Information
-
Patent Grant
-
6202862
-
Patent Number
6,202,862
-
Date Filed
Wednesday, September 8, 199925 years ago
-
Date Issued
Tuesday, March 20, 200123 years ago
-
CPC
-
US Classifications
Field of Search
US
- 211 601
- 211 8901
- 211 74
- 211 69
- 211 706
- 211 695
- 211 691
-
International Classifications
-
Abstract
A pen holder (22) comprising six tapered tubular cavities (24) for holding and sealing various size pens, is formed in a resilient foam (28) cooperating with a skin (30) that surrounds all outside surfaces. The resilient materials are flexible enough to hold pens against the tapered section without loosening. Tapered tubular cavity (24) has a mouth (42) that is connected to a throat (44). Throat (44) leads to a primary gripping zone (46) that connects to a secondary gripping zone (48). The gripping zones have different tapered ranges to accommodate different pen widths. Foam (28) and skin (30) surrounds tapered tubular cavities (24) forming an outside block shape with a face (32) that comprises six mouths (42) exposed in face (32). Face (32) is parallel to a base (34). The block shape comprises two concave sides (36A) and (36B). Pen holder (22) comprises two waist walls (38A) (38B) that are perpendicular to concave sides (36A) and (36B). Pen holder (22) can be held in a human being's hand during operation or can be held by a wall bracket (62). In addition, pen holder (22) has an eraser well (26) that comprises two short walls (56A) and (56B) which are tapered to hold a conventional eraser (78). Eraser well (26) comprises two side walls (58A) and (58B) that are perpendicular to a end wall (60). End wall (60) is parallel to a port (54) which is exposed in face (32) of pen holder (22).
Description
BACKGROUND
1, Field of Invention
This invention relates to pen holders, specifically to such holders which are used for holding pens of various size.
2. Description of Prior Art
Pen manufacturers commonly supply consumers with pens that have different sizes, lengths, and degrees of slope along the pen length. Pen manufactures often equip pen models with a mating cap to prevent evaporation of ink.
These pens require the use of two hands for removing caps before writing. Conversely, after writing, the caps need to be installed to prevent drying of ink. However, writers objected because the act of using a cap in such a manner becomes tedious.
Thereafter, inventors created pen holders to facilitate one-hand operation for writing. U.S. Pat. No. 5,405,024 to Sahf (1995) discloses a complex rack with an internal groove for a ring seal. However, ink can easily contaminate the seal precluding the use of different colors of ink pens. U.S. Pat. No. 5,163,549 to Hayduchok (1992) shows a hollow rigid modular pen holder system. However, this system requires a close tolerance between the pen and the holder. U.S. Pat. No. 5,033,629 to Caine (1991) demonstrates a thin resilient cylindrical sleeve mounted in a rigid box. However, the round inner sleeve area has a static unbiased hole size. Thus, the seal must compress with ever greater pressure when pens of larger sizes are inserted . Also, pens must be kept in a upright position to prevent toppling precluding portable hand-held use of holder while writing. Finally, Caine's pen holder grips pens at the tip diameter increasing the risk of ink contamination. U.S. Pat. No. 4,493,575 to Mutschler (1985) employs an internal tapered sleeve attached at one end only. However, the sleeve can be pulled out of holder along with pen unless sleeve is rigid. U.S. Pat. No. to Kennamer 2,957,270 (1960) shows a solid block that slides on a track with a plurality of cavities therein. However, the solid block needs to be of a rigid low friction material so as to be able to slide on dovetail rib. U.S. Pat. No. 2,082,831 to Hansen (1935), U.S. Pat. No. 1,789,439 to Horix (1926), and U.S. Pat. No. 1,641,829 to Sheaffer Walter and Sheaffer Craig (1924) illustrate sleeves mounted to a base at one end. However, the sleeves need to be made of a rigid material to prevent collapse when pens are inserted. U.S. Pat. No. 2,011,040 to Cuthbert (1935) and U.S. Pat. No. 1,804,120 to Sengbusch (1927) document complex multiple part holders that use resilient gripping fingers to accommodate different size pens. However, these configurations would be prohibitively expensive to manufacture. U.S. Pat. No. 1,762,104 to Liddell (1928) divulges a sleeve attached at one end with a series of inner-stepped recesses. However, the shoulder of the pen abuts on top of the recess requiring gravity to maintain upright position. Also, holder cannot maintain pens in horizontal position without toppling and falling out. U.S. Pat. No. 1,641,846 to Fremon Jules and De Haven Avery (1927) embodies a rubber cylindrical sleeve with an internal shoulder and a flared open end. However, the shoulder of pen sits on top of the internal shoulder in a loose fashion thus requiring a vertical position. U.S. Pat. No. 1,620,529 to Ferris (1927) presents a rubber sleeve inserted into a base. However, the sleeve has an axial internal groove preventing an airtight seal. Also, different size pens are accommodated by using a new sleeve with mating size bore. U.S. Pat. No. 3,866,992 to Katz (1975) and U.S. Pat. No. 3,428,380 to Danjczek (1969) displays tubular elements seated in a container filled with water. However, tubular elements do not provide a perfect airtight seal. U.S. Pat. No. to 5,850,917 Denton (1998) shows a box with cavities therein. However, Denton teaches that his box is rigid and requires a foam liner to hold syringes of different diameters. Additionally, Denton explains that the holder is designed to hold syringes with a sterile cap over a hypodermic needle. Also, Denton's syringe holder does not compensate for the effect that various syringe widths have on the ratio of protruding syringe length to inserted syringe length. U.S. Pat. No. to 4,253,830 Kazen (1981) cites a resilient cylindrical tapered stepped sleeve inserted into a rigid box. Nevertheless, the sleeve encompasses a constricting aperture wall that results in an unbiased static hole. Also, Kazen has designed the holder to continuously vent to atmosphere so that dental instruments will not corrode in the holder.
All of the pen holders mentioned attempt to solve the objections of writers, nevertheless all of the pen holders heretofore known endure from a number of disadvantages:
(a) The tubular side wall of the holders in the present do not have a constant yielding frictional engagement with pens of different sizes. Such holders require ever increasing force to insert pens of larger sizes therein. Such increasing pressure on holder requires the use of reinforced fastening system to prevent holder from moving. Also, such holders are limited to permanent fixtures that will not move. Portable devices such as easels or tripods need to be permanently attached to the earth. Pens cannot be pulled out of the holder by grasping cap attached to end of barrel without detachment. Conversely, such holders cannot maintain minimum frictional engagement to facilitate pen release. Pens of smaller sizes result in ever decreasing holding force on pens. Smaller pens require the holder to be mounted in a vertical position to prevent pens from toppling or falling out. Also, such holders cannot maintain an airtight seal around pens of various size so that only minimum force is need to substantiate a perfect seal. Such holders do not readily allow consumers to buy different pen models which will work in such holders with consistent performance. Finally, variance in frictional engagement requires a writer to accommodate to different insertion and release pressures of various pens from holder.
(b) In present holders, the marking tips of pens can easily touch the inner wall of tubular holder. If one uses pens with different ink colors the holder must be cleaned prior to insertion. Such holders engage pens at their tip. The use of a plurality of holders with different color pens requires assignment of each pen to an exclusive holder to prevent cross contamination of ink. Such holders decrease writing speed when writers dedicate a specific color pen to an addressed holder.
(c) Present tubular holders do not compensate for the effect that various pen widths have on the ratio of protruding pen length to inserted pen length. Pens of narrow diameters will engage tubular holder deeper than pens of larger diameters. Consequently, a narrow diameter pen will have a greater percentage of its pen length inside the tubular holder than a larger diameter pen of comparable length. Accordingly, narrow pens require writers to reach a farther distance to grab pens verses a shorter distance for larger diameter pens. Reaching for pens of differing protruding lengths requires greater concentration for a writer.
(d) Pen holders of the present require the use of multiple parts and complex installations, thereby increasing cost and sales resistance for consumers. Also, multiple-part designs increase the chance for product defects.
(e) Pen holders of the present are limited to the use of rigid materials to prevent collapse. Rigid material requires that pen and holder be of mating dimensions to provide seal. Also, rigid material requires a snap fit. Mating surface between pen and holder require the use of different size holders for different size pens. The use of different size holders requires writers to put pens back in their assigned holder. Such holders require an exclusive model of pen to be used. Other pen models must remain with original caps precluding one-hand operation.
(f) The use of an internal shoulder to seat pens requires the use of gravity for pens to remain seated. Pens used in horizontal position will topple and not seat properly for airtight seal. Holders that provide annular stepped recesses to accommodate larger pens do not provide a constant yielding frictional engagement.
(g) Pen holders of the present do not allow writers or artists to handle pen holder in a palette-like fashion.
(h) Pen holders of the present do not allow writers to hold and squeeze holder in such a manner as to aid in tension release.
Objects and Advantages
Several objects and advantages that the present invention remedies are:
(a) to provide a holder which can accept many different pen models of different size with consistent performance.
(b) to provide a holder which prevents ink contamination by engaging various size pens at the barrel away from pen tip.
(c) to provide a holder which will compensate for the effect of various pen widths on the ratio of protruding pen lengths to inserted pen lengths.
(d) to provide a holder which is a singular molded part allowing for inexpensive rapid production with minimal installation for consumers.
(e) to provide a holder which is flexible with yielding properties that will hold pens of various size in a secure delicate fashion with airtight seal.
(f) to provide a holder which has a tapered tubular cavity without inner-stepped walls allowing pens to be gripped and held therein by a resilient yielding cushion in any position.
(g) to provide a holder that can be held like an artist palette to facilitate writing or drawing with various pens of different size and color.
(h) to provide a holder that can be held and squeezed to aid in tension release.
Further objects and advantages are to provide a holder which is extremely light weight, which is unbreakable, which can be attractively packaged in a clear plastic bag with reseal capabilities allowing consumers to inspect item, which requires inexpensive packaging decreasing cost for consumers, which uses inexpensive printed labels on package, which can be hung on peg board with minimal fixture support, and which can be supplied in master boxes of a standard size with lowest cost per cubic inch, without regards to total weight. Still further objects and advantages will become evident from observing the following description and drawings.
DRAWINGS FIGURES
FIG. 1
shows pen holder with a internal resilient yielding material with a integral resilient yielding layer on outside surface areas.
FIG. 2
is a cross section end view of the stepped parallel plane
15
—
15
in
FIG. 1
with half of tapered tubular cavities exposed.
FIG. 3
is a partial end view of
FIG. 2
without an integral yielding skin.
FIG. 4
is bottom view of pen holder.
FIGS. 5A and 5B
show end views of FIG.
2
and various sized pens added before and after engagement into holder.
FIG. 6
is an enlarged section of reference
6
of FIG.
5
B.
FIG. 7
is an enlarged section of reference
7
of FIG.
5
B.
FIG. 8
shows a cut away view of
FIG. 9
with phantom straight tapered tubular receptacles and various size pens added.
FIG. 9
shows end view of FIG.
2
and various size pens added.
FIG. 10
shows a conventional marker board eraser with a partial view of pen holder and eraser well.
FIG. 11
shows eraser port cross section end view of plane
19
—
19
in FIG.
1
.
FIG. 12B
is a cross section end view of plane
17
—
17
in
FIG. 1
with half of eraser well exposed.
FIG. 12A
shows cross section end view of eraser (plane
21
—
21
in
FIG. 10
) and eraser well (
FIG. 12B
) engaged.
FIGS. 13A and 13B
show pen holder before and after engagement into a wall bracket.
FIG. 14
shows pen holder being held like an artist palette by user.
|
Reference Numerals in Drawings
|
|
|
6 section of
FIG. 5B
7 section of
FIG. 5B
|
15 plane 15—15
17 plane 17—17
|
19 plane 19—19
21 plane 21—21
|
22 pen holder
24 tapered tubular cavity
|
26 eraser well
28 foam
|
30 skin
32 face
|
34 base
36A and 36B concave sides
|
38A and 38B waist walls
40A, 40B, 40C, and 40D tapered ends
|
42 mouth
44 throat
|
46 primary gripping zone
48 secondary gripping zone
|
50 end cap
52 resilient cellular impermeable material
|
54 port
56A and 56B short walls
|
58A and 58B long walls
60 end wall
|
62 wall bracket
64 plate
|
66A and 66B through-holes
68A and 68B channel walls
|
70 line segment alpha
72 line segment beta
|
74 round tip pen
76 chisel tip pen
|
78 eraser
80 straight taper receptacle
|
82 straight taper section
84 round tip
|
86 chisel tip
88 pen butt
|
90 pen cap
92 joint theta
|
94 joint delta
|
|
SUMMARY
In accordance with the present invention an article of manufacture for holding various size elongated implements comprises a resilient cellular material or foam defining a tapered tubular cavity with one portion open to expose the cavity to ambient atmosphere.
DESCRIPTION—FIGS
1
,
2
,
3
,
4
,
8
,
9
,
10
,
11
,
12
A,
12
B,
13
A,
13
B
In the preferred embodiment, a pen holder
22
of the present invention is illustrated in FIG
1
. Pen holder
22
comprises six tapered tubular cavities
24
. Next to tapered tubular cavities
24
is a rectangular cavity or eraser well
26
. Tapered tubular cavities
24
are formed in a resilient cellular material or foam
28
that has a resilient yielding integral layer or skin
30
on all surface areas.
In the preferred embodiment, pen holder
22
is formed in a mold that has a cavity image therein of the present embodiment. Pen holder
22
has a flat top or face
32
and a flat bottom or base
34
. Face
32
is parallel to base
34
. holder
22
comprises two concave sides
36
A and
36
B. Concave side
36
A mirrors concave side
36
B. Pen holder
22
comprises two hourglass shaped end walls or waist walls
38
A and
38
B. Base
34
of pen holder
22
in
FIG. 4
(bottom view) comprises four tapered ends
40
A,
40
B,
40
C, and
40
D. Tapered ends
40
A and
40
B begin to narrow from concave side
36
B and
36
A, respectively, toward waist wall
38
A. In like fashion, tapered ends
40
C and
40
D begin to narrow from concave sides
36
B and
36
A, respectively, toward waist wall
38
B. In the preferred embodiment (FIG.
1
), foam
28
and skin
30
are a polyurethane with skin
30
formed during the molding process. However, foam
28
and skin
30
can be made of any other material and process and combination thereof that will provide foam
28
with resilient yielding properties that will cooperate with skin
30
with resilient yielding properties. For example, skin
30
can be sprayed on to the cavity image before foam
28
is injected into the mold. Additionally, skin
30
can be molded in a separate operation and thereupon inserted into the mold of cavity image, where foam
28
is injected on to skin
30
resulting in fusion of skin
30
to foam
28
.
Tapered tubular cavities
24
in
FIG. 2
(vertical stepped plane
15
—
15
of
FIG. 1
) have a round open horizontal end section or mouth
42
which is the widest horizontal cross section of tapered tubular cavity
24
. Mouth
42
is connected to a vertical parallel section or throat
44
that runs the same width as mouth
42
. Throat
44
is connected to a vertical tapered section or primary gripping zone
46
. Primary gripping zone
46
has a taper that forms a vertical rise in height which is greater than the horizontal length in run. Primary gripping zone
46
is connected to a secondary gripping zone
48
which has a vertical taper which is slightly steeper than primary gripping zone
46
. Secondary gripping zone
48
is connected to a round flat bottom or end cap
50
. Tapered tubular cavity
24
has a smooth transition with no shoulder between throat
44
, primary gripping zone
46
, and secondary gripping zone
48
.
An alternate embodiment (
FIG. 3
cross section plan view) shows a resilient cellular impermeable material
52
such as a polyethylene closed-cell foam without an integral skin. However, resilient cellular impermeable material
52
can be made of any other type of closed-cell material that will prevent evaporation of ink solvents. The internal surface area of tapered tubular cavity
24
is the same amount as in the preferred embodiment.
Eraser well
26
in
FIG. 1
has a horizontal open end or port
54
. Port
54
is rectangular is shape. Eraser well
26
comprises two narrow side walls or short walls
56
A and
56
B that are connected at the opposite narrow ends of port
54
. Eraser well
26
comprises two wide side walls or long walls
58
A and
58
B that are connected at the opposite wide ends of port
54
. The side walls are connected to a rectangular flat bottom or end wall
60
. In
FIG. 11
(vertical plane
19
—
19
of
FIG. 1
) long walls
58
A and
58
B are opposite each other and are vertical and perpendicular to end wall
60
. In
FIG. 12B
(vertical plane
17
—
17
of
FIG. 1
) short walls
56
A and
56
B are opposite each and begin to taper from port
54
inward toward end wall
60
. End wall
60
has a perimeter less than port
54
(without implement inserted). In
FIG. 12A
(
FIG. 12B
with cross section of eraser
78
from vertical plane
21
—
21
of
FIG. 10
added) eraser
78
is shown engaged in eraser well
26
of pen holder
22
.
In
FIGS. 13A and 13B
pen holder
22
can be held in a wall bracket
62
. Wall bracket
62
has a flat bottom or plate
64
. Plate
64
has a through-hole
66
A and
66
B at each end for screw or nail attachment to a planar surface. Plate
64
can be attached to a planar surface using adhesive tape, or suction cups (not shown). Wall bracket
62
comprises two channel walls
68
A and
68
B. Plate
64
is connected to channel walls
68
A and
68
B. Channel walls
68
A and
68
B begin to taper from plate
64
inwards toward each other forming an opening that is slightly narrower than the width of pen holder
22
.
The display in
FIG. 8
(cut away of
FIG. 9
with alternate embodiment in phantom lines) shows a straight taper receptacle
80
. Straight taper receptacle
80
has the same mouth
42
as shown in tapered tubular cavity
24
(FIG.
9
). Mouth
42
is connected to the same throat
44
as shown in tapered tubular cavity
24
. Throat
44
is connected to a straight taper section
82
. Straight taper section
82
is connected to the same end cap
50
shown in tapered tubular cavity
24
. The vertical rise in height of straight taper section
82
is equal to the combined vertical rise in height of primary gripping zone
46
and secondary gripping zone
48
(FIG.
9
). Round tip pen
74
and chisel tip pen
76
are shown inserted into straight taper receptacles
80
. Line segment alpha
70
represents the variance in length between round tip pen
74
and chisel tip pen
76
when implements are inserted into straight taper receptacles
80
.
In
FIG. 9
round tip pen
74
and chisel tip pen
76
are shown inserted into pen holder
22
(
FIG. 2
with implements added). Line segment beta
72
represents the variance between round tip pen
74
and chisel tip pen
76
when the implements are inserted into pen holder
22
.
From the description outlined above, numerous advantages of our pen holder become evident:
(a) The same pen holder will be able to hold many different types of pen models, eliminating the need for manufacturing standards of pen size, length, and slope along the barrel. Thus, consumers can purchase pens based on other factors such as price, color, and style. With the use of a plurality of identical tapered tubular cavities to hold a infinite number of pen models, consumers will be able to use several different pen models concurrently without the need of returning a specific pen model to a exclusive tapered tubular cavity. Thus, writing speed will increase when several different pen models are used in conjunction.
(b) Tapered tubular cavities that grip various pen models away from the tip permit users to exchange pen models of different color into adjacent tapered tubular cavities, without the need to clean the inside of tapered tubular cavities. Thus, cross contamination of inks can easily be avoided.
(c) Tapered tubular cavities that compensate for the effect of different pen widths on protruding pen lengths, allow users to switch pen models of different widths into adjacent tapered tubular cavities without the sacrifice of appearance. Thus, uniform appearance of inserted pens is easily maintained. Also, pens that are uniform in appearance are easier to grasp because users do not have to reach between and below adjacent pens in order to grasp a narrow pen. Additionally, multi-tapered tubular cavities provides better support for pens by decreasing the variance depth at which different pen widths engage tapered tubular cavities. Pens of different widths engage multi-tapered tubular cavities near the center depth. Thus, the effect from different pen widths on the protruding height of pens is minimized.
(d) A single molded part requires no pre-assembly. Pen holders made in this fashion require less time per unit of manufacture. Also, single molded parts significantly reduce probability of defects.
(e) The use of foam to form tapered tubular cavities allows for an increase in tolerance between pen and tapered tubular cavity. Therefore, pens will suspend and seal against tapered tubular cavity even though the taper value of pen does not match taper value of tapered tubular holder, without the sacrifice of loosening or drying out. Pens can have a slope value that is zero, positive, or negative in comparison to tapered tubular cavity. Also, foam allows pen holder to resist breaking.
(f) The use of foam allows tapered tubular cavity to omit the use of a shoulder to seal the pen. Foam allows tapered tubular cavity to grip and suspend pen in any position.
(g) The hand-held capability of pen holder allows for superior ergonomic control for a user to insert and grasp implements. Users can naturally position pen holder so that the implements line up with the grasping hand.
Although pen holders made of rigid materials can be hand-held per se, the use of foam material in our pen holder will provide a pen holder that is light weight and comfortable with a nonslip surface.
(h) Pen holders made of foam material allow users to squeeze pen holder in the hand. This produces a custom fit in user's hand. Also, pen holder can be manipulated to aid in stress relief.
OPERATIONS—FIGS
5
A,
5
B,
6
,
7
,
8
,
9
,
10
,
12
A,
13
A,
13
B,
14
The manner of using pen holder
22
is similar to pen racks of present day use. Specifically, one first removes a cap from a pen and either discards cap or affixes the cap to the end of the pen barrel in normal fashion. As shown in
FIGS. 5A and 5B
(
FIG. 2
with implements added) chisel tip pen
76
is inserted into pen holder
22
with chisel tip
86
pointing toward tapered tubular cavity
24
until chisel tip pen
76
reaches a interference fit with tapered tubular cavity
24
. It is possible for one to insert a pen such as round tip pen
74
into pen holder
22
with pen butt
88
pointing toward tapered tubular cavity
24
with pen cap
90
covering round tip
84
. The interference fit of joint theta
92
of chisel tip pen
76
in
FIG. 7
(reference
7
of
FIG. 5B
) shows a deflection in tapered tubular cavity
24
of primary gripping zone
46
. The interference fit of joint delta
94
of round tip pen
74
in
FIG. 6
(reference
6
of
FIG. 5B
) shows a deflection in tapered tubular cavity
24
of secondary gripping zone
48
. As can be seen, the expansion of primary gripping zone
46
(
FIG. 7
) and secondary gripping zone
48
(
FIG. 6
) is similar in the amount of deflection between both tapered tubular cavities
24
. The uniform deflection pressure upon chisel tip pen
76
(
FIG. 7
) and round tip pen
74
(
FIG. 6
) allows for different pen models of various size and slope along the barrel to be inserted and removed from pen holder
22
with minimum force and consistent performance. The interference fit between the implements and tapered tubular cavities
24
is enough pressure for user to hold pen holder
22
in any position without the implements becoming loose from gravity or centrifugal force. The interference fit between tapered tubular cavities
24
and the implements produces an airtight seal around the implements.
To remove a pen inserted into pen holder
22
one simply grasps the exposed portion of a pen and pulls the pen loose from pen holder
22
as shown in FIG.
14
.
As shown in
FIG. 9
round tip pen
74
and chisel tip pen
76
are inserted into pen holder
22
with both round tip
84
and chisel tip
86
inside tapered tubular cavities
24
. It can be seen that the implements are tangent to tapered tubular cavities
24
with both round tip
84
and chisel tip
86
free and clear from the internal wall of tapered tubular cavity
24
.
In
FIG. 8
line segment alpha
70
is the variance between round tip pen
74
and chisel tip pen
76
when the implements are tangent to straight taper section
82
. Straight taper section
82
grips chisel tip pen
76
just below throat
44
and grips round tip pen
74
just above end cap
50
.
In
FIG. 9
line segment beta
72
is the variance between round tip pen
74
and chisel tip pen
76
when the implements are tangent to tapered tubular cavities
24
. Tapered tubular cavity
24
grips chisel tip pen
76
at primary gripping zone
46
and grips round tip pen
74
at secondary gripping zone
48
.
To store eraser
78
(
FIGS. 10 and 12A
) in pen holder
22
one inserts eraser
78
into port
54
until eraser
78
becomes tangent with end wall
60
. When eraser
78
is inserted into eraser well
26
short walls
56
A and
56
B expand against foam
28
. Short walls
56
A and
56
B become tangent with eraser
78
and apply pressure to eraser
78
. The pressure applied to eraser
78
is enough pressure to hold eraser
78
firmly into eraser well
26
allowing pen holder
22
to be held in any position without eraser
78
becoming disengaged from eraser well
26
by gravity or centrifugal force.
To use eraser
78
one grasp the exposed portion of eraser
78
and pulls eraser
78
from eraser well
26
as shown in FIG.
14
.
To temporarily hold pen holder
22
to a planar surface one can use a wall bracket
62
. Wall bracket
62
in
FIGS. 13A and 13B
is used to hold pen holder
22
against a planar surface. Wall bracket
62
can be mounted to a planar surface by a mechanical fastener such as a screw or nail (not shown). Wall bracket
62
can be attached to a planar surface by using a hook-and-loop or adhesive tape system (not shown). Through-hole
66
A and
66
B located at each end of plate
64
can be used to fasten wall bracket
62
to a planar surface. When wall bracket
62
is fastened against a planar surface, pen holder
22
can be inserted into wall bracket
62
using one hand. Tapered ends
40
A,
40
B,
40
C, and
40
D of pen holder
22
help to guide pen holder
22
into wall bracket
62
. Channel wall
68
A and
68
B holds pen holder
22
at concave sides
36
A and
36
B. Channel walls
68
A and
68
B have slightly steeper taper than pen holder
22
causing an interference fit. The interference fit allows channel walls
68
A and
68
B to hold pen holder
22
tight enough to prevent gravity or centrifugal force from loosing pen holder
22
from wall bracket
62
(with implements inserted). Pen holder
22
can be removed from wall bracket
62
by grasping the exposed portion of pen holder
22
and sliding the holder against channel walls
68
A and
68
B toward the open end of the wall bracket
62
.
It is possible to temporarily fasten pen holder
22
to a planar surface without the use of wall bracket
62
by using a hook-and-loop fastening system (not shown). Also, pen holder
22
can be fastened to a planar surface by using an adhesive tape (not shown).
Pen holder
22
can be held like an artist palette as shown in
FIG. 14. A
writer or artist uses one hand to hold pen holder
22
. The other hand is free to grasp a pen, such as round tip pen
74
. Using pen holder
22
like an artist palette allows a writer or artist to remain in close proximity to pen holder
22
. The close proximity of pen holder
22
to its user allows a writer or artist to ergonomically control the position at which pens are selected. Pen holder
22
can be squeezed in an ergonomic manner to produce a custom fit in a users hand.
Summary, Ramifications, and Scope
Accordingly, the reader will understand that the pen holder of this invention can be used to hold pens easily and conveniently, can display pens in an ascetic manner, and can aid user in successive use of various pens. In addition, the pen holder can contour to a user's hand. Furthermore, the pen holder has the additional features in that:
it permits the use of various size pens without requiring a manufacturer to produce a specific pen model to use in conjunction with pen holder;
it permits the use of different color pens without the need to clean pen holder;
it counteracts the effect of various pen widths on protruding pen lengths inserted therein, providing a uniform appearance;
it allows rapid manufacturing techniques to be employed;
it provides reliability to hold and seal pens of various sizes;
it provides stability of inserted pens without the use of gravity;
it permits fluid movement for writers and artists to ergonomically control the position at which to grip pens from holder; and
it provides a pen holder that can be handled and squeezed to aid in stress relief of user.
Although the description above comprises many specific details, these should not be construed as limiting the scope of the invention but as simply providing illustrated examples of some of the presently preferred embodiments of this invention. For instance, the pen holder can have other shapes, such as trapezoidal, triangular, circular, etc.; the tapered tubular cavities could be more or less than six; tapered tubular cavity could have different degrees of slopes or be of a single tapered slope etc.; the eraser well can have bosses or cams to hold eraser inside the eraser well; and other implements beside pens can be used such as electronic probes, pencils, router bits, drill bits, etc.
Claims
- 1. An article of manufacture for holding various size implements comprising:a resilient cellular material defining a tapered tubular cavity with one portion of said resilient cellular material open to expose said tapered tubular cavity to ambient atmosphere, whereby said various size implements can be inserted into said tapered tubular cavity producing a sealed portion inside said tapered tubular cavity from ambient atmosphere, whereby writers can subsequently insert/release said various size implements into said tapered tubular cavity with similar insert/release pressures applied to said various size implements.
- 2. The article of manufacture of claim 1 wherein said resilient cellular material is impermeable to gases or vapors.
- 3. The article of manufacture of claim 1 wherein said tapered tubular cavity narrows inward from the open portion, whereby center points of implements inserted therein are channeled away from inner wall of said tapered tubular cavity eliminating center point contact with said tapered tubular cavity.
- 4. The article of manufacture of claim 3 further including a vertical parallel section at the open end of said tapered tubular cavity.
- 5. The article of manufacture of claim 3 wherein said tapered tubular cavity comprises two gripping zones.
- 6. The article of manufacture of claim 5 wherein said two gripping zones have slopes that are greater in vertical height than horizontal length in run, whereby implements inserted therein are gripped and held in suspension.
- 7. The article of manufacture of claim 1 further including a rectangular cavity that is defined by said resilient cellular material with one portion open to exposed said rectangular cavity to ambient atmosphere.
- 8. The article of manufacture of claim 7 wherein said rectangular cavity has a substantially shaped said resilient cellular material area for providing a variable interference fit with a conventional eraser.
- 9. The article of manufacture of claim 1 wherein said resilient cellular material is of a substantial shape that is convenient for a human being to grasp.
- 10. The article of manufacture of claim 9 comprises two concave sides that form a wedge shape, whereby resilient cellular material interlocks with holding device or a human hand.
- 11. The article of manufacture of claim 1 further including a attaching means for attachment of said resistant cellular material to a planar surface so as to be able to support said resilient cellular material with said various size implements inserted therein on said planar surface with said planar surface intersecting space in any direction.
- 12. An article of manufacture for holding various size implements comprising:a resilient cellular material defining a tapered tubular cavity with one portion of said resilient cellular material open to expose said tapered tubular cavity to ambient atmosphere with a resilient skin on the outside surface of said resilient cellular material.
- 13. The article of manufacture of claim 12 wherein said resilient cellular material and said resilient skin cooperate by a connecting means providing a variable interference fit of said tapered tubular cavity with said various size implements inserted therein.
US Referenced Citations (24)