KR20170014403A - Rubber glove with non-slip function - Google Patents

Abstract

The present invention relates to rubber gloves with a non-slip function. More specifically, each of the rubber gloves with the non-slip function has a friction surface which protrudes as a determined area, and lots of grooves on the rubber gloves to let detergent and water be gathered therein, thereby enlarging the friction force between dishes and the rubber gloves. Each of the rubber gloves with the non-slip function comprises non-slip patterns formed as determined patterns at one side, and the determined patterns of the non-slip patterns comprise protruded sides and the grooves.

Description

{RUBBER GLOVE WITH NON-SLIP FUNCTION}

The present invention relates to a rubber glove, and more particularly, to a rubber glove which forms a friction surface and a plurality of grooves protruding with a predetermined area in a rubber glove to increase the friction force between the bowl and the rubber glove, The present invention relates to an anti-slip rubber glove.

In general, rubber gloves protect the user's hands from detergents, water, or other substances or contaminants during work such as washing dishes. Rubber gloves have elastic properties that are as good as those in rubber, so they can move their hands freely, even if they are in their hands. Thus, it is possible to use a large number of objects as well as a bowl at home or at various places.

Such rubber gloves are mainly used for washing dishes at home, and because rubber is used as a material for rubber gloves, they are not missed due to friction characteristics. But you have to use water to wash the dishes, especially the detergent. Water also reduces friction, but detergents add more slippery properties, so that even with rubber gloves, you can miss a bowl with detergent or water. Some conventional rubber gloves may form a simple lattice pattern. However, even in such a case, it is not possible to cope with slippery fluids such as detergent. In case of difficulty in catching such as a dish, a simple plaid rubber glove is often broken and often broken.

Also, due to the nature of rubber gloves, there is no ventilation, and there is water and detergent on the outside, so it can not be made like cotton gloves. The skin inside rubber gloves may be damaged by moisture.

Published Japanese Patent Application No. 10-2001-0011539 (published Feb. 15, 2001) Registered utility model number 20-0424173 (announcement on August 18, 2006)

In order to solve the above-mentioned problems, the present invention is characterized in that a friction protruding surface having a predetermined height is formed on the outer surface of the rubber glove and a plurality of grooves are formed on the protruded friction protruding surface, So as to improve the friction characteristics of the object by the friction protruding surface, thereby preventing slippage.

Another object of the present invention is to remove the fluid on the friction protruding surface to increase the contact area with the object, thereby allowing the object to be gripped easily by increasing the friction area.

It is a further object of the present invention to provide an inner tube portion of an air flow on the inner surface of a rubber glove to prevent the skin from being damaged and to remove the rubber glove by allowing moisture to flow.

It is still another object of the present invention to provide a fluid flow path for discharging the fluid collected in the plurality of grooves to the outside, thereby further improving the friction characteristics.

According to another aspect of the present invention, there is provided an anti-slip device comprising a non-slip fringe formed in a predetermined pattern on one side of a rubber glove, the predetermined pattern of the non-slip fringe pattern comprises protrusions and grooves protruding at a predetermined height from an outer surface of the rubber glove The present invention provides a non-slip rubber glove.

In a preferred embodiment of the present invention, the non-slip fringe portion includes: a friction protruding surface protruding at a predetermined height from one side of the rubber glove; And a plurality of grooves having a predetermined depth on the friction protruding surface. When the grooves are in contact with the fluid, the fluid on the friction protruding surface is gathered in the grooves by the joining between the grooves and the friction protruding surfaces And a contact area between the friction protrusion surface and the object is increased as the fluid on the friction protrusion surface is removed.

According to a preferred embodiment of the present invention, there is provided a non-slip rubber glove characterized in that the abovementioned thick finger groove is composed of a groove of a heart shape, a groove of a tire pattern shape, and a groove of a honeycomb pattern shape do.

In a preferred embodiment of the present invention, a plurality of tread patterns are formed in an array of any one of a linear array, a cross array, a random array, and a tire pattern to form a pattern pattern, Are linearly arranged; A crossing pattern in which a plurality of vertical pattern grooves are arranged in an intersecting manner; A random pattern in which a plurality of regular pattern grooves are randomly arranged; And a tire pattern pattern in which a plurality of elongated pattern grooves form a groove of a tire pattern shape; Wherein the rubber glove is made of any one of the following materials.

In a preferred embodiment of the present invention, the frictional protruding surface is formed of any one of the surfaces of the outer surface, the curved surface of the predetermined curvature, and the protruding surface of the predetermined size, or the mixed surface thereof Provides anti-slip rubber gloves.

According to a preferred embodiment of the present invention, the raised patterned groove comprises a patterned groove bottom which is a bottom surface and has a predetermined depth on the friction protruding surface; A pattern groove side wall surface connecting the friction protrusion surface to the pattern groove bottom surface; And a groove space (223) formed by the pattern groove bottom surface (221) and the pattern groove side wall surface (222).

In a preferred embodiment of the present invention, the pattern groove side wall surface is formed of one of a vertical surface, an inclined surface, and a curved surface.

According to a preferred embodiment of the present invention, the inner surface of the rubber glove is formed with an air-permeable portion including air, the inner vent portion includes an inner vent projection protruding inwardly corresponding to a bottom surface of the recess groove of the recessed groove; And an inner cylinder hole portion surrounding the inner air vent projection and forming a space corresponding to a protruding height of the inner vent projection, wherein air is contained in the inner cylinder air gap portion.

In the preferred embodiment of the present invention, the non-slip fringe portion is formed with a fluid flow path having a lower height than the friction protruding surface, and the plurality of protrusion grooves are connected by the fluid flow path, Characterized in that the non-slip rubber glove is provided so as to flow the drawn fluid to the fluid flow path.

In a preferred embodiment of the present invention, the fluid flow path includes: a longitudinal pattern flow formed in the longitudinal direction of the finger or palm in the non-slip fringe; A lateral pattern flow in which the groove is formed in the lateral direction of the finger or the palm in the non-slip fringe portion; An S-shaped pattern flow formed in the S-shaped groove in the non-slip fringe portion; A W-shaped pattern flow path in which a 'W' shaped groove is formed in the non-slip fringe portion; And a random pattern flow in which grooves are formed in a random shape in the non-slip fringe portion; Wherein the non-slip rubber glove is formed of at least one of a flow path or a mixed flow path.

In a preferred embodiment of the present invention, the manufacturing method for manufacturing the non-slip rubber glove comprises the steps of: preparing a rubber melt, a non-slip rubber glove mold including a plurality of projections and a plurality of projections; A mold immersion step for immersing a non-slip rubber glove mold in a rubber melt; A rubber melt application step of taking a non-slip rubber glove mold immersed in a rubber melt and applying a rubber melt to an outer surface of a non-slip rubber glove mold and a plurality of projections; A rubber solidification step of solidifying the rubber melt by drying the rubber melt at a predetermined temperature and for a predetermined time in a state in which the rubber melt is coated on the outer surface of the non-slip rubber glove mold; And a mold separating step of separating the non-slip rubber glove mold from the rubber glove having the rubber solid layer formed on the surface and the grooves by applying the rubber melt to the outer surface of the non-slip rubber glove mold, A method for manufacturing a non-slip rubber glove is provided.

In a preferred embodiment of the present invention, the rubber glove includes: a friction protruding surface protruding at a predetermined height from one side of the rubber glove; And a plurality of grooves formed in the friction protruding surface, the grooves having a predetermined depth, wherein the non-slip rubber glove mold includes: a surface forming bone corresponding to the friction protruding surface and forming a valley with a predetermined depth; And a plurality of protrusions for protrusions corresponding to the protrusions and protruding from the protrusions at a predetermined height.

In a preferred embodiment of the present invention, the non-slip rubber glove mold for forming the non-slip rubber glove is immersed in the rubber melt of the rubber material, in which a plurality of projections and surface- The rubber melt is applied to the outer surface of the anti-slip rubber glove mold for drying at a predetermined temperature and for a predetermined time in a state where the rubber melt is coated on the outer surface of the non-slip rubber glove mold, the rubber melt is coated on the outer surface of the anti- Characterized in that a non-slip rubber glove mold is separated from a rubber glove on which a solid layer is formed to provide a rubber glove.

In a preferred embodiment of the present invention, the rubber glove includes: a friction protruding surface protruding at a predetermined height from one side of the rubber glove; And a plurality of grooved grooves having grooves formed at a predetermined depth on the friction protruding surface, wherein the non-slip rubber glove mold includes: a surface forming bone having a predetermined depth of corrugation corresponding to the friction protruding surface; And a plurality of protruding protrusions corresponding to the protrusions and protruding from the protrusions to a predetermined height.

According to the present invention configured as described above, a friction protruding surface having a predetermined height is formed on the outer surface of the rubber glove and a plurality of grooves are formed on the protruded frictional protruding surface, so that the fluid of the friction protruding surface becomes grooves, There is an effect of improving the friction characteristics of the object by the protruding surface and preventing the sliding.

Further, another effect of the present invention is to remove the fluid on the friction protruding surface to increase the contact area with the object, thereby allowing the object to be gripped easily by increasing the friction area.

Further, another effect of the present invention is that the inner wall of the rubber glove is formed on the inner surface of the rubber glove to allow the flow of moisture to prevent damage to the skin and to facilitate removal of the rubber glove.

Further, another advantage of the present invention is that the fluid flow path is formed so as to discharge the fluid collected in the plurality of grooves to the outside, thereby further improving the friction characteristics.

1 is an exemplary view of a palm portion of a rubber glove provided with a non-slip pattern according to the present invention.
Fig. 2 is an enlarged view of the portion A in Fig. 1, and an example in which the anti-slip portion is enlarged.
FIG. 3 is an exemplary view showing a cut surface of the anti-slip portion according to the present invention.
Fig. 4 is a cross-sectional view taken along the line BB in Fig. 3, showing an embodiment in which the thickness of the pattern grooves is uniformly rounded.
FIG. 5 is a view showing an embodiment in which the central thickness of the bottom of the pattern groove in the non-slip fringe portion according to the present invention is thicker than the edge.
Fig. 6 is an enlarged view of the portion C in Fig. 5, showing an example in which the central thickness e of the pattern groove bottom is thicker than the edge thickness d.
7 is an exemplary view showing a state in which an 'S' shaped fluid flow path is formed in the non-slip fringe portion of the rubber glove according to the present invention.
Fig. 8 is an exemplary view showing a state in which a fluid path of a lateral paddle is formed in a non-slip fringe portion in a rubber glove according to the present invention.
FIG. 9 is an exemplary view showing a state in which a fluid path of a longitudinal filament is formed in a non-slip fringe portion of a rubber glove according to the present invention.
FIG. 10 is an exemplary view showing an embodiment in which a ribbed groove is formed as a heart-like groove in a rubber glove according to the present invention.
11 is an illustration of a specimen for testing in a rubber glove or the like according to the present invention.
12 is an exemplary view for testing a rubber glove and the like according to the present invention.
Fig. 13 is an explanatory explanatory diagram showing the thickness formed by the general surface, the friction protruding surface, and the gable-like groove or the like of the rubber glove according to the present invention in divided form.
FIG. 14 is an exemplary view showing a state in which a mold and a rubber melt are prepared in the method of manufacturing a rubber glove according to the present invention.
15 is an exemplary view showing a state in which a mold is immersed in a rubber melt in the method for manufacturing rubber gloves according to the present invention.
16 is an exemplary view showing a state in which a mold is taken out from a rubber melt in the method for manufacturing rubber gloves according to the present invention.
17 is an exemplary view showing a state in which a mold is separated from a rubber glove in the method for manufacturing rubber gloves according to the present invention.
18 is a flowchart of a method for manufacturing a rubber glove according to the present invention.

Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

That is, the anti-slip rubber glove 10 according to the present invention is provided with a non-slip fringe 20 formed in a predetermined pattern on one side of the rubber glove as shown in FIGS. 1 to 18 attached hereto.

The predetermined pattern of the non-slip fringe pattern 20 is formed of protrusions and grooves protruding at a predetermined height from the outer surface of the rubber glove. The predetermined pattern in the anti-fake pattern portion 20 may be a pattern of a tire pattern, a pattern of a heart-shaped pattern, a pattern of a honeycomb pattern, a pattern of a circular pattern, a pattern of a polygonal pattern Various patterns can be formed according to the patterned pattern, the patterns of various character patterns, and the like. As described later, the pattern pattern is a pattern pattern along the grooves formed by the plurality of groove patterns 22 formed on the friction protruding surface 21 formed to be thick and thick with a predetermined thickness.

That is, the non-slip fence 20 is formed with a friction protruding surface 21 protruding at a predetermined height from one side of the rubber glove, and a plurality of protruding protrusions 21 having a predetermined depth from the friction protruding surface 21 And a groove 22. The predetermined height of the friction protruding surface 21 is formed to be thicker than the thickness of the body of the rubber gloves 10 having no pattern formed therein, The depth may be made thick or thin so as to be equal to or slightly different in thickness from the body of the rubber gloves 10.

Accordingly, when the bowl is held to wash the bowl with the rubber gloves according to the present invention, the fluid such as detergent, water and the like is buried in objects such as gloves and a bowl.

If the user touches the object such as a bowl with the glove in this way, the fluid in the rubber glove becomes tangled in the groove 22 when the object comes into contact with the fluid. In other words, the friction protruding surface 21 corresponds to a region that is relatively narrower than the elongated patterned grooves 22, so that when the user grasps the object by applying force, the fluid exits to the prolonged patterned grooves 22 near the vicinity. As a result, the fluid such as water and detergent is removed from the friction protruding surface 21, and the friction protruding surface 21 of the rubber glove made of rubber does not have any water or detergent, so that the friction protruding surface 21 comes into direct contact with the object. Therefore, the friction protruding surface 21 and the article are in close contact with each other, thereby increasing the contact area.

The fluid on the frictional protruding surface 21 becomes solid in the protruding recessed groove 22 by the joining between the object and the frictional protruding surface 21 when the fluid comes into contact with the object with the fluid, The contact area between the friction protruding surface 21 and the object is increased. Therefore, even if there is a detergent or water, you can easily grasp the object and do not miss the thing, and you will not break the dish or the bowl.

In addition, the fluid such as the friction protruding surface 21 and the like are gathered in the thick finger groove 22 and the oil film is formed at the edge of the finger finger groove 22, And eventually has an outer and airtight state with respect to the groove 22. Accordingly, when the object is moved away from the hanging groove 22, the action of pulling the object in the space of the hanging groove 22 in the state of being connected by the oil film forms a low pressure inside the instant hanging groove 22 . This causes a phenomenon that the rubber glove and the object are not separated by the low pressure phenomenon. The low-pressure formation can further improve the anti-slip effect.

Since the low pressure phenomenon must be effective in maintaining the formation of the oil film, the effect is further enhanced when the shape of the object and the thick patterned grooves 22 are kept constant, and the size of the large patterned grooves 22 Lt; / RTI > is not too large.

On the other hand, the large-sized groove 22 having a large size can hold a larger amount of fluid, which will help relatively to the contact of the friction protruding surface 21 with the object. Therefore, it is preferable to provide the small groove 22 in a small size and a low pressure forming groove in which the space of the groove can form a low pressure space by the fluid film of the fluid, and a fluid groove leaking groove in which the fluid is large in size.

The grooved groove 22 is composed of a groove of a heart-shaped groove, a groove of a tire-like pattern, and a groove of a honeycomb-shaped groove. According to the experiment, when the grooved pattern grooves 22 are formed in the grooves of the tire pattern pattern shape, the frictional force with the object is further improved. Other grooves, ellipses, squares, polygons, character shapes, etc. may be used to form grooves.

Further, the plurality of continuous pattern grooves 22 are formed in an array of any one of a linear arrangement, a cross arrangement, a random arrangement, and a tire pattern, thereby forming a pattern pattern. That is, a groove pattern portion of a patterned pattern formed by arranging a plurality of raised patterned grooves 22 in a predetermined pattern may be provided. Therefore, it is advantageous that the bottom of the entire rubber glove, the finger or the like is provided with a sense of beauty by the single groove pattern portion.

Examples of the pattern pattern include a linear pattern in which a plurality of rows of large pattern grooves are linearly arranged, a cross pattern in which a plurality of large pattern grooves are crossed, a random pattern in which a plurality of large pattern grooves are randomly arranged, A tire pattern pattern constituting a shape groove of a pattern pattern, or the like, or a mixed pattern in which these patterns are divided into predetermined areas.

In FIGS. 1, 7 to 9, and the like, a plurality of grooves 22, which are tire patterns, are arranged to form a groove pattern portion of a tire pattern. In particular, two small-sized grooves and two large-sized grooves are alternately arranged in the longitudinal direction. The low-pressure forming grooves in which the small-sized grooves form a low pressure, the fluid in which the large- And a lease groove or the like so that the overall frictional characteristics are better.

The friction protruding surface 21 may be formed of any one of a flat surface, a curved surface having a predetermined curvature, and a protruding surface having fine protrusions of a predetermined size, or a mixed surface formed of these surfaces It is possible. The friction protruding surface 21 forms a height that protrudes to a predetermined height from the outer surface of the basic rubber glove. The protruded surface is formed of a flat surface, a curved surface, or a surface formed with fine protrusions. Such as water or a detergent, to escape to the outside or the groove. So that the contact surface with the object is increased as much as the width of the removed fluid.

The bottom surface of the recessed groove 22 is a lower surface of the space defined by the friction protruding surface 21 at a predetermined depth. A groove bottom wall surface 222 connecting the groove bottom surface 221 is formed.

And a groove space 223 which is a space defined by the pattern groove bottom surface 221 and the pattern groove side wall surface 222. The groove space 223 is formed by the detergent, Of the fluid flows.

The pattern groove side wall surface 222 is formed of any one of a vertical surface, an inclined surface, and a curved surface. In particular, as in the example of the accompanying drawings, it is preferable that the pattern grooved side wall surface 222 comprises an inclined surface that narrows the groove toward the inside of the groove, thereby preventing the shape from being disturbed even by a strong force, The rigid pattern grooves 22 and the like are provided with rigidity such that the shapes of the planar shape and the space are not distorted.

In addition, in the present invention, the inner wall portion 23 including air is formed on the inner surface of the rubber glove.

The inner ventilation portion 23 surrounds the ventilation protrusion 231 with the ventilation protrusion 231 protruding inward and corresponding to the pattern groove bottom 221 of the seating pattern groove 22 And the inner vent hole portion 232 which is a space formed by the height of the ventilation projection 231 protruded.

So that air is contained in the inner cylinder pore portion 232. The air in the inner cylinder hole portion 232 forms a space in the inner surface of the rubber glove, which is located inside the rubber glove. If rubber gloves are worn for a certain period of time, moisture will be generated between the skin and the rubber gloves. Such moisture may adhere to the rubber gloves and the skin, which may result in poor skin condition. Also, when you try to take off your rubber gloves, it will not come off well due to moisture.

Therefore, according to the present invention, moisture is allowed to flow through the inner portion of the inner tube hole 232 due to the presence of air inside the rubber glove, and it is also difficult to closely adhere to the rubber glove due to the air.

4 shows an example in which the undersurface groove bottom surface 221 forms a round surface and has a uniform thickness. FIG. 5 shows an example in which the underside groove bottom surface 221 And the inner ventilation protrusions 231 of the inner cylindrical portion 23 corresponding to the lower portion form a downwardly rounded surface.

6, which shows an enlarged view of the portion "C" in FIG. 5, the pattern grooved bottom surface 221 of the thick groove 22 has a flat surface, and the bottom portion of the inner cylindrical portion 23, The projecting portion 231 forms a rounded surface downward. Thus, the thickness e of the center portion is formed to be thicker than the thickness d of the edge portion, and the pattern groove bottom face 221 and the inside ventilation protrusion 231 formed in this manner are not bent well, and the shape thereof can be maintained as it is.

As a result, the shape of the patterned groove bottom surface 221, which is a bottom surface of the groove pattern 22, which is round and has a thicker central portion, is uniformly maintained at all times. As a result, the volume of the groove space 223, which is a space, So that it is possible to maintain uniform shape maintenance for forming a low pressure.

Since the inner ventilation protrusion 231 of the inner cylinder 23 always has a uniform shape, the inner cylinder aperture 232 around the inner ventilation protrusion 231 can be always formed, Thereby ensuring air permeability.

In addition, in the rubber glove 10 according to the present invention, the non-skid portion 20 is formed with a fluid flow path 25 having a lower height than the friction protruding surface 21.

The plurality of float grooves 22 are connected by the fluid flow path 25 so that the fluid flowing in the plurality of float grooves 22 flows to the fluid flow path 25.

Although the fluid located on the friction protruding surface 21 flows into the plurality of float grooves 22, if there is a large amount of water or detergent in the float grooves 22, the fluid on the friction protruding surface 21 is removed .

Thereby reducing the amount of fluid in the annular grooves 22 by causing the fluid in the plurality of annular grooves 22 to escape to the outside through the fluid flow path 25, The better the removal of fluids from the fluid. As a result, the frictional action with the article by the frictional projection surface 21 can be performed well.

The fluid flow path 25 may be formed in various patterns.

That is, as shown in FIG. 9, a longitudinal pattern flow path may be formed in which the grooves are formed in the longitudinal direction of the finger or palm in the non-slip fringe 20. FIG.

8, a lateral pattern flow path may be formed in which the grooves are formed in the lateral direction of the finger or palm in the non-slip fringe 20. When the fluid flow path 25 is formed with such a horizontal pattern flow path, it is also advantageous to allow the finger movement to be freed when formed in the vicinity of the fingernail.

In addition, as shown in FIG. 7, an S-shaped patterned flow path in which an S-shaped groove is formed in the non-slip fringe pattern 20 can be formed. In addition, in the non-slip fringe pattern 20, A W-shaped pattern flow forming grooves, and a random pattern flow path forming grooves randomly in the non-slip fence 20, or the like, Thereby forming a flow path.

Hereinafter, a manufacturing method for manufacturing such a non-slip rubber glove will be described.

First, as shown in Fig. 14, a rubber melt 61 in which a rubber material is melted is prepared in a tank, and a mold is prepared to perform a preparation preparation step (S10). Particularly, since the rubber glove is formed by the mold, the mold is provided with a non-slip rubber glove mold 50 including a bone and a plurality of protrusions.

Then, as shown in FIG. 15, a mold immersion step (S20) for immersing the anti-slip rubber glove mold 50 in the rubber melt 61 is performed.

16, the non-slip rubber glove mold 50 immersed in the rubber melt 61 is removed to apply the rubber melt 61 to the outer surfaces of the stones and the large projections of the non-slip rubber glove mold 50 (S30).

A rubber solidifying step (S40) is performed in which the rubber melt is coated on the outer surface of the non-slip rubber glove mold (50), and the rubber melt is solidified by drying at a predetermined temperature and for a predetermined time. It may be dried by using a drying apparatus for drying by natural drying at about room temperature or for automatically discharging water while keeping a predetermined temperature constant.

17, the non-slip rubber glove mold 50 is applied from the rubber gloves 10 formed by applying the rubber melt to the outer surface of the non-slip rubber glove mold 50 and then solidifying and solidifying the rubber solid layer on the surfaces and grooves. (S50).

As described above, the rubber glove 10 thus manufactured is formed with the friction protruding surface 21 protruding at a predetermined height from one side of the rubber glove.

A plurality of grooves 22 having a predetermined depth are formed on the friction protruding surface 21.

The non-slip rubber glove mold 50 is provided with a non-slip rubber glove mold for manufacturing the non-slip rubber glove.

The non-slidable rubber glove mold 50 having a plurality of protrusions and surface-forming bones formed therein is immersed in and removed from the rubber melt of the rubber material, and the rubber melt is applied to the outer surface of the non-slip rubber glove mold 50 at a predetermined temperature, (50) from the rubber glove (10) which is solidified after the rubber melt is applied to the outer surface of the non-slip rubber glove mold (50) and solidified to form a rubber solid layer, thereby forming a non-slip rubber glove mold The rubber gloves 10 are provided.

The non-slip rubber glove mold 50 is provided with a surface-forming trough 51 corresponding to the friction protruding surface 21 and having a predetermined depth of troughs. And a plurality of protrusions 52 corresponding to the protrusions 22 and protruding from the protrusions 51 at a predetermined height.

As shown in FIG. 1, the non-slip rubber glove 10 according to the present invention has a friction protruding surface 21 protruding at a predetermined height from a general surface. The friction protruding surface 21 has a plurality of Grooved recessed grooves 22 are formed.

13, the planar portion of the frictional protruding surface will form a thickness so as to protrude at a predetermined height as shown in b, and the frictional protruding surface having a predetermined height as shown in Fig. And a deep groove having a predetermined depth is formed.

The anti-slip rubber glove 10 according to the present invention is provided with a friction protruding surface 21 forming a surface protruding at a predetermined height from the outer surface of the rubber glove. The friction protruding surface 21 has a predetermined depth (Not shown). Since the fluid such as detergent or water is high in the groove 22, the friction protruding surface 21 has no water or detergent. On the other hand, due to the characteristics of the rubber material, the friction protruding surface 21 ), The friction characteristics become superior.

That is, by reducing the surface on which the fluid can be positioned on the friction protruding surface 21, the contact area with the object is increased, thereby making the friction characteristic superior.

11 and 12, in comparison with the case where only the conventional general lattice is present as in FIG. 11 and the like, in the present invention, the friction protruding surface 21 and the upper surface While forming the pattern grooves 22, the specimens having various groove shapes and patterns were tested. The test was carried out on a rubber glove specimen with a weight of 100 g and a 30 ° slope down to a distance of 15 cm. The slope was tested with a glass surface coated with detergent and tested with moving distance per second (cm / second) Respectively.

Psalter Conventional conventional Honeycomb pattern Tire pattern Heart pattern pattern Travel distance (cm / s) 15 (cm / s) 1.9 (cm / s) 0.5 (cm / s) 1.7 (cm / s)

So, in the past, it was down to 15cm per second because of the detergent and water, and actually it went down to 15cm slope in a short time even though it was 1 second. On the other hand, with the specimen of the present invention, as shown in Table 1, the honeycomb pattern moved 1.9 cm per second, and the heart pattern moved 1.7 cm per second. Especially, in the case of the tire pattern pattern, the friction characteristic is superior by moving about 0.5 cm per second. Even if the detergent and water are present, it can be seen that the present invention shows strong anti-slip ability.

In the case of the tire pattern pattern, a small-sized groove and a large-sized groove are arranged in a large number, a small-sized groove forms a low pressure, a large-sized groove forms a fluid, and a protruding surface directly contacts the bottom And the frictional characteristics are further improved as compared with the other embodiments.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments. The technical idea of the present invention should not be construed as being limited.

10: Rubber gloves 20: Non-slip handle
21: friction protrusion surface 22:
221: pattern groove bottom surface 222: pattern groove side wall surface
223: Home space 23: Internal communication terminal
231: inner ventilation protrusion 232: inner cylinder vent hole
25: as a fluid flow

Claims (14)

And a non-slip fringe formed in a predetermined pattern on one side of the rubber glove,
Wherein the predetermined pattern of the non-slip fringe portion comprises protruding surfaces and grooves protruding at a predetermined height from an outer surface of the rubber glove.
The method according to claim 1,
The anti-
A friction protruding surface protruding at a predetermined height from one side of the rubber glove; And
And a plurality of protruding grooves which are grooves having a predetermined depth on the friction protruding surface,
The contact area between the friction protrusion surface and the object is such that the fluid on the friction protrusion surface becomes solid in the recessed groove due to the joining between the object and the friction protrusion surface when the fluid comes into contact with the object with fluid, Wherein the anti-slip rubber glove is an anti-slip rubber glove.
3. The method of claim 2,
Characterized in that the raised patterned grooves are made of any one of a groove in the shape of a heart, a groove in the shape of a tire pattern, and a groove in the shape of a honeycomb.
3. The method of claim 2,
Wherein a plurality of protruding pattern grooves are formed in an array of any of a linear array, a cross array, a random array, and a tire pattern to form a pattern pattern,
In the pattern pattern,
A straight line pattern in which a plurality of protruding grooves are linearly arranged;
A crossing pattern in which a plurality of vertical pattern grooves are arranged in an intersecting manner;
A random pattern in which a plurality of regular pattern grooves are randomly arranged; And
A tire pattern pattern having grooves of a plurality of grooves in a tire shape;
Wherein the non-slip rubber glove is made of a non-slip rubber.
3. The method of claim 2,
Wherein the friction protruding surface is made of any one of a flat surface, a curved surface having a predetermined curvature, and a protruding surface having fine protrusions of a predetermined size or a mixed surface.
3. The method of claim 2,
The above-
A pattern groove bottom surface which is a bottom surface and has a predetermined depth on the friction protruding surface;
A pattern groove side wall surface connecting the friction protrusion surface to the pattern groove bottom surface; And
And a groove space (223) formed by the pattern groove bottom surface (221) and the pattern groove side wall surface (222).
The method according to claim 6,
The pattern grooved side wall surface is formed,
Wherein the rubber glove comprises one of a vertical surface, an inclined surface, and a curved surface.
3. The method of claim 2,
The inner surface of the rubber glove is formed with an inner cylinder portion including air,
The internal-
An inner ventilation protrusion corresponding to a bottom surface of the recessed groove and projecting inward; And
And an inner cylinder hole portion surrounding the inner air outlet protrusion and forming a space corresponding to a protrusion height of the inner air outlet protrusion,
And air is contained in the inner tube hole portion.
3. The method of claim 2,
Wherein the non-slip fringe portion forms a fluid flow path having a lower height than the friction protrusion surface,
Wherein a plurality of protruding grooves are connected by the fluid flow path so that a fluid flowing in the plurality of protruding grooves flows into the fluid flow path.
10. The method of claim 9,
The fluid flow path includes:
A longitudinal pattern flow in the longitudinal direction of the finger or palm in the non-slip fringe portion;
A lateral pattern flow in which the groove is formed in the lateral direction of the finger or the palm in the non-slip fringe portion;
An S-shaped pattern flow formed in the S-shaped groove in the non-slip fringe portion;
A W-shaped pattern flow path in which a 'W' shaped groove is formed in the non-slip fringe portion; And
A random pattern flow in which grooves are randomly formed in the non-slip fringe portion;
Wherein the at least one non-slip rubber glove is formed of at least one of a flow path or a mixed flow path.
A manufacturing method for manufacturing the non-slip rubber glove according to any one of claims 1 to 10,
A preparation stage for preparing a rubber melt and a non-slip rubber glove mold including a plurality of projections and a plurality of projections;
A mold immersion step for immersing a non-slip rubber glove mold in a rubber melt;
A rubber melt application step of taking a non-slip rubber glove mold immersed in a rubber melt and applying a rubber melt to an outer surface of a non-slip rubber glove mold and a plurality of projections;
A rubber solidification step of solidifying the rubber melt by drying the rubber melt at a predetermined temperature and for a predetermined time in a state in which the rubber melt is coated on the outer surface of the non-slip rubber glove mold; And
A mold separating step of separating the non-slip rubber glove mold from the rubber glove having the rubber solid layer formed on the surface and the grooves by solidification after the rubber melt is coated on the outer surface of the non-slip rubber glove mold;
Wherein the non-slip rubber glove is made of a synthetic resin.
12. The method of claim 11,
The rubber glove may comprise:
A friction protruding surface protruding at a predetermined height from one side of the rubber glove; And
And a plurality of protruding grooves which are grooves having a predetermined depth on the friction protruding surface,
The non-slip rubber glove mold is characterized in that,
A surface forming bone corresponding to the friction protruding surface and forming a valley with a predetermined depth; And
And a plurality of protrusions corresponding to the protrusions and protruding from the protrusions to a predetermined height.
A non-slip rubber glove for producing the non-slip rubber glove according to any one of claims 1 to 10,
A rubber melt is dipped in and removed from a non-slip rubber glove mold in which a plurality of projections and surface-forming balls are formed in a rubber melt of rubber material, and the rubber melt is applied to the outer surface of the non-slip rubber glove mold for drying at a predetermined temperature and for a predetermined time, Characterized in that a rubber glove is provided by separating a non-slip rubber glove mold from a rubber glove in which a rubber melt is applied on the outer surface of the non-slip rubber glove mold and solidified and solidified to form a rubber solid layer, Glove mold.
14. The method of claim 13,
The rubber glove may comprise:
A friction protruding surface protruding at a predetermined height from one side of the rubber glove; And
And a plurality of protruding grooves which are grooves having a predetermined depth on the friction protruding surface,
The non-slip rubber glove mold is characterized in that,
A surface forming bone corresponding to the friction protruding surface and forming a valley with a predetermined depth; And
And a plurality of protruding protrusions corresponding to the protrusions and protruding from the protrusions to a predetermined height.

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