UNITARY CORD CLIP FOR CLOTHING AND ACCESSORY CORD MANAGEMENT

Abstract

The present invention relates to a clothing string clip configured to guide, retain, and protect a cord used on garments, bags, lanyards, and similar items. The device includes a clip positioned between a first emblem and a second emblem, each having recessed interior regions that capture the clip while allowing controlled flexure. The clip defines a cord entry path, a containment region shaped by a retention ridge and pinch point, and trailing guides that maintain cord alignment. The emblems fasten together using pegs and corresponding peg receivers located on opposite sides of the clip. When engaged, these structures establish a fixed spacing that stabilizes the clip and form a cord-blocking plane that prevents the cord from entering a region behind the clip. Through this cooperative architecture, the device provides reliable cord retention, reduced jamming, and support for decorative or interchangeable emblem designs.

Claims

1. A clothing string clip comprising: a first emblem having an interior surface including a first recessed clip region and at least two peg receivers positioned on opposite sides of the first recessed clip region; a second emblem having an interior surface including a second recessed clip region and at least two pegs positioned on opposite sides of the second recessed clip region; a clip positioned between the first recessed clip region and the second recessed clip region, the clip defining a cord entry path at a first end and a cord containment region between a cord retention ridge and a cord pinch point; wherein the at least two pegs are configured to be received within the at least two peg receivers to secure the clip between the first emblem and the second emblem; wherein the first emblem and the second emblem establish a fixed spacing that retains the clip while permitting the clip to flex to receive a cord; and wherein the at least two pegs and the at least two peg receivers collectively define a cord block plane that prevents the cord from entering a region beyond trailing guides of the clip.

2. The clothing string clip of claim 1, wherein each of the at least two pegs comprises a keyed edge and each the at least two peg receivers comprises a keyed recess that orients the first emblem relative to the second emblem.

3. The clothing string clip of claim 1, wherein the cord entry path comprises opposing angled entry guides between rounded entry edges.

4. The clothing string clip of claim 1, wherein the cord retention ridge is configured to compress the cord between the cord retention ridge and the cord pinch point.

5. The clothing string clip of claim 1, wherein the clip comprises a closed-end connector at an end opposite the cord entry path.

6. A method of using the clothing string clip of claim 1, the method comprising the steps of: sliding the cord into the cord entry path; positioning the cord into the cord containment region between the cord retention ridge and the cord pinch point; retaining the cord by frictional engagement generated by the cord retention ridge and the cord pinch point; and preventing the cord from sliding beyond the trailing guides by contact with the cord block plane formed by the at least two pegs and the at least two peg receivers.

7. A clothing string clip comprising: a clip having a cord entry path defined between opposing rounded entry edges and angled entry guides that converge toward a pair of leading guides; the pair of leading guides extending toward a cord containment region between a cord retention ridge and a cord pinch point; a pair of trailing guides extending from the cord retention ridge and the cord pinch point toward an end of the clip opposite the cord entry path; a first emblem coupled to one side of the clip and a second emblem coupled to an opposite side of the clip using at least two pegs and at least two peg receivers positioned on opposite sides of the clip; and wherein the at least two pegs and the at least two peg receivers establish a cord block plane configured to prevent the cord from passing beyond the trailing guides.

8. The clothing string clip of claim 7, wherein the clip comprises a uniform thickness throughout.

9. The clothing string clip of claim 7, wherein the first emblem and the second emblem include alignment features that position the clip in a fixed orientation.

10. The clothing string clip of claim 7, wherein the cord entry path is configured to flex outward to receive the cord.

11. The clothing string clip of claim 7, wherein the trailing guides flex to generate frictional retention of the cord.

12. A method of using the clothing string clip of claim 7, the method comprising the steps of: advancing a cord through the rounded entry edges and angled entry guides; guiding the cord along the leading guides toward the cord containment region; engaging the cord between the cord retention ridge and the cord pinch point; retaining the cord between the trailing guides; and blocking the cord from entering a region beyond the trailing guides using the cord block plane formed by the at least two pegs and the at least two peg receivers.

13. A clothing string clip comprising: a clip comprising at least two emblem engagement guides configured to seat within recessed clip regions of a first emblem and a second emblem; the first emblem and the second emblem each defining interior surfaces that capture the at least two emblem engagement guides to retain the clip in a fixed spatial position while allowing flexing of the clip to receive a cord; a cord entry path at a first end of the clip, a cord containment region defined between a cord retention ridge and a cord pinch point, and two or more trailing guides extending toward an opposite end of the clip; at least two pegs positioned on one of the emblems and at least two peg receivers positioned on the other emblem, the at least two pegs and the at least two peg receivers positioned on opposite sides of the clip; and wherein the at least two pegs and the at least two peg receivers form a cord block plane that restricts the cord to the cord containment region and prevents the cord from entering a region beyond the trailing guides.

14. The clothing string clip of claim 13, wherein the emblem engagement guides prevent the clip from dislodging from the recessed clip regions during use.

15. The clothing string clip of claim 13, wherein the first emblem and the second emblem comprise shaped outer faces configured to receive decorative artwork.

16. The clothing string clip of claim 13, wherein the clip comprises a closed-end connector that couples at least two emblem engagement guides.

17. The clothing string clip of claim 13, wherein the first emblem and the second emblem are separable to interchange the clip or replace the emblems.

18. The clothing string clip of claim 13, wherein the first emblem and the second emblem comprise removable decorative components selected from molded pieces, printed pieces, inserts, and other suitable decorative elements.

19. The clothing string clip of claim 13, wherein the cord comprises a drawstring of a garment, a strap of a backpack, or a lanyard cord.

20. A method of using the clothing string clip of claim 13, the method comprising the steps of: inserting the cord into the cord entry path; seating the cord within the cord containment region; maintaining the cord within the cord containment region using the cord retention ridge and the cord pinch point; retaining the clip between the first emblem and the second emblem using the emblem engagement guides; and blocking movement of the cord beyond the two or more trailing guides using the cord block plane formed by the at least two pegs and the at least two peg receivers.

Description

BRIEF DESCRIPTION OF THE FIGURES

[0021] The subject matter, which is regarded as the invention, is particularly pointed out and distinctly claimed in the claims at the conclusion of the specification. The foregoing and other objects, features, and advantages of the invention are apparent from the following detailed description taken in conjunction with the accompanying drawings in which:

[0022] FIGS. 1-4 illustrate examples of a user wearing a clothing string clip on a clothing string;

[0023] FIG. 5 illustrates one example of a first perspective assembly view of a clothing cord clip;

[0024] FIG. 6 illustrates one example of a second perspective assembly view of a clothing cord clip;

[0025] FIG. 7 illustrates one example of a third perspective assembly view of a clothing cord clip;

[0026] FIG. 8 illustrates one example of a fourth perspective assembly view of a clothing cord clip;

[0027] FIG. 9 illustrates one example of a top view of an assembled clothing string clip with the hidden internal lines shown;

[0028] FIG. 10 illustrates one example of a bottom view of an assembled clothing string clip with the hidden internal lines shown;

[0029] FIG. 11 illustrates one example of a front view of an assembled clothing string clip with the hidden internal lines shown;

[0030] FIG. 12 illustrates one example of a back view of an assembled clothing string clip with the hidden internal lines shown;

[0031] FIG. 13 illustrates one example of a left side view of an assembled clothing string clip with the hidden internal lines shown;

[0032] FIG. 14 illustrates one example of a right side view of an assembled clothing string clip with the hidden internal lines shown;

[0033] FIG. 15 illustrates one example of a first perspective view of an assembled clothing string clip with the hidden internal lines shown;

[0034] FIG. 16 illustrates one example of a second perspective view of an assembled clothing string clip with the hidden internal lines shown;

[0035] FIG. 17 illustrates one example of a top view of a cord clip;

[0036] FIG. 18 illustrates one example of a bottom view of a cord clip;

[0037] FIG. 19 illustrates one example of a front view of a cord clip;

[0038] FIG. 20 illustrates one example of a back view of a cord clip;

[0039] FIG. 21 illustrates one example of a left side view of a cord clip;

[0040] FIG. 22 illustrates one example of a right side view of a cord clip;

[0041] FIG. 23 illustrates one example of a first perspective view of a cord clip;

[0042] FIG. 24 illustrates one example of a second perspective view of a cord clip;

[0043] FIG. 25 illustrates one example of a third perspective view of a cord clip;

[0044] FIG. 26 illustrates one example of a fourth perspective view of a cord clip;

[0045] FIG. 27 illustrates one example of a top view of a first emblem;

[0046] FIG. 28 illustrates one example of a bottom view of a first emblem;

[0047] FIG. 29 illustrates one example of a front view of a first emblem;

[0048] FIG. 30 illustrates one example of a back view of a first emblem;

[0049] FIG. 31 illustrates one example of a left side view of a first emblem;

[0050] FIG. 32 illustrates one example of a right side view of a first emblem;

[0051] FIG. 33 illustrates one example of a first perspective view of a first emblem;

[0052] FIG. 34 illustrates one example of a second perspective view of a first emblem;

[0053] FIG. 35 illustrates one example of a third perspective view of a first emblem;

[0054] FIG. 36 illustrates one example of a fourth perspective view of a first emblem;

[0055] FIG. 37 illustrates one example of a top view of a second emblem;

[0056] FIG. 38 illustrates one example of a bottom view of a second emblem;

[0057] FIG. 39 illustrates one example of a front view of a second emblem;

[0058] FIG. 40 illustrates one example of a back view of a second emblem;

[0059] FIG. 41 illustrates one example of a left side view of a second emblem;

[0060] FIG. 42 illustrates one example of a right side view of a second emblem;

[0061] FIG. 43 illustrates one example of a first perspective view of a second emblem;

[0062] FIG. 44 illustrates one example of a second perspective view of a second emblem;

[0063] FIG. 45 illustrates one example of a third perspective view of a second emblem; and

[0064] FIG. 46 illustrates one example of a fourth perspective view of a second emblem.

[0065] The detailed description explains the preferred embodiments of the invention, together with advantages and features, by way of example, with reference to the drawings.

DETAILED DESCRIPTION OF THE INVENTION

[0066] The present invention relates to a clothing string clip configured to attach to a wide variety of cords, drawstrings, straps, and other elongated flexible members found on garments, backpacks, lanyards, and additional wearable or carryable items. The invention introduces a structural assembly that can combine a pair of emblems with a specially engineered clip to provide controlled cord retention, decorative display, and a reliable user-operated attachment mechanism. The invention can be used with clothing cords of many shapes and materials, including braided cords, woven cords, elastic cords, flat straps, or molded synthetic cords, and can be manufactured in numerous sizes and styles to suit consumer preferences, branding requirements, or personalized customization.

[0067] In many everyday settings, clothing cords and straps can shift unpredictably, become uneven, retract into casings, or dangle loosely, creating aesthetic, functional, and practical challenges for the wearer. The invention described herein provides a unified solution by introducing a clip that can be flexed open to receive a cord through a cord entry path and that can secure the cord within a cord containment region defined by a cord retention ridge and a cord pinch point. This friction-based retention can prevent the clip from sliding unintentionally along the cord while still allowing a user to intentionally reposition or remove the clip without tools. The clip can be installed onto a cord quickly and reversibly, allowing versatile day-to-day use.

[0068] The invention further provides an emblem-supported architecture in which a first emblem and a second emblem cooperate mechanically to enclose and stabilize the clip. The first emblem can include a first recessed clip region and at least two peg receivers, while the second emblem can include a second recessed clip region and at least two pegs. These pegs and peg receivers can be positioned on opposite sides of the clip to direct assembly alignment and define a cord block plane that prevents the cord from traveling beyond trailing guides of the clip. This structure can allow the emblems to serve not only as outer aesthetic components but also as functional mechanical elements that help define the boundaries of the cord's movement and prevent jamming or difficult removal.

[0069] The interior surfaces of the first emblem and the second emblem can establish a fixed spacing that holds the clip in a stable position while still allowing the clip to flex in response to insertion of a cord into the cord entry path. This cooperative relationship between the emblems and the clip can provide a self-regulating retention system: the clip can flex to admit a cord but can return to a closed configuration to apply gripping pressure once the cord is seated within the cord containment region. The emblem engagement guides on the clip can be received within the recessed clip regions, thereby preventing the clip from dislodging or shifting relative to the emblem pair. Collectively, these components can form a stable assembly that maintains proper alignment during routine movement of the garment or accessory on which the clip is mounted.

[0070] The structural geometry of the clip can include rounded entry edges to guide the cord smoothly into the clip without snagging, and angled entry guides that converge to direct the cord toward the cord containment region. The leading guides can position the cord for controlled engagement, while the trailing guides can flex to enhance frictional retention. The closed-end connector of the clip can reinforce structural integrity and provide a controlled terminal boundary for the cord's movement along the clip. These elements, when combined, can provide a predictable cord retention profile that can accommodate a broad range of cord shapes and diameters.

[0071] In many embodiments, the emblems can serve dual functions: they can provide the structural means to secure the clip and also provide outward-facing decorative or informational surfaces. The outer faces of the emblems can be shaped, textured, printed, molded, or otherwise formed to depict imagery, branding, identifiers, or other visual content. Because the first emblem and the second emblem can be separable, the user can interchange emblems to suit seasonal themes, team logos, fashion styles, personal preferences, or brand messaging without altering the functional clip. This separable design also allows the clip to be replaced independently of the emblems, enabling long-term use and component modularity.

[0072] The invention can be adapted to many contexts where cords or straps are worn or carried. When installed on a hoodie drawstring, for example, the clothing string clip can help maintain cord symmetry and prevent one cord end from retracting through the garment casing. When used on a backpack strap or a compression cord, the clothing string clip can display a decorative emblem while adding a tactile feature that helps maintain position. When applied to a lanyard cord, the clothing string clip can hold the emblem outwardly for display while allowing the lanyard to move naturally with the wearer.

[0073] The invention provides a robust mechanical architecture that solves long-standing challenges with cord management and decorative personalization. The structural cooperation between the clip, the emblems, and the peg-and-receiver alignment system can produce a durable assembly that facilitates user customization, stable cord retention, and efficient operation without tools. The cord block plane formed by the peg-and-receiver pairing can provide a significant operational improvement by preventing the cord from slipping past the intended travel zone of the clip, thereby avoiding scenarios where the cord becomes stuck or difficult to remove. The invention can therefore offer enhanced usability, reliability, and personalization across a wide array of garments and accessories.

[0074] An advantage, in the present invention, is that the structural architecture of the clothing string clip 100 is not limited to the scale or proportions illustrated in the figures. Because the clip 104 is retained between emblems 102A and 102B through recessed clip regions 108A/108B and the spatially cooperating peg-and-receiver system, the fundamental mechanics of the device readily support larger-format embodiments. In such embodiments, the clip 104 is intentionally scaled to increase its width, length, or structural rigidity so that the assembled unit functions not only as a clothing string clip but also as an accessory such as a money clip, badge holder, wallet insert, belt-mounted organizer, multi-purpose decorative clip, or for other purposes. The same underlying featuressuch as the cord containment region 406, the retention ridge 114, the pinch point 116, and the cord block plane 404continue to operate as intended, while the increased emblem footprint allows the emblems to incorporate reinforced ribs, extended engagement guides 124A/124B, or thicker perimeter walls. This scalability provides a substantial advantage because it permits the invention to flexibly transition between fashion accessory, functional clip, and personal-item retainer while retaining its compact form factor and interchangeable emblem capabilities.

[0075] Another advantage, in the present invention, is the ability to incorporate smart-technology features, including near-field communication (NFC) components, directly into the emblem structure without altering the outward appearance of the device. In these embodiments, the interior surface of one or both emblems includes an additional recessed cavity specifically dimensioned to receive an NFC chip, flexible antenna substrate, or other wireless communication element. This recess can be positioned beneath or adjacent to the recessed clip region 108A or 108B but spaced such that the clip 104 does not interfere with the electronic component. Once the NFC element is placed within the recess, the clip 104 is adhered, heat-bonded, ultrasonically welded, or otherwise secured over it, resulting in a compact and integrated smart emblem assembly. Because the emblems are constructed from materials capable of transmitting NFC signalssuch as polymeric resins or elastomeric compositionsthe integrated chip maintains full functionality while remaining protected inside the clip-emblem assembly.

[0076] An additional advantage, in the present invention, is that the keyed peg edges 118 and keyed recess edges 120 ensure that the relative orientation of the emblems remains consistent regardless of which emblem set is attached, thereby maintaining the correct positional alignment of any NFC element housed within the emblem. This allows users to interchange decorative or branded emblemseach potentially linked to a unique digital experiencewithout requiring modification to the clip 104 or the main assembly. As a result, the clothing string clip becomes a platform capable of serving both physical and digital functions. Users may employ it as interactive event swag, loyalty-program identifiers, authentication tokens, social-media triggers, promotional accessories, decorative wearable technology, or for other purposes, all while retaining the mechanical performance of the cord retention system.

[0077] A further advantage, in the present invention, is that these additional embodiments demonstrate the adaptability of the invention to a broad range of functional use cases. The emblem-secured clip architecture supports not only traditional garment drawstrings but also backpack straps, purse cords, lanyard loops, shoelaces, compression straps, and other cord-like structures worn or carried on the user's body. Because the spatial relationships between the recessed clip regions, the emblem engagement guides, and the pegged fastening system remain unchanged across embodiments, the anti-jamming functionality provided by the cord block plane 404 remains operative irrespective of the size or accessory type. This allows the clothing string clip 100 to operate reliably in multiple consumer environments, fashion categories, and user demographics, thereby expanding its utility and commercial value.

[0078] This introduction provides an overview of the primary mechanisms, structural relationships, and functional capabilities of the invention. Subsequent sections will describe the Figures in detail, define specific terms used throughout the specification, organize descriptions around groups of claims and exemplary embodiments, and describe additional features that further support the broad, non-limiting scope of the invention.

Definitions

[0079] In the present invention, the term clothing string clip is intended to mean any device configured to engage, guide, align, retain, or manage a cord, drawstring, strap, lanyard, loop, or similar elongate flexible member associated with garments, wearable items, bags, backpacks, or accessories worn or carried by a user.

[0080] In the present invention, the term cord is intended to mean any elongate flexible member including, but not limited to, drawstrings, cinch cords, hoodie strings, backpack straps, purse straps, lanyards, bungee cords, braided cords, webbing, or other similar structures capable of passing through the clip.

[0081] In the present invention, the term emblem is intended to mean a decorative, structural, or functional outer component that couples to the clip and may contain recessed regions, peg receivers, or other internal alignment features while presenting a decorative or ornamental outward-facing surface.

[0082] In the present invention, the term recessed clip region is intended to mean a depression, cavity, or shaped seating area formed in an emblem's interior surface, configured to receive at least a portion of the clip and/or emblem engagement guides and maintain positional alignment.

[0083] In the present invention, the term peg is intended to mean a protruding structural feature extending from an interior emblem surface, configured to engage a corresponding peg receiver and establish a fixed positional relationship between emblems.

[0084] In the present invention, the term peg receiver is intended to mean a recessed, hollow, or partially enclosed structure designed to receive a peg, align the emblem orientation, and maintain spacing between emblems.

[0085] In the present invention, the terms keyed peg edge and keyed recess edge are intended to mean geometric features, notches, flats, contours, or non-circular profiles that force a specific rotational orientation between the peg and peg receiver to maintain consistent alignment between the emblems and the clip.

[0086] In the present invention, the term cord entry path is intended to mean a defined passage at the leading end of the clip that guides the cord into the containment region through rounded edges, angled guides, or other directing features.

[0087] In the present invention, the term cord containment region is intended to mean the portion of the clip where the cord is selectively retained between a retention ridge and an opposing pinch point to control movement and prevent unintentional disengagement.

[0088] In the present invention, the term cord retention ridge is intended to mean a projecting structural feature configured to apply pressure to the cord against the pinch point to create frictional retention.

[0089] In the present invention, the term cord pinch point is intended to mean an opposing feature within the cord containment region that cooperatively compresses the cord against the retention ridge to prevent unintended sliding.

[0090] In the present invention, the term leading guides is intended to mean paired structural legs that receive and align the cord after entry and direct it toward the containment region.

[0091] In the present invention, the term trailing guides is intended to mean paired guide structures extending from the containment region toward the rear of the clip to maintain cord alignment and stabilize the cord's exit path.

[0092] In the present invention, the term cord block plane is intended to mean an imaginary or functional plane established by the spatial arrangement of the pegs and peg receivers that prevents the cord from being pulled behind the clip or exiting the intended guiding path.

[0093] In the present invention, the term emblem engagement guide is intended to mean a projecting or shaped structural element of the clip configured to seat within an emblem's recessed clip region and prevent the clip from shifting or dislodging during use.

[0094] In the present invention, the term flexible or flexing is intended to mean the ability of the clip or its features to elastically deform under load to allow cord insertion or retention without permanent deformation.

[0095] In the present invention, the term securing or fastening is intended to mean any method of joining the first emblem and second emblem, including peg engagement, adhesive bonding, snap-fit structures, ultrasonic welding, screws, molded interlocks, or other suitable attachment techniques.

[0096] In the present invention, the term user is intended to mean any person who attaches, wears, carries, or interacts with the clothing string clip, including users wearing clothing, backpacks, lanyards, or other accessories.

[0097] In the present invention, the term garment is intended to mean any wearable clothing article, including hoodies, sweatshirts, jackets, coats, pants, shorts, dresses, or similar items containing cords or straps.

[0098] Turning now to the Figures collectively, FIGS. 1-4 present multiple real-world use cases that demonstrate how the clothing string clip 100 interacts with cords 304 found in varied environments, apparel types, and accessories. Each figure illustrates the coordinated function of the structural elements identified in the reference labels and emphasizes the versatile, user-friendly, and mechanically predictable nature of the invention.

[0099] Referring to FIG. 1, there is illustrated one example of a user 202 wearing a garment 302, such as a hoodie or sweatshirt, that includes a cord 304 extending outward from a casing or cinch channel. The clothing string clip 100 is shown affixed to the cord 304 at an intermediate location between the two free ends of the cord. Better illustrated in at least FIG. 5, the clothing string clip 100 comprises an outer visible face of either the first emblem 102A or the second emblem 102B, with the remainder of the assembly residing behind the visible emblem surface. The positioning of the clothing string clip 100 on the cord 304 can be accomplished by directing the cord 304 along the cord entry path 402 and into the internal cord containment region 406 of the clip 104, after which the cord 304 becomes frictionally retained between the cord retention ridge 114 and the cord pinch point 116. As shown in this figure, the clothing string clip 100 remains suspended at the selected location under ordinary garment movement because the cord block plane 404 (better illustrated in at least FIG. 9), formed by cooperation of the at least two pegs 106 and the at least two peg receivers 110, prevents the cord 304 from sliding beyond the trailing guides 128A and 128B, thereby preventing the cord 304 from shifting out of the retention zone. The user 202 can walk, move, or adjust the garment 302 without dislodging the clothing string clip 100, demonstrating a practical and aesthetic application of the assembly as a decorative and functional garment accessory.

[0100] Referring to FIG. 2, there is illustrated another example of the user 202 wearing the clothing string clip 100 on a backpack 306. The figure shows the same structural components of the clothing string clip 100 interacting with the cord 304, but from a perspective that highlights the contribution of the emblem bodies 102A and 102B to both stabilization and user perception. The visible emblem surface can be flat, domed, textured, printed, molded, or otherwise shaped, and its appearance can serve aesthetic or branding functions while the underlying mechanical structure maintains retention integrity. In this view, the clothing string clip 100 is oriented such that gravity and cord tension encourage the cord 304 to rest within the cord containment region 406, pressing the cord 304 naturally into the opposing surfaces of the cord retention ridge 114 and the cord pinch point 116. Better illustrated in at least FIG. 9, the cooperation between the angled entry guides 122A and 122B and the rounded entry edges 112A and 112B guides the cord 304 into the clip 104 during installation, while the trailing guides 128A and 128B respond with outward or inward flex as necessary to accommodate irregularities in the cord diameter. The presence of the first emblem engagement guide 124A and the second emblem engagement guide 124Bthough not seen externallyensures that the clip 104 remains precisely positioned within the recessed clip regions 108A and 108B of the emblems 102A and 102B, preventing twisting or shifting that could compromise stability during wear. This figure demonstrates the passive retention characteristics that permit the clip to function without user intervention after placement.

[0101] In many embodiments, the clothing string clip 100 can be used not only with traditional garment cords but also with functionally equivalent elongated members carried or worn by a user. Items such as a backpack 306, purse, gym bag, tote, worn lanyard, or other carried or worn accessory can include straps, draw cords, compression cords, or loops that behave in a manner similar to clothing strings when the accessory is worn against the body. When such straps or cords rest on the shoulders, chest, waist, or hips of the user 202, they can be considered operationally similar to clothing strings because they move with the user, can shift during activity, and can benefit from controlled positional retention. Thus, for purposes of the present invention, straps, cords, and loops on backpacks, purses, and other carried items can be treated as variations of clothing strings, allowing the clothing string clip 100 to function identically across garments and worn accessories. This interpretation ensures that the mechanical advantages of the clip 104, including the structured cord entry path 402, the cord containment region 406, and the cord block plane 404, apply consistently whether the cord 304 originates from a garment or from an accessory carried by the user.

[0102] In an exemplary embodiment, the clothing string clip 100 mounted to a cord 304 associated with a non-garment accessory, such as a backpack 306. In this application, the cord 304 can be a drawstring, compression cord, or strap loop that travels along a portion of the backpack 306. The clothing string clip 100 in this context operates identically to its use on a garment 302, with the internal geometry of the clip 104 providing controlled resistance to longitudinal cord movement. The cord block plane 404, formed by the structural combination of the pegs 106 on emblem 102B and the peg receivers 110 on emblem 102A, prohibits the cord 304 from being pulled beyond the trailing guides 128A and 128B when the backpack 306 shifts during use. This prevents the cord 304 from jamming or wedging into a misaligned location that would impede removal. The figure highlights a broader functional domain for the invention by showing that the cord 304 need not be part of a garment but can be part of any wearable article or accessory in which decorative, informational, or functional markers may be useful. The visible emblem surface provides branding or personalization opportunities, while the concealed mechanics provide consistent retention performance.

[0103] Referring to FIG. 3, there is illustrated one example of a user 202 wearing a lanyard that includes a cord 304 extending around the neck, with a clothing string clip 100 mounted along the length of the cord 304. In this view, the clothing string clip 100 presents the outward-facing surface of one of the emblems, such as first emblem 102A or second emblem 102B, while the remainder of the assembly is positioned adjacent to the cord 304 and the torso of the user 202. During installation, the cord 304 can be directed into the clothing string clip 100 by sliding the cord 304 along the cord entry path 402 of the clip 104. As the cord 304 advances, it can be guided by the rounded entry edges 112A and 112B and the opposed angled entry guides 122A and 122B, which funnel the cord 304 toward the cord containment region 406. Within the cord containment region 406, the cord 304 can be frictionally engaged between the cord retention ridge 114 and the cord pinch point 116, so that the clothing string clip 100 remains at a selected position along the lanyard cord 304 during normal movement of the user 202. The trailing guides 128A and 128B can flex slightly to admit the cord 304 and then apply a lateral restoring force that increases surface contact and friction. At the same time, the at least two pegs 106 and at least two peg receivers 110 that mechanically couple the first emblem 102A and the second emblem 102B can cooperate to define a cord block plane 404 proximate the trailing guides 128A and 128B. This cord block plane 404 can prevent the cord 304 from being pulled past the ends of the trailing guides 128A and 128B, thereby avoiding jamming and helping ensure that the cord 304 remains confined within the intended region of the clip 104 for reliable repeated use.

[0104] In this lanyard configuration, the cord 304 functions in a manner analogous to a clothing string, in that it is worn on the body, moves with the user 202, and can shift position during routine activities. When the lanyard is worn around the neck, the cord 304 effectively behaves as a wearable strap similar to a drawstring or cinch cord of a garment 302. Accordingly, the clothing string clip 100 interacts with the lanyard cord 304 in the same way it interacts with traditional garment cords, providing both decorative display via the emblems 102A and 102B and mechanical control through the internal clip features, including the cord entry path 402, cord containment region 406, cord retention ridge 114, cord pinch point 116, trailing guides 128A and 128B, and cord block plane 404.

[0105] Referring to FIG. 4, there is illustrated one example of the clothing string clip 100 attached to a cord 304 integrated into a pair of pants or other apparel item worn by the user 202. In this scenario, the cord 304 can be a waistband drawstring or cinch cord that can otherwise retract or become uneven during normal garment use. The clothing string clip 100 is shown affixed at a point that visually balances the appearance of the garment and prevents one cord end from slipping into the waistband channel. The interaction of all underlying mechanical featuresincluding the first and second emblems 102A and 102B, the peg-and-receiver alignment features 106 and 110, the recessed clip regions 108A and 108B, the emblem engagement guides 124A and 124B, and the clip's internal pathway defined by the rounded entry edges 112A/112B, angled entry guides 122A/122B, leading guides 126A/126B, trailing guides 128A/128B, cord retention ridge 114, and cord pinch point 116results in a stable, predictable retention system that can be repeatedly engaged and disengaged without damage to the cord 304 or the clip 104. The structural arrangement ensures that the clothing string clip 100 not only supports decorative or stylistic objectives but also enhances the functional reliability of the garment 302 by maintaining cord accessibility and symmetry.

[0106] Referring to FIG. 5, there is illustrated one example of a first perspective assembly view of a clothing string clip 100, showing the spatial relationship among the first emblem 102A, the second emblem 102B, and the clip 104 prior to full assembly. In this exploded orientation, the interior surface of the first emblem 102A is visible, including the first recessed clip region 108A in which the clip 104 is intended to be seated. On opposite sides of the first recessed clip region 108A are at least two peg receivers 110, each having a keyed peg recess edge 120 that dictates the orientation of the mating pegs 106. Opposing the first emblem 102A is the second emblem 102B, which includes a second recessed clip region 108B configured to receive the opposite surface of the clip 104. On the interior surface of the second emblem 102B are at least two pegs 106, each having a keyed peg edge 118. The keyed peg edge 118 and the keyed peg recess edge 120 cooperate to ensure fixed rotational alignment between the first emblem 102A and the second emblem 102B. Between the two emblems lies the clip 104, which includes a first emblem engagement guide 124A and a second emblem engagement guide 124B sized to seat within the respective recessed clip regions 108A and 108B. This figure shows how, during assembly, the emblems 102A and 102B approach the clip 104 from opposite sides so that the clip 104 becomes captured and retained between them. This view also reveals the closed-end connector 130 located at one end of the clip 104, which stabilizes the trailing side of the clip 104 and contributes to the fixed spacing that the emblems maintain when assembled.

[0107] Referring to FIG. 6, there is illustrated one example of a second perspective assembly view of the clothing string clip 100, emphasizing the cooperative alignment between the at least two pegs 106 on the second emblem 102B and the at least two peg receivers 110 on the first emblem 102A. This view provides increased visibility of the cord entry path 402 defined on the clip 104, including the rounded entry edges 112A and 112B that aid in guiding a cord 304 into the structure. Extending inward from these rounded entry edges 112A and 112B are the first angled entry guide 122A and the second angled entry guide 122B, which converge to direct the cord 304 toward the cord containment region 406. This figure further illustrates the leading guides 126A and 126B, which extend from the angled entry region toward the central retention features. The cord retention ridge 114 is positioned at a central internal region of the clip 104 and is opposed by the cord pinch point 116, creating a compression region for gripping the cord 304. The trailing guides 128A and 128B extend from this region toward the closed-end connector 130 and are capable of outward flexing to facilitate insertion and removal of the cord 304. In this orientation, it is evident that when the first emblem 102A and the second emblem 102B move toward each other during assembly, the pegs 106 enter the peg receivers 110 and establish the cord block plane 404. This plane restricts the cord 304 from traveling beyond the trailing guides 128A and 128B, ensuring controlled cord engagement and preventing jamming.

[0108] Referring to FIG. 7, there is illustrated one example of a third perspective assembly view of the clothing string clip 100, showing the underside of the clip 104 and the interior-facing geometry of the emblems 102A and 102B. This perspective highlights how the emblem engagement guides 124A and 124B, formed as protruding or contoured regions on the clip 104, nestle into and conform to the recessed clip regions 108A and 108B. This interaction prevents lateral shifting or rotational misalignment of the clip 104 once the emblems are fully assembled. In this view, the structural thickness 408 of the clip 104 is more readily observed, and this uniform thickness allows the clip 104 to flex in a predictable and controlled manner when receiving a cord 304. Additionally, the position and spacing of the at least two pegs 106 relative to the at least two peg receivers 110 demonstrates how the emblems form a stable enclosure around the clip 104. The separation established by the pegs and peg receivers sets the fixed distance between the interior surfaces of the emblems 102A and 102B, ensuring that the clip 104 can flex but cannot escape from its retained position. This figure provides additional emphasis on how the closed-end connector 130, the trailing guides 128A and 128B, and the retention zone defined by the cord retention ridge 114 and the cord pinch point 116 work collectively inside the emblem pair to generate secure frictional engagement with the cord 304.

[0109] Referring to FIG. 8, there is illustrated one example of a fourth perspective assembly view of the clothing string clip 100, which depicts the assembly from a direction that reveals the full interplay of all structural components when the emblems 102A and 102B are about to be joined. The clip 104 is shown centrally located between the emblems, with the rounded entry edges 112A and 112B and the angled entry guides 122A and 122B prominently visible, demonstrating how a cord 304 is initially admitted into the clip 104. The leading guides 126A and 126B are shown extending toward the cord containment region 406, past which the cord retention ridge 114 and the cord pinch point 116 are positioned to compress and frictionally secure the cord 304. The trailing guides 128A and 128B extend toward the closed-end connector 130, and this configuration contributes to the controlled exit path of the cord 304. In this view, the at least two pegs 106 on the second emblem 102B are aligned precisely with the at least two peg receivers 110 on the first emblem 102A, ensuring that when the two emblems are pressed together, the keyed peg edges 118 and keyed peg recess edges 120 cooperatively enforce consistent rotational alignment. When assembly is completed, the resulting cord block plane 404 prevents the cord 304 from slipping past the trailing guides 128A and 128B. This figure makes clear that the clothing string clip 100 achieves stability, ease of assembly, and consistent performance through a multi-component structure in which each feature plays a coordinated mechanical role.

[0110] Upon assembly, the first emblem 102A and the second emblem 102B are brought together in a manner that captures the clip 104 securely between their respective interior surfaces, with the at least two pegs 106 advancing into the corresponding at least two peg receivers 110. As the emblems approach one another, the keyed peg edges 118 engage the keyed peg recess edges 120 to establish proper rotational alignment and fixed spacing, ensuring that the clip 104 is both constrained and permitted to flex within its intended operating envelope. Once the at least two pegs 106 are fully seated within the at least two peg receivers 110, the first emblem 102A and the second emblem 102B can be fastened together using adhesive, mating clips, heat staking, ultrasonic welding, mechanical snap-fit structures, or other suitable methods of connection that secure the emblems relative to one another by way of the peg-and-receiver interface. This fastening step results in a unified assembly in which the clip 104 is retained in a stable, non-removable configuration while remaining free to flex sufficiently to admit and grip a cord 304 during normal use.

[0111] Referring to FIG. 9, there is illustrated one example of a top view of an assembled clothing string clip 100 with the hidden internal lines shown, revealing the internal geometry of the clip 104 as it resides between the first emblem 102A and the second emblem 102B when the assembly is in its fully joined state. Even though the outer surface of the visible emblem may appear smooth and decorative, the hidden lines demonstrate how the recessed clip regions 108A and 108B securely receive the emblem engagement guides 124A and 124B. These guides help maintain the orientation of the clip 104 so that the cord entry path 402 aligns consistently with the intended axis of insertion for a cord 304. This top view also reveals the structural spacing established by the at least two pegs 106 and the at least two peg receivers 110, which form the cord block plane 404 that protects against unintended cord traversal. The hidden depiction of the cord retention ridge 114 and the cord pinch point 116 further demonstrates how the cord containment region 406 lies centrally beneath the emblem surfaces, ensuring that the frictional retention forces are applied symmetrically and in a stable manner during use.

[0112] Referring to FIG. 10, there is illustrated one example of a bottom view of the assembled clothing string clip 100 with the hidden internal lines shown, presenting a complementary perspective of the structural cooperation among the clip 104, the emblems 102A and 102B, and the internal alignment and retention features. The bottom view reveals the rounded entry edges 112A and 112B, the angled entry guides 122A and 122B, and the leading guides 126A and 126B as concealed internal structures nested between the emblems. These elements direct the cord 304 upward into the cord containment region 406 during use and demonstrate how the clip 104 remains positioned between the emblems without shifting laterally or vertically due to the engagement of the emblem engagement guides 124A and 124B. The bottom hidden lines also display the trailing guides 128A and 128B extending toward the closed-end connector 130. These trailing guides form part of the terminal geometry that defines the overall cord retention experience and work collectively with the cord block plane 404 to prevent the cord 304 from slipping beyond its intended travel range.

[0113] Referring to FIG. 11, there is illustrated one example of a front view of an assembled clothing string clip 100 with the hidden internal lines shown, emphasizing the symmetrical placement of the cord retention features relative to the emblem surfaces. The hidden lines indicate the central positioning of the cord retention ridge 114 directly opposite the cord pinch point 116. Together, these structures form the cord containment region 406, which forces the cord 304 to follow a consistent path through the clip 104. The front view also suggests the depth relationship between the interior surfaces of the emblems 102A and 102B and the recessed clip regions 108A and 108B. This alignment ensures that the clip 104 is permitted to flex inward or outward while remaining securely held between the emblems once assembled. Hidden lines further illustrate the relative position of the closed-end connector 130, confirming its integral role in stabilizing the rear of the clip 104 and preserving overall structural integrity.

[0114] Referring to FIG. 12, there is illustrated one example of a back view of the assembled clothing string clip 100 with the hidden internal lines shown, offering the opposite orientation of the geometry displayed in FIG. 11. The back view highlights the relationship between the trailing guides 128A and 128B and the closed-end connector 130, showing how these elements form a continuous structure that resists torsional deformation and helps maintain consistent spacing throughout repeated use. Hidden internal lines also depict the placement of the at least two pegs 106 and the at least two peg receivers 110 on opposite emblem surfaces. The resulting cord block plane 404 is shown extending across the internal cavity of the assembly, reinforcing how the peg-and-receiver system physically separates the cord containment region 406 from the trailing end of the clip 104, thereby preventing the cord 304 from sliding into an obstructed or jammed position.

[0115] Referring to FIG. 13, there is illustrated one example of a left side view of the assembled clothing string clip 100 with the hidden internal lines shown, revealing the stacked orientation of the emblems 102A and 102B relative to the clip 104. Hidden lines show the uniform clip thickness 408 extending through the recessed clip regions 108A and 108B, and the manner in which the emblem engagement guides 124A and 124B hold the clip 104 in precise alignment. The left side hidden depiction of the angled entry guides 122A and 122B shows the inward taper toward the cord containment region 406. This perspective also demonstrates how the cord retention ridge 114 and the cord pinch point 116 create a constricted central zone, while the trailing guides 128A and 128B extend outward and rearward to form a natural stopping point for cord motion. These internal lines confirm that the structural features operate cohesively to maintain predictable cord movement and secure retention.

[0116] In addition to the internal geometry already illustrated, FIGS. 9-16 further demonstrate the formation and function of the cord block plane 404, which serves as a central structural and functional feature of the clothing string clip 100. The cord block plane 404 is created when the at least two pegs 106 extending from the interior surface of the second emblem 102B are inserted into and fastened within the corresponding at least two peg receivers 110 located on the interior surface of the first emblem 102A. When these components are brought together, the keyed peg edges 118 and the keyed peg recess edges 120 enforce a fixed spatial orientation and alignment between the emblems, causing the pegs 106 and the peg receivers 110 to occupy a stable, planar region that extends transversely across a portion of the internal volume of the clip 104 assembly. This planar region constitutes the cord block plane 404.

[0117] The cord block plane 404 is positioned immediately adjacent to, and partially overlapping with, the rear terminus of the clip 104, including the area in which the trailing guides 128A and 128B transition toward the closed-end connector 130. As shown in the hidden-line illustrations, this placement is not incidental; rather, it is a deliberate structural configuration that ensures the cord block plane 404 physically separates the cord containment region 406 from the rear cavity of the assembled emblems 102A and 102B. Without this structural partition, a cord 304 inserted into the clip 104 could slide rearward beyond the trailing guides 128A and 128B and become lodged behind the clip 104, resulting in undesirable jamming, difficulty in removal, and impaired functional use. The cord block plane 404 prevents this condition by providing a rigid, non-yielding surface created through the peg-and-receiver engagement.

[0118] The recessed clip regions 108A and 108B play a substantial role in stabilizing the cord block plane 404. These recessed regions receive and constrain the emblem engagement guides 124A and 124B on the clip 104, limiting the clip's translational and rotational motion within the emblem housing. When the emblems 102A and 102B are fastened together, the recessed clip regions 108A and 108B hold the clip 104 in a fixed vertical spacing relative to the cord block plane 404 so that the trailing guides 128A and 128B terminate precisely at the boundary defined by the plane. This ensures that the cord 304 cannot bypass the internal retention geometry even under conditions of high tension, repeated movement, or twisting of the cord or garment.

[0119] The function of the cord block plane 404 is therefore multifold. First, it provides a structural backstop that halts cord movement at a defined point within the clip 104. Second, it maintains the necessary geometric cooperation between the angled entry guides 122A and 122B, the leading guides 126A and 126B, the cord retention ridge 114, and the cord pinch point 116 by ensuring that all of these features contribute to forming a unified, uninterrupted cord pathway. Third, it enhances safety and reliability by preventing the cord 304 from becoming wedged outside the intended path, a problem that could otherwise deform the clip 104 or weaken the frictional interface needed for retention. Fourth, the plane 404 reinforces the mechanical integrity of the assembly by tying the structural support of the pegs 106 and peg receivers 110 directly into the functional clip pathway. Finally, the cord block plane 404 provides a predictable stop surface that contributes to the user's ability to remove the cord 304 cleanly from the clip 104 by sliding it forward through the cord entry path 402 rather than forcing it rearward into a confined, obstructed zone.

[0120] The fastening of the at least two pegs 106 into the at least two peg receivers 110 can be achieved through a variety of non-limiting methods, including adhesives, mechanical snap-fit structures, frictional insertion, ultrasonic welding, heat staking, mating clips, or other suitable connection mechanisms. Regardless of the fastening method, once the pegs 106 and the peg receivers 110 are engaged and secured, they collectively form the structurally robust cord block plane 404. This plane remains fixed throughout the life of the clothing string clip 100 and contributes directly to its ability to maintain cord accessibility, prevent cord migration into undesirable regions, and ensure the repeated and reliable functionality required of a wearable cord retention device.

[0121] From a mechanical standpoint, the cord block plane 404 transforms the emblem pair into an active structural componentnot merely aesthetic coversby integrating their fastening interface into the functional geometry of the clip 104. The combination of the plane's placement, rigidity, and interference with the potential rearward path of the cord 304 is essential to the invention's operation and establishes a point of novelty relative to earlier approaches that lacked dedicated structural elements to prevent cords from becoming lodged behind or beneath internal clip structures. The cord block plane 404 therefore represents a key functional advancement and a defining architectural improvement that enhances the safety, reliability, and usability of the clothing string clip 100.

[0122] Referring to FIG. 14, there is illustrated one example of a right side view of the assembled clothing string clip 100 with the hidden internal lines shown, which complements the left side depiction and provides clarity on bilateral symmetry inherent in the clip 104 design. The hidden lines illustrate how the rounded entry edges 112A and 112B are positioned at the front of the assembly, feeding directly into the angled entry guides 122A and 122B. The internal geometry shown reinforces how the cord 304 is progressively funneled toward the cord containment region 406, where it encounters the frictional forces of the cord retention ridge 114 and the cord pinch point 116. The trailing guides 128A and 128B and the closed-end connector 130 are also shown through the hidden line depiction, confirming that these structures collectively form the terminal boundary and structural backbone of the assembly.

[0123] Referring to FIG. 15, there is illustrated one example of a first perspective view of an assembled clothing string clip 100 with the hidden internal lines shown, which provides a combined three-dimensional visualization of the internal mechanisms functioning within the emblem housing. The hidden internal geometry demonstrates how the cord entry path 402, the leading guides 126A and 126B, and the cord containment region 406 align along a smoothly transitioning internal channel defined by the clip 104. The pegs 106 extending from the second emblem 102B and the peg receivers 110 on the first emblem 102A can also be seen through the hidden representation, showing how these features come together to form the cord block plane 404. This perspective underscores the interplay of features that provide both stability of assembly and functionality of cord retention.

[0124] Referring to FIG. 16, there is illustrated one example of a second perspective view of an assembled clothing string clip 100 with the hidden internal lines shown, presenting a slightly altered perspective that reveals the depth relationships among the various internal features. The hidden lines show the angular convergence of the angled entry guides 122A and 122B, the constricted profile of the cord retention ridge 114 and cord pinch point 116, and the outward flare of the trailing guides 128A and 128B. This figure also demonstrates how the emblem engagement guides 124A and 124B enforce the proper positioning of the clip 104 within the recessed clip regions 108A and 108B of the first emblem 102A and the second emblem 102B. The hidden internal view clarifies how all of these features operate within a compact mechanical envelope to provide consistent installation, controlled cord movement, and reliable retention performance.

[0125] Referring to FIG. 17, there is illustrated one example of a top view of the clip 104 that forms the core functional component of the clothing string clip 100. In this view, the structural geometry that guides, receives, retains, and ultimately redirects a cord 304 is shown clearly, revealing the arrangement of features that enable the clip 104 to operate as a friction-retention and anti-jamming mechanism when positioned between emblems 102A and 102B.

[0126] At a first end of the clip 104 is the cord entry path 402, which serves as the primary access opening for introducing the cord 304 into the clip 104. The cord entry path 402 is defined between opposing rounded entry edges 112A and 112B, each of which presents a smooth, radiused surface configured to prevent snagging, digging, or abrupt lateral catching of the cord 304. These rounded entry edges 112A and 112B transition into corresponding angled entry guides 122A and 122B. The angled entry guides 122A and 122B converge toward one another, producing a funnel-like geometry that progressively narrows the entry path to coax the cord 304 toward the central region of the clip. This progressive narrowing action ensures automatic centralization of the cord 304 and initiates the controlled frictional alignment necessary for subsequent engagement.

[0127] Downstream of the angled entry guides 122A and 122B are the leading guides 126A and 126B. These elongate, generally linear structural members provide a controlled channel through which the cord 304 is guided as it transitions deeper into the clip 104. Each leading guide lies opposite the other, forming a parallel pathway that restrains lateral drift of the cord 304. As the cord advances along the leading guides, it is slightly compressed between the inner surfaces of the guides, generating early frictional stabilization while preserving smooth forward motion.

[0128] The leading guides 126A and 126B terminate at the cord containment region 406, which is the primary friction-locking interface of the clip 104. The cord containment region 406 is defined between a cord retention ridge 114 on one side and a cord pinch point 116 on the opposite side. The cord retention ridge 114 is shaped as a raised, arcuate retention feature configured to engage the curvature of a cord 304 and apply a portion of the frictional retention force. Opposite the cord retention ridge 114 is the cord pinch point 116, a localized constriction engineered to compress the cord 304 between opposing surfaces. Together, the cord retention ridge 114 and the cord pinch point 116 form a ridge-and-pinch pair that grips the cord 304 in a manner sufficient to prevent unintended sliding while still allowing intentional removal by the user.

[0129] Extending from the cord containment region 406 toward the distal end of the clip 104 are the trailing guides 128A and 128B. Unlike the leading guides, each trailing guide is free at its distal end so that it may elastically flex outward when receiving the cord 304. This flexing action increases retention efficiency by applying lateral restoring forces once the cord 304 is seated. The trailing guides also prevent backward withdrawal of the cord 304 during typical use conditions and provide a final stage of alignment as the cord is repositioned within the clip.

[0130] At the opposite end of the clip 104 from the cord entry path 402, the closed-end connector 130 couples the emblem engagement guides 124A and 124B, forming a stable rear boundary. The emblem engagement guides 124A and 124B are sized and shaped to seat within the recessed clip regions 108A and 108B of the emblems. These engagement guides establish the clip's fixed spatial position when the emblems are assembled around it, ensuring that the cord entry path 402, leading guides 126A/126B, cord containment region 406, and trailing guides 128A/128B remain fully exposed and properly aligned for cord 304 engagement. The closed-end connector 130 additionally contributes to the rigidity of the clip 104, resisting torsion and bending forces that might otherwise deform the frictional geometry.

[0131] The top-view orientation of FIG. 17 shows the uniform clip thickness 408 along the full structure of the clip 104. This uniform thickness contributes to predictable flex characteristics, permitting the angled entry guides 122A and 122B, leading guides 126A and 126B, and trailing guides 128A and 128B to flex as required for cord insertion while ensuring that the central retention elementssuch as the cord retention ridge 114 and the cord pinch point 116maintain consistent geometry throughout their operational lifetime.

[0132] In various manufacturing embodiments, the clip 104 may be formed from a flat sheet or strip of material having a uniform thickness. This strip can be cut, stamped, folded, or bent into the illustrated geometry in a manner that ensures dimensional repeatability and cost-effective mass production. Stamp-and-fold manufacturing allows critical features such as the angled entry guides, leading guides, and trailing guides to be defined by precise tooling, enabling consistent spring properties and reducing variability between units. In other embodiments, the clip 104 may be produced using injection molding, die-cut laminates, progressive forming dies, or other high-volume fabrication processes that inherently favor uniform-thickness substrates. Uniform thickness simplifies tool design, shortens cycle time, and ensures that flexural behavior is driven primarily by shape rather than inconsistent material cross-sections, thereby providing predictable performance across large production batches.

[0133] Although FIG. 17 illustrates an embodiment in which the clip 104 exhibits a uniform thickness 408, in other embodiments, the thickness of the clip may vary along its length or across specific functional features. For example, the angled entry guides 122A and 122B may be formed with reduced thickness to promote greater inward flex when initially receiving the cord 304, thereby minimizing insertion force and improving user comfort. The leading guides 126A and 126B may incorporate regions of increased thickness to stiffen the longitudinal pathway and enhance the stability of the cord as it advances toward the cord containment region 406. Conversely, the trailing guides 128A and 128B may use tapered or selectively thinned sections to increase their outward flex response, allowing them to deform more readily during cord insertion while still generating a strong inward restoring force that contributes to frictional retention.

[0134] In various embodiments, the clip 104, the emblems 102A and 102B, and the associated structural features may be formed from plastic, metal, composite materials, elastomeric materials, or other suitable substrates capable of providing the desired balance of flexibility, strength, and durability. Examples of appropriate plastics include polycarbonate, ABS, polypropylene, polyethylene, nylon, POM (acetal), thermoplastic elastomers (TPE), and reinforced polymer blends, each of which may be selected for its ability to flex repeatedly without fatigue while retaining precise molded geometry. Metal embodiments may include stainless steel, aluminum alloys, spring steel, or other formable metallic materials that provide predictable spring characteristics, high wear resistance, or thin-profile strength advantages. Composite or hybrid materials, such as fiber-reinforced polymers, layered laminates, or co-molded plastic-and-elastic structures, may be used to tailor the mechanical response of individual features such as the angled entry guides, leading guides, and trailing guides. In still other embodiments, natural or biodegradable materials, including plant-based plastics or cellulose composites, may be employed. The choice of material may depend on manufacturing method, desired flexural modulus, long-term durability, product cost, user comfort, environmental considerations, or aesthetic objectives, and all such material variations are considered within the scope of the present disclosure.

[0135] In some embodiments, the region surrounding the cord retention ridge 114 may be intentionally thickened to anchor the ridge against deformation under repeated compression of various cord diameters. Similarly, the area forming the cord pinch point 116 may incorporate increased thickness or a rib-like reinforcement to maintain consistent pinch force throughout the lifetime of the clip 104. The closed-end connector 130 may be thickened to enhance structural stability and resist torsional displacement when the emblems 102A and 102B apply clamping forces during assembly. Variable-thickness regions may also be used to modulate the overall flexural modulus, fatigue resistance, spring-back behavior, and long-term mechanical durability of the clip 104 when exposed to repeated bending cycles. These thickness variations permit fine control over the mechanical properties of the clip 104, allowing the device to be optimized for different materials, cord types, manufacturing processes, and retention force requirements. Accordingly, both uniform-thickness and variable-thickness constructions fall within the scope of the present disclosure, and specific combinations of thickness profiles may be selected to achieve tailored mechanical performance or desired user experience.

[0136] In various embodiments, the clip 104, the emblems 102A and 102B, and the associated structural features may be formed from plastic, metal, composite materials, elastomeric materials, or other suitable substrates capable of providing the desired balance of flexibility, strength, and durability. Examples of appropriate plastics include polycarbonate, ABS, polypropylene, polyethylene, nylon, POM (acetal), thermoplastic elastomers (TPE), and reinforced polymer blends, each of which may be selected for its ability to flex repeatedly without fatigue while retaining precise molded geometry. Metal embodiments may include stainless steel, aluminum alloys, spring steel, or other formable metallic materials that provide predictable spring characteristics, high wear resistance, or thin-profile strength advantages. Composite or hybrid materials, such as fiber-reinforced polymers, layered laminates, or co-molded plastic-and-elastic structures, may be used to tailor the mechanical response of individual features such as the angled entry guides, leading guides, and trailing guides. In still other embodiments, natural or biodegradable materials, including plant-based plastics or cellulose composites, may be employed. The choice of material may depend on manufacturing method, desired flexural modulus, long-term durability, product cost, user comfort, environmental considerations, or aesthetic objectives, and all such material variations are considered within the scope of the present disclosure.

[0137] Referring to FIG. 18, there is illustrated one example of a bottom view of the clip 104, revealing the underside geometry of the cord-guiding, cord-retention, and emblem-engagement features. In this orientation, the relationship between the underside surfaces of the angled entry guides 122A and 122B, the leading guides 126A and 126B, and the trailing guides 128A and 128B can be seen more clearly. The underside surfaces of these guides highlight the curved and chamfered transitions designed to minimize friction as the cord 304 is inserted or removed. The underside profile also shows how the cord retention ridge 114 and cord pinch point 116 project upward relative to the bottom plane of the clip 104, forming elevated structures that interact with the cord 304 when the clip is assembled between emblems 102A and 102B. From this bottom perspective, the emblem engagement guides 124A and 124B appear as downward-extending rails sized to interface precisely with the recessed clip regions 108A and 108B of the emblems. The closed-end connector 130 is visible as a structural beam that stabilizes the rear of the clip and ties the emblem engagement guides together. The bottom view also helps illustrate how the clip thickness 408 remains consistent across the surface in this embodiment, ensuring that the underside geometry contributes to predictable flex behavior and evenly distributed stress when the clip bends during use.

[0138] Referring to FIG. 19, there is illustrated one example of a front view of the clip 104, showing the forward-facing profile that defines the cord entry path 402. In this view, the rounded entry edges 112A and 112B appear prominently as opposing semicircular contours designed to smoothly funnel the cord 304 inward. The spacing between the rounded entry edges, combined with their curvature, prevents sharp contact points that could fray or deform the cord. Behind and slightly above these rounded edges, the angled entry guides 122A and 122B are visible as sloped interior surfaces that direct the cord into the center of the clip 104. The front view also reveals the symmetry of the leading guides 126A and 126B relative to the central longitudinal axis, demonstrating how the clip geometry ensures consistent alignment for cords of varying diameters. This figure highlights the precise front-facing geometry that initiates controlled cord engagement, which is essential for fulfilling the claim-required function of receiving a cord and guiding it toward the containment region 406.

[0139] Referring to FIG. 20, there is illustrated one example of a back view of the clip 104, showing the rear-facing geometry adjacent to the closed-end connector 130. From this perspective, the first trailing guide 128A and second trailing guide 128B can be seen extending forward from the connector region, with their distal ends unconnected and free to flex. The back view clearly illustrates how the trailing guides form open-ended channels aligned with the cord containment region 406, enabling the cord 304 to enter the containment area while inhibiting backward escape once seated. The closed-end connector 130 is presented here as a rigid transverse structure that not only ties the rear of the clip together but also supports the emblem engagement guides 124A and 124B. These engagement guides appear from this angle as nearly vertical extensions sized to interface with the recessed clip regions 108A and 108B. This back-facing geometry is integral to the device's resistance to torsional deformation and ensures that when the clip is positioned between the emblems 102A and 102B, it remains properly oriented and structurally reinforced.

[0140] Referring to FIG. 21, there is illustrated one example of a left side view of the clip 104, providing a profile of the relative elevations of the cord retention ridge 114, the cord pinch point 116, and the interconnected guide structures. In this view, the raised elevation of the cord retention ridge 114 relative to the leading guides 126A/126B can be observed, demonstrating how the ridge is shaped to protrude toward the emblems during assembly. This protrusion ensures that when a cord 304 enters the containment region, it will engage the ridge with the proper frictional force. Opposite the ridge, the cord pinch point 116 appears as a localized projection designed to create a controlled compression interface. The side view also distinguishes the thickness transitions within the angled entry guides 122A/122B and trailing guides 128A/128B, reinforcing the concept that these guides are engineered to flex in a predictable manner when interacting with the cord. The side perspective further shows the alignment of the emblem engagement guides 124A/124B relative to the closed-end connector 130, illustrating how these structures form a rigid spine that maintains the intended orientation of the clip 104 when secured between the emblems.

[0141] Referring to FIG. 22, there is illustrated one example of a right side view of the clip 104, which complements the left-side depiction by showing the mirrored geometry of the cord-engagement features. In this perspective, the symmetry between the right-side and left-side structural elements becomes clear. The angled entry guides 122A and 122B slope inward toward the center in the same fashion, and the elevation of the cord pinch point 116 relative to the surrounding geometry is consistent with the opposite side. The trailing guide 128B is visible as a flexible cantilever structure that opens outward to accommodate the cord during insertion. The right side view also highlights the continuous profile of the clip thickness 408 in this embodiment, which contributes to overall stability while allowing selective flexing in the elongated guide regions. In addition, this figure helps illustrate how the closed-end connector 130 and the emblem engagement guide 124B combine to form a rigid end structure that maintains consistent spacing between the emblems when the clothing string clip 100 is assembled.

[0142] Referring to FIG. 23, there is illustrated one example of a first perspective view of the clip 104, showing the three-dimensional arrangement of the cord-guiding, cord-retaining, and emblem-engaging structural features that collectively enable the clothing string clip 100 to function as a self-guiding, friction-locking, anti-jamming cord retention device. This view highlights how the various entry, guiding, retention, and structural support components are integrated into a single unitary structure having a clip thickness 408 that remains generally consistent throughout, while also allowing for embodiments in which thickness may vary to achieve desired flexural, mechanical, or retention characteristics.

[0143] At the forward end of the clip 104, the cord entry path 402 is prominently visible. This opening is defined between the first rounded entry edge 112A and the second rounded entry edge 112B, each of which presents a smoothly curved surface intended to minimize abrasion and to prevent snagging of the cord 304 during insertion. These rounded entry edges transition into the first angled entry guide 122A and the second angled entry guide 122B. In this perspective view, the angled entry guides can be seen converging toward the longitudinal centerline of the clip, forming a tapered entry chute engineered to automatically center the cord 304 as it advances into the clip 104. This geometry is essential to ensuring that the cord 304 enters the containment region 406 in the correct orientation to achieve consistent frictional engagement.

[0144] Positioned immediately downstream of the angled entry guides are the first leading guide 126A and the second leading guide 126B, which extend longitudinally toward the cord containment region 406. In the perspective view, these leading guides appear as elongated rail-like structures with raised inner edges that lightly contact the cord 304 as it moves through the clip 104. The leading guides stabilize the motion of the cord 304, restricting lateral displacement and guiding it into the precise gripping geometry formed by the cord retention ridge 114 and the cord pinch point 116. This smooth transition from entry to containment reduces user effort and avoids sudden resistance that could otherwise impede insertion.

[0145] Central to the performance of the clip 104 is the cord containment region 406, which is clearly visible in FIG. 23. The cord containment region 406 is defined between the raised cord retention ridge 114 and the opposing cord pinch point 116. The cord retention ridge 114 is shaped to match the curvature of a typical garment cord, providing a broad area of engagement that distributes pressure along the surface of the cord 304. Opposite the ridge 114, the cord pinch point 116 forms a localized constriction engineered to compress the cord 304 into the ridge. When a cord 304 is fully seated in this region, frictional forces generated between the ridge and pinch point resist undesired sliding, thereby maintaining the positional placement of the clothing string clip 100 during movement of the user 202. The geometry is specifically designed such that the ridge and pinch point cooperate to provide multi-directional frictional retention without permanently deforming the cord.

[0146] Extending rearward from the cord containment region 406 are the first trailing guide 128A and the second trailing guide 128B, each of which is unconnected at its distal tip. In the perspective view, these trailing guides resemble opposing flexible arms that can elastically deflect outward when the cord 304 is pushed into or removed from the clip 104. Once the cord 304 is positioned between the trailing guides 128A and 128B, their natural inward restoring force contributes to retention and stabilizes the cord 304 before and after it enters the containment region. The floating nature of their distal ends is intentional, allowing controlled flexure that improves usability while preventing overstressing of the retention ridge 114 and pinch point 116.

[0147] At the rearward end of the clip 104, the closed-end connector 130 bridges the first emblem engagement guide 124A and the second emblem engagement guide 124B. In this perspective view, the rear connector 130 provides structural support, maintaining the spatial separation and parallel orientation of the emblem engagement guides. These guides 124A and 124B are shaped and dimensioned to nest within the recessed clip regions 108A and 108B of the corresponding emblems 102A and 102B. Their geometry ensures that when the emblems are assembled around the clip 104, the clip is held securely in a fixed spatial orientation while still being permitted to flex in the regions where flexure is requiredspecifically the angled entry guides, leading guides, and trailing guides.

[0148] The perspective in FIG. 23 also emphasizes the functional interplay between structural rigidity and controlled flexure. The closed-end connector 130 and the emblem engagement guides provide rigidity and predictable alignment, while the thinner, elongated structures such as the angled entry guides 122A/122B and trailing guides 128A/128B are engineered to flex elastically. This distribution of stiffness allows the clip 104 to admit a cord smoothly, grip it securely, and permit removal without excessive force. The uniform clip thickness 408 illustrated in this embodiment supports predictable bending behavior, manufacturing efficiency, and consistent retention characteristics.

[0149] Altogether, FIG. 23 reveals the detailed three-dimensional architecture of the clip 104 that enables the clothing string clip 100 to balance alignment, friction, controlled flexure, and structural reinforcement. This figure provides foundational support for the claims, particularly with respect to the cord entry geometry, the containment region gripping structures, and the interaction between the clip and the emblems that ultimately form the cord block plane 404 when assembled.

[0150] Referring to FIG. 24, there is illustrated one example of a second perspective view of the clip 104, displaying the forward-right quadrant and providing a complementary spatial understanding of the cord entry and guidance structures. Unlike FIG. 23, this orientation reveals how the right-side geometry mirrors the left while still containing subtle variations in curvature and length that influence cord behavior. The second angled entry guide 122B can be observed sweeping inward at a slightly different spatial angle than the first angled entry guide 122A, emphasizing that each guide contributes uniquely to the overall centering action of the cord 304. The cord pinch point 116 is visible as a distinct raised feature whose positioning relative to the second leading guide 126B demonstrates how the containment region 406 forms a progressively narrowing corridor.

[0151] The trailing guide 128B appears prominently, showing its tapered free end and the relief cut that allows controlled outward flexion. This view also reveals how the closed-end connector 130 provides torsional resistance along the back of the clip 104an attribute that ensures the clip does not twist or buckle when compressed between the first emblem 102A and second emblem 102B during assembly. The emblem engagement guide 124B can be seen extending upward from the connector 130, illustrating the way the clip 104 locks into the recessed clip region 108B to maintain fixed spacing between the emblems. This three-quarter-right perspective provides further support for the claim elements describing the cord entry path, leading guides, trailing guides, and containment region.

[0152] Referring to FIG. 25, there is illustrated one example of a third perspective view of the clip 104, oriented to emphasize the rear-left quadrant and the interaction of the emblem engagement guides 124A and 124B with the structural frame formed by the closed-end connector 130. In this orientation, the protruding nature of the cord retention ridge 114 is visible from the rear, showing how this ridge extends farther toward the emblems than the surrounding guide structures. This projection ensures that when the cord 304 is lodged in the cord containment region 406, it contacts the ridge at a position that maximizes frictional resistance. The ridge is shown elevated above the trailing guides 128A and 128B, reinforcing how the geometry intentionally channels the cord into this gripping interface rather than allowing it to bypass or slip behind the clip 104.

[0153] The view also highlights the channel-like nature of the trailing guides 128A and 128B, showing their inward-facing surfaces, which apply gentle compressive forces to help guide the cord back into the containment region when tension is applied. The emblem engagement guide 124A, positioned on the left side of the clip, is shown aligning with the internal boundaries of the recessed clip region 108A. Through this view, it can be appreciated how the engagement guides and closed-end connector cooperate to prevent lateral drift of the clip within the emblem assembly, ultimately maintaining the alignment of the cord entry path 402 and containment region 406. This perspective reinforces the structural rigidity supporting the dynamic components and further supports claim language concerning spatial retention of the clip between emblems.

[0154] Referring to FIG. 26, there is illustrated one example of a fourth perspective view of the clip 104, presenting a low, forward-proximal angle that emphasizes the continuity of the full cord pathway from the rounded entry edges 112A/112B through the trailing guides 128A/128B. This perspective shows the multi-stage pathway as a continuous, sculpted channel rather than a series of isolated features. The angled entry guides 122A/122B appear from this angle as a converging pair of walls whose slopes and curvature determine the initial contact forces that act upon the cord 304. The leading guides 126A/126B are seen slightly offset in elevation relative to the angled entry guides, demonstrating how the elevation profile of the cord pathway transitions smoothly from entry into containment.

[0155] The cord containment region 406 is visible as a narrowed, recessed area, framed by the elevated cord retention ridge 114 and the opposing cord pinch point 116. From this perspective, the ridge and pinch point appear as interlocking topographical features whose relative spacing, elevation, and curvature dictate the magnitude and direction of the frictional forces applied to the cord. At the posterior end, the trailing guides 128A and 128B are shown projecting outward in a manner that reveals their independent flex symmetry, enabling them to accommodate cords of varying diameters. The closed-end connector 130 appears as a stabilizing spine, anchoring the two emblem engagement guides 124A and 124B, which, although not highlighted in this forward view, can be seen subtly projecting upward from the rear mass of the clip.

[0156] This figure provides a compressive understanding of how the clip 104 forms a seamless, multi-stage mechanical pathway engineered to admit, center, compress, retain, and release a cord in a controlled sequencesupporting the structure and operation recited in all three independent claim sets.

[0157] Referring to FIG. 27, there is illustrated one example of a top view of the first emblem 102A, showing the outward-facing surface configured to serve as the decorative or presentational face of the clothing string clip 100. In this orientation, the emblem 102A appears as a generally planar body having a peripheral contour that may be circular, oval, polygonal, character-shaped, logo-shaped, or otherwise stylistically configured to convey visual or branding elements. The top view emphasizes that while the outer face is primarily aesthetic, it is structurally backed by a functional interior surface (not visible from this angle) that houses the recessed clip region 108A and peg receivers 110. The thickness of the emblem body provides rigidity so that when assembled to the second emblem 102B, the emblem 102A participates in capturing the clip 104 at a defined spacing. The periphery may include beveled, chamfered, or contoured edges to assist with handling comfort and reduce snagging on clothing. FIG. 27 therefore provides the external visual context for the emblem while supporting the claim-recited feature of a first emblem having an interior surface that includes a recessed clip region and peg receivers.

[0158] Referring to FIG. 28, there is illustrated one example of a bottom view of the first emblem 102A, presenting the functional interior surface that interacts directly with the clip 104 and the second emblem 102B during assembly. In this view, the recessed clip region 108A is clearly visible as a depression or cavity formed into the interior-facing surface of the emblem. This recessed clip region 108A is dimensioned to receive one of the emblem engagement guides 124A or 124B extending from the clip 104, thereby preventing lateral shifting or rotational movement of the clip once the emblems are brought together. The bottom view also reveals the presence of at least two peg receivers 110 positioned on opposite sides of one end of the recessed clip region 108A. Each peg receiver 110 appears as a cavity, socket, channel, or partial recess that is sized and shaped to accept the corresponding peg 106 from the second emblem 102B.

[0159] Additionally, keyed recess edges 120 may be present along one side of each peg receiver 110. These keyed recess edges 120 cooperate with the keyed peg edges 118 on the pegs 106 to ensure that the first emblem 102A cannot twist or misalign relative to the second emblem 102B during assembly. The alignment enforced by this keyed interface is essential for maintaining the correct orientation of the clip 104, including the cord entry path 402, cord containment region 406, and the functional location of the cord block plane 404. The bottom view thus reveals the engineered precision of the interior architecture of the emblem 102A and provides direct visual support for multiple structural elements recited in the claims.

[0160] Referring to FIG. 29, there is illustrated one example of a front view of the first emblem 102A, showing the vertical cross-sectional silhouette of the emblem and the relative placement of internal structures when viewed from the direction corresponding to the forward-facing side of the clothing string clip 100. In this orientation, the recessed clip region 108A can be appreciated as extending inward from the interior surface while maintaining a substantial wall thickness between the recessed floor and the decorative outer face. This thickness provides mechanical rigidity so that compressive forces generated during assemblywhether by snap-fit engagement, adhesive bonding, mating clips, or other fastening techniquesdo not distort the emblem or impair proper seating of the clip 104.

[0161] The front view also illustrates the lateral placement of the peg receivers 110 relative to the recessed clip region 108A. The peg receivers appear offset to opposite sides of the recessed region so that when the pegs 106 are inserted from the second emblem 102B, they flank the end of the recessed clip region and collectively define the transverse boundary known as the cord block plane 404. In this orientation, the contour of the outer face of emblem 102A is also visible, demonstrating that the structural interior geometry is completely hidden from the user when the clothing string clip 100 is worn. This figure reinforces that the emblem 102A is simultaneously decorative and structural, enclosing the clip while participating in the unique anti-jamming function of the device.

[0162] Referring to FIG. 30, there is illustrated one example of a back view of the first emblem 102A, providing a reverse-angle perspective of the interior architecture and showing how the recessed clip region 108A and peg receivers 110 are oriented when viewed from the opposite direction relative to FIG. 29. From this perspective, the depth of the recessed clip region 108A can be more easily appreciated, demonstrating how it is sized to accommodate the emblem engagement guides of the clip 104 without excessive compression or unwanted shifting. The back view also shows the horizontal alignment of the peg receivers 110, which appear as opposed receptacles designed to receive the pegs 106 from the second emblem 102B. When these pegs are inserted into the receivers, the keyed recess edges 120 ensure angular registration, preventing rotational misalignment between the two emblems and thereby ensuring consistent orientation of the clip 104.

[0163] This view further demonstrates how the interior surface of the emblem 102A is engineered to form a reliable structural shell that captures the clip 104 at a controlled distance. When assembled with its counterpart, the first emblem 102A participates in creating the cord block plane 404, a functional barrier that prevents a cord 304 from being drawn behind the trailing guides of the clip 104. The back view therefore highlights the complementary role of the emblem interior geometry in establishing the spatial and functional confinement needed for the clothing string clip 100 to reliably guide and retain a cord during normal use.

[0164] Referring to FIG. 31, there is illustrated one example of a side view of an emblem 102B that includes at least two pegs 106 positioned to cooperate with a recessed clip region 108B and corresponding peg receivers 110 on a mating emblem to capture and retain the clip 104 between the emblems at a controlled spacing. In this view, each peg 106 extends inward from the interior surface of the emblem 102B with a defined height that sets the separation distance between the facing interior surfaces of emblem 102B and its opposing emblem when assembled. That separation distance is selected so that, when the emblems are brought together, the thickness of the clip 104 and the depth of the recessed clip regions 108A and 108B are accommodated while still allowing the clip 104 to flex slightly within the cavity. In particular, the height of each peg 106 is engineered to ensure that the clip 104 seats securely within the recessed clip region 108B and the corresponding recessed clip region 108A on the opposing emblem without being overly compressed or loosely captured. This controlled height prevents the clip 104 from rattling or shifting while maintaining enough clearance so that the angled entry guides, leading guides, trailing guides, and cord retention ridge can flex during cord 304 insertion and removal. From the side, it can be appreciated that the at least two pegs 106 are positioned on opposite sides of one end of the recessed clip region 108B, so that when assembled with the opposing emblem, the pegs 106 and peg receivers 110 form a structural frame around the end of the clip 104 and define the cord block plane 404 that physically blocks the cord from traveling beyond the trailing guides and becoming trapped behind the clip.

[0165] Each peg 106 further incorporates a keyed peg edge 118, which in this side view appears as a flat, chamfered, or faceted portion of the peg profile that departs from a purely circular cross-section. The keyed peg edge 118 is configured to mate with a complementary keyed recess edge 120 formed within the peg receiver 110 on the opposing emblem so that the pegs 106 cannot rotate freely within the receivers. This keyed interface forces a single correct angular orientation between the emblems when they are brought together, preventing the recessed clip regions 108A and 108B from becoming misaligned relative to the clip 104. By constraining rotational freedom, the keyed peg edge 118 ensures that the cord entry path 402, the cord containment region 406, and the trailing guides 128A/128B of the clip 104 are consistently oriented in the intended direction relative to the outer faces of the emblems. This is important not only for visual alignment of any artwork carried by the emblems, but also for the functional alignment of the cord pathway and the cord block plane 404, which is formed when the pegs 106 are fully seated in the peg receivers 110. Once assembled, the keyed peg edge 118 cooperates with the peg receiver 110 to lock the emblems against twisting, maintain a stable and repeatable spacing set by the peg heights, and create a rigid transverse barrier at the end of the recessed clip region 108B that acts as a stop surface preventing the cord 304 from escaping beyond the designed guide geometry of the clip 104 and becoming jammed within the assembly.

[0166] Referring to FIG. 32, there is illustrated one example of a right side view of the first emblem 102A, showing the vertical profile of the emblem body and the relative depth of the recessed clip region 108A. This perspective emphasizes how the back wall of the recessed clip region 108A is positioned inwardly from the outer decorative face of the emblem. The uniform or selectively varied thickness of this wall provides the structural strength needed to resist flexural loads when the clip 104 is inserted or when the pegs 106 from the second emblem 102B are pressed into the peg receivers 110.

[0167] From this side view, the lateral placement of the peg receivers 110 is visible as protruding or inset structural boundaries that flank the recessed clip region 108A. Their positioning on opposite sides of the recessed region ensures that when the pegs 106 engage with the peg receivers 110, the resulting connection forms the transverse cord block plane 404 used to prevent the cord from traveling beyond the trailing guides of the clip. The keyed recess edges 120, while not always visible in full profile from this angle, are present and provide angular constraints that ensure the emblem 102A aligns in only one correct rotational orientation when assembled with the opposing emblem 102B. This figure demonstrates how the sidewall geometry of the emblem 102A contributes to the mechanical rigidity and alignment fidelity of the final assembled clothing string clip 100.

[0168] Referring to FIG. 33, there is illustrated one example of a first perspective view of the first emblem 102A, providing an angled representation of the interior surface, recessed clip region 108A, and peg receivers 110. This oblique perspective reveals how the recessed clip region 108A is shaped to cradle one of the emblem engagement guides of the clip 104, ensuring that the clip remains centered and properly oriented within the emblem assembly. The contours of the recessed region may include straight walls, radiused corners, or tapered sidewalls that facilitate insertion of the clip during assembly while preventing undesirable rotation or drift after assembly.

[0169] The perspective view also makes the positioning and structural geometry of the peg receivers 110 more evident. Each peg receiver 110 is shown as a recessed cavity that may include stepped, chamfered, or contoured internal surfaces engineered for tight engagement with the pegs 106 from the opposite emblem. The keyed recess edges 120 are visible along one side of each peg receiver and operate to limit rotational freedom, thereby ensuring the emblems align correctly relative to one another. This view also highlights how the interior surface of the emblem 102A forms a rigid enclosure that supports the clip 104 and cooperates with the second emblem to create the cord block plane 404 that prevents a cord from entering the interior space behind the clip.

[0170] Referring to FIG. 34, there is illustrated one example of a second perspective view of the first emblem 102A, showing the interior surface from a mirrored or opposing direction relative to FIG. 33. This view reveals additional geometric detail regarding the recessed clip region 108A, including the curvature or flatness of the bottom of the recess and the angular transitions of its sidewalls. Such geometry is engineered to accommodate the emblem engagement guides 124A/124B of the clip 104 while also providing a firm seat that prevents shifting during use.

[0171] The peg receivers 110 are again shown positioned at opposite sides of one end of the recessed clip region 108A. In this orientation, the depth of the peg receivers is more readily understood, as is the relationship between the peg receiver depth and the thickness of the emblem body. The keyed recess edges 120 appear as geometrically distinct planes or facets at the receiver openings, ensuring that each peg 106, when inserted, can only align in one correct orientation. This prevents accidental twisting or misalignment of the emblems 102A and 102B, which could otherwise cause the clip 104 to bind or the cord entry path 402 to misalign with the outer surfaces of the device. FIG. 34 thus shows the spatial cooperation of the recesses and interior contours that make the emblem 102A both decorative and mechanically functional.

[0172] Referring to FIG. 35, there is illustrated one example of a third perspective view of the first emblem 102A, focusing on the boundary geometry of the recessed clip region 108A and the surrounding interior wall structure. This angle makes it apparent how the emblem interior is shaped to provide lateral confinement for the clip 104, enabling the clip to remain centered as the cord 304 enters through its front guides and exits past its trailing guides. The recessed clip region 108A appears as a box-like or cavity-like structure with controlled depth and width so that the emblem engagement guide of the clip fits securely while retaining the necessary clearance for controlled flexure.

[0173] In this perspective, the peg receivers 110 appear prominently as opposed receptacles that help define the end boundary of the recessed clip region. Their placement on either side of the region ensures that when the pegs 106 enter them from the second emblem, the assembly forms the cord block plane 404, a critical functional barrier that prevents the cord from migrating behind the clip 104. The keyed recess edges 120 can be seen integrated into the geometry of each peg receiver, serving as physical alignment stops that prevent rotational misalignment and maintain a stable, repeatable assembly orientation. This view reinforces the coordinated interaction of the recessed clip region, peg receivers, and keyed features.

[0174] Referring to FIG. 36, there is illustrated one example of a fourth perspective view of the first emblem 102A, offering a rearward-angled representation of the interior surface where the recessed clip region 108A and peg receivers 110 are integrated. This view highlights how the recessed clip region is positioned centrally within the emblem interior, with the peg receivers 110 flanking it symmetrically to establish a balanced distribution of assembly forces when the pegs 106 engage during fastening. The spatial layout of these features demonstrates how the emblem 102A is engineered to promote both rapid assembly and long-term stability.

[0175] From this angle, the keyed recess edges 120 are more prominently visible, showing how they create angled or planar interruptive surfaces that interface directly with the keyed peg edges 118. This keyed interaction is essential for ensuring that when the emblems 102A and 102B are brought together, the recessed clip regions 108A and 108B align precisely along a shared plane, allowing the clip 104 to be retained correctly without torsional preload or unintended tilt. This perspective further clarifies how the emblem interior geometry, in combination with the pegs 106 and peg receivers 110, participates in forming the cord block plane 404 once the assembly is completed.

[0176] Referring to FIG. 37, there is illustrated one example of a top view of the second emblem 102B, showing the outward-facing decorative surface that becomes visible when the clothing string clip 100 is worn. In this view, the outer geometry of the emblem may appear smooth, contoured, or shaped according to the aesthetic intent of the design. This outer surface may be flat, domed, faceted, or sculpted, and may include printed, molded, or embedded ornamentation. Although primarily decorative from this perspective, the outer surface is structurally supported by an internal architecture on the opposite side that houses the functional recessed clip region 108B and the at least two pegs 106. The top view emphasizes that while the emblem serves an ornamental purpose externally, it also contributes materially to the operational mechanics of the device by providing a rigid, load-bearing shell that aids in capturing the clip 104 and defining the spatial boundaries of the assembly.

[0177] Referring to FIG. 38, there is illustrated one example of a bottom view of the second emblem 102B, presenting the interior surface that interfaces directly with the clip 104 and the first emblem 102A. From this vantage point, the recessed clip region 108B is clearly defined as a cavity shaped to receive one of the emblem engagement guides 124A or 124B of the clip 104. This recessed region establishes part of the containment structure that holds the clip in fixed orientation during use.

[0178] Also visible in this bottom view are the at least two pegs 106, positioned on opposite sides of the recessed clip region 108B. The pegs extend inward from the interior surface with a predetermined height engineered to control the spacing between the two emblems once they are assembled. This spacing is essential for ensuring that the clip 104 is neither compressed nor allowed to shift excessively during use, maintaining the functional geometry of the cord entry path 402, the containment region 406, and the trailing guides 128A/128B. The bottom view shows how the pegs 106 rise from the emblem's interior plane, forming structural posts that ultimately engage the peg receivers 110 on the first emblem, contributing to formation of the cord block plane 404 once assembly is complete.

[0179] Referring to FIG. 39, there is illustrated one example of a front view of the second emblem 102B, showing the vertical silhouette of the emblem and the relative placement of the recessed clip region 108B and pegs 106 when viewed from the direction corresponding to the forward-facing side of the final assembled product. This view highlights the depth profile of the emblem and how the recessed clip region extends inward from the emblem's interior face. The front view further shows how the pegs 106 are positioned on either side of the recessed clip region, flanking it symmetrically to establish structural balance.

[0180] From this orientation, the viewer can appreciate how the pegs 106 form structural extensions that enclose one end of the recessed clip region 108B, enabling the pegs to act as part of the enclosing boundary that will create the cord block plane 404. When the clip 104 is seated within the recessed region and the emblems are assembled, this positioning ensures that the cord cannot travel into the space behind the clip, thereby preventing jamming or obstruction of the cord pathway. The alignment and positional accuracy demonstrated in this figure reinforce the essential role of the emblem geometry in maintaining the device's functional performance.

[0181] Referring to FIG. 40, there is illustrated one example of a back view of the second emblem 102B, showing the interior architecture from the opposite orientation relative to FIG. 39. This view emphasizes the full shapes and contours of the pegs 106 as they extend inward toward the first emblem during assembly. The back view also highlights how the pegs are structurally integrated into the emblem body, often appearing as molded, cast, or machined extensions that share material continuity with the emblem shell.

[0182] The recessed clip region 108B appears centrally located from this angle and demonstrates the depth necessary to retain the emblem engagement guide of the clip 104. The symmetry of the peg placement around this recessed region illustrates how the pegs establish the structural boundaries that ultimately cooperate with the peg receivers 110 to form the cord block plane 404. This view further clarifies that the pegs 106 are positioned to provide not only alignment and spacing but also a rigid stopping surface that prevents the cord from escaping the functional channel defined by the clip.

[0183] Referring to FIG. 41, there is illustrated one example of a left side view of the second emblem 102B, presenting the side profile of the emblem body and the inward extension of the recessed clip region 108B and one of the pegs 106. From this profile, the depth of the recessed clip region can be seen relative to the emblem's decorative outer surface, showing how the recessed area is engineered to interface with the clip 104 without weakening the structural integrity of the emblem.

[0184] This view also shows the outward-to-inward taper or contour of the peg 106, emphasizing that its height and shape are precisely designed to set the correct spacing between emblems. The location of the peg 106 relative to the sidewalls of the recessed clip region demonstrates how both structural elements work together to form a mechanically stable housing for the clip. The side view further illustrates the relative thickness of the emblem body, supporting the functional role of the emblem as a rigid structural participant, not merely an ornamental cover.

[0185] Referring to FIG. 42, there is illustrated one example of a right side view of the second emblem 102B, showing the mirrored geometry relative to the left side view in FIG. 41. In this view, the second peg 106 is visible, extending inward from the interior surface and maintaining the same designed height as the first peg to ensure uniform spacing across the assembly. The symmetrical placement of these pegs on both sides of the recessed clip region 108B creates paired structural supports that balance the forces applied during assembly and use.

[0186] This side view also emphasizes the alignment role of the pegs, which, when inserted into peg receivers 110 of the first emblem, ensure that the emblems maintain a precise and repeatable spatial configuration. The consistent peg height and positioning relative to the recessed clip region ensure that the clip 104 remains fully seated and correctly aligned, preserving the orientation of the cord pathway and the functionality of the cord block plane 404.

[0187] Referring to FIG. 43, there is illustrated one example of a first perspective view of the second emblem 102B, providing a three-dimensional look at the recessed clip region 108B, the pegs 106, and the keyed peg edges 118 that cooperate with the keyed recess edges 120 in the first emblem. This perspective reveals how the pegs 106 are not merely cylindrical posts but are shaped with keyed peg edges designed to engage with the complementary keyed recess edges of the peg receivers. This engagement prevents rotation of the emblems relative to one another, preserving correct alignment of the clip 104 and ensuring that the cord entry path 402 and containment region 406 face the intended direction.

[0188] From this angle, the recessed clip region 108B appears as a well-defined cavity that provides lateral and vertical confinement of the emblem engagement guide on the clip, maintaining its orientation during cord insertion and removal. The figure also makes clear how the combination of peg placement, peg height, keyed interface geometry, and the recessed clip region collectively establish the internal architecture that forms the cord block plane 404 once the emblems are assembled. The perspective view reinforces that the second emblem 102B contributes equally with the first emblem 102A to the structural rigidity, alignment, and anti-jamming functionality central to the invention.

[0189] Referring to FIG. 44, there is illustrated one example of a second perspective view of the second emblem 102B, presenting a clear and detailed view of the peg receivers 110 and the keyed recess edges 120 that play a central structural and functional role in the invention. In this orientation, the interior-facing surface of the emblem 102B is shown in a three-dimensional manner, revealing how the peg receivers 110 are integrally formed as recessed cavities located on opposite sides of one end of the second recessed clip region 108B. Their symmetrical positioning relative to the recessed clip region establishes the structural spacing and alignment required to secure the clip 104 when the emblems are assembled.

[0190] Each peg receiver 110 extends into the material thickness of the emblem and is engineered with a depth precisely selected to accept a corresponding peg 106 from the first emblem 102A. The depth and internal geometry of each receiver ensure that, when the peg is fully seated, the interior surfaces of the emblems achieve a fixed separation that correctly captures the clip 104 within the recessed clip regions. This controlled spacing is essential to the functionality of the device, as it positions the clip securely while still permitting the critical flexible portions of the clipsuch as the angled entry guides, leading guides, and trailing guidesto flex appropriately during cord insertion and removal. By regulating spacing with such precision, the peg receivers prevent excessive compression or looseness, either of which would degrade performance.

[0191] Prominently visible in this figure is the keyed recess edge 120, incorporated into the internal geometry of each peg receiver 110. The keyed recess edge deviates from a circular or uniformly curved opening and instead provides a planar, faceted, or angular surface that mates directly with the keyed peg edge 118 on the corresponding peg 106. When the peg is inserted into the receiver, the keyed interface restricts rotational freedom and forces the emblem 102B to align in only one correct orientation relative to emblem 102A. This alignment function is crucial because it ensures that the recessed clip regions 108A and 108B on both emblems align correctly with one another, thereby holding the clip 104 in its proper orientation without twist or tilt. As a consequence, the cord entry path 402, containment region 406, and trailing guide geometry of the clip 104 maintain the intended spatial and directional alignment required for reliable cord retention.

[0192] Through this keyed engagement, the peg receivers 110 and keyed recess edges 120 also contribute directly to the formation of the cord block plane 404 once the pegs are fully seated. The controlled alignment and spacing of the pegs and receivers create a rigid transverse barrier at the end of the clip 104 that prevents the cord 304 from traveling beyond the trailing guides and becoming wedged behind the clipthus performing one of the most important and novel functions of the invention. The keyed engagement also reinforces the mechanical connection between the emblems by increasing torsional resistance and ensuring that the assembly does not rotate or loosen under repeated cord manipulation. Because the peg cannot fully insert unless the keyed peg edge is correctly aligned with the keyed recess edge, the system inherently prevents incorrect assembly and ensures consistent performance in mass production.

[0193] Accordingly, FIG. 44 demonstrates that the peg receivers 110 and keyed recess edges 120 of the second emblem 102B are not merely fastening features but structural alignment and spacing mechanisms that work in cooperation with the clip 104 to define the operative geometry of the clothing string clip 100. Their form and function govern the orientation, spacing, and stability of the assembled device and are therefore central to the novelty and reliability of the invention.

[0194] Referring to FIG. 45, there is illustrated one example of a second perspective view of the second emblem 102B, providing an angled three-dimensional orientation that reveals the relative spatial arrangement between the recessed clip region 108B, the at least two pegs 106, and the keyed peg edges 118 formed along the outer perimeter of each peg. In this perspective, the recessed clip region 108B appears as a contoured cavity that extends inward from the interior face of the emblem, shaped to receive and confine one of the emblem engagement guides of the clip 104 with a degree of precision that ensures correct vertical, lateral, and angular seating of the clip within the final assembly.

[0195] The two pegs 106 are positioned symmetrically on opposite sides of the recessed clip region, projecting inward with a predetermined height engineered to establish the final spacing between the second emblem 102B and the first emblem 102A once they are joined. The height of these pegs is deliberately selected to retain the clip 104 between the emblems without excessive compression, thereby maintaining the functional geometry of the cord entry path 402, the cord containment region 406, and all related guide structures of the clip. In this view, the keyed peg edges 118 are visible as flattened, faceted, or otherwise non-circular features that run along a defined portion of each peg's perimeter. These keyed edges mechanically cooperate with the keyed recess edges 120 of the first emblem's peg receivers to constrain rotational movement and ensure proper emblem-to-emblem orientation.

[0196] Referring to FIG. 46, there is illustrated one example of a third perspective view of the second emblem 102B, offering a viewpoint that highlights the depth of the recessed clip region 108B and the three-dimensional structure of the pegs 106 in relation to the emblem's interior face. From this perspective, the recessed clip region 108B appears as a shaped receptacle with sidewalls and a floor that together form a geometrically stable pocket for receiving the emblem engagement guide of the clip 104. This pocket is designed to restrain lateral shifting of the clip while allowing limited elastic flexure of the clip's guide structures, ensuring that the cord 304 can be inserted and removed reliably even under repeated use.

[0197] The perspective also reveals the orientation and profile of the pegs 106, particularly the keyed peg edges 118, which appear as planar or faceted regions interrupting the otherwise cylindrical shape of the pegs. These keyed surfaces ensure that when the pegs are inserted into the peg receivers 110 of the first emblem, the keyed recess edges 120 engage in a matching angular orientation. This mutual engagement prevents relative twisting of the emblems, which would otherwise misalign the clip 104 and compromise the geometry of the cord entry path 402 and the cord pinch and retention features within the containment region 406.

[0198] From this viewing angle, the vertical extension of the pegs also shows how they define the emblem-to-emblem spacing, which in turn establishes a controlled compression envelope around the clip 104. This spacing ensures that while the clip is held securely within the recessed clip regions of both emblems, the clip retains sufficient flex capability at the angled entry guides, leading guides, and trailing guides to allow smooth insertion and removal of the cord 304. The third perspective view thus reinforces the cooperative structural relationship between the recessed clip region 108B, the pegs 106, and the keyed peg edges 118, collectively demonstrating how these features contribute to the formation of the cord block plane 404 upon assembly, preventing rearward cord migration and ensuring robust, predictable clip performance.

Exemplary Embodiments

[0199] The invention includes several related embodiments of a clothing string clip that together form a coherent structural and functional system composed of a clip, a pair of emblems, and an interaction of pegs, peg receivers, and recessed clip regions that cooperate to guide, retain, and prevent jamming of a cord. Across all embodiments, the fundamental operation relies upon the controlled flexure of the clip, the restrained spatial positioning established by the emblems, and the formation of a transverse cord block plane that inhibits the cord from traveling into areas where it could bind or become lodged. The following description sets forth the functional relationships and structural logic of every embodiment disclosed, expressed in a unified narrative form to support the full scope of the claimed invention.

[0200] In one embodiment, the clothing string clip includes a first emblem and a second emblem, each having an interior surface shaped to receive portions of the clip. These interior surfaces incorporate recessed clip regions that partially encompass the clip, helping to define the vertical, lateral, and angular position of the clip within the assembly. The depth and geometry of the recessed clip regions are selected such that the clip is retained in a stable manner but allowed sufficient flexure to perform its operational functions. The recessed regions operate in cooperation with emblem engagement guides formed along the clip, allowing the clip to seat within the emblems in a repeatable and predictable manner. These engagement guides can be shaped ribs, protrusions, or contoured members that align with the recessed regions to reduce unintended dislodgement or drift of the clip during use.

[0201] Alongside the recessed clip regions, the first and second emblems each include structural components that serve as the primary fastening features: at least two pegs projecting from one emblem, and at least two peg receivers formed in the other. These pegs are arranged on opposite sides of the recessed clip region and positioned proximate one end of the clip so that, upon assembly, the pegs and receivers form lateral boundaries that define a cord block plane. This plane serves as a firm structural stop that prevents a cord from passing rearward into the region behind the trailing guides of the clip. The height of the pegs and the depth of the peg receivers are chosen such that, when the two emblems are brought together, the pegs fully seat within the receivers and the interior surfaces of the emblems maintain a spacing that captures the clip without crushing it or allowing excessive play. This fixed spacing enables the clip to flex at its functional regionssuch as the angled entry guides, leading guides, trailing guides, the cord pinch point, and the cord retention ridgewhile preventing twist, deformation, or inadvertent removal of the clip from the recesses.

[0202] In some versions, the pegs and peg receivers include keyed features that ensure proper orientation and alignment. The pegs may incorporate a keyed peg edge, and the peg receivers may incorporate a keyed recess edge. These keyed surfaces restrict rotational movement and require the emblems to join only in the correct angular orientation. This precision alignment ensures that the recessed clip regions of both emblems align with each other and with the clip itself so that the cord entry path, containment region, and trailing guides are consistently positioned in the intended orientation relative to the user. Additionally, keyed alignment ensures that decorative external features of the emblems, such as molded artwork, printed elements, logo plates, interchangeable decorative inserts, or other aesthetic components, maintain their intended visual alignment when the device is assembled.

[0203] The clip itself incorporates a structured cord pathway composed of several distinct zones that progressively guide the cord from entry to containment. At the forward end of the clip is a cord entry path defined by rounded entry edges and angled entry guides. These features work together to funnel the cord smoothly into the interior of the clip, reducing snagging or binding as the user slides the clip onto a cord. As the cord travels further into the clip, it encounters leading guides arranged on opposing sides of the pathway. These leading guides help to center the cord, provide gentle friction, and transition the cord into the containment region.

[0204] The containment region is shaped by a cord retention ridge on one side of the clip and a cord pinch point on the opposite side. These features cooperate to grip the cord through a frictional interface, applying controlled pressure sufficient to prevent unintended movement of the cord while allowing the user to reposition the clip manually when desired. The pinch point and retention ridge create a compressive gripping effect that holds the cord securely but without damage. The friction profile created by these surfaces is influenced by the thickness of the clip, the material properties of the clip, and the flex characteristics engineered into the various guide structures.

[0205] Beyond the containment region, trailing guides extend toward the rear of the clip. The trailing guides may flex outward slightly in some embodiments, providing a gentle gripping region that stabilizes the cord while allowing the clip to release the cord when the user intentionally withdraws it. These guides shape the rear boundary of the cord pathway and establish the region that must remain isolated from the space behind the clip. To prevent the cord from being pulled into that rearward spacewhere it might become lodgedthe peg-and-receiver assembly forms the cord block plane, a transverse structural wall that entirely blocks cord movement beyond the intended pathway. The cooperation between the trailing guides and the cord block plane is a central feature of the invention, ensuring that the cord travels only where intended and avoiding jamming scenarios common in poorly controlled cord ornaments and clips.

[0206] In other embodiments, the clip may include a closed-end connector that bridges two emblem engagement guides. This connector improves structural continuity and ensures that the clip maintains its intended shape despite repeated loading cycles as the cord is inserted and removed. The presence of the connector also helps prevent twisting or torque-induced misalignment of the clip relative to the recessed clip regions.

[0207] Across embodiments, the clip may be formed with a uniform thickness, enabling predictable flexing behavior. Uniform thickness may simplify mass production, especially when the clip is molded, extruded, or cut from sheet material and subsequently folded into shape. However, other embodiments may introduce thickness variation to tune mechanical stiffness, enhance directional flexure, or strengthen high-stress regions such as the pinch point or retention ridge. Material choices for the clip and the emblems may include plastics, metals, elastomers, composite materials, or combinations thereof, enabling a wide range of mechanical characteristics depending on the intended application.

[0208] In certain embodiments, the emblems may be interchangeable or replaceable, providing opportunities for user customization. Decorative elements may be molded into the emblems, printed onto their surfaces, or inserted into recessed cavities designed to hold artwork. Because the clip is retained by structural engagement rather than permanent bonding, the emblems may be removed and replaced as desired. The device may be sized to accept various types of cords beyond traditional garment drawstrings, including backpack straps, compression cords, purse straps, lanyard strings, and similar structures. When worn by a user, these cords function similarly to clothing strings, and the clip performs its cord-retaining and anti-jamming functions regardless of the host article.

[0209] Methods of using the disclosed clothing string clip correspond directly to the structural features described. The user introduces the cord into the entry region, allowing the rounded edges and angled guides to assist in self-centering the cord. As the cord advances, it slides through the leading guides and enters the containment region, where the retention ridge and pinch point apply a frictional gripping force. When the cord is pulled in either direction, the frictional surfaces securely engage the cord but permit manual repositioning. The trailing guides stabilize the cord as it exits the clip, and the cord block plane prevents the cord from being pulled behind the clip assembly. At all times, the aligned emblems maintain the clip in its correct orientation, ensuring reliable performance.

[0210] Together, these embodiments illustrate a comprehensive system for clipping onto, retaining, guiding, and preventing jamming of cords in a compact, decorative, structurally engineered device. Each structural feature described contributes to the functional integrity of the invention, and all variations remain within the scope of the disclosed inventive concept.

In Operation

[0211] The clothing string clip operates through a coordinated interaction of its internal clip geometry, its emblem-based housing, and the fastening system defined by the pegs and peg receivers. In use, the device is configured to receive a cord, guide that cord through a structured pathway, apply controlled frictional engagement to retain the cord, and ultimately prevent the cord from migrating into regions of the assembly where it could bind or become jammed. The following description outlines the operation of the device in detail, emphasizing the dynamic relationships between the structural components as the user interacts with the clip.

[0212] During normal use, a user positions a section of cord adjacent the front end of the clip, in proximity to the cord entry path. The rounded entry edges formed at the forward end of the clip present smooth, contoured surfaces that allow the cord to self-align as it is introduced. The angled entry guides adjacent these rounded edges act as funneling structures, narrowing toward the interior of the clip and gently directing the cord into the functional body of the device. As the user advances the cord further into the clip, the cord encounters the leading guides positioned on opposite sides of the pathway. These guides stabilize the orientation of the cord, reduce lateral drift, and encourage proper tracking toward the containment region deeper within the clip.

[0213] As the cord progresses, it reaches the containment region, which is defined by the spatial relationship between the cord retention ridge on one interior surface of the clip and the cord pinch point on the opposite surface. This region is engineered to apply compressive, friction-producing forces onto the cord. The retention ridge presents a raised, contoured element that applies pressure against the cord, while the pinch point forms a complementary projection that presses the cord back toward the ridge. As the cord passes between these structures, frictional engagement is produced, sufficient to resist unintentional movement of the cord while still allowing the user to reposition the clip manually. The controlled compression in this region is influenced by the flexibility of the clip material, the thickness distribution of the clip body, and the engineered resilience of the leading and trailing guides that flank the containment region.

[0214] As the user continues to advance or withdraw the cord, the trailing guides positioned at the rearward end of the clip provide additional stabilization. These trailing guides are partially free-ended structures designed to flex outward when the cord is introduced or removed. Because they are unconnected at their trailing ends, the guides can deflect slightly, allowing the cord to pass while still exerting a degree of friction. This outward flexure helps maintain the cord in proper alignment during longitudinal movement and reduces the likelihood of abrupt disengagement.

[0215] The operation of the clip is enhanced dramatically by the structural cooperation between the clip and the emblem assembly. When the clip is positioned between the first and second emblems, the recessed clip regions partially envelop the clip, ensuring that its orientation and functioning geometry remain stable throughout cord manipulation. The emblem engagement guides on the clip seat within the recessed regions, preventing lateral or rotational displacement. This stable seating is crucial because, without it, the cord entry path, containment region, and trailing guides could shift relative to the visible exterior faces of the emblems, diminishing performance or aesthetics.

[0216] The pegs on one emblem and the corresponding peg receivers on the other play a decisive role in defining the operational behavior of the clip. When the user assembles the deviceor when the device is provided in preassembled conditionthe pegs enter the peg receivers and secure the emblems at a defined spacing that corresponds precisely to the thickness and geometry of the clip. This spacing allows the clip to flex in its intended regions without becoming compressed or deformed by excessive constriction between the emblems. The keyed features of the pegs and peg receivers force proper rotational alignment of the emblems, ensuring that the recessed clip regions align with each other and with the clip, which preserves the designed geometry of the cord pathway.

[0217] As the user manipulates the cord, the most important operational consequence of the emblem assembly is the formation of the cord block plane. When the pegs fully seat within the peg receivers, their combined presence establishes a rigid transverse barrier located behind the trailing guides of the clip. During use, if a user inadvertently applies a force that might otherwise pull the cord into a gap behind the clip, the cord block plane prevents such entry. This barrier ensures that the cord remains confined to the intended pathway and cannot become trapped or wedged behind the clipan issue common in devices that lack structural boundaries in the rearward region of a cord pathway. By preventing rearward migration of the cord, the cord block plane produces reliable, jam-free operation and preserves the integrity of the user experience.

[0218] Once the cord is engaged within the containment region and stabilized by the trailing guides, the clip resists movement unless intentionally repositioned by the user. During intentional repositioning, the user applies longitudinal force to the clip, overcoming the frictional forces applied by the retention ridge and pinch point. The flexural characteristics of the clip allow the various guides to bend subtly under load, accommodating the desired movement of the cord without damage to the cord or the clip. After repositioning, the frictional interfaces reestablish their grip, holding the cord securely in place.

[0219] In all embodiments, operation remains consistent whether the clothing string clip is used on a garment drawstring, backpack cord, purse strap, lanyard cord, or any similar structure. In each case, the clip guides the cord into the containment region, retains it through controlled friction, stabilizes the cord through flexing guide structures, and prevents unwanted rearward travel through the cooperation of the peg-receiver assembly that forms the cord block plane. The emblems maintain structural alignment and spacing, enhance appearance, and may be interchanged or replaced without affecting the underlying operation of the clip.

[0220] Through these interactions, the device delivers a repeatable, intuitive, and reliable operational experience, distinguishing it from prior clips or ornaments that lack controlled flexure, alignment, or anti-jamming structural features.

Alternative Embodiments

[0221] The clothing string clip described above may be implemented in numerous alternative embodiments without departing from the inventive principles disclosed herein. The variations described in this section illustrate different structural configurations, material choices, functional expansions, and aesthetic adaptations that fall within the scope of the inventive concept. These embodiments share the core functional architecture of a clip retained between two emblem structures by way of pegs, peg receivers, and recessed clip regions, along with the formation of a cord block plane and a progressive cord pathway engineered to guide and retain a cord while preventing jamming.

[0222] In some embodiments, the emblems may be formed as multi-piece decorative housings that accept interchangeable faceplates, badges, inserts, molded rubber decorations, or textile appliqus. These decorative components may be attached using adhesive films, snap-fit tabs, magnetic couplers, hook-and-loop fasteners, or thermoplastic bonding. The decorative faces may be shaped as characters, logos, geometric figures, symbols, initials, team emblems, or themed artwork intended to align with apparel collections. In such embodiments, the interior structural featuresincluding the recessed clip regions, peg receivers, keyed recess edges, and support ribsremain integral and load-bearing, while the external decorative surface may be freely exchanged without affecting cord retention performance.

[0223] In another embodiment, the emblems may be constructed with enhanced structural rigidity to accommodate larger or heavier decorative attachments. For example, the emblems may incorporate internal reinforcement fins, thickened peripheral walls, or rib structures that distribute force across a larger area of the emblem body. This allows the clip to maintain alignment and spacing between the emblems even when the decorative features are oversized or extend outward from the emblem perimeter. The peg-and-receiver assembly continues to maintain proper orientation and ensure that the cord block plane remains uncompromised.

[0224] In yet another variation, the clip may be configured with adjusted geometry that modifies the degree of friction applied to the cord. The cord retention ridge may be enlarged, softened, beveled, textured, or coated with a low-friction or high-friction material depending on the intended user experience. Likewise, the cord pinch point may have increased curvature, a reduced thickness to promote enhanced flex, or a more aggressive gripping profile to increase retention force. These adjustments allow the clip to operate reliably with cords of different diameters, materials, surface finishes, or elongation characteristics. For example, apparel drawstrings often exhibit soft, compressible surfaces, whereas backpack cords and lanyard cords may be stiffer or smoother; the clip design may be adapted to these differences through geometric tuning of the retention ridge and pinch point.

[0225] Certain embodiments contemplate alternative methods of fastening the emblems together. While the pegs and peg receivers constitute the primary fastening mechanism, additional fastening techniques may be included when desirable. These may include ultrasonic welding, thermal staking, solvent bonding, snap-fit locking tabs, keyed twist-lock couplers, magnetic latching systems, or threaded fasteners. In each of these variations, the peg-receiver system may still be present and may continue to provide orientation control, spacing definition, and cord block plane formation, even if not serving as the sole mechanical fastening means. These hybrid fastening arrangements may be desirable in versions intended for rugged outdoor environments or for children's products where enhanced retention strength is preferred.

[0226] In some embodiments, the clip may not have a strictly uniform thickness. Instead, the clip may incorporate regions of varying thickness or tapered cross-sections to control flexure more precisely. Thicker regions may resist bending and provide greater structural durability, while thinner regions may allow targeted deflection at specific points along the cord pathway, such as the angled entry guides or trailing guides. Likewise, the closed-end connector may be modified in size, curvature, or stiffness to tune the behavior of the emblem engagement guides and ensure stable seating within the recessed clip regions.

[0227] The invention may also be adapted to a wide variety of cord-bearing products beyond conventional clothing. For example, the clothing string clip may be attached to backpack straps, compression cords, purse straps, camera straps, pet accessory cords, or lanyards used for identification badges. In these applications, the cord or strap effectively functions as a clothing string when worn or carried by a user, and the clip performs its anti-jamming and cord retention functions in the same manner. The clip's geometry may be scaled for larger cords, and the emblem bodies may be enlarged or shaped to better suit the aesthetic or mechanical needs of the specific product category.

[0228] Alternative embodiments may employ different materials suited to environmental performance requirements. The emblems may be formed of rigid thermoplastics such as ABS, polycarbonate, or nylon; elastomer-reinforced plastics for enhanced impact resistance; metals such as aluminum or stainless steel; or hybrid polymer-metal composites. The clip may be formed from acetal, polypropylene, polyethylene, thermoplastic elastomers, spring steels, or specialty composites depending on the desired balance of flexure, spring memory, durability, and manufacturability. In outdoor applications, UV-resistant materials may be selected; in children's products, non-toxic and chew-resistant materials may be used.

[0229] In another variation, the pegs may incorporate internal cavities, ribs, or reinforcing spines to adjust compressive strength or insertion characteristics. The keyed peg edge may be expanded into a multi-facet configuration to increase torsional resistance. Similarly, the peg receivers may incorporate angled lead-in surfaces, chamfers, or undercuts to ease assembly and improve alignment accuracy. These enhancements may be particularly valuable in automated assembly environments, where consistent emblem alignment is essential to maintaining product tolerances.

[0230] Additional embodiments may provide adjustability or removability of the clip itself. The clip may be configured to slide out of the emblems when the pegs are partially disengaged or when the emblems are separated. This allows an end user to replace a worn clip, substitute a clip of a different stiffness or geometry, or transfer decorative emblems between multiple clips. Such interchangeability increases product longevity and supports user customization without compromising the performance of the cord pathway or the integrity of the cord block plane.

[0231] Variations of the invention may also include optional safety features. For example, the clip may incorporate release thresholds that allow the cord to disengage under sudden high loads, reducing risk of entanglement. The cord block plane may be engineered with frangible or flexible segments that deform under excessive force, preventing damage to the user's garment or strap. These safety variations maintain the invention's core structural relationships while providing additional operational benefits tailored to specific markets.

[0232] Across all alternative embodiments, the underlying functional principles remain the same. A clip is supported between two emblems at a controlled spacing that allows flexing but prevents dislodgement; a structured cord pathway guides the cord into a containment region that grips the cord through frictional engagement; and a structural plane between the pegs and peg receivers forms an anti-jamming boundary that preserves smooth operation. Each of the described variations remains fully consistent with the inventive concept and demonstrates the adaptability and extensibility of the clothing string clip design.

Advantages of the Invention

[0233] The disclosed clothing string clip provides numerous advantages over conventional cord ornaments, cord locks, decorative charms, and cord-retention devices. These advantages arise from the coordinated interaction of the clip, the emblems, the fastening structures, and the progressive cord-guiding geometry, all of which operate together to deliver reliability, safety, ease of use, structural stability, and customization capabilities that have not been achievable with prior designs.

[0234] One significant advantage is the improved ability of the device to retain a cord securely without relying on knots, clamps, or pinch mechanisms that damage or permanently deform the cord. The progressive pathway defined by the rounded entry edges, angled entry guides, leading guides, containment region, and trailing guides ensures that the cord is smoothly inserted and evenly gripped. The frictional interface between the cord retention ridge and the pinch point applies controlled pressure sufficient to prevent unintended cord movement while still allowing the user to reposition the clip with minimal effort. This operation provides a balance between retention and adjustability, enabling the clip to function reliably across a wide range of cord thicknesses, materials, and applications.

[0235] Another substantial advantage is the prevention of cord jamminga recurring problem in decorative cord accessories and prior ornamental devices. In the disclosed clip, the structural cooperation of the pegs and peg receivers forms a rigid cord block plane behind the trailing guides. This barrier prohibits the cord from slipping into the space behind the clip, a condition that typically results in frustrating entanglement and may require forceful or damaging efforts to remove the cord. By preventing the cord from entering this unintended region, the invention ensures a consistently smooth user experience and eliminates the need for special tools or excessive force to reposition or remove the clip.

[0236] The keyed interface between the pegs and peg receivers offers yet another advantage by ensuring proper orientation of the emblems and consistent positioning of the clip. This feature prevents rotational misalignment, which could otherwise distort the placement of the clip relative to the cord pathway, diminish the effectiveness of the cord retention features, or disrupt the appearance of decorative elements. The keyed system ensures that every assembly of the product is aligned correctly, supporting high-volume manufacturing and reducing the risk of assembly-related performance failures.

[0237] The recessed clip regions and emblem engagement guides further contribute to the overall advantages by providing a stable housing that protects the clip while still permitting essential flexing behaviors. These features allow the clip to withstand repeated cycles of cord insertion, removal, and repositioning without detaching or drifting within the emblem assembly. The structural support provided by the emblems increases the functional lifespan of the clip and facilitates adaptability across a wide variety of products, including garments, backpacks, purses, and lanyards.

[0238] Another advantage of the invention is its compatibility with aesthetic customization. Because the emblems can be molded, printed, embossed, or provided with attachable decorative inserts, the user or manufacturer can tailor the appearance of the clothing string clip without altering its underlying mechanical performance. This dual-function designwherein the outer surfaces support artistic variation while the interior structures preserve precise engineeringprovides opportunities for branding, personalization, team identification, fashion coordination, and themed product releases. The emblems may also be interchangeable, allowing a single clip to serve as the base for multiple decorative themes.

[0239] The modular and scalable nature of the invention offers additional advantages. The clip geometry can be scaled up or down to suit different cord diameters, and the materials used for both the clip and the emblems may be varied to achieve specific performance goals such as increased stiffness, enhanced resilience, reduced weight, or improved environmental durability. For outdoor or heavy-use applications, weather-resistant, UV-stabilized, or reinforced materials may be employed. For children's products, soft-touch plastics or chew-resistant materials may be used. The invention thereby provides a platform adaptable to diverse market needs without sacrificing core functionality.

[0240] From a manufacturing standpoint, the invention supports ease of production, consistency in assembly, and compatibility with automated processes. The uniform or selectively varied thickness of the clip facilitates molding or stamping, while the keyed peg-and-receiver system provides self-aligning assembly that reduces error rates, minimizes assembly time, and supports high-throughput production. The ability to fabricate the clip from a folded or molded uniform sheet further contributes to manufacturing repeatability and cost efficiency.

[0241] Finally, the invention offers substantial advantages in user safety and reliability. By preventing cords from becoming trapped in unexpected locations and by allowing controlled release through predictable flexure of the guide structures, the clothing string clip reduces the likelihood of accidental entanglement, garment damage, or sudden release that could surprise or injure the user. This reliability, combined with the flexibility for aesthetic personalization, makes the device suitable for a wide range of consumers and end-use scenarios.

[0242] While the preferred embodiment of the invention has been described, it will be understood that those skilled in the art, both now and in the future, may make various improvements and enhancements which fall within the scope of the claims which follow. These claims should be construed to maintain the proper protection for the invention first described.