SourcingAI

Pouring ladle

I have found results from4000+products and1000+suppliers aboutPouring ladle

Commonly Used:
US$
—
Customization Available
Sample Available
Manufacturer First
Product Attributes:
Type: Sand Casting
Type: Steel-Making Equipment
Type: Cooking Sets
Electromagnetic Vibrating Feeder
Type: Articulated Robot
Type: Auxiliary Equipment
Control Type: PLC
Customized: Customized
Condition: New
Automatic Grade: Automatic
Certification: CE
Casting Method: Special Casting
Casting Form Material: Metal
Casting Metal: Cast Steel
Casting Form Usage Count: Permanent
Surface Treatment: Spray-Paint
Surface Roughness: Ra6.3
Machining Tolerance: +/-0.15mm
Standard: GB
Range of Applications: Industrial
Application: Architectural
Material: Stainless Steel
Style: Eco-Friendly
Disposable: Non-Disposable
Refractoriness (℃): Refractoriness<1580
Usage: Aerospace
Temprature Classification: 1260℃
Chemical Composition:: BN
High Purity Ceramic Fiber
Capacity(t/h): 400-600
Motor Power(kw): 20~25
Coating: Zinc oxide
Continuous Path Control
Degrees of Freedom: 7-axis
Drive Mode: Electric
Power Source: Electric
Automatic Grade: Manual
Automatic Grade: Semi-Automatic
Certification: RoHS
Certification: GS
Certification: ISO9001
Certification: ISO
Certification: ISO 9001:2000
Certification: FDA
Certification: LFGB
Certification: ISO 9001:2008
Casting Method: Sand Casting
Casting Metal: Cast Iron
Surface Treatment: Painted
Surface Treatment: Polishing
Surface Treatment: Electroplating
Surface Roughness: Ra0.05
Surface Roughness: Ra0.4
Surface Roughness: Ra12.5
Surface Roughness: Ra0.2
Surface Roughness: Ra1.6
Machining Tolerance: +/-0.01mm
Machining Tolerance: +/-0.02mm
Standard: GOST
Standard: AISI
Application: Refractory
Application: Automotive Industry
Usage: Ceramic Industry
Non-Metallic Mineral Processing Industry
High Temperature Insulating Material
Chemical Composition:: Al2O3.SiO2
Coating: Water

Sourcing guidance for Pouring Ladle

What are the key technical specifications to consider when selecting a pouring ladle for industrial use?

When sourcing pouring ladles, the most critical factor is the material composition and heat resistance. For molten steel or iron, ensure the ladle shell is made of high-quality carbon steel (Q235B or Q345B) with a thickness compliant with ASME or equivalent safety standards. The refractory lining (such as high-alumina bricks or monolithic casting) must be rated for temperatures exceeding 1600°C to prevent burn-through. Additionally, verify the gearbox ratio and self-locking mechanism for manual tilting ladles to ensure smooth, controlled pouring and operator safety.

How do I ensure the pouring ladle meets international safety and quality standards?

Buyers should prioritize suppliers who hold ISO 9001:2015 certification for quality management. For the lifting components, look for CE marking or compliance with DIN 15018 (cranes and steel structures). It is essential to request Non-Destructive Testing (NDT) reports, specifically Ultrasonic Testing (UT) and Magnetic Particle Inspection (MPI) for the lifting bails and trunnions, as these are the primary load-bearing points prone to fatigue.

What capacity and configuration options are best for different foundry scales?

For small-scale foundries or laboratory settings, hand-shank ladles (10kg - 100kg) are ideal. Medium to large operations should look for crane-suspended teapot ladles or bottom-pour ladles (500kg - 50 tons). Teapot designs are superior for slag-free pouring, as they draw metal from the bottom. Ensure the ladle's center of gravity is scientifically calculated to allow for an automatic return to the upright position when the tilting force is released.

What maintenance requirements should be discussed with the supplier?

Inquire about the availability of replacement parts, specifically the tilting gears, bearings, and refractory nozzles. A professional supplier should provide a maintenance manual detailing the frequency of lubrication for the worm gear and the procedure for pre-heating the refractory lining to avoid thermal shock. Ask if the supplier offers customized refractory kits tailored to the specific alloys you are melting.

Cross-Border Procurement & Risk Management for Heavy Foundry Equipment

What are the primary risks when importing heavy industrial ladles from overseas?

The main risks include structural damage during maritime transit and non-compliance with local safety regulations. To mitigate this, use Made-in-China.com's Secured Trading services to ensure payment is only released after quality verification. Always mandate seaworthy packaging, including anti-rust coating and heavy-duty steel framing within the shipping container to prevent shifting.

How should I negotiate with suppliers to ensure long-term reliability?

Focus negotiations on warranty terms and technical support rather than just the lowest price. Aim for a 12 to 24-month warranty on the mechanical structure. Request a Video Factory Audit or a third-party inspection (like SGS or Intertek) via the Made-in-China.com platform to verify the supplier's production capacity and welding certifications before placing a bulk order.

What are the logistics and customs considerations for shipping large ladles?

Due to the weight and volume, FOB (Free On Board) is often preferred for experienced buyers to control freight costs, but CIF (Cost, Insurance, and Freight) is safer for novices. Ensure the supplier provides a HS Code (typically 8454.90) that matches your local customs tariff schedule to avoid unexpected duties. For oversized ladles, confirm if Flat Rack containers or Breakbulk shipping is required.

How can I verify the transaction security for high-value industrial orders?

Utilize Escrow-based payment systems provided by reputable B2B platforms like Made-in-China.com. Never transfer full payments via unsecured channels for first-time orders. Implement a 30% deposit and 70% balance payment structure linked to the issuance of a Clean Bill of Lading and a successful Pre-Shipment Inspection (PSI).

Related queries