AMS 4880-C95510 Nickel Aluminum Bronze Product Introduction
Composition chimique
Élément | Pourcentage (%) | Role in the Alloy |
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Avec | 78.00 minutes | Primary constituent, provides base structure and properties |
ressorts de connecteur | 0.20 maximum | Improves corrosion resistance and strength |
Zn | 0.30 maximum | Enhances strength and acts as a deoxidizer |
Fe | 2.00-3.50 | Refines grain structure and increases strength |
Ni | 4.50-5.50 | Improves corrosion resistance and mechanical properties |
Al | 9.70-10.90 | Forms intermetallic compounds, enhancing strength and wear resistance |
Mn | 1,50 maximum | Improves strength and deoxidizes the alloy |
Note: Cu + sum of named elements, 99.8% min. Ni value includes Co. Unless otherwise noted, single values represent maximums.
Propriétés mécaniques
Propriété | Castings <4.0, Heat Treated | Castings 4.0+, Heat Treated |
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Résistance à la traction, min | 105.0 ksi (724 MPa) | 95.0 ksi (655 MPa) |
Yield strength (0.2% Offset), min | 62.5 ksi (431 MPa) | 56.0 ksi (386 MPa) |
Elongation in 4D, min | 9% | 9% |
dureté Brinell | 192 to 248 BHN | 192 to 248 BHN |
Performances à différentes températures
Plage de température | Caractéristiques de performance |
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Low Temperatures (-50°C to 0°C) | Maintains good ductility and toughness |
Température ambiante (20°C à 25°C) | Optimal balance of strength and ductility |
Moderate Temperatures (100°C to 200°C) | Retains good hardness and wear resistance |
Elevated Temperatures (200°C to 300°C) | Slight decrease in strength, but maintains good corrosion resistance |
High Temperatures (300°C to 400°C) | Reduced mechanical properties, but still usable in some applications |
Applications industrielles
Secteur de l'industrie | Specific Applications |
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Aérospatial | Landing gear bushings, bearings in aircraft structures |
Marin | Propellers, pump impellers, valve components in seawater systems |
Pétrole et Gaz | Offshore platform components, subsea equipment |
Automobile | Bushings in suspension systems, gearbox components |
Machinerie industrielle | Wear plates, bushings in heavy machinery |
Exploitation minière | Pump components, conveyor system parts |
La production d'énergie | Turbine components, valve seats in power plants |
Disponibilité de forme et de taille
Former | Gamme de tailles | Remarques |
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Solides | 1/2″ à 9″ DE | – |
Tubes | 1 1/8″ to 13″ O.D. | Consult mill for wall thickness |
Rectangulaires | Jusqu'à 15″ | – |
Standard lengths | 24″ | Consult mill for other lengths |
Bar Stock | Various diameters | Available in round, hexagonal, and square shapes |
Plaque | Jusqu'à 6″ d'épaisseur | Width and length vary by thickness |
Forgeages | Tailles personnalisées | Made to order based on specifications |
Normes de production
Standard | La description |
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AMS 4880 | Aerospace Material Specification for Nickel Aluminum Bronze |
ASTM B150 | Spécification standard pour les tiges, barres et formes en bronze d'aluminium |
ASTM B171 | Standard Specification for Copper-Alloy Plate and Sheet for Pressure Vessels, Condensers, and Heat Exchangers |
SAEJ461 | Wrought Copper and Copper Alloy Heat Exchanger Tube |
MIL-B-21230 | Military Specification for Bronze, Aluminum |
Normes et notes correspondantes dans différents pays
Pays/Région | Norme/qualité | Equivalent Designation |
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Etats-Unis | AMS 4880-C95510 | UNS C95510 |
L'Europe | EN 1982-CC333G | CuAl10Ni5Fe4 |
Japon | JIS H5120-CAC703 | – |
Chine | GB/T 5231-QAl9-4 | – |
Russie | GOST 493-79 Grade BrA9Zh4N4 | – |
Inde | IS 3091 Grade 2 | – |
Australie | AS 2074-CA953 | – |
Welding, Processing, Polishing, Heat Treatment, Cold Processing
Soudage
Méthode de soudage | Pertinence | Remarques |
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Gas Tungsten Arc Welding (GTAW/TIG) | Excellent | Preferred method for high-quality welds |
Gas Metal Arc Welding (GMAW/MIG) | Bon | Suitable for larger components |
Soudage à l'arc métallique protégé (SMAW) | Équitable | Can be used but not preferred |
Soudage par faisceau d'électrons | Excellent | For precision welding in aerospace applications |
Friction Stir Welding | Bon | Emerging method for solid-state joining |
Traitement
Méthode de traitement | Cote d'usinabilité | Remarques |
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Tournant | 50 (0-100 scale) | Use carbide tools for best results |
Fraisage | 50 (0-100 scale) | Moderate cutting speeds recommended |
Forage | 50 (0-100 scale) | Use high-speed steel or carbide drills |
Tableau de données pour | Bon | Suitable for achieving tight tolerances |
Electrical Discharge Machining (EDM) | Excellent | For complex shapes and profiles |
Polissage
Méthode de polissage | Finish Achievable | Remarques |
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Polissage mécanique | Mirror finish | Use progressively finer abrasives |
Électropolissage | High luster | Suitable for complex geometries |
Polissage | High shine | Final step for decorative applications |
Traitement thermique
Heat Treatment Process | Plage de température | But |
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Solution Annealing | 870-900°C | Homogenize microstructure |
Trempe | Rapid cooling to room temperature | Augmente la résistance et la dureté |
Aging | 350-400°C for 2-4 hours | Improve mechanical properties |
Soulagement du stress | 350-400°C for 1-2 hours | Réduire les contraintes internes |
Traitement à froid
Cold Processing Method | Effect on Material | Applications |
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Laminage à froid | Increases strength and hardness | Sheet and strip production |
Étirage à froid | Improves surface finish and dimensional accuracy | Wire and tube production |
Forgeage à froid | Améliore les propriétés mécaniques | Near-net shape components |
Advantages and Disadvantages of Materials
Avantages
Avantage | La description |
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Haute résistance | Excellent tensile and yield strength compared to many other copper alloys |
Résistance à l'usure | Superior resistance to abrasion and galling |
Résistance à la corrosion | Good resistance to seawater and many chemicals |
Conductivité thermique | Better than stainless steels, suitable for heat exchange applications |
Anti-étincelles | Safe for use in explosive environments |
Low Magnetic Permeability | Suitable for applications requiring non-magnetic materials |
Désavantages
Inconvénient | La description |
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Coût | More expensive than simpler copper alloys or steels |
Masse | Heavier than aluminum alloys, which may be a concern in some applications |
Complex Processing | Requires careful control during casting and heat treatment |
Limited Ductility | Less ductile than pure copper or some other copper alloys |
Potential for Stress Corrosion Cracking | Can occur under certain environmental conditions |
Produits similaires et comparaison
Similar Nickel Aluminum Bronze Alloys
Les propriétés de soudure et de brasage sont excellentes | Composition chimique | Différences clés |
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C95800 | Cu-9Al-4Fe-4Ni | Higher iron content, slightly lower strength |
C95700 | Cu-11Al-3Fe-5Ni | Higher aluminum content, increased hardness |
C95400 | Cu-11Al-4Fe | No nickel, lower corrosion resistance |
Comparison with Other Material Classes
Matériel | Advantages over C95510 | Disadvantages compared to C95510 |
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Stainless Steel 316 | Lower cost, higher availability | Lower thermal conductivity, higher weight |
Aluminum Bronze (e.g., C95400) | Lower cost, easier to cast | Lower strength and corrosion resistance |
Bronze phosphoreux | Better electrical conductivity | Lower strength and wear resistance |
Titanium Alloys | Lower density, higher strength-to-weight ratio | Much higher cost, more difficult to machine |
Detailed Comparison Table
Propriété | AMS 4880-C95510 | Stainless Steel 316 | Aluminum Bronze C95400 | Titane grade 5 (Ti-6Al-4V) |
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Résistance à la traction (MPa) | 655-724 | 515-690 | 586-758 | 895-930 |
Limite d'élasticité (MPa) | 386-431 | 205-310 | 241-379 | 828-910 |
Allongement (%) | 9 (min) | 40 | 12 | 10-15 |
Densité (g/cm³) | 7,64 | 8.00 | 7h45 | 4.43 |
Conductivité thermique (W/m·K) | 42 | 16.3 | 59 | 6.7 |
Corrosion Resistance in Seawater | Excellent | Excellent | Bon | Excellent |
Machinability (0-100 scale) | 50 | 50 | 60 | 30 |
Relative Cost | Haut | Modéré | Modéré | Très haut |
Additional Properties and Characteristics
Propriété | Valeur | Units |
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Résistivité électrique | 14.4 | µΩ·cm |
La capacité thermique spécifique | 0.375 | J/g·°C |
Plage de fusion | 10h30-10h60 | °C |
Propriétés mécaniques de l'acier à outils AISI HSS M2 | 110-120 | GPa |
Coefficient de Poisson | 0.33 | – |
Fatigue Strength (10⁷ cycles) | 207-241 | MPa |
Damping Capacity | Modéré | – |
Environmental and Recycling Considerations
Aspect | La description |
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Recyclabilité | Highly recyclable, can be remelted and reused |
Environmental Impact | Lower energy requirement for recycling compared to primary production |
Toxicity | Non-toxic in solid form, but dust and fumes during processing should be controlled |
End-of-Life | Can be collected and recycled through established metal recycling streams |
Quality Control and Testing Methods
Méthode d'essai | But | Standard |
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Tensile Testing | Determine strength and ductility | ASTM E8 |
Hardness Testing | Measure surface hardness | ASTM E10 (Brinell) |
Analyse chimique | Verify composition | ASTM E478 |
Tests par ultrasons | Detect internal defects | ASTM E114 |
Radiographic Testing | Inspect for porosity and inclusions | ASTM E1742 |
Corrosion Testing | Evaluate corrosion resistance | ASTM G31 |
Storage and Handling Recommendations
Aspect | Recommendation |
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Storage Environment | Dry, clean area away from chemicals |
Handling | Use appropriate lifting equipment for heavy pieces |
Protection | Apply protective coatings or wraps to prevent surface damage |
Inventory Management | Use FIFO (First In, First Out) system to manage stock |
Safety Precautions | Wear appropriate PPE when handling, especially during cutting or machining |
Typical Lead Times and Pricing Factors
Facteur | La description |
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Standard Stock Sizes | Usually available with 1-2 week lead time |
Custom Sizes/Shapes | May require 4-8 weeks lead time |
Quantity | Larger orders may have longer lead times but better pricing |
Market Conditions | Copper and nickel prices can significantly affect final cost |
Certification Requirements | Special certifications may increase lead time and cost |
Conclusion
AMS 4880-C95510 Nickel Aluminum Bronze is a high-performance alloy that offers an excellent combination of strength, wear resistance, and corrosion resistance. Its versatility makes it suitable for a wide range of applications across various industries, particularly in marine and aerospace environments. While it may have a higher initial cost compared to some other materials, its long-term performance and durability often result in lower lifecycle costs for critical components. The material’s ability to maintain its properties under diverse operating conditions, coupled with its non-sparking characteristics, makes it a preferred choice for safety-critical applications. As with any specialized material, proper consideration should be given to design, processing, and maintenance to fully leverage its capabilities and ensure optimal performance throughout its service life.