JP7423316B2 - Fixtures with top plate and method for manufacturing fixtures with top plate - Google Patents

Description

The present invention relates to a fixture with a top plate and a method for manufacturing a fixture with a top plate.

2. Description of the Related Art In office spaces such as offices and public facilities, fixtures are generally installed in order to improve the efficiency of employees' work. As such a fixture, a fixture with a top plate, which has a top plate supported by legs or the like, is widely used, for example, as disclosed in Patent Document 1. For example, the top plate installed in such a fixture with a top plate includes a sheet metal for ensuring strength and a melamine decorative board placed so as to cover the sheet metal.

Patent No. 6019145

Incidentally, in recent years, in order to reduce the thickness and weight, a top plate in which a sheet metal is directly painted without installing a melamine decorative board has been proposed. This type of structure in which the sheet metal is directly painted is used for the legs that support the top plate, but due to the high thermal conductivity of the sheet metal, the temperature of the top plate is lower than body temperature. In some cases, it feels cold to the touch. On the other hand, if the temperature of the top plate is higher than your body temperature, it will feel hot to the touch. In other words, if the top plate were to be painted directly onto the sheet metal like the legs, the top plate would feel cold in the winter and hot in the summer, which could cause discomfort to the office worker. be.

The present invention was made in view of the above-mentioned problems, and an object of the present invention is to reduce the discomfort felt when an office worker or the like touches the top plate of a fixture with a top plate.

The present invention employs the following configuration as a means for solving the above problems.

A first invention is a fixture with a top plate, which includes a top plate whose upper surface is a work surface, and a support structure that supports the top plate, wherein the top plate has a top plate base made of metal, and a support structure that supports the top plate. a top plate coating layer consisting of at least two or more paint layers coated on at least the upper surface of the top plate base, and the support structure includes a metal support base and at least a portion of the surface of the support base. and a support coating layer consisting of at least one paint layer coated on the top plate, and the top plate coating layer is formed by laminating a larger number of paint layers than the support coating layer.

According to the first invention, the top plate includes a metal top plate base, the support structure includes a metal support base, and the top plate coating layer is formed on the top plate base. The number of paint layers stacked is greater than the number of paint layers stacked forming the support coating layer coated on the support substrate. Therefore, the top plate coating layer can be made thicker than the support coating layer, and the distance from the work surface of the top plate to the top plate base can be made larger than the distance from the surface of the support coating layer to the support base. Can be done. Therefore, according to the present invention, the work surface of the top plate is kept away from the metal top plate base, and it is possible to suppress heat transfer between a hand or the like touching the top plate and the top plate base. When working, an office worker will inevitably touch the top plate, but according to the present invention, it is possible to suppress the office worker etc. from feeling the coldness or heat of the top plate base, and to allow the office worker to touch the top plate of the fixture with a top plate. It is possible to reduce the discomfort caused by contact with other objects.

On the other hand, according to the present invention, in a support structure that is rarely touched by an office worker, the support coating layer is formed thinner than the top plate coating layer. In other words, the supporting coating layer is not formed to be unnecessarily thick. Therefore, according to the present invention, it is possible to simplify the process of forming a support coating layer and form a support structure in a short time and at low cost.

A second invention is based on the first invention, wherein the top plate coating layer is one of the paint layers as a thermal sensation adjusting layer having a lower thermal conductivity than other paint layers forming the top plate coating layer. We adopt a configuration that has the following.

According to the second invention, one of the paint layers forming the top plate coating layer is a thermal sensation adjusting layer with low thermal conductivity. Therefore, heat transfer between a hand or the like touching the top plate and the top plate base can be further suppressed. Therefore, according to the present invention, it is possible to further reduce discomfort when an office worker or the like touches the top plate of a fixture with a top plate.

A third invention is based on the second invention, wherein the top plate coating layer, as one of the paint layers, covers the thermal sensation adjusting layer from the side opposite to the top plate base and protects the top plate from the outside. A structure having a visible colored paint layer is adopted.

According to the third invention, one of the paint layers forming the top plate coating layer includes a colored paint layer that is visible from the outside of the top plate. According to the present invention, the appearance impression of the top plate is mainly determined by the colored paint layer, and such colored paint layer is provided separately from the thermal sensation adjustment layer. Therefore, according to the present invention, it is less necessary to adjust the color tone of the thermal sensation adjustment layer for the appearance impression of the top plate. Therefore, material selection for the thermal sensation adjustment layer, etc. becomes easy.

A fourth invention employs a configuration in the third invention, in which the thermal sensation adjusting layer is a transparent layer that can transmit light.

According to the fourth invention, the thermal sensation adjusting layer is a transparent layer. Therefore, even if the thickness of the colored paint layer is small, the color tone of the temperature sensation adjusting layer is prevented from being visually recognized by an outsider through the colored paint layer. Therefore, according to the present invention, it is possible to prevent the thermal sensation adjusting layer from affecting the color tone of the top plate.

In a fifth invention, in any one of the first to fourth inventions, the support coating layer contacts the surface of the support substrate and includes a support structure colored paint layer that is visible from the outside of the support structure. We adopt the configuration of having

According to the fifth invention, in the support structure, the support structure colored paint layer is provided in direct contact with the support base. Therefore, it is possible to prevent the support coating layer from being formed unnecessarily thick.

A sixth invention provides a top plate forming step for forming a top plate whose upper surface is a work surface, a support structure forming step for forming a support structure that supports the top plate, and the top plate and the support structure. A method for manufacturing fixtures with a top plate, which comprises an assembly step of assembling the top plate with a metal top plate base, wherein the top plate forming step includes applying a paint to at least the upper surface of a metal top plate base to form a top plate coating layer. The support structure forming step includes a support coating layer forming step of forming a support coating layer by applying a paint to at least a part of the surface of the metal support base, and the top plate A configuration is adopted in which the number of times of overcoating of the paint in the coating layer forming step is greater than the number of times of overcoating of the paint in the support coating layer forming step.

According to the sixth aspect of the invention, it is possible to manufacture a fixture with a top plate in which the top coating layer is formed by laminating a larger number of paint layers than the supporting coating layer. Therefore, according to the present invention, it is possible to move the work surface of the top plate away from the metal top plate base, suppress the feeling of coldness or heat of the top plate base by an office worker, etc. Discomfort when an office worker or the like touches the board can be reduced. Further, according to the present invention, the support coating layer can be formed thinner than the top plate coating layer, the process of forming the support coating layer can be simplified, and the support structure can be formed in a short time and at low cost. It becomes possible.

A seventh invention is based on the sixth invention, wherein the top plate coating layer is formed by laminating a large number of paint layers, and the top plate coating layer forming step is performed using the top plate coating layer as one of the paint layers. A configuration is employed in which a thermal sensation adjusting layer forming step is employed to form a thermal sensation adjusting layer having a lower thermal conductivity than the other coating layers forming the layer.

According to the seventh invention, it is possible to form a top plate coating layer in which one of the paint layers is a thermal sensation adjusting layer with low thermal conductivity. Therefore, it is possible to further suppress the heat transfer between the hands, etc. that touch the top plate and the top plate base, and it is possible to reduce the discomfort caused when an office worker, etc. touches the top plate of a fixture with a top plate. It becomes possible.

An eighth invention is the seventh invention, in which the top plate coating layer forming step covers the thermal sensation adjusting layer as one of the paint layers from the side opposite to the top plate base and covers the top plate. A configuration is adopted that includes a colored paint layer forming step for forming a colored paint layer that is visible from the outside.

According to the eighth invention, it is possible to form a top plate coating layer in which one of the paint layers is a colored paint layer that is visible from the outside of the top plate. According to the present invention, such a colored paint layer can be provided separately from the temperature sensation adjustment layer, reducing the need to adjust the color tone of the temperature sensation adjustment layer for the appearance impression of the top plate. This makes it easier to select materials for the thermal sensation adjustment layer.

A ninth aspect of the present invention is based on the eighth aspect, and employs a configuration in which, in the temperature sensation adjustment layer forming step, the temperature sensation adjustment layer is formed by applying a transparent paint that allows light to pass therethrough.

According to the ninth invention, a transparent thermal sensation adjusting layer can be formed. Therefore, according to the present invention, even when the thickness of the colored paint layer is small, the color tone of the thermal sensation adjustment layer is prevented from being visible to an outsider through the colored paint layer, and the temperature It is possible to prevent the feel adjustment layer from affecting the color tone of the top plate.

A tenth invention is that in any one of the sixth to ninth inventions, the support coating layer forming step includes a support structure colored paint that contacts the surface of the support base and is visible from the outside of the support structure. A structure in which layers are formed is adopted.

According to the tenth invention, it is possible to form a support structure in which the support structure colored paint layer is provided in direct contact with the support base. Therefore, according to the present invention, it is possible to prevent the support coating layer from being formed unnecessarily thick.

According to the present invention, the work surface of the top plate can be moved away from the metal top plate base, suppressing the feeling of coldness or heat of the top plate base by an office worker, etc. Discomfort when touched by an office worker or the like can be reduced.

FIG. 1 is a perspective view showing a schematic configuration of a desk unit including a desk in an embodiment of the present invention. FIG. 2 is a perspective view showing a schematic configuration of a desk included in the desk unit. FIG. 2 is an exploded perspective view showing a schematic configuration of a desk included in the desk unit. It is a typical sectional view of a frame-like frame with which a desk is provided. FIG. 3 is a schematic cross-sectional view of a top plate included in the desk. It is a typical sectional view showing a formation process of a frame-like frame with which a desk is provided. It is a typical sectional view showing the formation process of the top plate with which a desk is provided. FIG. 3 is a schematic perspective view showing an assembly process of legs and a top plate included in the desk. It is a typical sectional view of the top plate showing a modification of the desk in one embodiment of the present invention.

DESCRIPTION OF THE PREFERRED EMBODIMENTS An embodiment of a fixture with a top plate and a method for manufacturing a fixture with a top plate according to the present invention will be described below with reference to the drawings. In the following embodiment, a desk unit 1 including a desk 2 (fixture with top plate), which is an example of the present invention, will be described.

FIG. 1 is a perspective view showing a schematic configuration of a desk unit 1. As shown in FIG. The desk unit 1 is a fixture that is installed in a work space such as an office or public facility to provide a work space for an office worker to efficiently handle electronic devices, etc. As shown in FIG. (a fixture with a top plate), a wagon 3, a clamp device 4, a lighting device 5, and a desk tap 6. Note that the desk unit 1 does not necessarily have a configuration including the wagon 3, and can also be configured without the wagon 3. Further, the desk unit 1 may be provided with other optional members.

In the following description, the front side of the desk unit 1 as seen from the office worker working at the desk unit 1 will be referred to as the front, the rear side will be referred to as the rear, the left hand side will be referred to as the left, and the right hand side will be referred to as the right. That is, as shown in FIG. 1, the direction in which a pair of legs 10 of the desk 2, which will be described later, are spaced apart from each other is defined as the left-right direction, and the horizontal direction perpendicular to the left-right direction is defined as the front-back direction. Further, the direction of gravity (the direction along the normal line of the floor surface on which the desk 2 is placed) is defined as the vertical direction.

FIG. 2 is a perspective view of the desk 2. Further, FIG. 3 is an exploded perspective view of a part of the desk 2. The desk 2 is a fixture that provides a work surface on which electronic devices and the like used by an office worker can be placed.As shown in FIGS. 2 and 3, the desk 2 has a pair of legs 10 (support structure) and a ceiling. It includes a board 11, a curtain board 12, a wiring duct 13, a cover part 14, and a vertical wiring duct 15.

Each leg 10 includes a frame 10a formed by connecting four linear frames into a square frame, and an adjuster 10b connected to the lower end of the frame 10a. These legs 10 bring the adjuster 10b into contact with the floor surface and support the top plate 11 from below.
As shown in FIG. 2, these pair of legs 10 are spaced apart in the left-right direction with the frame-like frames 10a facing each other. That is, in this embodiment, the left-right direction is the direction in which the pair of legs 10 are separated. Note that the leg body 10 can also be configured to include, for example, a panel that closes the opening of the frame-shaped frame 10a, or a configuration that includes a panel-shaped frame in place of the frame-shaped frame 10a.

FIG. 4 is a schematic cross-sectional view of the frame 10a. As shown in this figure, the frame 10a has a frame base 10a1 (support base) and a frame coating 10a2 (support coating layer). The frame base body 10a1 is made of metal such as steel or stainless steel, and is a part for ensuring the strength of the frame-like frame 10a.

The frame coating film 10a2 is a coating film coated on the surface of the frame base body 10a1, and in this embodiment is provided over the entire surface of the frame base body 10a1. The surface of this frame coating film 10a2 located on the opposite side from the frame base body 10a1 forms a surface 10a3 of the frame-like frame 10a. Note that the frame coating film 10a2 does not necessarily need to cover the entire surface of the frame base body 10a1, and may be patterned so as to expose a part of the frame base body 10a1.

Further, in this embodiment, the frame coating film 10a2 is formed only of a colored paint layer (support structure colored paint layer) that is visible from the outside of the frame-shaped frame 10a. That is, in this embodiment, the frame coating film 10a2 includes only a colored paint layer for determining the color tone of the frame-shaped frame 10a. Such a frame coating film 10a2 is formed by drying a colored paint applied to the surface of the frame base body 10a1.

The frame coating film 10a2, which is a single colored paint layer, is formed in direct contact with the surface of the frame base body 10a1. That is, in the frame-shaped frame 10a, no other paint layer is interposed between the colored paint layer and the frame base body 10a1. Note that the frame coating film 10a2 is not necessarily limited to a structure formed of a single layer. For example, the frame coating film 10a2 may have a multi-layer structure in which a plurality of colored paint layers are laminated, or a multi-layer structure in which a protective clear paint layer is laminated on the surface of the colored paint layer. However, in this embodiment, even if the frame coating film 10a2 is formed of a plurality of paint layers, the number of laminated paint layers forming the frame coating film 10a2 is the same as that forming the top plate coating film 11c, which will be described later. less than the number of paint layers to be applied.

The top plate 11 is a plate-shaped member whose front and back surfaces are oriented in the up-down direction, and in this embodiment has a rectangular shape in plan view with the left-right direction as the longitudinal direction and the front-rear direction as the lateral direction. The top plate 11 has legs 10 fixed to each of the lower surface of the left edge and the lower surface of the right edge with fasteners (not shown), and is supported from below by these legs 10. The upper surface 11a of the top plate 11 forms a work surface on which an office worker places electronic equipment and the like. The length of the top plate 11 in the front-rear direction is approximately the same as the length of the legs 10 in the front-rear direction.

FIG. 5 is a schematic cross-sectional view of the top plate 11. As shown in this figure, the top plate 11 has a top plate base body 11b and a top plate coating film 11c (top plate coating layer). The top plate base 11b is made of metal such as steel or stainless steel, and serves to ensure the strength of the top plate 11.

The top plate coating film 11c is a coating coated on at least the upper surface 11b1 of the top plate base 11b. The surface of this top plate coating film 11c located on the opposite side from the top plate base 11b forms the top surface 11a (work surface) of the top plate 11. As shown in FIG. 5, the top plate coating film 11c is a multilayered coating film formed by laminating a thermal sensation adjusting layer 11c1 and a colored paint layer 11c2.

The thermal sensation adjusting layer 11c1 is formed of a paint having a lower heat transfer coefficient than the paint forming the colored paint layer 11c2, and is a paint layer having a lower heat transfer coefficient than the colored paint layer 11c2. Furthermore, in this embodiment, the thermal sensation adjustment layer 11c1 is a transparent layer that can transmit light.

Such a thermal sensation adjustment layer 11c1 can be formed of, for example, a transparent paint containing hollow particles whose outer shell is made of silica and which has a space inside. It is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing at least one of hollow particles, hollow fibers, and porous particles. It is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing a crosslinked poly-γ-glutamic acid, a resin, and a solvent. It is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing ultrafine silk fibroin powder. It is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing a sponge component. Further, it is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing a resin made of at least one of a vinyl resin and a urethane resin. It is also possible to form the thermal sensation adjusting layer 11c1 with a paint containing hygroscopic heat-generating fine particles. Note that the thermal sensation adjustment layer 11c1 is not limited to a structure including hollow particles, and may be formed, for example, by a paint layer in which a large number of voids are formed.

The colored paint layer 11c2 is a paint layer that covers the thermal sensation adjustment layer 11c1 from the side opposite to the top plate base 11b and is visible from the outside of the top plate 11, and determines the color tone of the top plate 11. The surface of this colored paint layer 11c2 located on the opposite side from the top plate base 11b forms the upper surface 11a of the top plate 11. The colored paint layer 11c2 is formed by drying the colored paint applied to the surface of the temperature sensation adjustment layer 11c1.

The thickness dimensions of the thermal sensation adjusting layer 11c1 and the colored paint layer 11c2 are approximately the same. Further, the thickness of each of the thermal sensation adjusting layer 11c1 and the colored paint layer 11c2 is approximately the same as that of the frame coating film 10a2. That is, in this embodiment, the top plate coating film 11c has a two-layer structure, which has more layers than the single-layer frame coating film 10a2, and the thickness dimension of the top plate coating film 11c is equal to the thickness of the frame coating film 10a2. It is said to be about twice the size. That is, in this embodiment, the work surface of the top plate 11 is kept away from the metal top plate base 11b, and heat transfer between a hand or the like touching the top plate 11 and the top plate base 11b is suppressed. Ru.

As described above, in this embodiment, the top plate coating film 11c has a structure in which the thermal sensation adjustment layer 11c1 and the colored paint layer 11c2 are laminated, and the number of laminated paint layers is greater than that of the frame coating film 10a2. many. Such a top plate coating film 11c does not necessarily need to have two paint layers, and it is also possible to adopt a configuration in which the number of paint layers is three or more layers. However, even if the number of laminated paint layers in the top plate coating film 11c is increased, the number of laminated paint layers forming the top plate coating film 11c is equal to the number of laminated paint layers forming the frame coating film 10a2. More than numbers.

As shown in FIGS. 1 to 3, the curtain plate 12 is a plate-shaped member that connects the rear end of one leg 10 and the rear end of the other leg 10. As shown in FIGS. This curtain plate 12 is fixed to each leg 10 by fasteners (not shown). This curtain plate 12 has a curtain plate vertical frame 12a directly fixed to the frame-like frame 10a of the leg body 10, and a curtain plate panel 12b supported by the curtain plate vertical frame 12a. The curtain plate vertical frames 12a are arranged at the left and right ends of the curtain plate 12, respectively, and are fixed to the frame-like frame 10a by fasteners (not shown). The curtain panel 12b is a panel body whose left and right ends are each fixed to the curtain vertical frame 12a, and is arranged with its front and back surfaces facing in the front-rear direction. The upper and lower edges of this curtain panel 12b are folded back toward the front. Further, a gap S is provided between the top plate 11 and the curtain plate 12. This gap S allows wiring cables and the like to be taken in and out of the wiring accommodation area R of the wiring duct 13 from the rear side of the top plate 11.

The wiring duct 13 is arranged below the top plate 11 and has a wiring accommodation area R extending in the left-right direction. As shown in FIG. 3, the wiring duct 13 has a bottom plate 13a, a rear standing piece 13b, and a front standing piece 13c. The bottom plate 13a forms the bottom of the wiring duct 13, and has a plate shape with a mounting surface on which objects such as wiring can be placed facing upward. The bottom plate 13a has a long plate shape that is long in the left-right direction, and has a length dimension extending from one curtain plate vertical frame 12a of the curtain plate 12 to the other curtain plate vertical frame 12a, as shown in FIG. 3, for example. has been done.

The rear standing piece 13b is erected upward from the rear end of the bottom plate 13a. Further, a claw portion that can be locked to the curtain plate 12 is formed on the upper edge of the rear standing piece 13b. This claw portion is provided so as to project horizontally from the rear side toward the front, and is provided over the entire area of the rear standing piece 13b in the left-right direction. The wiring duct 13 is supported with respect to the curtain plate 12 by locking this claw portion to the curtain plate panel 12b. Such a rear standing piece 13b is arranged to face the curtain panel 12b of the curtain plate 12 in surface contact with or in close proximity to the curtain panel 12b. The front standing piece 13c is erected upward from the front end of the bottom plate 13a. The vertical dimension of this front standing piece 13c is smaller than the vertical dimension of the rear standing piece 13b. That is, the front standing piece 13c is formed lower than the rear standing piece 13b.

Such a wiring duct 13 is made of, for example, hard resin, and forms a wiring accommodation area R surrounded by a bottom plate 13a, a rear standing piece 13b, and a front standing piece 13c.
Such a wiring accommodation area R is open upward, and wiring, etc. can be taken in and out from above. Furthermore, the wiring duct 13 is open at its left and right ends. Therefore, it is possible to insert wires and the like from the outside of the wiring duct 13 into the wiring accommodation area R via the ends of the wiring duct 13 in the left and right direction.

The cover part 14 is a member that is removably attached to the wiring duct 13 and covers the wiring accommodation area R of the wiring duct 13 from the front side in a mounting posture in which the cover part 14 is attached to the wiring duct 13. The width dimension of the cover part 14 in the left-right direction is shorter than, for example, the distance between one curtain plate vertical frame 12a of the curtain plate 12 and the other curtain plate vertical frame 12a. In this embodiment, the width dimension of the cover part 14 in the left-right direction is half the distance from one curtain plate vertical frame 12a of the curtain plate 12 to the other curtain plate vertical frame 12a, and one curtain plate Two cover parts 14 can be attached from the vertical frame 12a to the other curtain plate vertical frame 12a. In other words, a plurality of (two in this embodiment) cover parts 14 cover the entire wiring accommodation area R of the wiring duct 13. Each cover portion 14 has flexibility and is made of, for example, soft resin.

As shown in FIGS. 2 and 3, the vertical wiring duct 15 is fixed to the left leg 10 of the two legs 10. As shown in FIGS. Specifically, of the four linear frames forming the frame-like frame 10a of the left leg 10, it is fixed in contact with the front side surface of the vertical frame located at the rear. This vertical wiring duct 15 is a member for guiding a wiring cable from the outside of the desk 2 to the wiring duct 13, and includes a main body duct 15a having an internal space for accommodating wiring, etc., and a main body duct 15a in a frame-like frame 10a. It includes a fixture 15b for fixing, and a detachable duct 15c that can be attached to and detached from the main body duct 15a.

For example, as shown in FIG. 1, a power tap D pulled out from the floor is attached to such a desk 2. The power tap D includes a tap main body D1 provided with an outlet for an outlet, and a wiring cable D2 connected to the tap main body D1. The tap main body D1 of such a power tap D is placed in the wiring accommodation area R of the wiring duct 13, and the wiring cable D2 connected to the tap main body D1 is routed through the wiring duct 13 and the vertical wiring duct 15 to the floor, for example. reached to the surface.

Returning to FIG. 1, the wagon 3 is a fixture that can accommodate the baggage of an office worker using the desk unit 1, and can be stored between the two legs 10 and below the top plate 11. . This wagon 3 is provided with casters (not shown) on the lower surface, and is easily movable in the front and rear directions.

The clamp device 4 is a fixture for supporting the lighting device 5 and the desk tap 6. In this embodiment, the clamp device 4 is fixed to the top plate 11 by clamping the rear edge of the top plate 11 from above and below. Note that since the desk unit 1 of this embodiment includes the lighting device 5 and the desk tap 6, two clamp devices 4 are provided. A lighting device 5 is connected to one clamp device 4, and a desk tap 6 is connected to the other clamp device 4.

The desk 2 included in the desk unit 1 of this embodiment includes a top plate 11 whose upper surface 11a is a work surface, and a frame-like frame 10a that supports the top plate 11. In such a desk 2, the top plate 11 has a top plate base 11b made of metal and a top plate coating film 11c coated on at least the upper surface 11b1 of the top plate base 11b, and the frame-like frame 10a is made of metal. The frame base 10a1 has a frame base body 10a1 made of aluminum, and a frame coating film 10a2 that covers at least a portion of the surface of the frame base body 10a1. Further, in the desk 2, the top plate coating film 11c is formed by laminating more paint layers (two layers in this embodiment) than the frame coating film 10a2.

According to such a desk 2, the top plate coating film 11c can be made thicker than the frame coating film 10a2, and the distance from the work surface of the top plate 11 to the top plate base 11b can be adjusted from the surface of the frame coating film 10a2. The distance can be made larger than the distance to the frame base body 10a1. Therefore, according to the desk 2, the work surface of the top plate 11 is kept away from the metal top plate base 11b, which suppresses heat transfer between a hand or the like touching the top plate 11 and the top plate base 11b. be able to. The office worker will inevitably touch the top plate 11 during work, but the desk 2 prevents the office worker from feeling the coldness or heat of the top board base 11b. Discomfort when touched by an office worker or the like can be reduced.

On the other hand, according to the desk 2, the frame coating film 10a2 is formed thinner than the top plate coating film 11c in the frame 10a which is rarely touched by an office worker or the like. In other words, the frame coating film 10a2 is not formed to be unnecessarily thick. Therefore, according to the desk 2, it is possible to simplify the process of forming the frame coating film 10a2 and form the frame-shaped frame 10a in a short time and at low cost.

Moreover, in the desk 2, the top plate coating film 11c has a thermal sensation adjustment layer 11c1, which has a lower thermal conductivity than the other paint layers forming the top plate coating film 11c, as one of the paint layers. Therefore, heat transfer between a hand or the like touching the top plate 11 and the top plate base 11b can be further suppressed. Therefore, according to the desk 2, it is possible to further reduce discomfort when an office worker or the like touches the top plate 11 of the desk 2.

In addition, in the desk 2, the top plate coating film 11c covers the thermal sensation adjustment layer 11c1 from the side opposite to the top plate base 11b as one of the paint layers, and also forms a colored paint layer 11c2 that is visible from the outside of the top plate 11. have. According to such a desk 2, the appearance impression of the top plate 11 is mainly determined by the colored paint layer 11c2, and such a colored paint layer 11c2 is provided separately from the thermal sensation adjustment layer 11c1. Therefore, according to the desk 2, the need to adjust the color tone of the thermal sensation adjustment layer 11c1 for the appearance impression of the top plate 11 is reduced. Therefore, material selection for the thermal sensation adjustment layer 11c1, etc. becomes easy.

Further, in the desk 2, the thermal sensation adjustment layer 11c1 is a transparent layer that can transmit light. Therefore, even if the thickness of the colored paint layer 11c2 is small, the color tone of the thermal sensation adjustment layer 11c1 is prevented from being visually recognized by an outsider through the colored paint layer 11c2. Therefore, according to the desk 2, it is possible to prevent the thermal sensation adjustment layer 11c1 from affecting the color tone of the top plate 11.

Further, in the desk 2, the frame coating film 10a2 has a frame colored paint layer (frame coating film 10a2 itself) that is in contact with the surface of the frame base body 10a1 and is visible from the outside of the frame-shaped frame 10a. Therefore, according to the desk 2, it is possible to prevent the frame coating film 10a2 from being formed unnecessarily thick.

When manufacturing such a desk 2 (method for manufacturing fixtures with a top plate), the legs 10, the top plate 11, the curtain plate 12, the wiring duct 13, and the cover part 14 are formed separately, and then assembled. . In other words, the method for manufacturing the desk 2 includes a top plate forming process for forming the top plate 11, a leg forming process for forming the legs 10 (support structure forming process), and assembling the top plate 11 and the legs 10. It has an assembly process. In the top plate forming step, the top plate 11 is formed with the upper surface 11a serving as a work surface. Further, in the leg forming step, legs 10 that support the top plate 11 are formed.

FIG. 6 is a schematic diagram showing a part of the top plate forming process. As shown in FIG. 6(a), in the top plate forming step, a top plate base 11b having a predetermined shape is formed. Here, the top plate base 11b is formed by processing a sheet metal.

Subsequently, in the top plate forming step, as shown in FIG. 6(b), a thermal sensation adjustment layer forming step is performed in which a thermal sensation adjustment layer 11c1 is formed on the upper surface 11b1 of the top plate base 11b. Here, the thermal sensation adjusting layer 11c1 is formed by applying a paint serving as a material for forming the thermal sensation adjusting layer 11c1 onto the upper surface 11b1 of the top plate base 11b, and then drying the paint. That is, in the thermal sensation adjustment layer forming step, the thermal sensation adjustment layer 11c1 having a lower thermal conductivity than the other paint layers (in this embodiment, the colored paint layer 11c2) forming the top plate coating film 11c is formed.

Subsequently, in the top board forming step, as shown in FIG. 6(c), a colored paint layer forming step is performed in which a colored paint layer 11c2 is formed so as to cover the thermal sensation adjustment layer 11c1 from the side opposite to the top board base 11b. . Here, the colored paint layer 11c2 is formed by applying a paint serving as a material for forming the colored paint layer 11c2 to the temperature sensation adjusting layer 11c1 so as to be laminated thereon, and then drying the paint. That is, in the colored paint layer forming step, a colored paint layer 11c2 that covers the thermal sensation adjusting layer 11c1 from the side opposite to the top plate base 11b and is visible from the outside of the top plate 11 is formed.

Through these thermal sensation adjustment layer forming steps and colored paint layer forming steps, a top plate coating film 11c consisting of a plurality of laminated paint layers is formed. That is, in the method for manufacturing the desk 2, the top plate coating film 11c is formed by applying the paint twice. These temperature sensation adjustment layer forming process and colored paint layer forming process constitute a top plate coating layer forming process in which a paint is applied to at least the upper surface 11b1 of the metal top plate base 11b to form the top plate coating film 11c. ing.

FIG. 7 is a schematic diagram showing a part of the leg forming process, and shows the process of forming the frame 10a of the leg 10. As shown in FIG. 7A, in the leg forming step, a frame base 10a1 having a predetermined shape is formed by processing a sheet metal. Note that the frame base body 10a1 does not need to be assembled into a frame shape here, and is formed by dividing the frame base body 10a1 into four rod-shaped frames.

Subsequently, in the leg forming step, as shown in FIG. 7(b), a frame coating film forming step (support coating layer forming step) is performed in which a frame coating film 10a2 is formed on the surface of the frame base body 10a1. Here, the frame coating film 10a2 is formed by coating the surface of the frame base body 10a1 with a paint serving as a material for forming the frame coating film 10a2, and then drying the paint. That is, in the frame coating film forming step, a frame coating film 10a2 that is in contact with the surface of the frame base body 10a1 and visible from the outside of the leg body 10 is formed. Thereafter, the leg body 10 is formed by assembling the disassembled frame base body 10a1 and attaching the adjuster 10b. Note that the adjuster 10b may be attached after the legs 10 and the top plate 11 are assembled.

FIG. 8 is a perspective view schematically showing a part of the assembly process. In the assembly process, the legs 10 formed in the leg formation process described above and the top plate 11 formed in the top plate formation process described above are assembled using fasteners or the like (not shown). In addition, in the assembly process, in addition to the legs 10 and the top plate 11, the curtain plate 12, the wiring duct 13, the cover part 14, and the vertical wiring duct 15 may be assembled. The desk 2 is completed through such an assembly process.

In the method for manufacturing the desk 2 according to the present embodiment as described above, the top plate forming step includes forming the top plate 11 with the upper surface 11a serving as a work surface, and the step of forming the legs 10 that supports the top plate 11. It has a forming process and an assembly process of assembling the top plate 11 and the legs 10. In such a method of manufacturing the desk 2, the top plate forming step includes a top plate coating film forming step of applying paint to at least the upper surface 11a of the metal top plate base 11b to form the top plate coating film 11c. , the leg forming step includes a frame coating film forming step of applying a paint to at least a portion of the surface of the metal frame base 10a1 to form a frame coating film 10a2; The number of times of overcoating is greater than the number of times of overcoating of the paint in the frame coating film forming process.

According to such a method of manufacturing the desk 2, it is possible to manufacture the desk 2 in which the top plate coating film 11c is formed by laminating more paint layers than the frame coating film 10a2. Therefore, according to the manufacturing method of the desk 2, the work surface of the top plate 11 can be moved away from the metal top plate base 11b, and the office worker etc. can be prevented from feeling the coldness or heat of the top plate base 11b. , it is possible to reduce discomfort when an office worker or the like touches the top plate 11 of the desk 2. Further, according to the manufacturing method of the desk 2, the frame coating film 10a2 can be formed thinner than the top plate coating film 11c, simplifying the process of forming the frame coating film 10a2, and forming a frame shape in a short time and at low cost. It becomes possible to form the frame 10a.

In addition, in the manufacturing method of the desk 2, the top plate coating film 11c is formed by laminating a large number of paint layers, and the top plate coating film forming step is performed as one of the paint layers. It has a thermal sensation adjusting layer forming step of forming a thermal sensation adjusting layer 11c1 having a lower thermal conductivity than the paint layer. Therefore, it is possible to form the top plate coating film 11c in which one of the coating layers is the thermal sensation adjusting layer 11c1 with low thermal conductivity. Therefore, according to the method for manufacturing the desk 2, it is possible to manufacture the desk 2 that further suppresses heat transfer between the hands, etc. that touch the top plate 11 and the top plate base 11b, and the top plate 11 of the desk 2 can be It is possible to reduce discomfort when an office worker or the like touches it.

In addition, in the manufacturing method of the desk 2, the top plate coating film forming process covers the thermal sensation adjustment layer 11c1 as one of the paint layers from the side opposite to the top plate base 11b, and also has a colored color that is visible from the outside of the top plate 11. It has a colored paint layer forming step for forming the paint layer 11c2. Therefore, such a colored paint layer 11c2 can be provided separately from the thermal sensation adjusting layer 11c1. Therefore, according to the manufacturing method of the desk 2, the need to adjust the color tone of the thermal sensation adjusting layer 11c1 for the appearance impression of the top plate 11 is reduced, and material selection of the thermal sensation adjusting layer 11c1, etc. becomes easy.

Further, in the method for manufacturing the desk 2, in the colored paint layer forming step, the temperature sensation adjusting layer 11c1 is formed by applying a transparent paint that can transmit light. Therefore, a transparent thermal sensation adjusting layer 11c1 can be formed. Therefore, according to the manufacturing method of the desk 2, even if the thickness of the colored paint layer 11c2 is small, the color tone of the thermal sensation adjustment layer 11c1 can be visually recognized by an outsider through the colored paint layer 11c2. It is possible to manufacture a desk 2 that can prevent the temperature change, and it is possible to prevent the thermal sensation adjustment layer 11c1 from affecting the color tone of the top plate 11.

In addition, in the manufacturing method of the desk 2, in the frame coating film forming step, a frame coating film 10a2 (support structure colored paint layer) that is in contact with the surface of the frame base body 10a1 and visible from the outside of the frame-shaped frame 10a is formed. do. Therefore, it is possible to form a frame-like frame 10a in which the frame coating film 10a2 is provided in direct contact with the frame base body 10a1. Therefore, according to the method for manufacturing the desk 2, it is possible to prevent the frame coating film 10a2 from being formed unnecessarily thick.

Although preferred embodiments of the present invention have been described above with reference to the accompanying drawings, it goes without saying that the present invention is not limited to the above embodiments. The various shapes and combinations of the constituent members shown in the embodiments described above are merely examples, and can be variously changed based on design requirements and the like without departing from the spirit of the present invention.

For example, in the above embodiment, the top plate coating film 11c has a structure in which the thermal sensation adjusting layer 11c1 and the colored paint layer 11c2 are laminated. However, the present invention is not limited thereto. FIG. 9 is a schematic cross-sectional view showing a modification of the top plate coating film 11c. For example, as shown in FIG. 9(a), the top plate coating film 11c may have a structure in which a plurality of colored coating layers 11c2 are laminated. Further, as shown in FIG. 9(b), it is also possible to adopt a configuration including a cushion layer 11c3 that provides cushioning properties to the top plate 11 in place of the thermal sensation adjustment layer 11c1. Such a cushion layer 11c3 is, for example, a layer whose elastic modulus is smaller than that of the colored paint layer 11c2, and is formed by applying paint. Further, as shown in FIG. 9C, it is also possible to adopt a configuration in which a hard layer 11c4 for improving the hardness of the top plate 11 is provided in place of the thermal sensation adjustment layer 11c1. Such a hard layer 11c4 is, for example, a layer having a larger elastic modulus than the colored paint layer 11c2, and is formed by applying a paint.

Even with the configurations shown in FIGS. 9(a) to 9(c), the top plate coating film 11c can be made thicker than the frame coating film 10a2, and the top plate coating film 11c can be made thicker than the frame coating film 10a2. The distance dimension to the base body 11b can be made larger than the distance dimension from the surface of the frame coating film 10a2 to the frame base body 10a1. Therefore, even with the configurations shown in FIGS. 9(a) to 9(c), it is possible to prevent the office worker from feeling the coldness or heat of the top plate base 11b, and to prevent the office worker from feeling the coldness or heat of the top plate base 11b. It is possible to reduce the discomfort felt when someone touches it.

Furthermore, in the above embodiment, the structure in which the support structure that supports the top plate 11 is the leg body 10 has been described. However, the present invention is not limited thereto. For example, it is also possible to adopt a configuration in which the top plate 11 is supported using a desk or the like as a support structure.

1... Desk unit, 2... Desk (fixture with top plate), 3... Wagon, 4... Clamp device, 5... Lighting device, 6... Tabletop tap, 10... Leg body (support structure), 10a... Frame-shaped frame, 10a1... Frame base (supporting base), 10a2... Frame coating film (support coating layer), 10a3... Surface, 10b... Adjuster, 11... Top plate, 11a... Upper surface, 11b...Top plate base, 11b1...Top surface, 11c...Top plate coating film (top plate coating layer), 11c1...Temperature sensation adjustment layer (paint layer), 11c2...Colored paint layer (paint layer), 11c3 ... Cushion layer (paint layer), 11c4 ... Hard layer (paint layer), 12 ... Curtain plate, 13 ... Wiring duct, 14 ... Cover part, 15 ... Vertical wiring duct

Claims (10)

A fixture with a top plate, comprising a top plate whose upper surface is a work surface, and a support structure that supports the top plate,
The top plate has a top plate base made of metal, and a top plate coating layer consisting of at least two or more paint layers coated on at least the upper surface of the top plate base,
The support structure has a support base made of metal, and a support coating layer consisting of at least one paint layer coated on at least a portion of the surface of the support base,
A fixture with a top plate, wherein the top plate coating layer is formed by laminating a larger number of paint layers than the support coating layer. 2. The top plate coating layer has, as one of the paint layers, a thermal sensation adjusting layer having a lower thermal conductivity than the other paint layers forming the top plate coating layer. Fixtures with top plate. 3. The top plate coating layer has, as one of the paint layers, a colored paint layer that covers the temperature sensation adjusting layer from the side opposite to the top plate base and is visible from the outside . Fixtures with top plate. 4. The fixture with a top plate according to claim 3, wherein the thermal sensation adjusting layer is a transparent layer that allows light to pass through. The fixture with a top plate according to any one of claims 1 to 4, wherein the support coating layer has a support structure colored paint layer that is in contact with the surface of the support base and is visible from the outside . A top plate forming step of forming a top plate whose upper surface is a work surface, a support structure forming step of forming a support structure that supports the top plate, and an assembly step of assembling the top plate and the support structure. A method for manufacturing fixtures with a top plate, the method comprising:
The top plate forming step includes a top plate coating layer forming step of applying a paint to at least the upper surface of a metal top plate base to form a top plate coating layer,
The support structure forming step includes a support coating layer forming step of applying a paint to at least a portion of the surface of the metal support base to form a support coating layer,
A method for manufacturing fixtures with a top plate, characterized in that the number of times of overcoating of the paint in the step of forming the top plate coating layer is greater than the number of times of overcoating of the paint in the step of forming the support coating layer. The top plate coating layer is formed by laminating a large number of paint layers,
The top plate coating layer forming step is a thermal sensation adjustment layer forming step of forming, as one of the paint layers, a thermal sensation adjustment layer having a lower thermal conductivity than the other paint layers forming the top plate coating layer. The method for manufacturing a fixture with a top plate according to claim 6, characterized in that it has the following. The top plate coating layer forming step includes, as one of the paint layers, a colored paint layer forming step of covering the temperature sensation adjusting layer from the side opposite to the top plate base and forming a colored paint layer that is visible from the outside . The method for manufacturing a fixture with a top plate according to claim 7, characterized in that it comprises: 9. The method of manufacturing a fixture with a top plate according to claim 8, wherein in the temperature sensation adjustment layer forming step, the temperature sensation adjustment layer is formed by applying a transparent paint that allows light to pass therethrough. The top plate according to any one of claims 6 to 9, wherein in the support coating layer forming step, a support structure colored paint layer that is in contact with the surface of the support base and is visible from the outside is formed. Fixture manufacturing method.

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