FIELD OF INVENTION
[0001] The present invention relates to container mounting systems which include mounting
brackets to mount containers, such as containers used for dispensing wiper materials
and to containers adapted to be mounted onto the bracket.
BACKGROUND OF THE PRESENT INVENTION
[0002] Brackets for mounting of containers to surfaces are generally known as exemplified
by the following publications:
U.S. 4,416,369 to Burns describes a mounting bracket having upstanding fingers for
supporting a carton thereon. The carton is so adapted as to permit the front wall
to be slid down behind the upstanding fingers so as to lie flat against the inner
surface of the . upstanding flattened-together top wall and rear wall. In such a manner,
suitable advertising and display legends may be imprinted or embossed on the top wall.
U.S. 2,673,053 to Manetti discloses that bracket rigidity can be increased by providing
mounting brackets with parallel ribs. U.S. 3,177,048 to Whatley discloses a soap holder
for occupying minimum wall space and which includes a spacer projection to space the
bar of soap from the wall when the soap is received in the holder in an upright position.
U.S. 3,284,041 to Tjaden discloses that a single flat sheet of thin material includes
a pair of arms which terminate in points so as to pierce a carton of tissues adjacent
to the bottom of the carton to hold the carton without damaging the tissues therein.
U.S. 2,315,573 to Yaffa discloses that a bracket having a horizontal shelf portion
and upstanding prongs can be provided so that the prongs penetrate a carton of tissues,
the carton then resting on the shelf portion for support.
[0003] A primary disadvantage with conventional mounting brackets for mounting a container
of the type having plural wiper sheet materials therein is that the container may
not always be securely mounted onto the bracket. Thus, the container mounted onto
conventional brackets may be prematurely dislodged from the bracket during normal
usage. This problem is particularly acute when the container is used as a means to
dispense sheet materials such as tissues, wiper sheets or the like since forces transmitted
to the container during manual dispensation of the sheets tends to cause the container
to be dislodged somewhat from the bracket. Such a loose-fitting relationship between
the container and conventional mounting brackets may therefore be a source of irritation
to a user.
SUMMARY OF THE PRESENT INVENTION
[0004] In accordance with one embodiment of the present invention, however, a container
is securely captured when in a mounted position by virtue of a nip area defined between
the mounting flanges of the present invention and the back plate member. The nip area
serves to capture a portion of the container therein so that the separation forces
mentioned above can be resisted while yet permitting the container to be removed from
the mounting bracket when desired. As an alternative embodiment, the present invention
provides a sharp edge extended into the space between the mounting flange and the
back plate member so that the sharp edge penetrates a portion of the container to
similarly resist separation forces.
[0005] Since conventional securing elements such as, for example, screws, bolts, nails,
rivets or the like, are intended to be used as the means whereby the mounting bracket
of the present invention is secured to a rigid surface, the reader will appreciate
that such common securing elements have heads which tend to obstruct and interfere
with the mounting of a container onto the bracket. The present invention therefore
provides structure whereby the heads of such securing elements can be effectively
masked so that the user will not experience difficulties in placing a container onto
the mounting bracket.
[0006] Preferably, smoothly rounded or arcuate surfaces extend into the space defined between
the mounting flanges and the rear plate member so that when the container is moved
in a direction to mount it onto the mounting flanges, the surfaces will bias the wall
of the container adjacent the rear plate member in a direction away from the obstruction.
Thus, the biased container wall is guided around and over the securing element head
thereby preventing the head from obstructing the easy mounting of the container onto
the bracket.
[0007] The container of the present invention includes opposing pairs of side walls to define
a cavity to house therein wiper sheet material, for example. A linear array of alternating
cut and uncut portions is provided on one wall of the container so as to be in registry
with the mounting flange of the mounting bracket when the container is desired to
be mounted thereon. As used herein, the term cut portion is intended to encompass
perforations in the container wall which not only completely penetrate the thickness
of the wall but also partially penetrate into the wall thickness. The linear array
preferably includes between about 20% to about 80% of cut portions so that between
about 8 to about 35 pounds force are required to be exerted upon the container during
mounting thereof onto the mounting bracket.
[0008] These as well as other advantages and aspects of the present invention will become
more clear to the reader after careful consideration is given to the detailed description
of the preferred exemplary embodiments thereof which follow.
BRIEF DESCRIPTION OF THE ACCOMPANYING DRAWINGS
[0009] Reference will be herein made to the accompanying drawings wherein like reference
numerals throughout the various Figures denote like structural elements, and wherein:
FIGURE 1 is a front elevational view of a particularly preferred embodiment of the
mounting bracket of the present invention;
FIGURE 2 is a top plan view of the embodiment depicted in FIGURE 1;
FIGURE 3 is a bottom plan view of the embodiment depicted in FIGURE 1;
FIGURES 4 and 5 respectively show the rear elevational view and the left side elevational
view of the embodiment depicted in FIGURE 1;
FIGURE 6 is a detailed cross-sectional elevational view of an embodiment of a capturing
member of the present invention;
FIGURES 7-9 are perspective views showing the sequential steps to mount a container
onto a container bracket of the present invention;
FIGURES 10 and 11 respectively show front and rear elevational views of a second embodiment
of the container mounting bracket of the present invention;
FIGURES 12 and 13 respectively show a right side elevational view and a top plan view
of the embodiment depicted in FIGURES 10 and 11;
FIGURES 14 and 15 respectively show front and rear elevational views of a third embodiment
of the container mounting bracket in accordance with the present invention;
FIGURES 16 and 17 respectively show a right side elevational view and a top plan view
of the embodiment depicted in FIGURES 14 and 15; and
FIGURE 18 is a detailed cross-sectional elevational view of another embodiment of
a capturing member of the present invention.
DETAILED DESCRIPTION OF THE
PREFERRED EXEMPLARY EMBODIMENTS
A. Mounting Bracket
[0010] A particularly preferred embodiment of the mounting bracket of the present invention
is shown in accompanying FIGURES 1-5. As shown therein, the mounting bracket 10 generally
includes a rear plate member 12 which is preferably planar so as to be placed against
a rigid surface 14 (see FIGURE 5) to secure mounting bracket 10 thereto. Mounting
bracket 10 can be formed of any rigid material such as metal, plastic or the like.
[0011] According to the embodiment of FIGURES 1-5, a pair of mounting flanges 16, 18 are
rigidly secured to plate member 12 by means of bottom wall 20 so that each mounting
flange 16, 18 is disposed in an upright manner substantially parallel to plate member
12. A space 22 will thus be defined between mounting flanges 16, 18 on the one hand
and rear plate member 12 on the other hand to accept therein one wall 24 of container
26 (see FIGURE 5).
[0012] Mounting bracket 10 can be rigidly secured to surface 14 by means of any conventional
securing element such as, for example, screw B having head A as shown in FIGURE 5.
Other conventional securing elements having heads such as bolts, nails, rivets or
the like can also be satisfactorily utilized to secure bracket 10 to surface 14. Of
course, other non-head securing elements such as double-sided adhesive tape, adhesive
or the like, could also be satisfactorily used as the means to secure bracket 10 to
surface 14, if desired.
[0013] When a securing element such as screw B is utilized to rigidly secure bracket 10
to surface 14, a pair of mounting apertures 28, 30 are defined in rear plate member
12 so as to accept screw B therethrough. Preferably, mounting apertures 28, 30 are
slotted in that elongated apertures 32, 34 are provided for each mounting aperture
28, 30, respectively. Elongated apertures 32, 34 have a width dimension less than
the diameter of apertures 28, 30 and thus permit the head A of screw B to bear against
rear plate member 12 to securely mount bracket 10 to surface 14.
[0014] Mounting flanges 16, 18 include rib members 36 so as to increase the structural rigidity
of mounting flanges 16, 18. Preferably, rib members 36 are vertically provided on
mounting flanges 16, 18 so that flexion of flanges 16, 18 in a direction away from
rear plate member 12 due to the weight of container 26 is resisted. In a preferred
form, rib members 36 are integrally formed indentations in mounting flanges 16, 18
but could also be separate member rigidly secured thereto.
[0015] In order to permit a manipulation tool such as a screwdriver, or the like, to be
engageable with the screw head A inserted in apertures 32, 34 so as to effect rigid
mounting of bracket 10 to surface 14, enlarged apertures 33, 35 are defined in flange
members 16, 18 in registry with apertures 28/32 and 30/34.
[0016] A pair of downwardly divergent edges 38, 40 are defined on each mounting flange 16,
18 to penetrate the container 26 which is typically formed of heavy basis weight material
such as corrugate box board solid fiber board or like material. Thus, edge pairs 38,
40 function so as to penetrate wall 37 (see FIGURE 5) of container 26 so as to mount
container 26 onto flanges 16, 18. Furthermore, flanges 16, 18 are preferably upwardly
tapered by means of upwardly converging edges 42, 44 so that a slot initially formed
in container wall 37 by virtue of the downwardly divergent edges 38, 40 of flanges
16, 18 will become increasingly longer in dimension as container 26 is downwardly
moved onto flanges 16, 18.
[0017] As noted previously, manipulable securing elements are intended to be utilized as
the means to secure bracket 10 to surface 14. As shown in FIGURE 5, the head A of
wood screw B, for example, is disposed in space 22 when bracket 10 is mounted to surface
14. Thus, screw head A presents an obstruction in mounting container 26 onto flanges
16, 18. That is, the edge 61 of container 26 defined by walls 24 and 37 tends to abut
against screw head A thereby obstructing container 26 from being easily mounted onto
flanges 16, 18.
[0018] In order to alleviate such problems, the present invention provides guide members
50 associated with rear plate member 12 and disposed in space 22 so as to be above
screw heads A but in alignment therewith when bracket 10 is mounted to surface 14.
In a preferred form, the guide members 50 establish convexly curved surfaces but other
geometrically-shaped surfaces such as, for example, downwardly inclined ramp surfaces,
concave surfaces or the like, can be advantageously utilized. Guide members 50 serve
to outwardly displace wall 24 of container 26 thereby biasing wall 24 away from screw
head A when a user first mounts container 26 onto mounting flanges 16, 18 thereby
preventing screw head A from obstructing the mounting procedure.
[0019] In order to securely mount container 26 onto bracket 10 so as to maintain it in a
stationary position, each mounting flange 16, 18 includes capturing members 52, 54
preferably positioned at the lower end of each flange member 16, 18, respectively
so as to be disposed in space 22. In a preferred embodiment of capturing members 52,
54, each includes a pair of triangularly-shaped surfaces 56, 58 joined at one edge
60 so as to define with rear plate member 12 a nip area 62. As shown more clearly
in FIGURE 6, when container 26 is mounted onto bracket 10, the corner 61 established
by walls 24, 37 thereof will be deformed due to the downwardly sloping configuration
of edge 60. Thus, corner 61 becomes bunched and captured in nip area 62. Accordingly,
capturing members 52, 54 provide the means by which forces acting on the container
in an upward direction are resisted while yet permitting removal of the container
from bracket 10 when desired.
[0020] As shown in FIGURES 7-9, container 26 preferably includes wall 37 in which a perforated
score line 64 is formed to define panel 66. Upon removal of panel 66, an opening 67
is provided to thereby permit the user to gain access to the contents of container
26, the contents preferably being wiper sheet material 68 as shown in FIGURE 9. Wall
37 also preferably includes a linear array of first and second perforation groupings
70, 72, respectively, each of which is established by alternating cut portions 73a
and uncut portions 73b. First and second perforation groupings 70, 72 register with
flanges 16, 18 so as to facilitate the mounting of container 26 thereon.
[0021] To mount container 26 onto bracket 10, a user manually positions container 26 such
that perforated score lines 70, 72 are disposed in respective alignment with flanges
16, 18 as shown in FIGURE 7. Thereafter, the user forceably presses container 26 in
a direction indicated by arrow 74 in FIGURE 8 so as to bring edges 38, 40 into engagement
with score lines 70, 72. Due to the downwardly diverging nature of edges 38, 40, the
wall 37 of container 26 is pierced at first and second perforation groupings 70, 72
such that upon further downward movement (arrow 76) of container 26, mounting flanges
16, 18 will penetrate into the interior of container 26 until the mounted position
is achieved as shown in FIGURE 9.
[0022] Accordingly, when container 26 is in the mounted position as shown in FIGURE 9, wall
24 of container 26 will be disposed in space 22 defined between mounting flanges 16,
18 and rear plate member 12. While in the mounted position, capturing members 52 associated
with mounting flanges 16, 18 capture a portion of the container 26 in nip area 62
so that forces in a direction tending to separate container 26 from mounting brackets
16, 18 (e.g. in a direction opposite to arrow 76) are resisted while yet permitting
the user to remove container 26 from mounting flanges 16, 18 by exerting sufficient
force in a direction opposite to arrow 76 when desired. Once container 26 is in its
mounted position as shown in FIGURE 9, panel 66 can be removed to define opening 67
thereby permitting the wiper sheet material 68 to be dispensed therefrom.
[0023] Bracket 10 preferably includes lower flange 74 integral with and recessed relative
to mounting flanges 16, 18. Lower flange 74 is rigidly joined to the lower portion
of rear plate member 12 so as to increase the structural rigidity of mounting flanges
16, 18. Furthermore, lower flange 74 provides a convenient surface on which indicia
such as corporate logo 76 (see FIGURE 1) can be placed.
[0024] FIGURES 10-17 depict further embodiments of the present invention and structures
shown therein equivalent to the embodiment of the present invention shown in FIGURES
1-5 have been noted with like reference numerals. Accordingly, the description of
such equivalent structures will not be repeated below.
[0025] With particular attention being directed to FIGURES 10-13, an additional embodiment
of mounting bracket 10 defines a pair of inwardly converging edges 80, 82 joining
edge 44 of mounting flange 16 and edge 42 of mounting flange 18 so as to aid in the
separation of perforated score lines 70, 72 (see FIGURE 7) when container 26 is mounted
onto flanges 16, 18.
[0026] The means to prevent screw head A from obstructing the mounting of container 26 onto
mounting flanges 16, 18 is provided, according to the embodiment of FIGURES 10-13,
by partial cut-out portions 84, 86. Preferably, cut-out portions 84, 86 are semi-circular
in configuration and inwardly bent into space 22 along a substantially vertical line.
In such a manner, the arcuate edges 88 of cut-out portions 84, 86 will function in
a manner similar to guide members 50 described above with respect to the embodiment
of FIGURES 1-5.
[0027] In order to capture a portion of container 26 so as to resist forces acting on the
container in a direction opposing the mounting direction (e.g. in a direction opposite
to arrow 76 as shown in FIGURE 8), teeth 90, 92 are provided in rear plate member
12 and disposed in space 22. Teeth 90, 92 each define pointed edge 94 to bite into
wall 24 of carton 26 when carton 26 is in a mounted position as shown in FIGURE 18.
Accordingly, pointed edge 94 penetrates into a portion of wall 24 so as to resist
forces exerted on container 26 in a direction tending to separate it from mounting
flanges 16, 18.
[0028] Rather than providing a pair of mounting flanges 16, 18 as in the embodiments of
FIGURES 1-5 and 10-13, the embodiment of the present invention depicted in FIGURES
14-17 includes a front plate member 96 having bevelled upper corners 100, 102. Corners
100, 102 function in a manner similar to edges 38, 40 of the embodiments of FIGURES
1-5 and 10-13 in that they aid in the piercing of container 26. Since front plate
member 96 defines a substantially horizontal upper edge 104, it is preferred that
score lines 70, 72 be extended along the substantial width of container 26 so as to
establish a relatively continuous score line thereacross. Furthermore, the embodiment
of FIGURES 14-17 includes cut-out portions 84, 86 which are disposed interiorly of
elongated apertures 32 rather than in vertical alignment therewith as was described
above with respect to the embodiment of FIGURES 1-5. Nonetheless, cut-out portions
defining arcuate surfaces 88 will function in a similar manner in that wall 24 of
container 26 will be biased away from screw head A when container 26 is moved in a
mounting direction (arrow 76 in FIGURE 8) thereby preventing screw head A from obstructing
the mounting procedure.
B. The Container
[0029] The container in which the wiper sheets are housed prior to use and from which serial
dispensation of the wiper sheets occurs during use forms the second component of the
container mounting system of the present invention. In order for the container mounting
system to perform its intended functions, the container must be capable of storing
the wiper sheets separately of the mounting bracket (such as during transport of the
container) and yet present the user with little difficulties when a container having
a fresh supply of wiper sheets is mounted onto the mounting bracket.
[0030] In accordance with the present invention, a container for use in combination with
the mounting bracket described above is provided such that the integrity of the container
is maintained during handling and shipping of the container while yet permitting a
user to easily install the container onto the mounting bracket. To accomplish these
results, a distinctly novel container is provided and attention is directed to accompanying
FIGURE 7 for the discussion which follows.
[0031] As briefly described above, container 26 of the present invention includes a linear
array of first and second perforation groupings 70, 72 each of which is established
by alternating cut and uncut portions 73a, 73b, respectively. First perforation grouping
70 is disposed in wall 37 so as to be registrable with flange 16 while second perforation
grouping 72 is disposed in wall 37 so as to be registrable with flange 18 of mounting
bracket 10. Of course, should a single mounting flange be used as the means to mount
the container upon the bracket, as is the case with the embodiment of the present
invention depicted in FIGURES 14-17, two groupings 70, 72 would be unnecessary and
thus the linear array of cut and uncut portions 73a, 73b, respectively, would extend
substantially the entire length of wall 37.
[0032] The linear array of first and second perforation groupings 70, 72 are substantially
parallel to edge 61 which is defined by the intersection of mutually perpendicular
walls 37 and 24. Moreover, the linear array of first and second perforation groupings
70, 72 are spaced from edge 61 by a dimension D which is less than or equal to the
cross-sectional dimension of space 22 defined between backplate 12 and flanges 16,
18. In such a manner, wall 24 of container 26 is accepted in space 22 when container
26 is mounted upon flanges 16, 18.
[0033] The container 26 is constructed of a sufficiently strong material which protects
the contents from damage. Particularly preferred materials for the container of this
invention include 125-lb. and 200-lb. test corrugate board although solid fiber board
of sufficient basis weight (e.g. at least 18-point solid fiber board) could also be
advantageously used. Conventional forming techniques are used to fashion the container
of the present invention. Preferably, a container blank is cut from an integral piece
of box board and then folded so as to erect the container. Suitable known adhesives,
tapes, staples, integral folds or like means are then used to join adjacent panels
of the erected container. A preferred container of this invention exhibits a length
dimension of about 10 1/2 inches, a width dimension of about 4 3/4 inches, and a height
dimension of about 8 1/4 inches.
[0034] The linear array of first and second perforation groupings 70, 72 are important to
the container of the present invention to achieve the functional advantages briefly
mentioned above; that is, to ensure that the integrity of the container is maintained
during handling or shipping thereof separately from the mounting bracket in addition
to ensure that the user encounters little difficulty in mounting the container into
the bracket. The container of the present invention achieves such functional advantages
by dimensioning the cut portions 73a such that the percentage of the cut portions
73a relative to the uncut portions 73b of the linear perforation array is between
about 20% to about 8096, e.g. as established by the following formula:
Percent cut portion = total dimension of cut
portions 73a + [(total dimension of cut portions 73a)
+ (total dimension of uncut portions 73b)] x 100
[0035] By dimensioning the cut/uncut portions 73a/73b so as to satisfy the above formula,
the user need only apply a force in the direction of arrow 76 in FIGURE 8 of between
about 8 lbs-force to about 35 lbs-force to achieve mounting of the container 26 onto
bracket 10. The amount of force required to be exerted in the direction of arrow 76
in FIGURE 8 (e.g. between about 8 to about 35 lbs-force) is also a measure of the
integrity of the linear array of perforation groupings 70, 72. That is, below about
8 lbs-force (which corresponds to a percent cut portion in excess of about 80%), the
container exhibits a tendency to separate along the linear array of perforation groupings
70, 72 during handling prior to use. Thus, less than about 8 lbs-force required to
mount container 26 onto bracket 10 is distinctly disadvantageous since premature separation
along the perforation line tends to occur prior to mounting thereby exposing the contents
of container 26 to potential damage. On the other hand, should the required mounting
force exceed about 35 lbs-force (e.g. corresponding to a percent cut portion of less
than about 20%), the user experiences excess resistance to the mounting of container
26 onto bracket 26 even though the integrity (e.g. nonseparation along the perforation
line) of container 26 is virtually ensured.
[0036] While the above description of container 26 was primarily directed to mounting of
container 26 onto the embodiment of bracket 10 having a pair of mounting flanges (e.g.
mounting flanges 16, 18), the reader should appreciate that the above description
is similarly applicable to a mounting bracket having a unitary mounting flange (for
example, flange 96 of the embodiment of FIGURES 14-17) or more than a pair of mounting
flanges. Furthermore, while first and second perforation groupings 70, 72 are depicted
in the accompanying drawings as being formed in wall 37 of container 26 adjacent to
panel 66, the reader should also appreciate that cut and uncut portions 73a, 73b,
respectively, can be formed in any wall of container 26 so as to present opening 67
and thus wiper sheet material 68 at a desirable location for the user. Also, multiple
linear arrays of cut and uncut portions can be provided so as to present the user
with a choice of wiper dispensing positions (e.g. top, side or bottom dispensing positions).
[0037] Thus, while the present invention has been described in what is presently conceived
to be the most preferred embodiments thereof, those in this art may recognize that
many modifications may be made thereto, which modifications shall be accorded the
broadest scope of the appending claims so as to encompass all equivalent structures
and/or assemblies.
1. A container mounting bracket to mount a container to a surface comprising:
a rear plate member adapted to being secured to a surface;
mounting flange means for mounting the container, said flange means having one end
fixed to said rear plate member and defining with said rear plate member a space to
accept one wall of the container therein, said flange means including at the other
end thereof means defining edges for piercing a second wall of the container when
the container is moved in a mounting direction onto said flange means to a position
wherein said container is mounted onto said flange means; and
means disposed in said space for capturing a portion of said container in said mounted
position to securely mount said container to said flange means and for resisting forces
acting on said container in a direction generally opposing said mounting direction
while yet permitting removal of said container when desired.
2. A container mounting bracket as in claim 1 wherein said container-capturing means
includes means defining a nip area with said rear plate member, said nip area capturing
said container portion when said container is in said mounted position.
3. A container mounting bracket as in claim 2 wherein said nip area defining means
includes means forming a pair of surfaces disposed in said space and joined together
at least at one edge of each, said joined edges thereby establishing said nip area.
a
4. A container mounting bracket as in claim 3 wherein said joined edges define a line
which is angularly oriented relative to said rear plate member.
5. A container mounting bracket as in claim 1 wherein said container-capturing means
includes means defining a sharp edge to penetrate said container portion when said
container is in said mounted position.
6. A container mounting bracket as in claim 5 wherein said sharp edge defining means
includes a triangular-shaped member extending into said space and terminating in a
pointed tip, said tip penetrating said container portion when said container is in
said mounted position.
7. A container mounting bracket as in claim 1 or 2 further comprising means defining
a guide surface disposed in said space for guiding and biasing said one wall away
from obstructions in said space when said container is moved in said mounting direction
to thereby prevent the obstructions from interfering with the mounting of said container
onto said flange means.
8. A container mounting bracket as in claim 7 wherein said guide surface defining
means defines convex arcuate surfaces.
9. A container mounting bracket as in claim 1 or 2 wherein said mounting flange means
include a pair of upstanding flange members, each rigidly mounted to said first member
at one end thereof so as to be substantially parallel to said rear plate member and
each said flange members including an edge defined at the other end thereof to pierce
said second container wall.
10. A container mounting bracket as in claim 1 or 2 wherein said mounting flange means
includes structural means for increasing the structural rigidity of said flange means.
11. A container mounting bracket according to claim 10 wherein said structural means
includes vertically extending rib members.
12. A container mounting bracket according to claim 1 wherein said first member includes
aperture-defining means for defining an aperture adapted to accept a manipulable securing
element therein so that the container mounting bracket can be rigidly secured to a
surface.
13. A container mounting bracket as in claim 12 wherein said flange means includes
means defining at least one opening in registry with said aperture to permit the manipulable
securing element in said aperture to be accessed by a manipulation tool.
14. The combination comprising a container mounting bracket and a container mounted
onto said bracket, said container having walls defining an interior cavity for containing
a plurality of sheet material therein and means establishing an opening to permit
said sheet material to be dispensed from said cavity, wherein said container mounting
bracket includes:
a rear plate member adapted to being secured to a surface;
mounting flange means for mounting the container, said flange means having one end
fixed to said rear plate member and defining with said rear plate a space to accept
one wall of the container therein, said flange means including at the other end thereof
means defining edges for piercing a second wall of the container when the container
is moved in a mounting direction onto said flange means to a position wherein said
container is mounted onto said flange means; and
means disposed in said space for capturing a portion of said container in said mounted
position to securely mount said container to said flange means and for resisting forces
acting on said container in a direction generally opposing said mounting direction
while yet permitting removal of said container when desired.
15. The combination of claim 14 wherein said container includes perforation means
establishing at least one perforated area on said second wall registrable with said
edge-defining means so that when said container is moved in said mounting direction
said edge-defining means penetrate said perforation means.
16. A container mounting bracket comprising:
a generally U-shaped mounting member having a rear plate member adapted for placement
against a rigid surface to be secured thereto and at least one mounting flange adapted
to penetrate a wall of a container to mount the container to the mounting member,
wherein
said mounting member includes means to capture a portion of the container when mounted
to said mounting member.
17. A container mounting bracket as in claim 16 wherein said container-capturing means
includes means defining a nip area with said rear plate member, said nip area capturing
said container portion when said container is in said mounted position.
18. A container mounting bracket as in claim 16 wherein said container-capturing means
includes means defining a sharp edge to bite into said container portion whereby said
container is captured by means of said sharp edge biting into said container portion.
19. A container mounting bracket comprising:
a generally U-shaped mounting member having a rear plate member adapted for placement
against a rigid surface to be secured thereto and at least one mounting flange adapted
to penetrate a wall of the container to mount the container to the mounting member,
wherein
said mounting member includes means defining a guide surface disposed between said
rear plate member and said at least one mounting flange, said guide surface defining
means biasing another wall of the container in a direction towards said at least one
mounting flange member when the container is moved relative to said at least one mounting
flange member to mount the container to the mounting member.
20. A container mounting bracket as in claim 19 wherein said guide surface defining
means defines an arcuate convex surface.
21. A container mounting bracket as in claim 19 or 20 wherein said mounting member
further includes means to capture a portion of the container when mounted to said
mounting member.
22. A container for mounting onto a bracket of the type including a rear plate adapted
to being secured to a surface and mounting flange means to mount the container, the
flange means having one end fixed to the rear plate to define a space of predetermined
cross-sectional dimension, and another end, opposite to the first end, defining a
substantially linear edge, said container comprising:
wall means establishing plural pairs of opposing walls to define an interior cavity,
one wall of a first pair of opposing walls establishing a linear corner with an adjacent
wall of a second pair of opposing walls;
means defining a linear array of cut portions in said one wall substantially parallel
to said defined corner and spaced from said defined corner by a dimension less than
or equal to said predetermined cross-sectional dimension, wherein
said linear array defining means registers with said defined edge of said mounting
flange means when said container is positioned so that said linear array defining
means is in confronting relationship to said defined edge and wherein said container
is mountable upon said mounting flange means upon the application of a magnitude of
force being exerted upon said container while said linear array defining means is
in said confronting relationship to said defined edge, said linear array defining
means for establishing said predetermined magnitude of force required to mount said
container onto said mounting flange means.
23. A container as in claim 22 wherein said linear array defining means defines alternating
cut and uncut portions.
24. A container as in claim 23 wherein said predetermined magnitude of force is between
about 8 to about 35 pounds force.
25. A container as in claim 24 wherein between about 20 to 80% of said linear array
defining means consists of said cut portions.
26. A container as in claim 22 wherein said wall means consists essentially of between
about 125 to about 200-lb. test corrugate board material.
27. A container as in claim 22 wherein said wall means consists essentially of at
least 18-point solid fiber board material.