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Casting ladle

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Commonly Used:
US$
Customization Available
Sample Available
Manufacturer First
Product Attributes:
Type: Special Casting
Clay Dry Sand
Type: Steel-Making Equipment
Type: Auxiliary Equipment
Electromagnetic Vibrating Feeder
Material: Steel
High Temperature Resistance
Mold Material: Metal Mold
Certification: ISO
Warranty: 12 Months
Metal Color: Black Metal
Customized: Customized
Condition: New
Casting Method: Special Casting
Casting Form Material: Metal
Casting Metal: Nonferrous Alloys
Casting Form Usage Count: Semi-permanent
Surface Treatment: Spray-Paint
Surface Roughness: Ra0.8
Coating: Diatomite powder
Machining Tolerance: +/-0.02mm
Standard: ASTM
High Temperature Insulating Material
Temprature Classification: 1500℃
Chemical Composition:: Al2O3.SiO2
Jilt Silk Rug
Ordinary Ceramic Fiber
Resin Sand Core
Application: Machinery Parts
Machining: CNC Machining
Manufacturing Process: Forging
Power Source: Electric
Automatic Grade: Automatic
Control Type: PLC
Refractoriness (℃): Refractoriness<1580
Capacity(t/h): 400-600
Motor Power(kw): 20~25
Material: Stainless Steel
Certification: CE
Certification: RoHS
Certification: ISO 9001:2000
Certification: ISO 9001:2008
Vacuum Aspirated Casting
Casting Method: Sand Casting
Casting Metal: Cast Steel
Casting Metal: Cast Iron
Casting Form Usage Count: Permanent
Surface Treatment: Sand Blast
Surface Treatment: Without Processing
Surface Treatment: Electroplating
Surface Roughness: Ra12.5
Surface Roughness: Ra6.3
Surface Roughness: Ra0.05
Surface Roughness: Ra0.4
Coating: Water
Coating: Zinc oxide
Machining Tolerance: +/-0.15mm
Machining Tolerance: +/-0.10mm
Machining Tolerance: +/-0.01mm
Standard: GB
Standard: AISI
Standard: ASME
Standard: BS
Standard: ANSI
Standard: JIS
Standard: GOST
Standard: DIN
Usage: Aerospace
Usage: Ceramic Industry
Non-Metallic Mineral Processing Industry
Temprature Classification: 1400℃
Temprature Classification: 1260℃
Temprature Classification: 1050℃
Automatic Grade: Semi-Automatic

Sourcing guidance for Casting Ladle

How to choose the right type of Casting Ladle for specific foundry operations?

Selecting the correct ladle depends primarily on the metal type, pouring volume, and automation level. For small-scale manual operations, hand-held shank ladles are suitable, while large-scale industrial foundries require crane-operated bottom-pour or teapot ladles to ensure slag-free metal delivery. You must specify the maximum molten metal capacity (ranging from 50kg to over 50 tons) and the tilting mechanism (manual gear vs. motorized) to match your facility's overhead crane or forklift capabilities.

What are the key material and lining specifications for high-temperature safety?

The ladle shell should be constructed from heavy-duty carbon steel or low-alloy steel with reinforced ribs to prevent thermal deformation. Crucially, the refractory lining must be compatible with the melting temperature of your metal; for example, alumina-magnesia bricks or monolithic ramming masses are preferred for steel, while graphite-clay or silicon carbide linings are common for non-ferrous metals like aluminum. Ensure the lining provides low thermal conductivity to minimize heat loss during the transfer process.

What compliance and safety standards should a B2B buyer verify?

Safety is paramount in molten metal handling. Buyers should prioritize suppliers who adhere to ISO 9001 quality management systems and provide CE certification for motorized components. Specifically, look for compliance with EN 1247 (Foundry machinery - Safety requirements for ladles) or equivalent regional standards. Request Non-Destructive Testing (NDT) reports, such as Ultrasonic or X-ray testing for critical welds on the lifting trunnions, to ensure structural integrity under extreme heat.

How can buyers evaluate the pouring precision and slag control technology?

To improve casting yield, evaluate the ladle's pouring lip design or nozzle mechanism. Teapot ladles are highly effective for 'bottom-drawing' metal, which naturally leaves slag on the surface. For precision steel casting, stopper-rod systems or sliding gate valves offer superior flow control. Ensure the gearbox features a self-locking mechanism to prevent accidental tilting, which is a critical safety feature for maintaining a steady pouring stream.

Cross-Border Procurement Considerations for Casting Ladles

What are the primary risks when importing heavy foundry equipment from overseas?

The main risks include structural damage during maritime transit and non-compliance with local safety inspections. To mitigate this, require the supplier to use seaworthy packaging with anti-rust coating and secure the ladle in a reinforced steel frame. Always use Made-in-China.com's inspection services to verify the ladle's dimensions and weld quality before the final balance payment is made.

How should buyers negotiate with suppliers regarding customization and spare parts?

Negotiate for a comprehensive spare parts package, including extra refractory nozzles, stopper rods, and gearbox seals, as these are wear-and-tear items that are costly to ship individually later. Request customized trunnion distances to ensure the ladle fits your existing crane hooks perfectly. For large orders, aim for a 10-15% discount on the unit price or negotiate for FOB (Free On Board) terms to maintain better control over international freight costs.

What are the best practices for shipping and logistics to ensure transaction security?

Due to the weight and volume of casting ladles, Flat Rack containers or Breakbulk shipping may be necessary for larger units. Ensure the transaction is protected by Trade Terms that include insurance (such as CIF). Use secure payment methods like Letters of Credit (L/C) for high-value industrial equipment to ensure funds are only released upon the presentation of valid shipping documents and quality certificates.

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