Silver Balls Description
Silver Balls are known for their remarkable combination of physical and chemical properties, making them versatile in a wide range of industrial applications. These spherical products are typically composed of high-purity silver or silver-coated materials, which grant them superior electrical and thermal conductivity—essential for applications in electronics, such as in conductive coatings, connectors, and precision components.
In addition to their conductive properties, Silver Balls exhibit strong antimicrobial effects, making them valuable in medical devices, water purification systems, and other environments where sterility is crucial. Their chemical stability and resistance to oxidation and corrosion further enhance their reliability and longevity, particularly in harsh environments.
The high reflectivity and polished surface of Silver Balls also make them desirable for decorative purposes, as well as in optical devices where light reflection and focus are necessary. Moreover, their malleability allows them to be easily formed into precise shapes, maintaining tight tolerances for use in high-precision industries, such as aerospace and telecommunications. Overall, Silver Balls are a critical component in a variety of fields, valued for their durability, efficiency, and multifunctional capabilities.
Silver Balls Specifications
Molecular Weight
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107.87
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CAS Number
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7440-22-4
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Diameter
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0.5mm
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Appearance
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Silver solid
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Melting Point
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961.78 °C
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Boiling Point
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2162 °C
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Density
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10.49 g/cm3
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Electrical Resistivity
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1.586 nΩ ·cm (20 °C)
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Electronegativity
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1.93 Paulings
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Heat of Fusion
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11.28 kJ ·mol -1
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Heat of Vaporization
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250.58 kJ ·mol-1
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Poisson's Ratio
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0.37
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Specific Heat
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0.233 J/gm ·K
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Thermal Conductivity
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429 W ·m-1·K-1
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Thermal Expansion
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(25 °C) 18.9 µm·m-1·K-1
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Vickers Hardness
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251 MPa
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Young's Modulus
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83 GPa
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Silver Balls Applications
Silver Balls are versatile components widely used across various industries due to their exceptional properties. In electronics and electrical engineering, they serve in connectors, switches, and circuit boards, where their high electrical conductivity is critical. In the medical field, their antimicrobial properties make them ideal for use in medical devices, implants, and sterilization processes. Additionally, Silver Balls function as catalysts in chemical reactions, particularly in oxidation processes, and are crucial in optical devices requiring high reflectivity and precision, such as mirrors and lenses. Their aesthetic appeal also makes them popular in jewelry, art installations, and decorative applications. Furthermore, they are utilized in aerospace and telecommunications for high-precision components, in water purification systems for their antimicrobial effects, and as surface coatings to enhance conductivity and prevent corrosion. This wide array of applications underscores the importance of Silver Balls in enhancing the performance and durability of products across diverse industries.
Silver Balls Packing
Our Silver Balls are carefully handled during storage and transportation to preserve the quality of our product in its original condition.
Silver Balls FAQ
Q1: What are the key material specifications of Silver Balls?
A1: Silver Balls are typically made from high-purity silver or silver-coated materials. They offer excellent electrical conductivity, thermal conductivity, and resistance to corrosion. Detailed material specifications, including purity levels, sizes, and tolerances, can be provided upon request.
Q2: Are Silver Balls suitable for use in medical applications?
A2: Yes, Silver Balls are widely used in medical applications due to their strong antimicrobial properties. They are suitable for use in medical devices, implants, and sterilization processes. Our products meet relevant medical-grade standards, ensuring safety and effectiveness in healthcare settings.
Q3: How do Silver Balls perform under high-temperature conditions?
A3: Silver Balls are known for their thermal stability and high melting point, making them suitable for high-temperature applications. They maintain their structural integrity and conductivity even in extreme conditions, which is essential for use in electronics, aerospace, and other demanding environments.