sliding block, an inclined surface is arranged in the guide groove, and the guide pieces and the inclined surface in the guide groove cooperate to enable the sliding block and the sliding sleeve to relatively slide.

[0014] A kind of environment design with display method of simulated illumination, using the display device of simulated illumination of environment design, it include the following steps:

[0015] S1, the exhibition stand needing to be shown is placed on fixed disc, subsequently by control panel start self-rotating simulation track and revolution simulation track;

[0016] S2, first slider moves on self-rotating simulation track, first slider carries out circular movement with north-south direction as rotation axis, light source simulates the sun rises in the east and sets in the west at this time;

[0017] S3, self-rotating simulation track moves on revolution simulation track, self-rotating simulation track carries out reciprocating pendulum motion with east-west direction as rotation axis, light source carries out the shift of north-south direction.

[0018] The beneficial effects of the present application compared with prior art are:

[0019] The present application realizes the function that light source can reciprocate the phenomenon of the sun rises in the east and sets in the west generated by earth rotation by the cooperation of self-rotating simulation track and first slider, realizes the function that light source can reciprocate the light shift phenomenon generated by earth revolution by the cooperation of self-rotating simulation track and revolution simulation track, realizes the function that the light of different time periods can be simulated by control panel, so that the simulated light environment can be affected by earth rotation and revolution simultaneously, so that in addition to being able to simulate the light of different times in a day, the light environment of different seasons can also be simulated, reduce the deviation between simulated environment and real environment, improve the accuracy of environment design result. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is a side view of the display device of simulated illumination of environment design.

[0021] Figure 2 It is a perspective view of the display device of simulated illumination of environment design.

[0022] Figure 3 It is a perspective view of the light simulation assembly in the display device of simulated illumination of environment design.

[0023] Figure 4 It is a perspective view of the light simulation assembly in the display device of simulated illumination of environment design.

[0024] Figure 5 It is Figure 4 The local enlarged view of A in

[0025] Figure 6 It is a perspective view of the first slider in the light simulation assembly.

[0026] Figure 7 is a perspective view of the orbiting simulation track in the light simulation assembly.

[0027] Figure 8 is a perspective view of the orbiting simulation track in the light simulation assembly.

[0028] Figure 9 is Figure 8 is a partial enlarged view of B in FIG.

[0029] Figure 10 is a perspective view of the second sliding member in the light simulation assembly.

[0030] The reference signs in the drawings are:

[0031] 1 - fixed disc; 11 - control panel; 2 - exhibition stand; 3 - light simulation assembly; 31 - rotating simulation track; 311 - first belt; 312 - first positioning hole; 313 - roller; 32 - first sliding member; 321 - first U-shaped shell; 322 - second U-shaped shell; 323 - first positioning shaft; 324 - first elastic connecting member; 325 - arc-shaped limiting plate; 326 - second elastic connecting member; 33 - orbiting simulation track; 331 - second belt; 332 - second positioning hole; 333 - guide piece; 34 - light source; 35 - second sliding member; 351 - sliding sleeve; 352 - sliding block; 353 - second positioning shaft; 354 - mouth-shaped plate; 355 - third elastic connecting member; 356 - magnetic force member; 357 - guide groove. DETAILED DESCRIPTION

[0032] In order to further understand the features, technical means and specific purposes and functions of the present application, the present application is described in further detail below in combination with the drawings and specific embodiments.

[0033] Referring to Figures 1-3 and Figure 6As shown, a display device for simulating lighting environment design includes a fixed disk 1, a display stand 2 coaxially rotatable on the fixed disk 1, and a lighting simulation component 3. The lighting simulation component 3 includes a rotation simulation track 31, a first sliding member 32, and a revolution simulation track 33. The rotation simulation track 31 is set on the fixed disk 1, and a control panel 11 for controlling the operation of the rotation simulation track 31 is fixedly set on the fixed disk 1. The first sliding member 32 is slidably set on the rotation simulation track 31 and rotates in a circular motion around the north-south direction. The movement trajectory of the first sliding member 32 is evenly divided into two equal parts by the display stand 2. A light source 34 pointing towards the display stand 2 is fixedly set on the first sliding member 32. The revolution simulation track 33 is set below the fixed disk 1 and slides with the rotation simulation track 31. The rotation simulation track 31 reciprocates in a pendulum motion around the revolution simulation track 33 around the east-west direction. The control panel 11 can control the operation of the revolution simulation track 33.

[0034] Place the display stand 2 on the fixed disc 1 and rotate it to a suitable viewing angle. Turn on the light source 34 and activate the rotation simulation track 31 and the revolution simulation track 33 via the control panel 11. The first slider 32 moves on the rotation simulation track 31, rotating in a circular motion around the north-south axis. At this time, the light source 34 simulates the phenomenon of the sun rising in the east and setting in the west due to the Earth's rotation, and the scene on the display stand 2 will continuously alternate between day and night. Simultaneously, the rotation simulation track 31 moves on the revolution simulation track 33, reciprocating in a pendulum motion around the east-west axis. At this time, the light source 34 will simulate the phenomenon of sunlight shifting north and south due to the Earth's revolution. When it is necessary to fix the position of the light source 34 to directly observe the lighting situation on the display stand 2... After inputting the corresponding parameters on the control panel 11, the light source 34 is fixed in the set position. Compared with the prior art, the rotation simulation track 31 and the first sliding member 32 of the present invention enable the light source 34 to reciprocate the phenomenon of rising in the east and setting in the west caused by the Earth's rotation. Through the cooperation of the rotation simulation track 31 and the revolution simulation track 33, the light source 34 can reciprocate the phenomenon of light shift caused by the Earth's revolution. The control panel 11 enables the simulation of light conditions at different times, so that the simulated light environment can be affected by the Earth's rotation and revolution at the same time. In addition to simulating the light conditions at different times of the day, it can also simulate the light environment at different seasons, reducing the deviation between the simulated environment and the real environment and improving the accuracy of the environmental design results.

[0035] See Figures 3-6The first sliding piece 32 further comprises a first U-shaped shell 321, a second U-shaped shell 322, a first positioning shaft 323 and a first elastic connecting piece 324. The revolution simulation track 31 is in the shape of a ring, and the first belt 311 is sleeved on the revolution simulation track 31. The first U-shaped shell 321 is slidingly arranged outside the revolution simulation track 31 and is attached to the outside of the revolution simulation track 31. The second U-shaped shell 322 is slidingly arranged inside the revolution simulation track 31 and is attached to the outside of the first belt 311. The protruding ends of the first U-shaped shell 321 and the second U-shaped shell 322 are oppositely arranged, and the second U-shaped shell 322 is fixedly arranged inside the first U-shaped shell 321. The first positioning shaft 323 is slidingly arranged on the second U-shaped shell 322, and the sliding direction of the first positioning shaft 323 is parallel to the diameter of the revolution simulation track 31. One end of the first elastic connecting piece 324 is fixedly connected with the first positioning shaft 323, and the other end of the first elastic connecting piece 324 is in abutment with the first U-shaped shell 321. The second U-shaped shell 322 can drive the first positioning shaft 323 to move along the revolution simulation track 31. The first positioning hole 312 is formed in the first belt 311 and can be inserted by the first positioning shaft 323. The number of the first positioning hole 312 is at least the same as the number of the first positioning shaft 323. All the first positioning holes 312 are uniformly arranged along the length direction of the first belt 311.

[0036] When no external force exists, the first elastic connecting piece 324 is in a normal state, the first positioning shaft 323 is inserted into the first positioning hole 312, and then the belt moves to drive the first U-shaped shell 321 and the second U-shaped shell 322 to move. Compared with the prior art, the first positioning shaft 323 and the first positioning hole 312 of the present application enable the first sliding piece 32 to follow the belt to perform a circular motion, so that the light source 34 inside the first sliding piece 32 can better simulate the phenomenon of the sun rising in the east and setting in the west.

[0037] Referring to Figures 3-5 The revolution simulation track 31 further comprises a roller 313, which is rotatably arranged in the revolution simulation track 31. The axis of the roller 313 is parallel to the axis of the revolution simulation track 31. The number of the roller 313 is at least one, and all the rollers 313 are uniformly arranged around the axis of the arc-shaped track. The inner side of the first belt 311 is in contact with the roller 313. The number of the first belt 311 is two, and the two first belts 311 are coaxially and spaced apart. The light source 34 is fixed on the second U-shaped shell 322 and is between the two first belts 311.

[0038] The first belt 311 moves and drives the roller 313 to rotate, at this time, the light source 34 between the two first belts 311 moves in a circle and is not blocked by the first belt 311, and the positioning shaft can pass through the first belt 311, compared with the prior art, the self-rotation simulation track 31 of the application is provided with the roller 313 to support the first belt 311, so that the first positioning shaft 323 can be firmly inserted into the first positioning hole 312 and the light source 34 is not blocked when moving.

[0039] Referring to Figures 3-6 As shown: the first sliding piece 32 further comprises an arc-shaped limiting plate 325 and a second elastic connecting piece 326, the arc-shaped limiting plate 325 is slidingly arranged between the first U-shaped shell 321 and the second U-shaped shell 322, the sliding direction of the arc-shaped limiting plate 325 is parallel to the sliding direction of the first positioning shaft 323, the arc-shaped limiting plate 325 is provided with a stepped hole for inserting the first positioning shaft 323, one end of the second elastic connecting piece 326 is fixedly connected with the arc-shaped limiting plate 325, and the other end of the second elastic connecting piece 326 abuts against the first U-shaped shell 321.

[0040] The arc-shaped limiting plate 325 is controlled to move away from the self-rotation simulation track 31 along the diameter direction of the arc-shaped limiting plate 325, at this time, the second elastic connecting piece 326 is compressed, and the first positioning shaft 323 moves together with the arc-shaped limiting plate 325, when the first positioning shaft 323 is separated from the first positioning hole 312, the arc-shaped limiting plate 325 is controlled to move along the non-diameter direction of the arc-shaped limiting plate 325, so that the first positioning shaft 323 is separated from the first U-shaped shell 321 and the second U-shaped shell 322, compared with the prior art, the arc-shaped limiting plate 325 of the application can conveniently take out the first positioning shaft 323, so as to facilitate the replacement of the staff.

[0041] Referring to Figures 3-6 As shown: at least one first positioning shaft 323 is arranged at each end of the arc-shaped limiting plate 325, and the interval between the two first positioning shafts 323 at the two ends of the arc-shaped limiting plate 325 is equal to the interval between the adjacent two first positioning holes 312 on the first belt 311.

[0042] The first positioning shaft 323 at both ends of the arc-shaped limiting plate 325 penetrates the first belt 311, when the first positioning shaft 323 at one end contacts the roller 313, the first positioning shaft 323 at the end will move along the axis direction of itself and move towards the direction away from the self-rotation simulation track 31, the first elastic connecting piece 324 is compressed, the first positioning shaft 323 at the other end still penetrates the belt 33, when the first positioning shaft 323 at the end is away from the roller 313, the first elastic connecting piece 324 will restore deformation, the first positioning shaft 323 at the end will pass through the first belt 311 again, then the first positioning shaft 323 at the other end will contact the roller 313 and move, compared with the prior art, the arc-shaped limiting plate 325 of the present application is provided with the first positioning shaft 323 at both ends to provide two connecting points, so that the first sliding piece 32 can ensure that the transmission connection with the first belt 311 is not disconnected when passing through the roller 313.

[0043] Referring to Figures 3-4 and Figure 7 As shown in the figure: the light simulation assembly 3 further comprises a second sliding piece 35, the revolution simulation track 33 is fixedly arranged below the fixed disc 1, the revolution simulation track 33 is arc-shaped, the rotation simulation track 31 is rotatably connected with the fixed disc 1, the axis of the revolution simulation track 33 is parallel to the diameter of the rotation simulation track 31, the second sliding piece 35 can reciprocatingly slide in the interior of the revolution simulation track 33, and the second sliding piece 35 is fixedly connected with the rotation simulation track 31.

[0044] When the second sliding piece 35 slides in one direction in the interior of the revolution simulation track 33, the entire rotation simulation track 31 will move along with the second sliding piece 35, so that the circular motion in the east-west direction on the rotation simulation track 31 will also reciprocatingly pendulum in the south-north direction, compared with the prior art, the second sliding piece 35 of the present application drives the rotation simulation track 31 to move around the axis of the revolution simulation track 33, so that the light source 34 will simulate the light phenomenon generated by the revolution of the earth while simulating the light phenomenon generated by the rotation of the earth.

[0045] Referring to Figures 7-10The second sliding piece 35 includes a sliding sleeve 351 and a sliding block 352, the sliding sleeve 351 slides along the orbit of revolution analog track 33, the sliding block 352 is slidably arranged in the interior of the sliding sleeve 351, the sliding sleeve 351 is fixedly connected with the orbit of revolution analog track 31, the sliding direction of the sliding block 352 is parallel to the diameter of the orbit of revolution analog track 33, the sliding sleeve 351 can drive the sliding block 352 to move, the sliding block 352 is fixedly provided with a second positioning shaft 353 at both ends along the moving direction of the sliding block 352, the orbit of revolution analog track 33 is internally provided with a movable second belt 331, the second belt 331 is sleeved on the exterior of the sliding block 352 and is provided with a second positioning hole 332 capable of allowing the second positioning shaft 353 to be inserted on the belt, the sliding sleeve 351 is sleeved on the exterior of the second belt 331, the number of the second positioning holes 332 is at least the same as the number of the second positioning shafts 353, and all the second positioning holes 332 are uniformly arranged along the length direction of the second belt 331.

[0046] When no external force exists, the sliding block 352 moves upwards, so that the upper second positioning shaft 353 is inserted into the second positioning hole 332, at this time, the belt movement drives the sliding block 352 and the sliding sleeve 351 to move along the orbit of revolution analog track 33, at this time, the orbit of revolution analog track 31 follows the sliding sleeve 351 to move in one direction, when the sliding sleeve 351 moves to one end of the orbit of revolution analog track 33, the sliding block 352 is controlled to move downwards, so that the lower second positioning shaft 353 is inserted into the second positioning hole 332, at this time, the belt drives the sliding block 352 and the sliding sleeve 351 to move towards the other end of the orbit of revolution analog track 33, and the orbit of revolution analog track 31 also follows the sliding sleeve 351 to move in the other direction, compared with the prior art, the sliding block 352 of the present application has two second positioning shafts 353 capable of being inserted into the second positioning hole 332, so that the upward and downward sliding of the sliding block 352 can switch the moving direction of the sliding sleeve 351 following the belt movement.

[0047] Referring to Figures 7-10 The second sliding piece 35 further includes a mouth-shaped plate 354 and a third elastic connecting piece 355, the mouth-shaped plate 354 is slidably arranged in the interior of the sliding block 352, the sliding direction of the mouth-shaped plate 354 is parallel to the sliding direction of the sliding block 352, the mouth-shaped plate 354 is fixedly provided with a magnetic force piece 356 capable of being in a heterogeneous magnetic force cooperation with the sliding sleeve 351 at both ends along the sliding direction of the mouth-shaped plate 354, two third elastic connecting pieces 355 oppositely arranged are fixedly arranged on each mouth-shaped plate 354, and the other end of the third elastic connecting piece 355 is fixedly connected with the sliding block 352.

[0048] When the sliding block 352 is close to the top of the sliding sleeve 351, at this time the mouth plate 354 is lifted to contact the sliding sleeve 351 under the cooperation of the magnetic force, the sliding block 352 keeps relative static state with the sliding sleeve 351 under the work of the magnetic force, when the sliding block 352 is close to the bottom of the sliding sleeve 351, the mouth plate 354 is lowered to contact the sliding sleeve 351 under the cooperation of the magnetic force, at this time the sliding block 352 also keeps relative static state with the sliding sleeve 351 under the work of the magnetic force, compared with the prior art, the cooperation of the mouth plate 354 and the third elastic connecting piece 355 makes the sliding block 352 keep the fixed relationship with the sliding sleeve 351 in the upper and lower positions, so that the second positioning shaft 353 is prevented from being separated from the second positioning hole 332 when following the second belt 331 to move.

[0049] Referring to Figures 8-10 As shown: the inner two ends of the revolution simulation track 33 are fixedly provided with guide pieces 333, the sliding block 352 is provided with a guide groove 357 capable of cooperating with the guide pieces 333 to slide, and the guide groove 357 is provided with a slope, the cooperation of the guide pieces 333 and the slope in the guide groove 357 makes the sliding block 352 relatively slide with the sliding sleeve 351.

[0050] When the upper second positioning shaft 353 is inserted into the second positioning hole 332, the sliding block 352 keeps relative static state with the sliding sleeve 351, the sliding block 352 follows the belt to move and moves to the end of the revolution simulation track 33, at this time the guide piece 333 is inserted into the guide groove 357 to make the sliding block 352 lower, the upper second positioning shaft 353 is separated from the second positioning hole 332, the lower second positioning shaft 353 is inserted into the second positioning hole 332, and the sliding sleeve 351 moves to the direction under the work of the belt, compared with the prior art, the cooperation of the guide groove 357 and the guide block makes the sliding block 352 change the position at the two ends of the revolution simulation track 33, so that the sliding sleeve 351 automatically changes the direction after moving a certain distance.

[0051] Referring to Figures 1-3 and Figure 6 As shown: a display method for environment design capable of simulating light, adopts a display device for environment design capable of simulating light, comprising the following steps:

[0052] S1, placing the exhibition stand 2 to be displayed on the fixed disc 1, and then starting the revolution simulation track 31 and the revolution simulation track 33 through the control panel 11;

[0053] S2, the first sliding piece 32 moves on the revolution simulation track 31, and the first sliding piece 32 performs circular motion with the south-north direction as the rotation axis, and the light source 34 simulates the sunrise and sunset of the sun at this time;

[0054] S3, the self-rotation simulation track 31 moves on the revolution simulation track 33, the self-rotation simulation track 31 reciprocating pendulum motion with the east-west direction as the rotation axis, the light source 34 shifts in the north-south direction.

[0055] Compared with the prior art, the self-rotation simulation track 31 and the first sliding piece 32 cooperate to enable the light source 34 to reciprocate the eastward rising and westward setting phenomenon caused by the earth rotation, the self-rotation simulation track 31 and the revolution simulation track 33 cooperate to enable the light source 34 to reciprocate the light shift phenomenon caused by the earth revolution, the control panel 11 enables the light conditions of different time periods to be simulated, so that the simulated light environment can be simultaneously affected by the earth rotation and revolution, so that in addition to being able to simulate the light conditions at different times of the day, the light environment in different seasons can also be simulated, the deviation between the simulated environment and the real environment is reduced, and the accuracy of the environmental design result is improved.

[0056] The above embodiments only express one or several embodiments of the present application, the description is more specific and detailed, but it cannot be understood as the limitation of the patent scope of the present application. It should be pointed out that for ordinary skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which belong to the protection scope of the present application. Therefore, the protection scope of the patent of the present application should be subject to the appended claims.

Claims

1. A display device for simulating lighting environment design, comprising a fixed disk (1), a display stand (2) rotatably mounted on the fixed disk (1), and a lighting simulation component (3), characterized in that, The lighting simulation component (3) includes a rotation simulation track (31), a first slider (32), and a revolution simulation track (33). The self-rotation simulation track (31) is set on the fixed disk (1), and the fixed disk (1) is fixedly equipped with a control panel (11) that can control the operation of the self-rotation simulation track (31). The first sliding member (32) is slidably set on the rotating simulation track (31). The first sliding member (32) rotates in a circle with the north-south direction as the axis of rotation. The movement trajectory of the first sliding member (32) is evenly divided into two equal parts by the exhibition stand (2). A light source (34) pointing towards the exhibition stand (2) is fixedly set on the first sliding member (32). The orbital simulation track (33) is set below the fixed disk (1). The orbital simulation track (33) and the rotation simulation track (31) are slidably connected. The rotation simulation track (31) moves in a reciprocating pendulum motion on the orbital simulation track (33) with the east-west direction as the axis of rotation. The control panel (11) can control the orbital simulation track (33) to work. The lighting simulation component (3) also includes a second slider (35); The orbital simulation track (33) is fixedly set below the fixed disk (1). The orbital simulation track (33) is arc-shaped. The rotational simulation track (31) is rotatably connected to the fixed disk (1). The axis of the orbital simulation track (33) is parallel to the diameter of the rotational simulation track (31). The second sliding member (35) can reciprocate inside the orbital simulation track (33). The second sliding member (35) is fixedly connected to the rotational simulation track (31). The second sliding member (35) includes a sliding sleeve (351) and a sliding block (352); The sliding sleeve (351) slides along the orbital simulation track (33). The sliding sleeve (351) is fixedly connected to the rotation simulation track (31). The sliding block (352) is slidably disposed inside the sliding sleeve (351). The sliding direction of the sliding block (352) is parallel to the diameter of the orbital simulation track (33). The sliding sleeve (351) can drive the sliding block (352) to move. The sliding block (352) has a second positioning shaft (353) fixedly disposed at both ends along its own moving direction. The track (33) is equipped with a movable second belt (331). The second belt (331) is sleeved on the outside of the sliding block (352) and the belt has a second positioning hole (332) for the second positioning shaft (353) to be inserted. The sliding sleeve (351) is sleeved on the outside of the second belt (331). The number of second positioning holes (332) is at least the same as the number of second positioning shafts (353). All the second positioning holes (332) are evenly arranged along the length of the second belt (331).

2. The display device for simulating lighting environment design according to claim 1, characterized in that, The first sliding member (32) also includes a first U-shaped shell (321), a second U-shaped shell (322), a first positioning shaft (323), and a first elastic connector (324). The rotation simulation track (31) is circular and a first belt (311) is fitted on the rotation simulation track (31). A first U-shaped shell (321) is slidably disposed on the outside of the rotation simulation track (31) and fits against the outside of the rotation simulation track (31). A second U-shaped shell (322) is slidably disposed on the inside of the rotation simulation track (31) and fits against the outside of the first belt (311). The protruding ends of the first U-shaped shell (321) and the second U-shaped shell (322) are arranged facing each other, and the second U-shaped shell (322) is fixedly disposed inside the first U-shaped shell (321). A first positioning shaft (323) is slidably disposed on the second U-shaped shell (322). The sliding direction of the positioning shaft (323) is parallel to the diameter of the rotation simulation track (31). One end of the first elastic connector (324) is fixedly connected to the first positioning shaft (323), and the other end of the first elastic connector (324) abuts against the first U-shaped shell (321). The second U-shaped shell (322) can drive the first positioning shaft (323) to move along the rotation simulation track (31). The first belt (311) is provided with a first positioning hole (312) that allows the first positioning shaft (323) to be inserted. The number of first positioning holes (312) is at least the same as the number of first positioning shafts (323). All the first positioning holes (312) are evenly arranged along the length direction of the first belt (311).

3. The display device for simulating lighting environment design according to claim 2, characterized in that, The self-rotating simulation track (31) also includes rollers (313); The roller (313) is rotatably set inside the rotating simulation track (31). The axis of the roller (313) is parallel to the axis of the rotating simulation track (31). There is at least one roller (313). All rollers (313) are evenly arranged around the axis of the arc track. The inner side of the first belt (311) is in contact with the roller (313). There are two first belts (311), and the two first belts (311) are coaxially spaced. The light source (34) is fixed on the second U-shaped shell (322) and is located between the two first belts (311).

4. The display device for simulating lighting environment design according to claim 3, characterized in that, The first sliding member (32) also includes an arc-shaped limiting plate (325) and a second elastic connecting member (326); The arc-shaped limiting plate (325) is slidably disposed between the first U-shaped shell (321) and the second U-shaped shell (322). The sliding direction of the arc-shaped limiting plate (325) is parallel to the sliding direction of the first positioning shaft (323). The arc-shaped limiting plate (325) is provided with a stepped hole that allows the first positioning shaft (323) to be inserted. One end of the second elastic connector (326) is fixedly connected to the arc-shaped limiting plate (325), and the other end of the second elastic connector (326) abuts against the first U-shaped shell (321).

5. A display device for simulating lighting environment design according to claim 4, characterized in that, At least one first positioning shaft (323) is provided at both ends of the arc-shaped limiting plate (325), and the interval between the first positioning shafts (323) at both ends of the arc-shaped limiting plate (325) is equal to the interval between two adjacent first positioning holes (312) on the first belt (311).

6. The display device for simulating lighting environment design according to claim 5, characterized in that, The second sliding member (35) also includes a mouth plate (354) and a third elastic connector (355); The mouth-shaped plate (354) is slidably disposed inside the sliding block (352). The sliding direction of the mouth-shaped plate (354) is parallel to the sliding direction of the sliding block (352). Both ends of the mouth-shaped plate (354) along its own sliding direction are fixedly provided with magnetic components (356) that can cooperate with the sliding sleeve (351) with opposite magnetic force. Each mouth-shaped plate (354) is fixedly provided with two opposing third elastic connectors (355). The other end of the third elastic connector (355) is fixedly connected to the sliding block (352).

7. A display device for simulating lighting environment design according to claim 6, characterized in that, The orbital simulation track (33) has guide plates (333) fixedly installed at both ends inside. The sliding block (352) has a guide groove (357) that can slide with the guide plate (333). The guide groove (357) has an inclined surface. The guide plate (333) and the inclined surface in the guide groove (357) cooperate to make the sliding block (352) slide relative to the sliding sleeve (351).

8. A method for displaying an environment that can simulate lighting, comprising a display device for displaying an environment that can simulate lighting as described in any one of claims 1-7, characterized in that, It includes the following steps: S1. Place the display stand (2) to be displayed on the fixed disc (1), and then start the rotation simulation track (31) and the revolution simulation track (33) through the control panel (11). S2. The first slider (32) moves on the rotation simulation track (31). The first slider (32) rotates in a circle with the north-south direction as the axis of rotation. The light source (34) simulates the sun rising in the east and setting in the west at this time. S3, the rotation simulation track (31) moves on the revolution simulation track (33), the rotation simulation track (31) rotates in a reciprocating pendulum motion with the east-west direction as the axis of rotation, and the light source (34) shifts in the north-south direction.

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