One type of mop that has found commercial success is in the marketplace is a mop having an attached wringer cup, like the one disclosed in U.S. Pat. No. 6,920,664. Other examples may be found in U.S. Pat. Nos. 7,520,018; 7,921,498; 8,402,589; and 8,719,991.
The mop fibers and wringer cups used on these kinds of mops are effective cleaning tools. However, in some instances, a soiled surface may require additional scrubbing forces to be applied in order to loosen the soiling material such that it may be mopped up. What is needed, therefore, is an improved cleaning implement that facilitates mopping and scrubbing functions.
In light of the foregoing background, the following presents a simplified summary of the present disclosure in order to provide a basic understanding of some aspects of the various implementations of this disclosure. This summary is not an extensive overview of the embodiments described herein. It is not intended to identify key or critical elements, or to delineate the scope of the embodiments described in this disclosure. The following summary merely presents some concepts of the embodiments of this disclosure in a simplified form as a prelude to the more detailed description provided below.
Aspects of this disclosure relate to an innovative cleaning implement that has an elongate member with a first end and a second end along a vertical axis, and a connection assembly configured to be mounted on the second end of the elongate member and to secure mop fibers to the elongate member. The cleaning implement may also include a wringer that is configured to be slidably positioned along at least a portion of the elongate member. The wringer may additionally include an upper end, and a lower end that has multiple convex regions that extend around a lower perimeter. The wringer may also include an attachment structure that is rigidly coupled to one of the convex regions, with the attachment structure configured to removably couple a scrubbing brush to the wringer.
This Summary is provided to introduce a selection of concepts in a simplified form that are further described below in the Detailed Description. The Summary is not intended to identify key features or essential features of the claimed subject matter, nor is it intended to be used to limit the scope of the claimed subject matter.
A more complete understanding of the present invention and certain advantages thereof may be acquired by referring to the following detailed description in consideration with the accompanying drawings, in which:
In the following description of various example structures, reference is made to the accompanying drawings, which form a part hereof, and in which are shown by way of illustration various example cleaning implements, wringers, and connection assemblies in accordance with various embodiments Additionally, it is to be understood that other specific arrangements of parts and structures may be utilized and structural and functional modifications may be made without departing from the scope of this disclosure. Also, while the terms “top,” “bottom,” “front,” “back,” “rear,” “right,” “left,” and the like may be used in this specification to describe various example features and elements, these terms are used herein as a matter of convenience, e.g., based on the example orientations shown in the figures and/or the orientations in typical use.
The mop elements 104 that are illustrated take the form of flat strips. It is conventionally known that such strips can be made from (for example) water-absorbing non-woven fibrous material that may be, in one example, 18 or 19 inches long and about 0.15 inch thick in its non-compressed state. Other materials could also be used. The mop elements 104 are connected to the elongate member 102 by a connection assembly 113. The elongate member 102 has a first end 103 and a second end 105 spaced apart along a vertical axis of the cleaning implement 100. This vertical axis is substantially parallel to axis 107 schematically depicted in
The depicted wringer cup 108 may be disposed on the elongate member 102 above the mop elements 104. The wringer 108 may have an outer wall 112 that extends between an upper end 114 and a lower end 116 of the wringer 108. Further, the outer wall 112 may taper outwardly toward the lower end 116. The wringer cup 108 may be slidably mounted on the elongate member, such as member 102, and may take the form of a tubular shell that can be molded in one piece from a polymeric material such as polypropylene. The wringer cups may include ribs 118 that help to squeeze liquid from the mop fibers during wringing.
The optional hand grip 110 is mounted on the elongate member 102 above the mop elements 104. The hand grip 110 is arranged to hold the wringer cup 108 above the mop elements fibers 104 when the mop 100 is being used. This position is illustrated in
The mop elements 104, which may also be referred to collectively as a mop head 104, tend to be highly absorbent so as to allow the mop 100 to pick up spills. This absorbency means, however, that when removing the water from the mop elements 104, the water in the vicinity of the mop elements 104 tends to be re-absorbed. The perforations 130 in the wringer cup 108 help allow the water being squeezed from the mop elements 104 to be transported away so as to reduce re-absorption. Various embodiments have different sized perforations 130 and different configurations, without departing from the scope of these disclosures.
The wringer 108 additionally includes an attachment structure 140 that is configured to be removably coupled to a scrubbing brush 142. In one example, the attachment structure 140 is integrally formed with the wringer 108. In another example, the attachment structure 140 is formed as a separate structure to the wringer 108, and rigidly coupled to the wringer 108. The attachment structure 140 is positioned on one of the convex regions 141 of the wringer 108. In one example, the wringer 108 has four such convex regions 141 spaced around a perimeter of the wringer 108. These convex regions are described in further detail in relation to
The upper end 304 may have a terminus 308 defining a first outer perimeter (perimeter 310). In certain embodiments, outer perimeter 310 may be substantially circular or oval. Terminus 308 may further include a first inner perimeter 312 defining a central bore 314. Central bore 314 may be configured to permit passage of the elongate member 102 into the interior of wringer 302. Therefore, in some implementations, central bore 314 may be substantially circular. In other implementations, however, the size and shape of central bore 314 may vary.
In addition to terminus 308, other portions of upper end 304 may have a circular or oval perimeter with respect to the horizontal axis (horizontal x-axis depicted in
In one example, portions of upper end 304 may be more cylindrical than other portions. For example, terminus 306 may define a perimeter (i.e., perimeter 308) that is more cylindrical than a perimeter on a location of upper end 304 that is more proximate to the lower end 306, such as perimeter 317. In this regard, the cross-sectional area of upper portion 304 may become more conical or conic-cylindrical in shape as it approaches the lower end 306.
Upper end 304 may be about 40% to about 60% of the entire length of wringer 302. In other embodiments, upper end 304 may be about 45% to about 55% or 47.5% to about 52.5% of the length of wringer 302. In yet another embodiment, upper portion 304 is about 50% of the length of wringer 302. In further embodiments, upper portion 304 may be about 12 to about 18 centimeters in length. In one embodiment, upper portion 304 may be about 15 to about 16 centimeters in length. In certain embodiments, upper portion 304 may be characterized in its absence of voids or protrusions for water removal during operation of the wringer 302.
Upper end 304 may be defined by the lack of the voids as well as a cylindrical shape that is distinct from the lower portion 306. Upper end 304 of wringer 302 may be substantially totally devoid of any voids with the exception of bore 314. For example, as shown in the illustrative implementation, upper end 304 may be devoid of any protrusions or voids for the drainage of water. Further discussions relating to various embodiments will be provided below in relation to exits 331. Upper end 304 may include one or more extrusions or elevated portions, such as structures 318. Structures 318 may be configured to be graspable by a user, for example, to maneuver the wringer 302 during operation. In certain embodiments, extrusions 318 may comprise one or more chevron-shaped patterns, or arc patterns.
Lower end 306 of wringer 302 may include a terminus 320 having a second outer perimeter (see, e.g., element 322). In certain embodiments, the second outer-perimeter 322 may not be circular or oval. This may be true even in embodiments in which upper end 304 is substantially cylindrical or conical-cylindrical and/or the first outer perimeter 310 is substantially circular or oval. Despite the second outer perimeter 322 not being an oval or circular in certain embodiments, it may comprise one or more convex, concave, curvy and/or rounded components. In the illustrative implementation, the second outer perimeter 322 encompasses a larger cross-sectional surface area than the first outer perimeter 310. Further features of perimeter 322 will be provided in more detail below. Additionally, perimeter 322 may include one or more features or qualities described in relation to ledge 332 and vice-versa. It is to be understood, however, that in certain embodiments, ledge 332 comprises perimeter 322. Yet in other implementations, ledge 332 is absent from the wringer 302.
In one implementation, perimeter 322 and/or ledge 332 may be about 26.3 centimeters. In one implementation, perimeter 322 is about 2 times the length as perimeter(s) 310, 316 and/or 317. In one implementation, perimeter(s) 310, 316 and or 317 may be about 50-60% of perimeter 322. In another implementation, perimeter(s) 310, 316 and/or 317 may be about 55% of perimeter 322. In one implementation, the difference in cross-sectional area between perimeter(s) 310, 316 and/or 317 in the upper end 304 and perimeter 322 in the lower end 306 may be due to the presence of one or more convex or concave regions of the lower end 306, such as those disclosed below.
Lower end 306 of wringer 302 may include one or more convex regions 324-330. In the illustrated embodiment, convex regions 324-330 may include columns. Therefore, regions 324-330 may be referred to as “columns” throughout this disclosure in reference to the embodiment shown in
As seen throughout
In certain embodiments, a pair of rounded components (see components 322a and 322b) may be positioned in an opposing manner, such as shown in
Convex regions/columns 324-330 may be positioned in an opposing manner, such as shown in
Specific embodiments are directed towards the implementation of convex regions that provide a wringer 302 with a non-circular cross-sectional across a horizontal plane. Further implementations may utilize convex regions, including regions 324-330, such that the lower end 306 of the wringer 302 has an increased cross-sectional area when compared to the upper portion 304. In certain implementations, this may result in less pressure against the corresponding mop fibers. In further implementations, mop fibers having less pressure against the wringer 302 may permit the expansion of mop fibers when compared to inter-fiber proximity in the upper end 304 of the wringer 302. In certain implementations, decreased inter-fiber proximity may results in the improved water drainage over prior art systems and methods. For example, perimeter 322 may be substantially square shaped.
The outer perimeter 322 is not be limited to having opposing rounded surfaces or pairs of the same. Other shapes and configurations are within the scope of this disclosure. Further, certain embodiments are directed towards component being concave such as concave regions 334-340. (
Concave regions 334-340 may be described in some embodiments as a plurality of inward extending ribs. As seen in
Similarly, convex regions 324-330 may be described in some embodiments as a plurality of outward extending ribs. As seen in
Adjacent convex regions 324-330 and concave regions 334-340 may share a common side. For example, a first side of a rib of a concave region may be a first or second side of a rib for a convex region. In certain implementations, the concavity of a concave region may be equal to the convexity of an opposing and/or adjacent convex region 324-330. In yet other implementations, one or more concave regions 334-340 may be unrelated to the shape and/or curvature of one or more convex regions 324-330. Concave regions 334-340 may widen along the horizontal plane (see x-axis) as the distance from the upper end 304 increases and the distance towards the lower second outer perimeter 322 decreases. As shown best in
The combination of convex regions 324-330 and concave regions 334-340 may provide improved drainage characteristics of over prior designs. In one implementation, the cross sectional area across the horizontal plane (along the x-axis) in lower end 306 of wringer 302 may resemble an “X”. The cross-sectional diameter of the lower end 306 proximate to perimeter may be at least twice that of the corresponding cross-sectional diameter of the lower end 306 proximate to the upper end 304 of the wringer 302. In one implementation, cross-sectional diameter of the lower end 306 proximate to perimeter may about 200% of the corresponding cross-sectional diameter of the lower end 306 proximate to the upper end 304 of the wringer 302. In one implementation, the wringer's 302 circumference at a location of lower end 306 that is immediately adjacent to the upper end 304 may be substantially circular or oval and have a perimeter about 14 to about 15 centimeters and the location of the lower end 306 immediately adjacent to perimeter 322 may be non-circular or oval and have a perimeter of about 26 to about 27 centimeters.
The presence of concave regions 334-340 as disclosed may result in an application of pressure against at least an outer portion of mop fibers during use of the wringer 302. As shown in the illustrated implementation, each of the concave regions 334-340 may be substantially devoid of any drainage exits or ports, such as exits 331. One or more convex regions 324-330 may comprise drainage exits, such as plurality of exits 331. In certain implementations, drainage exits 331 may be positioned substantially along the length of convex regions 324-330. (For simplicity, exits 331 are not each individually labeled, however, it is apparent from
As shown in
Positioning and/or placement of drainage exits 331 may be configured to provide improved drainage over existing designs. For example, as an outer portion of mop fibers contact the inner perimeter of convex regions 324-330 of the lower end 306, exits 331 may permit improved drainage capabilities. In this regard, draining exits 331 may only be provided on an outer most surface of the convex regions 324-330. In one implementation, only one exit is provided on any given horizontal plane for each column or convex region 324-330. For example, looking to
Upper most exit 331a of region 324 (or any other exit) may be about 0.5 centimeters in height and about 2 centimeters in length. In another implementation, exit 331a may be about 0.5 to about 0.7 centimeters in height and about 2.0 to about 2.2 centimeters in length. Having exits with a length greater than the height may be advantageous, either alone or in combination with other elements of this disclosure. In one embodiment, exit 331a and/or any of plurality of exits 331 may have a height that is about 25-30% of its length. In yet other embodiments, exit 331a and/or any of plurality of exits 331 may have a height that is about 28.5% of its length. Exit 331a may be at least about 1 centimeter away from the interior-most location of adjacent concave regions, such as region 334. This parameter is shown in
In certain implementations, plurality of exits 331 may each have the same general shape, such as shown in
In one aspect, this disclosure includes a cleaning implement that has an elongate member with a first end and a second end spaced apart along a vertical axis. The cleaning implement may additionally include a connection assembly that is configured to be mounted on the second end of the elongate member, and configured to secure a plurality of mop fibers to the elongate member. The cleaning implement may also include a wringer that is configured to be slidably positioned along at least a portion of the elongate member. The wringer may have an upper end and a lower end, with the lower end having multiple convex regions that extend around a lower perimeter. The wringer may also have an attachment structure that is rigidly coupled to a selected one of the multiple convex regions, with the attachment structure configured to removably couple a scrubbing brush to the wringer.
In one example, the attachment structure of the cleaning implement includes a slide rail, with the slide rail having a linear portion and a ramp portion.
In another example, the scrubbing brush may have an attachment structure that includes a linear sleeve configured to receive the linear portion of the slide rail of the attachment structure of the wringer. The attachment structure of the scrubbing brush may also include a catch structure that is configured to engage with and removably coupled with a depression formed in the ramp portion of the slide rail.
The linear portion of the slide rail may have a substantially T-shaped cross-section, and the linear sleeve may have a substantially U-shaped cross-section configured to receive the slide rail.
The catch structure may include a manually actuated flexure.
The scrubbing brush may have a base structure to which a plurality of bristles are attached, and said base structure may have a substantially elliptical perimeter geometry.
The upper portion of the wringer may include multiple graspable extrusions.
The multiple convex regions of the wringer may include multiple drainage exits that are spaced apart along the vertical axis of the cleaning implement.
The cleaning implement may also include a handgrip that is coupled to the elongate member, such that the handgrip is configured to hold the wringer cup above the mop fibers when the mop fibers are being used.
In another aspect, a wringer includes an upper end and a lower end, with the lower end having multiple convex regions that extend around a lower perimeter. The wringer may additionally include an attachment structure, with the attachment structure configured to be removably coupled to a scrubbing brush.
The attachment structure of the wringer may additionally include a slide rail that has a linear portion and a ramp portion.
The scrubbing brush may also include an attachment structure that has a linear sleeve configured to receive the linear portion of the slide rail. The attachment structure of the scrubbing brush may also include a catch structure that is configured to engage and removably coupled to a depression formed in the ramp portion of the slide rail.
The linear portion of the slide rail may have a substantially T-shaped cross-section, and the linear sleeve may have a substantially U-shaped cross-section configured to receive the slide rail.
The catch structure may include a manually actuated flexure.
The scrubbing brush may include a base structure to which multiple bristles are coupled. Further, the base structure may have a substantially elliptical perimeter geometry.
An upper portion of the wringer may have multiple graspable extrusions providing a graspable surface.
The multiple convex regions of the wringer may have multiple drainage exits spaced apart along a vertical axis of the wringer.
A cleaning implement may include an elongate member having a first end and a second end along a vertical axis, and a connection assembly configured to be mounted on the second end of the elongate member and to secure multiple mop fibers to the elongate member. The cleaning implement may also include a wringer that is configured to be slidably positioned along at least a portion of the elongate member. The wringer may have a sheath structure and an attachment structure that is rigidly coupled to an outer sidewall of the sheath structure. The attachment structure may be configured to removably couple the wringer to a scrubbing brush.
The attachment structure of the cleaning implement may also include a slide rail that has a linear portion a ramp portion.
The scrubbing brush may include an attachment structure that has a linear sleeve configured to receive the linear portion of the slide rail. The attachment structure of the scrubbing brush may also include a catch structure that is configured to engage and removably coupled to a depression formed in the ramp portion of the slide rail.
This detailed description has been given for clearness of understanding only. Modifications may be obvious to those skilled in the art. The intended scope of the invention is set forth in the following claims.
This application is a continuation of U.S. patent application Ser. No. 16/818,658, filed Mar. 13, 2020, which is herein incorporated by reference in its entirety.
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Number | Date | Country | |
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20220330782 A1 | Oct 2022 | US |
Number | Date | Country | |
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Parent | 16818658 | Mar 2020 | US |
Child | 17859495 | US |