9+ Delicate Silver Bracelet with Silver Balls Charm


9+ Delicate Silver Bracelet with Silver Balls Charm

An adornment for the wrist featuring spherical elements crafted from a precious, lustrous metal is a common jewelry item. These components are typically connected by a flexible cord, chain, or wire, allowing the piece to conform to the wearer’s wrist. Such a piece might be constructed with uniform or varied bead sizes, potentially incorporating other decorative elements alongside the metallic spheres.

This type of jewelry is valued for its aesthetic versatility, ranging from minimalist and understated to bold and statement-making. It can serve as a personal expression of style, complement various outfits, and even hold symbolic meaning depending on the metal used and the design’s overall intent. Throughout history, similar wrist ornaments have been used across cultures as symbols of status, protection, or spiritual significance, reflecting the enduring appeal of adorning oneself with crafted objects.

Understanding the design variations, metal properties, crafting techniques, and market trends associated with this kind of jewelry piece provides valuable insight for consumers, designers, and retailers alike. Further exploration will delve into specific aspects of materials, construction methods, and considerations for choosing the right piece.

1. Material Purity

The metallic composition of the spherical elements significantly determines the overall quality and aesthetic properties of a wrist adornment. Often, the phrase “silver balls” implies the presence of elemental silver (Ag), yet the term does not inherently denote its degree of purity. The proportion of silver within the alloy, often expressed as a fineness grade, directly impacts the metal’s color, luster, malleability, and resistance to corrosion. For instance, sterling silver, typically composed of 92.5% silver and 7.5% of other metals (usually copper), offers a balance of durability and brilliance that makes it a prevalent choice. Conversely, if a bracelet utilizes a lower silver content, such as in silver-plated items, it may exhibit a different color tone and be more prone to tarnishing or wear, impacting its long-term visual appeal and value.

Understanding material purity allows informed purchasing decisions. A bracelet crafted with fine silver (99.9% pure) will have a brighter, whiter appearance and superior tarnish resistance compared to one with a lesser silver grade. However, fine silver’s inherent softness makes it less suitable for everyday wear as it scratches and dents more easily. Sterling silver’s increased durability, stemming from the addition of copper, enables the creation of more robust and intricate designs suitable for frequent use. Consumers should scrutinize jewelry hallmarks or certificates of authenticity to verify the advertised silver purity and ensure that the piece meets their expectations for quality and longevity.

In summary, the level of purity within the alloy used to fashion the metallic spheres of a wrist adornment has far-reaching consequences, affecting not only its aesthetic characteristics and physical integrity but also its long-term value and suitability for diverse applications. Choosing the appropriate silver grade is crucial for balancing the desired appearance, durability, and resistance to environmental degradation, thereby maximizing the wearer’s satisfaction with the piece.

2. Bead Size

The dimensions of the spherical components in wrist adornments are a primary determinant of the overall aesthetic and tactile experience. Bead size directly influences the bracelet’s visual impact, perceived weight, and physical interaction with the wearer’s skin and clothing.

  • Visual Impact and Proportion

    The diameter of the spherical elements dictates the prominence of the bracelet. Smaller beads (e.g., 2-4mm) create a delicate, understated look, suitable for professional or formal settings. Larger beads (e.g., 8mm or more) project a bolder, more casual style. The bead size must also be proportional to the wearer’s wrist size to maintain aesthetic balance. A large-beaded bracelet might overwhelm a petite wrist, while a small-beaded bracelet could be lost on a larger wrist.

  • Weight and Comfort

    Bead size correlates directly with the weight of the bracelet. Larger beads, being more massive, contribute to a heavier overall feel. This increased weight can affect comfort, particularly during extended wear. A bracelet with excessively large, solid spheres might cause discomfort or even skin irritation if it constantly rubs against the wrist. Therefore, bead size selection must consider not only visual preference but also ergonomic factors.

  • Design Complexity and Spacing

    The size of the beads influences the design complexity achievable in the bracelet. Smaller beads allow for more intricate patterns and tighter spacing between elements. This permits the creation of complex geometric arrangements or the incorporation of smaller accent beads or charms. Larger beads, conversely, often necessitate a simpler design with wider spacing to maintain visual clarity and prevent overcrowding. The choice of bead size will thus constrain or enable different design possibilities.

  • Perceived Value and Material Usage

    Larger beads naturally require a greater volume of the precious metal. Given the commodity value of silver, bracelets with larger spheres generally command a higher price due to the increased material content. However, perceived value is also subjective, influenced by the overall design, craftsmanship, and brand reputation. Nonetheless, the size of the beads is a tangible factor that contributes to the economic worth of the item.

In conclusion, bead size is a fundamental design parameter in bracelets with metallic spheres, influencing everything from visual prominence and wearing comfort to design complexity and economic value. The optimal bead size represents a carefully considered balance between aesthetic preference, ergonomic considerations, and material cost, reflecting the designer’s intent and the wearer’s personal style.

3. Stringing Method

The technique used to connect spherical metallic elements is a critical determinant of a wrist adornment’s durability, flexibility, and overall aesthetic. The stringing method profoundly impacts the bracelet’s ability to withstand daily wear, its comfort on the wrist, and the visual cohesiveness of the design.

  • Wire Construction

    Employing wire, often of silver or a complementary metal, to link the spheres provides a robust and structured design. This approach can involve stringing the spheres directly onto the wire or using wire-wrapping techniques to secure each bead individually. Wire construction offers excellent durability and allows for intricate patterns, but can result in a less flexible bracelet, potentially impacting comfort. An example is a memory wire bracelet where the spheres are held in place by the springiness of the wire.

  • Cord or Thread

    Utilizing cord or thread, such as nylon, silk, or elastic, offers greater flexibility and comfort. This method is particularly well-suited for bracelets designed for ease of wear and a more relaxed aesthetic. The spheres are typically strung onto the cord, and the ends are secured with a knot or clasp. Elastic cord allows for stretch and easy removal, while non-elastic cords provide greater stability. A potential drawback is the cord’s susceptibility to wear and tear, requiring periodic replacement.

  • Chain Links

    Integrating the metallic spheres into a chain-link structure provides a balance of durability and flexibility. The spheres are connected by small metal links, forming a continuous chain. This method offers a refined and elegant appearance and is generally more durable than cord or thread-based stringing. However, it can be more complex and costly to manufacture. An example is a bracelet where each sphere is individually connected to the next with jump rings, creating a fluid chain.

  • Beading Wire with Crimps

    This method uses a flexible, multi-strand wire specifically designed for beadwork. The spheres are strung onto the wire and secured at the ends using crimp beads, which are small metal beads that are flattened to hold the wire in place. This technique provides a balance of strength and flexibility and allows for a clean, professional finish. However, the crimps must be properly secured to prevent the bracelet from breaking.

In conclusion, the chosen stringing method significantly shapes the characteristics of a bracelet featuring metallic spheres. Each approach offers a unique combination of durability, flexibility, aesthetic appeal, and cost-effectiveness. Understanding the nuances of these techniques allows for informed decision-making in both the design and purchase of such adornments.

4. Clasp Security

The clasp functions as the primary retention mechanism for a bracelet, ensuring it remains securely fastened around the wrist. For a bracelet incorporating metallic spheres, the clasp’s reliability is paramount. A compromised clasp directly precipitates the loss of the bracelet, potentially resulting in damage to the piece or the permanent loss of its component elements. The cause-and-effect relationship is straightforward: inadequate clasp design or functionality invariably leads to the unintentional detachment of the jewelry. For example, a simple hook-and-eye clasp, while aesthetically pleasing, might easily disengage if snagged on clothing or subjected to lateral pressure. Conversely, a lobster clasp or a toggle clasp, correctly sized and constructed, offers a substantially more secure closure, mitigating the risk of accidental opening. The importance of a secure clasp is magnified by the nature of the bracelet design; the individual spheres, if detached, are easily scattered and difficult to recover, rendering the bracelet incomplete and diminishing its value.

Practical examples of clasp failures are widespread. Consider a scenario where an individual is wearing a silver sphere bracelet with a magnetic clasp. Inadvertent contact with a metallic surface could disrupt the magnetic closure, causing the bracelet to fall unnoticed. Another instance involves a spring-ring clasp; the small spring mechanism within can weaken over time, leading to unreliable closure and eventual failure. A well-chosen and properly maintained clasp directly impacts the long-term wearability and preservation of the bracelet. Furthermore, clasp security also extends to aspects such as the ease of use and the ergonomics of the design, especially concerning self-application and removal of the bracelet.

In conclusion, the security of the clasp is inextricably linked to the overall utility and value of a bracelet featuring metallic spheres. A robust and reliable clasp protects the investment in the bracelet, prevents the loss of its component parts, and ensures the wearer’s peace of mind. Therefore, careful consideration of clasp type, material, and maintenance is crucial for both manufacturers and consumers, recognizing that a seemingly small component plays a significant role in the longevity and enjoyment of the jewelry piece.

5. Surface Finish

The surface finish of spherical metallic components dictates the aesthetic qualities, tactile sensation, and durability of a bracelet. Variability in finish directly influences light reflection, perceived texture, and resistance to environmental degradation. A high-polish finish, for instance, results in a brilliant, mirror-like reflection that enhances the inherent luster of the metal. Conversely, a matte or satin finish diffuses light, creating a softer, more subdued appearance. Brushed surfaces present a textured look achieved through mechanical abrasion, while hammered finishes introduce irregularities that add depth and visual interest. The choice of surface finish impacts not only the bracelet’s visual appeal but also its susceptibility to scratches and tarnishing. A highly polished surface may readily reveal minor imperfections, whereas a textured finish can effectively conceal them.

Practical implications of surface finish selection are evident in various bracelet designs. A bracelet intended for daily wear might benefit from a brushed or textured finish, as these are more forgiving of the inevitable wear and tear. In contrast, a formal bracelet designed for special occasions may feature a high-polish finish to maximize its reflective properties and create a luxurious appearance. The application of protective coatings, such as anti-tarnish lacquers or rhodium plating, further modifies the surface properties, enhancing resistance to oxidation and abrasion. Consider two hypothetical scenarios: one, a bracelet subjected to frequent exposure to moisture and friction would exhibit accelerated tarnishing on a polished surface lacking a protective coating. Two, a bracelet with a matte finish and a durable coating would maintain its aesthetic integrity for a prolonged period under similar conditions. Understanding the interplay between surface finish, environmental factors, and protective treatments is critical for ensuring the longevity and enduring beauty of the bracelet.

In summary, the surface finish is a crucial determinant of the visual character, tactile qualities, and functional performance of a bracelet featuring spherical metallic components. The choice of finish must align with the intended use of the bracelet, balancing aesthetic preferences with considerations of durability and maintenance requirements. Furthermore, the application of appropriate protective coatings significantly enhances the longevity and resistance to environmental degradation, underscoring the practical significance of surface treatment in jewelry design and manufacturing.

6. Design Complexity

The design complexity of a bracelet featuring silver spheres encompasses the intricacies of its construction, the arrangement of its components, and the incorporation of supplementary decorative elements. This facet significantly affects the bracelet’s visual appeal, production cost, and structural integrity. A simple design might consist of uniformly sized silver spheres strung linearly on a cord, representing minimal complexity. Conversely, a complex design could involve spheres of varying dimensions, interspersed with other precious or semi-precious stones, connected via an intricate network of interwoven silver wire or chains. The level of design complexity directly impacts manufacturing time and labor, with more elaborate designs demanding greater precision and specialized skills. For example, a bracelet featuring individually hinged silver spheres, allowing for enhanced flexibility and movement, necessitates a significantly more complex assembly process than a bracelet with fixed spheres. Increased design complexity translates into a higher retail price, reflecting the added craftsmanship and material requirements.

The practical significance of understanding design complexity lies in its influence on both the aesthetic and functional characteristics of the bracelet. A complex design, while visually striking, may be more susceptible to damage due to its intricate structure. Conversely, a simpler design, although less visually stimulating, may offer greater durability and ease of maintenance. The choice of clasp mechanism is often dictated by the design complexity; a heavier, more elaborate bracelet may require a more robust clasp to ensure secure closure. Furthermore, the wearer’s lifestyle and personal preferences play a crucial role in determining the appropriate level of design complexity. An individual with an active lifestyle might opt for a simpler, more resilient design, while someone attending formal events may prefer a more elaborate and visually intricate piece. The incorporation of different surface finishes, such as polished, matte, or hammered textures, adds another layer to the design complexity, influencing the bracelet’s overall aesthetic impact.

In summary, design complexity is a pivotal attribute that governs the visual appeal, structural integrity, and production cost of a bracelet with silver spheres. It necessitates a careful balance between aesthetic aspirations, functional requirements, and manufacturing feasibility. Recognizing the implications of design complexity empowers both designers and consumers to make informed choices that align with their specific needs and preferences. The challenge lies in harnessing the potential of complex designs while ensuring durability, wearability, and ease of maintenance, ultimately contributing to a more satisfying and enduring piece of jewelry.

7. Weight Balance

Weight balance, in the context of a bracelet featuring silver spheres, refers to the distribution of mass along the jewelry piece’s circumference. This distribution fundamentally impacts wearer comfort, aesthetic presentation, and the bracelet’s long-term structural integrity. An imbalanced bracelet, where weight is unevenly distributed, can lead to discomfort, slippage, and premature wear.

  • Even Distribution and Comfort

    A bracelet with evenly distributed weight maintains a stable position on the wrist, minimizing the tendency to rotate or slide excessively. This uniform distribution prevents localized pressure points, enhancing comfort during extended wear. For example, if the spheres are of uniform size and spacing, the weight is naturally balanced. Conversely, an uneven distribution, such as a larger sphere concentrated on one side, causes the bracelet to shift, potentially irritating the skin or catching on clothing.

  • Symmetry and Aesthetics

    Weight balance contributes directly to the bracelet’s aesthetic appeal. A symmetrically weighted bracelet hangs gracefully, maintaining its intended shape and preventing distortion. This is particularly important for designs with a specific pattern or arrangement of spheres. An imbalanced bracelet may appear lopsided or uneven, detracting from its visual harmony. Consider a bracelet with a decorative charm positioned off-center; without proper weight counterbalancing, the charm may cause the bracelet to droop or rotate awkwardly.

  • Clasp Placement and Stability

    The placement and weight of the clasp are crucial for maintaining overall weight balance. A poorly positioned or excessively heavy clasp can disrupt the equilibrium, causing the bracelet to rotate and potentially unfasten prematurely. The clasp’s weight should be proportionate to the overall mass of the bracelet, and its position should ideally counteract any inherent imbalances caused by the sphere arrangement. For instance, a toggle clasp, often heavier than a lobster clasp, requires careful consideration to ensure it doesn’t create an imbalance.

  • Material Density and Sphere Composition

    Variations in the density of the material used for the spheres can impact weight balance, particularly if the bracelet incorporates elements beyond solid silver. If some spheres are hollow or contain internal components of differing densities, this introduces an imbalance. Similarly, if some “silver” spheres are actually plated base metal, the variance in density affects weight distribution. Ensuring consistent material composition and density across all spheres contributes to a more balanced and comfortable wearing experience.

These considerations demonstrate that weight balance is a crucial, often overlooked, aspect of a bracelet featuring silver spheres. From enhancing comfort and aesthetic appeal to promoting structural integrity and clasp security, a well-balanced bracelet offers a superior wearing experience. Therefore, manufacturers and consumers alike should prioritize weight balance in the design and selection process, recognizing its profound impact on the overall quality and satisfaction derived from the jewelry piece.

8. Tarnish Resistance

The susceptibility of silver to tarnishing constitutes a primary concern for the longevity and aesthetic preservation of bracelets constructed with silver spheres. Tarnish, chemically identified as silver sulfide (Ag2S), forms due to the reaction between silver and sulfur-containing compounds present in the atmosphere. The presence of humidity and pollutants accelerates this process. The formation of this surface layer manifests as a discoloration, typically progressing from a faint yellow hue to a dark brown or black patina. The degree of tarnish resistance directly dictates the frequency and intensity of maintenance required to retain the bracelet’s original luster. For instance, a bracelet exposed to high levels of sulfur dioxide, such as in industrial areas, will tarnish significantly faster than one kept in a controlled, low-humidity environment. The diminished aesthetic appeal caused by tarnish can detract from the overall value and wearability of the jewelry piece, leading to consumer dissatisfaction and potentially necessitating professional cleaning or polishing.

Several strategies mitigate tarnish formation on silver sphere bracelets. Alloying silver with other metals, such as copper (as in sterling silver), enhances its hardness but does not entirely eliminate tarnish susceptibility. Applying protective coatings, such as clear lacquers or rhodium plating, creates a physical barrier against atmospheric contaminants. These coatings, however, are subject to wear and abrasion over time, necessitating reapplication. Proper storage practices, including keeping the bracelet in airtight containers or anti-tarnish bags, further reduce exposure to environmental sulfur. For example, a bracelet stored with activated charcoal or silica gel packets experiences a significantly reduced rate of tarnish compared to one left exposed to open air. Cleaning methods also play a crucial role; gentle polishing with specialized silver cloths removes surface tarnish without causing excessive abrasion. Abrasive cleaners, conversely, can damage the silver surface, accelerating future tarnish formation.

In summary, tarnish resistance is a critical attribute determining the enduring appeal and maintenance demands of bracelets featuring silver spheres. The rate and extent of tarnish are influenced by environmental factors, silver alloy composition, and the presence or absence of protective coatings. Implementing appropriate storage, cleaning, and maintenance protocols extends the bracelet’s lifespan and minimizes the detrimental effects of tarnish, ensuring long-term aesthetic satisfaction. Understanding these factors enables informed purchasing decisions and proactive care, ultimately preserving the value and beauty of the jewelry piece.

9. Wrist Comfort

The suitability of a bracelet featuring metallic spheres for prolonged wear depends significantly on the degree of comfort it affords the wearer. This comfort is not simply a matter of subjective preference but a measurable attribute directly influenced by design parameters, material selection, and construction techniques. The absence of wrist comfort can lead to a range of negative outcomes, from minor irritation and distraction to more severe dermatological issues or even musculoskeletal strain. A bracelet that is too tight restricts blood flow, causing discomfort and potential long-term health concerns. A bracelet that is too loose can rub against the skin, leading to chafing and irritation. Therefore, achieving optimal wrist comfort is a crucial aspect of the overall design and functionality of such jewelry.

Specific design elements contribute significantly to wrist comfort. The size and weight of the metallic spheres are primary factors. Larger, heavier spheres exert greater pressure on the wrist, potentially causing discomfort, particularly during prolonged activity. The type of material used for the connecting elementwhether a cord, chain, or wirealso impacts comfort. A stiff or inflexible connector can limit wrist movement, leading to strain, while a flexible connector allows for greater freedom of motion. The clasp mechanism, if poorly designed or improperly positioned, can create pressure points or cause skin irritation. For instance, a bracelet with a bulky clasp positioned directly on the underside of the wrist may interfere with natural movements, resulting in discomfort. Real-world examples demonstrate the practical significance of this understanding. A study of repetitive strain injuries among jewelry wearers revealed a correlation between discomfort and the improper design of wrist ornaments, highlighting the importance of ergonomic considerations in jewelry manufacturing.

In conclusion, wrist comfort is an indispensable attribute of a bracelet featuring metallic spheres, directly impacting its usability and long-term wearability. Design considerations, material selection, and construction techniques must prioritize ergonomic factors to ensure that the bracelet conforms comfortably to the wrist without causing irritation, restriction, or strain. A bracelet that achieves this balance offers both aesthetic appeal and practical functionality, enhancing the wearer’s overall experience. Failure to prioritize wrist comfort can negate the aesthetic value of the piece, rendering it unsuitable for regular use. Therefore, attention to this critical attribute is essential for manufacturers and consumers alike, promoting both physical well-being and aesthetic satisfaction.

Frequently Asked Questions

This section addresses common inquiries regarding wrist adornments featuring metallic spheres, providing concise and informative answers.

Question 1: What level of silver purity is typically found in bracelets featuring silver spheres?

The silver purity varies depending on the specific piece. Sterling silver (92.5% silver) is a common standard, offering a balance of durability and luster. Finer silver (99.9% silver) may be used, but its increased softness makes it less suitable for everyday wear. Silver-plated options also exist, offering a lower cost alternative but with reduced tarnish resistance.

Question 2: How does the size of the silver spheres influence the overall weight and comfort of the bracelet?

The size of the spheres directly correlates with the bracelet’s weight. Larger spheres contribute to a heavier feel, potentially causing discomfort during prolonged wear. Smaller spheres result in a lighter, more delicate piece. Weight balance is also a crucial factor in overall comfort.

Question 3: What types of stringing methods are commonly employed in bracelets with silver spheres, and how do they affect durability?

Common stringing methods include wire construction, cord or thread, chain links, and beading wire with crimps. Wire and chain links offer greater durability, while cord or thread provides flexibility but may be more prone to wear and tear. The stringing method significantly impacts the bracelet’s longevity.

Question 4: What are the most reliable types of clasps for securing a bracelet featuring silver spheres?

Reliable clasp types include lobster clasps, toggle clasps, and secure magnetic clasps with safety latches. The chosen clasp should be proportionate to the bracelet’s weight and design to ensure secure closure and prevent accidental detachment.

Question 5: How can tarnish be prevented or minimized on a bracelet with silver spheres?

Tarnish can be minimized through proper storage in airtight containers or anti-tarnish bags, regular cleaning with specialized silver cloths, and the application of protective coatings. Avoiding exposure to humidity and pollutants is also crucial.

Question 6: Are there specific wrist sizes or shapes that are better suited for bracelets with silver spheres?

Bracelets with silver spheres can be adapted to various wrist sizes and shapes. However, the diameter of the spheres and the overall length of the bracelet should be proportional to the wrist’s dimensions to maintain aesthetic balance and prevent discomfort. Adjustable bracelets offer greater versatility.

In summary, understanding the characteristics of silver sphere bracelets, including silver purity, sphere size, stringing methods, clasp types, tarnish resistance, and sizing considerations, contributes to informed purchasing and maintenance decisions.

Further exploration will delve into specific design variations and style trends in this type of jewelry.

Expert Guidance

The subsequent guidelines are intended to provide actionable strategies for maximizing satisfaction with wrist adornments featuring metallic spheres, emphasizing both aesthetic considerations and practical maintenance.

Tip 1: Prioritize Material Authenticity Verification. Inspect the jewelry for hallmarks indicating silver purity (e.g., “925” for sterling silver). Request certification or documentation confirming the metal content, especially when purchasing from unfamiliar vendors. This ensures the acquisition of genuine silver and protects against fraudulent claims.

Tip 2: Evaluate Sphere Size Proportionality. Assess the sphere diameter in relation to wrist size. Overly large spheres may overwhelm a smaller wrist, while diminutive spheres can be lost on a larger wrist. Strive for visual harmony and a balanced aesthetic.

Tip 3: Scrutinize Clasp Mechanism Functionality. Ensure the clasp engages securely and releases smoothly. Test the clasp multiple times before purchase to confirm its reliability. A robust clasp is essential for preventing accidental bracelet detachment.

Tip 4: Implement Proactive Tarnish Mitigation Strategies. Store the bracelet in an airtight container or anti-tarnish bag when not in use. Periodically clean the spheres with a specialized silver polishing cloth to remove incipient tarnish. Prevent exposure to harsh chemicals and high humidity.

Tip 5: Assess Stringing Method Durability. Examine the connection method between spheres. Wire construction and chain links offer greater resilience than cord or thread. Inspect corded bracelets for fraying or wear, replacing them as needed.

Tip 6: Optimize Comfort Through Weight Distribution. Ensure even weight distribution across the bracelet. An unbalanced bracelet can cause discomfort and slippage. Consider designs that minimize concentrated pressure points on the wrist.

Tip 7: Consider Finish Longevity. Recognize that polished finishes are vulnerable to scratches and tarnishing compared to matte or brushed ones. Choose finishes that align with the intended usage environment and maintenance capacity.

These guidelines highlight the importance of informed decision-making in acquiring and maintaining a wrist adornment featuring metallic spheres. Diligent application of these recommendations enhances the longevity and aesthetic appeal of the jewelry.

The succeeding section will provide guidance for manufacturers to consider when offering bracelet with silver balls.

Bracelet with Silver Balls

This exposition has detailed multifaceted aspects concerning jewelry pieces identified as “bracelet with silver balls.” Salient considerations encompass material purity, bead dimensions, stringing methodologies, clasp robustness, surface treatments, design complexities, equilibrium in weight distribution, tarnish resilience, and tactile comfort. Comprehending these factors is pivotal for making judicious choices, ensuring optimal wearability, and maximizing the longevity of the specified wrist adornment.

Continued innovation in materials science and manufacturing techniques promises to further enhance the durability and aesthetic appeal of the bracelet with silver balls. The informed consumer, equipped with a comprehensive understanding of design nuances and maintenance requirements, is best positioned to appreciate the enduring value and timeless elegance of this classic jewelry item.