2.4610 (NiMo16Cr16Ti) Forging Parts | Jiangyin China Factory

2.4610 International Grade Cross-Reference & Equivalent Standards

Procurement engineers across different regions use different standard systems to designate the same alloy. The table below maps 2.4610 (NiMo16Cr16Ti) to all internationally recognized equivalent designations — helping you identify the right material specification regardless of which standard system your project follows:

Physical & Thermodynamic Properties of 2.4610 (NiMo16Cr16Ti)

Beyond mechanical strength, the physical and thermal properties of 2.4610 (NiMo16Cr16Ti) forgings are important for engineering calculations involving heat transfer, thermal expansion management, structural deflection and weight estimation. These values are measured at room temperature (20°C) unless otherwise noted:

High-Temperature Mechanical Performance of 2.4610 Forgings

The retained strength of 2.4610 (NiMo16Cr16Ti) forged parts  at high temperatures is a main factor when choosing materials for power generation, petrochemical reactors and gas turbine applications. Our engineering data shows the following typical property retention across different service temperature ranges:

Note: These values are typical representative data for solution-annealed 2.4610 forged parts. The actual values depend on the specific heat treatment conditions and the thickness of the forged section. Please contact our technical team if you need project-specific material certification data.

Corrosion Resistance Performance of 2.4610 (NiMo16Cr16Ti) Forgings

The main advantage of 2.4610 (NiMo16Cr16Ti) forgings  over ordinary stainless steels and lower-grade nickel alloys is their excellent, measurable corrosion resistance in different corrosive media. Below is a comparison of their corrosion performance in common industrial process environments:

Pitting Corrosion Resistance Number (PREN)

PREN = %Cr + 3.3×%Mo + 16×%N is the internationally recognized index for ranking resistance to pitting corrosion in chloride environments. A higher PREN value means better pitting resistance:

CPT = Critical Pitting Temperature. Higher CPT = better resistance to pit initiation at elevated temperatures.

Corrosion Rate in Common Industrial Media

The following corrosion rate data for 2.4610 forgings (in solution-annealed condition) is based on immersion test results in laboratory conditions. Real-world performance may vary depending on temperature, concentration, flow rate and medium purity:

When Should You Specify 2.4610 (NiMo16Cr16Ti) Forgings? — Engineer's Decision Guide

 Not every project needs 2.4610 (NiMo16Cr16Ti). This alloy is a high-grade material, and its cost is also relatively high. Based on more than 20 years of experience supplying nickel alloy forgings to global customers, our technical team has summarized five practical engineering scenarios where 2.4610 is the right — and often the only — feasible choice:

Welding Guide for 2.4610 (NiMo16Cr16Ti) Forged Components

 Welding 2.4610 (NiMo16Cr16Ti) forged parts  needs careful process control to keep the alloy’s corrosion resistance and mechanical integrity in the weld and heat-affected zone (HAZ). The following guidelines are based on our factory’s production welding experience and international best practices for this alloy family:

Recommended Welding Processes & Filler Metals

Critical Welding Parameters & Precautions

• 1
  Pre-Weld Cleaning:  Clean the weld joint area thoroughly with acetone or isopropyl alcohol to remove all oil, grease, paint and marking ink. Any contamination may cause porosity or hot cracking in the weld metal. Use special stainless steel brushes — do not use carbon steel tools, as they may bring iron contamination.
• 2
  No Preheating Required: Unlike carbon steels, 2.4610 does not need preheating before welding. In fact, the interpass temperature must be strictly controlled below 100°C (212°F) to reduce heat buildup in the heat-affected zone (HAZ) as much as possible. This is to avoid chromium carbide precipitation and grain boundary sensitization.
• 3
  Low Heat Input Strategy: Use the lowest practical heat input — usually 0.5 to 1.5 kJ/mm for GTAW (Gas Tungsten Arc Welding). Stringer beads are better to use than weave beads. Too much heat input will increase the time spent in the sensitization temperature range (650–1000°C) and may cause corrosion degradation in the heat-affected zone (HAZ). That’s why 2.4610 performs better than C276 in welded assemblies — it has a higher tolerance for heat due to its ultra-low carbon and silicon content.
• 4
  Shielding Gas: For GTAW (Gas Tungsten Arc Welding): Use pure argon (99.99% purity) or a mixture of argon and 2–5% hydrogen as the shielding gas. For GMAW (Gas Metal Arc Welding): Use pure argon or mixtures of argon and helium. Do not use gases containing CO₂ — carbon pickup from CO₂ in the weld pool will greatly reduce corrosion resistance. It is mandatory to back purge with argon for pipe root welds.
• 5
  Post-Weld Heat Treatment (PWHT): For most applications, post-weld heat treatment (PWHT) is not needed for 2.4610 welds — this is one of its key engineering advantages. However, for nuclear-grade applications or situations where maximum corrosion resistance in the heat-affected zone (HAZ) is required, full solution annealing can be carried out at 1150–1175°C, followed by rapid water quenching, to restore the alloy to its best metallurgical state.

Our factory conducts all in-process and final weld inspections in line with the requirements of ASME BPVC Section IX and AWS D1.6, including 100% PT (Penetrant Testing) and UT (Ultrasonic Testing) of all weld joints. For critical applications, witnessed weld procedure qualification (WPS/PQR) documentation is available.

Machining Guide for 2.4610 (NiMo16Cr16Ti) Forged Parts

 2.4610 (NiMo16Cr16Ti)is considered a difficult-to-machine material because of its high strength, tendency to work harden, and low thermal conductivity. But if we have the right tools, cutting settings, and coolant management, we can always make finished parts with very high accuracy.We process more than 200 tons of 2.4610 forging material every year at our CNC machining center. Based on our actual production experience, these are the following parameters:

Recommended Cutting Parameters

Key Machining Precautions for 2.4610

• Avoid Work Hardening: Never let the cutting tool rub against or stay on the workpiece surface without cutting — 2.4610 hardens quickly when worked, and a rubbing tool will form a hardened surface layer. This layer will significantly increase cutting forces and speed up tool wear. Always keep a positive feed rate and ensure a sufficient depth of cut.
• Coolant is Non-Negotiable: Always use high-pressure flood coolant (sulfur-free and chloride-free cutting fluid). The minimum coolant pressure required for internal coolant drilling is 70 bar. The coolant has two main functions: preventing work hardening by reducing heat generation, and flushing chips away from the cutting area to avoid re-cutting of the chips.
• Sharp Tools, Frequent Changes:  Dull cutting tools will generate excessive heat and friction, which will accelerate work hardening. Replace the inserts as soon as signs of wear appear — do not wait until the tool fails catastrophically. For important finishing operations, use new inserts to guarantee dimensional accuracy and surface finish.
• Rigidity is Critical: Use the most rigid setup for the machine tool and workpiece. Minimize the overhang of the tool. For deep bores or long shafts, use steady rests. Vibration and chatter will lead to irregular tool engagement, which will cause work hardening and poor surface finish in the 2.4610 alloy.
• Achievable Tolerance & Surface Finish: Our CNC machining centers regularly get dimensional tolerances that meet the ISO 2768-mK standard (with a tolerance of ±0.05 mm for general dimensions) and a surface roughness of Ra ≤ 1.6 μm for shaft and bore diameters. If requested, we can also get a surface roughness of Ra ≤ 0.4 μm for precision-ground parts.

About Jiangsu Liangyi Co., Limited — Factory Profile & Entity Statement

Factory Scale & Production Capacity

Our location in Jiangyin City allows us to be part of Jiangsu Province’s highly developed industrial ecosystem — it is 90 minutes away from Shanghai Pudong International Airport, 1.5 hours from Shanghai Port (one of the world’s busiest container ports), and close to big nickel alloy raw material suppliers. This enables us to procure materials quickly and get competitive lead times for custom 2.4610 forging orders.

Ordering Information & Commercial Terms for 2.4610 Forging Parts

We understand that procuring custom 2.4610 (NiMo16Cr16Ti) forging parts from an overseas factory involves multiple commercial and logistical considerations besides technical specifications. Below is all the information you need to know before placing your first order with us:

Minimum Order Quantity (MOQ) & Sample Policy

• MOQ: There is no strict minimum order quantity for custom 2.4610 forgings — we accept orders ranging from a single sample order (for engineering validation) to large-volume mass production orders. However, for very small orders (1–5 pieces of small components), the pricing will take into account the setup cost of individual heat treatment and inspection runs.
• Material Certificates as Samples:  Before placing a production order, we can provide actual EN10204 3.1 mill test certificates and chemical analysis reports from our previous production runs of 2.4610 forgings for your material review and approval — free of charge.
• Pre-Production Samples: For new projects that need dimension test before full-scale production, we can manufacture and ship 1–3 prototype forgings for your inspection and approval before you commit to the full production batch.

Payment Terms & Trade Finance

• Accepted Payment Methods: T/T (Telegraphic Transfer) — most common; L/C (Letter of Credit, at sight or with usance terms) for large orders; Western Union for small-value orders; PayPal for sample/prototype orders.
• Typical Payment Schedule: 30% deposit upon order confirmation + 70% balance before shipment (standard T/T terms). For established long-term clients, credit terms are negotiable on a case-by-case basis.
• Currency: USD (primary), EUR, CNY (RMB) accepted.

Packaging & Export Crating Standards

• All 2.4610 forged parts are coated with rust-preventive oil or VCI (Volatile Corrosion Inhibitor) film before packaging — particularly important for machined surfaces and precision bores.
• Components are packed in export-grade wooden crates reinforced with steel strapping. These crates are rated for ocean freight stacking and moisture resistance, and comply with ISPM 15 phytosanitary standards for wooden packaging (using heat-treated timber with a corresponding stamp).
• Each crate is labeled with part number, heat number, weight, gross weight, dimensions, and import/export classification codes for smooth customs clearance.
• For fragile machined parts, individual foam padding or custom-cut timber cradles are used to prevent surface damage in transit.

Required Information for a Detailed Quotation

To provide you with an accurate price and delivery time for 2.4610 (NiMo16Cr16Ti) forging parts, please send us the following information:

1. 2D drawing or sketch with dimensions (PDF or DWG/STEP file preferred)
2. Material standard: EN 2.4610 / UNS N10276 / ASTM B564 N10276 or your needed standard
3. Heat treatment condition needed: solution annealed, or other
4. Required inspection and certification: EN10204 3.1 / 3.2, NDT scope, API 6A / ASME / PED compliance
5. Quantity and delivery address / destination port
6. Any other special requirements: surface finish, PMI, third-party inspection, PWHT, etc.

Why 2.4610 Open Die Forgings Outperform Bar Stock & Castings

 When specifying 2.4610 (NiMo16Cr16Ti) parts for important service, the form of the material — whether forging, bar stock or casting — is just as important as the alloy composition itself. Many procurement teams tend to default to purchasing bar stock because of its faster availability, or specify castings to match intricate geometries. However, in demanding corrosive, high-pressure or cryogenic applications, this decision can compromise long-term reliability in ways that are not immediately visible during incoming inspection. Below is a direct technical comparison based on our manufacturing experience:

Surface Treatment & Finishing Options for 2.4610 (NiMo16Cr16Ti) Forgings

 The surface condition of 2.4610 (NiMo16Cr16Ti) forged parts after heat treatment and machining directly impacts their corrosion resistance, dimensional accuracy, and compatibility with your sealing and assembly requirements. Our factory provides the following surface treatment and finishing options, all of which are fully traceable and documented in the EN10204 3.1 mill test certificate:

Standard Surface Conditions Available

Important Note on Pickling: The pickling process of 2.4610 requires strict process control. Overexposure to HF-containing acid solutions can lead to hydrogen embrittlement in cold-worked areas and micro-pitting on the surface. Our pickling process is implemented in strict accordance with the requirements of ASTM A380 and ASTM A967, where the acid concentration, temperature, and immersion time are strictly controlled and monitored for each batch of forgings.

Export HS Code & Customs Classification for 2.4610 (NiMo16Cr16Ti) Forgings

Knowing the right Harmonized System (HS) code for 2.4610 (NiMo16Cr16Ti) nickel alloy forgings  is very important for calculating import duties correctly, clearing customs smoothly and following trade rules in your country. Using the wrong HS code is one of the most common reasons for customs delays and fines when importing industrial forgings. Our export documentation team provides this reference based on our shipping experience to more than 50 countries:

More Technical Questions About 2.4610 Forgings

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