The present invention generally relates to manually operated brushes, in particular, brushes for cleaning the interior surfaces of bottles or similar containers.
Brushes for cleaning the interior surfaces of a bottle or container generally include a handle that can be gripped, a head disposed on the end of the handle, and a plurality of bristles extending from the brush head. During use, the bristles make contact with and abrade the inner surfaces of a bottle to remove dirt, food, and other material. Cleaning the inner surface of a bottle generally requires inserting the head and bristles into the bottle.
A bottle must be properly and thoroughly cleaned between uses to ensure the health and safety of users of the bottle. Absent proper cleaning, a bottle may harbor bacteria and similar harmful organisms that, if ingested or exposed to, may cause illness, infection, and similar harm.
The bristles of conventional bottle brushes are often abrasive and can damage the interior surface of the bottle, thereby potentially causing leakage or the introduction of foreign matter into the bottle. In addition, the bristles of conventional bottle brushes are usually inflexible. That is, as the brush is inserted into a bottle, the bristles remain relatively rigid. This tends to minimize the surface area that the bristles come into contact with, which makes the task of cleaning the bottle interior more time consuming.
To overcome the technical issues associated with conventional bottle brushes, what is needed is a brush that can accommodate cleaning elements that do not damage a bottle's interior surface upon contact, while also maximizing the surface area that the cleaning elements come in to contact with, in order to allow for efficient cleaning.
The present invention addresses the above-identified problems of conventional brushes by providing a new and improved brush capable of efficiently cleaning the interior surface of a bottle or similar enclosed container.
In accordance with exemplary embodiments, a brush comprises an elongated shaft having a proximal end and a distal end oppositely disposed from the proximal end and at least one cleaning element. In exemplary embodiments, the proximal end of the brush is shaped to be gripped by a hand of a user. In exemplary embodiments, the distal end has a first diameter and includes at least one notch formed therein. In exemplary embodiments, the at least one notch comprises a proximal side wall, a distal side wall oppositely disposed from the proximal side wall, and a middle section disposed between the proximal side wall and the distal side wall. In exemplary embodiments, each middle section of the at least one notch has a corresponding diameter that is less than the first diameter of the distal end. In exemplary embodiments, each cleaning element has a center in which an opening is formed and is disposed in a corresponding notch, whereby the middle section of the corresponding notch engages the opening of the corresponding cleaning element.
In accordance with exemplary embodiments, the cleaning element is formed of a floret of closed cell foam.
In accordance with exemplary embodiments, the proximal side wall of the notch is beveled in the direction of the proximal first end of the brush.
In accordance with exemplary embodiments, the brush further comprises a tip fastened to the distal end of the brush.
In accordance with exemplary embodiments, the tip is removably fastened to the distal end of the brush.
Exemplary embodiments of the present invention will be described with references to the accompanying figures, wherein:
The present invention generally relates to brushes that are adapted to clean the interior surfaces of a bottle or similar container. In embodiments, the present invention seeks to address the problems of conventional bottle and container brushes, which are not configured to efficiently clean the interior surfaces of a bottle.
In the embodiment shown in
As shown in
In embodiments, handle 101 has a circular cross section (i.e., is cylindrical in shape). In such embodiments, handle 101 can be of a uniform radius, or, as shown in
As shown in
In embodiments, proximal end 102 also includes hanging hole 105, which enables brush 100 to be conveniently stored away when not in use.
Brush 100 of
As shown in
Once inside a bottle or container, as a user moves brush 100 downward inside the bottle, tip 104 comes into contact with the bottom surface of the bottle. Once contact with the bottle bottom is made, a user may manipulate brush 100 (by, for example, a rotational or orbital motion) in order to effectuate pinpoint cleaning of the bottom surface.
As shown in
According to exemplary embodiments, each of cleaning elements 106 is comprised of a high-density foam material. The high-density foam material does not tear, rip, scratch, or otherwise damage surfaces to which they are applied. In some cases, the high-density foam material resembles foam for cleaning elements on brushes that are used in car washes. In embodiments, cleaning elements 106 are comprised of a closed cell foam, which do not absorb liquids. The closed cell foam material is flexible and resilient. That is, when the foam cleaning element comes into contact with a surface to be cleaned, the material deforms, thus increasing its area of contact with the surface. Further, when the foam cleaning element is removed from the surface, the cleaning element returns to its previous shape. Cleaning elements 106 are also dishwasher safe, meaning that they do not damage a dishwasher in which brush 100 is being cleaned. Likewise, the operation of the dishwasher does not exact any damage on cleaning elements 106. The closed cell foam inhibits water absorption and resists grit and dirt from becoming imbedded into the material.
According to embodiments, the closed cell foam may comprise any of the following materials: ethylene vinyl acetate (EVA) polymers, polyvinyl chloride polymers, and polyethylene. In other exemplary embodiments, cleaning elements 106 are comprised of crosslinked polyolefins that are either open or closed cell, and which may contain polyethylene, polypropylene and/or EVA varying in density from 1.5 to 20 pounds per cubic foot. In other exemplary embodiments, cleaning elements 106 are comprised of polyurethane with open or closed cells varying in density from 1.2 to 20 pounds per cubic foot.
As shown in
In embodiments, cleaning elements 106 are shaped to engage and clean the side surfaces of a bottle or container into which brush 100 is inserted. In embodiments, such as that shown in
Additional attributes of cleaning elements 106 are described further below in connection with
Like handle 101 in
As shown in
As described above in connection with
Further, each of notches 107a-107f has a middle section disposed between the proximal and distal side walls. As shown, the middle section of each notch 107 has a diameter that is smaller than the diameter of distal end 103. This allows a cleaning element to rest securely within any of notches 107a-107f. In embodiments, a cleaning element (such as cleaning elements 106 depicted in
In embodiments, since notch 107g does not have a distal side wall, the middle section of notch 107g (around which a cleaning element is disposed) is bounded on its distal side by a tip, such as tip 104 in
It should be noted that, since embodiments of cleaning elements 106 are comprised of a flexible and resilient foam material, each cleaning element may be moved into a first notch (such as notch 107g), then out of the first notch and into a second notch (such as 107f) and so on, until the cleaning element being installed is finally installed in a desired notch 107.
Thus, for example, to install seven cleaning elements 106 on to distal end 103 in
As shown in the figure notch 107g differs from the other notches 107 in that notch 107g only has a proximal wall, while the other notches (notches 107a-107f) have both a proximal and distal wall. Thus, in order to install a cleaning element into notch 107g, a user inserts distal end 103 into the hole of a cleaning element and then affixes a tip, such as tip 104, on to the extreme distal end of handle 101. The cleaning element is then bounded between the proximal side wall of notch 107g and the tip.
In embodiments, as described above, a cleaning element, such as cleaning element 106, is installed into notch 107 by inserting the distal end of handle 101 into the hole of the cleaning element and then moving the cleaning element from the distal end of handle 101 until the cleaning element is seated around middle section 110. Thus, the cleaning element is installed into notch 107 from the right side of
As shown in
According to embodiments, the beveling of proximal side wall 108 allows a cleaning element installed in notch 107, such as any of cleaning elements 106a-106f in
In embodiments, the beveling of proximal side wall 108 allows the cleaning elements to flex further in the proximal direction, thereby increasing the bottle surface area that the cleaning elements come into contact with. On the other hand, when brush 100 is removed from a bottle or container, it moved in the proximal direction, which causes a flexure of the cleaning elements in the distal direction, that is, toward distal end 102. Since the distal side walls may not be beveled, the cleaning elements are held securely in place.
As shown, cleaning element 106 has a generally circular shape with an opening in the center. According to embodiments, a user can install cleaning element 106 into one of the notches 107 formed on handle 101 by inserting distal end 103 through the hole and then moving cleaning element 106 longitudinally along the length of distal end 103. Cleaning element 106 is comprised of a flexible and resilient foam material so that, as cleaning element 106 is moved along the length of distal end 103, the material expands as it comes into contact with portions of distal end 103 that have a diameter greater than the hole at the center of cleaning element 106.
As shown in
As shown, cleaning element 106 has a thickness that is small enough to be accommodated by notches 107 on handle 101. Further, according to embodiments, the thickness of cleaning element 106 is large enough so that the cleaning element can be installed snugly within a notch 107, which prevents the cleaning element from sliding longitudinally within the middle section 110 of the notch while the brush is in use. According to embodiments, cleaning element 106 can have a thickness of 0.125 inches. A larger or smaller thickness is provided in other embodiments, whereby the thickness is driven by the width of middle section 110, which cleaning element 106 is installed around.
During use, when the brush is reciprocated, the cleaning action is enhanced by the flexure of the cleaning element 106 which presents different sides of the element to the surface of the bottle. Unlike a bristle brush, the surface of the cleaning element is smooth avoiding damage to softer bottles.
Now that embodiments of the present invention have been shown and described in detail, various modifications and improvements thereon can become readily apparent to those skilled in the art. Accordingly, the exemplary embodiments of the present invention, as set forth above, are intended to be illustrative, not limiting. The spirit and scope of the present invention is to be construed broadly.
This application is a continuation of, and claims the benefit of and priority to, U.S. patent application Ser. No. 29/744,809, filed Jul. 31, 2020, and entitled BRUSH BODY, the contents of which are incorporated herein by reference in their entirety as if fully set forth herein.
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Number | Date | Country |
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2001178797 | Jul 2001 | JP |
20160052669 | May 2016 | KR |
Entry |
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Yoshitaka, Katsukawa; JP 2001178797 A; translation (Year: 2001). |
Favagrossa, Leonardo; KR 20160052669 A; translation (Year: 2016). |
Number | Date | Country | |
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20220031055 A1 | Feb 2022 | US |
Number | Date | Country | |
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Parent | 29744809 | Jul 2020 | US |
Child | 17378944 | US |