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Energy & Turbine Castings · Turbine Blades & Vanes

Gas Turbine Blade

6 catalogued sizes, cast to AMS 5382 / Inconel 713C. Pick any row and the technical drawing redraws to it.

Gas Turbine Blade to AMS 5382 / Inconel 713C are catalogued in overall length 60 mm to 200 mm, with width 18-60 mm, height 13.2-44 mm, section thickness 3.3-11 mm. 6 sizes are held in the table below, and the technical drawing redraws to whichever row you select.

Specification
AMS 5382 / Inconel 713C
Alloys
CF8M, CA6NM, CD3MN (2205)
Size range
60 mm-200 mm
Wide
18-60 mm
Catalogued sizes
6

Dimensions are nominal casting dimensions before machining allowance. Confirm the tolerance grade and the machined features against your drawing before ordering.

Gas Turbine Blade investment casting

Alloys & Grades

The Gas Turbine Blade is cast in 9 of the 63 grades we work in. Those are listed first; the full reference tree is underneath, with each designation shown alongside its ASTM/UNS, EN and GB equivalents.

  • CF8M ASTM A351 CF8M / UNS J92900 (cast 316)
  • CA6NM ASTM A743 CA6NM / UNS J91540
  • CD3MN (2205) ASTM A890 Gr 4A / UNS J92205 (cast 2205 duplex)
  • CE3MN (2507) ASTM A890 Gr 5A / UNS J93404 (cast 2507 super duplex)
  • HK30 ASTM A297 HK30 / UNS J94203 (GX40CrNiSi25-12)
  • HK40 ASTM A297 HK40 / UNS J94204
  • Inconel 625 (CW6MC) ASTM A494 CW6MC / UNS N26625 (cast Inconel 625)
  • A356 / A356-T6 ASTM B26 A356-T6 / AlSi7Mg0.3
  • Ti-6Al-4V (Grade 5) ASTM B367 Gr C-5 / UNS R56400 (Ti-6Al-4V)
Browse all 63 cast grades we work instainless · carbon & low-alloy · nickel & cobalt · copper · aluminium · titanium
Stainless Steel Castings produced by investment casting

Austenitic Cast Stainless Steel

  • CF8 ASTM A351 CF8 · UNS J92600 · AISI 304 cast · EN 1.4308
  • CF3 ASTM A351 CF3 · UNS J92500 · AISI 304L cast · EN 1.4309
  • CF8M ASTM A351 CF8M · UNS J92900 · AISI 316 cast · EN 1.4408
  • CF3M ASTM A351 CF3M · UNS J92800 · AISI 316L cast · EN 1.4409
  • CF8C ASTM A351 CF8C · UNS J92710 · AISI 347 cast · EN 1.4552
  • CG8M ASTM A351 CG8M · UNS J93000 · AISI 317 cast
  • CN7M ASTM A351 CN7M · UNS N08007 · Alloy 20 cast · Carpenter 20
  • CK3MCuN ASTM A351 CK3MCuN · UNS J93254 · 254 SMO cast · EN 1.4547
  • CN3MN ASTM A351 CN3MN · UNS J94651 · AL-6XN cast

Martensitic Cast Stainless Steel

  • CA15 ASTM A743 CA15 · UNS J91150 · AISI 410 cast · EN 1.4008
  • CA40 ASTM A743 CA40 · UNS J91153 · AISI 420 cast · EN 1.4034
  • CA6NM ASTM A743 CA6NM · UNS J91540 · EN 1.4313 · GX4CrNi13-4
  • CA15M ASTM A743 CA15M · UNS J91151
  • CA6N ASTM A743 CA6N · UNS J91650

Precipitation-Hardening Cast Stainless Steel

  • CB7Cu-1 (17-4 PH) ASTM A747 CB7Cu-1 · UNS J92180 · 17-4 PH cast · AISI 630
  • CB7Cu-2 (15-5 PH) ASTM A747 CB7Cu-2 · UNS J92110 · 15-5 PH cast
Duplex & Super Duplex Cast Stainless Steel investment castings

Duplex & Super Duplex Cast Stainless Steel

  • CD3MN (2205) ASTM A890 Gr 4A · UNS J92205 · Duplex 2205 cast · EN 1.4470
  • CE3MN (2507) ASTM A890 Gr 5A · UNS J93404 · Super Duplex 2507 cast · EN 1.4469
  • CD4MCu ASTM A890 Gr 1A · UNS J93370
  • CD3MWCuN (Zeron 100) ASTM A890 Gr 6A · UNS J93380 · Zeron 100 cast
Heat-Resistant Cast Stainless Steel investment castings

Heat-Resistant Cast Stainless Steel

  • HK30 ASTM A297 HK30 · UNS J94203 · GX40CrNiSi25-12
  • HK40 ASTM A297 HK40 · UNS J94204 · EN 1.4848
  • HH ASTM A297 HH · UNS J93503 · EN 1.4837 cast
  • HT ASTM A297 HT · UNS J94605
  • HP ASTM A297 HP · UNS J95705 · GX40NiCrSi35-25
Carbon & Low-Alloy Steel Castings produced by investment casting

Carbon Steel Castings

  • WCB ASTM A216 WCB · UNS J03002 · GP240GH · EN 1.0619
  • WCC ASTM A216 WCC · UNS J02503
  • WCA ASTM A216 WCA · UNS J02502
  • LCB ASTM A352 LCB · UNS J03003
  • LCC ASTM A352 LCC · UNS J02505
  • AISI 1045 Cast ASTM A732 Gr 1045 · UNS G10450 · C45 · 45#
Low-Alloy Steel Castings investment castings

Low-Alloy Steel Castings

  • AISI 4140 Cast ASTM A732 Gr 4140 · UNS G41400 · 42CrMo4 · EN 1.7225
  • AISI 8620 Cast ASTM A732 Gr 8620 · UNS G86200 · 20CrNiMo
  • WC6 ASTM A217 WC6 · UNS J12072 · 1.25Cr-0.5Mo · G17CrMo5-5
  • WC9 ASTM A217 WC9 · UNS J21890 · 2.25Cr-1Mo · G17CrMo9-10
  • C5 ASTM A217 C5 · UNS J42045 · 5Cr-0.5Mo
  • C12A ASTM A217 C12A · UNS J84090 · Grade 91 · 9Cr-1Mo-V
  • AISI 4340 Cast ASTM A732 Gr 4340 · UNS G43400 · 40CrNiMoA

Nickel-Base Alloy Castings

  • Inconel 625 (CW6MC) ASTM A494 CW6MC · UNS N26625 · Inconel 625 · Alloy 625
  • Inconel 718 AMS 5383 · UNS N07718 · Alloy 718 · GH4169
  • Inconel 713C AMS 5391 · UNS N07713 · Alloy 713C
  • Hastelloy C (CW6M) ASTM A494 CW6M · UNS N30107 · Hastelloy C cast
  • Hastelloy C-276 (CW12MW) ASTM A494 CW12MW · UNS N30002 · Alloy C-276 cast
  • Monel M-35-1 ASTM A494 M35-1 · UNS N24135 · Monel 400 cast

Cobalt-Base Alloy Castings

  • CoCrMo (ASTM F75) ASTM F75 · UNS R30075 · CoCr28Mo6
  • Stellite 6 UNS R30006 · CoCr-A · Alloy 6
  • Stellite 12 UNS R30012 · Alloy 12
  • X-40 (Co-Cr-W) AMS 5382 · UNS R30031 · Haynes 31
Copper Alloy Castings produced by investment casting

Bronze Castings

  • C95800 Nickel Aluminum Bronze ASTM B148 C95800 · UNS C95800 · NAB · CuAl10Fe5Ni5
  • C95500 Nickel Aluminum Bronze ASTM B148 C95500 · UNS C95500
  • C90300 Tin Bronze ASTM B584 C90300 · UNS C90300 · 88-8-0-4
  • C93200 Bearing Bronze ASTM B584 C93200 · UNS C93200 · SAE 660

Brass Castings

  • C83600 Red Brass ASTM B584 C83600 · UNS C83600 · 85-5-5-5
  • C87600 Silicon Brass ASTM B584 C87600 · UNS C87600
  • C86300 Manganese Bronze ASTM B584 C86300 · UNS C86300

Aluminum Alloy Castings

  • A356 / A356-T6 ASTM B26 A356 · UNS A13560 · AlSi7Mg0.3 · EN AC-42000
  • A357 ASTM B26 A357 · UNS A13570 · AlSi7Mg0.6
  • 355 / C355 ASTM B26 355 · UNS A03550 · AlSi5Cu1Mg
  • A201-T7 ASTM B26 A201 · UNS A02010 · AlCu4MgTi

Titanium Castings

  • Ti-6Al-4V (Grade 5) ASTM B367 Gr C-5 · UNS R56400 · TC4 · Ti-6-4
  • CP Titanium Grade 2 ASTM B367 Gr C-2 · UNS R50400

Special & Wear Alloys

  • Ni-Resist D-2 ASTM A439 D-2 · UNS F43000
  • High-Chrome White Iron ASTM A532 Class III · 25Cr white iron

Technical Drawing

Every parameter below is editable, and the drawing redraws to match the values you choose. Picking a size snaps the other fields to that size's values; you can then override any one of them.

Sends the selected values to the quote form below.

Request a Quotation for Gas Turbine Blade

The form below follows the current drawing configuration. Change the values above and the request updates with them. Attaching a drawing or a STEP file is the fastest route to a firm price.

Request a Quotation

Specification
Business Information

Dimensions & Parameters (AMS 5382 / Inconel 713C)

Nominal casting dimensions before machining allowance. Every row is a starting point for the customizer above — pick any size and the drawing redraws to it.

SizeOverall Length L (mm)Overall Width W (mm)Overall Height H (mm)Main Thickness T (mm)Hole Diameter ØD (mm)Min. Wall Thickness (mm)Fillet Radius R (mm)Casting Weight (kg)
60 mm601813.23.3522.50.03
80 mm802417.64.452.73.50.08
100 mm10030225.563.44.50.16
125 mm12537.527.56.984.35.50.31
160 mm1604835.28.8105.570.65
200 mm200604411126.891.27

The Gas Turbine Blade is a high-temperature casting produced by investment casting — the lost wax process — to AMS 5382 / Inconel 713C. This page lists the full size range with the geometry an engineer needs to specify the part and request a quotation.

What Is a Gas Turbine Blade?

The Gas Turbine Blade is a high-temperature casting. It is selected by overall length together with the wall thickness and the hole or port geometry shown in the table below, and is supplied in a range of alloys and surface conditions to suit the service.

How This Part Is Cast

A wax pattern is injected, assembled onto a runner and shelled in silica sol, then dewaxed and fired before pouring under vacuum. Vacuum melting is what makes the reactive and high-nickel grades castable at all: poured in air they gas and oxidize, and the resulting inclusions are exactly the defects that shorten creep life at temperature.

Alloy Options

This part is supplied in CF8M, CA6NM, CD3MN (2205), CE3MN (2507), HK30, HK40, Inconel 625 (CW6MC) and A356 / A356-T6. The alloy drives both price and lead time more than any other choice on the RFQ, so state it if your drawing calls one out — and if it does not, describe the service (the medium, the temperature and the pressure) and we will propose one.

Tolerances, Finish & Machining

As-cast dimensions are held to ISO 8062-3 DCTG 6-8 on a silica sol shell, which is roughly ±0.3 mm on a 50 mm feature and widens with size. As-cast surface finish is typically Ra 3.2-6.3 µm. A machining allowance of 1.5-3 mm is added to the faces called out on the drawing; every other surface is supplied as-cast. State the tolerance grade and the finish you need on the RFQ — both change the price, and a tolerance nobody asked for is the most common avoidable cost on a casting.

Inspection & Testing

  • Chemical composition by spectrometer on every heat, with the certificate supplied against the specified grade.
  • Dimensional inspection against the drawing, with a first-article report on new tooling.
  • Verification of the heat-treatment condition and, on request, elevated-temperature mechanical testing.

Typical Applications

Gas and steam turbines, burners and compressors, at temperatures where creep and oxidation resistance decide the design. Read the full application guide for Gas Turbine Blade →

Pricing

The Gas Turbine Blade is made to order. Pricing starts from approximately US$96.00 per piece for the smallest listed size in Inconel 713C at production quantity; the final figure depends on pour weight, alloy, machining scope, surface finish and order quantity, and tooling is a separate one-time charge. Submit the configuration above for a firm quotation.

Inside the plant

Manufactured in our own plant

This part is cold-formed, threaded, heat-treated and finished in-house. The stages below are where its class and finish are actually decided.

  1. Wax pattern being injected into an aluminum die
    01

    Tooling & wax injection

    An aluminum die is cut from your drawing or 3D model, and wax is injected into it under pressure. Everything downstream is a copy of this pattern, so the die is where the tolerance is actually decided — not on the shop floor afterwards.

    First-article dimensional report on every new die before production wax is run.

  2. Wax patterns assembled onto a runner tree
    02

    Tree assembly & gating

    Patterns are welded onto a wax runner to form a tree. How they are gated is not cosmetic: the gate positions decide which sections solidify last, and a heavy section fed from the wrong direction is where shrinkage porosity comes from.

    Gating reviewed against the part's heaviest section before the first tree is built.

  3. Ceramic slurry dipping and stucco coating of a wax tree
    03

    Ceramic shell building

    The tree is dipped in ceramic slurry and stuccoed with refractory grain, six to eight times, drying between coats. The face coat is what the casting surface copies, which is why a silica sol face gives Ra 3.2-6.3 µm where a water-glass shell gives a coarser one.

    Slurry viscosity and drying room temperature and humidity logged per coat.

  4. Ceramic shells being dewaxed in a steam autoclave
    04

    Dewaxing

    A steam autoclave melts the wax out fast, so that the wax — which expands more than the ceramic does — leaves before it can split the shell. Recovered wax is filtered and reused for gating rather than for patterns.

    Every shell inspected for cracks after dewax; a cracked shell is scrapped, not patched.

Video: Gas Turbine Blade

Third-party video, selected automatically for this topic. It is not produced by Lost Wax Casting and is not a specification source — use the tables on this page for dimensional data.

Frequently Asked Questions

What is the controlling specification for the Gas Turbine Blade?

The Gas Turbine Blade is cast to AMS 5382 / Inconel 713C. The dimensions on this page follow that specification, and the material certificate supplied with the order is issued against it.

What sizes are available for the Gas Turbine Blade?

The table on this page lists 6 sizes for the Gas Turbine Blade by overall length, from 60 mm to 200 mm. Sizes outside the table are quoted on request — investment casting is tooled per part, so a new size is a new pattern die rather than a stock item.

Which alloys is the Gas Turbine Blade cast in?

The Gas Turbine Blade is supplied in CF8M, CA6NM, CD3MN (2205), CE3MN (2507), HK30 and HK40. The alloy drives both the price and the lead time more than any other choice on the RFQ, so state it if your drawing calls one out — and if it does not, describe the service (the medium, the temperature and the pressure) and we will propose one.

What wall thickness does the Gas Turbine Blade have?

The listed sizes run from 2 mm to 6.8 mm of nominal wall. Investment casting will hold a section down to about 1.5 mm in the silica sol shell used here — 0.6 mm on a small isolated feature — and the thin end of that range is a shell-filling question rather than a strength one. A section much heavier than the surrounding wall is the more common problem: it solidifies last and shrinks, so it is fed or cored rather than left solid.

How do I request a quotation?

Set the configuration on the technical drawing above — size, alloy, finish — and click "Request this configuration". The values carry into the quote form below it. Attach a drawing or a STEP file if you have one; it is the fastest route to a firm price, and it lets us flag any castability issue before you commit to tooling.