Information
-
Patent Grant
-
6742230
-
Patent Number
6,742,230
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Date Filed
Friday, July 26, 200222 years ago
-
Date Issued
Tuesday, June 1, 200420 years ago
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Inventors
-
Original Assignees
-
Examiners
Agents
-
CPC
-
US Classifications
Field of Search
US
- 024 94
- 024 95
- 024 103
- 024 101 R
- 024 101 B
- 024 687
- 024 688
- 024 689
- 024 690
- 024 691
- 411 362
- 027 432
- 027 512
- 027 798
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International Classifications
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Abstract
A stud snap system includes a pin, a receiver, and a stud. The receiver fixedly engages with the pin and also fixedly engages with the stud to attach of the stud snap system to a material. The material can include apparel, clothing, sportswear, outdoor gear, fabrics, coverings, and textiles. Use of the receiver affords a large selection of options for materials and geometries to be used for the stud since the pin is not directly engaged with the stud.
Description
BACKGROUND OF THE INVENTION
1. Field of the Invention
The present invention relates to apparel fasteners, and more particularly, to snap type fasteners.
2. Description of the Related Art
Related-art fasteners for material, such as apparel, clothing, sportswear, outdoor gear, fabrics, coverings, textiles, and so on include, snaps. Snaps generally include a stud and a portion to receive the stud and thereby fasten material.
The inventor named herein (“inventor”) has noticed deficiencies and/or unmet needs associated with related-art snap studs, a few of which will now be set forth (other related-art deficiencies and/or unmet needs will become apparent in the detailed description below).
The inventor has discovered that it would be advantageous for a snap stud to be attached to material without a requirement of first producing a hole in the material prior to attachment of the snap stud. The inventor has discovered that attachment of related-art snap studs to material conversely requires a hole to be first made in the material before one of the related-art snap studs is attached to the material. The inventor has thus recognized that a need exists in the art for snap studs that can be attached to material without need of first making a hole in the material prior to attachment of the snap stud.
The inventor has discovered that it would be advantageous for a snap stud to have an outside surface that is substantially unaffected as to how the snap stud is attached to the material. The inventor has discovered that attachment of related-art snap studs can affect one or more outside surfaces and consequently, the relative appearance of the snap studs. The inventor has thus recognized that a need exists in the art for a snap stud that can be attached to material without being substantially affected by how the snap stud is attached to the material.
The foregoing-described inventor discoveries constitute at least a part of the inventive content herein.
BRIEF SUMMARY OF THE INVENTION
In one embodiment, a system includes but is not limited to: a pin including a shaft portion and a head portion, the shaft portion including a first end portion, a second end portion, and a longitudinal length, the head portion being adjacent the first end portion of the shaft portion, the second end portion of the shaft portion including a tip portion that is substantially pointed to pierce a material when the pin is in an unaltered state and that is substantially blunt when the pin is in an altered state; a receiver including a pin enclosure portion and a backing portion, the pin enclosure portion having first and second end portions, the first end portion having an opening and the second end portion being enclosed by a top portion, the opening so sized to receive the shaft portion of the pin, the pin enclosure portion having a longitudinal axis, the top portion of the receiver having a hardness so selected to change the pin from the unaltered state to the altered state when the tip portion of the pin is forced against the top portion, the top portion having a protrusion portion, the top portion so shaped that the protrusion portion moves from an un-extended position to an extended position in one or more directions away from the longitudinal axis of the pin enclosure portion when the pin is forced against the top portion and changed from the unaltered state to the altered state; and a stud including a stud top portion and a backing enclosure portion, the stud top portion having an opening so sized to receive the pin enclosure portion when its protrusion portion is in the un-extended position, the stud top portion having an internal surface so sized to fixedly engage with the pin enclosure portion when the protrusion portion is in the extended position, the backing enclosure portion so sized and positioned with respect to the stud top portion to receive the backing portion of the receiver when the stud top portion has received at least a portion of the pin enclosure portion of the receiver.
The foregoing is a summary and thus contains, by necessity, simplifications, generalizations and omissions of detail; consequently, those skilled in the art will appreciate that the summary is illustrative only and is NOT intended to be in any way limiting. Other aspects, inventive features, and advantages of the devices and/or processes described herein, as defined solely by the claims, will become apparent in the non-limiting detailed description set forth herein.
BRIEF DESCRIPTION OF THE SEVERAL VIEWS OF THE DRAWING(S)
Implementations will now be described, by way of example only, by referring to the annexed drawings, wherein:
FIG. 1
is an isometric representation of a snap stud system prior to assembly.
FIG. 2
a cross-sectional representation of a snap stud system prior to assembly.
FIG. 3
is a cross-sectional representation of a second embodiment of pin
12
.
FIGS. 4A and 4B
are cross-sectional representations of an assembled snap stud system.
FIG. 5
is an isometric representation of stud
16
.
FIG. 6
is an isometric representation of pin
12
.
The use of the same symbols in different drawings typically indicates similar or identical items
DETAILED DESCRIPTION OF THE INVENTION
An isometric representation of a disassembled snap stud system is included as FIG.
1
. Depicted is a snap stud system
10
, in a disassembled state and prior to first assembly, composed of three distinct parts: a pin
12
, a receiver
14
, and a stud
16
. The pin
12
has a head
18
, with an exterior surface
20
and an interior surface
22
, and has a shaft
24
with a tip
26
. The receiver
14
has a pin enclosure
28
, with a top
30
, an opening
32
, and a lip
34
, and has a backing
36
, with an interior surface
38
and an exterior surface
40
. The enclosure
28
of the receiver
14
is so sized in diameter to closely receive the shaft
24
of the pin
12
. However, as will be described further below, the length of the shaft
24
is greater than the interior height of the enclosure
28
. The stud
16
has a stud top
42
and a backing enclosure
44
, with an interior surface
46
, and an opening
48
. The backing enclosure
44
of the stud
16
is so sized in diameter to closely receive the backing
36
of the receiver
14
.
With reference now to
FIG. 2
, depicted is a cross-sectional representation of the snap stud system
10
, in a disassembled state prior to first assembly. Further shown are protrusions
50
of the pin enclosure
28
of the receiver
14
. The pin enclosure
28
has a first inner diameter, D1, which is greater than the outer diameter of the shaft
24
of the pin
12
allowing for the pin to be received inwardly by the pin enclosure. Near the area of the protrusions
50
, the pin enclosure
28
has a second inner diameter, D2, greater than the first inner diameter, D1. The second inner diameter, D2, allows for reshaping of the malleable or deformable tip
26
of the pin
12
as the pin is driven against the top
30
of the pin enclosure
28
during attachment of the snap stud system
10
to a material
52
, described in further detail below.
Also shown in
FIG. 2
, is a cross-sectional representation of the pin
12
in which the surface
20
of the head
18
possesses a uniformly flat structure. An alternative implementation of the head
18
of the pin
12
is depicted in
FIG. 3
in which the surface
20
of the head includes curved portions.
As to
FIGS. 4A and 4B
, depicted are cross-sectional representations of the snap stud system
10
in an assembled condition and attached to the material
52
. As shown, the backing enclosure
44
is crimped along all or part of its perimeter in to retain the receiver
14
inside of the stud
16
. Also shown, attachment of the snap stud system
10
to the material
52
causes some compression of the material between the head
18
of the pin
12
and the backing
36
of the receiver
14
.
The length of the shaft
24
of the pin
12
is greater than the combined length of the interior height of the pin enclosure
28
and the compressed thickness of the material
52
. Consequently, shaft length is shortened when the snap stud system
10
is attached to the material. When the pin
12
is in an un-altered state, the tip
26
of the pin
12
is sharp enough to pierce the material
52
during attachment of the snap stud system
10
to the material. This alleviates the need for using a separate step to make a hole in the material
52
before the snap stud system in affixed to the material.
To attach the snap stud system
10
to the material
52
, the pin
12
is first pushed through the material and along the interior length of the pin enclosure
14
, by applying pressure to the exterior surface
20
of the head
18
of the pin, until the tip
26
reaches the inner surface of the top
30
. At this point, continued pressure is applied to the exterior surface
20
of the head
18
of the pin
12
to alter the state of the pin. Since the material hardness of the top
30
is preferably greater than the material hardness of the tip
26
of the pin
12
, the tip is re-shaped to become a blunt end
54
having a diameter greater than the rest of the shaft
24
and expanding toward and forcing against the protrusions
50
. The pin
12
is thereby fixedly coupled with the pin enclosure
14
through mechanisms such as frictional engagement (shown in
FIG. 4B
) or an interference fit (not shown) of the blunt end
54
with the pin enclosure
14
. In turn, the protrusions
50
expand away from the longitudinal axis of the pin
12
and are forced against the interior surface
56
of the stud top
42
thereby fixedly coupling the pin enclosure
14
with the stud
16
resulting in the stud being fixedly coupled to the material
52
.
Since the top
30
is hard enough to re-shape the tip
26
of the pin
12
rather than allowing the pin through the top, the material hardness of the stud top
42
need not be greater than the material hardness of the tip of the pin. Consequently the stud
16
, including the stud top
42
, could be made out of materials other than metal and could have a lower material hardness rating than that of the tip
26
of the pin
12
. For instance, the stud
16
could be made out of a plastic, a nylon, or a soft metal, such as a high karat gold alloy (for instance, greater than 22 karat), or other relatively soft material. Alternatively, the stud
16
could be made out of a harder material, such as a metal, with a hardness greater than the hardness of the tip
26
.
All of the above U.S. patents, U.S. patent application publications, U.S. patent applications, foreign patents, foreign patent applications and non-patent publications referred to in this specification and/or listed in the Application Data Sheet, are incorporated herein by reference, in their entirety.
From the foregoing it will be appreciated that, although specific embodiments of the invention have been described herein for purposes of illustration, various modifications may be made without deviating from the spirit and scope of the invention. Accordingly, the invention is not limited except as by the appended claims.
Claims
- 1. A system comprising:a pin including a shaft portion and a head portion, the shaft portion including a first end portion, a second end portion, and a longitudinal length, the head portion being adjacent the first end portion of the shaft portion, the second end portion of the shaft portion including a tip portion that is substantially pointed to pierce a material when the pin is in an unaltered state and that is substantially blunt when the pin is in an altered state; a receiver including a pin enclosure portion and a backing portion, the pin enclosure portion having first and second end portions, the first end portion having an opening and the second end portion being enclosed by a top portion, the opening so sized to receive the shaft portion of the pin, the pin enclosure portion having a longitudinal axis, the top portion of the receiver having a hardness so selected to change the pin from the unaltered state to the altered state when the tip portion of the pin is forced against the top portion, the top portion having a protrusion portion, the top portion so shaped that the protrusion portion moves from an un-extended position to an extended position in one or more directions away from the longitudinal axis of the pin enclosure portion when the pin is forced against the top portion and changed from the unaltered state to the altered state; and a stud including a stud top portion and a backing enclosure portion, the stud top portion having an opening so sized to receive the pin enclosure portion when its protrusion portion is in the un-extended position, the stud top portion having an internal surface so sized to fixedly engage with the pin enclosure portion when the protrusion portion is in the extended position, the backing enclosure portion so sized and positioned with respect to the stud top portion to receive the backing portion of the receiver when the stud top portion has received at least a portion of the pin enclosure portion of the receiver.
- 2. The system of claim 1 wherein the longitudinal length of the shaft portion of the pin in the un-altered state is greater than a combined length of an interior height of the pin enclosure portion and a compressed thickness of the material.
- 3. The system of claim 1 wherein the material is selected from apparel, clothing, sportswear, outdoor gear, fabrics, coverings, and textiles.
- 4. The system of claim 1 wherein a first part of the pin enclosure portion has a first inner diameter, a second part of the pin enclosure portion has a second inner diameter, and the shaft portion of the pin has an outer diameter, the first inner diameter being greater than the outer diameter, the second inner diameter being greater than the first inner diameter, the second inner diameter so sized to allow for change of the pin from the un-altered state to the altered state.
- 5. The system of claim 1 wherein the head portion has a surface with a uniformly flat structure.
- 6. The system of claim 1 wherein the stud top portion has a hardness less than the hardness of the tip portion of the pin and is made from one of the following: a plastic, a nylon, and a soft metal.
- 7. A system comprising:a pin including a tip portion that is substantially pointed when the pin is in an unaltered state and is substantially blunt in an altered state, the tip portion having a first hardness; a receiver including a pin enclosure portion having an opening so sized to receive the pin and having a top portion with a second hardness greater than the first hardness, the top portion having a protrusion portion and so shaped that the protrusion portion moves from an un-extended position to an extended position when the pin is forced against the top portion and changed from the unaltered state to the altered state; and a stud including a stud top portion having an opening so sized to receive the pin enclosure portion of the receiver when the protrusion portion of the receiver is in the un-extended position, the stud top portion having an internal surface so sized that the protrusion portion of the receiver fixedly engages a portion of the internal surface when the pin enclosure portion of the receiver is inside the stud top portion and the protrusion portion of the receiver is in the extended position.
US Referenced Citations (7)