[0001] This invention relates to the field of decorative jewelry items, and more particularly
to a jewelry rope chain exhibiting unusual visual properties. This invention also
relates to the basic structural link element of a jewelry rope chain exhibiting unusual
visual properties. Furthermore, this invention relates to the basic structural link
element of a jewelry rope chain exhibiting attractive, decorative, and ornamental
visual properties.
Brief Description of the Art
[0002] Rope chains are a popular type of jewelry made from linking a number of regular annular
links together in a repetitive manner and usually soldering or welding every two links
together. The result is a chain that is flexible and pleasing to the eye. The annular
links are often formed of gold or other precious metal and are circular in form with
flat sides. The circle is not complete as there must be a gap to permit the linking
of the links with each other.
[0003] Rope chains are a popular type of jewelry made from linking a number of standard
sized annular link elements together in a repetitive manner and usually soldering,
welding, or otherwise bonding every two link elements together. The result is a chain
that is flexible and pleasing to the eye. The annular link elements are typically
formed of gold, silver, or other precious metal and may be round in cross section
or may be rectangular in cross section with flat major side surfaces, depending on
the method of manufacture. The overall generally circular configuration of the annular
link elements is not complete as there must be a gap provided to permit interlinking,
i.e. interconnecting, of the link elements with each other. The result is a link element
having a generally C-shaped configuration.
[0004] The generally C-shaped link elements are fastened together in a particular way, such
that tightly interlinking annular link elements give the appearance of a pair of intertwining
helical rope strands.
[0005] Gold is available in at least four colors: white, yellow, rose (pink), and green.
[0006] In a conventional rope chain, the orientation pattern of individual links producing
the rope chain is repeated every several links, for example every four links, and
as such is referred to as a four-link rope chain. In an improvement to the conventional
basic rope chain, it is taught in U.S. Patent Nos. 4,651,517, and 5,301,498 that the
links can be constructed in different and narrower dimensions so that the pattern
is repeated every six links or even every eight links.
[0007] However, in typical prior art construction techniques for producing rope chain jewelry,
each link is of a single solid color, texture, and pattern, e.g., each link may be
stamped from a solid thin sheet of precious metal, such as gold. Those prior art rope
chains that do exhibit variations of colors along their lengths nevertheless are constructed
of individual links each of which is of a single solid color, texture, and/or pattern.
Other jewelry articles exhibit variations of colors along their lengths using interconnected
twisted chain loops, but they are not regarded as rope chains as defined herein.
SUMMARY OF THE INVENTION
[0008] The present invention provides the means and method for assembling links in a manufacturing
process to produce a rope chain piece of jewelry in which each link exhibits a unique
visual property, i.e., surface texture, coloration, attribute, feature, characteristic,
or physical appearance. Such unique visual property traits for the succession of links
results in a more attractive, fanciful, more delicate and interesting fashion jewelry
item.
[0009] In another aspect of the invention, rather than having each link side surface of
a uniform visual property, one of the side surfaces, or both such side surfaces, may
exhibit perceptively different visual properties in accordance with a predetermined
pattern arrangement on each side surface. The two side surfaces so configured may
be identical on both first and second side surfaces, or they may be different one
from the other. For example, a portion of each first side surface may be of a first
color, and another portion may be of a second color. Similarly, a portion of each
second side surface may be of a first color, and another portion may be of a second
color, and the design of the arrangement of different colored portions may be different
on the first and second side surfaces.
[0010] It is to be understood, however, that all combinations of: the number of interconnected
links in the repeated pattern along the rope chain; solid or portioned coloration
and/or texturing; different designs of the portioned regions of each side surface
of the links; and different physical shape and/or visual properties as identified
in this description may be employed in the manufacture of jewelry rope chains and
are contemplated as variations of the preferred embodiment specifically shown and
described.
[0011] In addition to exhibiting unique visual properties, employing the concepts of the
present invention can produce lengths of rope chains in which one of the apparent
strands of "rope" has a different visual appearance than the intertwining "rope" strand.
[0012] Additionally, in the process of altering the physical shape of the individual link
elements, simultaneously with the enhancement of the visual effect due to the shape
altering techniques, small amounts of the precious metal making up the link elements
are removed without reducing the effective dimensional characteristics of the elements
and, therefore, without diminishing the structural integrity of the finished rope
chain product. Moreover, although not intended to be limiting, most of the variations
of the present invention maintain a rectangular cross section for all or portions
of the link elements.
[0013] In accordance with one aspect of the invention, there is provided, in a length of
jewelry rope chain of the type comprising a series of tightly interfitting gapped
link elements and having the appearance of intertwining helical strands, gapped link
elements each having a first major surface, an opposite second major surface, an interior
edge, and an exterior edge, the improvement wherein: link width is defined as a distance,
measured along either of the major surfaces, between a pair of parallel lines perpendicular
to the major surfaces and tangent to, respectively, the interior and exterior edges;
and at least some of the link elements in the length of rope chain have an irregular
link width.
[0014] In another aspect of the invention, both interior and exterior edges may be irregular
or patterned, the exterior edge preferably patterned for an attractive visual effect
and to reduce the amount of precious metal, and the interior edge irregular solely
to reduce the amount of precious metal needed to form the link element. In yet another
aspect of the invention, one of the major surfaces, or both such major surfaces, may
exhibit perceptively different physical shapes in accordance with a predetermined
engraved, etched, diamond cut or other formed pattern arrangement on each major surface.
For example, small portions of each upper major surface may be cut away in a desired
pattern, and other portions may be cut away in a second desired pattern. Similarly,
small portions of each lower major surface may be cut away in a third desired pattern,
and other portions may be cut away in a fourth desired pattern. The designs and arrangement
of different patterns may be the same or different on the upper and lower major surfaces.
[0015] Instead of, or in addition to, differently shaped major surfaces, the two major surfaces
may exhibit differently textured portions. Also, either major surface may be of a
uniform shape and/or texture, while the other major surface is portioned as described.
[0016] Thus, the interconnecting links may have differently colored, patterned, and/or textured
portions, and may have different irregular or patterned shapes or shaped portions.
[0017] From the viewpoint of a finished length of rope chain, the invention provides an
improvement over the prior art, wherein: each link element in the length of rope chain
comprises a link portion exhibiting a first visual property, and another link portion
exhibiting a second, different, visual property; whereby, when viewed from one side
of the length of rope chain, the appearance of one of the helical rope strands is
different than the appearance of the other, adjacent, helical rope strand along the
length of rope chain.
[0018] As a result of the various combinations possible in the manufacture of jewelry rope
chains in accordance with the present invention, a virtually limitless number of different
design possibilities exist, and preferred ones of such possibilities are shown and
described herein. It is to be understood, however, that all combinations of: the number
of interconnected link elements in the repeated pattern along the rope chain; solid
or portioned coloration and/or texturing; different designs of the portioned regions
of each major surface of the link elements; and different physical shape and/or visual
properties as identified in this description may be employed in the manufacture of
jewelry rope chains and are contemplated variations of the preferred embodiments specifically
shown and described.
[0019] Coloration is only one type of "visual property", and may vary according to the type
or formulation of the material or materials from which a link element is made. Reflectivity,
surface texture, pattern feature or characteristic, in addition to shape, are among
other visual properties of a link that can influence the appearance of a finished
rope chain.
[0020] In accordance with one aspect of the present invention, the annular, or generally
C-shaped, link elements may be formed by a stamping process whereby the desired visual
effects on the link elements are preliminarily provided on the sheet of material from
which the link elements are later stamped. Alternatively, especially when the visual
property is surface texture or shape, the desired visual effects on the link elements
may be created during or after the stamping process.
[0021] In accordance with another aspect of the invention, the annular, or generally C-shaped,
link elements may be manufactured by bending a thin elongated wire of prescribed dimensions
into the desired C-shape. The wire may undergo a preliminary surface texturing process,
such as serrating, prior to being cut and formed into a link element by the machine,
or the machine can form the link element and a subsequent surface texturing and/or
coloration process may be employed.
[0022] Importantly, as will be described in detail hereinafter, in the stamping process,
in addition to die-cutting the outline for the overall generally C-shaped configured
link element from the sheet of material provided, the die tools or devices may be
fabricated to impress, on one or more of the major or side edge surfaces of the link
element being die-cut, a surface texture or shape. That is, any surface or surface
portion of the stamped link element may exhibit a desired surface texture or shape
produced by an impression on, in, or to that surface by the tooling or device employed
by the stamping process, effectively imprinting a desired shape, form, or finish.
[0023] In accordance with one aspect of the invention, there is provided a sheet of material
having a plurality of regions, adjacent ones of which exhibit different visual properties;
and a link element is stamped from the sheet, the link element so produced comprising
segments of at least two of the plurality of regions. In another aspect of the invention,
there is provided a jewelry rope chain link element departing from the shape and configuration
of a standard link element by the provision of voids therein formed by the stamping
device.
[0024] In yet another aspect of the invention, there is provided a jewelry rope chain link
element departing from the annular shape and configuration of a standard link element.
[0025] In yet another aspect of the invention, there is provided a method of manufacturing
a link element, comprising: providing a sheet of material having a plurality of regions,
adjacent ones of which exhibit different visual properties; stamping an elongated
strip of the material; and forming the strip into a rope chain link element comprising
portions of the sheet of material that exhibit at least two of the visual properties.
[0026] A jewelry rope chain link element constructed in accordance with the invention preferably,
but not necessarily, may have the shape and configuration of a standard annular link
element with at least a portion removed and has a maximum link width equal to that
of a similar standard annular link element without any portion removed.
[0027] When stamped from a sheet of material comprised of a number of edge-joined flat strips
or regions, one helical rope strand may be a helical cylindrical tube displaying a
particular color pattern and intertwined with the adjacent helical rope strand which
may display the same or a different color pattern.
[0028] It is to be understood that all combinations of: the number of interconnected link
elements in the repeated pattern along the rope chain; solid or portioned coloration
and/or texturing; different designs of the portioned regions of each major surface
and/or side peripheral edges of the link elements; and different physical shape and/or
visual properties as identified in this description may be employed in the manufacture
of jewelry rope chains and are contemplated variations of the preferred embodiments
specifically shown and described.
[0029] In another aspect of the invention, a manufacturing process may be employed to produce
a length of jewelry rope chain in which each link element, or a group of link elements,
may exhibit a unique visual property, i.e., surface texture, coloration, attribute,
shape, configuration, or physical appearance prior to assembly, and subsequently be
altered to enhance the beauty of the jewelry article by further coloration or texturing
processes.
[0030] It will be understood that in all of the examples of the accompanying figures and
the related text, where different colors are shown and described, texture or patterns
can be implied, and the terms "texture" or "pattern" could be substituted for "color".
To avoid unnecessary duplication, however, "color" will be used as exemplary of other
visual properties including surface texture and patterns.
[0031] Some or all of the link elements making up the length of rope chain may be smoothly
circular (e.g., annular), circular with peripheral undulations or crenels, circular
with peripheral gear-like teeth, and/or may be star shaped, baguette shaped, square
shaped, rectangular shaped, oval shaped, diamond shaped, heart shaped, etc. Similarly,
different portions of each link element may have such different physical shapes.
BRIEF DESCRIPTION OF THE DRAWING
[0032] Further objects and advantages and a better understanding of the present invention
may be had by reference to the following detailed description taken in conjunction
with the accompanying drawings in which surface lining indicates color or texture.
FIGURE 1 is a plan view of an annular link element which is the basic building element
for the construction of jewelry rope chains as known in the prior art;
FIGURE 2 is a cross sectional view of a solid core annular link element taken along
the lines 2-2 in Figure 1, also known in the prior art;
FIGURE 3 is a side elevational view showing a section of a prior art rope chain during
the manufacturing process, before removing a forming wire used to maintain proper
orientation of the series of links;
FIGURE 6 is a side elevational view of an annular link used in the manufacture of
one embodiment of a rope chain in accordance with the present invention;
FIGURE 7 is a plan view of an example of an annular link showing a pattern of regions
on the surface of the link exhibiting different visual properties;
FIGURE 8 is a plan view of another second example of an annular link showing a pattern
of regions on the surface of the link exhibiting different visual properties;
FIGURE 9 is a plan view of another example of an annular link showing a pattern of
regions on the surface of the link exhibiting different visual properties;
FIGURE 10 is a plan view of another example of an annular link showing a pattern of
regions on the surface of the link exhibiting different visual properties;
FIGURE 11 is a plan view of another example of an annular link showing a pattern of
regions on the surface of the link exhibiting different visual properties;
FIGURE 12 is a schematic representation of a rope chain segment employing annular
links of the type shown in Figure 6;
FIGURE 13 is another embodiment of a rope chain segment employing annular links of
the type shown in Figure 7;
FIGURE 14 is a view similar to that of Figure 13, with a number of annular links inserted
in the series of links in reverse direction;
FIGURE 15 is an elevational view of section of rope chain manufactured using the style
of annular link shown in Figure 7;
FIGURE 16 is a left side elevational view of the segment of rope chain shown in Figure
15;
FIGURE 17 is a right elevational view of the segment of rope chain shown in Figure
15;
FIGURE 18 is a plan view of another example of an annular link showing a pattern of
regions on the surface of the link exhibiting four different visual color properties;
FIGURE 19 is a plan view of another example of an annular link showing a pattern of
regions on the surface of the link exhibiting four different visual color properties;
FIGURE 20 is a plan view of another example of an annular link showing a pattern of
four regions on the surface of the link exhibiting two different visual color properties;
FIGURE 21 is a perspective view of a gapped link having a virtually flat, but non-planar
upper and lower major surfaces;
FIGURE 22 is a plan view of another example of a rope chain gapped link which has
a baguette shape;
FIGURE 24 is a plan view of another example of a rope chain gapped link which has
an oval shape;
FIGURE 26 is a plan view of another example of a rope chain gapped link which is heart
shaped;
FIGURE 2CX is a cross sectional view of a link element showing a generally rectangular
shape and sides of an indeterminate shape;
FIGURE 2DX is a view similar to that of Figure 2CX, except that the cross section
is generally circular;
Figure 6X depicts a link element in which one half is of one color and of one shape,
and the other half is of another color and of another shape;
FIGURE 7X is a plan view of a link element having a smooth interior edge and a full
undulated exterior edge;
FIGURE 8X is a plan view of a link element having a crenelated interior edge and an
undulated exterior edge;
FIGURE 9X is a plan view of a link element having a smooth exterior edge and a crenelated
interior edge;
FIGURE 10X is a plan view of a link element having smooth exterior and interior edges,
and a patterned area along a central major surface;
FIGURE 11X is a plan view of a link element having smooth exterior and interior edges
with a patterned area along a major surface thereof;
FIGURE 12X is a plan view of a link element having smooth exterior and interior edges,
and with a textured patterned groove along a central major surface;
FIGURE 13X is a plan view of a link element having smooth exterior and interior edges
with textured depressions in a major surface thereof adjacent the exterior and interior
edges;
FIGURE 14X is a plan view of a segmented link element, one half having a narrow annular
width and the other half gradually increasing to a wider width at its middle;
FIGURE 15X is a plan view of a segmented link element, one half having a narrower
than normal annular width, and the other half having a non-linear relatively wider
annular width;
FIGURE 16X is a plan view of a segmented link element, one half having a narrow annular
width, and the other half having a relatively wider annular width with an opening
therein;
FIGURE 17X is a plan view of a segmented link element, one half having a narrow annular
width, and the other half having a relatively wider annular width with an opening
therein and a portion with a different material or differently colored material;
FIGURE 18X is a plan view of a segmented link element, one half having a narrower
annular width, and the other half having a relatively wider annular width largely
open with tendril-like filigree filaments bridging across the opening;
FIGURE 19X is a plan view of a segmented link element, one half having a narrower
annular width, and the other half having a relatively wider annular width with a repeating
symbol therein or thereon;
FIGURE 20X is a plan view of a link element with one half having an undulated exterior
edge and no interior crenels;
FIGURE 21X is a plan view of a link element with only one side having a crenelated
interior edge, and with the other half having smooth interior and exterior edges;
FIGURE 22X is a plan view of a link element with a double bumped projection on the
exterior edge thereof;
FIGURE 23X is a plan view of a link element similar to that shown in Figure 22X, but
with an opening in the projection;
FIGURE 24X shows a baguette shaped link element configuration version of the link
element of Figure 11X;
FIGURE 25X shows a square shaped link element configuration;
FIGURE 26X shows an oval shaped link element configuration version of the link element
of Figure 10X;
FIGURE 27X shows a diamond shaped link element configuration;
FIGURE 27AX shows a heart shaped link element configuration;
FIGURE 28X shows a link element in which an arcuate concave cut is made in each side;
FIGURE 28AX is a partial plan view of a link element variation of the link element
shown in Figure 28X;
FIGURE 29X shows a link element having a smooth interior edge and a crenelated exterior
edge;
FIGURE 30X shows a link element similar to that of Figure 28X, but with flat, rather
than concave, side cutouts;
FIGURE 31X shows a link element having smooth exterior and interior edges, the annular
width of which is less than standard;
FIGURES 32X and 33X are plan and side elevational views, respectively, of a link element
which has notches or depressions spaced around the periphery;
FIGURE 34X shows a link element having a side of a first material and an opening therein,
and a side of narrow annular width with undulations and of a second material;
FIGURE 35X shows a link element of having a first side made of a first material with
openings therein separated by a solid annular segment of a second material, and a
second side of a third material and of a narrowed annular width;
FIGURE 36X shows a link element having a side of a first material and with a plurality
of spaced differently shaped openings, the other side made of a second material and
having a narrower-than-standard annular width;
FIGURE 37X shows a link element having a side of a first material and with a flattened
edge, the other side made of a second material and having a standard annular width;
FIGURE 38X is a partial side elevational view of a link element in which one or both
of the textured major surfaces are serrated, or knurled;
FIGURE 39X is a partial side elevational view of a link element in which one or both
of the textured major surfaces have connected angled plate-like segments producing
a saw-toothed profile;
FIGURE 40X is a partial side elevational view of a link element in which one or both
of the textured major surfaces have V-shaped grooves;
FIGURE 41X is a partial side elevational view of a link element in which the exterior
edge is serrated, scored, or knurled, and the major surfaces are planar;
FIGURE 42X is a partial side elevational view of a link element in which both major
surfaces and the exterior edge are serrated, or knurled;
FIGURE 43X is a plan view of a link element having smooth exterior and interior edges,
and with a serrated, scored, or knurled, major surface;
FIGURE 44X is a plan view of a link element having a smooth interior edge, a serrated,
scored, or knurled, exterior edge, and a serrated, scored, or knurled, major surface;
FIGURE 45X is a partial plan view of a link element having portions of its major surface
smooth and portions serrated, scored, or knurled;
FIGURE 46X is a length of rope chain in which each link element comprises differently
sized segments;
FIGURE 47X is a length of rope chain in which each link element comprises differently
shaped segments;
Figures 48AX, 48BX, 48CX, and 48DX show how a number of identical link elements are
interconnected in a special way;
Figures 49AX, 49BX, 49CX, and 49DX also show how a number of identical link elements
are interconnected in another special way;
FIGURE 3Y is a plan view of a sheet of material showing multi-colored edge-joined
flat strips or regions and, in dashed lines, the location and orientation of a link
element to be stamped from such sheet of material;
FIGURE 6Y is a view similar to that of Figure 3Y, but showing a different orientation
of the link element to be stamped from such sheet of material;
FIGURE 7Y is a view similar to that of Figure 3Y, but with different widths of the
colored strips making up the sheet of material and a reversal of the colored strips;
FIGURE 7AY is an example of a link element stamped from a multicolored sheet of material;
FIGURE 10Y is a plan view of a sheet of material having an intermediate textured region
and, in dashed lines, the location and orientation of a link element to be stamped
from such sheet of material;
FIGURE 11Y is a plan view of a sheet of material having multiple textured regions,
thereby exhibiting three different visual properties;
FIGURES 12Y and 12AY are perspective views of the segment of sheet material shown
in Figure 11Y taken along the line 12Y-12Y in Figure 11Y;
FIGURE 13Y is a plan view of a sheet of material having a textured region and lines
representing the texturing perpendicular to the length of the sheet of material;
FIGURE 14Y is a plan view of a sheet of material in which a texturing has taken place,
prior to die-cutting out a link element from the material;
FIGURE 15Y is a cross sectional view of the sheet of material taken along the line
15Y-15Y in Figure 14Y, and showing two possible die-cut patterns for stamping out
a link element;
FIGURE 16Y is a plan view of one configuration for a link element die-cut, or stamped,
from the material shown in Figure 14Y;
FIGURE 17Y is a plan view of another configuration for a link element die-cut, or
stamped, from the material shown in Figure 14Y;
FIGURE 18Y is a perspective view of a laminated sheet of material from which slices
can be cut and eventually formed into a link element;
FIGURE 19Y is a perspective view of a slice from a relatively thick sheet of material
that can be bent, or rolled, to form a link element;
FIGURE 20Y is a perspective view of a slice from a relatively thin sheet of material
that can be bent, or rolled, to form a link element;
FIGURE 21 Y is a plan view of a length of sheet material from which slices can be
taken and formed into a link element;
FIGURE 22Y is a side elevational view of the slice of material shown in Figure 20Y
and taken along the line 22Y-22Y in Figure 21Y;
FIGURE 23Y is a top plan view of the slice of material shown in Figure 22Y;
FIGURE 24Y is a plan view of a length of sheet material from which slices can be taken
and formed into a link element;
FIGURE 25Y is a side elevational view of a slice of material similar to that shown
in Figure 20Y, but taken along the line 25Y-25Y in Figure 24Y;
FIGURE 26Y is a top plan view of a link element shown in Figure 25Y;
FIGURE 27Y is a perspective view of a link element formed from the slice of material
shown in Figures 25Y and 26Y;
FIGURE 28Y is a perspective view similar to that of Figure 19Y, but with deep cut
and textured, elongated, and linear recesses formed in the sheet of material from
which a slice is to be taken;
FIGURE 29Y is a perspective view of a link element made from the slice of material
shown in Figure 28Y;
FIGURE 30Y is an action perspective view showing four time positions of a slice of
material, or a wire, illustrating the bending positions of a straight textured and
shaped slice or wire into the configuration of a link element;
FIGURE 31Y is a view similar to that shown in Figure 36Y, but without showing intermediated
bending positions, and with a different pattern of surface texturing;
FIGURE 32Y shows examples of different surface texturing that may be selected to cover
portions or the entire major or edge surfaces of a link element made in accordance
with the present invention;
FIGURES 33Y is a plan view of a link element of standard annular configuration and
displaying examples of major surface texturing;
FIGURE 34Y is a plan view of a link element in which the exterior edge is serrated;
FIGURES 35Y-39Y are plan views of link elements each of a standard annular size and
configuration and displaying different preferred color and/or texture patterns on
a major surface thereof;
FIGURE 40Y is a plan view of a link element showing a major surface with alternating
and spaced lining adjacent the interior and exterior edges, the lining being in the
form of depressions formed during the stamping process;
FIGURE 41Y is a plan view of a link element showing cutout patterns along the interior
and exterior peripheral edges, formed during the stamping process;
FIGURE 42Y is a plan view of a link element showing a major facial surface with evenly
distributed lining adjacent the exterior edge, formed during the stamping process;
FIGURES 45Y-48Y are a plan views of link elements each having a configuration departing
from the standard annular configuration and formed by stamping;
FIGURES 51Y-59Y are plan views of link elements each having a shaped configuration
departing from the standard annular configuration and formed by stamping;
FIGURE 60Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing link elements of standard, or substandard,
annular widths alternating with link elements having a portion relatively enlarged
in annular width such as that shown in Figure 43Y;
FIGURE 61Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing link elements each having a portion relatively
enlarged in annular width such as that shown in Figure 43Y;
FIGURE 62Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing aligned link elements each having a portion
relatively enlarged in annular width;
FIGURE 63Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing link elements of different dimensions alternating
every six link elements;
FIGURE 64Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing link elements of standard, or substandard,
annular widths alternating with link elements having relatively enlarged annular widths;
FIGURE 65Y is a schematic representation showing the assembly sequence of link elements
forming a length of rope chain, employing pairs of link elements of standard, or substandard,
annular widths alternating with pairs of link elements having relatively enlarged
annular widths;
FIGURE 66Y is a plan view of a sheet of material having multiple colored or textured
regions, and showing, in dashed lines, the location and orientation of link elements
to be stamped from such sheet of material;
FIGURE 67Y is a plan view similar to that of Figure 66Y, but with the orientation
of link elements rotated 180°;
FIGURE 68Y is a plan view of a sheet of material having multiple colored or textured
regions, and showing, in dashed lines, the location and orientation of link elements
to be stamped from such sheet of material;
FIGURE 69Y is a fragment representation of the sheet of material shown in Figure 66Y
or 67Y;
FIGURE 70Y is a is a front elevational view of the outward appearance of a length
of jewelry rope chain showing the color or texture pattern resulting from assembling
link elements including link elements stamped from the sheet of material shown in
Figures 66Y and 67Y;
FIGURE 71Y is a fragment representation of the sheet of material shown in Figure 68Y;
FIGURE 72Y is a is a front elevational view of the outward appearance of a length
of jewelry rope chain showing the color or texture pattern resulting from assembling
link elements stamped from the sheet of material shown in Figure 68Y;
FIGURE 73Y is a plan view of a sheet of material having multiple colored or textured
regions, and from which some of the link elements shown in Figure 74Y are stamped;
FIGURE 74Y is a is a front elevational view of the outward appearance of a length
of jewelry rope chain showing the color or texture pattern resulting from assembling
link elements having offset color/texture patterns on adjacent link elements;
FIGURE 75Y is a plan view of three different link elements, each stamped from a sheet
of material or from different sheets of material, similar to that shown in Figure
73Y;
FIGURE 76Y is a plan view of a sheet of material from which curved slices can be cut
and eventually formed into a link element; and
FIGURE 77Y is a plan view of a sheet of material from which link elements can be stamped,
the link elements being interlinked in layout;
FIGURE 11Z is a plan view of another example of an annular link element, as it would
be stamped from a multicolored sheet of material, showing a pattern of four regions
on the surface of the link element exhibiting two different visual color properties;
FIGURE 12Z is a plan view of another example of an annular link element showing a
pattern of five regions on the surface of the link element exhibiting two different
visual properties;
FIGURE 14Z is a plan view of another example of a link element formed with one side
larger than the other side;
FIGURE 15Z is a plan view of another example of a link element formed with one side
larger than the other side, the relatively abrupt transition between the two sides
located on the smaller link side;
FIGURES 16Z-24Z are front elevational views showing respective examples of lengths
of rope chain, each partitioned to show in the upper part of the figure an untreated
chain portion, and to show in the lower part of the figure colorization of one of
the strands of the rope chain;
FIGURE 25Z is a front elevational view of another length of rope chain showing a colored
helical stripe along the outer periphery of one of the intertwined rope chain strands;
FIGURE 26Z is a front elevational view of another length of rope chain showing a colored
helical stripe along the outer periphery of both of the intertwined rope chain strands;
FIGURE 27Z is a front elevational view of another length of rope chain showing a colored
helical stripe along the inner side of one channel of the rope chain;
FIGURE 28Z is a front elevational view of another length of rope chain showing a colored
helical stripe along both inner sides of one channel of the rope chain;
FIGURE 29Z is a front elevational view of another length of rope chain showing a colored
helical stripe along both inner sides of both channels of the rope chain;
FIGURE 30Z is a front elevational view of another length of rope chain showing cut
portions on four sides;
FIGURE 31Z is an end view of the length of rope chain shown in Figure 30Z;
FIGURE 32Z is an end view of another embodiment of rope chain showing cut portions
on eight sides;
FIGURE 33Z is an end view of another embodiment of rope chain showing cut portions
of unequal spacing from the axis of the chain;
FIGURE 34Z is a front elevational view of another length of rope chain showing two
different diameters of rope strands and cut portions on four sides;
FIGURE 35Z is an end view of the length of rope chain shown in Figure 34Z;
FIGURE 36Z is an end view of another embodiment of rope chain showing cut portions
on eight sides;
FIGURE 37Z is an end view of another embodiment of rope chain showing cut portions
of unequal spacing from the axis of the chain;
FIGURE 38Z is a front elevational view of another length of rope chain showing helical
cut portions on only the larger of the two rope strands; and
FIGURE 39Z is a front elevational view of another length of rope chain showing alternating
colored chain segments along the length of the rope chain.
DETAILED DESCRIPTION OF THE FIRST EMBODIMENTS
[0033] Figure 1 is a plan view of an annular link used in the construction of jewelry rope
chains as known in the prior art. In general, Figures 1-5 depict a conventional rope
chain arrangement (Figures 3 and 4), a typical annular link (Figures 1 and 2) employed
as a basic building element in the construction of the rope chain, and a number of
loosely interconnected annular links (Figure 5) to illustrate the positional relationship
of adjacent annular links along the rope chain.
[0034] For the purposes of this description, the following definitions are provided.
[0035] "Rope chain" is a series of sets of interlinked, or interconnected, link elements
which has the appearance of a plurality of braided, or helically intertwined, multi-fiber
strands of hemp, flax, or the like.
[0036] A "set" is the number of adjacent interlinked, or interconnected, links making up
a structurally repeated pattern along the chain. In the accompanying drawings and
associated text, a six-link set is used for purposes of ease of visual presentation
and description. The preferred number of links in a set is eight.
[0037] A "group" is a number of adjacent interlinked, or interconnected, links exhibiting
identical visual properties. The number of links in a group may be the same or different
than the number of links in a set. Groups may be uniformly or randomly distributed
along the rope chain.
[0038] A "link", or "link element", is the basic building element, a number of which are
assembled in series to form a rope chain. A link is typically annular in shape with
an open gap having a length slightly greater than the width of the annular link. In
accordance with the invention, a link may have a circular, baguette, oval, diamond,
rectangular, square, heart shaped, or other geometrical shape, and each is provided
with a gap at a selected position along the perimeter thereof. Accordingly, while
the links of a rope chain are not necessarily annular, it is the preferred configuration
for the basic building element of a rope chain, and for that reason an annular link
will be used in most of the examples shown and described herein.
[0039] A "channel" is the path which the eye follows in passing along the rope chain at
the apex of the V-shaped helical groove formed between the apparent intertwined rope
braids. Hence, in the preferred embodiments described herein, the rope chain has the
appearance of a pair of intertwined braids of ropes, and thus there exists two such
helical channels offset from one another by one-half of the pitch of either helix.
[0040] A "visual property", as used herein, is a characteristic of an object which presents
a particular visual image to the eye. Such characteristics include, but are not limited
to, color, texture, pattern, or physical shape. Although shape is also a physical
property of an object, in the art of jewelry making, it is often the physical shapes
which impart beauty and delicateness to a fashion item.
[0041] "Standard" or "Ordinary" refers to the dimensional characteristics of annular link
elements without major surface or edge variation and whose dimensions follow the recommendations
according to the aforementioned U.S. Patent No. 4,651,517, for example, i.e. whose
dimensions result in a tightly fitting series of link elements having the appearance
of intertwining helical strands of rope.
[0042] "Color", as used herein, refers to the quality of the link element or portion thereof
with respect to light reflected by it and visually perceived by the eye as a particular
hue, saturation, and brightness of the reflected light. In most cases, the different
colors exhibited by a link element or portion(s) thereof result from the use of different
materials (white gold as differing from yellow gold as differing from rhodium as differing
from enamel coatings of different hues, etc.
[0043] The "major surface" of a link element refers to the substantially flat or planar
upper and lower facial surfaces of the link element. Such surface, although being
substantially planar, nevertheless may have raised or depressed patterns therein,
or may be notched, gouged, textured, or otherwise physically altered to present a
desired pleasing visual effect to the observer. Additionally, the upper and lower
facial surfaces need not be flat. For example, the link elements may be tubular, or
otherwise circular in cross section, and yet have the uppermost and lowermost surface
portions lying in respective parallel planes.
[0044] The "interior" and "exterior" edges of a link element are, respectively, the inner
and outer peripheral sides which span between the upper and lower major surfaces of
a link element.
[0045] "Link width" is defined as a distance, measured along either of the major surfaces,
between a pair of parallel lines perpendicular to the major surfaces and tangent to,
respectively, the interior and exterior edges.
[0046] "Link thickness" is defined as a distance between and perpendicular to the planes
of the upper and lower major surfaces.
[0047] "Configuration" refers to the overall appearance of a link element. Typical link
elements are annular with a gap in the annulus to permit interlinking with other link
elements. As disclosed herein, link elements can have shapes other than annular. However,
all link elements have an overall C-shaped configuration.
[0048] "Die-cutting" as used herein refers to the process and tooling with which a die,
constructed of hardened metal with sharp edges, is brought into contact with a sheet
of material cutting portions out of the sheet of material according to a predetermined
pattern of the sharp edges of the die.
[0049] "Stamping", can have the same meaning as "die-cutting" when meaning that a pattern
is stamped (cut) out of a sheet of material. However, "stamping" is also defined as
imprinting, striking, pounding, marking, or otherwise providing a distinctive character
to a surface by the pressure of a die pattern against such surface. Thus, "stamping"
can mean cutting of and/or impressing on a sheet of material. In particular, "pressure
stamping" impresses a material under pressure, but does not cut through the material.
[0050] Referring now to Figures 1 and 2, an annular link 1 is shown to have a generally
rectangular cross section (Figure 2) and a gap 3 having sloping edges, the narrowest
width of gap 3 being slightly larger than the thickness of the annular link 1.
[0051] All of the link element embodiments and variations of the present invention can be
solid or hollow in cross section, and may have any geometrical cross sectional configuration.
A non-limiting solid rectangular cross section is chosen as exemplary in the accompanying
drawings for illustrative purposes only.
[0052] Conventional rope chains, such as that shown in Figure 3, are made with a systematic
and repetitive interlinking of basic annular links 1. The annular link 1 must meet
certain dimensional requirements for the interlinking to result in a well-fitting
rope chain. As can be viewed in Figure 3 herein, the intertwined links 1 of a segment
of a conventional rope chain 5 are shown in the form of a six-link variety. In their
assembled form, the series of links 1 produce the appearance of a first braid, or
strand, of rope 7 and a second braid, or strand, of rope 8, the combination of which
results in a double intertwined helical appearance.
[0053] As best seen in Figure 3, the apparent intertwining of a pair of rope braids 7 and
8 results in a V-shaped groove between the braids at any position along the rope chain.
The path along the V-shaped groove is referred to herein as a "channel" indicated
in Figure 3 by the directional arrows 10 and 12. In the prior art of Figure 3, there
is no visual difference between following along the two helical channels 10 and 12,
since the rope chain is comprised of a repetitive series of sets of links 1, and all
links have the same visual property (they are all of the same color, texture, and
shape, for example).
[0054] Figure 3 is a side elevational view showing a section of a prior art rope chain during
the manufacturing process, before removing a forming wire 6 used to maintain proper
orientation of the series of links.
[0055] In Figure 6, the plan view of the annular link 21 has one planar side, or facial,
major surface 23 (hereinafter referred to as a first side surface) of a first color
and the opposite planar side, or facial, major surface 25 (hereinafter referred to
as a second side surface) of a different color. The link 21 may be formed, for example,
by stamping a flat sheet constructed of two laminated layers of different flat materials,
or of two laminated layers of materials of different colors, and/or textures.
[0056] Figure 7 is a plan view of an annular link showing a pattern of regions on a surface
of a link 31, exhibiting different visual properties, such that one half 33 is yellow
gold colored, while the other half 35 is white gold colored. The gapped links may
be stamped from a multicolored flat sheet, striped with a number of alternately colored
gold materials, or alternately striped with different materials such as gold and silver.
Such a striped flat sheet may be stamped to form gapped links in different orientations
relative to the stripe pattern and relative to the gap position, resulting in a variety
of interesting colored patterns in the finished rope chain, yet all such links can
be stamped from the same striped sheet.
[0057] In Figure 8, the annular link 41 has two major curved portions 43, 44 of yellow gold,
while a small section 45 is white gold, the section 45 being defined by separating
lines 46 and 47.
[0058] In Figure 9, the annular link 51 has a major curved portion 55 and a minor curved
portion 53 of a yellow gold color, while a sector 57 of the annular link 51 is white
gold. A rope chain constructed of a series of link elements 51 may have the appearance
of an all yellow gold chain with a white gold or silver colored helical path running
along the outer periphery of one of the rope strands.
[0059] Figure 10 is a plan view of another example of an annular link 61 showing a pattern
of regions on the surface of the link exhibiting different visual properties. This
figure shows yet another variety of coloration in which the annular link 61 is divided
along a diameter defined by separating lines 68, 69 above which portions 63 and 65
are yellow gold, and below which portion 67 is white gold.
[0060] Figure 11 shows another possibility in which annular link 71 has a yellow gold band
75, 76 along a diameter of the link defining separating lines 77-80, above which,
a pair of curved portions 72, 73 are of white gold, and below which an arcuate portion
of the link 71 is also of white gold. A rope chain constructed of a series of link
elements 71 may have the appearance of an all white gold or silver chain with small
yellow gold helical paths running along the outer periphery of each rope strand.
[0061] Figure 12 is a schematic representation of a rope chain segment employing annular
links 21 of the type shown in Figure 6. The white gold side of all links face the
same direction along the length of the rope chain 81, as does the yellow gold side
but in the opposite direction. Accordingly, the channel 10 will have a continuous
length of white gold at, and extending outwardly from, the apex of the V-shaped channel
10, while the channel 12 will display a continuous color of yellow gold.
[0062] The rope chain 81 of Figure 12 thus displays the interesting aspect of a continuous
yellow gold helical channel paralleling a white gold helical channel.
[0063] Figure 13 is another embodiment of a rope chain 91 showing the result of assembling
a series of annular links 31 as shown in Figure 7. Accordingly, following along channel
10 for the entire length of the rope chain 91, the right side of the channel will
be white gold or silver colored and the left side will be yellow gold colored. Similarly,
following along channel 12, the left side will be white gold or silver and the right
side will be yellow gold.
[0064] Thus, in the configuration of Figure 13, although all annular links 31 are identical
and arranged in the same direction along the rope chain 91, nevertheless, the visual
appearance is such that an apparent yellow gold colored rope is intertwined with an
apparent white gold or silver colored rope, lending an interesting alternately colored
appearance along the rope chain 91.
[0065] Figure 14 is a rope chain 101 configured similar to that of Figure 13, but with a
number of annular links 31 inserted in the series of links in reverse direction every
two twists of the strands of the rope chain 101. That is, the yellow gold and white
gold halves 33, 35 are arranged adjacent one another for a series of three sets, and
then the yellow gold and white gold sides 33, 35 are reversed for the next three sets.
With this configuration, another interesting yellow gold/white gold attractive pattern
is produced which has a repetitive pattern along the rope chain 101 as follows (y
meaning yellow gold and w meaning white gold): y,w,y,y,w,y,w,w/y,w,y,y,w,y,w,w/, etc.
[0066] Other attractive yellow gold/white gold patterns are possible when employing the
concepts of the present invention, including, but not limited to: w,w,y,w,w,y or w,w,w,y,w,w,w,y
or w,w,y,y,w,w,y,y, etc. Using other available gold colors, such as rose (r) and green
(g), additional color patterns can be created, such as: w,w,y,r,r,y,g,g,y,r,r,y,w,w.
[0067] It is to be understood that the described specific examples of color patterns in
a repeated set are not to be taken as limiting. An appealing rope chain may be formed
by arranging sets of different color patterns in any combination, i.e. such a rope
chain will have color patterns that differ along the length of the rope chain set-to-set.
For example, a rope chain may have the repetitive set pair y,w,y,y,w,y,w,w and y,y,w,w,y,y,w,w
repeated along the chain producing the structure: y,w,y,y,w,y,w,w/y,y,w,w,y,y,w,w//y,w,y,y,w,y,w,w/y,y,w,w,y,y,w,w//(etc.).
Alternatively, a rope chain may have a non-repetitive set pattern with each set along
the chain having a different color pattern producing, for example, the color scheme:
y,w,y,y,w,y,w,w/y,y,w,w,y,y,w,w/w,r,r,y,g,g,y,w/(etc.,all sets different). Combinations
of a repeated set, repeated set pairs or set triplets or set quads etc., non-repetitive
sets, or random sets of different color patterns are also within the scope of the
present invention.
[0068] If desired, the jewelry designer may choose to give the finished rope chain a soft
lusterless appearance, i.e., instead of rhodium coating to increase reflectivity and
brilliance, the finished rope chain may be mechanically or chemically treated so as
to have a sandblast, matt, or frost like finish.
[0069] Another possibility with the present invention is the ability to assemble virtually
any color, texture, or shape combination along the length of the rope chain not grouped
into patterns correlated with the number of links elements in a set. That is, a color/texture/shape
combination, repeated or not, may extend along any number of links and not be bounded
by the chosen number of links per set. One example of this is a rope chain having
color patterns in groups of thirteen links, while a set for this particular rope chain
may comprise eight links. Moreover, it is within the scope of the present invention
to construct a rope chain with sets made up of different numbers of links, e.g., 4-link,
6-link, and 8-link sets used in the construction of the same rope chain.
[0070] Figures 15-17 show yet another combination of coloring for the rope chain 111. The
annular links 31 are assembled with the colors matching the colors of adjacent links
31 (i.e., all are in the same axial orientation) for a complete set of six along the
chain, and then the links are flipped 180° to be assembled in reverse axial orientation
for the next set, and so on. As a result, rather than the alternately appearing yellow
gold and white gold rope strands shown in Figure 13, the right side of rope chain
111 in Figure 15 is all of a white gold color, while the left side is all of a yellow
gold color.
[0071] From the description of Figure 15 above, it will be apparent that the view from the
left side of Figure 15 will have an all yellow gold color appearance (Figure 16),
while the right side view of Figure 15 will have an all white gold appearance (Figure
17).
[0072] Further variations of color patterns are presented in Figures 18-20. Figures 18-20
illustrate the possibility of manufacturing the annular links with either or both
planar surfaces having different gold colored areas, shown on the link 120 of Figure
18 symbolically, as yellow (y), white (w), rose (r), and green (g) areas. The link
122 of Figure 19 is lined for the gold colors white, yellow, rose, and green for the
respective regions 123-126. Figure 20 shows an annular link 128 having areas 130 and
131 with variations in color, in this example yellow gold areas 130 and white gold
areas 131.
[0073] Figure 21 is a perspective view of a gapped link 132, similar to any one of those
depicted in Figures 1, 6-11, 18, and 19, except that the link 132 is slightly skewed
such that the upper and lower surfaces 133, 134 are slightly helical, such that the
end faces 135, 136 at the gap are not in registration, producing interesting visual
effects, especially as to reflected light, since there will be no planar, i.e., mirror-like
reflections. If desired, only one of the upper and lower surfaces 133, 134 may be
made flat; the other, opposite, side surface may be rounded, concave, etched, notched,
or configured to any desired shape while maintaining a generally annular link configuration.
[0074] Figures 22-26 show alternate configurations for the gapped links. The link 137 of
Figure 22 is baguette shaped, the link 138 of Figure 23 is square shaped, the link
139 of Figure 24 is oval shaped, the link 140 of Figure 25 is diamond shaped, and
the link 141 of Figure 26 is heart shaped. Any combination of annular, baguette, square,
oval, diamond, heart, or other geometric shaped gapped links may be assembled in a
virtually limitless variety of combinations.
DETAILED DESCRIPTION OF THE SECOND EMBODIMENTS
[0075] In Figure 2CX shows that the generally rectangular cross sectioned link element 1CX
does not have straight sides, but rather sides of an indeterminate shape.
[0076] Figure 2DX is a view similar to that of Figure 2BX, except that the generally circular
cross sectioned link element 1DX does not have smooth sides, but rather sides of an
indeterminate shape. The two major surfaces and the interior and exterior edges of
a link element can take on any surface shape or texture.
[0077] In Figure 6X, the plan view of the annular link element 15X has, on one planar major
facial surface thereof, a first portion 16X of a first color and a second portion
17X of a different color. The link element 15X may be formed, for example, by stamping
a flat sheet constructed of two edge-joined layers of different flat materials, or
of two edge-joined layers of materials of different colors and/or textures and/or
coatings (such as by the application of an enamel).
[0078] In this connection, most of the remaining figures are not lined for color. However,
it will be understood that all, or portions, of each of the link elements to be described
hereinafter may be of a color selected from a variety of different colors, and/or
may be made of a material selected from a variety of different materials. For example,
any of the link elements described herein may have the entire surface, or portions
thereof, of yellow gold, white gold, rose (pink) gold, green gold, silver, nickel,
or rhodium, either solid, plated, or laminated; or such surfaces, or portions thereof,
may be enameled.
[0079] In some cases, the gapped link elements may be stamped from a multicolored flat sheet
comprising a number of edge-joined strips of alternately colored gold materials, or
alternately of different matenals such as gold and silver. Such a multicolored flat
sheet may be stamped to form gapped link elements in different orientations relative
to the strip pattern and relative to the gap position, resulting in a variety of interesting
colored patterns in the finished rope chain, yet all such link elements can be stamped
from the same multicolored stripped sheet.
[0080] As previously mentioned, a major object of the invention is to reduce the amount
of material making up the individual link elements to reduce manufacturing costs,
while not detracting from the beauty and effective size (diameter) of the finished
rope chain. Reducing material can be accomplished in many ways: by removing material
from or forming edge depressions in the entire or portions of the exterior edge; by
removing material from or forming edge depressions in the entire or portions of the
interior edge; by removing material from or forming surface depressions in one or
both major link surfaces; by forming openings in or through the major link surfaces;
or otherwise narrowing the width of the entire or portions of the link elements. In
some embodiments of the invention, part or all of a link element may have a link width
larger than standard but with openings provided therein to result in a net reduction
of material making up the link element.
[0081] The specific example shown in Figure 6X depicts a link element 15X in which one half
16X of the link element is of one color and of one shape, and the other half 17X is
of another color and of another shape. In the first half 16X, the interior and exterior
edges 16aX, 16bX are smooth, while for the second half 17X, the interior edge 17aX
is smooth, and the exterior edge 17bX has a repeated pattern of undulations or ripples.
In this sense, the two link element portions, halves 16X and 17X, exhibit different
visual properties, as to both color and shape.
[0082] The link element shown in Figure 6X, and those shown in many others of the accompanying
figures, has the shape and configuration of a solid standard size annular link element
with portions removed (from undulated half 17X), and with other portions intact and
undisturbed from a standard shape and configuration (as with standard size half 16X).
[0083] In accordance with a major feature of the present invention, the inner and/or outer
periphery (i.e. the interior and exterior edges) of a link element is varied in shape,
so that the resulting rope chain can attain distinctive and decorative configurations
and/or result in substantially lower manufacturing costs. In Figure 7X, for example,
the outer periphery 22X of the link element 20X is undulated.
[0084] Figure 8X is a plan view of a link element 25X having a crenelated interior edge
26X and an undulated exterior edge 28X, i.e., link element 25X has the shape and configuration
of a solid standard size annular link element with portions removed from both the
interior edge 26X and the exterior edge 28X. From Figure 3, it will be appreciated
that no part of the interior edges of the individual link elements are visible.
[0085] Figure 9X is a plan view of a link element 30X having a smooth exterior edge 31X
and a crenelated interior edge 32X defined by spaced crenels 33X. The weight and cost
of such a rope chain will be less.
[0086] Figures 10X-13X, 24X, 26X, 32X, 33X, and 38X-45X show link elements that possess
irregular link thicknesses along the extent of the link elements and bear surface
ornamentation on each link element that will cause a rope chain to have a more decorative
design than the conventional rope chain and yet use less precious metal than a standard
link element without such irregular link thickness.
[0087] Figure 10X is a plan view of a link element 35X having smooth exterior and interior
edges 36X, 37X, but with a groove, or raised center region, 40X along a central major
surface of the link element, i.e., link element 35X has the shape and configuration
of a solid standard annular link element having portions of one or both major surfaces
removed. If 40X represents a raised center portion, the raised center region 40X may
be serrated, textured, patterned, or diamond cut. If 40X represents a groove, the
groove 40X may be formed during the stamping procedure, or it may be formed after
stamping by a diamond cutting step or other procedure which removes a desired amount
of precious metal according to a desired pattern, leaving planar border surfaces 38X,39X.
[0088] Figure 11X is a plan view of a link element 45X having smooth exterior and interior
edges 46X, 47X with diamond cut or stamped depressions, or raised regions, 48X,49X
formed in a major surface thereof adjacent the exterior and interior peripheral edges
46X, 47X, leaving the central region 50X of a major surface of the link element 45X
planar. The non-planar border regions 48X, 49X may be raised relative to the planar
center region 50X and formed in a similar manner as the Figure 10X embodiment.
[0089] Figure 12X is a plan view of a link element 55X having smooth exterior and interior
edges 56X, 57X, but with a textured patterned groove, or raised region, 60X along
a central major surface of the link element 55X, leaving planar border surfaces 56X,
57X.
[0090] Figure 13X is a plan view of a link element 65X having smooth exterior and interior
edges 66X, 67X with textured depressions, or raised regions, 68X, 69X formed in a
major surface thereof. Like the Figure 12X embodiment, the non-planar border regions
68X, 69X may be raised relative to the planar center region 70X.
[0091] Figure 14X is a plan view of a link element 75X that is segmented into two parts.
For ease of presentation and illustration herein the terms "half" and "halves" will
be used to mean "part" or "parts", a "part not necessarily being a "half". In link
element 75X, one half 76X has a narrower annular width, and the other half 77X gradually
increasing to a wider annular width at its middle 78X. The narrow half 76X is narrower
than standard link elements to reduce the amount of material used, while the wider
half 77X may be, at its middle 78X, of standard width or greater than standard width.
If the maximum width of the wider half 77X is standard, since the finished rope chain
is "twisted," the effective diameter of the chain is the same as if all links were
of standard width, but with the appearance of a large diameter rope strand braided
with a small diameter rope strand. This is true also of Figures 14X-19X, and 35X-37X.
[0092] If desired, the right side 76X may be of standard link width, making the left side
75X of a larger than standard size.
[0093] Figure 15X is a plan view of a link element 85X, one half 86X having a narrower than
normal annular width, and the other half 87X having a relatively wider non-linear
annular width narrowing down to the width of the narrow half segment 86X at their
junction 89X.
[0094] Figure 16X is a plan view of a link element 95X, the wider segment 97X having a stamped
or formed opening 98X therein to define a framed wider segment portion transitioning
with the narrower width portion 96X at junction 99X.
[0095] Figure 17X is a plan view of a link element 105X, one half or any portion of the
wider segment 107X having an opening 108X stamped or formed therein, and the other,
closed, portion 109X being formed or filled with a different material or differently
colored material.
[0096] Figure 18X is a plan view of a link element 115X in which the wider half 117X is
largely open with tendril-like filigree filaments 119X bridging across the opening
118X. Filaments 119X may be formed during the stamping process or attached after stamping.
Alternatively, the wider half 117X may be solid with an embossed or engraved design,
such as that shown, formed on the major surface thereof. If the wider half 117X is
stamped, the filaments 119X will have a significantly thicker appearance than that
shown.
[0097] Figure 19X is a plan view of a link element 125X having a repeating symbol 129X being
punched, stamped, or otherwise formed, or embossed, or engraved in the major surface
128X of the wider segment 127X.
[0098] Figure 20X is a plan view of a link element 131X similar to that shown in Figure
9X, but with one half 132X of the link element 131X having an undulated exterior edge
133X and no interior crenels.
[0099] Figure 21X is a plan view of a link element 134X similar to that shown in Figure
9X with only one side 136X having a crenelated interior edge 137X, and with the other
half 135X having smooth interior and exterior edges.
[0100] Figure 22X is a plan view of a link element 138X similar to that shown in Figure
1X, but with a double bumped protruding projection 142X on the exterior edge thereof
opposite the position of the gap 141X in the link 138X. The two projecting bumps 143X,
144X define a depression 145X. The link width of the arms of the two halves 139X,
140X is preferably narrower than standard. The purpose of the double bumped projection
142X is to simulate, during the assembly process, a link element of appropriate, i.e.
standard, annular width at depression 145X. This arrangement thus reduces material
by a reduced annular width and by using fewer link elements per unit length of rope
chain, making the chain to appear longer than the standard rope chain.
[0101] The purpose for the two spaced bumps 143X, 144X is to affect the appearance of the
channels between rope strands of a finished rope chain. Due to the spaced bumps 143X,
144X, the rope chain will display more precious metal (e.g., gold) in the channels
between strands of the finished rope chain.
[0102] If the arms 139X,140X are of standard width, fewer link elements are necessary per
unit length of rope chain.
[0103] Figure 23X is a plan view of a link element 127X similar to that shown in Figure
22X, but with an opening 128X in the projection 129X, serving to reduce the amount
of precious metal in the finished rope chain.
[0104] An alternative variation, not shown, the double bump projection 142X of Figures 22X
and 23X may be disposed on the interior edge of a link element, leaving the exterior
edge smooth. The structure of the finished rope chain will be just as tightly interlinked,
but the diameter of the finished rope chain will be equal to the diameter of a rope
chain made with all standard annular link elements. Such a jewelry item will have
all the same visual properties and size dimensions, yet less precious metal is needed,
saving manufacturing costs.
[0105] Figures 24X-27AX show alternate configurations for the gapped link elements relative
to the typical annular configuration. The link element of Figure 24X is baguette shaped,
that of Figure 25X is square shaped, that of Figure 26X is oval shaped, that of Figure
27X is diamond shaped, and that of Figure 27AX is heart shaped. Any combination of
annular, baguette, square, oval, diamond, heart, or other geometric shaped gapped
link elements may be assembled in a virtually limitless variety of combinations to
create interesting rope chain jewelry items.
[0106] The link element 147X of Figure 24X has the same physical characteristics as that
shown in Figure 11X, but has a generally baguette configuration.
[0107] Figure 25X is a plan view of a link element 152X similar to that shown in Figure
9X, but with a generally square configuration and having a smooth exterior edge 153X
and a crenelated interior edge 154X defined by crenels 155X.
[0108] The link element 156X of Figure 26X has the same physical characteristics as that
shown in Figure 10X, but has a generally oval configuration.
[0109] Figure 27X is a plan view of a diamond shaped link element 165X, with one half 167X
of the link element 165X having a smooth exterior edge 168X and the other half 169X
having an undulated exterior edge 170X.
[0110] Figure 27AX is a plan view of a link element 171X with a generally heart shaped configuration
and having a smooth exterior edge 172X and a crenelated interior edge 173X defined
by crenels 174X.
[0111] Figure 28X shows a link element 180X in which an arcuate concave cut 184X, 185X is
made in each side 181X, 182X, respectively. In the complete rope chain constructed
of a series of link elements 180X, a helical groove can be seen on top of each simulated
helical strand (such as strands 7X and 8X in Figure 3X).
[0112] Figure 28AX is a partial plan view of a link element 180AX in which the arcuate concave
cut 185AX is stepped. This creates a helix along one strand, and may be rhodium coated.
Both sides of link element 180AX may be concave and stepped as shown.
[0113] Figure 29X shows a link element 190X having a smooth interior edge 191X and a crenelated
exterior edge 192X. The annular width of each wide portion 193X, 195X is of standard
dimension, while major portions of the exterior edge 192X are removed to produce long
crenels 194X, and a number of interesting looking helical ribs along the length of
the chain.
[0114] Figure 30X shows a link element 200X similar to that of Figure 28X, but with flat,
rather than concave, cutouts 203X, 204X on the sides 201X, 202X. As a result, the
finished rope chain has the appearance of flat helixes alternating with convex helixes
along the chain. This variation gives the effect of a diamond cut being made after
the rope chain is assembled. By employing precut link elements, the time and expense
of a complex diamond cutting process after a rope chain is fully assembled is avoided.
Additionally, the precious metal savings is controlled using precut link elements,
while collecting and reprocessing shavings from a diamond cutting process has obvious
waste and high labor cost disadvantages.
[0115] An improvement in the appeal and beauty of a rope chain made with link elements 201X
in Figure 30X is achieved by constructing the link element to have two separate side
halves 201X and 202X of different colors/materials connected at the dashed line 205X.
For example, in Figure 30X, the left half 201X may be made of white gold, the right
half 202X of yellow gold, and the straight cutout 204X may be rhodium coated.
[0116] Figure 31X shows a link element 210X having smooth exterior and interior edges 211X,
212X, the annular width 213X of which is less than standard. By combining link element
210X with standard link elements, such as that shown in Figure 1X, or with link elements
having an enlarged (equal or greater than standard) rear annular width, such as that
shown in Figures 22X and 23X, a tightly formed rope chain results. Both narrow and
wider links have the same inner diameter measured at the location of the gap 3X (Figure
1X). When placed together, the interior openings in the center of the link elements
210X will line up perfectly. The narrower link 210X will be covered by the standard
link 1X, saving precious metal. For example, links 210X may alternate with links of
any other design or shape such as those shown in the accompanying figures, or sets
of links 210X may be assembled alternately with sets of other such links.
[0117] Figures 32X and 33X show plan and side elevational views of a link element 220X with
notches 224X along the exterior edge 221X. The notches, or depressions 224X are strategically
spaced around the periphery of the link such that they will be hidden from view in
a finally assembled rope chain. The particular pattern of notches may be empirically
determined by assembling standard links and making regions that are visible and thus
not to be removed.
[0118] Figure 34X shows a link element 230X having a side 231X of a first material and an
opening 234X therein, and a side 232X of narrow annular width with undulations 235X
and of a second material.
[0119] The link element 240X of Figure 35X has a first side 241X made of a first material
and having arcuate openings 243X therein separated by a solid annular segment 244X
made of a second material, the side 241X being of standard annular width. The second
side 242X is of a third material and of a narrowed annular width 245X.
[0120] Figure 36X shows a link element 250X having a side 251X of a first material and with
a plurality of spaced differently shaped openings 254X. The other side 252X is made
of a second material and has a narrower-than-standard annular width 255X.
[0121] Figure 37X shows a link element 260X having a side 261X of a first material and of
standard configuration, i.e., as an annular segment. The other side 262X is made of
a second material and has a flat edge 263X. When a number of links 260X are assembled
into a rope chain, one of the helical strands will be standard and of yellow gold,
and the other helical strand will be of white gold and have all of the flat edges
263X of the link elements lying in a helix following the helix formed by the link
half 262X. After a rope chain is formed, the entire right half 262X, or only the flat
edges 263X may be rhodium coated (or coated with other metallic coatings or with enamel).
[0122] Figure 38X is a partial side elevational view of a link element 270X in which one
or both of the textured major surfaces 271X, 272X are serrated, or knurled, thereby
reducing the amount of precious metal used in the manufacture of the link element.
[0123] Figure 39X is a partial side elevational view of a link element 273X in which one
or both of the textured major surfaces 274X,275X have connected angled plate-like
segments producing a saw-toothed profile.
[0124] Figure 40X is a partial side elevational view of a link element 276X of standard
thickness, in which one or both of the textured major surfaces 277X,278X have V-shaped
grooves therein.
[0125] Figures 41X-44X depict, in partial elevational and full plan views, link elements
having one or both major surfaces and/or one or both of the interior and exterior
edges serrated, or knurled.
[0126] For convenience of presentation, the major surfaces and/or interior and exterior
edges shown in Figures 41X-44X are shown as serrated, or knurled. It is to be understood,
however, that these surfaces may have physical surface appearances other than serrated,
scored, or knurled, such as textured, patterned, sandblasted, etched, shaped, polished,
matted, frosted, diamond cut, or otherwise mechanically deformed.
[0127] Figure 45X is a partial plan view of a link element 295X having portions 297X of
its major surface smooth and portions 296X serrated, scored, or knurled. Similarly,
any color, texture, or pattern on a major surface, or on the interior or exterior
edges, of a link element may purposely be limited to only a portion thereof.
[0128] The uniqueness of a rope chain employing the link elements of the present invention
is made possible by the provision of pre-formed, pre-shaped, or otherwise pre-processed
individual link elements. Exclusive finished rope chain attributes made possible with
the present invention cannot be duplicated by applying post-processing steps, whether
a single type link element is used throughout the length of the rope chain, or multiple
types of link elements are assembled in a particular or random order.
[0129] A mix of link elements of any desired order can be used to create a rope chain design
which cannot be duplicated by prior art methods, since any diamond cutting of the
finished chain would be consistent along the entire length of the chain.
[0130] A visually pleasing rope chain can be manufactured by assembling a chain length,
e.g. one inch, of link elements of the Figure 30X type adjacent a length of assembled
link elements of the Figure 37X type. In this variation, one of the helixes along
the length of the chain will be continuous, and the other helix will be intermittent.
[0131] As suggested herein, any visual property, as defined herein, may be combined with
any one or more other visual properties in the manufacture of the various link elements
making up the completed rope chain. Visual properties of any one portion of a link
element, or the rope chain or a helical strand thereof, may include at least one of
the group consisting of color, material, different gold karat weights, texture, shape,
reflectivity, pattern, size, and design.
[0132] Figure 46X is an example of a length of rope chain 5AX constructed using any of the
link elements described herein in which the links are segmented into large and small
width segments. The specific variation shown in Figure 46X uses link element 75X (Figure
14X) or 85X (Figure 15X) where link elements 1DX have a white gold wide side 77X or
87X and a yellow gold narrow side 76X or 86X. Link elements 1EX have a yellow gold
wide side 77X or 87X and a white gold narrow side 76X or 86X. Thus, strand 7AX has
a smaller diameter rope strand appearance, and strand 8AX has a larger diameter rope
strand appearance. The size difference for the two helixes are evident by reference
to the two dashed lines "5X" on either side of the rope chain 5AX illustrated in Figure
46X.
[0133] Figure 47X shows a length of rope chain 5BX constructed with link elements 260X shown
in Figure 37X mixed with similar link elements 260AX, the latter being identical to
link elements 260X except that the yellow and white gold materials are switched. As
a result, rope strands 7BX and 8BX exhibit alternating white and yellow colors, and
rope strand 8BX additionally exhibiting a single helix also exhibiting alternate white
and yellow colors.
[0134] In Figures 48AX-DX, a number of identical link elements are interconnected in a special
way, each link element 301X-304X comprising a standard segment half 301AX-304AX and
serrated segment half 301BX-304BX. Both major surfaces and interior and exterior edges
of segments 301BX-304BX are serrated so as to make the two halves of each link notably
different in visual appearance. When assembled into a length of rope chain, as shown
in Figures 48AX-DX, one of the intertwined helixes has the visual appearance of a
standard rope chain helix, and the other helix exhibits serrations on all of its visible
surfaces.
[0135] Similarly, in Figures 49AX-DX, a number of identical link elements are interconnected
in a special way, each link element 401X-404X comprising an annular yellow gold segment
half 401AX-404AX, and an annular white gold segment half 401BX-404BX with a portion
cut away defining a single planar side 401CX-404CX. When assembled into a length of
rope chain, as shown in Figures 49AX-DX, one of the intertwined helixes has the visual
appearance of a standard yellow gold colored rope chain helix, and the other helix
has the visual appearance of a white gold helix with a helix of angularly changing
planar portions running through the middle of the white gold helix.
[0136] It will be understood that the surface colors, textures, patterns, and/or shapes
of the gapped link elements 147X, 152X, 156X, 165X in Figures 24X-27AX may be as varied
as those features of the annular link elements described herein and shown in Figures
6X-23X and 28X-49X.
DETAILED DESCRIPTION OF THE THIRD EMBODIMENTS
[0137] In describing Figures 3Y-65Y, it should be understood that the link elements so shown
are all manufactured employing a stamping and/or die-cutting operation. In some embodiments,
the link elements are stamped, or die-cut, in their final shape. In other embodiments,
texturing is pre-applied prior to stamping or die-cutting. In yet other embodiments,
the link elements are formed by bending strips of material which themselves were stamped,
or die-cut, from a sheet of material.
[0138] In Figure 3Y, the plan view of a sheet of material 4Y has regions 5Y and 6Y exhibiting
different visual properties, represented in Figure 3Y as different colors. When stamped
from the sheet of material 4Y, the annular link element 7Y, the position and orientation
of which is shown in dashed lines, will have, on at least one planar major facial
surface thereof, a first segment 5AY of a first visual property, e.g. color, and a
second segment 6AY of a second visual property, e.g. color. The link element 7Y may
be formed, for example, by stamping a flat sheet constructed of two edge-joined strips
of different flat materials, or of two edge-joined strips of materials of different
colors and/or textures and/or coatings (such as by the application of an enamel).
[0139] It will be noted in Figure 3Y that the link element 7Y to be stamped from the sheet
of material 4Y has its gap 9Y oriented at approximately a two o'clock position. When
a number of such link elements 7Y are assembled into a rope chain, one of the helixes
will have a predominant white color with a small portion of the helix being of a yellow
color adjacent one of the rope chain channels, while the other helix will be primarily
of a yellow color with a small portion of the helix being of a white color adjacent
one of the rope chain channels.
[0140] In the remaining figures to be described, the relative position of the gap in the
link chain to be produced and the number of strips, width of each strip, and color
of each strip will obviously produce different visual effects, and the description
of Figure 3Y above will serve as a basis for understanding the resulting color/texture/shape
or pattern that will be visible in the intertwining helixes.
[0141] Figure 6Y is also a view similar to that of Figure 3Y, but showing a different orientation
of the link element 37Y to be stamped from the sheet of material 31Y. With the gap
39Y oriented at the twelve o'clock position, the two helixes will both be of a single
color, but one helix will be of white gold and the other will be of yellow gold in
color. The lined colors shown in Figure 6Y, and in all of the accompanying figures,
are intended to be representative of any two, or multiple, colors, and thus the two
strips 33Y and 35Y in Figure 6Y may be both of yellow gold, but with one strip being
of a relatively low gold karat weight and the other of a relatively higher gold karat
weight.
[0142] Figure 7Y shows the sheet of material 41 Y comprised of two differently colored edge-joined
strips 43Y and 45Y having different widths.
[0143] Figure 7AY is an example of a link element 50Y stamped from a multicolored sheet
(not shown) of material, resulting in a major yellow gold portion 52Y, a minor yellow
gold portion 54Y, and a central segment 56Y of white gold on one of the halves of
the link element 50Y. A rope chain constructed from link elements 50Y, if central
segments 56Y are all aligned link-to-link, would have the appearance of a primarily
yellow gold rope chain with the outermost peripheral edge of one of the helical rope
strands displaying a central helical path of white gold.
[0144] By the combination of varying: 1) the visual properties of a sheet on which stamping
is applied; and 2) the angular position of stamping, a myriad of link elements with
different visual properties may be produced that will, in turn, result in a great
number of rope chains of varying visual properties.
[0145] Figure 10Y illustrates that, instead of, or in addition to, color elongated edge-joined
strips, a sheet of material 71Y may have a preformed length of textured surface 74Y
leaving the surface areas 73Y and 75Y on each side of the textured surface 74Y non-textured.
With the gap 79Y at the twelve o'clock position, as shown, a link element 77Y will
present a non-textured outer surface of each of the two helixes, while the inner sides
of the helixes, i.e. on a major facial surface along the channels of the rope chain
(see reference numerals 8AY and 8BY in Figure 2Y) will be textured.
[0146] In Figure 10Y and other figures showing preformed regions of textured surfaces, parallel
lines are typically depicted, suggesting a scored or serrated textured appearance.
It is to be understood that this showing of pre-textured surfaces are examples only,
and that any other known pre-texturing process can be used. Other examples include
forming at least one of the regions of different surface textures employing at least
one process selected from the group consisting of serrating, scoring, knurling, lining,
patterning, pressure stamping, impressing, sandblasting, etching, shaping, polishing,
matting, frosting, and diamond cutting.
[0147] Figure 11Y illustrates the possibility of providing a sheet of material 91Y with
two different regions of surface texturing shown at 92Y and 94Y, leaving the regions
93Y, 95Y, and 96Y non-textured. With the gap 99Y at the three o'clock position, as
shown, each of the two helixes of an assembled rope chain will show a pair of spaced
textured helical stripes equally spaced from the outermost surface of the helixes.
[0148] In Figure 12Y, it will be observed that the two textured surfaces 92Y and 94Y on
the upper side of the sheet of material 91Y have different geometrical properties,
and that similar textured regions (not numbered) can optionally be formed on the lower
surface of the sheet of material 91Y and may have the same or different textured patterns.
[0149] In Figure 13Y, the sheet of material 101Y has two differently textured regions 103Y
and 105Y, the region 103Y being a textured surface, and the region 105Y being either
textured differently or non-textured. With the gap 109Y at the twelve o'clock position,
as shown, a length of rope chain constructed of link elements 107Y would display one
helix with a textured major surface and the other with no texturing or a different
textured major surface.
[0150] Figure 14Y is a plan view of a sheet of material 111Y in which a link element 115Y
or 117Y can be die-cut from the sheet of material 111Y and simultaneously stamped
to display radially directed texture patterns 113AY-113DY as shown. Figure 14Y also
shows that the pattern of the cutting edges in the die-cutting process can produce
an annular shaped link element 115Y or a link element 117Y having features departing
from the standard annular configuration. If desired, a pattern such as that shown
at 114Y may be formed on the sheet of material in a preparatory step, after which
the die-cutting process will cut the link element 115Y or 117Y from the sheet 111Y.
[0151] Figure 16Y illustrates the plan view of a link element 115Y die-cut from a sheet
111Y shown in Figure 14Y for an annular configuration of the link element.
[0152] Figure 17Y illustrates the plan view of a link element 117Y die-cut from a sheet
111Y shown in Figure 14Y for an alternate configuration of the link element.
[0153] Figure 18Y is a perspective view of a laminated sheet of material 151Y comprised
of, for example, a layer of white gold 156Y and a layer of yellow gold 158Y (or both
layers 156Y, 158Y can be of yellow gold of different gold karat weights). In a stamping,
or die-cutting, process, slices 150Y can be cut from the sheet of layered material
151Y and eventually formed into a link element by a bending or rolling process to
be described hereinafter.
[0154] While Figure 18Y depicts one color representing yellow gold and the other color representing
white gold or silver, it may be desirable to laminate together two yellow gold layers
of different gold karat weight, e.g. 7K and 14K. If the link element is formed with
a 14K outer layer, the visual impression of a finished rope chain will be that of
a 14K gold rope chain, giving a purchaser the desired visual quality at lower cost.
[0155] In this connection, Figures 18Y-31Y are all concerned with the forming or shaping
of a strip of material into the configuration of a link element after the strip has
been sliced, e.g. die-cut, from a sheet of material.
[0156] It will be noted that, depending upon the choice of material thicknesses and width
of the slices 150Y and 150AY, the slices 150Y and 150AY can be bent in any of four
different directions.
[0157] Figures 19Y-31Y are specifically directed to the formation of textured surfaces on
the major surfaces and/or on the peripheral edges of the ultimate link element.
[0158] Figure 19Y shows a sheet of material 131Y from which strips 133Y may be sliced, the
strips 133Y having the precise and predetermined dimensions of width, thickness, and
length required of rope chain link elements. In Figure 19Y, the sheet of material
131Y is not shown to be layered, but it may be layered, if desired. Layered or not,
the strips 133Y are stamped and/or die-cut from the sheet of material 131Y with the
die-cutting device having spaced apart zig-zag cutting edge portions to form the vertical
textured surfaces 135Y shown in Figure 19Y. Additionally, as the die-cutting tool
(not shown) slices through the sheet of material 131Y, the tooling simultaneously
impresses a secondary series of textured surfaces 139Y on the top surface of the sheet
of material 131Y. If the strip 133Y shown in Figure 19Y has its ends bent downwardly
about a mandrel, a link element similar to that shown in Figure 27Y, except for the
textured interior edge, would result. Specifically, the link element shown in Figure
27Y results from a slightly different process as will now be described.
[0159] An alternate, and preferred, method is to provide a thinner sheet of material 141Y
such as that shown in Figure 20Y and die-cutting strips 147Y of wider dimension, as
shown. This method has two advantages. First, it is easier to die-cut a strip from
a thin material than it is from a thicker material. Secondly, this permits the stamping/die-cutting
procedure to form zig-zag edge patterns 145Y on both the front and rear edges of the
strip 147Y.
[0160] Figure 21Y is a top plan view of the sheet of material 141Y showing four groups of
lined patterns 149Y representing any desired texturing design formed on a sheet of
material 141Y prior to the slicing of the sheet of material 141Y into strips to be
formed into link elements. The die-cutting tool, in order to produce the strip 147Y
necessarily has three spaced zig-zag patterns on its front edge to form the zig-zag
textured surface 145Y on the strip 147Y so produced. With every other slice line formed
by the die-cutting tool being non zig-zagged, the textured pattern 145Y is formed
on only one peripheral edge of two adjacent strips 147Y simultaneously.
[0161] Figure 22Y is a side elevational view of the slice of material 147Y shown in Figures
20Y and 21Y, better illustrating the positioning of the major surface texturing 149Y
and the peripheral edge texturing 145Y prior to the strip 147Y being formed into a
link element.
[0162] Figure 23Y is a top plan view of the slice of material 147Y shown in Figure 22Y.
[0163] Figure 24Y is a view similar to that of Figure 21Y except that both peripheral edges
of all strips 147AY have the peripheral edge texturing pattern 145Y. Moreover, it
is to be understood that the bottom surface of the sheet of material 141Y in Figure
24Y has the identical texturing pattern 149Y as shown on the top surface of the sheet.
Accordingly, Figure 25Y shows surface texturing 149Y on the top major surface of the
strip 147AY, while the numeral 153Y represents the spaced texturing design patterns
on the bottom surface of the strip 147AY.
[0164] As best seen in Figure 26Y, as described in connection with Figure 24Y, the zig-zag
textured portions 145Y on the peripheral edges of the strip 147AY are on both peripheral
edges.
[0165] Figure 27Y thus is a perspective view of a link element formed from the slice of
material 147AY shown in Figures 25Y and 26Y.
[0166] Figure 28Y is a perspective view similar to that shown in Figure 19Y, but with deep
cut notches forming textured recesses 139AY formed in the sheet of material prior
to slicing the sheet 131Y to form strips 133AY.
[0167] Employing the process of forming a strip 133AY suggested by Figure 28Y, a link element
having the characteristics shown in Figure 29Y results.
[0168] It will be understood that, for ease of drawing and description, the textured patterns
shown in Figures 10Y-17Y and 19Y-29Y are shown as a group of parallel lines for ease
of presentation only, but each of the areas shown to be lined patterns may simply
be regions of simulated sand blasting, matting, serration, knurling, or may be some
design having geometrical figures as its content, or other design patterns, such as
happy faces, heart shapes, flower petals, leaf patterns, and the like.
[0169] Link elements can also be made from wire. Different visual properties can first be
made on the wire prior to the making of the link element. The active perspective view
of Figure 30Y shows a portion of a wire 161Y that can be made into an annular link
element for the purpose of making rope chains with a distinctive and decorative design.
The removal or omission of material from the wire, as shown, has an additional benefit
of savings of precious metal resulting in lowered cost of materials.
[0170] In Figure 30Y, a rather scalloped design of impressions 163Y may be formed on any
portion of a strip of material 161Y which, after forming of the link element, produces
a notched interior edge 163Y. Similarly, the right bottom side of the strip 161Y may
have V-grooves 167Y formed therein so that the formed link will have the V-grooves
167Y on its outer peripheral edge. Using any of the process steps mentioned above,
the sides of the strip 161Y may be provided with a pattern of textured regions 165Y
which then show as textured regions on the major surface or surfaces of the ultimately
produced link element.
[0171] Figure 31Y shows serrations 175Y formed on the major surface of the wire or strip
of material/link element 171Y, and additional serrations 173Y formed on the exterior
peripheral edge. The wire or strip may be formed with a variety of different visual
properties as illustrated in Figure 32Y which schematically shows examples of different
surface texturing 181Y-189Y that may be selected to cover portions or the entire major
or edge surfaces of a link element made in accordance with the present invention.
[0172] Figures 33Y-59Y illustrate examples of link elements that can be formed by stamping
to exhibit different visual properties.
[0173] Figure 33Y shows an annular link element 191Y having the entirety of one of its major
surfaces 193Y textured, simulating a sandblasted surface.
[0174] Figure 34Y shows an annular link element 195Y having a smooth major surface 197Y,
and with the exterior edge 199Y serrated.
[0175] Figure 35Y shows an annular link element 201Y having the entirety of one of its major
surfaces 203Y serrated.
[0176] Figure 36Y is similar to that of Figure 35Y but with the stamper (not shown) rotated
90 degrees with respect to the sheet of material.
[0177] Figure 37Y shows an annular link element 209Y having segments 213Y of the major surface
211Y serrated.
[0178] Figure 38Y shows an annular link element 215Y having segments 219Y of the major surface
217Y serrated.
[0179] Figure 39Y shows an annular link element 221Y having segments 225Y, 227Y of the major
surface 223Y provided with a knurled effect.
[0180] Figure 40Y shows an annular link element 231Y having segments 235Y, 237Y of the major
surface 233Y lined, simulating scoring of the major surface 233Y.
[0181] Figure 41Y shows an annular link element 241Y having segments 245Y, 247Y of the major
surface 243Y notched.
[0182] Figure 42Y shows an annular link element 251Y having the outer extent of the major
surface 253Y provided with lining 255Y simulating scoring of the major surface 253Y.
[0183] Figure 45Y is a plan view of a link element 281Y with a double bumped protruding
projection 285Y on the interior edge thereof opposite the position of the gap in the
link element 281Y. The link width of the arms of the two halves 283Y is preferably
narrower than standard.
[0184] The interior edge of a like adjacent link element 281Y will fit perfectly within
the depression 289Y, and the rope chain will have high structural integrity due to
the width of the link element 281Y between the exterior edge and the depression 289Y
being of standard dimension.
[0185] Figure 46Y shows a stamped annular link element 291Y having a standard width annular
shaped side arm 293Y and a rectangular side arm 295Y. The overall configuration is
D-shaped with a circular interior edge 297Y.
[0186] Figure 47Y shows a stamped annular link element 301Y having a standard width annular
shaped top half 303Y and a less than standard annular width lower half 305Y.
[0187] Figure 48Y shows a stamped annular link element 311Y having a rectangular exterior
edge 313Y and a circular interior edge 315Y.
[0188] Figure 51Y shows a stamped annular link element 341Y having a polygonal exterior
edge 343Y, a square interior edge 347Y, and a fanciful cutout design 345Y on one side
arm.
[0189] Figure 52Y shows a stamped annular link element 351Y having a circular exterior edge
353Y, a square interior edge 355Y, and a cutout region 357Y opposite the location
of the gap in the link element 351Y.
[0190] Figure 53Y shows a stamped annular link element 361Y having a standard width annular
side arm 363Y and a series of symbols cut out on the other side arm 365Y. The symbols
may be of any desired design and need be connected only with enough precious metal
for strength and durability, so as not to obscure the nature of the design of the
symbols.
[0191] Figure 54Y shows a stamped annular link element 371 Y having a generally D-shaped
exterior edge 373Y, a square interior edge 379Y, and an undulated exterior edge 377Y
on one of its side arms.
[0192] Figure 55Y shows a stamped annular link element 381Y having a standard width annular
side arm 383Y and a series of circular symbols cut out on the other side arm 385Y.
[0193] Figure 56Y shows a stamped annular link element 391Y having an average standard annular
width but with the entire extent of the link element 391Y formed with an interconnected
series of heart symbols 393Y.
[0194] Figure 57Y shows a stamped annular link element 401Y having a polygonal exterior
edge 403Y, a square interior edge 407Y, and a fanciful cutout design 405Y on one side
arm.
[0195] Figure 58Y shows a stamped annular link element 411Y having a polygonal exterior
edge 413Y, a square interior edge 417Y, and a fanciful cutout design 415Y on one side
arm.
[0196] Figure 59Y shows a stamped annular link element 421Y having an egg shaped exterior
edge with a circular portion 423Y and an oval portion 425Y, and a square interior
edge 427Y.
[0197] Figure 60Y represents, schematically, an example of assembling a rope chain 431Y
by alternating link elements 261Y (Figure 43Y) having lobbed sides 265Y with conventionally
shaped annular link elements 1Y (Figure 1Y). The lobbed side 265Y of the sequence
of link elements 261Y are placed alternately opposite one another, thereby producing
a length of rope chain having the appearance of a larger overall diameter as indicated
by dashed lines 440Y.
[0198] Figure 61Y is a schematic representation of an arrangement for a rope chain 441Y,
whereby only link elements 261Y with lobbed sides 265Y are used with consecutive link
elements 261Y placed such that the lobbed sides 265Y alternate in opposite orientation,
thereby producing a length of rope chain having the appearance of a larger overall
diameter as indicated by dashed lines 450Y.
[0199] Figure 62Y is a schematic representation of an arrangement for a rope chain 451Y,
whereby only link elements 261Y with lobbed sides 265Y are used but with consecutive
link elements 261Y placed such that the lobbed sides 265Y are in the same general
orientation. Since the finished rope chain 451Y will have a helical character, visually
the rope chain 451Y has an apparent larger diameter as indicated at 452Y.
[0200] Figures 63Y-65Y schematically illustrate how link elements, whether annularly shaped
or otherwise, of different dimensions can be interconnected together to form a rope
chain resulting in a chain of different diameters along the length of the chain. This
type of arrangement, in addition to its resulting distinctive appearance, can also
contribute to savings in material costs, and yet the overall effect renders a visual
effective diameter equal to that of the larger diameter link elements.
[0201] Figure 63Y shows a chain 461Y comprised of link elements 463Y,465Y of different dimensions
every six link elements.
[0202] Figure 64Y shows a chain 471Y in which every other link element 473Y is of the same
dimension and is interspersed with every other link element 475Y of a different dimension.
The overall outline of this chain would give the general appearance of a chain made
only from the link elements of larger dimension.
[0203] Figure 65Y illustrates a chain 481Y in which every two consecutive link elements
483Y and 485Y are of a different diameter.
[0204] Figure 66Y is a plan view of a sheet of material 511Y having multiple colored or
textured regions 512Y-516Y, thereby exhibiting five different visual properties, and,
in dashed lines, the location and orientation of link elements 517Y to be stamped
from such sheet of material 511Y.
[0205] Figure 67Y is a plan view similar to that of Figure 66Y, but with the orientation
of link elements 519Y rotated 180°.
[0206] Figure 68Y is a plan view of a sheet of material 521Y having multiple colored or
textured regions 522Y-526Y, thereby exhibiting five different visual properties, and,
in dashed lines, the location and orientation of link elements 527Y to be stamped
from such sheet of material 521Y.
[0207] Figure 69Y is a fragment representation of the sheet of material 511Y shown in Figure
66Y or 67Y. The figure lining is not intended to represent any particular color or
texture which may be selected from any of the colors or textures described in this
specification. It is to be noted that every other link element of a rope chain is
inverted.
[0208] In such case, if the sheet of material 511Y, or the stamping machine (not shown),
were reversed in orientation, as shown in Figure 67Y, with the link element 519Y possessing
the same coloring/texturing but in reverse order relative to the gap position, then
an assembled rope chain will have color/texture pattern correlation link-to-link,
and will display a plurality of helical color/texture patterns along the rope chain
531Y. This is shown in Figure 70Y in the lower segment "BY". Segment "BY" is comprised
of alternate link elements 517Y and 519Y, with the fragment of Figure 69Y aligned
with link element 520Y as a reference.
[0209] In addition to multiple colored helixes, as described above, it will be noted that
in segment "BY", one side of each channel 535Y has the color/texture of strip 512Y
(Figures 66Y, 67Y), while the other side of each channel 535Y has the color/texture
of strip 516Y. Color/texture 514Y creates a thin helical stripe along the extreme
periphery of each strand the rope chain 531Y.
[0210] Instead of manufacturing two different, oppositely patterned, multicolored link elements
517Y and 519Y, a length of rope chain can be made with link elements alternating with
a standard single color link element, e.g., one of solid yellow gold. When assembled,
the length of rope chain will have the somewhat less "busy" appearance as shown in
segment "AY" of Figure 70Y.
[0211] Figure 71Y is a fragment representation of the sheet of material shown in Figure
68Y. The sheet of material 511Y has five different strips of material 522Y-526Y. The
color/texture pattern on sheet 521Y is symmetrical, with strips 522Y and 526Y having
the same color or texture, and strips 523Y and 525Y having the same color or texture
but different than strips 522Y and 526Y. Strip 524Y is likewise of a different color
or texture than any other strip.
[0212] Because of the symmetry of color/texture strips in sheet 521Y, there is no need to
stamp out differently oriented link elements, since each link element 527Y has the
same color/texture pattern in both orientations of the gap. Thus, an assembled rope
chain 536Y, shown in Figure 72Y, will have color/texture pattern correlation link-to-link,
and will display a plurality of helical color/texture patterns along the rope chain
536Y.
[0213] In addition to multiple colored helixes, as described above, it will be noted that
in Figure 72Y, both sides of each channel 537Y has the color/texture of strips 522Y
and 526Y (Figure 68Y). Color/texture 524Y creates a thin helical stripe along the
extreme periphery of each strand of the rope chain 536Y.
[0214] Figure 73Y is a plan view of a segment of a sheet of material having multiple colored
or textured regions 542Y-546Y similar to that of Figures 66Y, 67Y, and 69Y. However,
only every fifth link element 549Y in the rope chain shown in Figure 74Y is stamped
from sheet 541Y. Second, third, fourth, and fifth sheets (not shown) having the same
color/texture patterns as sheet 541Y but incrementally shifted laterally by one color/texture
strip width are stamped to produce link elements 551Y, 553Y, and two additional ones
(not shown), each unique link element being spaced every fifth link element position.
[0215] The net result of assembling five different sets of link elements just described
is a rope chain 547Y which exhibits a pleasing and surprisingly unique repeated pattern
of laterally striped color/texture segments, as illustrated in Figure 74Y.
[0216] As will be understood by reference to Figure 75Y, rather than manufacturing five
different multi-striped sheets of material from which to stamp out the five differently
striped link elements 549Y, 551Y, 553Y, etc. (only three are shown), a single sheet
of material (not shown) having nine strips in the order 1Y-2Y-3Y-4Y-5Y-1Y-2Y-3Y-4Y,
representing the five different colors/textures, can be manufactured and stamped to
produce all five different link elements from the same sheet to construct rope chain
547Y.
[0217] Figure 76Y is a plan view of a sheet of material 561Y from which curved slices 563Y
can be cut in a partially curved shape and eventually formed into link elements. The
purpose for this methodology is to minimize or completely eliminate cracking and stress
blemishes that may result in curling a straight piece of precious metal into a "C"
shaped link element (cf. Figure 30Y).
[0218] Figure 77Y is a plan view of a sheet of material 571Y from which link elements 573Y
and 575Y can be stamped, the link elements being interlinked in layout and alternating
in their respective gap positions 577Y, 579Y.
[0219] Link elements have been described herein that possess irregular link thicknesses
along the extent of the link elements due to impressions or the formation of surface
texturing. Such link elements that bear surface ornamentation on each link element
will cause a rope chain to have a more decorative design than the conventional rope
chain and yet use less precious metal than a standard link element without such irregular
link thickness.
[0220] It is within the scope of the present invention to provide segmented regions on a
link element having different physical characteristics or properties as described
herein placed in positions along the extent of the link elements other than those
shown in the figures. One example is providing a dividing line horizontally positioned
in any of the accompanying figures. These and other alternatives are considered equivalents
and within the spirit and scope of the present invention.
DETAILED DESCRIPTION OF THE FOURTH EMBODIMENTS
[0221] In the accompanying Figures 11Z-39Z, certain color lining is shown to distinguish
the various embodiments depicted. The different colors represent different materials,
such as gold and silver, as well as different surface treatments. Since the link elements
can be made of virtually any metal, or even non-metals, and since surface treatments
can take on an infinite number of color hues and saturations, it would be impossible
to illustrate all of the possible color combinations contemplated. Accordingly, the
color lining shown in the accompanying Figures 11Z-39Z is intended to be exemplary
only, and only color differences are intended to be conveyed when two different color
linings are shown on the same link element or on the same length of rope chain. The
treatment of text descriptions should be similarly interpreted. For example, when
white gold is mentioned, silver, rhodium, nickel, or gold colors other than yellow
must be understood to be equivalents.
[0222] Most of Figures 11Z-39Z have portions lined or marked to show the colors of yellow
gold, white gold or silver, rose (pink) gold, green gold, or rhodium. However, portions
of a rope chain may be made of a non-gold material, e.g. silver, and any link element
surface, or any rope strand surface of the non-gold material can be colorized after
the rope chain is assembled. For example, such non-gold material can be subjected
to a process for applying a coating of rhodium or other substance to enhance its visual
appearance, or it can be coated with a colored enamel, or treated with a blackener
or an oxidizer or other surface treatment, the blackener and oxidizer treatments giving
the treated material a dark color, e.g., gray to black.
[0223] In all of the Figures 11Z-39Z, the portions of the annular link elements, and therefore
the length of rope chain, lined for gold colors may be the result of providing a gold
wire and bending segments thereof to form link elements, or the result of stamping
the links out of a single or multicolored gold strip, or the result of gold plating
a metallic, or even non-metallic, link element. It is also within the scope of the
present invention to use gapped link elements that have been enameled, rhodium coated,
blackened, oxidized, or otherwise surface treated.
[0224] Figure 11Z shows a multicolored link element 127Z stamped from a multicolored sheet
127AZ exhibiting yellow gold in segments 129Z and in strips 129AZ, and white gold
or silver in segments 128Z and in strip 128AZ. A rope chain constructed using the
link element 127Z may produce a primarily yellow gold colored rope chain having the
outer periphery of one rope strand exhibiting a white gold or silver helix and one
side of one channel of the rope chain also exhibiting white gold or silver.
[0225] Figure 12Z shows an annular link element 132Z having areas 130Z and 131Z with variations
in color, in this example yellow gold areas 130Z and white gold or silver areas 131Z.
A rope chain constructed using links 132Z may exhibit yellow gold channels and white
gold or silver helixes in the peripheries of both rope strands.
[0226] Figure 14Z is a plan view of a link element 161Z formed with one side 165Z larger
than the other side 163Z, the relatively abrupt transition 169Z between the two sides
163Z,165Z located on the larger link side (see also Figure 35X). The dashed line 167Z
indicates where the location of the exterior surface of side 163Z would be if not
reduced in width. The reduction of precious metal in forming the thinner side 163Z
contributes greatly to lowering the cost of a finished rope chain. When assembled
into a length of rope chain, one of the helical rope chain strands will appear to
have a larger diameter, and the other helical rope chain strand will appear to have
a smaller diameter.
[0227] Figure 15Z is a plan view of a link element 171Z similar to that of Figure 14Z, except
that the relatively abrupt transition 178Z between the two sides 173Z,175Z is located
on the smaller link side to insure a tightly assembled chain. The dashed line 177Z
indicates where the location of the exterior surface of side 173Z would be if not
reduced.
[0228] After the assembly of a rope chain is completed, portions of the chain may be selectively
colorized or textured by post assembly processing. For example, a non-gold rope strand
(e.g. silver) of a rope chain may be selectively rhodium coated, or plated, to enhance
the brilliance and luster of the coated part, dramatically increasing the contrast
between a rhodium coated rope strand and a yellow gold rope strand. To the eye, such
increased contrast effect makes the yellow gold strand appear to be even more yellow
in color.
[0229] It is to be understood that, in this description, any suggestion to colorize one
or both rope strands of an assembled length of rope chain includes: colorizing the
entire outer surface of a rope strand; or colorizing a portion of the rope strand,
such as, but not limited to, just the outer periphery of the rope strand, or just
the common channel region between rope strands.
[0230] Any portion of an assembled length of rope chain may be colorized by any one of the
above-mentioned surface treating processes, including rhodium plating, plating with
other metals such as gold of a particular gold karat weight or gold of differing gold
karat weights, treating the surface with a blackener, with an oxidizer, or by coating
the rope strand with enamel. Application of a blackener treatment on silver or gold
will produce a dark, black antique finish, while application of an oxidizer on silver
or gold will produce all shades from French gray to black. With the application of
a low temperature curing, hard enamel, the rope strand surface to be colorized can
be changed to virtually any desired color.
[0231] Gorbet USA® supplies Jax® Blackeners such as No. 45.906, Vigor® Oxidizers such as
No. 45.0329, and Ceramit™ low temperature curing, hard enamels such as No. 45.800.
[0232] All of the above-mentioned plating, blackening, oxidizing, and enameling processing
result in either a visually attractive color coordinated length of rope chain, or
a rope chain in which the different colors exhibited are in much greater contrast
than conventional rope chains without any post assembly surface colorization.
[0233] Figure 16Z is a front elevational view of a length of rope chain 181Z showing, in
the top portion thereof, before colorization, both rope strands 183Z, 185Z being of
any color (the color yellow gold being representative) and, in the bottom portion
thereof, below the dividing line 187Z, after colorization, one of the rope strands
189Z is the color of rhodium, and the other rope strand 190Z is without color change,
i.e., it is the same as at 183Z. The rhodium may be plated onto rope strand 189Z as
shown in Figure 16Z, or onto any rope strand shown in any of the figures yet to be
described and which are intended to exhibit the color of rhodium, using a plating
process employing one of the aforementioned pen platers.
[0234] Figure 17Z is a front elevational view of a length of rope chain 191Z showing, in
the top portion thereof, before colorization, both rope strands 193Z, 195Z being of
any color (the color yellow gold being representative), and, in the bottom portion
thereof, below the dividing line 197Z, after colorization, one of the rope strands
199Z is of a color different than its original color, and the other rope strand 200Z
is without color change, i.e., it is the same as at 193Z.
[0235] Figure 18Z is a front elevational view of a length of rope chain 201Z showing, in
the top portion thereof, before colorization, one rope strand 205Z is of any color
other than yellow gold and the other rope strand 203Z is of the color yellow gold,
and, in the bottom portion thereof, below the dividing line 207Z, after colorization,
the non-yellow gold rope strand 209Z is the color of rhodium, and the other rope strand
210Z is without color change, i.e., it is the same as at 203Z.
[0236] Figure 19Z is a front elevational view of a length of rope chain 211 Z showing, in
the top portion thereof, before colorization, one rope strand 215Z is of any color
other than yellow gold and the other rope strand 213Z is of the color yellow gold,
and, in the bottom portion thereof, below the dividing line 217Z, after colorization,
the non-yellow gold rope strand 219Z is of a color different than its original color,
and the other rope strand 220Z is without color change, i.e., it is the same as at
213Z.
[0237] Figure 20Z is a front elevational view of a length of rope chain 22 1 Z showing,
in the top portion thereof, before colorization, one rope strand 223Z is yellow gold
of a relatively small gold karat weight and the other rope strand 225Z is yellow gold
of a relatively larger gold karat weight, and, in the bottom portion thereof, below
the dividing line 227Z, after colorization, one rope strand 230Z is the color of rhodium,
and the other rope strand 229Z is without color change, i.e., it is the same as at
225Z.
[0238] Figure 21Z is a front elevational view of a length of rope chain 231Z showing, in
the top portion thereof, before colorization, one rope strand 233Z is yellow gold
of a relatively small gold karat weight and the other rope strand 235Z is yellow gold
of a relatively larger gold karat weight, and, in the bottom portion thereof, below
the dividing line 237Z, after colorization, one rope strand 240Z is of a color different
than its original color, and the other rope strand 239Z is without color change, i.e.,
it is the same as at 235Z.
[0239] Figure 22Z is a front elevational view of a length of rope chain 241Z showing, in
the top portion thereof, before colorization, one rope strand 243Z is yellow gold
of a relatively small gold karat weight and the other rope strand 245Z is yellow gold
of a relatively larger gold karat weight, and, in the bottom portion thereof, below
the dividing line 247Z, after colorization, both rope strands 249Z, 250Z are of the
same gold color and, at least on the surface, of the same gold karat weight.
[0240] Figure 23Z is a front elevational view of a length of rope chain 251Z, constructed
of link elements of the type shown in Figures 13Z-15Z, or other similar configurations.
Shown in Figure 23Z, in the top portion thereof, before colorization, is one rope
strand 253Z of any color and of a relatively large diameter. The other rope strand
255Z is of any color and of a relatively small diameter. In the bottom portion thereof,
below the dividing line 257Z, after colorization, the small diameter rope strand 259Z
is the color of rhodium, and the other, larger, rope strand 260Z is without color
change, i.e., it is the same as at 253Z.
[0241] Figure 24Z is a front elevational view of a length of rope chain 261Z showing, in
the top portion thereof, before colorization, one rope strand 263Z is of any color
and of a relatively large diameter and the other rope strand 265Z is of any color
and of a relatively smaller diameter, and, in the bottom portion thereof, below the
dividing line 267Z, after colorization, the large diameter rope strand 270Z is the
color of rhodium, and the other, smaller, rope strand 269Z is without color change,
i.e., it is the same as at 265Z.
[0242] Figures 25Z-33Z depict embodiments of the invention wherein not all of a rope strand
is treated with a change of color. In these figures, an all yellow gold rope chain
is selected as a base for further color processing. It will be understood, however,
that any color or any material suitable for the construction of a rope chain can be
selected for the manufacture of the link elements making up the chain.
[0243] Portions of one or both rope chain strands are treated after assembly using any one
or more of the aforementioned processes of rhodium plating, application of blackeners
or oxidizers, coating with enamels, and gold plating.
[0244] In the specific examples of Figures 25Z-29Z, yellow gold rope strands are selected
as the basis upon which a stripe of rhodium is plated along a helical path along either
or both helical rope strands. Although the figures show a continuous line along either
or both helical strands, the stripes of rhodium may be intermittently applied according
to any desired pattern. Similarly any combination of striping among the figures can
be chosen for unusual effects. Thus, the particular patterns shown in Figures 25Z-29Z
are not intended to be limiting.
[0245] Figure 25Z is a front elevational view of a length of rope chain 271Z showing the
color of yellow gold for both rope strands 273Z, 275Z. A helical stripe 277Z the color
of rhodium is superimposed on one of the rope strands 275Z.
[0246] Figure 26Z is a front elevational view of a length of rope chain 281Z showing the
color of yellow gold for both rope strands 283Z, 285Z. Helical stripes 287Z and 289Z,
respectively, the color of rhodium are superimposed on the rope strands 283Z and 285Z.
[0247] Figure 27Z is a front elevational view of a length of rope chain 291Z showing the
color of yellow gold for both rope strands 293Z, 295Z. A helical stripe 297Z the color
of rhodium is superimposed on one side 299Z of one channel 300Z between rope strands.
[0248] Figure 28Z is a front elevational view of a length of rope chain 301Z showing the
color of yellow gold for both rope strands 303Z, 305Z. A helical stripe 307Z the color
of rhodium is superimposed on both sides 309Z of one channel 310Z between rope strands.
[0249] Figure 29Z is a front elevational view of a length of rope chain 311Z showing the
color of yellow gold for both rope strands 313Z, 315Z. A helical stripe 316Z the color
of rhodium is superimposed on both sides 318Z of one channel 321Z between rope strands,
and a helical stripe 317Z the color of rhodium is superimposed on both sides 319Z
of the other channel 320Z between rope strands.
[0250] Figures 30Z and 31Z are, respectively, a front elevational view and an end view of
another length of rope chain 341Z showing cut portions 343Z, 345Z, 347Z, and 349Z
on four sides, the cut portions defining linear paths along the length of rope chain
341Z extending parallel to the rope chain axis 371Z. In Figures 30Z and 31Z, the plane
of cut portions 343Z, 345Z, 347Z, and 349Z are all equidistant from the axis 371Z,
and widths of the linear paths they follow define flat surfaces on certain link elements
342Z,344Z making up the length of rope chain 341Z.
[0251] The cut portions 343Z, 345Z, 347Z, and 349Z may be formed in any desired way; for
example by laying the length of rope chain 341Z out taught between two guides, or
by stretching the chain taught around a drum, and then diamond cutting one linear
path 343Z for example. The chain is then rotated 90° and a second linear path 345Z
is diamond cut. The process is continued until all four paths are diamond cut. Any
or all paths can be cut intermittently along the length of chain. After diamond cutting
the four paths, the flat edge portions may optionally be colorized to enhance the
beauty of the rope chain.
[0252] Figure 32Z is an end view of another embodiment of rope chain 381Z showing cut portions
on eight sides 383Z-390Z. In Figure 32Z, the path width of the diamond cut, for example,
is smaller than that of Figures 30Z and 31Z, due to the larger number of facets involved.
[0253] The process for forming the flat surfaces 383Z-390Z may be the same as that described
in connection with Figures 30Z and 31Z, except the chain will be rotated about its
axis 45° seven times after the first cut along the chain.
[0254] Figure 33Z is an end view of another embodiment of rope chain 391Z showing cut portions
393Z-400Z on four sides, the cut portions defining linear paths along the length of
rope chain 391Z extending parallel to the rope chain axis 371Z and equidistant from
the axis 392Z. Similarly, the planes of cut portions 394Z-396Z and 398Z-400Z, on opposite
sides of the chain are also equidistant from the axis 371Z. However, the planes of
cut portions 394Z-396Z and 398Z-400Z are closer to the axis 392Z than the cut portions
393Z and 397Z.
[0255] Figures 34Z-37Z are near duplicates of Figures 30Z-33Z, except that the rope chains
of Figures 34Z-37Z are constructed of link elements like those of Figures 13Z-15Z
to produce one rope strand of a relatively large diameter and the other rope strand
of a relatively small diameter.
[0256] Using such a wide/narrow link element configuration, the assembled rope chain can
be subjected to a diamond cutting procedure, and such diamond cuts will be effective
to remove precious metal only on the wider halves of the individual link elements,
in Figures 34Z-37Z, these being link elements 342'Z. Link elements 344'Z are of a
smaller diameter, and the corresponding smaller diameter rope chain strand is unaffected
by the diamond cutting procedure.
[0257] As a result, with four and eight faceted linear diamond cuts along the length of
the rope chain 341'Z, every other rope strand is faceted, and every in-between strand
is not faceted, producing an interesting visual effect. The diamond cutting of one
rope strand and not the other can best be seen in the end views of Figures 35Z-37Z.
Of course, if desired, the diamond cuts can be made deeper, or the smaller diameter
rope strand can be made larger such that both the relatively larger and smaller strands
are diamond cut.
[0258] The diamond cut portions of the rope chains shown in Figures 34Z-37Z can be colorized
employing the methods and materials for gold plating, rhodium plating, blackening,
oxidizing, and enameling. Additionally, in the rope chain examples of Figures 34Z-37Z,
an extra dimension of colorization is made possible. For example, a rope chain can
be produce having a yellow gold large diameter rope strand 342'Z and a less expensive
silver small diameter rope strand 344'Z. After assembly and diamond cutting as shown
in Figures 34Z and 35Z, the large diameter gold strand 342Z may have its diamond cut
edges rhodium plated, and a blackener can be applied to the entire smaller diameter
silver rope strand, giving a three-color highly unique rope chain pattern in which
the yellow gold portion is prominent, with a rhodium streak intermittently showing
on the gold strand, and the smaller strand of a darker color.
[0259] Figure 38Z is yet another example of length of rope chain 401Z that has unique coloration
and patterned features. It is made up link elements to produce a relatively large
diameter strand 403Z alternating with a relatively small diameter strand 405Z. Instead
of diamond cutting a linear path parallel to the axis of the rope chain, the chain
401 Z is subjected to selective diamond cutting along the periphery of the larger
diameter strand 403Z. This produces a helical diamond cut path along the outer periphery
of strand 403Z.
[0260] Additionally, rather than forming a flat, or planar, diamond cut path, any desired
configuration of the cutter can be chosen to produce, for example, concave, convex,
stepped, rounded, or serrated edge surfaces on the link elements comprising the rope
chain.
[0261] Figure 39Z is a front elevational view of a length of rope chain 411Z in which whole
segments of chain are plated around the entire body of the chain segment for a prescribed
length, alternating with segments that are not plated. For example, in the embodiment
shown in Figure 39Z, a rope chain 411Z, initially constructed of solid yellow gold
link elements, has a short non-plated segment 413Z followed by a short rhodium plated
segment 413Z, then another non-plated segment 417Z, and then another rhodium plated
segment 419Z, etc., giving the finished rope chain a "zebra pattern" look.. The plated
and non-plated segments may be of any desired length.
[0262] If desired, the jewelry designer may choose to give any of the described embodiments
of the finished rope chain a soft lusterless appearance, i.e., instead of rhodium
coating to increase reflectivity and brilliance, the finished rope chain may be mechanically
or chemically treated so as to have a sandblast, matt, or frost like finish. Such
surface texturing can be achieved by selectively acid etching one rope strand or portions
thereof, or by electro-etching away surface material in the manner of EDM electro-machining,
or by applying a surface ablating or surface furbishing or surface grinding with a
small rotary tool or diamond cutting tool.
[0263] Obviously, color, shape, texture, and overall configurations other than those shown
in the accompanying figures are possible for the manufacture of the link elements,
and these are merely examples of preferred visual property combinations which can
produce striking results in a finished rope chain construction. For example, an interesting
variation of an undulated shaped edge would be a scalloped edge. Accordingly, it is
to be understood that the shape and design patterns shown in the accompanying figures,
the types of materials used, the coloring, surface texture, surface patterns, arrangement
of groups and sets of link elements along the rope chain, reversed or not, randomly
assembled or in strict accordance with a repeated pattern, and the like are all contemplated
possibilities and are to be considered within the scope of the present invention.
[0264] It is further to be understood that virtually any of the link elements depicted in
the accompanying drawing figures can be manufactured employing a stamping procedure.
[0265] In some contemplated embodiments, a rope chain made with low karat weight yellow
gold for both strands may be subjected to a rhodium plating on one rope strand and
a high karat weight plating on the other strand. Similarly, one strand can be high
gold karat weight plated and the other strand could be subjected to the application
of a blackener or oxidizer, or coated with hard enamel. It is thus to be understood
that any process or construction described herein directed to coloring or texturing
only a single rope strand applies equally well to coloring or texturing both rope
strands. Moreover, multiple colorization treatments of one or both strands of a length
of rope chain are within the scope of the present invention.
[0266] While the colors and precious metals used in the descriptions herein are preferred
to be yellow, white, rose, and green gold, other colors and other metals, or even
non-metals, can be employed in the construction of the disclosed rope chain configurations.
Notable alternate materials, for example, are rhodium (in various colors), silver,
and nickel, either solid or plated.
[0267] Colorization processes may include coloring agents molecularly bonding with the material,
or coloring agents penetrating the surface of the material to be embedded several
microns below the surface, forming an integral part of the material being colored.
The invention is thus not to be considered limited to the specific products and processes
shown and described in this specification.