CN107217809B - Light-transmitting veneer stone composite board capable of eliminating peripheral bright edges and production process thereof - Google Patents
Light-transmitting veneer stone composite board capable of eliminating peripheral bright edges and production process thereof Download PDFInfo
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- CN107217809B CN107217809B CN201710581942.7A CN201710581942A CN107217809B CN 107217809 B CN107217809 B CN 107217809B CN 201710581942 A CN201710581942 A CN 201710581942A CN 107217809 B CN107217809 B CN 107217809B
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Abstract
Firstly, adopting a dotting mode that the laser dotting density is increased from the periphery of the light guide plate to the central point of the light guide plate, replacing the traditional dotting mode that the laser dotting distribution of the light guide plate is uniform, so that more light points can pass through the light guide plate towards the central point, and the problem of the peripheral bright edges is reduced to a certain extent; secondly, spraying dark color ink on the outer peripheral side of the laser dotting surface of the light guide plate, wherein the black substance can absorb redundant light generated by the bright edge, so that the light-transmitting veneering stone can be more balanced; finally, the reflecting film is attached to replace the traditional white reflecting paper, so that the problem of bright edges around is reduced again; the three characteristics are mutually superposed, so that the problem of bright edges around the light-transmitting veneered stone is finally eliminated, and the attractiveness of the light-transmitting veneered stone background wall is greatly improved.
Description
Technical Field
The invention relates to the field of light-transmitting stones, in particular to a light-transmitting veneered stone composite board capable of eliminating peripheral bright edges and a production process thereof.
Background
The existing light-transmitting veneering stone background wall has the problem that after an LED lamp is turned on, bright edges appear on the periphery of the light-transmitting veneering stone background wall, and the look and feel of a client are seriously influenced.
Disclosure of Invention
The invention provides a light-transmitting veneering stone composite board capable of eliminating bright edges on the periphery and a production process thereof, and mainly aims to overcome the defect that bright edges can appear on the periphery of the conventional light-transmitting veneering stone background wall after an LED lamp is turned on.
In order to solve the technical problems, the invention adopts the following technical scheme:
a production process of a light-transmitting veneer stone composite board capable of eliminating peripheral bright edges comprises the following steps:
1) Performing laser dotting on a light guide plate by adopting a light guide plate laser dotting machine, wherein the laser dotting density is increased progressively from the peripheral side of the light guide plate to the central point of the light guide plate;
2) Spraying dark color ink on the outer peripheral side of the laser dotting surface of the light guide plate;
3) Taking an aluminum honeycomb plate, and sticking a reflecting film on one surface of the aluminum honeycomb plate;
4) And compounding the surface of the aluminum honeycomb plate, which is adhered with the reflecting film, with the laser dotting surface of the light guide plate, and compounding an ultrathin stone panel with the other surface of the light guide plate.
Furthermore, a water molecule activation film is compounded between the aluminum honeycomb panel and the light guide plate and between the ultrathin stone panel and the light guide plate.
Furthermore, the reflective film is a silver white metal reflective film, and one surface of the aluminum honeycomb panel, on which the silver white metal reflective film is attached, is compounded with the laser dotting surface of the light guide plate through a transparent adhesive layer.
Further, the production process of the ultrathin stone panel comprises the following steps of:
1) Selecting a quartz stone or granite large plate with the length larger than 1m, the width larger than 1m and the thickness larger than 5mm, and flatly paving the quartz stone or granite large plate on a cutting table;
2) Cutting two side edges of the large plate in the length direction to a depth of 30-40 cm along the length direction by adopting a double-knife bisecting machine;
3) Cutting the uncut part in the middle of the large plate prepared in the step (2) by adopting a stone bisecting machine or a stone rope saw, so that the large plate is divided into two vertically separated blocks;
4) Selecting a transparent acrylic plate with the thickness of more than 0.5mm, and compounding the transparent acrylic plate on the large plate on the upper layer;
5) Sucking the large plate on the transparent acrylic plate by using a sucker lifting tool, lifting the large plate, and conveying the large plate to other cutting tables to be subjected to cutting;
6) Repeatedly cutting the two large plates which are divided according to the steps 2-5 until the thickness of the large plates is 1-3 mm, and compositing a transparent acrylic plate with the thickness more than 0.5mm on each large plate;
7) Polishing the large plate prepared in the step 6 to a fixed thickness;
8) And (4) combining the two large plates prepared in the step (7), wherein the transparent acrylic plates on the large plates are opposite, and an ultrathin sensor is combined between the two transparent acrylic plates.
Further, the ultra-thin sensor is one of a capacitive touch sensor, an electromagnetic sensor or a radio frequency sensor.
A light-transmitting skin-stuck stone composite plate capable of eliminating peripheral bright edges comprises a light guide plate, an aluminum honeycomb plate and an ultrathin stone panel, wherein the laser dotting density on a laser dotting surface of the light guide plate is gradually increased from the peripheral side of the light guide plate to the central point of the light guide plate, and deep color ink is coated on the peripheral side of the laser dotting surface; a reflecting film is adhered to one surface of the aluminum honeycomb plate, and the laser dotting surface of the light guide plate is compounded with the surface of the aluminum honeycomb plate, which is adhered with the reflecting film; the ultrathin stone panel is compounded with the other side of the light guide plate.
Furthermore, a water molecule activation film is compounded between the aluminum honeycomb plate and the light guide plate and between the ultrathin stone panel and the light guide plate.
Furthermore, the ultrathin stone panel comprises two large stone plates with the thickness of 1-3 mm, each large stone plate is compounded with a transparent acrylic plate with the thickness of more than 0.5mm, the two large stone plates are compounded with each other, and the transparent acrylic plates on the large stone plates are opposite.
Furthermore, an ultrathin sensor is compounded between the two transparent acrylic sheets.
Furthermore, the large stone plate and the transparent acrylic plate are compounded through the glue layer so that the large stone plate and the transparent acrylic plate can be integrally bent.
Compared with the prior art, the invention has the beneficial effects that:
1. firstly, the invention adopts a dotting mode that the laser dotting density is increased from the periphery of the light guide plate to the central point of the light guide plate, and replaces the traditional dotting mode that the laser dotting distribution of the light guide plate is uniform, so that more light spots can pass through the light guide plate towards the central point, and the problem of peripheral bright edges is reduced to a certain extent; secondly, spraying dark color ink on the outer peripheral side of the laser dotting surface of the light guide plate, wherein the black substance can absorb redundant light generated by the bright edge, so that the light-transmitting veneering stone can be more balanced; finally, the reflecting film is attached to replace the traditional white reflecting paper, so that the problem of bright edges around is reduced again; the three characteristics are mutually superposed, so that the problem of bright edges around the light-transmitting veneered stone is finally eliminated, and the attractiveness of the light-transmitting veneered stone background wall is greatly improved.
2. According to the invention, through the matching of the double-knife bisecting machine and the stone bisecting machine, the cutting of quartz stone and granite is carried out in two steps, so that the situation of stone fragmentation during cutting is effectively avoided; the composite transparent acrylic plate has the functions of increasing the strength of the stone panel, transmitting light and being bendable; by arranging the ultrathin sensor, the application range of the light-transmitting veneer stone composite board can be greatly improved, and the light-transmitting veneer stone composite board can be manufactured into a natural stone touch switch panel, a projection screen of a laser projector, a natural stone electromagnetic oven heating panel and the like.
Drawings
Fig. 1 is a schematic view of a laser dotting surface of the light guide plate according to the present invention.
Fig. 2 is a cross-sectional view of the present invention.
Fig. 3 is a schematic diagram of the thickness direction of the stone slab cut by the double-knife bisecting machine.
Fig. 4 is a schematic view of a large stone plate and a transparent acrylic plate which are combined to form a curved shape.
Detailed Description
The following describes embodiments of the present invention with reference to the drawings.
Refer to fig. 1 and 2. A light-transmitting veneer stone composite board capable of eliminating peripheral bright edges comprises a light guide plate 1, an aluminum honeycomb plate 2 and an ultrathin stone panel 4. The laser dotting density on the laser dotting surface 11 of the light guide plate 1 increases progressively from the peripheral side of the light guide plate to the central point thereof, and the peripheral side of the laser dotting surface is coated with dark ink 12; a reflecting film 3 is adhered to one surface of the aluminum honeycomb plate 2, and a laser dotting surface 11 of the light guide plate 1 is compounded with the surface of the aluminum honeycomb plate 2, which is adhered with the reflecting film 3; the ultra-thin stone panel 4 is compounded with the other surface of the light guide plate 1.
The reflection film is a silvery white metal reflection film, one surface of the aluminum honeycomb panel, which is pasted with the silvery white metal reflection film, is compounded with the laser dotting surface of the light guide plate through a transparent adhesive layer, and the transparent adhesive layer can be shadowless adhesive and the like.
Refer to fig. 1 and 2. A water molecule activating film 5 is compounded between the aluminum honeycomb panel 2 and the light guide plate 1 and between the ultrathin stone panel 4 and the light guide plate 1. Specifically, the laser dotting surface 11 and the other surface of the light guide plate 1 are directly compounded with the water molecule activation film 5, one surface of the aluminum honeycomb panel 2, which is provided with the reflection film 3, is bonded on the water molecule activation film through an adhesive, and the ultrathin stone panel 4 is also bonded on the water molecule activation film through the adhesive.
Wherein, the water molecule activation film comprises a PET film and water molecule activation glue. One side of the PET film is bonded with the light guide plate through a water molecule activation adhesive, and the other side of the PET film is bonded with the aluminum honeycomb panel and the ultrathin stone panel through an adhesive. The adhesive can be high light transmission epoxy resin glue.
The water molecule activated adhesive is also called a polyurethane adhesive, and the polyurethane adhesive does not have high bonding strength immediately during bonding and needs to be cured. Curing refers to the process of changing liquid adhesive into solid, and the curing process also includes post-curing, i.e. the reactive groups in the adhesive after primary curing further react or generate crystallization to obtain the final curing strength. For polyurethane adhesives, the curing process is a process of completely reacting NCO groups in the adhesive, or completely volatilizing a solvent and crystallizing polyurethane molecular chains to ensure that the adhesive and a base material generate high enough adhesive force. When the light guide plate is used, the surface, which is bonded with the light guide plate, of the PET film is coated with the solid water molecule activation glue, then the solid water molecule activation glue is activated through moisture and covered on the light guide plate, and when the moisture on the water molecule activation glue is evaporated, enough high bonding force can be formed, so that the PET film is adhered to the light guide plate.
Refer to fig. 1 and 2. The ultra-thin stone panel 4 comprises two large stone plates 41 with the thickness of 1-3 mm, each large stone plate 41 is compounded with a transparent acrylic plate 42 with the thickness of more than 0.5mm, the two large stone plates 41 are compounded with each other, and the transparent acrylic plates 42 on the two large stone plates are opposite to each other, so that the effect of double-sided light transmission can be achieved.
Refer to fig. 4. The large stone plate 41 and the transparent acrylic plate 42 are compounded through the glue layer 43, so that the large stone plate and the transparent acrylic plate are integrally bendable, and the decorative engineering application of the arc-shaped plate and the cylinder can be suitable. The adhesive layer is an adhesive with strong flexibility, such as a shadowless adhesive.
Refer to fig. 2. An ultrathin sensor 6 is also compounded between the two transparent acrylic 42. The ultra-thin sensor is one of a capacitive touch sensor, an electromagnetic sensor or a radio frequency sensor. In addition, the large stone plate is a quartz stone or granite large plate.
According to the invention, a capacitive touch sensor is adopted, a finger touches an ultrathin stone panel, data is conducted to the capacitive touch sensor after contacting the surface of the ultrathin stone, electronic data is transmitted to a processor, and a corresponding instruction is operated by adopting a special software and algorithm; a message is sent from the sensor and then sent from the controller to the computer, and converted to the X and Y values on the screen by the driver, so as to complete the clicking operation.
The principle of the capacitive screen is that a human body is used as an electrode of a capacitor element, and when a conductor is close to and couples capacitance with an interlayer ITO working surface with enough capacitance value, the capacitance between a finger and the screen is changed (the finger touches the screen to form capacitance) so as to obtain touch information.
Therefore, the invention can be applied to the fields of natural stone touch switch panels, projection screens of laser projectors and heating panels of natural stone induction cookers, and the market influence of the invention is improved.
In addition, the invention can also be applied to elevator car light-transmitting stone, and the LED lamps are only needed to be arranged on the side surfaces of two long sides, and the uniform effect can be achieved through redistribution of laser lattice points.
The light-transmitting veneer stone composite board can be embedded in the section bar, the LED lamp is arranged in the section bar, the LED lamp is started, and the light source can be transmitted from the peripheral side of the light-transmitting veneer stone composite board to the center. The profile and the LED lamps arranged in the profile are all in the prior art, and are not shown in the attached drawings. In addition, can compound ultra-thin lithium cell and LED music controller in this section bar, ultra-thin lithium cell is used for providing the power for the LED lamp to adopt wireless mode of charging, LED music controller lets natural stone material wall follow music rhythm and changes color and bright lamp rhythm, consequently seals waterproof and be rich in the modernized color behind the whole shaping, can regard as dining room food balance.
Refer to fig. 1 and 2. A production process of a light-transmitting veneer stone composite board capable of eliminating peripheral bright edges comprises the following steps:
step one
A light guide plate laser dotting machine is adopted to perform laser dotting on a light guide plate 1, and the density of the laser dotting increases progressively from the peripheral side of the light guide plate 1 to the central point thereof.
Step two
And spraying dark color ink 12 on the outer periphery of the laser dotting surface 11 of the light guide plate 1.
Step three
An aluminum honeycomb panel 2 is taken, and a reflecting film 3 is adhered to one surface of the aluminum honeycomb panel.
Step four
And compounding one surface of the aluminum honeycomb panel 2, which is provided with the reflecting film 3, with the laser dotting surface of the light guide plate 1, and compounding an ultrathin stone panel 4 with the other surface of the light guide plate 1.
The reflection film 3 is a silvery white metal reflection film, and one surface of the aluminum honeycomb panel 2, which is adhered with the silvery white metal reflection film, is compounded with the laser dotting surface of the light guide plate through a transparent adhesive layer.
After the cladding is finished, the light-transmitting veneer stone composite board can be embedded in the section bar, the LED lamp is arranged in the section bar, and the LED lamp is started, so that the light source can be transmitted from the outer peripheral side of the light-transmitting veneer stone composite board to the center. The profile and the LED lamps arranged in the profile are all in the prior art, and are not shown in the attached drawings.
The invention adopts a dotting mode that the density of laser dotting is increased from the periphery of the light guide plate to the central point of the light guide plate, and replaces the traditional dotting mode that the laser dotting of the light guide plate is uniformly distributed, so that more light spots can pass through the light guide plate towards the central point, and the problem of bright edges around is reduced to a certain extent; secondly, spraying dark color ink on the outer peripheral side of the laser dotting surface of the light guide plate, wherein the black substance can absorb redundant light generated by the bright edge, so that the light-transmitting veneering stone can be more balanced; finally, the reflecting film is attached to replace the traditional white reflecting paper, so that the problem of bright edges around is reduced again; the three characteristics are mutually overlapped, the problem of bright edges around the light-transmitting veneering stone is finally eliminated, the attractiveness of the light-transmitting veneering stone background wall is greatly improved, and the phenomenon of two edges can not occur even if the light-transmitting veneering stone background wall is applied to a parquet product.
Refer to fig. 1 and 2. Specifically, a water molecule activating film 5 is compounded between the aluminum honeycomb panel 2 and the light guide plate 1 and between the ultrathin stone panel 4 and the light guide plate 1. The aluminum honeycomb panel 2 and the reflective film 3 are bonded by shadowless glue, and the shadowless glue is cured by irradiating from the side by using an ultraviolet LED lamp.
Refer to fig. 1 and 2. The production process of the ultrathin stone panel comprises the following steps:
step one
And (3) selecting a quartz stone or granite large plate with the length being more than 1m, the width being more than 1m and the thickness being more than 5mm, and flatly paving the quartz stone or granite large plate on the cutting table.
The preferred scheme is as follows: the length of the quartz stone or granite big plate is 1.5-2 m, the width is more than 1.5-2 m, and the thickness is 1.8-2.2 cm.
Step two
And cutting the two side edges of the large plate in the length direction to a depth of 30-40 cm along the length direction by adopting a double-knife bisecting machine. As shown in fig. 3.
Specifically, if a quartz stone or granite large plate with the length of 2m is selected, the quartz stone or granite large plate can be cut to the depth of 40cm, namely, both sides are cut to the depth of 80cm, and the remaining 120cm is used for further cutting.
In the invention, the cutters of the double-cutter bisecting machine are transversely arranged and positioned on the same horizontal line, so that the double-cutter bisecting machine can cut two side edges of the same quartz stone/granite.
Step three
And D, cutting the uncut part in the middle of the large plate prepared in the step two by adopting a stone bisecting machine or a stone rope saw, so that the large plate is divided into two vertically separated blocks.
According to the traditional stone bisection machine, a dovetail groove cutter is adopted, and a cutter head is embedded on a cutter belt.
Step four
And selecting a transparent acrylic plate with the thickness of more than 0.5mm, and compounding the transparent acrylic plate on the large plate positioned on the upper layer. The transparent acrylic plate is compounded on the large plate through epoxy resin glue.
Wherein, the preferred scheme is as follows: the thickness of the transparent acrylic plate is 0.5-1.5 mm.
The epoxy resin glue has low toxicity, small volatility, wide preparation ratio, simple and convenient operation, normal-temperature curing, strong bonding force, high light transmittance and good toughness, and is obviously superior to the common monomer amine curing agent.
Because the surface of the large plate has different flatness and curvature, different epoxy resin glues can be selected according to different large plates in order to improve the adhesion degree of the large plate.
Step five
And a sucker lifting tool is adopted to attract the transparent acrylic plate, lift the large plate and convey the large plate to other cutting tables and wait for cutting.
Suction cup spreaders are suitable for handling light, smooth surfaced objects and are generally composed of a vacuum cup, a spreader body, a vacuum generator and other control elements.
Step six
And repeatedly cutting the two divided large plates according to the second to fifth steps until the thickness of the large plate is 1 to 3mm, and compounding a transparent acrylic plate or other ultrathin plates with the thickness of more than 0.5mm on each large plate.
Preferably, the plate can be cut to the thickness of 2mm and the thickness of 1mm.
Step seven
And (5) performing fixed-thickness polishing on the large plate prepared in the step six.
Because the thickness of the large plate is very small, if the pressure is too large during grinding, the stone is easy to crack, and therefore, the grinding machine with the automatically adjustable pressure can be adopted to grind the large plate.
Step eight
And (4) compounding the two large plates prepared in the seventh step, wherein the transparent acrylic plates on the large plates are opposite, and an ultrathin sensor is compounded between the two transparent acrylic plates. The ultra-thin sensor is one of a capacitive touch sensor, an electromagnetic sensor or a radio frequency sensor.
According to the invention, through the matching of the double-knife bisecting machine and the stone bisecting machine, the cutting of quartz stone and granite is carried out in two steps, so that the situation of stone fragmentation during cutting is effectively avoided; the composite transparent acrylic plate has the functions of increasing the strength of the stone panel and transmitting light; by arranging the ultrathin sensor, the application range of the light-transmitting veneered stone composite board can be greatly improved, so that the light-transmitting veneered stone composite board can be manufactured into a natural stone touch switch panel, a projection screen of a laser projector, a natural stone induction cooker heating panel and the like.
The above description is only an embodiment of the present invention, but the design concept of the present invention is not limited thereto, and any insubstantial modifications made by using the design concept should fall within the scope of infringing the present invention.
Claims (6)
1. A production process of a light-transmitting veneer stone composite board capable of eliminating peripheral bright edges is characterized by comprising the following steps:
1) Performing laser dotting on a light guide plate by adopting a light guide plate laser dotting machine, wherein the laser dotting density is gradually increased from the peripheral side of the light guide plate to the central point of the light guide plate;
2) Spraying deep color ink on the outer peripheral side of the laser dotting surface of the light guide plate;
3) Taking an aluminum honeycomb plate, and sticking a reflecting film on one surface of the aluminum honeycomb plate;
4) Compounding one surface of the aluminum honeycomb plate, which is adhered with the reflecting film, with the laser dotting surface of the light guide plate, and compounding an ultrathin stone panel with the other surface of the light guide plate;
the light guide plate is manufactured by the following steps:
1) Selecting a quartz stone or granite large plate with the length of more than 1m, the width of more than 1m and the thickness of more than 5mm, and flatly paving the quartz stone or granite large plate on a cutting table;
2) Cutting two side edges of the large plate in the length direction to a depth of 30-40 cm along the length direction by adopting a double-cutter bisecting machine;
3) An automatic welding system is applied to the stone bisecting machine, and the cutter head is welded on the cutter belt of the stone bisecting machine; cutting the uncut part in the middle of the large plate prepared in the step 2) by adopting a stone bisecting machine or a stone rope saw, so that the large plate is divided into two vertically separated blocks;
4) Selecting a transparent acrylic plate with the thickness of more than 0.5mm, and compounding the transparent acrylic plate on the large plate on the upper layer;
5) Sucking the large plate on the transparent acrylic plate by using a sucker lifting tool, lifting the large plate, and conveying the large plate to other cutting tables to be subjected to cutting;
6) Repeatedly cutting the two divided large plates according to the steps 2) -5) until the thickness of the large plate is 1-3 mm, and compounding a transparent acrylic plate with the thickness more than 0.5mm on each large plate;
7) Polishing the large plate prepared in the step 6) in a fixed thickness;
8) Combining the two large plates prepared in the step 7), wherein the transparent acrylic plates on the large plates are opposite, and an ultrathin sensor is further combined between the two transparent acrylic plates.
2. The production process of the light-transmitting veneered stone composite plate capable of eliminating the peripheral bright edges as claimed in claim 1, is characterized in that: and a water molecule activating film is compounded between the aluminum honeycomb panel and the light guide plate and between the ultrathin stone panel and the light guide plate.
3. The production process of the light-transmitting veneered stone composite board capable of eliminating the peripheral bright edges as claimed in claim 1, is characterized in that: the reflection film is a silvery white metal reflection film, and one surface of the aluminum honeycomb panel, which is provided with the silvery white metal reflection film, is compounded with the laser dotting surface of the light guide plate through a transparent adhesive layer.
4. The production process of the light-transmitting veneered stone composite board capable of eliminating the peripheral bright edges as claimed in claim 1, is characterized in that: the ultra-thin sensor is one of a capacitive touch sensor, an electromagnetic sensor or a radio frequency sensor.
5. A can eliminate printing opacity veneer stone composite sheet of bright limit all around, adopt the production technology production of claim 1, including a light guide plate, an aluminum honeycomb panel and an ultra-thin stone panel, its characterized in that: the laser dotting density on the laser dotting surface of the light guide plate increases progressively from the peripheral side of the light guide plate to the central point of the light guide plate, and deep color ink is coated on the peripheral side of the laser dotting surface; a reflecting film is adhered to one surface of the aluminum honeycomb plate, and the laser dotting surface of the light guide plate is compounded with the surface of the aluminum honeycomb plate, which is adhered with the reflecting film; the ultrathin stone panel is compounded with the other surface of the light guide plate; the ultra-thin stone panel comprises two large stone plates with the thickness of 1-3 mm, a transparent acrylic plate with the thickness larger than 0.5mm is compounded on each large stone plate, the two large stone plates are mutually compounded, the transparent acrylic plate on the large stone plates is opposite, an ultra-thin sensor is compounded between the two transparent acrylic plates, and the large stone plates and the transparent acrylic plates are compounded through glue layers to enable the large stone plates and the transparent acrylic plates to be integrally bendable.
6. The light-transmitting veneered stone composite plate capable of eliminating peripheral bright edges as claimed in claim 5, is characterized in that: and a water molecule activating film is compounded between the aluminum honeycomb panel and the light guide plate and between the ultrathin stone panel and the light guide plate.
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WO2020151022A1 (en) * | 2019-01-25 | 2020-07-30 | 南安市贝斯泰石业有限公司 | Functional stone decorative board, luminous dinner plate and hanging speaker |
DE202020101944U1 (en) * | 2019-09-30 | 2021-01-15 | Covestro Deutschland Ag | LED lighting elements based on multi-layer bodies with a stone look |
CN112937198A (en) * | 2021-03-29 | 2021-06-11 | 厦门市贝斯泰进出口有限公司 | Frameless luminous decorative plate capable of being applied to wall surface, ground and electric appliance and refrigerator |
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CN202216178U (en) * | 2011-09-13 | 2012-05-09 | 青岛海信电器股份有限公司 | Light guide plate and backlight module |
CN202706410U (en) * | 2012-02-29 | 2013-01-30 | 环球石材(东莞)有限公司 | Composite board made of natural stone |
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Effective date of registration: 20190716 Address after: 362342 Fujian city of Quanzhou province Nanan city water town line stone processing zone (Park Village) Fujian Nanan City victory Stone Co. Ltd plate Market Applicant after: NANAN BESTTIME STONE Co.,Ltd. Address before: 361006 Guotai Building 26C, 392 Jiahe Road, Huli District, Xiamen City, Fujian Province Applicant before: XIAMEN BESTTIME IMP&EXP. Co.,Ltd. |
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